How to
Learn Geo-Surface Pro, one chapter at a time
Every picture here is a real screenshot of a real design. Scroll through a chapter and the picture follows along, or jump straight to the part you need.
What are you designing?
Pick one and the tutorial shows only the chapters and steps for that job, in the order you do them. Change it any time from the bar at the top.
Common questions
- Why is my run marked S or D?
- Why is my ditch marked S or D?
- Which file does my display take?
- Which file does my machine control read?
- How do I get the elevation for my field?
- Where do I set the depth and spacing?
- Where do I set the ditch depth limits?
- How do I change one pipe size?
- How do I set a fixed depth at the outlet?
- How do I set the ditch depth at the outlet?
- How do I make laterals stop at a field edge?
- How do I add a surface inlet?
- Why is there overburden in the report?
- How much dirt will it move?
- Why does the design run short of dirt?
- How do I back up or restore a project?
- Where is that tool? Find any tool
- How do I switch to metric?
- How do I change one stretch of pipe?
- Where do I set the drainage coefficient?
All chapters 14 chapters · about 3 h 13 min
Jump to:Send it to the machineLook up any toolWords used
Reference, in every workflow
Chapter 1 of 14 · about 5 min
The app at a glance
Where everything is: the three tabs that follow the job from field to delivery, the tool rail on the map, Map Layers, the tool finder and the units switch.
Field used: Logan County IL, 82 ac
Step 1 of 8
The sidebar on the left holds the three tabs; the map on the right shows your field and design. The bar along the top holds the project name, the country button (US here: click it to switch country), the workspace, Find any tool or setting, the place search, the user manual, the units button and Help & feedback. The profile chart opens along the bottom of the map. Geo-Surface runs in a Chrome or Edge browser on a desktop or laptop computer; nothing needs installing.
Where to find it: The whole window
Step 2 of 8
The three tabs follow the job. Project: the field, its elevation and the analysis layers. Design: the design itself, whether tile, surface drainage or land forming. Deliver: reports, machine files, exports and the project backup. The row of buttons under the tabs jumps to parts of the open tab; on the Design tab they depend on the workspace you are in (here the Drainage workspace: Design, Sizing, Simulation, Surface).
Where to find it: Sidebar, top
Step 3 of 8
On the Design tab the drawing tools sit in a rail on the map. Hold the mouse over a button to see its name: Draw drain, Copy offset, Mirror across the main, Aligned lateral, Herringbone laterals, Respace laterals, Update laterals, Reconnect laterals, Move drain, Edit drain vertices, Split Line at Point, Trim drain lines, Extend selected drain and the erase tools. Drag the grip at the top to move the rail.
Where to find it: Design tab > the rail on the left of the map
Step 4 of 8
Prefer the tools out of the way? Click the pin at the top of the rail and it becomes a strip along the top of the map. Click the pin again to float it back where it was.
Where to find it: Tool rail > pin
Step 5 of 8
The map toolbar at the bottom left of the map holds Layers, Contours, Measure & annotate, GPS (your position in the field), Reference overlays (your own images and KMZ files) and GPS survey (record a drain as you walk or drive; see Every tool > GPS survey). 3D View sits at the bottom right.
Where to find it: Map, bottom left
Step 6 of 8
Not sure where something is? Press Ctrl+K (or click Find any tool or setting… at the top) and type what you want, for example best fit. Press Enter or click Locate and the app opens the right place and points to the control.
Where to find it: Top bar > Find any tool or setting… (Ctrl+K)
Step 7 of 8
The units button at the top cycles what you see between inches, decimal feet (0.1 ft, shown here) and metric. It only changes how numbers are shown and typed; the design itself stays the same. The app starts in decimal feet in the US and Canada and in metric in the other supported regions; metric shows metres, millimetres for depths and pipe sizes, hectares and L/s.
Where to find it: Top bar > units button (shows 0.1 ft here)
Step 8 of 8
Help & feedback opens Geo-Surface Support: ask about a tool or result, get guided through a task, report something that is not working or suggest an improvement. When an export or import says it failed, or you want a person to look at your design, report it here; if it involves a design, reply to Support with a project backup ZIP attached (Deliver tab > Project Backup > Backup Project) so a person can open exactly what you see. The book button in the top bar opens the user manual, and the (i) buttons next to many settings explain that setting. Next: set up your first field.
Where to find it: Top bar > Help & feedback
Click the picture to see it full size.
Chapter 2 of 14 · about 19 min
Get started: your field, its elevation and the map layers
Set up a project, outline the field, download its elevation and let the app read the ground for you. By the end you can see where water runs, where it sits and which way each part of the field drains.
Field used: Logan County IL, 82 ac
Step 1 of 28
Geo-Surface Pro opens in the region you used last or, the first time, in your own country, read from your browser. When it cannot tell, it asks: Choose your region. Each row names the country, the public elevation it downloads there and how fine it is, for example United States: 1 m LiDAR where published, 10 m national DEM elsewhere, and Canada: 1 m LiDAR where published. Click yours. It sets where elevation and soil maps come from and what the location search looks in. The region button at the top of the window switches region at any time. Fields somewhere else? Pick Elsewhere at the foot of the list and bring your own elevation.
Where to find it: First start > Choose your region
Step 2 of 28
The Region card at the foot of the Project tab shows the country the app is working in (USA here). Pick another country in it and the app reloads in that country, so save or back up the project you have open first. You rarely need it: each project remembers its country, and opening a backup made in another country switches the app over for you.
Where to find it: Project tab > Region
Step 3 of 28
To keep your projects in a folder on your computer, saved again automatically as you work, turn on folder storage: Geo-Surface offers it with Store projects in a folder? after you save your first project backup, or tick Store projects in a folder on this computer on the Project Folder Storage card of the Deliver tab. The Projects dialog then asks for the folder: click Choose projects folder… and pick one. Each project is saved there in its own folder. Prefer not to? Continue without a project, and Backup Project on the Deliver tab still saves everything in one ZIP.
Where to find it: Deliver tab > Project Folder Storage (or the Store projects in a folder? offer after your first backup) > the Projects dialog
Step 4 of 28
Click New project, type a name you will recognise later (the farm and field are a good choice) and click Create. The name shows at the top left of the window. Anything already on the map, such as a boundary you drew first, goes into the new project; only Start the new project empty instead clears it. Restore backup ZIP… in the same dialog opens a project someone sent you.
Where to find it: Projects dialog > New project
Step 5 of 28
Zoom to the field with the mouse wheel, or type a place in Search locations at the top and press Enter (or click the magnifier); it searches the country or region your app is set to. In Quebec, turn on Declared field outlines (FADQ) in Map Layers, click your field and choose Use as field boundary. The Project tab walks you through three steps: Define Your Field, Get Elevation Data and Create Analysis Layers. You can upload a boundary you already have (a zipped shapefile with its .prj, in any coordinate system its .prj names, such as latitude/longitude, UTM, State Plane or MTM, or a KML / KMZ file) or draw one. Have your own RTK survey (elevations measured with your own GPS)? Use it instead of LiDAR: open Other elevation sources, or an existing design on the Project tab and choose Use an RTK survey as the ground.
Where to find it: Project tab > Define Your Field
Step 6 of 28
Click Draw field boundary, then click each corner of the field in turn, following the edge of the crop. Click the first corner again, press Enter or double-click to finish; Backspace removes the last corner and Esc cancels. To help find the field edges, Map Layers can draw the land survey grid: PLSS Overlay (townships and sections) in the US, Land Parcels in Canada (quarter sections in Manitoba, Saskatchewan and Alberta; lots and concessions in Ontario).
Where to find it: Project tab > Define Your Field > Draw field boundary
Step 7 of 28
The outline closes and the field area appears (82.2 ac (33.3 ha) here). If a corner is off, open Edit Boundary to fix it. Soil information for the field is fetched on its own once the boundary is in.
Where to find it: Project tab > Edit Boundary
Step 8 of 28
Click Download elevation for this field (Recommended). A dialog asks for the resolution: 1 m (marked Recommended) gives the most detail and is what you want for designing; coarser cells are smaller and faster on very large areas. Click Fetch. To check that 1 m LiDAR exists before you fetch, set Base Layer in Map Layers to LiDAR Coverage in the US or LiDAR Terrain in Canada. A big field is not a problem: in the US, wherever the field lies inside a published 1 m LiDAR project the app reads the 1 m tiles directly, so even a full 640 acre section comes in at 1 m.
Where to find it: Project tab > Get Elevation Data > Download elevation for this field
Step 9 of 28
In a few seconds the field turns into a colour elevation map, purple low and yellow high, with the heights in the legend at the top right. The line under Create Analysis Layers says what ground you are designing on: here 1 m LiDAR (laser-measured elevation) from the IL 10CountyNRCS project. In the US the elevation comes from USGS 3DEP and this line names the 1 m LiDAR project, or says "USGS … national DEM" where no 1 m LiDAR has been published yet; in Canada it comes from NRCan’s HRDEM, and where there is no LiDAR the app says so instead of loading coarser ground.
Where to find it: Project tab > Get Elevation Data
Step 10 of 28
Click Create Drainage Layers. The app works out where water flows, where it collects and how wet each part of the field stays, right in your browser (usually 5 to 30 seconds). Flow lines and the Ponding Predictor come on straight away; the other layers are one click away in Map Layers.
Where to find it: Project tab > Create Analysis Layers > Create Drainage Layers
Step 11 of 28
Click Contours on the map toolbar and pick a Contour interval (1 foot here). The lines are drawn from the elevation you downloaded, with their heights written along them, in white or black. Export KML and Export SHP save them as files.
Where to find it: Map toolbar (bottom left of the map) > Contours
Step 12 of 28
Every layer is in Map Layers. Tick a layer to show it; its options (colours, a slider, a legend) open under it while it is on, and the slider beside each one sets how see-through it is. The (i) buttons explain how to read a layer. Base Layer at the top changes the background map.
Where to find it: Map toolbar > Layers
Step 13 of 28
Base Layer at the top of Map Layers sets the map under everything else. In the US the choices are Satellite Imagery (the default, with place names and roads), Hi-Res Imagery (the USGS NAIP aerial photo), Topo Imagery (USGS), LiDAR Terrain (shaded relief that shows every draw and rise, here) and LiDAR Coverage (where 1 m elevation is published). In Canada the list is Satellite Imagery Only, LiDAR Terrain and Coarse Terrain. Changing it never touches your field or your design.
Where to find it: Map toolbar > Layers > Map foundation > Base Layer
Step 14 of 28
Tick a layer's box to show it and untick it to hide it; you can have several on at once. While a layer is on, its own settings open right under it (here Depressions, with its Show under 3 in box) and fold away again when you turn it off. Click a section heading, such as Soil Data, to fold the whole section away; the panel remembers which ones you folded. The small i beside a setting explains it.
Where to find it: Map toolbar > Layers
Step 15 of 28
The slider at the right of each layer sets how see-through it is, with the percentage beside it. Here HD Elevation is down to 40%, so the crop rows and field edges in the photo show through the elevation colours. Slide it back up when you want the colours strong again; the setting changes only how the map looks.
Where to find it: Map toolbar > Layers > the slider beside a layer
Step 16 of 28
Under HD Elevation, the Color Ramp menu picks the colours for the heights; here Terrain (Green→Brown) instead of the usual Spectral (Purple→Yellow), and Viridis is the one to choose if you find some colours hard to tell apart. The Elevation legend at the top right of the map always matches: it gives the height each colour stands for, in your units (646.2 to 692.4 ft on this field). The colours only change the look, never the elevation.
Where to find it: Map toolbar > Layers > Elevation Data > HD Elevation > Color Ramp
Step 17 of 28
Once your design has runs, Color under Drainage Design sets how they are drawn. By Drainage Type gives each kind of run its own colour. By Pipe Size, shown here on a finished tile plan, colours each pipe by its size and lists only the sizes used (here 4, 6, 8 and 10 in), each with its swatch; click a swatch to pick your own colour. Dual-wall pipe is drawn dashed and single-wall pipe solid, so you can tell them apart at a glance, and surface ditches always stay purple.
Where to find it: Map toolbar > Layers > Drainage Design > Color
Step 18 of 28
Flow lines trace where surface water runs across the field. They follow the draws and swales, which is where mains usually belong. The Show drains slider under the layer hides the smaller ones.
Where to find it: Map toolbar > Layers > Flow lines
Step 19 of 28
The wetness index colours the ground by how likely it is to stay wet, from tan on the slopes and rises to deep blue where water gathers on flat ground. The blue areas are the wettest.
Where to find it: Map toolbar > Layers > Wetness index
Step 20 of 28
Depressions shows the hollows that hold water, coloured by how deep they fill: under 3 in, 3-6 in, 6-12 in and over 12 in. Hold the mouse over one to read its depth. Tick Show under 3 in to see the shallowest too.
Where to find it: Map toolbar > Layers > Depressions by depth
Step 21 of 28
The Ponding Predictor marks the places that get wet first in a big rain: the bottoms of the hollows and the flat ground water is slow to leave. Move its slider towards Wet first to show only the wettest spots, or towards Wet last to see how far the wet ground spreads.
Where to find it: Map toolbar > Layers > Ponding Predictor
Step 22 of 28
Ponding after rain shows where water stands after a rain of the size you set on its Rain slider, and how deep, using the share of the rain that runs off. Full hollows spill into the next one down. This field drains well, so even 2 in of rain leaves only a few small ponds.
Where to find it: Map toolbar > Layers > Ponding after rain
Step 23 of 28
Drainage basins split the field by where its water leaves. Each outlet group has its own colours, with smaller areas inside it for the branches that feed it, labelled in acres. Click a basin for its card: the acres of the outlet group and of this sub-basin, its relief, its mean slope and the elevation where you clicked.
Where to find it: Map toolbar > Layers > Drainage basins
Step 24 of 28
In the US the soil map units come from SSURGO, the US soil survey. The Soil Survey (SSURGO) layer draws them on the map, and Soil Information on the Project tab lists each one with its share of the field and its drainage class. They drive the suggested depth, spacing, drainage coefficient and envelope you will see in Drainage settings > Tile design (Area-weighted soil suggestion). In Canada the soils come from the provincial soil survey where there is one, and from the national soil landscape map elsewhere: see the next step.
Where to find it: Map toolbar > Layers > Soil Survey (SSURGO)
Step 25 of 28
In Canada the soils now come from the provincial soil survey where there is one (Ontario, Manitoba, Alberta and Saskatchewan), as series on the map just like the US soil survey. Here is a 107 ac clay field in Chatham-Kent, Ontario. Switch on Soil Survey (Canada) in Map Layers and click the field: the card reads 100% Brookston, clay, poorly drained, 51% clay in the subsoil, class 2W, with each layer's texture and Ksat (how fast water moves through it). Soil Information on the Project tab lists the same series with its Suggested Parameters: spacing 30–50 ft, depth 36–42 in and Envelope: No envelope needed - regular perforated, because a soil with that much clay holds together and does not wash into the pipe. Where no provincial survey covers the field, the app uses the national soil landscape map instead and says so.
Where to find it: Map toolbar > Layers > Soil Survey (Canada); Project tab > Soil Information
Step 26 of 28
With Soil Survey (Canada) ticked in Map Layers, a Labels switch sits under it: Series (the default) writes each soil area's series code on the map, BKN for Brookston here, and Capability writes its agricultural capability class instead, 2W here (class 2, limited by excess water). Switch back and forth as you need; it changes only the labels on the map. The Soil Information card on the Project tab lists each series on two lines, its name and share of the field on the first, its drainage class on the second.
Where to find it: Map toolbar > Layers > Soil Data > Soil Survey (Canada) > Labels: Series | Capability
Step 27 of 28
Click 3D View (bottom right of the map) to see the field as a model: drag to turn it, right-drag to move it, scroll to zoom. Exag stretches the heights so gentle slopes show (10x here). Close returns to the map.
Where to find it: Map, bottom right > 3D View
Step 28 of 28
Once you have drawn drains, switch on Drainage coverage in Map Layers. It shades the ground inside the boundary that no drain covers and leaves the drained strips clear, and its note gives the acres. On the finished design here 58.5 of 82.2 ac are covered and 23.7 ac are not; 87% of the 13.7 ac the soil survey marks as needing drainage (very poorly, poorly and somewhat poorly drained) is covered. Most of what is left (21.8 ac) is well or moderately well drained: the crests between the draws, the high ground where the laterals stop, the ends of the laterals and the strip just inside the boundary. The 1.8 ac of wetter soil left over is listed under Largest uncovered patches with its height; check those spots before you call the plan done. The split into ground that needs drainage comes from the drainage classes of the field’s soil map (the US soil survey, or the provincial or national soil map in Canada); where no soil map covers the field, the note counts all ground inside the boundary. Next: lay out your first tile plan.
Where to find it: Map toolbar > Layers > Drainage Design > Drainage coverage
Click the picture to see it full size.
Chapter 3 of 14 · about 9 min
Use your own elevation (RTK survey)
Bring in your own ground: an RTK survey from your receiver, survey points or an elevation file. Replace the LiDAR under a design with the surveyed ground, check every run against it, and send the machine files that need it.
Field used: Logan County IL, 82 ac (the tile design from chapters 2-3: 133 runs, sized) with a sample RTK survey of 6,356 shots
Step 1 of 14
The government LiDAR the app downloads is right for planning, but it was flown years ago. Use your own elevation when the field has been levelled or ditched since, when there is no 1 m LiDAR where you farm, or when the machine will install to grade: the machine works from the ground as your RTK receiver measures it today (RTK is GPS corrected to within an inch or so). Everything for this is on the Project tab, under Get Elevation Data > Other elevation sources, or an existing design. The example is the 82 acre Logan County design from the earlier chapters, still on its LiDAR.
Where to find it: Project tab > Get Elevation Data > Other elevation sources, or an existing design
Step 2 of 14
The ELEVATION ONLY list turns a file into the field's ground and never touches your runs. Import Survey CSV/XYZ takes a plain point file in latitude and longitude, and Import Survey Shapefile (.zip) or Upload Elevation Points a zipped point shapefile; you map the height column and its units, and the points become a surface that passes through every shot. Import AGS surface brings back a land-forming design as the new ground. Upload Your Own GeoTIFF takes a finished elevation grid, such as a drone surface (see the next step). Upload Your Own GeoTIFF, Import AGS surface, Import Survey CSV/XYZ and Import Survey Shapefile do not need a field boundary first: with no boundary yet, Geo-Surface offers one from the area the file covers. For a survey from your own RTK receiver, use the card below the list instead.
Where to find it: Other elevation sources > ELEVATION ONLY
Step 3 of 14
Upload Your Own GeoTIFF takes a single-band elevation grid, such as a drone surface. The note under the button says what it reads: any file that names its coordinate system, whether UTM, State Plane, MTM, latitude/longitude, Web Mercator or your country's national grid. The file is placed where it says and redrawn onto the map grid at its own cell size, so there is nothing to convert first. A file that names no coordinate system, or one on the old NAD27 datum, is refused with the reason named; most mapping software can add or change the coordinate system. Heights in metres or feet both work when the file says which. Everything is checked before anything changes, so a refused file leaves the elevation you had in place. No field boundary yet? After the import, Geo-Surface offers one from the area the file covers (next step).
Where to find it: Other elevation sources > Upload Your Own GeoTIFF
Step 4 of 14
You do not need a field boundary before an elevation import. Load a GeoTIFF, an AGS surface or a survey point file on a new project and, once it is on the map, Geo-Surface outlines the area the file has heights for and asks: "Use the area this file covers as the field boundary?" Here an elevation GeoTIFF of a Wisconsin field has heights inside a 62.5 ac outline and none outside it, shown dashed in orange. Click Use it and that outline becomes the field boundary, ready for Create Drainage Layers (one Undo takes it back). Click I'll draw my own to keep the elevation and draw or upload the boundary yourself. A project that already has a boundary is never asked.
Where to find it: Project tab > Upload Your Own GeoTIFF (or Import AGS surface or a survey import), with no field boundary yet
Step 5 of 14
The teal card Use an RTK survey as the ground takes the survey file straight from your display or data collector. Click Choose survey files / ZIP (or Choose folder when the display saved a whole folder). It takes the survey formats listed under Takes: a display's field-level XML or survey export, a point shapefile (SHP, DBF and PRJ, or a ZIP of them), the survey file of a tile plough's grade-control job, and a CSV or TXT point file in latitude/longitude, UTM, State Plane or MTM (any coordinate system you can name by its EPSG code). Only the ground changes; no run is drawn, moved or deleted.
Where to find it: Other elevation sources > Use an RTK survey as the ground
Step 6 of 14
A point file shows Survey columns and units first. The sample used here (a sample survey made for this guide, 6,356 shots from passes 60 ft apart) is a CSV with Easting, Northing and Elevation columns; the app picked those, chose UTM easting / northing, and read zone 16 N and NAD83 from the column names. For a survey in State Plane or MTM, pick it in the same list or search it by EPSG code or name. A zone the file does not state is taken from your field; a wrong zone moves a survey hundreds of miles, so the app stops and says how far away it landed. Check Elevation units twice: here it had to be changed to US survey feet, and a height read in the wrong unit is off by a factor of about 3.3. Then click Use these survey heights.
Where to find it: Use an RTK survey as the ground > Survey columns and units
Step 7 of 14
Your design was drawn on LiDAR heights, and a survey has its own height reference, so the two are lined up at one stable point. Click Choose reference on map and click a surveyed shot that will not move, here the benchmark shot by the field entrance (on the map, right). Sample planning ground at this point reads the LiDAR there: 667.568 ft surveyed against 667.152 ft on the LiDAR, 0.42 ft apart. Tick I confirm both heights describe the ground at this same point. The pipes do not move; the same point becomes the master benchmark in the machine files.
Where to find it: Use an RTK survey as the ground > Match heights at one reference point
Step 8 of 14
Before the ground is built, every shot is checked against the shots around it. Two kinds are listed: a lone shot more than 0.5 m (1.6 ft) off the ground its neighbours describe, such as a bumped rod, and two shots at the same spot whose heights disagree by more than 5 cm (2 in). In the sample, shot 3203 sits 2.65 ft above the ground around it, and the benchmark was shot twice 0.15 ft each side of their average. Each listed shot is kept unless you tick Drop; tick the bad ones (here the high shot and the second benchmark shot) and click Build surface. Your choice is saved with the project.
Where to find it: Preview design on RTK survey > Check these survey shots
Step 9 of 14
Preview design on RTK survey builds the surveyed ground and opens a review on the Design tab, because new ground changes the cover over every pipe. The survey shows on the map in the usual elevation colours. The summary reads "All 133 runs are within the checked limits." Run-by-run comparison lists each run with its largest pipe move if re-fitted and any run that would end up too shallow or too deep; click a run to see the surveyed ground and the re-fitted grade on its profile. Nothing has changed yet.
Where to find it: Design tab > RTK SURVEY: Switch the design to the surveyed ground
Step 10 of 14
Choose Re-fit the pipes to the surveyed ground and Best Fit works out each run's grade again with your depth and grade settings (runs you graded by hand keep their grade), or Keep the pipes exactly as designed to leave every pipe elevation as drawn and only re-check the cover. Here the re-fit was chosen. The card then reads Designing on the RTK survey and lists each run with its check (all within checked limits here): the survey is the ground and the design tools work as before. The LiDAR version of the project is kept; Download original planning project saves it.
Where to find it: Design tab > RTK SURVEY > Re-fit the pipes to the surveyed ground
Step 11 of 14
The line above the run list names the ground every run is designed on. On LiDAR it read Designing against: Raw Elevation; now it reads Designing against: RTK survey · sample-rtk-survey. The Project tab says the same (Active DEM: RTK survey), and the report names the survey as its elevation source. Check the run finder after the switch: here it shows Violations 0 and Out of date 0, so no run broke a depth or grade limit on the surveyed ground.
Where to find it: Design tab > Active Design > Designing against
Step 12 of 14
On the Deliver tab, Send the design to the machine now says the design is "Built on the applied RTK survey". Pick your display or machine format and compare with the same format on LiDAR (the Deliver chapter): there the design lines with a height on every point were Not recommended here and asked you to tick a box first; on the surveyed ground nothing is marked Not recommended, and the design lines export straight away (still marked advanced for this format, because the display must be calibrated to the same height reference). For a format with a full installation package, that package is now marked Recommended. Installable means the machine installs to the grades in the file, which is why it wants your surveyed ground.
Where to find it: Deliver tab > Send the design to the machine
Step 13 of 14
On a field with no runs the button reads Build RTK ground, and there is nothing to review: after the shot check the survey becomes the ground you design on, in the usual elevation colours, and analysis layers, contours and drawing all work from it. The ground is built only where you surveyed: nothing beyond your outer shots is guessed, and Show survey coverage outlines on the map the ground the survey covers. The same works for a field with no usable LiDAR at all: draw the boundary, then bring the survey in here.
Where to find it: Use an RTK survey as the ground > Build RTK ground
Step 14 of 14
A tile design already laid out on a grade-control display can be opened here as a new Geo-Surface project, with its runs, grades and pipe sizes and the survey it was designed on. On the Project tab open Other elevation sources, or an existing design, scroll to Open a design made on another system (the list shows the display formats it reads), and click Choose design files / ZIP or Choose design folder. Whatever the file does not record is filled from your project: a run with no pipe size gets the project's pipe defaults, and a run with no main, sub-main or lateral type is treated as a lateral, so check each run's size, wall and type before you make a report. A shapefile, KML or DXF of a design is not opened this way: add it as a reference overlay and trace over it.
Where to find it: Project tab > Get Elevation Data > Other elevation sources, or an existing design > Open a design made on another system
Click the picture to see it full size.
Chapter 4 of 14 · about 19 min
Set up your design settings
Before you draw, set the limits every new run is designed to: tile depths, spacing, grade and pipe, ditch depth and shape, and the flow rates. One dialog holds them all; this chapter goes through it field by field.
Field used: Logan County IL, 82 ac
Step 1 of 28
Every new run you draw takes its depths, grade and pipe from Drainage settings, so set them once before you draw. Open the Design tab on the left. At the top of the Active Design card, beside its name, is a small button with three sliders: that button opens Drainage settings.
Where to find it: Design tab > Active Design > sliders button
Step 2 of 28
Here is the spot up close: the sliders button sits at the right end of the Active Design heading, above Designing against. Click it once. If you cannot find it, press Ctrl+K, type “drainage settings” and press Enter: the tool finder opens the same dialog.
Where to find it: Design tab > Active Design
Step 3 of 28
Drainage settings has four sections, listed on the left: Tile design (pipe depths, spacing, grade and sizes), Surface design (ditch depth, grade and shape), Flow estimates (how much water per day the design must carry) and Currency (the money prices are typed and printed in). Click a section to jump to it. At the bottom are Reset, Apply to existing and Save defaults; apart from the Project drainage coefficient, which changes for the whole project as soon as you type it, nothing you type is used until you click one of the last two.
Where to find it: Design tab > Active Design > sliders button > Drainage settings
Step 4 of 28
Type part of a name in Find a setting and the dialog shows only the fields that match, in every section. Here “grade” leaves Min Grade and Maximum Transition Grade under tile design, and Min Grade and the steepest ramp under surface design. Clear the box to see everything again. Each (i) beside a field explains it in a sentence or two.
Where to find it: Design tab > Active Design > sliders button > Drainage settings > Find a setting
Step 5 of 28
With the field’s soils loaded, Tile design opens with Area-weighted soil suggestion. It weights each soil’s own drain depth, spacing, drainage coefficient (inches of water per day the tile removes) and envelope by how much of the field it covers, counting only the soils that need drainage. Here that is 257A Clarksdale, somewhat poorly drained, on 17% of the field; the well and moderately well drained soils are left out and named. Suggested shows the weighted value with its range in brackets, Now shows your setting, and the last column says where yours sits: this field’s 2.5 ft target depth is below its range, and Regular Perforated differs from the sock the soil suggests. In Canada the suggestion comes from the field’s provincial soil series where there is one.
Where to find it: Design tab > Active Design > sliders button > Drainage settings > Tile design > Area-weighted soil suggestion
Step 6 of 28
Click Use these and the four rows take the suggestion: target lateral depth 3.3 ft, lateral spacing 53 ft, the Project drainage coefficient 0.44 in/day and Sock Filter laterals. Now matches Suggested, and every row reads within its range. The Project drainage coefficient changes at once, everywhere in the project; the other three are kept only when you click Save defaults, so close the dialog without saving and they stay as they were. Change any field by hand and the row re-reads where you sit.
Where to find it: Design tab > Active Design > sliders button > Drainage settings > Tile design > Use these
Step 7 of 28
Depths are in a small table: Laterals (the side drains), Sub-mains (the branch pipes laterals join before the main) and Mains (the pipes they all empty into). Until you type in the Sub-mains column it shows the lateral depths and follows them, so sub-mains are laid like laterals; type your own and new sub-mains take them. Target is where Best Fit tries to lay the pipe. Minimum is the least cover you accept: a stretch shallower than it is marked with a red S. Maximum is the deepest your machine can go: deeper is marked with a red D. Best Fit always keeps the pipe falling to the outlet at least at Min Grade, so on uneven ground it moves between the limits. Here laterals and sub-mains go 2.0 to 5.0 ft aiming for 3.3, and mains 3.0 to 5.0 ft aiming for 3.5: mains sit deeper so the laterals join near the top of the main. Set Maximum to the depth your plow reaches.
Where to find it: Design tab > Active Design > sliders button > Drainage settings > Tile design > Depth
Step 8 of 28
Once a run is drawn and graded, select it and open Profile Chart (bottom right) to see those depths at work. This is lateral T1-SM2-L10 of a finished design, outlet on the left: the ground (Elevation Profile) on top, then the Min Depth Line, the tile grade (Best Fit Line) and the Max Depth Line, 2.0 and 5.0 ft under the ground. Best Fit keeps the tile near the 3.3 ft target and takes it deeper only under the rise near the outlet; the card under Grade design sums it up: 585.6 ft · avg 1.28% · depth 3.3–4.8 ft, no violations.
Where to find it: Design tab > select a run > Profile Chart
Step 9 of 28
Lateral Spacing is the distance between laterals, centre to centre. The layout tools (Copy offset, Herringbone) start from it, and the drained area, pipe sizing and report use it. The soil suggestion gives the range for your soils, 40 to 65 ft on this field; closer laterals pull water out of tight, wet soil faster but use more pipe. Here it is 53.0 ft.
Where to find it: Design tab > Active Design > sliders button > Drainage settings > Tile design > Lateral Spacing
Step 10 of 28
Min Grade is the least fall the pipe may have toward the outlet, in percent (0.1% is 1 ft of fall per 1,000 ft). Best Fit never lays a pipe flatter than this, even where the ground is flat; it goes deeper instead, and any stretch that cannot keep it is flagged. 0.1% is the starting value; the app asks before it saves anything over 2%.
Where to find it: Design tab > Active Design > sliders button > Drainage settings > Tile design > Min Grade
Step 11 of 28
Max Bend per Vertex is the sharpest turn a run may make at one clicked point, in degrees (0° is straight on, 90° a right angle). It is only used when you tick Enforce Max Bend per Vertex: then drawing and editing refuse sharper turns, and bends already over it are listed. It starts unticked; the tick is remembered on this computer and covers tile and surface runs.
Where to find it: Design tab > Active Design > sliders button > Drainage settings > Tile design > Max Bend per Vertex
Step 12 of 28
Default Tile Specifications is the pipe each new run starts with. Laterals get Lateral Size (4" here) and Lateral Perforation (Sock Filter, from the soil suggestion). Mains and sub-mains get Main Size and Main Wall Type, which start as Unassigned: no size yet, because a main’s size depends on the area it drains. Auto Size fills it in later from the flow. A size you set here is used on every new main until you change it.
Where to find it: Design tab > Active Design > sliders button > Drainage settings > Tile design > Default Tile Specifications
Step 13 of 28
In the US and Canada the main and sub-main size lists run 4", 6", 8", 10", 12", 15", 18", 21", 24", 30", 36", 42" and 48"; the lateral lists run 3" to 10". 21" sits between 18" and 24" wherever you size a main: Default Tile Specifications (Main Size), the Active Design card, the Auto Size review and Edit pipe sizes on the profile (shown open here, which lists every size).
Where to find it: Any Size list (here: profile > Edit pipe sizes > a segment > Size)
Step 14 of 28
Pipe Sizes, under Tile design, lists the built-in sizes (3" to 48" in the US). If your supplier sells a size that is not on the list, type it in Add a size and click Add: here 54". It joins every size list in the app, gets its own map colour, an optional Report price per foot for the cost estimate, and Use in Auto Size (ticked) lets Auto Size choose it. Remove takes it off again while no run uses it. Custom sizes are kept on this computer and saved with each project, so a project opened on another computer brings its sizes along.
Where to find it: Design tab > Active Design > sliders button > Drainage settings > Tile design > Pipe Sizes
Step 15 of 28
The Project drainage coefficient is how much water, in inches a day, your tile must carry away from the ground above it: 0.375 in/day here (3/8 in). There is one for the whole project, and it shows in four places that always hold the same number: this card on the Project tab, Drainage settings > Tile design, the Tile Sizing card on the Design tab and the Auto Size Mains panel. Change it in any one and the other three follow. Auto Size sizes every main to it, and every run you have sized is checked against it.
Where to find it: Project tab > Project drainage coefficient
Step 16 of 28
In Drainage settings it sits under Default Tile Specifications as Project drainage coefficient (in/day), 0.375 here: the same number as on the Project tab. Use these in the soil suggestion sets it straight away. Below it, Max drainage coefficient for sizing stays blank unless you want a ceiling (see Max drainage coefficient for sizing).
Where to find it: Design tab > Active Design > sliders button > Drainage settings > Tile design > Project drainage coefficient
Step 17 of 28
The Tile Sizing card on the Design tab repeats it under Auto Size Mains (Project drainage coefficient: 0.375 in/day), and the Auto Size Mains panel opens on it with the line "One value for the whole project: changing it here changes it everywhere." Pick another value there and the panel says so, for example "The project drainage coefficient is now 0.375 in/day (was 0.440 in/day): every run is checked against it." Lower it and runs that now carry enough are cleared at once; raise it and any run that falls short is flagged.
Where to find it: Design tab > Sizing > Tile Sizing > Auto Size Mains > Project drainage coefficient
Step 18 of 28
Max drainage coefficient for sizing is optional; leave it blank to start. Blank, Auto Size gives every main the smallest pipe that carries the drainage coefficient you size with. Set, say to stop it picking a pipe far bigger than needed, a pipe that would drain more than this is not recommended, and when no size falls between the two Auto Size asks you to choose.
Where to find it: Design tab > Active Design > sliders button > Drainage settings > Tile design > Max drainage coefficient for sizing
Step 19 of 28
Outlet Transition Distance (25.0 ft) lets a run climb out of a deep outlet: the depth limits start to count only that far from the outlet, and inside it the pipe may be as steep as Maximum Transition Grade (5%). Set 0 to turn it off. Connection Offset (0.3 ft) is how far above the main’s bottom a joined run comes in when you use Force connection, so the tee is not cut at the bottom of the pipe.
Where to find it: Design tab > Active Design > sliders button > Drainage settings > Tile design > Outlets & Connections
Step 20 of 28
These two settings steer the tools that lay laterals for you. Boundary Setback (10.0 ft) is how far inside the field boundary Herringbone and Copy offset stop new laterals, so the ends stay out of the fence line. Minimum Lateral Length (20.0 ft) drops any lateral a tool would leave shorter than that, where it is cut off by another run, by ground already drained or by the boundary.
Where to find it: Design tab > Active Design > sliders button > Drainage settings > Tile design > Layout Tools
Step 21 of 28
Overburden is soil you dig off first where the pipe must go deeper than the plow reaches (deeper than Maximum depth). Allowable overburden before a cut (0.000 ft) skips small humps whose extra depth is no more than this. Overburden Width (15.0 ft) and Overburden Side Slope (Vertical) set the shape of the cut, for the dirt volume. Excavated start (25.0 ft) is the first stretch of every lateral and sub-main, which you dig out anyway to set the plow in, so it is not counted as overburden; 0 counts the whole run.
Where to find it: Design tab > Active Design > sliders button > Drainage settings > Tile design > Overburden Settings
Step 22 of 28
Surface design holds the limits for open ditches (surface mains and tributaries). Min Depth (0.0 ft) and Max Depth (1.0 ft) are how far below the ground the ditch bottom may sit; a new ditch also starts with Min Depth as its Offset Depth, the depth Best Fit aims for. Min Grade (0.05%) is the least fall toward the outlet; Best Fit cuts deeper rather than go flatter. Max Bend per Vertex works as for tile: only when its Enforce box under Tile design is ticked.
Where to find it: Design tab > Active Design > sliders button > Drainage settings > Surface design
Step 23 of 28
Ditch Bottom Width (8.0 ft) and Side Slope (6:1) give the ditch its shape, and from them the earthwork volume and cross-section are worked out. A side slope of 6:1 rises 1 ft for every 6 ft across: smooth enough to farm through; 10:1 is a grassed waterway. Steepest ramp from a fixed start or connection (2%) is how steeply the ditch bottom may climb from a fixed start depth or a forced connection until it meets the normal fit.
Where to find it: Design tab > Active Design > sliders button > Drainage settings > Surface design
Step 24 of 28
A drainage coefficient is how many inches of water a day the drains must carry off the area above them. Flow estimates holds three of them, Standard (0.50 in/day), High (0.75) and Heavy (1.00), and pointing at a flow line on the map shows the flow at each. These are for reading flow lines only; the tile is sized to the Project drainage coefficient. Untick the box below them if you would rather not see these figures when you point at a flow line.
Where to find it: Design tab > Active Design > sliders button > Drainage settings > Flow estimates
Step 25 of 28
Close the dialog and point at a flow line on the map (Map Layers > Flow lines on). The tag shows the area that drains to that spot and the flow it gives at the Standard, High and Heavy rates. Here 19.5 ac drains to the spot: 0.41 cfs · 182 gpm at the Standard rate, up to 0.81 cfs · 365 gpm at Heavy. It tells you how much water a ditch or main there would carry before you draw it.
Where to find it: Map > Flow lines > point at a line
Step 26 of 28
Currency, the last section, sets the money the report prices, the cost estimates and the land forming estimate are typed and printed in. It starts on your country's own currency (here United States default: US dollar (USD), with the dollar sign shown beside it); pick another from the list if you price the job in a different one. Amounts are never converted, so after a change type the prices in the new currency. The choice is kept for this country on this computer.
Where to find it: Design tab > Active Design > sliders button > Drainage settings > Currency
Step 27 of 28
Click Save defaults when the values are right; the button says Saved! for a moment. Every value shown now applies to this project, every run you draw from here on starts with them, and the values you changed become your defaults for new projects on this computer. Runs already drawn are not changed: that is what Apply to existing is for. Reset puts every value back to the app’s own starting values, after asking.
Where to find it: Design tab > Active Design > sliders button > Drainage settings > Save defaults
Step 28 of 28
Already drawn runs keep their own values when you save. To change them too, change the value and click Apply to existing. It saves the defaults, then applies only the values you changed in this sitting to the runs of the matching type, and asks first. Here the lateral minimum depth went from 2.0 to 2.5 ft, so it offers to change 113 existing runs and re-fit their depths and grades. If you change a pipe size, sizes Auto Size worked out from the flow are kept and named. One Undo puts every run back. Click Cancel to leave the runs alone.
Where to find it: Design tab > Active Design > sliders button > Drainage settings > Apply to existing
Click the picture to see it full size.
Chapter 5 of 14 · about 18 min
Your first tile plan
Lay out a main up the draw, let Best Fit set its grade, then build the laterals from one seed lateral with the layout tools: Copy offset, Herringbone, Mirror, Aligned lateral and Respace.
Field used: Logan County IL, 82 ac
Step 1 of 27
Set the design limits before you draw: every new run is graded to them. Open Drainage settings with the sliders button beside Active Design. This design uses the field’s soil suggestion (Use these): 3.3 ft target depth for laterals, 2.0 to 5.0 ft deep, sub-mains the same as the laterals (the Sub-mains column follows the laterals until you type your own), mains 3.0 to 5.0 ft, 53.0 ft lateral spacing, 0.1% minimum grade and Sock Filter laterals. Use these also sets the Project drainage coefficient, 0.44 in/day here, straight away. Save defaults. The chapter Set up your design settings explains every setting.
Where to find it: Design tab > Active Design > sliders button > Drainage settings > Tile design
Step 3 of 27
Start a main at its outlet, the low end, and click your way up the draw. Before the first click a tag beside the mouse shows the ground elevation under it, so you can find the low spot where the main leaves the field. Follow the flow lines up the draw, and press Enter or double-click to finish.
Where to find it: Design tab > Draw > Main
Step 4 of 27
When you finish, the main gets its name (T1) and its grade is worked out at once. Select it and open Profile Chart (bottom right) to see it from the side, outlet on the left: the ground (Elevation Profile), the tile grade (Best Fit Line) and the Min Depth and Max Depth lines it has to stay between. The shaded strip at the left is the outlet transition.
Where to find it: Map, bottom > Profile Chart
Step 5 of 27
Best Fit works out a grade that stays between your minimum and maximum depth and keeps at least your minimum grade. New runs get it on their own; click Best-Fit to run it again. The line under the buttons sums the run up: length, average grade, depth range, and no violations or how many there are.
Where to find it: Design tab > Active Design > Grade design > Best-Fit
Step 6 of 27
A side draw gets a sub-main. Draw > Sub-Main (or press S), click on the main where it should join, then up the side draw, and finish with Enter or a double-click. It is named after its main (T1-SM1) and its grade ties into the main where they join.
Where to find it: Design tab > Draw > Sub-Main
Step 7 of 27
Draw > Lateral (or press L). Click on the main where the lateral should join it, then out to where it should end, and finish with Enter or a double-click. This one lateral is the pattern: the layout tools copy it to build the bank.
Where to find it: Design tab > Draw > Lateral
Step 8 of 27
Select the seed lateral and click Copy offset on the rail. Before you lay any copies, click Draw break line and draw a line where the laterals should end: here the headland along the west fence, following it round the corner by the outlet. Click along it and double-click to finish. Each copy is then cut or stretched to meet this line, so the laterals end where you want them instead of all being the seed’s length.
Where to find it: Design tab > tool rail > Copy offset > Draw break line
Step 9 of 27
The panel now shows Break line drawn (with Clear beside it) and How many is set to To break line: the line decides how many copies are made, as many as still reach it. Set the Distance between laterals (53.0 ft here) and the Direction (Both Ways here). The dashed green preview shows every copy ending on the break line, so their lengths follow the field edge. Click Create Offset Copies.
Where to find it: Design tab > tool rail > Copy offset > To break line
Step 10 of 27
The copies are laid at the spacing, each ending on the break line, and each gets its own Best Fit grade and ties into the main. They are named in order along the main (T1-L1, T1-L2 ...), and their lengths follow the headland: the ones by the outlet are shorter where the field edge turns the corner. The green tick after a name means the run is within its depth and grade limits. The break line clears once the copies are made, and one Undo takes the whole batch back.
Where to find it: Design tab > tool rail > Copy offset > Create Offset Copies
Step 11 of 27
To lay the other side of the main, select a lateral of the bank and click Mirror across the main on the tool rail. The panel opens beside the map, away from the runs, and a dashed preview shows every new lateral before anything is drawn. Nothing changes until you click Mirror at the foot of the panel. The next two steps go through its choices.
Where to find it: Design tab > tool rail > Mirror across the main
Step 12 of 27
Under Mirror, pick what to copy: This lateral, Selected laterals, or All laterals on T1, this side, the whole bank in one go (chosen here). Under Way across, Straight through keeps each lateral on one straight line across the main, so the two sides share one tee and the rows run straight across the field. Mirrored angle reflects the lateral in the main instead, which gives a herringbone look on an angled bank.
Where to find it: Mirror across the main panel > Mirror, Way across
Step 13 of 27
Under Length, choose To a break line, click Draw break line (it reads Redraw break line once one is drawn) and click along where the new laterals should stop, here the crest between this draw and the next one east; double-click to finish. The dashed preview then shows each new lateral ending on the line, so their lengths follow the crest instead of copying the west side. Keep out of drained ground stops a new lateral before ground another run already drains. Click Mirror.
Where to find it: Mirror across the main panel > Length > To a break line
Step 14 of 27
Each new lateral starts at the same station on the main as the one it copies, so the two meet the main at one point, keeps that lateral’s design settings, and ends on the crest line. Here the crest runs nearly parallel to the main, so the 7 new laterals come out 254 to 268 ft long; where a crest or field edge swings away, the lengths follow it. The green ticks show every one grades within its limits.
Where to find it: Design tab > tool rail > Mirror across the main > Mirror
Step 15 of 27
Where the main bends at the top of the draw, Herringbone laterals lays laterals at an angle along it in one go. Click Herringbone laterals and then the main, set how far up the main to start (850 ft up the main from its outlet here), which side (Both, Left only or Right only: here the west side, Left only) and how far each bank runs: to the field boundary (as here), to a line you draw, or a fixed length. The preview shows them before you Apply.
Where to find it: Design tab > tool rail > Herringbone
Step 16 of 27
The first bank stops at its break line. To carry it further up the main, select its top lateral (T1-L13), open Copy offset again and set Direction to Towards Inlet, so the copies go up the main, away from the outlet. Click Draw break line and draw a new one on up the west headland, stopping where a sub-main will take over at the top of the main; the panel then says Break line drawn, with Clear beside it. Set How many to To break line, and the dashed preview shows the copies ending on the new line. (Pick a divide, shown when the Drainage Basins layer has divides, uses a divide between two outlets as the break line instead.)
Where to find it: Design tab > tool rail > Copy offset > Direction: Towards Inlet
Step 17 of 27
Keep out of drained ground is ticked by default. It leaves out any copy that would land on ground another run already drains, here the herringbone at the top of the main, and the panel says so: "1 not drawn: the ground is already drained by T1-L15". The preview stops short of the herringbone instead of laying a lateral on top of it. Untick it only when you want the overlap on purpose, then click Create Offset Copies.
Where to find it: Design tab > tool rail > Copy offset > Keep out of drained ground
Step 18 of 27
Aligned lateral starts a lateral on another main exactly in line with one you already have, so the rows line up across the field. Click Aligned lateral, click the lateral to line up with (T1-L20 here), click the main or sub-main to start on, then click along the dashed line to set the far end and press Enter or double-click. The banner at the top says which click comes next.
Where to find it: Design tab > tool rail > Aligned lateral
Step 19 of 27
Changed your mind about spacing? Click Respace laterals and draw an area around the laterals (click the corners, double-click to finish). Type the New spacing and the panel says what will happen (here "3 laterals at 60 ft: keep 1, add 2, remove 3."). Apply lays them out again, each with its own Best Fit grade, as one Undo step.
Where to find it: Design tab > tool rail > Respace laterals
Step 20 of 27
The flat ground to the north, with the wetter Clarksdale soil, drains back to the top of the main. A second sub-main (T1-SM2, 1653 ft) runs north along the low west side, set 2.5 to 6 ft deep in its Depth constraints so the laterals tee in deep enough. One seed lateral out to the rise, then Copy offset with Fill to end of main both ways lays the bank; a break line along the crest (Draw break line in the same panel) ends each copy where the ground starts to fall away, so the laterals get shorter to the north.
Where to find it: Design tab > Draw > Sub-Main, then Draw > Lateral and Copy offset
Step 21 of 27
The south-east of the field drains to its own low corner, so it gets its own main: T2 (1418 ft) starts at that outlet and runs up the east side. One seed lateral west to the ridge, then Copy offset with Fill to end of main both ways. A break line drawn with Draw break line in the same panel ends each copy on the crest it shares with T1 and short of the ground T1-SM1 already drains, so the laterals get shorter where the two systems meet. East of T2 the ground falls away off the field edge, so laterals there could not run back to T2 at grade; it is left out.
Where to find it: Design tab > Draw > Main, then Copy offset > Draw break line and Fill to end of main
Step 22 of 27
The north-east corner drains out through the east edge, so T3 (805 ft) starts there and follows the draw back to the north-west. Three seed laterals, one south-west to the crest, one north-east to the boundary and one due west from the top of the draw, and Copy offset with Fill to end of main lays each bank. A break line along the crest stops the south-west and west banks where the ground starts to fall the other way, right where the T1-SM2 laterals end, so the two systems meet without a gap or an overlap.
Where to find it: Design tab > Draw > Main, then Draw > Lateral and Copy offset
Step 23 of 27
When a copy lands within 10 ft of a tee on the main, or of the end of the main, Copy offset still lays it at its exact spacing and says so in the result: "1 lateral joins T5 within 10 ft of its outlet end - check it". Click Show to light it up on the map, then decide whether to move it (a lateral right at the outlet end of a main is often better a few feet up from it).
Where to find it: The result notice after Copy offset > Show
Step 24 of 27
The high ground on the east side falls the other way, to a low spot on the east edge where the road ditch runs past. Two short mains start at that outlet, T4 north and T5 south along the edge, and each gets a bank of laterals running west up to the crest, where they meet the ends of the T1-SM2 laterals coming the other way: 13 laterals in all, with the same Copy offset and Fill to end of main.
Where to find it: Design tab > Draw > Main, then Draw > Lateral and Copy offset
Step 25 of 27
Before you call the layout done, switch on Drainage coverage (Map Layers > Drainage Design). It shades the ground no drain covers and leaves the drained strips clear. Here it showed a wedge east of the top of T1, between the main and T1-SM1, that no lateral reached. One seed lateral from T1 out to the sub-main, then Copy offset, Both Ways, with a break line drawn just short of T1-SM1 and on up the ridge, and To break line: the preview fills the wedge with 6 copies, each a little longer than the last as the sub-main swings away. Create Offset Copies, and the shading there clears. Gaps left on the crests and the high ground are fine: that ground sheds its water.
Where to find it: Map toolbar > Layers > Drainage coverage; Design tab > tool rail > Copy offset > To break line
Step 26 of 27
On a big design, type a name in Find a run (T1-L12, or just L12) to jump to it, or open the tree button beside it to browse the runs by main. Violations and Out of date count the runs that need a look, and the arrows step through them.
Where to find it: Design tab > Active Design > Find a run
Step 27 of 27
The layout is done: 5 mains, each running up from an outlet (T1 up the south-west draw with its two sub-mains, T2 up the south-east draw, T3 along the north-east draw, T4 and T5 from the road ditch on the east edge), 2 sub-mains and 126 laterals, 54,282 ft of tile in all, every run within its depth and grade limits. Hold the mouse over a run to read its length, grade and depth; click it to select it.
Where to find it: Design tab
Click the picture to see it full size.
Chapter 6 of 14 · about 25 min
Grades and sizing
Fine-tune the grades where the design needs it, size every main and sub-main for the ground it drains, and learn to read the depth and grade warnings.
Field used: Logan County IL, 82 ac
Step 1 of 38
Laterals and sub-mains have Force connection ticked: where a lateral meets its main, its outlet is set to the main’s invert (the inside bottom of the pipe) raised by the Connection offset (4 in, the default in Drainage settings, shown as 0.3 ft here because the units are set to decimal feet), so the lateral enters a little above the bottom of the main and the tee lines up. The profile marks it as the Parent Connection at the left end.
Where to find it: Design tab > Active Design (lateral selected) > Force connection
Step 2 of 38
Each run keeps its own settings. Select a run (click it on the map, or pick it in the run list) and the Active Design card shows them: Min Grade, Target Depth, the Min. and Max. depth, and for a lateral Force connection. Here T1-L13’s Min. depth goes from 2.0 to 2.5 ft. As soon as you type, the Unapplied changes box appears at the foot of the panel; nothing on the run changes until you click Apply changes, which grades it again to the new limits (Undo takes it back). Drainage settings holds the values new runs start with.
Where to find it: Design tab > Active Design (run selected) > Depth constraints > Apply changes
Step 3 of 38
Apply checks the values first. A Min. depth deeper than the Max. depth, a negative depth or grade, a Max. depth of 0, or text that is not a number is refused, and nothing on the run changes. Here a Min. depth of 5.5 ft was typed against a Max. depth of 5.0 ft, and a notice says why: "Min depth (5.5 ft) is greater than max depth (5.0 ft). Nothing was changed." The field is outlined in red and keeps what you typed, so you can correct it; the run keeps its saved value (2.0 ft) until you type a value that fits and click Apply changes again. Values that are allowed but unusual, such as tile shallower than 6 in or deeper than 10 ft, or a minimum grade over 2%, are questioned first ("Unusual value") and applied only if you click Apply anyway.
Where to find it: Design tab > Active Design > Apply changes
Step 4 of 38
Grade design offers three ways to set a run’s grade. Best-Fit is the one to use almost everywhere, and every new run gets it on its own: it finds the grade that stays between the run’s Min. and Max. depth (3.0 to 5.0 ft for T1) and never drops below its minimum grade (0.1%), and it follows the ground as closely as those limits allow. It is worked out again whenever you change the run or its settings. Reach for Guided or Freeform only when you need the grade somewhere Best Fit would not put it.
Where to find it: Design tab > Active Design > Grade design > Best-Fit
Step 5 of 38
Guided lets you choose the points the grade runs through, and the app keeps the rules. Select the run, click Guided (answer Replace with Guided; the button turns orange and reads Finish Drawing), then click the profile chart where the grade should change. Each anchor sits at the run’s Target depth (3.5 ft) under the ground there, the grade runs straight between anchors and on to the outlet, never flatter than the minimum grade, and a click near the far end snaps to the inlet. Here 4 anchors (at 79, 355, 414, 814 ft) give T1 a few long, even grades a contractor can lay. Finish Drawing runs the checks; Esc puts the saved grade back.
Where to find it: Design tab > Active Design > Grade design > Guided
Step 6 of 38
Freeform puts every point exactly where you click, with no snapping and no minimum grade, so use it when the grade must meet a fixed height: an existing tile, a culvert or a ditch bottom at a known depth. Click Freeform (Replace with Freeform), then click the profile chart from the outlet up; drag a point to move it, Alt-click to remove it. Here the first point is placed about 4.5 ft deep at the outlet, where an existing tile would leave the field (Starting Depth reads 4.4 ft: a point lands exactly where you click), and 4 more points carry the grade up the main. Nothing stops a bad grade: S and D marks show where it is too shallow or too deep as you drag, and Finish Drawing runs the checks.
Where to find it: Design tab > Active Design > Grade design > Freeform
Step 7 of 38
If the outlet has to be at a set depth (an existing tile, a ditch or a culvert), select the main, tick Use fixed start depth and type the depth. Nothing changes until you click Apply changes, in the Unapplied changes box at the foot of the panel.
Where to find it: Design tab > Active Design (main selected) > Use fixed start depth
Step 8 of 38
After Apply the main starts 4.5 ft deep at the outlet and climbs to meet the best grade up the field. The profile shows the new grade line; the laterals tied into T1 follow it.
Where to find it: Profile chart
Step 9 of 38
The Outlet transition is a stretch at the outlet end where the depth limits are relaxed so the tile can rise or drop to meet the outlet; minimum grade still applies, and 0 turns it off. Suggest works a length out from the maximum transition grade in the tile settings (26.0 ft here); apply it and check the profile.
Where to find it: Design tab > Active Design > Outlet transition (ft) > Suggest
Step 10 of 38
Open Tile Sizing and click Auto Size Mains. Check the Project drainage coefficient (in/day), the depth of water the system removes from the field in a day: 0.375 in here. It is one value for the whole project, so changing it here changes it everywhere. The manual’s guide is 3/8 to 1/2 in for row crops (corn, soybeans), 1/4 to 3/8 in for small grains and 1/8 to 1/4 in for pasture and hay; local drainage guides and contractors know your area. Tick Enable stepped main sizing so long mains step down in size from the outlet to the inlet, then Start Sizing.
Where to find it: Design tab > Sizing > Tile Sizing > Auto Size Mains
Step 11 of 38
For each main the sizer shows the steps it chose: the station (distance along the main from its outlet) where each size starts and ends, the pipe size, the wall (SW single-wall corrugated, or DW dual-wall with a smooth inside), the perforation (NP non-perforated for a main that only carries water) and the acres it carries, with the drained width credited to each lateral below. Change any size or wall in the table first if you need to, then click Apply All (Skip leaves this main as it was).
Where to find it: Auto Size Mains > stepped sizing review
Step 12 of 38
Each main and sub-main is now coloured by pipe size, and a stepped main changes colour where it steps down. Map Layers > Drainage Design > Color: By Pipe Size shows the legend. If you change the layout later, Out of date flags the runs whose size no longer fits so you know to run Auto Size again.
Where to find it: Design tab > map; Map Layers > Drainage Design > Color: By Pipe Size
Step 13 of 38
Hold the mouse over a sized main to read its pipe, length, grade and depth, its design flow at the outlet, and its Max DC: the drainage coefficient the pipe actually delivers at its tightest stretch, its bottleneck, beside the Project drainage coefficient it is checked against. Here T1, 8"–10" stepped, carries 190 GPM and delivers 0.39 in/day, a little more than the 0.375 in/day target. Below the target it turns red. Laterals show their own Max DC for information only; a short, steep lateral often drains far more than the target. Leave the optional maximum in Drainage settings blank unless you want Auto Size to stop at a size that would drain too much.
Where to find it: Map: hold the mouse over a main or sub-main
Step 14 of 38
With Enable stepped main sizing left unticked, Auto Size gives each main one size for its whole length, and its review says which stretch decided it. Here T1 is "Sized by: 3+74 – 3+75 at 0.100% (166 GPM arrives there)": 374 ft up from the outlet, 166 GPM (gallons a minute) arrives on a grade of only 0.1%, and that spot, not T1's average grade, sets its size. Check that stretch before you accept: if it is a short flat spot, a little more grade there (Guided, or a deeper start) may save a pipe size. You never type a lateral spacing here: Auto Size uses the area each part of the main actually drains in the design as drawn (its contributing area: 26.91 ac for T1).
Where to find it: Design tab > Sizing > Tile Sizing > Auto Size Mains (stepped sizing unticked) > Start Sizing
Step 15 of 38
Each size option says what that pipe delivers: the drainage coefficient (inches of water a day taken off the field) it can carry at the stretch that sized it. The line under the options compares sizes with the 0.375 in/day target: for T1 an 8" single-wall delivers only 0.335 in/day (below target), so 10" is recommended at 0.536 in/day; dual-wall is smoother inside, so 8" dual-wall already delivers 0.419 in/day. A bigger size than needed simply drains faster than you asked for. The delivered figure is the same Max DC the hover over a sized main shows.
Where to find it: Design tab > Sizing > Tile Sizing > Auto Size Mains > the one-size review > size options
Step 16 of 38
To change one stretch of a sized main, run Auto Size Mains again (Enable stepped main sizing ticked) and click Skip for every main you want left as it is. In the review for the main, change that row’s Size or Wall: here the outlet stretch of T1, 0+00 - 6+00, goes from 10" SW to DW, and because dual wall is smoother inside, the sizer drops it to 8" at once. A size picked below what a stretch needs is marked (< req) and shaded red. Click Apply All to save it; one Undo takes it back. Picking a size in the Active Design card instead replaces all the steps with one size.
Where to find it: Tile Sizing > Auto Size Mains > Start Sizing > the main’s review > Wall
Step 17 of 38
To change where a run steps down, or one stretch's pipe, without running Auto Size, select the run and click Edit pipe sizes at the top right of its profile (it turns green and reads Editing pipe sizes). Each pipe stretch gets a label: here T1 shows 10" SW NP from 0+00 to 6+00, draining 26.9 ac and delivering 0.54 in/day, and 8" SW NP from 6+00 to 10+84, 21.4 ac and 0.39 in/day. The in/day on a label is what that pipe delivers at its tightest point, the part of the stretch that drains least (usually its flattest), so the whole stretch is at least that good. The line under the chart says whether every segment meets the 0.375 in/day target.
Where to find it: Design tab > select a tile run > profile chart > Edit pipe sizes
Step 18 of 38
Drag the marker between two stretches along the profile to move the step. It moves in 20 ft pipe lengths from the outlet and stops a pipe length short of the next step or the end. While you drag, a red dot on the map follows it along the run, so you can see the step land at a lateral's tee or a field road. Here T1's step moves from 6+00 to 8+00.
Where to find it: Profile chart > Edit pipe sizes > drag a step marker
Step 19 of 38
Click on the pipe line to add a step there. Both halves keep the same pipe until you change one: here a click at 9+40 splits the 8" stretch into 8+00 - 9+40 (19.6 ac, 0.42 in/day) and 9+40 - 10+84 (18.0 ac, 0.44 in/day). Each label always shows the land draining into its downstream end.
Where to find it: Profile chart > Edit pipe sizes > click the pipe line
Step 20 of 38
Click a segment's label to open its Size, Wall and Perforation. Here segment 3 goes from single wall to Dual wall: dual wall is smoother inside, so the same 8" now delivers 0.55 in/day instead of 0.44. Press Esc or the x to close the picker; nothing has changed on the run yet.
Where to find it: Profile chart > Edit pipe sizes > click a segment label
Step 21 of 38
Click the x under a step marker to remove it. The two stretches become one with the larger of the two pipes, so removing a step never makes the pipe smaller: here removing the step at 9+40 leaves 8" dual wall from 8+00 to the end.
Where to find it: Profile chart > Edit pipe sizes > x under a step marker
Step 22 of 38
A segment whose pipe delivers less than the Project drainage coefficient turns red and says how far short it is, and the line under the chart names it. Here segment 2 was set to 6" dual wall: "Below the 0.375 in/day target: segment 2 (8+00-10+84) delivers 0.24 in/day, 0.13 in/day short. You can still apply." You can: the run then shows under Violations in Find a run, and the report stars it, until you change it.
Where to find it: Profile chart > Edit pipe sizes > the segment labels and the line under the chart
Step 23 of 38
A pipe carries less water the flatter it runs. Above 8+28, T1 runs at the 0.1% minimum grade all the way to its end, so even though less land drains into that stretch, a smaller pipe there would carry too little: 6" delivers only 0.24 in/day against the 0.375 target. That is why Auto Size keeps a larger pipe further up a flat main than the acres alone suggest, and why a step you drag onto flat ground can turn red.
Where to find it: Profile chart > Edit pipe sizes
Step 24 of 38
Nothing on the run changes until you click Apply under the chart; until then the line starts "Not applied yet." Cancel, turning Edit pipe sizes off or choosing another run drops the changes (it asks first if you made any). Here segment 2 is back to 8" dual wall and every segment meets the target, so Apply.
Where to find it: Profile chart > Edit pipe sizes > Apply / Cancel
Step 25 of 38
After Apply the map colours, the run list, the report's pipe schedule, the materials list and the exports all follow your sizes. One Undo (the arrow at the top left of the map) puts the sizes back as they were. If you later run Auto Size Mains, it asks for each run you edited here whether to keep your sizes or rebuild them.
Where to find it: Map > Undo (top left)
Step 26 of 38
Auto Size picks sizes for mains and sub-mains; a lateral, or any run you want to fix yourself, takes its size from the Active Design card. Select the run (here T1-L13), choose its Size (4" to 6" here) and its Form (Sock Filter); a main also has Perf (perforated or not). The Unapplied changes box appears at the foot of the panel: click Apply changes to keep it, and Undo takes it back. On a stepped main this replaces all its steps with the one size.
Where to find it: Design tab > Active Design (run selected) > Size, Form (and Perf on a main) > Apply changes
Step 27 of 38
The PDF report prints the main the way you left it. In its main line table T1 now reads Stepped 8", sized for 0.375 in/day and delivering 0.388 in/day at its bottleneck (the Delivered DC column), and the Pipe schedule for T1 lists the outlet stretch, 0+00 - 6+00, as 8" DW, 600 ft, and the rest as SW. Every stretch is checked at its own size and grade, so a change that leaves a stretch short of capacity shows up here as Adequate: No.
Where to find it: Deliver > Professional Reports > Generate Report > the main’s page
Step 28 of 38
A size from Auto Size fits the design as it was when you sized it. Change the layout afterwards (here one lateral of T5, T5-L3, was deleted) and the runs it drains into are marked out of date: ↻ after the name on the map and in the run list, and the Tile Sizing card says "↻ 1 run needs re-sizing: T5" (the Out of date count under Find a run goes to 1 as well). Hold the mouse over the run to see why: "Pipe sized for 3.35 ac; the drawn design drains 2.74 ac". Nothing is re-sized on its own, and the report and the exports warn about it until you size it again.
Where to find it: Map label and hover; Active Design > Find a run > Out of date; Sizing > Tile Sizing
Step 29 of 38
When a lateral moves, only the mains it drains into need a new size. Here lateral T2-L11 was moved a few feet along T2 and the Tile Sizing card says "↻ 1 run needs re-sizing: T2". Click that line: Auto Size opens for exactly the runs it names and leaves every other run as it is.
Where to find it: Design tab > Sizing > Tile Sizing > the ↻ line
Step 30 of 38
To clear the mark, click Auto Size Mains. The panel lists every out-of-date run with both figures (T2 — Pipe sized for 13.41 ac; the drawn design drains 13.39 ac.) and offers two choices: Size only the runs that need it (1): T2, the default, or Size every main. Keep the default and click Start Sizing: only T2 is reviewed, every other main keeps its pipe exactly as it is, the ↻ goes and Out of date drops back to 0. One Undo takes back the whole pass.
Where to find it: Design tab > Sizing > Tile Sizing > Auto Size Mains
Step 31 of 38
To size one main or sub-main, right-click it on the map and choose Auto Size this run (here T3 · Tile main · 805.3 ft). It opens the usual review for that run only, at the Project drainage coefficient; a run sized stepped is sized stepped again. Every other run is left exactly as it is, and one Undo takes the whole pass back.
Where to find it: Map > right-click a main or sub-main > Auto Size this run
Step 32 of 38
The same thing from the profile: select the main and click Re-size this run, beside Edit pipe sizes. Here T2 (size out of date) opens straight in its stepped review, 8"/6"/4" over three segments, and Apply All sizes T2 alone: the other six mains are kept, and the ↻ clears.
Where to find it: Design tab > select a main > profile chart > Re-size this run
Step 33 of 38
Every lateral and sub-main must join a main. A project from an earlier version, or a design brought in from another program, can hold a run that does not; here one lateral of a copy of this design, T2-L5, was cut loose to show it. The project opens with a red list of those runs, and until each one is reconnected or deleted, Auto Size, the PDF report and the machine exports will not run. Click Auto Size Mains and the notice says why: "Auto Size cannot run while 1 run is not connected to a main: T2-L5. Reconnect or delete it in the list, then try again."
Where to find it: Design tab > Sizing > Tile Sizing > Auto Size Mains; the list of runs not connected to a main
Step 34 of 38
Click Reconnect beside the run in the list: the Reconnect tool opens on that run, and you click the main or sub-main it belongs to, here T2. A panel says what will happen ("1 lateral move to T2. 1 lateral is cut at T2."); click Reconnect and it is done as one Undo step. The run takes T2’s next unused name (T2-L25), the list turns green with Every run is connected, and Auto Size, the report and the exports are available again. Delete removes the run instead, with anything connected to it.
Where to find it: The list of runs not connected to a main > Reconnect, then click the main
Step 35 of 38
Where a lateral or sub-main has to be deeper than its maximum depth, the extra soil is overburden. The first stretch of every lateral and sub-main, from where it joins its main, is dug out with the pit that sets the plow in, so cuts there are not counted: that stretch is the Excavated start (25.0 ft by default; 0 counts the whole run). Find it in Drainage settings under Overburden Settings.
Where to find it: Design tab > Active Design > sliders button > Drainage settings > Tile design > Overburden Settings
Step 36 of 38
Switch on Overburden cuts in Map Layers to see them: each cut is a see-through orange band along the pipe, so the pipe's own colour still shows through, with the cut depth marked along it and OB at the deepest point. Here lateral T4-L3 was held to 4.0 – 4.5 ft (a plow that reaches 4.5 ft), and where it crosses the rise it has to go deeper: a 233 ft cut, up to 1.0 ft, about 86 cubic yards. The report adds the cuts up. This field has none as designed; one Undo puts it back.
Where to find it: Map toolbar > Layers > Overburden cuts
Step 37 of 38
When a run breaks a limit it is marked on the map, S where the tile is too shallow and D where it is too deep, with a warning sign after its name. Its summary line turns red with the count, Violations in Find a run counts the runs that need attention, and the profile chart shows where. Here the maximum depth of one lateral was set to 2.5 ft to show it; Undo puts it back.
Where to find it: Map markers, Design tab > Active Design summary, Find a run > Violations
Step 38 of 38
All 133 runs graded, T1 starting at its fixed depth, and the mains and sub-mains sized in steps (T1 10"/8", T1-SM1 4", T1-SM2 8"/6"/4", T2 8"/6"/4", T3 6"/4", T4 6"/4", T5 4"), with no violations and every size up to date.
Where to find it: Design tab
Click the picture to see it full size.
Chapter 7 of 14 · about 13 min
A surface drainage plan
Lay open ditches along the draws of a rolling field: mark the culvert where the water leaves, find the draws with the analysis layers, draw a surface main and its tributaries, set their depths, check them, read the report and carve them into the ground to see the depressions drain.
Field used: Racine County WI, 193 ac (1 m LiDAR)
Step 1 of 20
Open the field with its boundary and LiDAR elevation (laser-measured ground heights; see Get started). This 193-acre field in Racine County, Wisconsin rolls gently: purple and blue are the low ground, yellow the high ground (the Elevation legend top right gives the heights). Water gathers in one big low spot in the middle and leaves through the north-west corner into a farm ditch. No ditch is drawn yet.
Where to find it: Project tab; Map Layers > Elevation
Step 2 of 20
Before you build the analysis layers, follow the water out of the field. Here it runs into a farm ditch that passes under a farm lane on a culvert, but the LiDAR only sees the lane: it reads as a dam nearly 3 ft above the ditch bottom, so the ditch would look like a pond. Open Mark Culverts (optional) on the Project tab, click Mark culvert, click the ditch on one side of the lane and then on the other, click Save, and click Done (the Mark culvert button reads Done while you mark) to stop. Then click Carve culverts into elevation: the list says 1 culvert included in active burned surface, and from now on the app works on the carved elevation, which the Active surface box at the top of the sidebar names Burned Elevation (culverts).
Where to find it: Project tab > Mark Culverts (optional) > Mark culvert, Carve culverts into elevation
Step 3 of 20
Click Create Drainage Layers on the Project tab so the layers use the carved surface. Then click Map Layers (the first button on the map toolbar, bottom left of the map) and turn on Flow Lines. Each line is a path water takes across the field; the thicker the line, the more acres drain down it. The thick lines are the draws (the shallow valleys water runs down), and that is where surface ditches go. The slider beside Flow Lines hides the small ones.
Where to find it: Map toolbar > Map Layers > Analysis Layers > Flow Lines
Step 4 of 20
Turn on Drainage Basins. Each coloured area is ground that drains to the same point on the field edge. The big orange basin, 108.2 ac of this field (its "group" label), drains to the north-west corner, so one surface main (the main ditch, which carries the water to the outlet, where it leaves the field) from that corner up the main draw serves most of it.
Where to find it: Map Layers > Analysis Layers > Drainage Basins
Step 5 of 20
Turn on Depressions to see the low spots that hold water, coloured by depth (the darker the blue, the deeper the water stands). Together they cover 20.9 ac of this field, and the big one in the middle holds water after every rain. A ditch along the draw cuts through its rim and lets it drain out to the north-west corner.
Where to find it: Map Layers > Analysis Layers > Depressions
Step 6 of 20
Every new ditch takes its limits from Drainage settings > Surface design; the chapter Set up your design settings explains each field. For this field: Max Depth 54 in (4.5 ft), deep enough for the main to cut through the bank between the field and the farm ditch at the outlet; Ditch Bottom Width 8 ft and Side Slope 6:1 (6 ft across for every 1 ft down, gentle enough to farm across); Steepest ramp from a fixed start or connection 2 %. Click Save defaults.
Where to find it: Design tab > sliders button beside Active Design > Drainage settings > Surface design
Step 7 of 20
On the Design tab, click Draw at the top of the tool rail (the column of buttons at the left of the map), pick Surface, then Main Drain. Surface mains and tributaries (the side ditches that feed a main) are open ditches: their grade is worked out for the ditch bottom.
Where to find it: Design tab > tool rail > Draw > Surface > Main Drain
Step 8 of 20
Start at the outlet: the bottom of the farm ditch just outside the north-west corner, where the water leaves. Then click your way into the field and up the thick flow line; double-click to finish. Before the first click, a tag beside the pointer shows the ground elevation, so you can find the lowest point. When you finish, Best Fit grades the ditch at once.
Where to find it: Map, with Draw > Surface > Main Drain armed
Step 9 of 20
The new main is S1, 2,302 ft long, and the Profile Chart under the map shows it from the outlet (0 ft, left) up the draw. The red Best Fit Line is the ditch bottom, the green Min Depth Line the ground (Min Depth is 0 for a ditch) and the pink Max Depth Line 54 in below it. For the first 800 ft the bottom runs almost level, up to 30 in below the ground, through the bank of the farm ditch and across the low ground of the big depression, still falling toward the outlet at least at Min Grade (0.05 %).
Where to find it: Design tab > Active Design > Grade design > Best-Fit; Profile Chart under the map
Step 10 of 20
Further up the draw, past about 1,000 ft, the red line lies on the green one: with Min Depth 0 and no Offset Depth, Best Fit lets the ditch bottom run on the ground wherever the slope already carries the water, so the ditch there is 0 in deep. The summary line in the panel still says no violations, because 0 in is allowed; the next steps give it a real depth.
Where to find it: Profile Chart under the map
Step 11 of 20
Choose Draw > Surface > Tributary, start on the main where a side draw comes in, and click up the side draw. The tributary is named after its main: S1-TR1 here. Force connection (ticked by default) ties the tributary's bottom to the main's bottom at the junction (the black Parent Connection dot at 0 ft in the profile), so water can get into the main. Where the tributary would sit higher, its bottom climbs from the junction no steeper than Steepest ramp from a fixed start or connection in Drainage settings.
Where to find it: Draw > Surface > Tributary; Design tab > Grade Parameters > Force connection
Step 12 of 20
With S1 selected, type an Offset Depth: the ditch bottom stays at least that far below the ground wherever the grade allows; 6 in keeps water moving across the flat floor of the depression and up the draw. The outlet is different: S1 starts in the bottom of the farm ditch, so tick Use fixed start depth and type 0 in, and the new ditch starts level with the farm ditch's bottom instead of 6 in below it. Nothing changes until you click Apply changes in the Unapplied changes box at the bottom of the panel.
Where to find it: Design tab > Grade Parameters > Offset Depth, Use fixed start depth > Apply changes
Step 13 of 20
After Apply changes, the ditch bottom starts at the ground at the outlet (0 in at 0 ft in the profile), level with the farm ditch, and the profile shows it cutting 43 in deep through the bank 20 ft in; everywhere else it now stays at least 6 in down (the shallowest point past the bank is 6.0 in). Then select each tributary, type the same Offset Depth and click Apply changes; a forced tributary follows its main at the junction.
Where to find it: Design tab > Grade Parameters > Apply; Profile Chart
Step 14 of 20
Here is the finished plan: main S1 and four tributaries, S1-TR1 to S1-TR4, each up a side draw and stopped short of the field edge. A tick beside a run's name means no depth or grade violations. A letter on the map marks a problem: S where the ditch is shallower than Min Depth (or above the ground), D where it is deeper than Max Depth. Violations under the run picker counts them for the whole design (0 here); the arrows beside it step through each one.
Where to find it: Map labels; Design tab > Active Design > Violations
Step 15 of 20
Click More beside the run's summary line to see the Design Statistics of the selected run: the outlet depth, the average, shallowest and deepest cut, the average grade and the Total Volume of soil to move (yd³, cubic yards), worked out from the ditch bottom width and side slope in Drainage settings. S1 moves about 2,060 cubic yards over 2,302 ft. The report adds the volumes up for the whole plan.
Where to find it: Design tab > Active Design > More
Step 16 of 20
On the Deliver tab, open Professional Reports and click Generate Report (the chapter on delivering the design explains its options); the Detailed template prints the Design plan, the System Summary and a page for the ditches. For a surface plan the System Summary counts the runs (here 1 surface main and 4 surface tributaries), their Total Length (7,394 ft) and the Surface Drain Density, the feet of ditch per field acre (38.3 ft/acre).
Where to find it: Deliver tab > Professional Reports > Generate Report; saved PDF, System Summary
Step 17 of 20
Surface Drain Details lists every ditch with its length, average depth, average grade and the volume of soil to move, from the bottom width and side slope in Drainage settings. Here the five ditches move about 3,960 cubic yards, 2,057 of them in main S1. The pages after it carry the profile of each main; the Appendix lists every run's depth limits and the depths it reached.
Where to find it: Saved PDF, Surface Drain Details
Step 18 of 20
To see whether the plan drains the field, carve it in. On the Design tab, open Surface with drains carved in and click Burn drains into surface: the app cuts every graded ditch into the elevation at its designed bottom and side slopes and saves the result as a new surface. The green line under the button says the active surface is now Burned Elevation (drains + culverts) (the culvert is kept in it), and the map, the elevation readouts and the analysis tools now read the carved ground.
Where to find it: Design tab > Surface with drains carved in > Burn drains into surface
Step 19 of 20
Now click Create Drainage Layers on the Project tab again and turn on Depressions: the layers are built on the carved ground. The big depression in the middle is gone, and the depressions in the field shrink from 20.9 ac to 8.3 ac; the ones left are small low spots away from the ditches, where a short tributary or a little land forming would finish the job. Before you change the ditches again, set the Active surface box at the top of the sidebar back to Raw Elevation, so Best Fit reads the ground as it is today and not the ditches you carved.
Where to find it: Project tab > Create Drainage Layers; Map Layers > Depressions; Active surface box
Step 20 of 20
When the plan is finished, open the Deliver tab and Send the design to the machine, and pick your display or machine format. For a ditch on government LiDAR the recommended file is a georeferenced map image to show the plan on the display while the machine surveys and cuts to its own grade. Send it to the machine explains each file and which one to pick.
Where to find it: Deliver tab > Send the design to the machine > Equipment brand
Click the picture to see it full size.
Chapter 8 of 14 · about 9 min
A targeted tile plan with surface inlets
Drain the depressions instead of the whole field: run tile from the outlet to each depression, put a surface inlet in it sized for all the ground that drains into it, and size the pipe for the inlet water.
Field used: Humboldt County IA, 144 ac (1 m LiDAR)
Step 1 of 13
This 144-acre field in Humboldt County, Iowa has two depressions (low spots with no outlet) that hold water after a rain: one on the west edge and one in the north-middle. Open Map Layers on the map toolbar and turn on Depressions to see them coloured by depth, and Flow Lines to see the draws: the thick one runs south to the field edge, which is where the tile outlet goes. A targeted plan runs tile from the outlet to the depressions only, instead of tiling the whole field.
Where to find it: Map toolbar > Map Layers > Analysis Layers > Depressions, Flow Lines
Step 2 of 13
Turn on Ponding after rain: it shows where water stands after a rain and how deep (darker blue is deeper). Drag its Rain slider to a heavy rain, 3.0 in here; the line under it says how much of that runs off on this soil (about 1.6 in runs off (row crops, soil group C)). Both depressions fill, the west one along the field edge and the north one in the middle. These are the spots worth a surface inlet (a riser in the low spot that lets the standing water into the tile). The soil group comes from the US soil survey; in Canada it is estimated from the soil texture.
Where to find it: Map Layers > Analysis Layers > Ponding after rain
Step 3 of 13
Choose Draw > Tile > Main and click from the outlet on the south edge up the thick flow line to the west depression; double-click to finish. The main (the larger pipe that carries the water to the outlet) is T1, 2,611 ft. Best Fit grades it as you finish: the profile shows T1 climbing from the outlet (0 ft, left) to the west depression, 39 to 59 in deep, deep enough under the rise. Its Size stays Unassigned until it is sized.
Where to find it: Design tab > tool rail > Draw > Tile > Main
Step 4 of 13
Then choose Draw > Tile > Lateral and click from the main up the side draw into the north depression; double-click to finish: T1-L1, 1,206 ft. The north depression has no draw out of it (when it overflows it spills north-east, off the field), so the lateral follows the side draw that starts just south of it, then cuts through its rim to the lowest point. The green dot in T1's profile is where T1-L1 joins; the lateral starts at the 4 in default pipe for laterals.
Where to find it: Design tab > tool rail > Draw > Tile > Lateral
Step 6 of 13
In the inlet dialog choose From its catchment. The app offers two areas: The flow line here (0.14 ac), the ground that drains down the one flow line under the inlet, and The whole low spot (34.93 ac), all the ground that drains into the depression from every side, counting the 3 other low spots that overflow into it. Water runs into a depression from all around it, so size the inlet for the whole low spot. The drainage coefficient (inches of water taken off that area per day) starts at 1.0 in/day, so the inlet takes 658.7 gpm.
Where to find it: Surface inlet dialog > From its catchment > The whole low spot
Step 7 of 13
Click Calculate Lateral Tile Size. The app adds the inlet flow to the water the lateral drains from the soil (668.5 gpm in all) and offers the smallest pipe that carries it at the lateral’s grade: 18 in single-wall or 15 in dual-wall (dual-wall pipe has a smooth inner wall, so it carries more for its size). That is much bigger than a lateral usually is, because the inlet takes runoff from 34.93 ac, not just soil water from beside the pipe. Pick one and click Accept to save the inlet and resize the lateral.
Where to find it: Surface inlet dialog > Calculate Lateral Tile Size > Accept
Step 8 of 13
The inlet shows on the map as a marker with its flow, and in the profile chart as a triangle at its station (Surface Inlets in the chart legend). The lateral now carries the size you accepted. Click the marker to change the inlet, switch it between From its catchment and Flow required, or delete it.
Where to find it: Map marker; Profile Chart > Surface Inlets
Step 9 of 13
Right-click the end of the main in the west depression and choose Add surface inlet here again. Choose The whole low spot (15.96 ac). At 1.0 in/day that is 301.0 gpm. On a main the button is Add Inlet Flow: it saves the inlet, and Auto Size sizes the main for it in the next step.
Where to find it: Right-click the main > Add surface inlet here > Add Inlet Flow
Step 10 of 13
Open Tile Sizing on the Design tab and click Auto Size Mains. The main is sized for everything that reaches it: the water its own tile drains from the soil plus the water of the two inlets you just added (658.7 and 301.0 gpm, 960 gpm together). The Project drainage coefficient (in/day) is how much water the tile takes off the drained ground per day: 0.375 in per day here (3/8 in), one value for the whole project. Tick Enable stepped main sizing so the pipe gets bigger only where more water has joined. Click Start Sizing.
Where to find it: Design tab > Tile Sizing > Auto Size
Step 11 of 13
Auto Size then shows the stepped sizes: it splits the main into 4 stretches and offers the smallest pipe for each, listed by station (distance from the outlet, 8+20 = 820 ft): 21 in from 0+00 to 8+20, 18 in from 8+20 to 9+60, 15 in from 9+60 to 9+80, 12 in from 9+80 to 26+11. The pipe is biggest at the outlet and steps down where the main runs steeper, and again above 9+76, where T1-L1 and its inlet water join. Cum. ac is the area each stretch serves, with each inlet’s catchment counted as the tile area that would give the same flow. You can change any Size, Wall or Perforation here before you accept.
Where to find it: Tile Sizing > Auto Size > Start Sizing > review
Step 12 of 13
Leave Rebuild main using on Single wall (or pick Dual wall) and click Apply All. The main now carries its stretches: the profile under the map labels each one with its pipe (21 in, 18 in, 15 in, 12 in from the outlet up), and the run picker reads T1 (Main) - 21" SW NP, the size at the outlet. Violations still reads 0.
Where to find it: Tile Sizing > Auto Size > Apply All; Profile Chart
Step 13 of 13
The main does the job a surface ditch would, but underground: the inlets let the depression water in and the main carries it to the outlet, so you farm straight across. It is non-perforated (solid) pipe because its job is to carry water, not to take it from the soil beside it; Size, Form and Perf for the selected run are in the Design panel.
Where to find it: Design tab > Active Design > Size, Form, Perf
Click the picture to see it full size.
Chapter 9 of 14 · about 15 min
Check the design with the Drainage simulation (Beta) Beta
Rain on the field with your tile and without it, side by side, and watch the next week hour by hour: how many acres the tile gets to the goal, what it changes where, how full the pipes run, which spots stay wet, and, on a targeted design, how fast the depressions empty through their inlets.
Field used: Logan County IL tile plan (82 ac, sized at 0.375 in/day); Humboldt County IA, 144 ac targeted design
Step 1 of 23
With the design sized, click Simulation at the top of the Design tab (or type drainage simulation in Ctrl+K) and click Drainage simulation. The button turns on once the field has a boundary, elevation and a graded design; until then the line under it says what is missing. Run Auto Size first so it can check what the pipes carry.
Where to find it: Design tab > Simulation > Drainage simulation
Step 2 of 23
The window opens with a progress box over it: "Running the rain over the field with your tile, hour by hour", then the same without tile, with a percentage. It takes a few seconds to a minute on a field this size. The window and the app behind it wait until it finishes; Cancel stops the run.
Where to find it: Drainage simulation window > progress box
Step 3 of 23
It opens Side by side: With tile on the left, Without tile on the right, the same rain and the same hour, and the two maps move together when you zoom or drag. The colour is the water table: blue near the surface, green once it is below the goal depth. Here it is 24 hours after the rain stopped (2 in over 12 hours): the tiled side is mostly green, while without tile the low ground is still blue. It is a comparison, not a forecast: what matters is the difference the tile makes.
Where to find it: Drainage simulation window > Side by side
Step 4 of 23
The summary on the right, What the tile does, opens with the drained area, the ground your laterals cover (59 ac here). Each line is one goal, with tile in green and without tile beside it: by 24 h the water table is 1 ft down on 54 of 59 ac with tile, against 29 ac without; by 48 h it is 1.7 ft down on 57 of 59 ac, against 42 ac. The 72 h line is one extra day to look at, not a goal: 59 of 59 ac, against 46 ac. You can change the goals in the settings.
Where to find it: Drainage simulation window > summary > What the tile does
Step 5 of 23
Under it the same lines count the whole field (82 ac): by 24 h 74 of 82 ac with tile against 45 ac without, by 48 h 80 of 82 ac against 62 ac. The whole field gains a little more than the drained area, because the tile also lowers the water next to the drained strips. The line at the foot says how much of the field lies outside the drained strips (23 ac here) and that ground with no soil data (0.1 ac, hatched on the map) is not counted.
Where to find it: Drainage simulation window > summary > Acres meeting the goal
Step 6 of 23
With tile and Without tile at the top show one map, full width. Here is the same hour without tile: the draws and the flat middle of the field still have the water table near the surface. Side by side puts the two back together.
Where to find it: Drainage simulation window > With tile / Without tile / Side by side
Step 7 of 23
Show what tile changes tints the maps by how much lower or higher the water table is this hour because of the tile: green where the tile has lowered it, red on the Without tile side where it stays higher. Hold the mouse over a spot to read it, for example "1.3 ft lower with tile at hour 36" and "Reached the 1 ft goal 14 h sooner with tile". Click the button again to go back to the plain water table.
Where to find it: Drainage simulation window > Show what tile changes
Step 8 of 23
The key in the corner of each map says what the colours are. Water table runs from at surface (blue) through within 1 ft to goal met and 2.5 ft+ down (green); the yellow mark is the goal. Standing water is teal, darker the deeper it is, up to 2 ft+. Tile pipes go from empty (white) to full (red). Click the x to fold the key to a small Key chip.
Where to find it: Drainage simulation window > key, bottom left of each map
Step 9 of 23
Tile lines at the top right of the map sets how the pipes are drawn: Show draws them at full strength and coloured by how full they are, Faint (the default) draws them see-through so the water table shows past them, and Hide leaves them off. The app remembers your choice.
Where to find it: Drainage simulation window > Tile lines
Step 10 of 23
Drag the slider or press Play to watch the week like a timelapse (Speed sets how fast). The blue bars are the rain. The marks are counted from saturated, the hour the field filled up (here hour 12, when the rain stopped): the goals are judged 24 h and 48 h after it, and the 72 h mark is one extra day, not a goal. Hold the mouse over a mark to read its depth.
Where to find it: Drainage simulation window > timeline
Step 11 of 23
Each pipe is coloured by how full it is, and the card on the right lists the runs that ran full and for how long. Here the outlets' combined flow peaks at 578 gpm as the rain stops, above the 415 gpm the pipes were sized for, so the card says running full for a while is expected: T1-SM2 55 h, T1 35 h, T3 31 h. Hold the mouse over a pipe to read it, for example T1 (10"): 40 % full (299 of 740 gpm). A main that stays full long after the peak is the place to look first.
Where to find it: Drainage simulation window > Pipes at capacity in this rain
Step 12 of 23
Wet spots are patches of a quarter acre or more that miss the goal with tile. Those inside the drained area come first, each saying what happened there: here a 3.4 ac Clarksdale spot reached the 1 ft goal 27 h after the rain with tile, against 71 h without, its laterals never ran full but the main they empty into ran full for 54 h further down, and a test run with a larger T1 and T1-SM2 alone did not bring it to the goals. That is evidence, not a recommended spacing. Click a spot to zoom the map to it.
Where to find it: Drainage simulation window > Wet spots
Step 13 of 23
Soils used lists each soil in the field with the figures the simulation took from the soil survey: how fast water moves through it (Ksat), how much water it gives up as the water table drops, where the water table starts in a wet spring and any dense layer. Here 749B Buckhart covers 28 ac, Ksat 1.3 in/hr, water table 2.8 ft down at the start. Soil-survey Ksat can be off several times either way, which is why the settings let you change it.
Where to find it: Drainage simulation window > Soils used
Step 14 of 23
Along the bottom of the window, under the timeline, is the settings strip: the rain and how the field starts, the soil, and the drainage goals. Each setting has an (i) beside it that explains it. Change any of them and click Run again to play the same week with the new values; the next steps go through the rows.
Where to find it: Drainage simulation window > settings strip (bottom)
Step 15 of 23
The first row sets the storm and the field before it. Rain 2 in over 12 h is the rain it plays, falling evenly over the field; Days to show (7) is how long the timeline runs. Evaporation (0.16 in/day) is the water the crop and sun take out each day after the rain; set 0 for a cold or bare field. Starting wetness (Wet spring here) starts the water table at the soil survey's wet-season depth; Average starts it 1 ft deeper, Dry 2 ft. Clay cracking is experimental and Off unless you choose it.
Where to find it: Drainage simulation window > settings strip, first row
Step 16 of 23
Clay cracking (Some or Strong) lets rain run down cracks in a dry clay. It applies only when you choose it, and then to the whole field: after Run again the card says "Clay cracking: Strong. Applied to the whole field (82 ac), zone 0–2.0 ft" and how many cracks were open. With a Wet spring start the cracks are shut (0% open here), so the acres do not change; with a Dry start they are open when the rain comes. Run it Off as well and compare.
Where to find it: Drainage simulation window > settings strip > Clay cracking > Run again
Step 17 of 23
The second row is the soil. Soil survey (as mapped) uses each soil's own figures; Typical texture or Your Ksat replace them for the whole field. The survey Ksat can be off several times either way, so Soil Ksat multiplies it: try Half and Double and run again to see how much the answer moves (Ksat 0.70–1.3 in/hr as mapped on this field). Soil storage does the same for how much water the soil gives up as the water table drops (0.48–0.54 in per ft as mapped).
Where to find it: Drainage simulation window > settings strip, second row
Step 18 of 23
If no soil map answers for the field, the button still works and says "No soil data for this field — choose a typical soil or enter a Ksat." The window then runs on a typical texture for the whole field (here Typical silt loam, Ksat 0.27 in/hr) and says so along the top. Set Soil to the texture you know (or Your Ksat with a figure from a soil test) and click Run again.
Where to find it: Drainage simulation window > settings strip > Soil: Typical texture
Step 19 of 23
The last row is the design check: ground meets the goal when the water table is at least 1 ft below the surface 24 hours after the rain and 1.7 ft by 48 hours (the 72-hour column uses the 48-hour depth). These defaults come from the Illinois Drainage Guide; the summary, Show what tile changes and the wet spots all measure against them. Change them for your crop if you need to, then click Run again.
Where to find it: Drainage simulation window > settings strip > Drainage goals, Run again
Step 20 of 23
Science explained, beside the Beta chip, opens a panel that says how the simulation works step by step, what the colours and numbers mean, what it assumes, its limits and its sources. It is a screening tool for comparing designs: it does not establish trafficability, crop safety or a drain spacing.
Where to find it: Drainage simulation window > Science explained
Step 21 of 23
Run it on the targeted design from the targeted tile chapter. The Ponds and inlets card lists each depression with an inlet: how much it holds before it spills, how deep it got with tile and without, when it is empty again, and how much the inlet took and what held it back. Here the inlet on T1-L1 took up to 1.52 cfs, held back by the pipe for 20 h (it ran full). The wet-spot list stays quiet: the design targets the depressions, so no advice is given for ground away from its runs.
Where to find it: Drainage simulation window > Ponds and inlets
Step 22 of 23
Click a depression in the card to zoom to it; Side by side shows both. As the rain stops (Day 1, 12:00) the depression is full on both sides: teal is standing water, darker where it is deeper. The small white-ringed dot on the With tile side is the inlet.
Where to find it: Drainage simulation window > Ponds and inlets > click a depression; Side by side
Step 23 of 23
Move on to 21 hours after the rain (Day 2, 09:00). With the inlet the depression on T1-L1 is empty; without tile all of it is still under water, and 72 hours after the rain it still holds 5.5 ac, 16 in deep, because there the water can only soak in and dry out. The other depression, on T1, tells the same story more slowly: 72 hours after the rain it still holds 0.50 ac with its inlet, against 5.0 ac without tile.
Where to find it: Drainage simulation window > timeline
Click the picture to see it full size.
Chapter 10 of 14 · about 20 min
Land forming (Beta): fill the lows and flats Beta
Design a surface graded so every part of a flat field drains to its edges, using dirt borrowed from the field itself, then check it, report it and send it to the machine.
Field used: Cass County ND (near Casselton), 70 ac
Step 1 of 30
This 70 acre field falls only about 4.5 ft from west to east over more than half a mile (the Elevation legend reads 940.0 to 935.5 ft). The Ponding Predictor paints in red where water shows first in a big rain: long wet flats run north to south across the field, and the black flow lines wander through them instead of running off. Load the field as for any design: draw the boundary, download 1 m elevation and click Create Drainage Layers; land forming starts from that ground.
Where to find it: Project tab > Define Your Field, Get Elevation Data, Create Analysis Layers; Map Layers > Ponding Predictor
Step 2 of 30
Turn on Ponding after rain in Map Layers and set its Rain slider to 3 in. On this field only 0.26 ac of water stands after the rain, up to 4.8 in deep, in a few small pockets. So the trouble here is ground too flat to shed water, not deep holes: that is the kind of field land forming fixes by giving every part of it a steady fall to an edge.
Where to find it: Map Layers > Analysis Layers > Ponding after rain > Rain
Step 3 of 30
Open the Workspace menu at the top of the screen and choose Landforming. The sidebar then shows only what land forming needs, and the Design tab shows the Landforming Design panel. Switch back to Drainage Design at any time; nothing is lost.
Where to find it: Top bar > Workspace > Landforming
Step 4 of 30
Everything for one design sits in the Landforming Design panel on the Design tab: Minimum grade and Compaction at the top, then Outlets and Benchmarks, the Analyze field and Solve design surface buttons, and Advanced settings at the bottom. The steps below take them one block at a time. The defaults suit a first run, and every setting has an (i) that explains it.
Where to find it: Design tab > Landforming Design
Step 5 of 30
Minimum grade is the slope every part of the design surface keeps towards an outlet: 0.05% falls 0.5 ft every 1,000 ft. Raise it for faster run-off, at the cost of moving more dirt. Compaction is the extra dirt to cut because fill settles: at 20%, every 1.0 yd³ (cubic yard) of finished fill needs 1.2 yd³ of cut.
Where to find it: Landforming Design > Minimum grade, Compaction
Step 6 of 30
Click Analyze field (recommend settings), the button just above Solve design surface, before your first solve. It makes a quick trial design and writes a recommendation under Minimum grade: how deep the design needs to cut and roughly how much dirt it moves (here max cut 0.92 ft · about 4,248 yd³ of dirt). Click that line (it ends "click to apply") to set Max borrow cut to the recommended depth.
Where to find it: Landforming Design > Analyze field (recommend settings)
Step 7 of 30
Outlets are the field edges water is allowed to drain over; the design only counts a spot as drained if its water reaches one of them. Here the north edge borders a neighbour, so it is marked No outlet (red) and the other edges stay outlets (green). Mark roads, berms and higher neighbouring ground the same way.
Where to find it: Landforming Design > Outlets > Edit…
Step 8 of 30
Click Edit… beside Outlets to start painting. Click one boundary segment (about 100 ft long) to switch it between outlet and No outlet, or pick No-outlet area or Outlet-OK area and draw round a whole stretch of edge to switch it in one go. The line beside Outlets keeps count (here: 50 of 82 edges allowed). Click Done painting when you are finished.
Where to find it: Landforming Design > Outlets > Edit…
Step 9 of 30
Benchmarks are the fixed points the machine calibrates to. Put them on solid ground that will not be worked, such as the field approaches just outside the boundary, as here along the south road. The first one you place is the master.
Where to find it: Landforming Design > Benchmarks > Edit…
Step 10 of 30
Click Edit… beside Benchmarks, then click the map to drop each one; click a marker again to remove it. The line beside Benchmarks reads "2 placed — first is the master (0MB)". Click Done when finished. Place none and the export places them for you; Clear removes them all.
Where to find it: Landforming Design > Benchmarks > Edit…
Step 11 of 30
Click Solve design surface. In a few seconds the map shows the cut/fill: red is cut, blue is fill, light green is within tolerance and dark green is left untouched. The lows on the flat west half are filled from the higher bands beside them, and the headline under Design surface ready says every part of the designed surface drains at your minimum grade.
Where to find it: Landforming Design > Solve design surface
Step 12 of 30
Open Details (cut, fill, depths). Here the design cuts 6,899 yd³ and fills 5,749 yd³ (the extra cut covers compaction), about 98 yd³/ac, with 52% of the field left untouched. It also lists the deepest cut and fill, how far the dirt is hauled, and the final drainage check.
Where to find it: Design surface ready > Details (cut, fill, depths)
Step 13 of 30
Open Advanced settings. Max borrow cut is the deepest the high ground may be lowered to supply fill; here it is 0.92 ft, the value Analyze field recommended. Keep it within your topsoil and subsoil depth. Too shallow, and the design runs short of dirt or cannot drain every low; the next step shows what that looks like.
Where to find it: Landforming Design > Advanced settings > Max borrow cut
Step 14 of 30
Set Max borrow cut too shallow (here 0.25 ft instead of 0.92 ft) and the field still drains, but the headline warns that the design is short 2,524 yd³ of usable material: about 37% of the fill has nowhere on the field to come from. Details offers a one-click fix, Raise max cut to 0.42 ft & re-solve. Otherwise allow deeper cut, bring fill in from off the field, or lower Minimum grade. When a design cannot keep within your limits at all, a section Couldn't meet all settings — see recommendations appears under Details with those changes worked out for your field, plus marking more edges as outlets.
Where to find it: Design surface ready > Couldn't meet all settings — see recommendations
Step 15 of 30
Smoothness rounds off sharp changes in grade so the finished surface is easier to farm across. Each step of the slider is one more rounding pass (here 1 pass). After moving it, click Re-solve with new settings. It is usually not needed, so it starts at 0: turning it on moves more soil.
Where to find it: Landforming Design > Advanced settings > Smoothness
Step 16 of 30
With 1 pass of smoothing the cut/fill map spreads out and more dirt moves: this field went from 6,899 to 7,722 yd³ of cut and from 5,749 to 6,435 yd³ of fill. Cut and fill still balance, because the solve takes the extra fill from the same nearby high ground. Add passes only where the map shows abrupt edges. For the rest of this chapter the slider goes back to 0 passes, so the numbers that follow come from the first design.
Where to find it: Advanced settings > Smoothness, then Re-solve with new settings
Step 17 of 30
Set Topsoil strip & return to the depth of topsoil you push aside before grading and spread back afterwards (here 0.5 ft, which is 6 in), then click Re-solve with new settings. Leave it at 0 if you grade without stripping.
Where to find it: Landforming Design > Advanced settings > Topsoil strip & return
Step 18 of 30
The finished surface does not change; the work does. Details now reads "strip & return 0.50 ft over 25.9 ac — 20,880 yd³ handled twice. Max total dig: 1.40 ft.". The report and the machine files add a strip pass before grading and a respread pass after it, so the topsoil ends up back on top.
Where to find it: Design surface ready > Details (cut, fill, depths)
Step 19 of 30
Click View 3D Before / After. The slider between Before and After blends the original ground into the design. Here the height is stretched 30 times (Exag) and Contours are set to 6 in: at Before, the small closed rings are the lows and hollows that hold water. Drag to turn the view and scroll to zoom.
Where to find it: Design surface ready > View 3D Before / After
Step 20 of 30
Slide to After and the same view shows the designed surface. The clusters of small closed rings on the flats (water with nowhere to go) are mostly gone, and the 6 in contours run as long, even lines across the field, so the ground falls steadily towards the outlet edges. Slide back and forth to see where dirt is taken and where it goes.
Where to find it: 3D Terrain Viewer > Before / After slider
Step 21 of 30
Click Use design as active surface, then on the Project tab click Create Drainage Layers again, and Hide cut/fill from map. The flow lines and Ponding after rain are now worked out on the designed ground: after the same 3 in rain, standing water goes from 0.26 ac to 0 ac, and the flow runs to the open edges.
Where to find it: Design surface ready > Use design as active surface; Project tab > Create Drainage Layers; Design surface ready > Hide cut/fill from map
Step 22 of 30
While the design is the active surface, the third button on the results card reads Back to original ground. Click it to put the field as it is today back under everything (contours, profiles, the drainage layers once you create them again); the design is kept, and the button turns back into Use design as active surface. Switch back and forth as often as you like to compare.
Where to find it: Design surface ready > Back to original ground
Step 23 of 30
Click Generate PDF Report under Design surface ready. Type the Field name and your Company / operator name, and add Preparer's notes for a line of explanation in the report (here, where the fill comes from). Logo image is optional and is remembered for next time.
Where to find it: Design surface ready > Generate PDF Report
Step 24 of 30
Cost estimate takes $ per yd³ moved, yd³ per hour (scraper) and $ per machine hour; fill in only what you know. Here only the scraper rate, 250 yd³ per hour, is given, so the report works out the machine hours but prints no cost. Leave all three blank and the Time & Cost Estimate section is left out. Below it, Paper sets the paper the report prints on (Letter here, A4 outside the US and Canada). Click Generate and save the PDF.
Where to find it: Generate PDF Report > Cost estimate (optional)
Step 25 of 30
The report opens with the field, who prepared it and the headline numbers: total cut and fill, grading intensity, deepest cut and fill, borrow patches and how much of the field is left untouched, with the drainage result in the green bar. It states only what was computed for this field.
Where to find it: Saved PDF
Step 26 of 30
Page two is the cut/fill map with the earth moved by depth class. The pages after it carry the earthworks summary (with the topsoil stages and, when you gave a production rate, the hours), the drainage check, before and after contours, depressions and flow paths before and after, haul distances and the borrow plan.
Where to find it: Saved PDF
Step 27 of 30
Click Export design… under Design surface ready and choose the file your machine control reads; the AGD design file is recommended for most. With topsoil strip & return on, export one file per construction stage. If the design is not construction-ready (for example it is short of material or misses the max cut), the export asks first and names the reason: Export anyway or Cancel. Send it to the machine explains each file and which one to pick, the units, the point spacing and the benchmark check.
Where to find it: Design surface ready > Export design…
Step 28 of 30
To change a setting and solve again, click Try different settings on the results card: the results fold away, your design stays until you click Re-solve with new settings. To throw the design away altogether, click Revert design at the bottom of Advanced settings. It asks first ("Discard the design?"); Discard removes the design and its map layers, and Cancel keeps it. Neither touches your outlets or benchmarks.
Where to find it: Design surface ready > Try different settings; Advanced settings > Revert design
Step 29 of 30
Change the field boundary after solving (here a corner is clipped off with Edit Boundary > Clip > Apply, leaving 61.3 ac) and the design is thrown away, because it was worked out for the old field. The results card goes, and with it Generate PDF Report and Export design…; the panel says "The field boundary changed, so the landforming design was discarded. Solve again." No-outlet marks on the changed edges go back to outlets (10 edges here), so check Outlets first. Your benchmarks stay.
Where to find it: Project tab > Edit Boundary > Apply; then Design tab > Landforming Design
Step 30 of 30
To get the report and the export back, click Solve design surface again. The results card returns with Generate PDF Report and Export design… for the new field. Read it as for any solve: here the 61.3 ac design passes the drainage check but runs short 258 yd³ of material, so check Details before you export.
Where to find it: Landforming Design > Solve design surface
Click the picture to see it full size.
Chapter 11 of 14 · about 7 min
Deliver: reports, machine files and backups
Turn the finished design into a report for the grower, files for the machine and the office, and a backup you can always go back to.
Field used: Story County IA, 103 ac (pattern tile design: 2 mains, 1 sub-main, 164 laterals, stepped 12" to 4", 0 violations)
Step 1 of 10
When the design is finished, everything that leaves the app starts on the Deliver tab: Send the design to the machine at the top, then Project Backup, Project Folder Storage, Professional Reports, Quick Exports, Overburden guidance, Analysis Data and Raw Data. Click a section header to open it. The pictures here come from a finished 103 acre tile design (two mains, a sub-main and 164 laterals, sized with Auto Size, no violations); the Deliver tab works the same way for a surface or land forming design.
Where to find it: Deliver tab
Step 2 of 10
Open Professional Reports and click Generate Report. The Generate Design Report dialog asks for the project details that print on the cover, the template and the paper, and any prices you want in the estimate; click Generate PDF Report to save the PDF. The next chapter, Reports and sharing with your client, goes through every part of this dialog and every page of the report.
Where to find it: Deliver > Professional Reports > Generate Report
Step 3 of 10
Files for a machine display start in Send the design to the machine (Beta) at the top of the Deliver tab: pick your display or machine format and the card lists the files that format loads, marks each REFERENCE ONLY or INSTALLABLE, and says which one suits this design. The chapter Send it to the machine explains each file, which one to pick, what each one asks before it saves, and how to check it on the display.
Where to find it: Deliver > Send the design to the machine
Step 4 of 10
For general file types, pick GIS & CAD files in the same list. Shapefile suits an agronomist's or GIS program and the many machine displays that read shapefiles; KML opens in online map viewers; DXF is for a contractor's CAD program; and the KMZ map package is the KML zipped with its map picture. All four are REFERENCE ONLY: they carry where the runs go, not grades to install to. The next steps show the question Shapefile and DXF ask before they save.
Where to find it: Send the design to the machine > GIS & CAD files
Step 5 of 10
Export now on Shapefile asks one question first: whether to write the runs as 3D lines, so each point along a run carries its design height. Tick it when the program or display that receives the file reads 3D lines, then continue; the ZIP holds the runs as a shapefile.
Where to find it: GIS & CAD files > Shapefile > Export now
Step 6 of 10
Export now on DXF asks for the drawing units: US survey feet, international feet or metres. Pick the units the job or program that receives the file is set to: as the dialog says, machine-display jobs are usually in US survey feet and CAD software usually expects metres. Ask whoever receives it if unsure. Coordinates and heights are written in those units, and the app remembers the choice. The export writes two drawings: the design and the existing ground. Under Coordinate system it offers UTM (the default, UTM zone 15N here) and the field’s State Plane zone in feet or metres (Iowa North here), and a search by EPSG code or name for any other system; picking a zone in feet sets the units to US survey feet. In Canada the list offers your MTM zone; the next step shows a country with its own national grid.
Where to find it: GIS & CAD files > DXF > Export now
Step 7 of 10
In countries with their own national grid the DXF dialog adds Coordinate system: UTM (the default) or that grid. Here, on a field in England, it offers UTM zone 30N (WGS84) and British National Grid - OSGB36 (EPSG:27700). Pick the one the drawing or the machine job you load it into uses; the file name and the file itself say which system was used, and the app remembers the choice for that country. Every country’s list ends with the same search by EPSG code or name for any other system.
Where to find it: Deliver tab > Send the design to the machine > GIS & CAD files > DXF > Export now
Step 8 of 10
Project Backup > Backup Project saves the whole project in one ZIP: the boundary, elevation, analysis layers, every run with its grade and size, and your settings. Restore Project opens a backup again on any computer. Keep one after every working session; it is also the file to send when you ask for help. A backup remembers its country: open a US project in the Canadian app (or the other way round) and the app asks "Region Switch Required": click Switch to USA (or Switch to Canada) and the app reloads in that country and opens the project, or Cancel Import to leave it.
Where to find it: Deliver > Project Backup
Step 9 of 10
Projects can also live in a folder on your computer instead of in backup ZIPs (if you skipped choosing a projects folder when you started, turn on Project Folder Storage on the Deliver tab and choose one). Open Projects… shows the Projects dialog: every project in the folder is listed, the open one marked, with when it was last saved. Click a project to open it, New project to start one, or Restore backup ZIP… to bring a backup in as a project, as was done here for these two fields. Each project is saved as ordinary files in its own folder and saves itself every 20 seconds while you work. Change folder… (it asks "Change projects folder") points the app at another folder; the projects in the old one stay where they are, not moved or deleted. Turning Project Folder Storage off ("Turn off folder storage?") saves and closes the open project, which stays in its folder, and the app goes back to backup ZIPs.
Where to find it: Deliver > Project Folder Storage > Open Projects…
Step 10 of 10
New project asks for a name and makes the project's own folder. From then on the boundary, elevation, layers, design and every export you save are kept together in that folder, so the project travels as one piece. Next: Reports and sharing with your client goes through the report and how to share the design.
Where to find it: Projects dialog > New project
Click the picture to see it full size.
Chapter 12 of 14 · about 15 min
Reports and sharing with your client
Make the PDF report the grower or contractor reads: who it is for, what goes in it, your logo, and an estimate at your own prices. Then share the design itself, which anyone can open in the Viewer.
Field used: Story County IA, 103 ac (pattern tile design: 2 mains, 1 sub-main, 164 laterals, 0 violations); Racine County WI surface plan for the surface report
Step 1 of 22
The PDF report is for the person you hand it to: the grower, the landowner or the contractor, who may never open Geo-Surface. Everything in it describes this field and this design. When the design is finished (runs graded, mains sized, no violations), open the Deliver tab, then Professional Reports, and click Generate Report. The example is the finished 103 acre Story County tile design; a surface design makes its report the same way.
Where to find it: Deliver tab > Professional Reports > Generate Report
Step 2 of 22
Generate Report opens the Generate Design Report dialog: one scrolling form with, from top to bottom, Project Information, Template & Summary Table (with Paper and Plan pages), Report Sections, Company Branding (Optional) and Cost Estimates (Optional) with the pipe prices and Other items, then Generate PDF Report at the foot. Only Project Information needs typing; everything else starts from sensible settings and remembers your last choices.
Where to find it: Deliver tab > Professional Reports > Generate Report
Step 3 of 22
Project Name, Location, Owner/Client and Prepared by (Company / Operator) print on the cover; the Project Name also goes on the Design plan page and into the file name. Write them the way the reader knows the field: here Story County north 103, in Story County, Iowa, prepared by your company.
Where to find it: Generate Design Report > Project Information
Step 4 of 22
Template sets what kind of report you get: Detailed (multi-page), One-Page Summary (landscape), Custom (choose sections). Detailed is the full report, with everything a crew asks for; One-Page Summary is a single landscape page for a quick look; Custom lets you choose and order the sections. Paper is what every page prints on: Letter (8.5 x 11 in) here, and A4 outside the US and Canada. Plan pages adds drawings on bigger paper, at a true scale: One large-format plan page is the whole plan on one sheet; Plan set: an index and plan sheets cuts the field into numbered sheets that meet at match lines, with laterals labelled with their length and mains with size, length and grade. Pick their paper under it: Tabloid (11 x 17 in) here, or A3, Arch D or A1 for a plotter. The rest of the report stays on the report paper.
Where to find it: Generate Design Report > Template & Summary Table
Step 5 of 22
Summary table sets the run table near the front of the report. Under Columns, tick what the reader needs. Per-line-type treatment chooses, for each kind of run, whether every run gets its own row (itemize) or one row gives the average: with 164 laterals, average keeps the laterals to one line while the mains are listed one by one.
Where to find it: Generate Design Report > Summary table
Step 6 of 22
Report Sections are the parts you can leave out: the map overview, material requirements, main line analysis, flow calculations, earthwork for surface drains, the line-by-line appendix and soil information. Untick what the reader does not need: a landowner may want the map and the cost without the appendix, while a contractor wants it all. A short liability notice is always the last page.
Where to find it: Generate Design Report > Report Sections
Step 7 of 22
With Template set to Custom (choose sections), a Sections list appears with each part of the report on its own row: tick the ones you want and drag a row up or down to change the order. The Design plan is a section of its own here, so it can be moved or left out. The rest of this chapter uses Detailed.
Where to find it: Template > Custom (choose sections) > Sections
Step 8 of 22
Under Company Branding (Optional), Upload Logo takes a PNG or JPG up to 2 MB, wide rather than tall (about 3:1); it prints at the top of the cover (the logo here is a placeholder). Include standard Geo-Surface disclaimer is ticked by default, and Custom Disclaimer adds your own notice in your own words. Untick the standard one to use only yours; a short line saying who prepared the report still prints. Logo and notice are remembered for your next reports.
Where to find it: Generate Design Report > Company Branding (Optional)
Step 9 of 22
Cost Estimates (Optional) lists every kind of pipe in the design under Tile Pricing (per pipe type): one row for each size, wall type and perforation, for example 4" SW non-perforated, 4" SW regular and 4" SW sock. Type your own Material ($/ft) and Installation ($/ft) for each; sock or narrow-slot pipe simply gets its own price on its own row. The prices in these pictures are made-up examples; use your supplier's and contractor's. Leave every price empty and the report prints no cost at all. Your prices are remembered for the next report.
Where to find it: Generate Design Report > Cost Estimates (Optional) > Tile Pricing
Step 10 of 22
Below the pipe prices: Connection Cost ($/lateral) is the price of each lateral's tee and hook-up (15 here); Misc/Fittings (%) adds a share of the materials total for couplers, caps and other fittings (left at 0 here); Excavation ($/yd³) prices the earth dug for surface drains and for any stretch of tile too deep for the plough, which is dug down first (4.50 here). Leave one at 0 and it is left out of the estimate.
Where to find it: Cost Estimates (Optional) > Connection Cost, Misc/Fittings, Excavation
Step 11 of 22
Other items is for costs that are not pipe, such as a road crossing or mobilization. Click + Add item and fill in a Description, the Qty and the Unit price ($); the Amount works itself out, and the x removes a line. Here a bore under the township road (1 x 3,200) and outlet riprap (2 x 450), made-up figures. Each line prints on its own row above the project total and is added to the estimate (Misc/Fittings is not applied to it). Other items are saved with the project, so each field keeps its own list.
Where to find it: Cost Estimates (Optional) > Other items > + Add item
Step 12 of 22
Click Generate PDF Report. A Save dialog opens straight away with the file already named, here "Story County north 103 - Drainage report - 2026-10-08 1015.pdf": choose the folder (with a projects folder on, it starts in the project's exports folder) and click Save. The report is built after that, and one message in the bottom corner says where it went: "Saved Story County north 103 - Drainage report - 2026-10-08 1015.pdf to the folder you chose". In a browser without that dialog the file goes to your Downloads folder, and the message says so.
Where to find it: Generate Design Report > Generate PDF Report
Step 13 of 22
Page one carries your logo, the project details you typed and a map of the whole design. Nothing in it points at app screens: it states only what was worked out for this field, so it reads on its own for whoever you hand it to.
Where to find it: Saved PDF, page 1
Step 14 of 22
The System Summary opens with the Estimated project cost broken down, each line with the page that itemises it: Materials, Installation and Other items (here the road bore and the riprap), then the Total (all from the made-up prices), then a note naming the figures you entered. Then come the field area and area drained (103.6 ac and 78.1 ac here), the runs by kind with their total length, and the length of each pipe size. A part of the design with no price would be marked with an asterisk and listed, so the figure never hides a gap.
Where to find it: Saved PDF, System Summary (page 4)
Step 15 of 22
The Material Requirements and Cost Estimates table lists the pipe by size, wall and perforation with its length and its material and installation cost. Under it come the extras, each showing how it was worked out: here the pipe and installation total, the lateral connections (164 laterals at the connection price), one row for each other item (the road bore and the riprap) and the Project total, the same figure as the summary. A Misc/Fittings share and earthwork get their own rows when the estimate has them.
Where to find it: Saved PDF, Material Requirements and Cost Estimates (page 7)
Step 16 of 22
The Design plan follows the cover: the whole field on one page over the aerial photo, every run in its pipe-size colour, with the elevation legend, the pipe sizes, a north arrow, a black-and-white scale bar and the scale in words (Scale 1" = 550 ft (1:6,600) on Letter paper, printed at 100 %). Print it at 100 % (actual size, not "fit to page") and the scale bar measures true. With One large-format plan page chosen, the next page draws the same plan on the bigger paper. With Plan set chosen, an index sheet and numbered plan sheets follow instead, each at one true scale with a title block, match lines to the sheets beside it and laterals labelled with their length (and their pipe size where it differs from the rest), and mains with size, length and grade: the pages to print for the crew.
Where to find it: Saved PDF, Design plan (page 2)
Step 18 of 22
A surface design makes its report from the same dialog. Instead of pipe sizes and flows, it prints the earthwork: the volume dug for each surface drain in cubic yards, worked from its depth, bottom width and side slope, and priced at your Excavation ($/yd³) when you give one (4.50 here, a made-up figure). Here the five surface drains of the Racine County plan come to 3,981 yd³ in all.
Where to find it: Saved PDF, Earthwork (page 6)
Step 19 of 22
The person you sent the backup to opens the Geo-Surface Viewer and clicks Restore Design Project at the top of the Project tab, then picks the ZIP. The design opens exactly as you saved it, on the same map.
Where to find it: Geo-Surface Viewer > Project tab > Restore Design Project
Step 20 of 22
In the Viewer your client sees the whole design (all 167 runs here) over the same elevation and analysis layers you built. They can pick any run and read its profile with depth, grade and pipe size, turn layers and contours on and off, open the 3D view and measure. On a tablet in the cab, the GPS button shows where they are on the design, which helps a crew installing from reference lines.
Where to find it: Geo-Surface Viewer > Design tab
Step 21 of 22
The Viewer keeps the Measure & annotate tools, so a client can mark what they want to talk about. Here the grower hatched the low ground in the south of the field and labelled it "Stays wet after rain", ready for a phone call. Markup in the Viewer is for looking and talking: the Viewer cannot save a changed backup, so ask for a screenshot, or add the note to your own copy.
Where to find it: Geo-Surface Viewer > map toolbar > Measure & annotate > Shapes
Step 22 of 22
Anything that changes the design is marked Pro and locked: drawing or editing runs, Best Fit, Auto Size, the layout tools, settings, exports, reports and backups. Clicking one says what it is, for example "A Geo-Surface Pro feature" with "Drawing and editing drain routes is part of Geo-Surface Pro." So the backup you send is safe to share: they can look, measure and mark up, and your design stays yours.
Where to find it: Geo-Surface Viewer > any locked (Pro) control
Click the picture to see it full size.
Chapter 13 of 14 · about 14 min
Send it to the machine
Pick your display or machine format, read which files suit your design, export them and check them on the display before any dirt moves.
Field used: Story County IA, 103 ac pattern tile design; Racine County WI, 193 ac surface plan; Cass County ND, 70 ac land forming design
Step 1 of 21
Every file for a machine display starts on the Deliver tab, in the first section: Send the design to the machine. Click its header to open it. The yellow note says machine delivery is in Beta: check every machine file on the display before you install from it. This chapter uses a finished 103 acre pattern tile design; a surface plan works the same way, and land forming has its own export at the end of the chapter.
Where to find it: Deliver tab > Send the design to the machine
Step 2 of 21
Open the Equipment brand list and pick the display or machine control that will install the job. If yours is not listed, pick GIS & CAD files for plain Shapefile, KML and DXF files that most displays and programs can read. The card then shows only the files your pick can load, each marked with what it is for, so you never have to guess a file format.
Where to find it: Send the design to the machine > Equipment brand
Step 3 of 21
Under the list, one line says what the design is built on, because that decides which files the app recommends for installing. Here it reads "Built on government LiDAR — no RTK survey applied": the ground came from public LiDAR (laser elevation flown from the air), not from an RTK survey (heights you measured in the field with a GPS receiver, typically accurate to an inch or two when set up well). It reads "Built on uploaded elevation data" for a GeoTIFF you uploaded, and "Built on the applied RTK survey" once you replace the LiDAR with your own survey on the Project tab.
Where to find it: Send the design to the machine > the line under Equipment brand
Step 4 of 21
Each file is marked one of two ways. REFERENCE ONLY files show the plan on the display so the operator can find each run; the machine surveys the ground itself and installs to its own grade. INSTALLABLE files carry design heights that the machine installs to, so those heights must match what its GPS measures. The coloured pill is the app's advice for this design: on government LiDAR the map image is Recommended, the KML routes are Available, and the installable design lines are Not recommended here. Apply an RTK survey first and the installable files become Recommended. Even then, use an installable file only after each run or area is driven or surveyed with RTK and its final grades are reviewed and approved on the display; every other file is reference only.
Where to find it: Send the design to the machine > the file list
Step 5 of 21
Click Export now on Georeferenced map image (JPG + JGW). It is a picture of the design plus a world file: a small text file that tells the display exactly where the picture sits on the ground. First it asks Name this map; type a name the operator will recognise on the screen and confirm. Both files come in one ZIP. Copy the ZIP to the display as it is and pick it when you add the picture; there is no need to unzip it. Older display software needs the ZIP extracted first, with the picture and its world file copied together, or the picture will not line up.
Where to find it: Georeferenced map image > Export now
Step 6 of 21
An installable file on a design built without an RTK survey is still there, but its Export now stays greyed out until you tick the box under it. The box says in plain words what you accept: these design lines carry heights (XYZP: position plus height for every point), and you will calibrate the machine's GPS height to the same reference the design uses before installing from them. Before you install, drive or survey each run with RTK and review and approve its final grade on the display. Leave it unticked if you are not sure; the reference files above need no tick. When a run in an installable file is shallower or deeper than its own depth limits, the export first lists those runs with their worst depth and asks: Export anyway, or Cancel to write nothing and change the design first.
Where to find it: XYZP design lines > the tick box > Export now
Step 7 of 21
Some displays steer from shapefile lines. Pick yours and the list leads with Guidance shapefiles, Recommended and REFERENCE ONLY: every run as a line in one Shapefile ZIP, with no heights, depths or grades in it. The display builds its own grade from a survey pass over each run. A map image (BMP picture with its world file) is offered as well, for a background picture of the whole design.
Where to find it: Send the design to the machine > your display > Guidance shapefiles
Step 8 of 21
Files marked Prepare export open their own view before anything is written. Type the Field name the display will list, read the numbered steps for loading it (here: unzip, copy the field folder to the USB stick, select the shapefile on the display), tick the box that says what the file is and is not, then click the export button at the bottom. "← All … options" takes you back to the list.
Where to find it: Guidance shapefiles > Prepare export
Step 9 of 21
Some displays only accept simple run names, so their reference setup writes the runs as L1, L2 and so on. The export view says so and lists every run beside its new name (T1 becomes L1, T1-L1 becomes L2), so the operator can tell them apart on the screen. Your own names on the map and in the report stay unchanged. Keep this list, or the report, with the job.
Where to find it: Send the design to the machine > your display > Field reference setup > Prepare export
Step 10 of 21
Where a display designs each run itself, the recommended file is the runs as reference lines plus a Run settings PDF: one page that lists every run's minimum and target depth, minimum grade and outlet depth, and which run it joins at what station. The operator enters those settings on the display after surveying each run. Click Run settings PDF to save it on its own, or Prepare export for the lines.
Where to find it: Send the design to the machine > your display > Run settings PDF
Step 11 of 21
Installable machine files take each main as one run with one pipe size, so a main that Auto Size stepped down goes in at its outlet size, the size at the bottom end. The export screen says so before you export and lists every stepped main: here T1 at 10 in, T1-SM2 and T2 at 8 in, T3 and T4 at 6 in. The stepped sizes stay in the report and the plain shapefile; use those, checked against your final design, when you order pipe. When a file cannot hold something in your design at all, its card says so in red before you try, names the runs and writes nothing.
Where to find it: Deliver tab > Send the design to the machine > your display > an INSTALLABLE file > Prepare export
Step 12 of 21
GIS & CAD files at the bottom of the list gives plain files that are not tied to one display: a Shapefile ZIP (many displays and every GIS program read it), KML and KMZ for online map viewers, and DXF for CAD. They are all REFERENCE ONLY and Available on any design basis. The Deliver chapter shows the question each one asks before it saves.
Where to find it: Send the design to the machine > GIS & CAD files
Step 13 of 21
Copy the files to the display's USB stick and load them as its manual says. Calibrate the machine's GPS height to the same reference the design uses (a benchmark or a known point) before installing from any file with heights. Then check before you dig: drive to the outlet and one far corner and see that the lines sit where they should. Reference files carry no depths or pipe sizes, so, as this note suggests, save a project backup and open it in the Geo-Surface Viewer on a tablet in the cab to check each run's depth, grade and size as you go.
Where to find it: Send the design to the machine > the note under the file list
Step 14 of 21
A surface plan goes out the same way. Pick the display on your ditcher and the same kinds of file appear: a georeferenced map image to show the plan behind you (Recommended on LiDAR), KML routes, and installable design lines with heights. Most ditching jobs use the map image: survey the ditch line with the machine's own GPS and cut to its grade. The next step shows a display format that takes the surface drains themselves.
Where to find it: Deliver tab > Send the design to the machine
Step 15 of 21
Some display formats carry the surface drains themselves. Each format offers two kinds of file, and the app marks which it recommends for your design. Here, on a surface plan built on government LiDAR: Field reference setup, REFERENCE ONLY and Recommended, puts the runs on the display as reference lines and the surface drains as one drained area; the installation package, INSTALLABLE, is an XML file with the survey points, benchmarks and guidance the display needs to install each run on grade, Not recommended here until the design is on an RTK survey, and it asks you to confirm before it exports.
Where to find it: Deliver tab > Send the design to the machine > your display or machine format
Step 16 of 21
A land forming design goes to the machine from its own panel, not the Deliver tab. When the design is solved, the panel reads Design surface ready; click Export design… under it. If you change the boundary afterwards, solve again before you export: the file must match the design on the map.
Where to find it: Design tab > Landforming Design > Design surface ready > Export design…
Step 17 of 21
The dialog lists every file the design can be written as. The AGD design file is recommended for most land-forming machine controls: the whole design surface with your boundary and a calibration benchmark, heights in metres. Point grid (CSV) is a list of points with position, existing height, design height and cut/fill in your project units; it opens in Excel. Point grid (TXT) is the same in plain text, in metres. The AGS and .gps rows are files for particular displays: pick one only when your display asks for it.
Where to find it: Export design… > the file list
Step 18 of 21
The .gps design (Beta) asks for Display units: Feet or Metres. Choose what the display in the cab is set to; a feet file read as metres puts every height off by a factor of about 3.28. The dialog sets the grid spacing for this file itself. It is marked Beta: open the file in a design viewer and check it against your design before field use.
Where to find it: Export design… > .gps design > Display units
Step 19 of 21
With topsoil strip & return on, the dialog adds Construction stage. Export one file for each pass and run them in order: 1. Strip peels the topsoil off every work area, 2. Subsoil grade cuts and fills the ground underneath to the design shape, set below the final surface by the topsoil depth, and 3. Final / respread spreads the topsoil back to the finished design. Name each file after its stage so the operator loads the right one.
Where to find it: Export design… > Construction stage
Step 20 of 21
Point spacing is how far apart the design heights are in the file. The app picks the closest spacing the chosen file can hold; for this 70 acre field and the AGD file that is 5 m / 16 ft, ~11,393 points, under the 30,000 points the line below recommends. Closer points follow the design more exactly but make a bigger file than some displays will open. Click Export… and choose where to save.
Where to find it: Export design… > Point spacing > Export…
Step 21 of 21
Copy the file to the machine control and load it as its manual says. Before the first cut, set the machine up on the master benchmark (0MB on the map, the first one you placed; the others are BM1, BM2 and so on) at the same height the design uses, then check a second point, such as BM1, against the design height before you move dirt. If the two disagree, stop and find out why: the whole field is built from that reference.
Where to find it: Map > the benchmark markers (0MB, BM1)
Click the picture to see it full size.
Chapter 14 of 14 · about 5 min
Annotations and reference overlays
Mark up the map with labelled areas, text, arrows and measurements, and lay other maps and pictures over your design.
Field used: Story County IA, 103 ac (pattern tile design: 2 mains, 1 sub-main, 164 laterals, stepped 12" to 4", 0 violations)
Step 1 of 7
Measure & annotate (the ruler button on the map toolbar, bottom left of the map) holds the tools that draw on top of the design: Measure (distance, area, angle), Text (label, text box, callout), Shapes, Lines (measure, arrow, dimension, polyline), Map elements (legend, north arrow, scale bar) and a revision cloud. Annotations are saved with the project, appear on the report's maps, and never change the drainage design.
Where to find it: Map toolbar > Measure & annotate
Step 2 of 7
Open Measure & annotate, choose Shapes > Polygon (hatched), click round the area and double-click to finish. The Edit Annotation panel opens with the Label box ready: type a name, and tick Show acres to print the area under it. Here the low, wet ground in the south of the field is marked "Wet spot, 8.2 ac", so the grower can see on the printed map why that ground is being worked. Use it for wet spots, waterways, building sites or ground you will leave alone. Click Done.
Where to find it: Measure & annotate > Shapes > Polygon (hatched); Edit Annotation > Label, Show acres
Step 3 of 7
Choose Text > Label and click where it goes; it lands reading "Label". Choose Edit Annotations, click the label and type your own text in the panel, then Done. Then choose Lines > Arrow, click where it starts and double-click where it points. Here they mark the outlet of the east main, where it leaves the field for the county tile, so whoever does the work finds it on the printed map.
Where to find it: Measure & annotate > Text > Label; Lines > Arrow
Step 4 of 7
Choose Measure Distance, click points along the way and double-click the last; the length shows on the map. Here it runs along the field edge from the outlet of the west main, round the south-west corner, to the outlet of the east main: 2,111 feet, the length of pipe a header along the edge would need to join both outlets into one. Measure Area works the same way round a shape, and Measure Angle gives the angle between two lines. Press Esc to clear a measurement.
Where to find it: Measure & annotate > Measure Distance / Measure Area / Measure Angle
Step 5 of 7
Reference overlays (on the map toolbar) lay other maps over your design: an old tile map, a yield or drone picture, KML or KMZ lines and shapes, a zipped shapefile or a DXF. A picture that comes with a world file (a small text file that says where the picture sits on the map: BMP + BPW, JPG + JGW, PNG + PGW) is placed for you when you pick both files together, or a ZIP of them; a plain picture is placed by its four corners. A KMZ that carries a map picture, such as the map KMZ the app exports from Quick Exports, loads that picture back in place as well. Up to 15 reference images per project.
Where to find it: Map toolbar > Reference overlays
Step 6 of 7
When a world file does not say which coordinate system its numbers are in, the app asks: UTM (with the zone), the field’s own State Plane zone (Iowa North here, in US survey feet or metres), Latitude / longitude (WGS84) or Web Mercator, or search by EPSG code or name for any other system (State Plane, MTM). This picture is the app's own georeferenced map image export, which is in latitude / longitude, so that is chosen; pictures saved by machine displays are often UTM in metres. Click Place image.
Where to find it: Reference overlays > a picture with its world file
Step 7 of 7
Each overlay gets its own row under Reference Layers in Map Layers, with a switch and a delete button; a picture also gets an opacity slider. Overlays are saved with the project and its backups. They sit under the elevation colours, so switch HD Elevation off to see them clearly. Here the design's own lines are off too: what you see is the map picture (Ref Image 1) and a KMZ of this design’s runs (Ref Layer 2), both landing exactly on their runs.
Where to find it: Map Layers > Reference Layers
Click the picture to see it full size.
Reference, in every workflow · about 39 min
Every tool, by where it lives
Every tool in the app, grouped by where you find it: the top bar, the Project tab, the tool rail and the Design tab, the right-click menu, the map, the Deliver tab and land forming. Each card says what the tool does, exactly where it is, how to use it and what a good result looks like.
Field used: Story County IA, 103 ac pattern tile design (2 mains, 1 sub-main, 164 laterals, stepped 12" to 4"); surface ditch design, Racine County WI; land forming, Cass County ND
78 tools
Finds any tool, setting or export by what it does, in your own words. Click Find any tool or setting… at the top of the screen (or press Ctrl+K anywhere), and type: here "parallel" finds Copy offset, the rail tool that lays parallel copies of a lateral, even though its name does not contain the word. Use the arrow keys and Enter, or click a result: the app opens the right tab and lights up the control. Tip: the chips along the top of the list narrow it to Project, Design, Landforming, Map or Deliver.
Where to find it: Top bar > Find any tool or setting… (or press Ctrl+K)
Switches the whole sidebar between the two kinds of work. Click Workspace at the top of the screen and pick Drainage Design (surface and tile drainage) or Landforming (Beta). Only the panels that kind of work needs are shown; nothing in the project is lost when you switch, and the app opens on the one you used last. Tip: the tools of the other workspace are still found with Ctrl+K.
Where to find it: Top bar > Workspace
Sets the units the whole app shows and asks for. Click the small units button near the right of the top bar: each click moves to the next system (decimal feet, then metric, then depths in inches), and every panel, map label, profile chart and report follows. Your design is kept the same; only the way numbers are shown changes. Tip: the button shows the system you are on now (here "0.1 ft"; it reads "m" for metric and "in" for depths in inches).
Where to find it: Top bar > units button (reads "0.1 ft")
Opens the support assistant beside the map. Pick a starting point (Explain a tool or result, Guide me through a task, Something isn't working, Suggest an improvement) or type your own question; tick Enable AI support for this browser session first. With Include sanitized project context ticked it can answer about the project you have open, and Preview exactly what would be shared shows what it sends. Tip: the (i) beside a setting and the manual button in the top bar explain one control at a time.
Where to find it: Top bar > Help & feedback
Sets the field the whole design works in. On the Project tab open Define Your Field and either click Draw field boundary and click round the field (double-click to close it), or upload a boundary you already have (a zipped shapefile with its .prj, in any coordinate system its .prj names, or a KML / KMZ file). The finished boundary is the orange outline; the layout tools keep laterals inside it by the Boundary Setback in Drainage settings (10 ft unless you change it). Tip: one field per project keeps the reports and machine files clean. Search locations and the land grid in Map Layers follow your country: PLSS Overlay in the US, Land Parcels (quarter sections or Ontario lots) in Canada.
Where to find it: Project tab > Define Your Field
Changes a boundary you already have without drawing it again. Open Edit Boundary on the Project tab and pick a tool: Extend (add ground to the field), Clip (cut a piece off), Hole (leave out a farmstead or a wooded area) or Vertex Edit (drag the corners; here it is on and the outline turns blue). The Field Area box updates as you edit (here 103.6 ac). Click Apply when it looks right, or Cancel. Tip: Export Boundary Shapefile saves the boundary for other programs.
Where to find it: Project tab > Edit Boundary
Downloads the ground elevation for the field: the surface every profile, grade and analysis layer is read from. On the Project tab open Get Elevation Data, click Download elevation for this field and choose the resolution in the window that opens. Where 1 m LiDAR has been published you get it; where it has not, you get the coarser national elevation model instead, and the Active DEM line under Create Analysis Layers says which one you have (here "1 m LiDAR · IA NorthCentral 2020"). The colours on the map show high ground (yellow) and low ground (blue). Tip: an RTK survey or your own GeoTIFF can replace the download from the same card. In the US the ground comes from USGS 3DEP; in Canada from NRCan’s HRDEM, and where Canada has no LiDAR the app says so instead of loading coarser ground.
Where to find it: Project tab > Get Elevation Data > Download elevation for this field
Builds the analysis layers from the elevation: flow lines, depressions, wetness index, drainage basins and the ponding layers. Click Create Drainage Layers once the elevation is in; it runs in your browser in a minute or two. The flow lines (black) then show where water runs, the paths your mains should follow. Tip: switch each layer on and off in Map Layers; they come back with the project backup.
Where to find it: Project tab > Create Analysis Layers > Create Drainage Layers
Holds every drawing and editing tool, in four groups: Create (Draw, Copy offset, Mirror, Aligned), Batch (Herringbone, Respace, Update, Reconnect), Edit geometry (Move, Vertices, Split, Trim, Extend) and Delete. Hover a button for its name and what it does; the tool that is on is lit. Tip: drag the dotted grip to move the rail, double-click the grip to put it back, or click the pin to lay it along the top of the map.
Where to find it: Design tab > tool rail (left edge of the map)
Draws a new run: a main, sub-main, lateral or surface inlet (or a surface main or tributary). Click Draw and pick the kind from the small menu beside it, or press its letter (M, S, L, I). Click the outlet first, click along the route, and double-click or press Enter to finish; the profile and its Best-Fit grade follow straight away. Tip: Enter, or pressing Draw again, draws the same kind again, so a row of laterals is Draw, Enter, draw.
Where to find it: Tool rail > Draw
Lays one lateral by hand. Choose Draw > Lateral (or press L), click on the main where the lateral joins it, then click out to where it should end and double-click. Here the first click is on T2 and the live segment runs west on a set bearing of 270°; the banner along the top says what to click next. A good lateral starts on its main (within 30 ft is enough, it snaps on) and ends short of the field edge. Tip: Esc stops without drawing anything.
Where to find it: Tool rail > Draw > Lateral (L)
Holds a run you draw to one compass bearing, so hand-drawn runs come out parallel. The card appears at the top of the sidebar while Draw or Extend is on. Type a bearing (0 is north, 90 east, 270 west), or click Pick and click two points on the map along a run or a fence line to copy its direction. Here Pick is on: the first click is at the T2 end of T2-L10 and the dashed line follows the cursor along it to the far end; the second click there sets 270°. Leave the box empty to draw freehand; the × clears it. Tip: the bearing stays set for the rest of the session until you clear it.
Where to find it: Tool rail > Draw (or Extend) > Drawing Angle card in the sidebar
Marks where the laterals should end, so copies stop on it at their own lengths instead of all copying the seed: draw it along the field edge, a headland, or the edge of ground another bank already drains. Select the seed lateral (here T2-L10), click Copy offset, then Draw break line, click along where the laterals should stop and double-click to finish. Here it follows the line where the T1 bank's laterals end. Tip: Pick a divide uses a drainage-basin divide as the break line instead.
Where to find it: Tool rail > Copy offset > Draw break line (also in Mirror and Herringbone)
Lays parallel copies of one run at a set spacing: a lateral, a sub-main or a tributary, or a main, whose copies become new mains with their own outlets. Select the run and click Copy offset on the tool rail (the Ctrl+K finder lists it by the same name; on a wide rail its small caption reads Offsets): the Copy offset panel opens. Set Distance (here 50 ft) and Direction (Towards Outlet), and under How many choose To break line: the line then decides how many copies are made, as many as reach it anywhere in the field. The dashed green lines are the preview, every copy ending on the break line at its own length; the panel reads "Copy offset on T2: 9 copies to lay". Tip: a faint dotted end shows ground given up where another run already drains it, and the panel names those runs.
Where to find it: Tool rail > Copy offset (or right-click a lateral > Copy offset…)
Click Create Offset Copies and the bank is laid exactly as the preview showed: 9 laterals named on from the seed (T2-L113 to T2-L121), each connected to T2 and graded in one pass, their lengths following the break line (803 to 917 ft). The break line clears itself. A copy never crosses another bank or ground another lateral already drains: it is shortened, or left out, and the preview said so before you clicked. Out of date 2 in the sidebar is expected: the mains were sized for the old bank, so run Auto Size Mains again when the layout is done. Tip: one Ctrl+Z takes the whole batch back.
Where to find it: Copy offset > Create Offset Copies
Puts a twin of each lateral on the other side of its main, from the same station. Select a lateral and click Mirror; choose what to mirror (here Selected laterals: Select on map, then an area round 8 laterals on T1), how it crosses (Straight through keeps the same bearing across the main) and the Length: To a break line, drawn where the twins should stop. The dashed green preview shows 8 twins, each ending on the line or where ground is already drained; click Mirror 8. Scrolling with the mouse wheel over the panel scrolls it and never changes the angle box: only typing or the arrow keys change the angle. Tip: then Copy offset both banks at the same spacing and every pair of tees faces each other.
Where to find it: Tool rail > Mirror (or right-click a lateral > Mirror across parent…)
Starts a lateral on a second main exactly on the line of a lateral on the first, so rows line up across the field. Click Aligned lateral, click the lateral to line up with (here T2-L1), then hover the other main: a dot and a dashed line show where that line crosses it (here T1, where its laterals have been cleared). Click the main, then click once out along the dashed line and double-click. Tip: Copy offset the new run at the same spacing as the first bank and the two banks stay in line to the last lateral.
Where to find it: Tool rail > Aligned lateral
Lays both banks of laterals off a main in one go, no seed lateral needed. Select the main (here T1, with a stretch of its laterals cleared) and click Herringbone; set the Spacing on centre (here 50 ft), the Angle to the main (86°, matching the laterals already on T1), the Start station (930 ft from the outlet) and How far up the main (here Stop at a line I draw, a short line across T1). Each bank runs To the field boundary. The dashed green lines are the preview, and the status box at the foot of the panel says what Apply will lay: "Herringbone on T1: 16 laterals to lay · 50 ft on centre · 86° / 94° · no crossings". Where a bank meets ground another run already drains it stops short (the faint dotted ends). Tip: Apply stays off unless the crossing count is 0.
Where to find it: Tool rail > Herringbone (or right-click a main > Herringbone…)
Lays an existing bank out again at a new spacing. Click Respace, click the corners of an area round the bank (here 6 laterals on T2, now 50 ft apart) and double-click, then type the new spacing: here 40 ft. The laterals picked are lit in orange; when you stop typing, the panel tries every new position and says what Apply will do: "7 laterals at 40 ft: keep 2, add 5, remove 4." (keep means a lateral stays where it is). Tip: the bank never grows past the stretch you picked, and Update laterals changes depths or pipe for the same group.
Where to find it: Tool rail > Respace laterals
Changes the settings of a whole group of laterals at once. Click Update laterals, then Select a group on the map and click round the laterals (here 6 on T2), or choose the main's own choice (here All laterals on T2). Fill in only the boxes you want changed: here Min depth 3.0 ft. A grey hint shows what the group has now; boxes left blank keep each lateral's own value. Click Apply and Best Fit re-solves each one. Tip: one Ctrl+Z puts every run back.
Where to find it: Tool rail > Update laterals
Hands a group of laterals to a different main or sub-main without redrawing them. Here a new sub-main, T2-SM1, has just been drawn off T2 across the long T2 laterals (the red crosses mark where it crosses runs it is not yet joined to). Click Reconnect laterals, click the corners of an area round the laterals and double-click, then click the run they should join. The panel reads "9 laterals on T2 move to T2-SM1. 9 laterals are cut at T2-SM1 (removing 5031 ft of tile)." Each lateral keeps its far (inlet) end and is cut where it crosses the new parent; the piece back to the old parent is removed. Click Reconnect, then size the new sub-main with Auto Size Mains. Tip: one Ctrl+Z puts it all back.
Where to find it: Tool rail > Reconnect laterals
Moves a run that is the right shape in the wrong place. Click Move, press on the run and drag it, then let go. Here the sub-main T1-SM1 (selected, so drawn white) is being dragged 20 ft sideways; until you let go its laterals still end where it was. When you let go, they follow: each keeps its far end where it is and is re-cut to meet the sub-main in its new place (here 8 laterals, 157 ft of tile shorter in all). A main or sub-main is not moved more than 50 ft (or further than its shortest lateral is long), or when the move would cut off too many of its laterals, and the notice says which limit it hit. Tip: to reshape a bent run rather than shift it, use Vertices.
Where to find it: Tool rail > Move (or right-click a run > Move…)
Shows the points (vertices) of the selected run as handles so you can reshape it. Select the run (here the main T1) and click Vertices; a handle (blue dot) shows on the point under the pointer. Here a bend of T1 is being dragged west and the line follows. Drag a handle to move that point, click the line between two handles to add one, Alt-click a handle to delete it. When you finish, the laterals on it are re-cut to meet the new route and the grade is solved again; any run the edit would cut off is named first. Tip: a few points along a curve is enough; the profile is read along the whole line.
Where to find it: Tool rail > Vertices (or right-click a run > Edit vertices)
Cuts a run in two where you click, for example to change the pipe at a station. Click Split, move along the run (an orange dot shows exactly where it will cut) and click. Split a main and the upstream piece becomes a sub-main on it; split a lateral and its outlet piece becomes a sub-main carrying the rest. Laterals stay on the piece they join and the names follow. Here the dot sits on T2 between two laterals. Tip: right-click > Split here cuts at exactly the point you right-clicked.
Where to find it: Tool rail > Split (or right-click a run > Split here)
Squares off the far ends of laterals along a line, for example back from a waterway or a field edge. Click Trim (nothing needs to be selected), click where the line starts, then double-click where it ends. Here the line runs north-south across the west ends of the T2 laterals, just inside the shortest of them. Tip: trim a main and the laterals beyond the cut are named before anything is deleted.
Where to find it: Tool rail > Trim
After the double-click every lateral the line crossed ends on it (here 8 laterals, 1,051 ft of tile taken off in all), so the row is squared off in a straight line, and each one is graded again over its new length. Less tile now drains into T1 and T2, so Out of date shows 2: run Auto Size Mains again when the layout is done. One Ctrl+Z puts the old ends back.
Where to find it: Tool rail > Trim, then double-click
Lengthens the selected run by drawing more of it. Select the run (here T2-L9), click Extend, check Extend from (Inlet end, its far end) in the Drawing Angle card, and click new points out from that end; the blue extension follows the cursor, and Enter or a double-click finishes (a main can also be extended from its outlet end). The grade is solved again over the full length and the run keeps its name. Tip: the Drawing Angle card holds the extension to a bearing, here the lateral's own 270°.
Where to find it: Tool rail > Extend (or right-click a run > Extend…)
Deletes the selected run after a confirmation that names it and anything connected to it (a main takes its laterals with it). Select the run (here T2-L10), click Erase selected drain (the eraser on the tool rail), read the question ("Are you sure you want to delete T2-L10?") and click Delete. Tip: Undo brings it all back, names and grades included.
Where to find it: Tool rail > Erase selected drain (or right-click a run > Delete…)
Deletes several runs at once. Click Erase by area, choose What to erase (Laterals only, the default, keeps every main and sub-main), click the corners of an area and double-click. The runs to go light up and the panel lists them by main before anything is deleted: here "3 runs will be erased.". Click Erase 3 runs (the button counts them) to delete them, or Cancel. Tip: one Ctrl+Z brings them all back.
Where to find it: Tool rail > Erase by area
Clears every run in the design to start again, after a confirmation: "This deletes every run in the design, with its grade and sizes." Click Delete All to go ahead. Undo still brings the design back during the session, but save a project backup first if you might want it later.
Where to find it: Tool rail > Erase all (the red bin at the bottom)
Goes straight to any run by name. Type the name in Find a run (here T2-L10) and press Enter: the run is selected, lit on the map, its settings fill the panel and its profile opens under the map. The arrows beside the box step to the previous or next run on the same main, and the browse button beside it lists every run by main. Tip: the names follow the hierarchy, so T2-L10 is the tenth lateral on main T2.
Where to find it: Design tab > Active Design > Find a run
Lists only the runs with a problem, so none is missed: a depth, grade or connection violation, or a pipe too small for the drainage coefficient. Click Violations (the count beside it says how many runs) and use the arrows beside the warning sign to go from one to the next; each opens with its profile. To show it here, T2-L10's minimum depth was raised to 5.5 ft on purpose: tied into T2 it cannot be that deep, so 55 points along it are too shallow. The map marks a too-shallow stretch with S (a too-deep one with D, any other kind of violation with a red ✕) and the profile with red crosses. Tip: Out of date, beside it, counts the mains whose pipe size no longer matches what drains into them.
Where to find it: Design tab > Active Design > Violations
Works out the grade line for the selected run for you: as close to the target depth as it can, between your minimum and maximum depth, never flatter than the minimum grade, and tied into its main. It runs by itself when a run is drawn; click Best-Fit again after you change the run's settings. On the profile the red line is the grade, the green and pink lines the minimum and maximum depth, the blue line the ground. Here T2-L10 reads "897.3 ft · avg 0.22% · depth 2.9–5.0 ft, no violations". Tip: the outlet transition (the shaded band at the start) lets the first stretch climb steeply out of the main.
Where to find it: Design tab > Grade design > Best-Fit (or right-click a run > Best Fit)
Lets you choose where the grade breaks while the app keeps the rest of it in hand. Select the run, click Guided (on a run that already has a grade it first asks to Replace with Guided; Undo puts the old one back), then click the profile chart at the stations where the grade should change: each click is an anchor (red circle), the line is drawn through them and runs on to the outlet at no less than the minimum grade, and a click near the end snaps to the inlet. Here three anchors give "897.3 ft · avg 0.11% · depth 3.0–5.1 ft, 7 violations": the D on the map and the run's status show where the line comes out deeper than the 5 ft maximum, under the rise in the ground, which is the cue to move an anchor or go back to Best-Fit. Click Finish Drawing to run the checks. Tip: Alt-click an anchor to remove it.
Where to find it: Design tab > Grade design > Guided
Draws the grade line exactly where you click on the profile chart, with no snapping and no minimum grade, for the cases where you need full control (matching an existing tile, a fixed crossing). Select the run, click Freeform, then click points along the chart; drag a point to move it, Alt-click to remove it. Here four points give "897.3 ft · avg 0.16% · depth 2.6–4.9 ft, no violations". The checks still run when you click Finish Drawing, and the violation letters show anywhere your line breaks a rule. Tip: it asks before replacing a Best-Fit grade, and Undo puts that back.
Where to find it: Design tab > Grade design > Freeform
Saves the selected run on its own, with its design elevations, for a machine display or another program. Select the run (here T2-L10), click Export beside Clear, tick the file types in Select Export Format(s) (design points with their grade elevations as XYZP, raw ground points as XYZ, or a CSV with headers) and click Export. Clear, next to it, removes the run's grade line so you can lay it again. Tip: to send the whole design, use the Deliver tab instead.
Where to find it: Design tab > Grade design > Export
Turns the selected run into another kind. Select the run, open the Type list, which offers only the kinds that make sense for it (for the lateral T2-L10 here: Lateral or Sub-Main), pick the new kind and click Change type. Its laterals and grade are kept where they still make sense, and the names follow (a lateral made a sub-main gets an SM name). Tip: use it when a lateral has grown long enough to carry laterals of its own.
Where to find it: Design tab > Active Design > Type, Change type
Sizes every main and sub-main from the area and the laterals that drain into it, at the Project drainage coefficient (how many inches of water the system removes in a day; here 0.375 in, one value for the whole project). Tick Enable stepped main sizing and it steps the pipe down along a main as the flow drops. Click Auto Size Mains, check the coefficient and the options, then Start Sizing: it shows each main for review before it applies. When some runs are out of date it offers Size only the runs that need it, the default, so the rest keep their pipes. Tip: right-click a main > Auto Size this run, or Re-size this run on its profile, sizes just that one.
Where to find it: Design tab > Tile Sizing > Auto Size Mains
Sizes one main or sub-main without opening the full Auto Size pass. Right-click the run on the map and choose Auto Size this run: the usual review opens for that run only, at the Project drainage coefficient, and every other run keeps its pipe. Here on T3 · Tile main · 805.3 ft. Tip: one Undo takes back the whole pass.
Where to find it: Map > right-click a main or sub-main > Auto Size this run
Holds the design defaults every new run starts from: depths for laterals, sub-mains and mains, grades, lateral spacing, pipe sizes (including your own), outlet transition, connection offset, boundary setback, overburden, surface ditch shape, the flow-estimate rates and the currency for prices. Click the sliders button beside Active Design. The soil box at the top compares your settings with the suggested ranges for the field's own soils, weighted by area, and Use these takes them; an orange line means a setting sits outside every soil's range, worth a second look (here the lateral target depth, 2.5 ft, is below all four soils' suggested 3.2 to 3.7 ft). Save defaults keeps them for new runs; Apply to existing updates the runs already drawn. Tip: a single run's own settings stay in the panel when you select it.
Where to find it: Design tab > Active Design > settings button (sliders)
Cuts your surface ditches into the elevation at their designed grade and keeps the result as a new elevation source. With a surface design laid and best-fitted (here 5 surface runs, 7,355 ft), open Surface with drains carved in on the Surface page of the Design tab and click Burn drains into surface (the line under it says how many surface drains are ready). Use it as the ground for a tile design, so tile drains to the ditches, or to check the drainage with the ditches in; land forming always starts from the original ground. Tip: the Designing against line at the top of Active Design says which surface the design is using.
Where to find it: Design tab > Surface > Surface with drains carved in
Shows the selected run from the side: the ground (blue), the grade line (red), the minimum and maximum depth lines, the junctions of its laterals and, on a stepped main, where each pipe size starts. Select any run and it opens under the map, its distance axis ending at the run's last station. The row along its top shows Design active, Edit pipe sizes on any tile run and, on a main or sub-main, Re-size this run; click Profile Chart at the right of that row to fold it away, and drag its top edge to make it taller. On a long run the connection dots and violation crosses are drawn smaller so the profile still shows, and stations whose ground height came from coarse elevation show as amber dots on the ground line. Here it shows the main T2 from its outlet. Tip: hover the chart for the ground, grade and depth at any station.
Where to find it: Below the map > Profile Chart
Changes where a run steps down and each stretch's pipe, right on the profile, for any tile run. Click Edit pipe sizes at the top right of the profile: each stretch gets a label with its size, wall, perforation, stations, the land draining into it and the in/day it delivers at its tightest point. Drag a step to move it (a red dot shows the place on the map), click the pipe line to add one, click a label to change its pipe, and the x under a step to remove it. A stretch below the Project drainage coefficient turns red. Click Apply to keep it; one Undo takes it back. Tip: Auto Size later asks whether to keep these sizes or rebuild them.
Where to find it: Design tab > select a tile run > profile chart > Edit pipe sizes
Runs Auto Size for the selected main or sub-main alone. Select it and click Re-size this run at the top of its profile, beside Edit pipe sizes: its review opens (stepped again if it was stepped), and Apply sizes that run while every other run keeps its pipe. Here on T2, marked size out of date. Tip: the ↻ line in the Tile Sizing card does the same for every run it names.
Where to find it: Design tab > select a main > profile chart > Re-size this run
Opens the tools that apply to the run under the pointer, without going to the rail. Right-click a main: the header names it, its type and length (T2 · Tile main · 3137.5 ft), then View profile, Best Fit, Edit vertices, Extend, Move, Split or Split here at the point you clicked, Copy offset, Herringbone, Add surface inlet here, Auto Size this run and Delete. Click one, or press Esc to close the menu. Tip: on a lateral the menu shows Mirror across parent in place of Herringbone and Auto Size this run.
Where to find it: Right-click a main or sub-main on the map
On a lateral the menu adds Mirror across parent… (and leaves out Herringbone and Auto Size this run), so with Copy offset… you can build a bank straight from the run you are pointing at. Click the lateral first (here T2-L10, so the panel shows it too), then right-click it. Split here and Add surface inlet here use the exact point you right-clicked. Tip: Delete… in this menu asks first, like Erase on the rail.
Where to find it: Right-click a lateral on the map
Puts a surface inlet (a riser that takes surface water into the tile) on the run at the point you right-clicked, for a depression that tile alone will not empty in time. Its panel gives the station and the grade there, and asks how to size the inlet: Flow required (type the flow, here in gal/min) or From its catchment (the ground that drains to that spot; the line under the box shows that estimate). Calculate Lateral Tile Size then sizes the run for the extra water. Tip: the targeted tile chapter shows a full design built round inlets.
Where to find it: Right-click a run > Add surface inlet here
Switches every layer on and off and sets how see-through it is: the base imagery, the design and how it is coloured, drainage coverage, elevation and hillshade, the analysis layers (flow lines, depressions, wetness, basins, ponding), soils, annotations and your reference overlays. Click the stacked-squares button at the left of the map dock, tick a layer and drag its slider. Here the elevation and the design are on, and the analysis layers off so the design reads clearly. Tip: the layers you choose are saved with the project.
Where to find it: Map dock > Layers (the stacked squares)
Draws elevation contours over the field, labelled, at the interval you choose: the lines join ground of equal height, so tightly packed lines mean a slope and wide gaps a flat. Click the contour button on the map dock, pick the Contour interval (here 1 foot) and the line colour (white or black). Water runs across the contours, from high to low, which is the way a main should run. Tip: Export KML and Export SHP in the same panel save the contours for other programs.
Where to find it: Map dock > Contours
Holds the measuring tools and everything you can draw on the map for a printout: Measure (distance, area, angle), text (label, text box, callout), shapes (rectangle, filled and hatched polygons), lines (measure line, arrow, dimension, polyline), map elements (legend, north arrow, scale bar) and markup (revision cloud), with Edit Annotations and Clear All at the foot. Click the ruler button on the map dock, then a tool. Annotations are saved with the project and print on the reports. Tip: drag the panel by its title bar to move it out of the way.
Where to find it: Map dock > Measure & annotate (the ruler)
Measures a distance on the ground. Pick Measure Distance, click where it starts, click at each bend, and double-click the last point; the length shows in a box beside it, in the units you pick there. Here it runs along T2-L10 from T2 to the far end and reads 897.3 feet, the same as the lateral itself. Clear measurement removes it. Tip: the measurement is for you only; to keep a length on the map for a printout, use Measure in the Lines group.
Where to find it: Map dock > Measure & annotate > Measure Distance
Measures the area inside a shape you click round. Pick Measure Area, click the corners and double-click the last; the area shows in a box beside it (acres, or the unit you pick). Here it outlines the ground the south bank of T2 laterals (T2-L11 to T2-L18) drains: 8.29 acres, handy for a quote or a cost per acre. Tip: for an area that stays on the map with its acres, draw a rectangle or polygon and tick Show acres.
Where to find it: Map dock > Measure & annotate > Measure Area
Measures the angle between two lines meeting at a point. Pick Measure Angle and click three points: one along the first line, the corner, one along the second. The Bend Analysis box gives how sharply the line turns at the corner. Here the points run out along the lateral T1-L5, to where it tees into T1, and on up T1: the turn is 102°, so the lateral meets the main at 78°, worth checking against the tees you will use. Tip: hold the points well out along each line for an accurate reading.
Where to find it: Map dock > Measure & annotate > Measure Angle
Drops a line of text on the map for whoever reads the printout. Pick Label and click where it goes; then Edit Annotations, click the label and type the text, and set its colour and size. Here it marks where T2 leaves the field: "T2 outlet to road ditch". Tip: keep labels off the runs so the run names stay readable.
Where to find it: Map dock > Measure & annotate > Label
Places a boxed note for longer text, such as an instruction to the installer. Pick Text Box and click where it goes; then Edit Annotations, click it and type the note (it wraps), and set the box colour, border and text size. Here a note beside T2 tells the contractor which main to lay first. Tip: put notes in open ground beside the field so they cover no runs.
Where to find it: Map dock > Measure & annotate > Text Box
A note with a leader line that points at something. Pick Callout, click where the text should sit, then double-click the point it should point at; then Edit Annotations to type the text. Here it points at the junction where the sub-main T1-SM1 tees into T1. Tip: a callout keeps its arrow on the point when you move the text.
Where to find it: Map dock > Measure & annotate > Callout
Draws a box round something on the map, with its own label. Pick Rectangle, click one corner and then the opposite corner; then Edit Annotations to give it a label, a colour and Show acres if you want the area. Here it marks the farmstead and grain bins west of the field, kept out of the design. Tip: Polygon (filled) does the same for a shape that is not square.
Where to find it: Map dock > Measure & annotate > Rectangle
Shades an area of any shape, with a label and, if you like, its acres. Pick Polygon (filled), click round the area and double-click the last corner; then Edit Annotations to set the label, colour, how see-through it is, and Show acres. Here it marks the low ground in the middle of the T2 bank that stood wet last spring, so the grower can see the tile covers it. Tip: Polygon (hatched) is the same with diagonal lines, which prints better in black and white.
Where to find it: Map dock > Measure & annotate > Polygon (filled)
Hatches an area with diagonal lines, with its own label and, with Show acres ticked, its area printed under the label. Pick Polygon (hatched), click round the area and double-click the last corner; then Edit Annotations to type the label, tick Show acres and set the colour. Here it marks the high north-west corner the design leaves untiled (4.4 ac). Tip: the annotations chapter walks through area labels in more detail.
Where to find it: Map dock > Measure & annotate > Polygon (hatched)
Draws a line with its length printed on it that stays on the map and prints on the reports, unlike Measure Distance. Pick Measure in the Lines group, click where it starts and double-click where it ends. Here it gives the straight distance between the two outlets, T1 and T2: 1,647 ft, for pricing a collector between them. Tip: Dimension does the same with an arrowhead at each end, like a drawing.
Where to find it: Map dock > Measure & annotate > Measure (Lines group)
Draws an arrow to point something out, with an optional label along its middle. Pick Arrow, click where it starts and double-click where it points; then Edit Annotations to add the label. Here it points from the field road to the outlet of T1, with the label "T1 outlet". Tip: two clicks give a straight arrow; click more points for a bent one.
Where to find it: Map dock > Measure & annotate > Arrow
Draws a dimension line with an arrowhead at each end and its distance, as on a drawing. Pick Dimension, click the first point and double-click the second. Here it spans two neighbouring laterals, T2-L12 and T2-L13, and reads their spacing (50 ft). Tip: change the units shown on it in Edit Annotations.
Where to find it: Map dock > Measure & annotate > Dimension
Draws a plain line with as many bends as you click, for something the design has to respect. Pick Polyline, click along the feature and double-click the last point; then Edit Annotations for the colour, width and a dashed or dotted style. Here a dashed blue line follows the road ditch along the south edge of the field that both outlets drain into. Tip: a reference overlay brings in lines someone else has already mapped.
Where to find it: Map dock > Measure & annotate > Polyline
Places a legend box on the map for the printout. Pick Legend: it lands in the top-right corner of the map, and Edit Annotations opens its rows: a colour, a line style and a label each, with + Add row. Here the rows were set to the pipe sizes as the map colours them (12" main, 10" main, 8" main, 6" main and laterals, 4" main and laterals). Tip: frame the map before you print; the legend stays in its corner of the screen.
Where to find it: Map dock > Measure & annotate > Legend
Places a north arrow for the printout. Pick North arrow: it lands near the top-left corner of the map; in Edit Annotations drag it into open ground (here east of the field) and pick its style, size and colour. Tip: the map is drawn north-up, so the arrow always points straight up the page.
Where to find it: Map dock > Measure & annotate > North arrow
Places a scale bar so distances can be read off a printout. Pick Scale bar: it lands in a corner of the map and keeps its length right as you zoom; in Edit Annotations set its units, width and number of segments. Tip: the report's Design plan page draws its own scale bar as well.
Where to find it: Map dock > Measure & annotate > Scale bar
Draws a scalloped cloud round part of the design to mark a change or a question for whoever reads the map, as on a revised drawing. Pick Revision cloud, click round the area and double-click; then Edit Annotations to add the label. Here it rings the short laterals near the T2 outlet: "Confirm with owner". Tip: clear the clouds once the change is agreed, so the next printout is clean.
Where to find it: Map dock > Measure & annotate > Revision cloud
Changes an annotation after it is drawn. Click Edit Annotations, then click the annotation: drag it or its corners to move or reshape it, and change its text, colour, line and options in the panel that opens (here a hatched area: Label, Show acres, colour, line width, border style). Delete removes just that one; Done closes the panel. Clear All, at the foot of the tools, removes every annotation after a confirmation. Tip: Ctrl+Z undoes annotation changes too.
Where to find it: Map dock > Measure & annotate > Edit Annotations / Clear All
Lays other maps over the design: a picture with or without a world file (an old tile map, a scanned plan, a drone image), KML or KMZ lines and shapes (a KMZ with a map picture, such as the app's own map KMZ export, loads the picture in place too), zipped shapefiles and DXF drawings, up to 15 reference images per project. Click Reference overlays (the picture button at the right end of the map dock) and drop the file in the box or browse for it; a picture without a world file is placed by clicking points on the map. Tip: the annotations chapter walks through placing a picture step by step.
Where to find it: Map dock > Reference overlays (the picture button)
Takes back the last change to the design, or puts it back again, about twenty steps deep (Ctrl+Z and Ctrl+Y do the same). The curved arrows sit at the top left of the map, beside the zoom buttons; Undo lights up once there is something to undo. Here the minimum depth of T2-L10 has just been changed from 2.5 to 2.8 ft and applied, and Undo will put the old depth and grade back. Tip: every tool in this chapter is one Undo step, however many runs it changed.
Where to find it: Map > Undo / Redo (the curved arrows above the tool rail)
Shows where you are on the map from the device's own location, for walking a field with a tablet or phone. Click the crosshair on the map dock and allow location when the browser asks; the dot follows you and the ring shows how accurate the fix is. While GPS is on the app is in view mode: you can look, select runs and export, and editing waits until you turn GPS off. Tip: a phone or tablet with an RTK receiver gives a far tighter ring than its own GPS.
Where to find it: Map dock > GPS (the crosshair)
Records a drain as you walk or drive it. Click GPS survey: it first asks what you are recording (surface or tile; main, sub-main, lateral or surface inlet), then follows your position from the outlet along the route and turns the track into a run with its profile when you stop. Tip: start at the outlet, as you would when drawing, so the run flows the right way.
Where to find it: Map dock > GPS survey
Shows the field and the design in 3D: the ground surface with every pipe at its design depth, in its size colour. Click 3D View at the bottom right of the map, just above the small (i) button for the map credits; drag to turn, scroll to zoom, right-drag to pan. Here Opacity is turned down and Wire off so the ground is see-through, and the view is zoomed in over the field, so every run shows in its size colour, the mains stepping down in size towards their upper ends. Turn Terrain off to see the pipes alone, raise Exag to stretch the heights, and Home to start again. Tip: Close at the top right returns to the map.
Where to find it: Map > 3D View (bottom right)
Makes the PDF report to hand to the grower or the contractor. Open Professional Reports on the Deliver tab and click Generate Report; fill in the project details, choose the Template and the Paper, pick Plan pages if you want the plan on bigger paper too (one large-format page, or a plan set of numbered sheets), then click Generate PDF Report. Tip: the chapter Reports and sharing with your client shows every report page and the price options.
Where to find it: Deliver tab > Professional Reports > Generate Report
Writes the design in the file type your display or machine reads. Open Send the design to the machine at the top of the Deliver tab and pick your display or machine format under Equipment brand: the card then shows only the files that format can load, each marked REFERENCE ONLY (lines to follow on the screen) or INSTALLABLE (the grades the machine installs to), with a note on whether it suits this design. Click Export now or Prepare export on the file you want. An installable file asks you to tick that you understand what it carries, and asks again before it writes any run outside its depth limits. Tip: GIS & CAD files in the same list gives a Shapefile ZIP, a KML, a DXF for CAD and a KMZ map package.
Where to find it: Deliver tab > Send the design to the machine (Beta) > Equipment brand
Every export asks what it needs before it writes the file. Here the DXF for CAD asks for the drawing units (US survey feet, international feet or metres) and the coordinate system (UTM, your State Plane or MTM zone, or any system found by EPSG code or name). Pick what the CAD program or the contractor expects (the app remembers it) and continue; the export writes two drawings, the design and the existing ground. Tip: the Shapefile export asks a similar question, whether to write the runs as 3D lines that carry their design heights.
Where to find it: Deliver tab > Send the design to the machine > GIS & CAD files > DXF > Export now
Saves the whole project in one ZIP file: boundary, elevation, analysis layers, design, annotations and settings. Open Project Backup on the Deliver tab and click Backup Project; Restore Project opens a backup again, on this computer or another. Keep one before any big change and send one to whoever reviews the design. Tip: with Project Folder Storage on, the project also saves itself to a folder every 20 seconds.
Where to find it: Deliver tab > Project Backup
Designs a surface graded so every part of a flat field drains to an edge, using dirt from the field itself. Switch the Workspace to Landforming; the Design tab opens on the Landforming Design panel: the minimum grade every part must keep towards an outlet, compaction, the outlet edges, benchmarks and where fill comes from. Click Analyze field (recommend settings) first: here it suggests "max cut 0.92 ft · about 4,248 yd³ of dirt". Then Solve design surface. Tip: the land forming chapter walks through a whole design, from the depressions to the machine file.
Where to find it: Top bar > Workspace > Landforming, then Design tab > Landforming Design
No tool matches that. Try a shorter word, or pick All.
Reference, in every workflow · about 18 min
Why is it doing that?
The letters, colours, greyed-out buttons and messages the app shows, one card each: what you see, what it means and what to do about it. Search for what is in front of you, or use the chips.
Field used: Story County IA, 103 ac pattern tile design (the warnings on it were made on purpose for the pictures)
36 cards
A red S marks pipe that sits shallower than the run's Min depth; a red D marks pipe deeper than its Max depth. Each stretch gets one letter at its worst point (small s marks repeat along a long shallow stretch), the run's name gets a warning sign, and the profile chart marks the same points with red crosses. Here T1-L5's depth limits were narrowed to 3.0-3.5 ft on purpose: the lateral has to tie into T1 near the bottom of the field and also cross the knoll at its far end, and no grade does both, so it is shallow near the main and too deep on the knoll (the OB label beside the D gives the extra depth). To clear it, give the run its usual limits back (one Undo here), move or shorten it off the high ground, or accept the deep stretch as overburden.
Where to find it: Map, on the run; the profile chart below
Violations in Find a run counts the runs with a problem (here Violations 1: one run), and the arrows beside the warning sign step from one such run to the next. The line under Grade design describes the selected run, and its red count is the number of points along it that break a limit (here 21 violations); "no violations" in green means the run is clean. The profile chart's header shows a red Violations tag as well. Before you deliver, click Violations and work down the list until it reads 0.
Where to find it: Design tab > Active Design > Find a run, and the run summary under Grade design
The dot at the left end of a lateral's profile is where it joins its main. Black means the lateral comes in at or above the main's pipe; red means its outlet sits more than 1 in below it, so water would have to climb into the main. On the main's own profile the same junction shows in red among its green Connections, and the run's name on the map gets a cross. Here Force connection was switched off on T1-L5 and its Min depth set to 5.0 ft, deeper than T1 is at that point. Tick Force connection again (it sets the outlet just above the main's pipe, by the Connection offset), or lower the main.
Where to find it: Profile chart, left end (Parent Connection); map, at the junction
A circular arrow (↻) after a main's or sub-main's name means its pipe size was worked out for a different load than it carries now. Here lateral T2-L5 was deleted after sizing, which changes the ground the mains around it drain: for T2, the pipe was sized for 43.18 ac; the drawn design drains 43.14 ac. Out of date in Find a run counts these runs (Out of date 2), the run list and the summary say "size out of date", and the hover says why. Finish the layout, then click the ↻ line in the Tile Sizing card, or Auto Size Mains with Size only the runs that need it: just those runs are sized again and the arrows clear.
Where to find it: Map, after a main's name; Find a run > Out of date; the run list
In Edit pipe sizes, a segment label in red, like "6" DW NP · 8+00-10+84, 19.6 ac · 0.24 in/day (0.13 in/day short)", means that stretch's pipe delivers less than the Project drainage coefficient (0.375 in/day here). The line under the chart says the same and adds "You can still apply." If you apply it, the run is listed under Violations and starred in the report until you fix it. To fix it, pick a bigger size or dual wall for that segment, move the step further up the run, or remove the step. On flat ground a smaller pipe often cannot keep up even with fewer acres above it.
Where to find it: Design tab > select a run > profile chart > Edit pipe sizes
The soil suggestion picks the lateral perforation from the soil's clay, silt and sand. A soil with 30% clay or more holds together and does not wash fine soil into the pipe, so it suggests "Regular Perforated (no envelope needed for 100% of the area)". Here on Brookston clay (51% clay in the subsoil) in Ontario. A silty or sandy soil gets a sock instead. Where the texture is modelled rather than surveyed the suggestion asks you to confirm it with a soil test; you can always set Sock Filter yourself.
Where to find it: Design tab > Active Design > sliders button > Drainage settings > Tile design > Area-weighted soil suggestion
When only some runs are out of date, Auto Size Mains sizes just those by default: Size only the runs that need it (1): T2. Every other main keeps its pipe exactly as it is, including any sizes you set by hand. That is on purpose: a lateral moved on T2 does not change T1 or T3. To size them all again, choose Size every main before Start Sizing; to size one other main, right-click it and choose Auto Size this run.
Where to find it: Design tab > Sizing > Tile Sizing > Auto Size Mains
Hold the mouse over a run to see its summary. On a sized main the last two lines are the flow it is designed to carry at the outlet (here 247 GPM) and Max DC: the most water, in inches a day off its drained area, the pipe as sized can carry (here 0.38 in/day, against a target of 0.375 in/day). Max DC at or above the project's target coefficient is what you want; when it shows in pink it is below it, and that main needs Auto Size again or a bigger pipe. A lateral shows its own Max DC; "not available (grade)" means the run has no usable grade yet.
Where to find it: Map, hold the mouse over a run
Typing a new value into a run's panel changes nothing yet. The Unapplied changes box at the foot of the panel names the run it is for and waits; click Apply changes and the run is graded again with the new value. Here T1-L5's Max depth was changed from 5.0 to 4.0 ft. Nothing is saved to the run until you do; one Undo reverses an Apply.
Where to find it: Design tab > foot of the panel > Apply changes
Only a main may stand on its own: every lateral, sub-main and tributary must end on the run it drains into. An edit in the app never leaves one loose (it asks first), so this list turns up when you open a project saved by an older version or a design brought in from another program. Here T1-L5 ends 74.2 ft from T1: the lateral was cut short in the file to show it. Click Reconnect to bring its outlet end back onto the main (the Reconnect tool opens on that run), or Delete if it is not wanted. Until the list is empty, Auto Size, the PDF report and the machine exports will not run.
Where to find it: Opens by itself, top right of the map
With a run not connected, Auto Size Mains stops before it starts and names it: "Auto Size cannot run while 1 run is not connected to a main: T1-L5. Reconnect or delete it in the list, then try again." The PDF report and every machine export say the same, because a size or a file worked out with a loose lateral would be wrong. Fix the runs in the list, and the next try goes through.
Where to find it: Design tab > Sizing > Auto Size Mains
The Project tab works in order, and a step stays grey until the one before it is done. Download elevation for this field waits for a field boundary (the line under it says so), and Create Drainage Layers waits for elevation ("No elevation data loaded"). Upload or draw the boundary, then download the elevation, then build the layers. A GeoTIFF or a survey under Other elevation sources needs no boundary first: the app offers "Use the area this file covers as the field boundary?" On the Design tab, Draw only offers a lateral once there is a main to tie it to.
Where to find it: Project tab > Get Elevation Data and Create Analysis Layers
While GPS is on, the app is for looking, not changing: the editing items in the right-click menu are grey with "Turn GPS off to edit." under them, and the editing buttons and boxes in the sidebar are locked the same way, so a bump on a tablet in the field cannot move a run. You can still select runs, read profiles and export. Click the crosshair on the map dock again to turn GPS off, and editing comes back.
Where to find it: Map dock > GPS (the crosshair); right-click a run
Each machine file is marked for this design. Files the machine installs from (design heights and grades) are "Not recommended here" when the design is built on government LiDAR rather than an RTK survey (elevations you measured in the field with RTK GPS): LiDAR heights were not measured on your field and can be off by several inches, and the machine would dig to them. Reference files, a map or lines to follow on the screen, stay Recommended or Available. To export a Not recommended file anyway, first tick the box under it to say you understand (here, that you will calibrate the display's GPS height to the same reference as the design); its Export now button does nothing until you do. Use an RTK survey as the ground (Project tab) and the same files become Recommended.
Where to find it: Deliver > Send the design to the machine
A BETA badge marks a part of the app that works and is in use, but is new enough that you should check its results against what you know before relying on them: machine delivery, the drainage simulation and land forming. For machine files that means loading every file on the display and checking it before you install from it. If your display needs a file we do not make yet, send a sample through Help & feedback.
Where to find it: Deliver > Send the design to the machine (BETA); Design > Drainage simulation (BETA); Land forming (BETA)
A trim across a main cuts it short, and every run joined to it beyond the cut would be left with nothing to drain into. The app will not leave them loose, so before it trims it names them and asks: "Delete 10 runs with the trim?" Here the trim line crosses T2 near its upper end. Cancel changes nothing. Delete them with the trim cuts the main back and deletes those runs, and one Undo puts everything back. To keep the laterals, trim beyond the last one instead.
Where to find it: Tool rail > Trim, across a main
A lateral you draw by hand is always kept as drawn, but if it runs through ground another lateral already drains, the app says so: "T2-L113 overlaps drained ground · 50 ft spacing". Here a lateral was drawn halfway between T2-L9 and T2-L10, which are already 50 ft apart. Click Show to see the run it overlaps. Undo it if it was a slip; keep it if you mean to drain that strip twice. The layout tools (Copy offset, Herringbone, Mirror) instead stop their copies short of drained ground while Keep out of drained ground is ticked.
Where to find it: Tool rail > Draw > Lateral
A lateral has to start on the run it drains into, so Draw > Lateral only takes a first click within 30 ft of a tile main or sub-main (it then snaps onto it). Click further away and nothing is drawn: "Please start drawing within 30 feet of a tile main drain." While the tool is on, the tip beside the cursor says the same. Start on the main, where you want the tee, and click outward; and if there is no main yet, draw the main first.
Where to find it: Tool rail > Draw > Lateral
An export stops and asks when the file would carry something you may not want. Here a lateral was deleted after sizing, and the shapefile export, after its own options box, asks "Some pipe sizes are out of date": it names each main and why, Export anyway writes the file with the sizes as they are, and Cancel lets you run Auto Size again first. A machine file you install from asks "A run is outside its depth limits" when a run goes shallower or deeper than its own limits: Export anyway writes it as designed, Cancel lets you fix the design first. Machine files marked Not recommended here ask you to tick that you understand, and a land forming design that is not construction-ready asks "Export anyway?" A run that is not connected to a main stops every design export until it is fixed.
Where to find it: Deliver tab > any design export
Every export first asks where to save. Once the file is written, a note at the bottom right says where: "Saved Geo-Surface - Design shapefiles - 2026-10-08 1057.zip to the folder you chose", or to the exports folder of your project, or to your browser's Downloads folder on a browser without the save box. If you close the save box with Cancel or the ×, nothing is written and no note appears: just export again. The note gives the file name (here it says what the file holds and when it was made), so a search of your computer for it finds the file too.
Where to find it: Bottom right, after any export or backup
Drainage settings are the starting values for new runs; Save defaults changes no run already drawn. Apply to existing does: it asks first, "Apply to existing runs?", names what you changed (here Max depth for laterals) and how many runs it reaches (165 here), and re-fits their depths and grades to the new values. If you did not mean every run to change, click Cancel, or press Undo once after applying and every run goes back. To change one run only, select it and change its panel instead.
Where to find it: Design tab > Active Design > settings button (sliders) > Apply to existing
The elevation comes from government servers (USGS in the US, Natural Resources Canada in Canada), and now and then they are down. The app tries three times and also tries the public LiDAR archive as a backup; only when all of that fails does it show this box: No elevation data was loaded. Click Keep Trying for three more attempts, or Cancel for Now and come back later; outages usually clear within minutes, scheduled maintenance within a few hours. Your boundary and design are not affected. (For this picture the connection to both servers was cut on purpose.)
Where to find it: Project tab > Download elevation for this field
In the US the 1 m LiDAR is read from the USGS public archive first. If that archive cannot be reached, the USGS elevation server answers instead, and its answer can be coarser than the 1 m you asked for, so the app says so: "The USGS 1 m LiDAR archive could not be reached during this fetch, so the USGS elevation server answered instead" (here: delivered about 2 m cells, requested 1 m). Click OK; the elevation is loaded and usable, but small drainage features may be smoothed out. Fetch again later to read the 1 m LiDAR. (For this picture the connection to the archive was cut on purpose.)
Where to find it: Project tab > Download elevation for this field
The Active DEM line under Create Drainage Layers names the elevation the design is built on. "1 m LiDAR" with the survey project's name is what you want. Here it reads "USGS 3DEP elevation server (1 m LiDAR archive not reachable — resolution not confirmed)" after the archive could not be reached, so fetch again later. "USGS 11 m national DEM (no 1 m LiDAR published here)" means there is no 1 m LiDAR for the field yet: drains can still be laid out, but check grades on the ground, or use an RTK survey (Other elevation sources) as the ground.
Where to find it: Project tab > Create Analysis Layers, the Active DEM line
A project saved by an earlier version of Geo-Surface asks this once, as it opens: "This project was saved by an earlier version". Open as saved (the safe choice) loads every run, grade, name and setting exactly as you left them; only the Design Statistics and report figures are worked out with today's methods, and a notice lists any figure that now reads differently. Migrate to 3.3 makes a copy brought up to date: tile runs designed with Best-Fit get a fresh Best-Fit grade, while Guided and Freeform grades and every pipe size are kept (a main whose grade moved is marked out of date until you run Auto Size again). Your original is never changed either way, so open as saved to look first, and migrate when you are ready to keep working on it.
Where to find it: Deliver tab > Project Backup > Restore Project (or opening an older project from your projects folder)
Restore Project opens only a Geo-Surface project backup: the ZIP the app wrote with Backup Project. Any other ZIP, here a zipped field-boundary shapefile, is refused before anything is touched: "Failed to validate project file: project.json is missing.", and the design on the map stays as it was. A boundary shapefile goes in on the Project tab instead (Upload field boundary). A backup cut short while it was copied or emailed, or one saved by a newer version of Geo-Surface than this one, is refused the same way: copy it again from where it was saved, or send it to us through Help & feedback.
Where to find it: Deliver tab > Project Backup > Restore Project
Restore Project replaces what is on the map; it never merges two projects. Without a projects folder it asks first: "Importing a project will clear all current layers and data." Click Cancel, then Backup Project, if the design on the map is not saved anywhere yet; click Import Project to replace it. With a projects folder the open project is saved and closed first and the backup opens as its own project in the list, so nothing is lost. If the work on the map was never saved into any project, opening an empty project from your projects folder says "Your current work has never been saved": choose Save it as a new project first to keep it.
Where to find it: Deliver tab > Project Backup > Restore Project, with a design on the map
With a projects folder, the project saves itself every 20 seconds. If the computer cannot finish writing (the drive is full or unplugged, or a cloud-sync app has the files locked) the app warns: "The project save did not finish — it may have written part of the project." Before anything else, make a backup ZIP: Deliver tab > Project Backup > Backup Project, saved somewhere else. Then fix the drive and keep working; the next save writes the whole project again. (A healthy computer never shows this warning, so the picture shows where the backup is made; the wording is the app's own.)
Where to find it: Bottom right, while a project in your projects folder saves
A project designed on your RTK survey (the ground you measured, used instead of the LiDAR) keeps that surveyed ground in its backup, and reopens on it: the line above the run list then reads "Designing against: RTK survey · sample-rtk-survey", as here. If the surveyed ground is missing, the app names it: "This project was designed on the RTK survey ground …, which could not be restored". The project then opens on the LiDAR, so every depth and grade is measured from LiDAR, not from your survey. Do not send it to a machine like this: on the Project tab open Other elevation sources, or an existing design > Use an RTK survey as the ground, and build the RTK ground again from the same survey file. (A complete backup never shows the warning, so the picture shows what a correct reopen looks like; the warning's wording is the app's own.)
Where to find it: After opening a project designed on your own RTK survey; check Design tab > Active Design > Designing against
Every run reads the ground under it from the elevation you downloaded; past its edge the app asks the elevation server. Where neither answers, the missing heights are filled in straight across, and when that is more than half the run you get "Warning: More than 50% of the elevation data is estimated." The profile shows it: a flat, ruler-straight ground line (here 88% of T3, carried east off the field). Do not trust depths or grades there: select the run and click Refresh active profile (the circular arrow beside its name) to read the ground again, or download elevation that covers the whole run. If none of the run has a height at all the message is "Unable to retrieve any elevation data for this line." (For this picture the elevation server was cut off on purpose.)
Where to find it: On the map, after drawing or moving a run
Refresh active profile reads the ground under the selected run again. When some of its heights were estimated (filled in because the elevation could not be read), it asks "Do you want to re-fetch all elevation data?" Click Re-fetch: every height along the run is read again and the grade is fitted to the real ground; if the elevation server is still down you get the same warning, so try again later. Cancel leaves the run as it is.
Where to find it: Design tab > Active Design > Refresh active profile (the circular arrow beside the run name)
Copy offset works on every kind of run. On a lateral, a sub-main or a tributary it lays copies that join the same parent. On a main it lays new mains: each copy is a main of its own, with its own outlet at the copy's first point. The Direction list then names the sides of the main (South-west side, North-east side or Both sides here), and the panel says what it will lay and what to check: "Copy offset of T1: 1 new main to lay · 300 ft apart", and "Check each new main's outlet once laid: it is placed at the copy's first point, not on a real outlet". A copy that would cross another run, or one that runs out of the field, is cut short or left out and the panel says which. Check each new outlet against the ground before you design on it.
Where to find it: Design tab > select a main > tool rail > Copy offset
Type changes a lateral into a sub-main or back. A sub-main that still has laterals on it cannot become a lateral, because laterals cannot join a lateral: "Cannot demote to lateral — 8 line(s) connected to this sub-main", and the Type goes back to Sub-Main. Move or erase those laterals first, or leave it a sub-main. Mains have no Type box: a main stays a main, and a tile run cannot be turned into a surface drain or back (draw it again as the other kind).
Where to find it: Design tab > Active Design > Type, then Change type
Aligned lateral will not lay a run that starts inside ground another lateral already drains. Here T2-L1's line meets T1 among T1's own laterals, so it says "Aligned lateral not drawn: this way, the run enters ground already drained by T1-L79 at once, less than the 20 ft a lateral needs." A lateral needs at least 20 ft of undrained ground. Start it further along the main where the ground is not drained yet, or, if you mean the two to overlap, turn off Keep out of drained ground in the banner along the top and click again.
Where to find it: Design tab > tool rail > Aligned lateral
Respace works on one bank at a time: parallel laterals, in order, on one main or sub-main, all of the same kind. Here the area drawn took in laterals from both T2 and T1, so it says "The selected laterals must all be on one main or sub-main (T1-L56 is not on T2)." and lays nothing. Draw the area again round one bank only, keeping clear of the ends of the next bank. The same panel refuses a group of mixed kinds ("must all be the same drain type") or laterals that are not side by side in order along the main.
Where to find it: Design tab > tool rail > Respace laterals
A run has one grade line at a time. Choosing another way to grade a run that already has one asks first: "Switching to Guided will replace the existing Best-Fit grade." Click Replace with Guided to draw the new grade, or Keep Existing Grade to leave it; a replacement can be undone. Clear (the clear grade button beside Export, above the grade buttons) removes the selected run's grade line altogether, so it has no depths or grade until you grade it again (Undo brings it back). Clear changes only the selected run.
Where to find it: Design tab > Active Design > Grade design: Best-Fit, Guided, Freeform, Clear
No card matches that. Try a shorter word, or pick All.
Reference
Words used
What the drainage and land forming words in this tutorial mean. In the chapters, a word with a dotted underline shows its meaning when you point at it or tap it.
- AGD
- A design file that many machine control displays read. It takes the design surface to the machine in the cab.
- Best Fit
- Lays the grade line of a run for you: it follows the ground as closely as it can while keeping the pipe between your minimum and maximum depth and above your minimum grade.
- Borrow
- Soil cut from higher ground to supply the fill. Max borrow cut sets how deep the high ground may be lowered.
- Break line
- A line you draw where laterals should stop, such as the foot of a hill, a waterway or a yard. The layout tools end the laterals at it.
- Catchment
- All the ground that drains to one spot, such as a low spot with a surface inlet. An inlet is sized for the water its catchment sends it.
- Compaction
- Placed fill settles. The compaction setting digs extra soil for each yard of fill (at 20%, 1.2 yd³ of cut for 1.0 yd³ of finished fill) so the fill still ends up at the design height.
- Cut / fill
- Cut is soil taken off high ground; fill is soil placed in low ground. The cut/fill map shows where and how deep.
- DEM (the ground you design on)
- Digital elevation model: the grid of ground heights the design is drawn on. It can come from LiDAR, your own RTK survey or a land forming design, and every depth and grade is measured against it.
- Depression
- A low spot with no way out on the surface, where water stands after a rain until it soaks in or dries up.
- Drainable porosity
- How much water a soil gives up as it drains. In a tight soil a little rain raises the water table a lot.
- Drainage coefficient
- How much water the system is built to take off the drained ground in a day, in inches (0.375 in per day is a common figure). It sets the flow each pipe must carry, so it drives the pipe sizes.
- Excavated start
- The first stretch of a lateral or sub-main where it joins its main (25 ft unless you change it). You dig there anyway to set the plow in, so it is not counted as overburden.
- Invert
- The inside bottom of the pipe. Depths and grades are worked out to the invert, and a lateral should join its main at or a little above the main's invert.
- Ksat
- How fast water moves through a soil when it is full of water (saturated hydraulic conductivity). A tight soil has a low Ksat and needs laterals closer together.
- Lateral
- The smaller tile that does the draining. Laterals run side by side at a set spacing and empty into a main or sub-main.
- LiDAR
- Elevation measured by a laser from an aircraft. Public LiDAR gives a ground height about every metre, and it is what the app downloads for your field.
- Main
- The trunk pipe or ditch that carries the water to the outlet. Laterals and sub-mains empty into it.
- Outlet
- Where the water leaves the system: the end of a main at a ditch, creek or bigger drain. Every run is drawn from its outlet uphill.
- Overburden
- Soil that has to be dug out ahead of the plow where the tile must go deeper than the plow can reach. The app works out how much and puts it in the report.
- Perforated
- Tile with slots that let soil water in. Laterals are perforated; a main that only carries water to the outlet is often solid (non-perforated).
- RTK survey
- Elevation points you measure yourself with an RTK GPS receiver, typically accurate to an inch or two when set up well. A survey can replace LiDAR as the ground you design on, so the design matches the field as it is today.
- Single wall / dual wall
- Two kinds of plastic tile. Single wall is corrugated inside and out. Dual wall has a smooth inside, so it carries more water at the same size and grade, which can let a main step down a size sooner.
- Station
- The distance along a run from its outlet, written like 3+50 for 350 ft. The profile, inlets and connections are placed by station.
- Sub-main
- A branch of a main. It collects the laterals from one part of the field and joins a main instead of running to the outlet itself.
- Surface inlet
- A riser in a low spot that lets standing water go straight into the tile, so it leaves far faster than it could soak down through the soil.
- Topsoil strip & return
- The topsoil is pushed aside before the cut and fill and spread back over the finished surface, so the field keeps its topsoil. It adds to the soil moved.
- World file
- A small text file that sits beside a picture (a .jgw beside a .jpg, for example) and says where on the map the picture belongs.
Try it on your own field
Open the demo and follow along, or pick a plan and design your whole farm.
Try the demoSee plans