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Channels

Please refer to the SWAT+ Input/Output Documentation linked below:

Aquifers

Please refer to the SWAT+ Input/Output Documentation linked below:

Export Coefficients

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Documentation for this section is not available yet. For now, please refer to the SWAT+ input/output documentation PDF for parameter definitions.

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Special note about using export coefficients with constant point source/inlet data

In SWAT+, constant values for point sources and inlets are stored in the export coefficients properties file, exco.exc, while time series data are stored entirely in the recall section.

However, in the editor, we keep both constant and time series point sources and inlets in the recall section. When you write input files, the editor will write to the exco.exc and exco_om.exc files appropriately.

Project Setup

When you open SWAT+ Editor, you are taken to the project setup screen. If you are coming from QSWAT+, an overlay will appear with the option to change your project display name and optionally use the lite version of the mode: SWAT+ lte.

When your project is done importing from GIS, it will be selected as your current project and displayed in the recent projects sidebar on the left as well as in the center screen.

From here you can start editing your SWAT+ inputs by clicking the "Get started" button at the bottom, or by clicking the pencil icon in the far left blue-colored menu.

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SWAT+ lte

SWAT+ lte is a version of the SWAT+ model that greatly simplifies hydrology and plant growth and does not simulate nutrients, concentrating on gully formation and stream degradation. It only uses channel and HRU objects.

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Using the editor without GIS

If you are not coming from QSWAT+, you may open the editor and create a new project from scratch. A project database will be created for you and you will need to input your spatial connections and all other data manually.

Routing Units

Please refer to the SWAT+ Input/Output Documentation linked below:

Reservoirs

Please refer to the SWAT+ Input/Output Documentation linked below:

Recall (Point Source/Inlet)

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Please note: there was a long outstanding issues with time series recall in version 2.0.x of SWAT+ Editor due to a missed change in format of the model. This should be corrected in SWAT+ Editor 2.1.2 and greater. Please update your software and project and reach outenvelope if you encounter any issues.

Recall objects are used for connecting point source or inlet data to your watershed. If you added point source in QSWAT+, when you import your project into SWAT+ Editor it will be connected via the recall section.

By default, constant data with all zero values during the default simulation period is added. To add your own recall data, click the recall item in the edit menu under connections.

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Sample Data

Please read the README.txt file in the zip carefully.

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Constant Data

By default, your recall data is imported as constant. To insert your values, you can edit each item individually by clicking the edit button and manually entering each value. Alternatively, you may upload a CSV of your data.

From the recall section, click the import/export button from the action bar at the bottom. Import is selected by default, so click the export button toggle. Choose a folder name, and click the export data button to get a template for your data.

Constant data will be located in the recall.csv file in the directory you selected. Edit the CSV as needed, save, and then go back to the editor and click the import/output button again. This time toggle the import button. Choose your directory containing your modified files and click the import CSV data button. Your updated values will appear in the table.

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Time Series Data

By default recall data is imported as constant, however this can be changed by clicking the edit button next to a row in the recall data table. Select the new time step for your data: daily, monthly, or yearly. Click the save changes button. Next, press the back button to go back to the table view. Click the import/export button. Import is selected by default, so click the export button toggle. Choose a folder name, and click the export data button to get a template for your data.

Your directory may now contain two files: a recall.csv containing constant data, and another csv file named for the recall object (e.g., pt002) you changed to time series.

Open the time series file after it is exported to see the template for your data. Modify your data as needed matching the time step you selected previously. Be sure the years match your simulation run time.

You change other recall objects from constant to time series, and you can mix and match all different types (constant, yearly, monthly, and daily). For any recall objects moving from constant to time series, first delete its row in recall.csv. Then create a new csv with the file name matching the recall object's name and insert your time series data. Similarly, if you want to move from time series back to constant, just delete the time series file and add a row back into recall.csv for the object.

To import your data, click the import/export data button again and this time click to toggle import. Choose your directory and click import data. Your new data will appear in the table.

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Recall Table Definitions

Each record in recall_rec will have a data file named {name}.rec. All of this data is stored in a single recall_dat table in the database.

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SWAT+ Documentation

HRUs

Please refer to the SWAT+ Input/Output Documentation linked below:

Delivery Ratio

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Documentation for this section is not available yet. For now, please refer to the SWAT+ input/output documentation PDF for parameter definitions.

yr

int

Year

ob_typ

text

Type of recall

ob_name

text

Name of recall object

flo

real

Volume of water

m^3

sed

real

Sediment

metric ton

orgn

real

Organic nitrogen

kg N

sedp

real

Organic phosphorus

kg P

no3

real

Nitrate

kg N

solp

real

Mineral (soluble P)

kg P

chla

real

Chlorophyll-a

kg

nh3

real

Ammonia

kg N

no2

real

Nitrogen dioxide

kg N

cbod

real

Carbonaceous biological oxygen demand

kg

doc

real

Dissolved oxygen

kg

sand

real

Detached sand

silt

real

Detached silt

clay

real

Detached clay

sag

real

Detached small ag

lag

real

Detached large ag

gravel

real

Gravel

tmp

real

Temperature

deg c

SWAT+ Input File

Database Table

recall.rec

recall_rec

Field

Type

Description

id

int

Auto-assigned identifier

name

text

Name of recall object

rec_typ

int

Time step for recall object (1-daily, 2-monthly, 3-yearly)

SWAT+ Input File

Database Table

{name}.rec

recall_dat

Field

Type

Description

Units

jday

int

Julian day

mo

int

Month

day_mo

int

Download sample data.arrow-up-right

Day of the month

Connections

The connections section contains all spatial object connectivity for the simulation run. In SWAT+ Editor, all connection object properties can be set through this section. For example, when you click on channels, you will see additional menu links appear for initialization, hydrology and sediment, and nutrients.

All connection objects have a similar format as seen in the above figure. Each connection object will have properties associated with it (such as initial, hydrology and sediment, and nutrients in this example) as well as a weather station. Click on these names in the table, or from the edit view page, click the button next to their names to view information about the properties object or weather station.

Each connection object may have outflow. The total number of outflow connections is shown in the right-most column of the table (note: you may need to use the horizontal scroll button at the bottom of the table if it is wide). To view the outflow objects, click the edit icon on the left of the row you want to view.

If you imported your project from GIS, your connection objects are populated automatically during project setup.

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Explanation of SWAT+ Spatial Objects

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Subbasin

The subbasin is defined by the DEM in the GIS interface as it always has been. All flow within the subbasin drains to the subbasin outlet.

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Landscape Unit

A landscape unit (LSU) is defined as a collection of HRUs and can be defined as a subbasin, or it could be a flood plain or upland unit, or it could be a grid cell with multiple HRUs. The landscape unit is not routed, it only used for output. The landscape unit output files (waterbal, nutbal, losses, and plant weather) are output for HRUs, landscape units, and for the basin. Two input files are required: 1) landscape elements and, 2) landscape define. The elements file includes HRUs and their corresponding LSU fraction and basin fractions. The define file specifies which HRUs are contained in each LSU.

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Routing Unit

A routing unit is a collection of hydrographs that can be routed to any spatial object. The routing unit can be configured as a subbasin, then total flow (surface, lateral and tile flow) from the routing unit can be sent to a channel and all recharge from the routing unit sent to an aquifer. This is analogous to the current approach in SWAT. However, SWAT+ gives us much more flexibility in configuring a routing unit. For example, in CEAP, we are routing each HRU (field) through a small channel (gully or grass waterway) before it reaches the main channel. In this case, the routing unit is a collection of flow from the small channels. We also envision simulating multiple representative hillslopes to define a routing unit. Also, we are setting up scenarios that define a routing unit using tile flow from multiple fields and sending that flow to a wetland.

The routing unit is the spatial unit SWAT+ that allows us to lump outputs and route the outputs to any other spatial object. It gives us considerably more flexibility than the old subbasin lumping approach in SWAT, and will continue to be a convenient way of spatial lumping until we can simulate individual fields or cells in each basin.

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SWAT+ Documentation

Example connectivity

Decision Tables

Decision tables are a precise yet compact way to model complex rule sets and their corresponding actions. Decision tables, like flowcharts and if-then-else and switch-case statements, associate conditions with actions to perform, but in many cases do so in a more elegant way (see Wikipedia articlearrow-up-right on decision tables).

Structure of decision tables:

  1. Conditions

  2. Condition alternatives

  3. Actions

  4. Action entries

Each decision corresponds to a variable, relation or predicate whose possible values are listed among the condition alternatives. Each action is a procedure or operation to perform, and the entries specify whether (or in what order) the action is to be performed for the set of condition alternatives the entry corresponds to. Many decision tables include in their condition alternatives the "don’t care" symbol, a hyphen. Using "don’t cares" can simplify decision tables, especially when a given condition has little influence on the actions to be performed. In some cases, entire conditions thought to be important initially are found to be irrelevant when none of the conditions influence which actions are performed.

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Usage in SWAT+

There are four decision table sections in SWAT+: land use management, reservoir release, scenario land use, and flow conditions.

See the land use management documentation, under management schedules for how to choose a decision table for your HRUs.

Reservoir release decision tables are assigned from the reservoir properties section under connections in SWAT+ Editor.

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Modifying Decision Tables in SWAT+ Editor

In the current version of SWAT+ editor, we do not have a GUI available for editing decision tables, however we have provided the ability to export the decision table file. You may then make changes to it in a text editor, and upload back into SWAT+ Editor.

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Table Definitions

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d_table_dtl

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d_table_dtl_cond

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d_table_dtl_cond_alt

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d_table_dtl_act

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d_table_dtl_act_out

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Text File Example and Explanation

The following is an example of a decision table in the lum.dtl input file. It is a table for warm season annual crops, using continuous corn.

In the above table, there are 6 conditions, 4 alternatives and 3 actions.

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Description of the conditions

  1. soil_water – if soil water is too high (> 1.50*field capacity), it will be too wet to operate machinery

  2. plant_gro – (“n”) Planting allowed if plant is not growing.

  3. phu_base0 – (0.15) when the sum base zero heat units for the year (starting Jan 1) exceeds 0.15, indicating it’s warm enough to plant

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Description of the alternatives

If all of the conditions for each alternative are met, outcomes are checked for ‘y’ to take action. Alternatives with dash (‘-‘) are not checked.

  1. plant corn based on heat units: if soil water < 1.50*fc and if phubase0 > 0.15*phu_mat and if year_rot = 1 then check outcomes for ‘y’ and if ‘y’, take that action (plant)

  2. Harvest corn based on crop accumulated heat units: if soil_water < 1.50*fc and if phu_plant > 1.15*phu_mat and if year_rot = 1 and then check outcomes for ‘y’ and if ‘y’, take that action (plant)

  3. Harvest corn based on days since planting: if year_rot = 1 and if days_plant =200 then check outcomes for ‘y’ and if ‘y’, take that action (harvest)

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Description of the actions

  1. plant: corn – cross walked to plant name in plants.plt file

  2. harvest_kill: corn – cross walked to plant name in plants.plt file grain – relates to harvest type in harv.ops file

  3. rot_reset: rotation reset – for continuous corn (1 year rotation). The rotation year is reset to 1 at the end of every year.

obj

text

Object variable (res, hru, etc)

obj_num

int

Object number

lim_var

text

Limit variable (evol, pvol, fc, etc)

lim_op

text

Limit operator (*, +, -)

lim_const

real

Limit constant

obj

text

Object variable (res, hru, etc)

obj_num

int

Object number

name

text

Name of action

option

text

Action option-specific to type of action (e.g., for reservoir, option to input rate, days of draw-down, weir equation pointer, etc)

const

real

Constant used for rate, days, etc

const2

real

fp

text

Pointer for option (e.g., weir equation pointer)

phu_plant – (1.15) harvest is scheduled when the sum of the heat units for the crop exceed 1.15 (if the heat units to maturity for the crop = 1500, then harvest would be scheduled at 1.15 * 1500 = 1725).
  • year_rot – needed to identify the current year of rotation. In this example, corn is grown in year 1.

  • days_plant – days since last plant (200) to ensure harvest occurs before next crop is planted.

  • Reset rotation year: if year_rot > 1 then check outcomes for ‘y’ and if ‘y’, take that action (rot_reset)

    SWAT+ Input File

    Database Table

    lum.dtl, res_rel.dtl, scen_lu.dtl, flo_con.dtl

    d_table_dtl

    d_table_dtl_cond

    d_table_dtl_cond_alt

    d_table_dtl_act

    d_table_dtl_act_out

    Field

    Type

    Description

    id

    int

    Auto-assigned identifier

    name

    text

    Name of the decision table

    file_name

    text

    File name denoting type of decision table: lum.dtl, res_rel.dtl, scen_lu.dtl, flo_con.dtl

    Field

    Type

    Description

    Related Table

    id

    int

    Auto-assigned identifier

    d_table_id

    int

    ID of decision table

    d_table_dtl

    var

    text

    Field

    Type

    Description

    Related Table

    id

    int

    Auto-assigned identifier

    cond_id

    int

    ID of condition

    d_table_dtl_cond

    alt

    text

    Field

    Type

    Description

    Related Table

    id

    int

    Auto-assigned identifier

    d_table_id

    int

    ID of decision table

    d_table_dtl

    act_typ

    text

    Field

    Type

    Description

    Related Table

    id

    int

    Auto-assigned identifier

    act_id

    int

    ID of action

    d_table_dtl_act

    outcome

    bool

    Land Use Managementchevron-right

    Condition variable

    Condition alternatives (>, <, =)

    Type of action (reservoir, irrigate, etc)

    Perform action (1 or true), or don't perform action (0 or false)

    SWAT+ Editor Documentation

    Sample Data

    Download example data formatted for importing into the editor

    Some files below may be zipped. Please unzip before using in the editor.

    Section
    Subsection
    File Format

    Climate

    Weather Generator

    Formats not included in this page can usually be found by using the import/export tool on each table in SWAT+ Editor. Export the current data to CSV to get the template.

    Climate

    Weather generator data and weather stations are required for SWAT+ to run.

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    SWAT+ Documentation

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    Weather Stations

    Weather stations are linked from all of your connection objects (channels, HRUs, etc.) in SWAT+. If you are coming from QSWAT+, it is much better to import stations either from the weather generator section, or the observed weather file importer than it is to create them manually.

    By importing through one of the methods described below, your new stations will be automatically matched your spatial connection objects.

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    Import Weather Generator Data

    Click the import data button to import weather generator (wgn) data for your project. If you installed the SWAT+ databases, this file will be selected by default along with the CFSR world table. USA wgn data is also available from this database; type wgn_us to use this table.

    You may also add your own data to this database using the wgn and corresponding wgn_mon tables.

    Below the table name field is a check box asking if you are using observed weather data. By default (unchecked), when you click start import, weather stations will be created based on your wgn locations. If you are using observed weather data and prefer to have weather stations created based on this data, check this box--stations will not be created when you start import, and instead they will be created for you when you import your observed weather data files.

    If you are not using observed weather data, it is important to leave the box unchecked so that weather stations are created for you.

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    CSV Import

    If you do not want to use the SQLite database, you may import CSV files of your weather generator data. Two CSV files are required.

    1. Stations CSV file:

      • Columns id, name, lat, lon, elev, rain_yrs

      • id should be uniquely numbered

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    Import Observed Weather Data

    Import observed weather data from the top of the weather stations section. The data files may be in one of two formats: SWAT2012/Global Weather Data CFSR website format, or SWAT+.

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    After importing observed weather data, be sure to modify your simulation run time to match your weather dates.

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    SWAT2012/Global Weather Websites Format

    Each measurement included in your data must have the following entry file names:

    Each entry file is a comma-separated list of stations. Each station name should have a corresponding .txt file (e.g., name p326-963 should have a p326-963.txt file).

    Each station file should have the first line as the starting day as YYYYMMDD (e.g., 19790101). The following lines are the measurement for each day, one line per day. For temperature, each line will be max,min (e.g., 10.138,-2.662).

    Global weather data options are available on the .

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    SWAT+ Format

    Each measurement included in your data must have the following entry file names:

    Each entry file has a title line (any text allowed), followed by a heading line, followed by a list of filenames for each station. Filenames should be listed alphabetically.

    Each station file has a title line, followed by a heading line and data line for time and location. Measurements for each timestep are in the lines to follow. For temperature, the measurements will be listed as max then min.

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    Weather Generator Parameters

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    weather_wgn_cli

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    weather_wgn_cli_mon

    Each entry in weather_wgn_cli will have 12 rows in weather_wgn_cli_mon.

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    Weather Stations Parameters

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    weather_sta_cli

    When entering an observed weather file name in the station editor, you may start typing to search for existing weather files adding during the import step. If adding observed files manually, just type the name of the file (e.g., p326953.pcp), and put that file in the directory you plan to write input files (e.g., your TxtInOut). Files must be in SWAT+ format. If your weather data is in SWAT2012 format or from the Global Weather CFSR website, please use the import step to convert them to SWAT+.

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    weather_file

    This table is only used if you import observed weather data files. If entering stations manually, this table will not be populated.

    Change/Calibration

    Please refer to the SWAT+ Input/Output Documentation linked below:

    Edit SWAT+ Inputs

    Click the pencil icon in the leftmost blue toolbar to enter the editing section. Most editors in this section are a literal representation of the SWAT+ input files. The collapsible dark-gray headings on the left correspond to the section lines in the master watershed file (file.cio).

    When you click on an editor section from the left menu, you'll find the default SWAT+ file name with which the section corresponds. This enables you to quickly look up further information in the SWAT+ input/output documentation.

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    Navigating the Editor

    Most data is presented in a tabular format. When you click a row, you're presented with a form where you can make changes and save. The following features are common across many editor sections.

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    Tables

    Sort by a column in the table by clicking on the heading name. It will toggle ascending or descending direction as indicated by the arrows next to the name.

    Tables with many records can be scrolled and then paged by clicking the page number or arrow links at the bottom of the table.

    Each row may contain an edit/view icon on the far left to access the data in the row, and a delete icon on the far right (may need to scroll to access the far right of the table). We do not recommend deleting rows unless you are absolutely sure they are not used elsewhere in your model. Due to the relationships of data in SWAT+, deleting records could have unintended effects and break your model. Deleting cannot be undone; if in doubt, make a backup of your project SQLite database first.

    In the search box up top, start typing the name of the objects you want to find. Matching options will appear in the table. Remove the text from the search box to remove the filter.

    In the action bar at the bottom, click create new record to add an item to the table. The import/export data button allows you to quickly access your data in CSV (comma-separated values spreadsheet) format, in most cases. We recommend exporting your data (or empty table is okay) first to get a template with the column names. You may then modify the file and import it back into the editor.

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    Editing Form

    Most objects in SWAT+ have a name field and are identified using this name. Names should be unique and not contain spaces (spaces will be automatically converted to underscores).

    Each edit form will have a save changes button at the bottom. Be sure to click this button after making any changes and before leaving the form.

    Press the back button to return to the previous screen. Click copy to make a copy of the current object you are viewing. You will be asked to give the copied object a unique name. Note: the copy function is not available for all object types, including connection objects.

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    Look-up Fields

    There are a lot of relationships between objects in SWAT+. For example, all fields in your channel properties table link to rows in other tables. In SWAT+ Editor forms, you can easily select these related rows by starting to type an object's name and select it as it pops up. If you accidentally enter an incorrect name, the editor will return an error stating the record does not exist in your database.

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    Bulk Editing

    If you want to apply changes to a field for multiple objects at once, you can use bulk edit mode. Select one object from the table as your base. This can be useful if you want to use its values to apply across many other objects, but if you're using entirely new values, it does not matter which object you select.

    From the object's edit form page, click the arrow on the right side of the save changes button and then click "Make changes to multiple records..." to enter bulk edit mode.

    First, select the objects to which you want to make changes. Note that the object you're currently viewing is not selected by default. For most sections, you can filter your selection by subbasin first. If you're editing an HRU-level objects, you can also filter by landuse. In the above example, we checked Subbasin 1, which then populated the next list with channels that fall into Subbasin 1. All are selected by default, but you can uncheck as needed.

    Next, choose which fields you want to edit by clicking the check box to the left of the field. In the above example, we checked the box for Manning's n. Enter the value you want and click Save Bulk Changes. Manning's n will be updated to your new value for each selected channel.

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    Getting Started with Your Data

    We recommend starting in the climate section, and importing your weather generators and observed weather data. If you're coming from GIS, when you import weather generators or observed data, it will create weather stations and match them to your spatial objects automatically.

    Regions

    Please refer to the SWAT+ Input/Output Documentation linked below:

    Basin

    General watershed attributes are defined in the basin input files: codes and parameters. These attributes control a diversity of physical processes at the watershed level. The interfaces will automatically set these parameters to the default or recommended values listed in the variable documentation. Users can use the default values or change them to better reflect what is happening in a given watershed. Variables governing bacteria or pesticide transport need to be initialized only if these processes are being modeled in the watershed. Even if nutrients are not being studied in a watershed, some attention must be paid to these variables because nutrient cycling impacts plant growth which in turn affects the hydrologic cycle.

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    Codes

    SWAT+ Input File

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    codes_bsn

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    Parameters

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    parameters_bsn

    Initialization Data

    Please refer to the SWAT+ Input/Output Documentation linked below:

    Routing Units | SWAT+ Documentationswatplus.gitbook.iochevron-right
    Channels | SWAT+ Documentationswatplus.gitbook.iochevron-right

    Hydrology

    Please refer to the SWAT+ Input/Output Documentation linked below:

    Point Sources and Inlets | SWAT+ Documentationswatplus.gitbook.iochevron-right
    Hydrologic Response Units | SWAT+ Documentationswatplus.gitbook.iochevron-right

    Two CSV Files (Stations and Monthly Values)arrow-up-right

    One CSV Filearrow-up-right

    Climate

    Weather Stations

    SWAT+ Formatarrow-up-right

    SWAT2012 / Global Data Websites Formatarrow-up-right

    Climate

    Atmospheric Deposition

    CSV Formatarrow-up-right

    SWAT+ Formatarrow-up-right

    Connections

    Point Source / Inlet

    CSV Formatarrow-up-right

    Databasearrow-up-right

    Event code

    crack

    int

    Crack flow code

    rtu_wq

    int

    Subbasin water quality code

    sed_det

    int

    Max half-hour rainfall frac calc

    rte_cha

    int

    Water routing method

    deg_cha

    int

    Channel degradation code

    wq_cha

    int

    Stream water quality code

    rte_pest

    int

    Redefined to the sequence number of pest in NPNO(:) to be routed through the watershed

    cn

    int

    CN method flag

    c_fact

    int

    C-factor

    carbon

    int

    Carbon code

    baseflo

    int

    Baseflow distribution factor during the day for subdaily runs

    uhyd

    int

    Unit hydrograph method

    sed_cha

    int

    Instream sediment model

    tiledrain

    int

    Tile drainage EQ code

    wtable

    int

    Water table depth algorithms code

    soil_p

    int

    Soil phosphorus model

    abstr_init

    int

    Initial abstraction on impervious cover

    atmo_dep

    text

    Atmospheric deposition code

    stor_max

    int

    Max depressional storage selection code

    headwater

    int

    Headwater code

    0

    0-1

    surq_lag

    real

    Surface runoff lag coefficient

    4

    1-24

    adj_pkrt

    real

    Peak rate adjustment factor for sediment routing in the subbasin (tributary channels)

    1

    0.5-2

    adj_pkrt_sed

    real

    Peak rate adjustment factor for sediment routing in the main channel

    1

    0-2

    lin_sed

    real

    Linear parameter for calculating the maximum amount of sediment that can be reentrained during channel sediment routing

    0.0001

    0.0001-0.01

    exp_sed

    real

    Exponent parameter for calculating sediment reentrained in channel sediment routing

    1

    1-1.5

    orgn_min

    real

    Rate factor for humus mineralization of active organic nutrients (N and P)

    0.0003

    0.001-0.003

    n_uptake

    real

    Nitrogen uptake distribution parameter

    20

    0-100

    p_uptake

    real

    Phosphorus uptake distribution parameter

    20

    0-100

    n_perc

    real

    Nitrate percolation coefficient

    0.2

    0-1

    p_perc

    real

    Phosphorus percolation coefficient

    10 m^3/M

    10

    10-17.5

    p_soil

    real

    Phosphorus soil partitioning coefficient

    m^3/Mg

    175

    100-200

    p_avail

    real

    Phosphorus availability index

    0.4

    0.01-0.7

    rsd_decomp

    real

    Residue decomposition coefficient

    0.05

    0.02-0.1

    pest_perc

    real

    Pesticide percolation coefficient

    0.5

    0-1

    msk_co1

    real

    Calibration coefficient to control impact of the storage time constant for the reach at bankfull depth

    0.75

    0-10

    msk_co2

    real

    Calibration coefficient used to control impact of the storage time constant for low flow (where low flow is when river is at 0.1 bankfull depth) upon the km value calculated for the reach

    0.25

    0-10

    msk_x

    real

    Weighting factor control relative importance of inflow rate and outflow rate in determining storage on reach

    0.2

    0-0.3

    trans_loss

    real

    Fraction of transmission losses from main channel that enter deep aquifer

    0

    0-1

    evap_adj

    real

    Reach evaporation adjustment factor

    0.6

    0.5-1

    cn_co

    real

    Currently not being used

    denit_exp

    real

    Denitrification exponential rate coefficient

    1.4

    0-3

    denit_frac

    real

    Denitrification threshold water content

    1.3

    0-1

    man_bact

    real

    Fraction of manure applied to land areas that has active colony forming units

    0.15

    0-1

    adj_uhyd

    real

    Adjustment factor for subdaily unit hydrograph basetime

    0

    0-1

    cn_froz

    real

    Parameter for frozen soil adjustment on infiltration/runoff

    0.000862

    0-0

    dorm_hr

    real

    Time threshold used to define dormancy

    hrs

    0

    0-24

    s_max

    real

    Currently not being used

    n_fix

    real

    Nitrogen fixation coefficient

    0.5

    0-1

    n_fix_max

    real

    Maximum daily-n fixation

    kg/ha

    20

    1-20

    rsd_decay

    real

    Minimum daily residue decay

    0.01

    0-0.05

    rsd_cover

    real

    Residue cover factor for computing fraction of cover

    0.3

    0.1-0.5

    vel_crit

    real

    Critical velocity

    5

    0-10

    res_sed

    real

    Reservoir sediment settling coefficient

    0.184

    0.09-0.27

    uhyd_alpha

    real

    Alpha coefficient for gamma function unit hydrograph

    5

    0.5-10

    splash

    real

    Splash erosion coefficient

    1

    0.9-3.1

    rill

    real

    Rill erosion coefficient

    0.7

    0.5-2

    surq_exp

    real

    Exponential coefficient for overland flow

    1.2

    1-3

    cov_mgt

    real

    Scaling parameter for cover and management factor for overland flow erosion

    0.03

    0.001-0.45

    cha_d50

    real

    Median particle diameter of main channel

    mm

    50

    10-100

    cha_part_sd

    real

    Geometric standard deviation of particle size

    1.57

    1-5

    adj_cn

    real

    Currently not being used

    igen

    int

    Random generator code 0 = use default number; 1 = generate new numbers in every simulation

    0

    0-1

    Database Table

    codes.bsn

    codes_bsn

    Field

    Type

    Description

    pet_file

    text

    Potential ET filename

    wq_file

    text

    Watershed stream water quality filename

    pet

    int

    Potential ET method code

    event

    SWAT+ Input File

    Database Table

    parameters.bsn

    parameters_bsn

    Field

    Type

    Description

    Units

    Default

    Range

    lai_noevap

    real

    Leaf area index at which no evaporation occurs from water surface

    3

    0-10

    sw_init

    real

    int

    Initial soil water storage expressed as a fraction of field capacity water content

    Logo
    Logo
    Logo
    Logo

    Monthly values CSV file:

    • Columns id, wgn_id, month, tmp_max_ave, tmp_min_ave, tmp_max_sd, tmp_min_sd, pcp_ave, pcp_sd, pcp_skew, wet_dry, wet_wet, pcp_days, pcp_hhr, slr_ave, dew_ave, wnd_ave

    • id should be uniquely numbered

    • wgn_id corresponds to the id column from the stations file

    lat

    real

    Latitude of weather station

    deg.

    +/-90

    lon

    real

    Longitude of weather station

    deg.

    +/-180

    elev

    real

    Elevation of weather station

    m

    0-5000

    rain_yrs

    int

    Number of years of recorded maximum monthly 0.5h rainfall data

    5-100

    month

    int

    Month

    tmp_max_ave

    real

    Average or mean daily maximum air temperature for month

    °C

    -30-50

    tmp_min_ave

    real

    Average or mean daily minimum air temperature for month

    °C

    -40-40

    tmp_max_sd

    real

    Standard deviation for daily maximum air temperature in month

    °C

    0.1-100

    tmp_min_sd

    real

    Standard deviation for daily minimum air temperature in month

    °C

    0.1-30

    pcp_ave

    real

    Average or mean total monthly precipitation

    mm

    0-600

    pcp_sd

    real

    Standard deviation for the average daily precipitation

    mm/day

    0.1-50

    pcp_skew

    real

    Skew coefficient for the average daily precipitation

    mm

    -50-20

    wet_dry

    real

    Probability of a wet day after a dry day

    0-0.95

    wet_wet

    real

    Probability of a wet day after a wet day

    0-0.95

    pcp_days

    real

    Average number of days of precipitation in a month

    0-31

    pcp_hhr

    real

    Maximum 0.5 hour rainfall in entire period of record for month

    mm

    0-125

    slr_ave

    real

    Average daily solar radiation for the month

    MJ/m^2/day

    0-750

    dew_ave

    real

    Average daily dew point temperature for each month

    °C

    -50-25

    wnd_ave

    real

    Average wind speed for the month

    m/s

    0-100

    Precipitation gage filename or "sim" if simulated

    tmp

    text

    Temperature gage filename or "sim" if simulated

    slr

    text

    Solar radiation gage filename or "sim" if simulated

    hmd

    text

    Relative humidity gage filename or "sim" if simulated

    wnd

    text

    Wind speed gage filename or "sim" if simulated

    wnd_dir

    text

    Wind direction gage filename

    atmo_dep

    text

    Atmospheric deposition data file name

    lat

    real

    Latitude of weather station

    lon

    real

    Longitude of weather station

    Latitude of weather station in file

    lon

    real

    Longitude of weather station in file

    Measurement

    Entry File

    Precipitation

    pcp.txt

    Temperature

    tmp.txt

    Solar radiation

    solar.txt

    Relative humidity

    rh.txt

    Wind speed

    wind.txt

    ID

    Name

    Latitude

    Longitude

    Elevation

    1

    p326-963

    32.628

    -96.250

    142.0

    Measurement

    Entry File

    Precipitation

    pcp.cli

    Temperature

    tmp.cli

    Solar radiation

    slr.cli

    Relative humidity

    hmd.cli

    Wind speed

    wnd.cli

    pcp.cli: precipitation file names

    filename

    p326953.pcp

    p326956.pcp

    SWAT+ Input File

    Database Tables

    weather-wgn.cli

    weather_wgn_cli

    weather_wgn_cli_mon

    Field

    Type

    Description

    Units

    Range

    id

    int

    Auto-assigned identifier

    name

    text

    Name of weather generator

    Field

    Type

    Description

    Units

    Range

    id

    int

    Auto-assigned identifier

    wgn_id

    int

    ID of row in weather_wgn_cli

    SWAT+ Input File

    Database Tables

    weather-sta.cli

    weather_sta_cli

    weather_file

    Field

    Type

    Description

    id

    int

    Auto-assigned identifier

    name

    text

    Name of the weather station

    wgn_id

    int

    ID of row in weather_wgn_cli

    pcp

    Field

    Type

    Description

    id

    int

    Auto-assigned identifier

    filename

    text

    Name of the weather data file

    type

    text

    Type of weather data: pcp, tmp, slr, hmd, wnd

    lat

    How to Use SQLitechevron-right
    SWAT websitearrow-up-right

    text

    real

    Example table view
    Example edit form
    Example look-up form field
    Example edit form in bulk editing mode
    Reservoirs and Ponds | SWAT+ Documentationswatplus.gitbook.iochevron-right

    Land Use Management

    A primary goal of environmental modeling is to assess the impact of human activities on a given system. Central to this assessment is the itemization of the land and water management practices taking place within the system. This section contains input data for planting, harvest, irrigation applications, nutrient applications, pesticide applications, and tillage operations. Information regarding tile drains and urban areas is also stored in this file.

    SWAT+ Input File

    Database Table

    landuse.lum

    landuse_lum

    management.sch

    management_sch

    management_sch_auto

    In addition to the above, SWAT+ Editor groups the operations databases in this section of the editor. However, within the SWAT+ master watershed file (file.cio), these are listed under the ops section.

    hashtag
    Land Use Management

    This section is the entry point for management data in SWAT+. It comprises cross-walks to several other sections of data.

    This data is accessed from the HRU properties section (hru-data.hru).

    hashtag
    landuse_lum

    hashtag
    Management Schedules

    Management schedules comprise auto-schedules (decision tables) and/or operations schedules.

    When you import your project from GIS, SWAT+ assigns auto-schedules for management based on your crop land use.

    For example, oats is a cold annual crop. If this crop is in your HRUs, a decision table named pl_hv_oats will be created based on the template of pl_hv_wwht when you import your data from GIS.

    hashtag
    Adding/Editing a Schedule

    From the management schedules section, click create a new record or click edit on a row in the table. Give your schedule a unique name.

    To add an automatic schedule, start typing a decision table name in the box provided. Click the desired result from the list of matches that pops up, and click the add button. If you enter more than one schedule, you can drag and drop to sort.

    To add an operation, click the add operation button. Select your operation type from the form that pops up and complete the remaining fields. Click save when done to add the operation to your table.

    When you're done adding automatic schedules and operations, click the save changes button to save your management schedule.

    hashtag
    Table Parameters

    hashtag
    management_sch

    hashtag
    management_sch_auto

    hashtag
    management_sch_op

    hashtag
    Operations Types

    hashtag
    Operation Data 1 Values

    hashtag
    Operation Data 2 Values

    hashtag
    Operations Databases

    Values in the operations tables are provided in the SWAT+ datasets database and copied to your project database during project setup. You may modify them or add new rows as needed in the editor.

    hashtag
    Harvest

    hashtag
    Graze

    hashtag
    Irrigation

    hashtag
    Chemical Application

    hashtag
    Fire

    hashtag
    Sweep

    hashtag
    Curve Number Table

    Values in this table are provided in the SWAT+ datasets database and copied to your project database during project setup. You may modify them or add new rows as needed in the editor.

    hashtag
    Conservation Practices

    Values in this table are provided in the SWAT+ datasets database and copied to your project database during project setup. You may modify them or add new rows as needed in the editor.

    hashtag
    Overland Flow Manning's n

    Values in this table are provided in the SWAT+ datasets database and copied to your project database during project setup. You may modify them or add new rows as needed in the editor.

    Connectivity | SWAT+ Documentationswatplus.gitbook.iochevron-right
    Aquifers | SWAT+ Documentationswatplus.gitbook.iochevron-right

    Run SWAT+

    After writing your input files, click the play/triangle button in the leftmost blue toolbar to go to the run SWAT+ section.

    You will see three sections up top to adjust your simulation settings if desired. Your input files will be saved to [Project Directory]/Scenarios/Default/TxtInOut by default. Click on "Set your simulation period" to adjust your starting and ending simulation dates.

    When you click on a date picker, please note that you may use the arrows at the top of the date picker to move between decades and years. Then click the day on the calendar to confirm the new date.

    Next you may choose your output to print.

    Databases

    Please refer to the SWAT+ Input/Output Documentation linked below:

    Soils

    Please refer to the SWAT+ Input/Output Documentation linked below:

    Structural

    Please refer to the SWAT+ Input/Output Documentation linked below:

    Water_Rights

    Water allocation tables are very specific to the watershed and new feature in SWAT+. We recommend working with the model development team if you are unsure. Because this is a new addition, the interface is still limited if you're trying to build a large table with many source and demand objects.

    Logo
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    Logo

    chem_app_ops

    plnt_com_id

    int

    Plant community

    plant_ini

    mgt_id

    int

    Management schedule

    management_sch

    cn2_id

    int

    Curve number

    cntable_lum

    cons_prac_id

    int

    Conservation practices

    cons_prac_lum

    urban_id

    int

    Urban land use

    urban_urb

    urb_ro

    text

    Urban runoff

    ov_mann_id

    int

    Overland flow Manning's n

    ovn_table_lum

    tile_id

    int

    Tile drain

    tiledrain_str

    sep_id

    int

    Septic tank

    septic_str

    vfs_id

    int

    Filter strip

    filterstrip_str

    grww_id

    int

    Grassed waterway

    grassedww_str

    bmp_id

    int

    Best management practices

    bmpuser_str

    description

    text

    Optional description of the row

    Month operation takes place

    day

    int

    Day operation takes place

    op_data1

    text

    Dependent on op_typ (see options below)

    op_data2

    text

    op_data3

    real

    Override value

    irrigation

    fert

    fertilizer

    pest

    pesticide application

    graz

    grazing

    burn

    burn

    swep

    street sweep

    prtp

    print plant vars

    skip

    skip to end of the year

    plants_plt

    till

    tillage name

    tillage_til

    irrm

    irrigation operation name

    irr_ops

    fert

    fertilizer name

    fertilizer_frt

    pest

    pesticide name

    pesticide_pst

    graz

    graze operation name

    graze_ops

    burn

    fire operation name

    fire_ops

    swep

    street sweep operation name

    sweep_ops

    prtp

    none

    skip

    none

    harv_ops

    till

    none

    irrm

    none

    fert

    chemical application operation name

    chem_app_ops

    pest

    chemical application operation name

    chem_app_ops

    graz

    none

    burn

    none

    swep

    none

    prtp

    none

    skip

    none

    harv_idx

    real

    Harvest index target specified at harvest

    harv_eff

    real

    Harvest efficiency

    harv_bm_min

    real

    Minimum biomass to allow harvest

    kg/ha

    description

    text

    Optional description

    fert_id

    int

    ID of fertilizer from fertilizer_frt

    bm_eat

    real

    Dry weight of biomass removed by grazing daily

    kg/ha

    0-500

    bm_tramp

    real

    Dry weight of biomass removed by trampling daily

    kg/ha

    0-500

    man_amt

    real

    Dry weight of manure deposited

    kg/ha

    0-500

    grz_bm_min

    real

    Minimum plant biomass for grazing to occur

    kg/ha

    0-5000

    description

    text

    Optional description

    irr_eff

    real

    Irrigation efficiency

    0-1

    surq_rto

    real

    Surface runoff ratio

    0-1

    irr_amt

    real

    Depth of application for subsurface

    mm

    0-100

    irr_salt

    real

    Concentration of salt in irrigation water

    mg/l

    irr_no3n

    real

    Concentration of nitrate in irrigation water

    mg/l

    irr_po4n

    real

    Concentration of phosphate in irrigation water

    mg/l

    description

    text

    Optional description

    app_typ

    text

    Application type: spread, spray, inject, direct

    app_eff

    real

    Application efficiency

    foliar_eff

    real

    Foliar efficiency

    inject_dp

    real

    Injection depth

    mm

    surf_frac

    real

    Surface fraction amount in upper 10mm

    drift_pot

    real

    Drift potential

    aerial_unif

    real

    Aerial uniformity

    description

    text

    Optional description

    Fraction burned

    description

    text

    Optional description

    Fraction of the curb length that is sweep-able

    description

    text

    Optional description

    30-100

    cn_b

    real

    Curve number for hydrologic soil group B

    30-100

    cn_c

    real

    Curve number for hydrologic soil group C

    30-100

    cn_d

    real

    Curve number for hydrologic soil group D

    30-100

    description

    text

    Optional description

    treat

    text

    Treatment/Practice

    cond_cov

    text

    Condition of cover

    Maximum slope length

    description

    text

    Optional description

    Overland flow Manning's n = min

    ovn_max

    real

    Overland flow Manning's n = max

    description

    text

    Optional description

    management_sch_op

    cntable.lum

    cntable_lum

    ovn_table.lum

    ovn_table_lum

    cons_practice.lum

    cons_practice_lum

    SWAT+ Input File

    Database Table

    graze.ops

    graze_ops

    harv.ops

    harv_ops

    irr.ops

    irr_ops

    sweep.ops

    sweep_ops

    fire.ops

    fire_ops

    Field

    Type

    Description

    Related Table

    id

    int

    Auto-assigned identifier

    name

    text

    Name of the land use properties

    cal_group

    text

    Plant Type (in plants_plt)

    Decision Table Template

    warm_annual

    pl_hv_corn

    cold_annual

    pl_hv_wwht

    perennial

    no management schedule

    Field

    Type

    Description

    id

    int

    Auto-assigned identifier

    name

    text

    Name of the schedule

    Field

    Type

    Description

    id

    int

    Auto-assigned identifier

    management_sch_id

    int

    ID of management schedule

    d_table_id

    int

    ID of decision table

    Field

    Type

    Description

    id

    int

    Auto-assigned identifier

    management_sch_id

    int

    ID of management schedule

    op_typ

    text

    Type of operation (see options below)

    mon

    Code

    Description

    plnt

    plant

    harv

    harvest only

    kill

    kill

    hvkl

    harvest and kill

    till

    tillage

    Code

    Value

    Look-up Table

    plnt

    plant name

    plants_plt

    harv

    plant name

    plants_plt

    kill

    plant name

    plants_plt

    hvkl

    Code

    Value

    Look-up Table

    plnt

    none

    harv

    harvest operation name

    harv_ops

    kill

    none

    hvkl

    SWAT+ Input File

    Database Table

    harv.ops

    harv_ops

    Field

    Type

    Description

    Units

    id

    int

    Auto-assigned identifier

    name

    text

    Name of operation

    harv_typ

    text

    SWAT+ Input File

    Database Table

    graze.ops

    graze_ops

    Field

    Type

    Description

    Units

    Range

    id

    int

    Auto-assigned identifier

    name

    text

    Name of operation

    SWAT+ Input File

    Database Table

    irr.ops

    irr_ops

    Field

    Type

    Description

    Units

    Range

    id

    int

    Auto-assigned identifier

    name

    text

    Name of operation

    SWAT+ Input File

    Database Table

    chem_app.ops

    chem_app_ops

    Field

    Type

    Description

    Units

    id

    int

    Auto-assigned identifier

    name

    text

    Name of operation

    chem_form

    text

    SWAT+ Input File

    Database Table

    fire.ops

    fire_ops

    Field

    Type

    Description

    id

    int

    Auto-assigned identifier

    name

    text

    Name of operation

    chg_cn2

    real

    Change in SCS curve number II value

    frac_burn

    SWAT+ Input File

    Database Table

    sweep.ops

    sweep_ops

    Field

    Type

    Description

    id

    int

    Auto-assigned identifier

    name

    text

    Name of operation

    swp_eff

    real

    Removal efficiency of sweeping operation

    frac_curb

    SWAT+ Input File

    Database Table

    cntable.lum

    cntable_lum

    Field

    Type

    Description

    Range

    id

    int

    Auto-assigned identifier

    name

    text

    Name of curve number entry

    cn_a

    real

    SWAT+ Input File

    Database Table

    cons_practice.lum

    cons_practice_lum

    Field

    Type

    Description

    id

    int

    Auto-assigned identifier

    name

    text

    Name of curve number entry

    usle_p

    real

    Usle p factor

    slp_len_max

    SWAT+ Input File

    Database Table

    ovn_table.lum

    ovn_table_lum

    Field

    Type

    Description

    id

    int

    Auto-assigned identifier

    name

    text

    Name of curve number entry

    ovn_mean

    real

    Overland flow Manning's n = mean

    ovn_min

    Example of adding automatic schedules
    Example of adding a plant operation
    Example operations table

    chem_app.ops

    Calibration group

    int

    irrm

    plant name

    harvest operation name

    Harvest type: grain, biomass, residue, tree, or tuber

    Chemical form: liquid or solid

    real

    real

    Curve number for hydrologic soil group A

    real

    real

    Here is where you set your model warm-up period (2-5 years is recommended) and select which type of output to print. If you intend to use SWAT+ Check, be sure all yearly and annual average files are selected. Use the checkboxes in the top row of the table to select all. Click the advanced user options button on the right for more printing options, such as printing output in CSV. This will print CSV files in addition to the text files that are printed by default.

    Collapse the "Choose output to print" section to see the list of run tasks.

    Here is a brief description of each task:

    1. Write input files Translate your data saved from the edit inputs section in your project SQLite database to text files read by SWAT+. Any time you make edits, be sure to keep this box checked to re-write your files.

    2. Run SWAT+ Execute a compiled version of the model.

    3. Analyze output for visualization Read the output text files generated by the model into a SQLite database used for SWAT+ check and the QSWAT+ visualization tool

    If you encounter an error during the model run, check the box to run the debug version (note: debug is only available on Windows) and run the model again. Copy the contents of the output error and see our SWAT+ model user group for help diagnosing the problem.

    src_obs

    number of source objects

    integer

    dmd_obs

    number of demand objects

    integer

    cha_ob

    channel object (enter y=yes there is a channel object; enter n=no channel object (only one per water allocation object)

    string

    hashtag
    Water source objects

    Field

    Description

    Type

    num

    demand object number

    integer

    ob_typ

    object type (channel=cha; reservoir=res; aquifer=aqu; unlimited source=unl)

    string

    ob_num

    number of the object type

    integer

    limit_mon

    hashtag
    Demand objects

    Demand. Demand can be irrigation demand from an hru, municipal demand, or demand to transfer to another source object (channel, reservoir, aquifer). For irrigation demand, the hru number, decision table for triggering irrigation, and irrigation depth (mm) are input. For municipal demand, a muni number is input. The user then has the option to input an average daily demand or a recall name that can be daily, monthly, or annual. For transfer demand, the trans number is input and the user can input an average daily demand or a decision table to specify demand.

    Treatment. Treatment is designed for municipal treatment plants or industrial plants that treat or change the water chemistry. There are 2 options – 1) recall where you can specify the amount of return flow and 2) delivery where you can specify the change in flow and chemistry.

    Receiving. This can be used to return the treated municipal water (point sources) or to transfer (divert) water to other objects. The simple option is the input the return object and number. Or a decision table can be input to condition the diversions to multiple objects. Inputting “lost” assumes the water is diverted out of the basin.

    Source Allocation. The sources are listed in order of selection and the fraction from each source is input. The other input is compensation – if other sources are not available, the current source may be allowed to compensate for the demand. The model goes through all sources in the order listed and allocates based on the fractions. The model loops through the sources again, checking to see if compensation is allowed

    Field

    Description

    Type

    num

    demand object number

    integer

    ob_typ

    hru (for irrigation) or muni (muncipal) or divert (interbasin diversion)

    string

    ob_num

    number of the object type

    integer

    withdr

    hashtag
    SWAT+ Documentation

    Field

    Description

    Type

    name

    name of the water allocation object

    string

    rule_typ

    rule type to allocate water

    string

    minimum monthly values for object type:

    • channel flow (m3/s)

    • minimum reservoir level (fraction principal);

    • maximum aquifer depth (m);

    real

    withdrawal type - average day or recall for muni and divert; irrigation for HRU

    string

    amount

    m3 per day for muni and mm for HRU

    real

    right

    water right (sr=senior; jr=junior)

    string

    treat_typ

    recall for inputting a recall object and treat for a treatment object

    string

    treatment

    pointer to the recall or delivery ratio file

    string

    rcv_ob

    receiving object (channel, reservoir, aquifer) - no decision table, all return to this object

    string

    rcv_num

    receiving object number

    integer

    rcv_dtl

    receiving object decision table - to condition water transfers and diversions

    string

    dmd_src_obs

    number of source objects available for the demand object

    integer

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    Structural Practices | SWAT+ Documentationswatplus.gitbook.iochevron-right
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    Water Allocation | SWAT+ Documentationswatplus.gitbook.iochevron-right
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