### Output of running ModelChainAsyncTutorial.py

Source: https://mysoftware.dnv.com/download/public/renewables/solarfarmer/manuals/latest/WebApi/Tutorials/ModelChainAsyncEndpointTutorial.html

Example output from running the tutorial script. It shows the start time, API version check, input file paths, the POST request to start the calculation, the returned Instance ID, and the first polling response with runtime status Pending.

```text
> python ModelChainAsyncTutorial.py
Start time = 21-07-2022 16:09:49

Checking SF API version
Sending GET request to https://solarfarmer.dnv.com/latest/api/About
{'solarFarmerCoreVersion': '0.2.208.0', 'solarFarmerApiVersion': '0.2.242'}

panFiles = C:\data\PythonTutorials\ModelChainAsync Endpoint\InputsFor3D\CanadianSolar_CS6U-330M_APP.PAN
ondFiles = C:\data\PythonTutorials\ModelChainAsync Endpoint\InputsFor3D\PVP 260KW_NIST.OND
Sending POST request to https://solarfarmer.dnv.com/latest/api/modelchainasync
Instance ID returned = f24d771c933c45448dbf8f5fee3c26cb
1: Time: 0:00:02  Run status: Pending   Custom status: Custom status not received  No progress returned
```

--------------------------------

### Example output from running the Service endpoint script

Source: https://mysoftware.dnv.com/download/public/renewables/solarfarmer/manuals/latest/WebApi/Tutorials/ServiceEndpointTutorial.html

Example output showing the response from the Service endpoint when the script is run successfully. It lists the number of services returned and their names.

```text
Calling https://solarfarmer.dnv.com/latest/api/service
2 service(s) returned:
ModelChain2D
ModelChain3D

```

--------------------------------

### SystemAttributes Example Output

Source: https://mysoftware.dnv.com/download/public/renewables/solarfarmer/manuals/latest/WebApi/Endpoints/ModelChainEndpoint.html

Example JSON output for the SystemAttributes property, detailing location, capacity, and version information.

```json
{
  "location": {
    "longitude": -2.579543,
    "latitude": 51.452176,
    "altitude": 31.0
  },
  "acCapacityInMegawatts": 24.7,
  "dcCapacityInMegawatts": 30.096,
  "is3D": false,
  "mounting": "Single-axis trackers",
  "solarFarmerCoreVersion": "0.2.197.0",
  "solarFarmerApiVersion": "0.2.223"
}
```

--------------------------------

### Install SolarFarmer SDK via pip

Source: https://mysoftware.dnv.com/download/public/renewables/solarfarmer/manuals/latest/WebApi/PythonSDK/SdkIntroduction.html

Use this command to install the SolarFarmer Python SDK package from PyPI.

```bash
pip install dnv-solarfarmer
```

--------------------------------

### Toolbox.Import

Source: https://mysoftware.dnv.com/download/public/renewables/solarfarmer/manuals/latest/api/Scripting.Toolbox.html

Gets the import functionality.

```APIDOC
## Property: Import

### Description
Gets the import functionality.

### Declaration
public static Import Import { get; }

### Property Value
- **Type**: Import
- **Description**: The import functionality.
```

--------------------------------

### Pagination and ordering example: page 3, ordered by pNom descending

Source: https://mysoftware.dnv.com/download/public/renewables/solarfarmer/manuals/latest/WebApi/RclApi/RclEndpoint.html

Example URL for requesting page 3 of 25-item pages, ordered by power rating descending. Uses the top, skip, orderBy, and orderDir query parameters.

```http
GET /catalog/modules?**top=25&skip=50&orderBy=pNom&orderDir=DESC**
```

--------------------------------

### Example response for paginated and ordered catalog modules request

Source: https://mysoftware.dnv.com/download/public/renewables/solarfarmer/manuals/latest/WebApi/RclApi/RclEndpoint.html

Example response from the catalog modules endpoint when using pagination and ordering parameters. The response includes the items array and the total, skip, and top fields that indicate the data window.

```json
{
  "items": [
    { "manufacturer": "Canadian Solar Inc.",  "model": "CS6U-325P", "pNom": 325, ... },
    { "manufacturer": "Canadian Solar Inc.",  "model": "CS6U-330M", "pNom": 330, ... },
    { "manufacturer": "Canadian Solar Inc.",  "model": "CS6U-330P", "pNom": 330, ... },
    { "manufacturer": "Canadian Solar Inc.",  "model": "CS6U-335M", "pNom": 335, ... },
    { "manufacturer": "Canadian Solar Inc.",  "model": "CS6U-335P", "pNom": 335, ... }
  ],
  "total": 122,
  "skip": 10,
  "top": 5
}

```

--------------------------------

### ModelChain tutorial console output

Source: https://mysoftware.dnv.com/download/public/renewables/solarfarmer/manuals/latest/WebApi/Tutorials/ModelChainEndpointTutorial.html

Example console output from running the tutorial script for a fixed-tilt site. It shows the POST request, success message, annual energy yield totals, and the paths of the five output files written to the Outputs folder.

```text
Sending POST request to https://solarfarmer.dnv.com/latest/api/ModelChain...
Request has returned...
SUCCESS: Calculation returned successfully
Energy yield results totals for year:
{
 "recordCount": 8760,
 "percentComplete": 99.99999999999983,
 "averageTemperature": 10.607920426907318,
 "ghi": 1192.7340000000002,
 "gi": 1373.3998258765,
 "giWithHorizon": 1373.3998258765307,
 "gainOnTiltedPlane": 0.15147201796589194,
 "globalEffectiveIrradiance": 1298.0776775552472,
 "modulePower": 556298.973838618,
 "modulePowerAtSTC": 578368.4783728,
 "nominalEnergy": 578293.605350863,
 "pdc": 535663.7904797235,
 "pac": 519353.412220547,
 "performanceRatio": 0.8218792979786185,
 "netEnergy": 502.86653814906,
 "energyYield": 1128.7688847353597
}
Saved annual energy yield results to C:\Temp\Tutorials\Outputs\AnnualEnergyResults.json
Sum EOutInv column in PVsyst format results to get total AC annual energy: 519353.579879 kWh
Saved PVsyst results file to C:\Temp\Tutorials\Outputs\PVsystResults.csv
Saved timeseries results file to C:\Temp\Tutorials\Outputs\TimeSeriesResults.tsv
Saved loss tree results file to C:\Temp\Tutorials\Outputs\LossTreeResults.tsv
Saved system attributes to C:\Temp\Tutorials\Outputs\System attributes.json
```

--------------------------------

### YearRange.StartYear Property

Source: https://mysoftware.dnv.com/download/public/renewables/solarfarmer/manuals/latest/api/Scripting.YearRange.html

Gets or sets the start year of the range.

```APIDOC
## StartYear Property

### Description
Gets or sets the start year of the range.

### Declaration
public int StartYear { get; set; }

### Property Value
Type: System.Int32

### Remarks
None
```

--------------------------------

### YieldResults.StartTime Property

Source: https://mysoftware.dnv.com/download/public/renewables/solarfarmer/manuals/latest/api/Scripting.YieldResults.html

Gets or sets the start time of the yield results.

```APIDOC
## YieldResults.StartTime

### Description
Gets or sets the start time of the yield results.

### Declaration
```csharp
public DateTime StartTime { get; set; }
```

### Property Value
| Type | Description |
|------|-------------|
| System.DateTime | The start time. |

```

--------------------------------

### Property StartTimeStamp

Source: https://mysoftware.dnv.com/download/public/renewables/solarfarmer/manuals/latest/api/Scripting.TrackerAlgorithmSummaryPeriod.html

Gets or sets the start timestamp of the summary period.

```APIDOC
## Property StartTimeStamp

### Description
Gets or sets the start timestamp of the summary period.

### Declaration
```
public DateTime StartTimeStamp { get; set; }
```

### Property Value
- **Type**: System.DateTime
- **Description**: The start timestamp.
```

--------------------------------

### SolarFarmer RCL API tutorial script output

Source: https://mysoftware.dnv.com/download/public/renewables/solarfarmer/manuals/latest/WebApi/RclApi/RclEndpointTutorial.html

Example output from running the SolarFarmer RCL API tutorial script. Shows the catalog query response, download endpoint call, first 100 bytes of the downloaded file, and the remaining download count. The actual library contents, downloads remaining, and reset date will differ.

```text
Calling: https://solarfarmer.dnv.com/rcl/catalog/inverters?top=3
Response received successfully.

90 of 100 downloads remaining.  Resets: 2026-08-05 01:00:00

Number of items returned = 3
fileUuid of first item: 01e5ef3a-0d17-56eb-bff6-4bfa54476e9e
filename of first item: "ABB_TRIO-60.0-TL-OUTD-480_APP01.OND"

Calling download endpoint: https://solarfarmer.dnv.com/rcl/catalog/01e5ef3a-0d17-56eb-bff6-4bfa54476e9e
Response from download received successfully.
First 100 bytes of downloaded file content:
b'PVObject_=pvGInverter\n  Comment=ABB\tABB_TRIO-60.0-TL-OUTD-480_APP01\tDatasheet  EN Rev. G 02.03.2017\n'

89 of 100 downloads remaining.  Resets: 2026-08-05 01:00:00
Downloaded file saved as: "ABB_TRIO-60.0-TL-OUTD-480_APP01.OND"

```

--------------------------------

### Toolbox.GetElevationProfileStatistics

Source: https://mysoftware.dnv.com/download/public/renewables/solarfarmer/manuals/latest/SfScripting/CodeSnippets/Maps/ElevationProfileTool.html

Gets the elevation profile statistics along a line defined by start and end points in workbook coordinates. Returns an ElevationProfileStatistics object.

```APIDOC
## Toolbox.GetElevationProfileStatistics

### Description
Gets the elevation profile statistics (in the workbook coordinates projection) along the line from startPoint to endPoint. Returns an ElevationProfileStatistics object.

### Method
Function call

### Signature
ElevationProfileStatistics Toolbox.GetElevationProfileStatistics (
    IReadable2DLocation startPoint, // in the workbook local projection
    IReadable2DLocation endPoint, // in the workbook local projection
    double maxSlopeThatIsConsideredFlat = 0.0);

### Parameters
- **startPoint** (IReadable2DLocation) - Required - The start point (in workbook coordinates).
- **endPoint** (IReadable2DLocation) - Required - The end point (in workbook coordinates).
- **maxSlopeThatIsConsideredFlat** (double) - Optional - The maximum absolute slope value that is considered flat (defaults to 0.0).

### Returns
ElevationProfileStatistics object for the elevation profile along the line.
```

--------------------------------

### Run SolarFarmer with command-line arguments

Source: https://mysoftware.dnv.com/download/public/renewables/solarfarmer/manuals/latest/UserGuide/HintsAndTips/RunSolarFarmerFromCommandLine.html

Example command to open a workbook, execute a script, and close the application in invisible mode without a splash screen.

```bash
GH.SolarFarmer.exe -open "C:\Workbooks\My workbook.sfw" -run MyScript ^
    -close -invisible -nosplash
```

--------------------------------

### Calculate and Log Elevation Profile Statistics

Source: https://mysoftware.dnv.com/download/public/renewables/solarfarmer/manuals/latest/SfScripting/CodeSnippets/Maps/ElevationProfileTool.html

This example demonstrates how to use Toolbox methods to calculate elevation statistics from two points and log the results using a helper method.

```csharp
public void Execute()
{
    // Use start and end points in the Workbook projection (e.g. UTM)
    Location startPointInWorkbookProjection = new Location(3564093.6, 2065754.3);
    Location endPointInWorkbookProjection = new Location(3564528.2, 2065414.5);
    ElevationProfileStatistics statistics = Toolbox.GetElevationProfileStatistics(
        startPointInWorkbookProjection, endPointInWorkbookProjection);
    Toolbox.Log("--- Summary of statistics when getting the statistics from two points in the"
        + " workbook projection");
    OutputStatisticsSummary(statistics);

    // Use start and end points in latitude/longitude (WGS84) format
    // (don't forget when creating a Location, use the longitude (x) and latitude (y)
    Location startPointInLatLong = new Location(-77.752087, 38.252560);
    Location endPointInLatLong = new Location(-77.7566312, 38.254795);
    ElevationProfileStatistics statistics2 =
        Toolbox.GetElevationProfileStatisticsForLatLonPoints(
            startPointInLatLong, endPointInLatLong);
    Toolbox.Log("--- Summary of statistics when getting the statistics from two points in "
        + " latitude/longitude");
    OutputStatisticsSummary(statistics2);
}

private void OutputStatisticsSummary(ElevationProfileStatistics statistics)
{
    Toolbox.Log(string.Format(
        "Plan view distance: {0:0.##} m", statistics.PlanViewDistance));
    Toolbox.Log(string.Format("Max up slope: {0:0.##} %", statistics.MaxUpSlope));
    Toolbox.Log(string.Format("Max down slope: {0:0.##} %", statistics.MaxDownSlope));
    Toolbox.Log(string.Format("Average up slope: {0:0.##} %", statistics.AverageUpSlope));
    Toolbox.Log(string.Format(
        "Average down slope: {0:0.##} %", statistics.AverageDownSlope));
    Toolbox.Log(string.Format(
        "Net elevation gain: {0:0.##} m", statistics.NetElevationGain));
    Toolbox.Log(string.Format(
        "Point 15 slope: {0:0.##} %", statistics.SamplePoints[15].SlopeAtPoint));
    Toolbox.Log(string.Format(
        "Point 15 dist from start: {0:0.##} m",
        statistics.SamplePoints[15].DistanceFromStart));
    Toolbox.Log(string.Format(
        "Point 15 elevation: {0:0.##} m", statistics.SamplePoints[15].ElevationAtPoint));
}
```

--------------------------------

### ProblemDetails validation error example

Source: https://mysoftware.dnv.com/download/public/renewables/solarfarmer/manuals/latest/WebApi/Tutorials/ModelChainEndpointTutorial.html

Example of a ProblemDetails structure returned when a validation error occurs, such as adding an extraOption property that doesn't exist. The errors property contains a list of validation messages.

```json
{
    "type": "https: //tools.ietf.org/html/rfc7231#section-6.5.1",
    "title": "One or more validation errors occurred.",
    "status": 400,
    "traceId": "00-df8191bbcb0ca7829adfcf0c7632f208-03b5f2e811862f07-00",
    "errors": {
        "JSON Validation Error": [
            "JSON validation issue: NoAdditionalPropertiesAllowed, Line number 1, Position 2970, Property: extraOption, Path: #/EnergyCalculationOptions.extraOption"
        ]
    }
}
```

--------------------------------

### Download equipment file from RCL catalog with Python

Source: https://mysoftware.dnv.com/download/public/renewables/solarfarmer/manuals/latest/WebApi/RclApi/RclEndpointTutorial.html

The first block is the main Python script that queries the RCL catalog for the top 3 inverters, prints rate limit info, and downloads the first equipment file using its fileUuid. The second block is the line to replace with your own API token before running the script. Running this tutorial consumes one download from your monthly allowance.

```python
import requests
import json as json_module
from datetime import datetime

rcl_api_base_url = 'https://solarfarmer.dnv.com/rcl'
catalog_url = f'{rcl_api_base_url}/catalog'
catalog_modules_url = f'{catalog_url}/modules'
catalog_inverters_url = f'{catalog_url}/inverters'
api_token = 'ENTER YOUR API TOKEN HERE!!!'
headers = {'Authorization': f'Bearer {api_token}'}

def print_rate_limit_info(response):
    """
    Extracts and prints the rate limit information from the HTTP response headers.
    """
    rate_limit_remaining = response.headers.get('x-ratelimit-remaining')
    rate_limit_limit = response.headers.get('x-ratelimit-limit')
    rate_limit_reset = response.headers.get('x-ratelimit-reset')

    # Convert the rate limit reset time to a human-readable format
    rate_limit_reset_time = datetime.fromtimestamp(int(rate_limit_reset)).strftime('%Y-%m-%d %H:%M:%S') if rate_limit_reset else 'N/A'
    print(f"\n{rate_limit_remaining} of {rate_limit_limit} downloads remaining.  Resets: {rate_limit_reset_time}") 

def download_equipment_file(fileUuid, file_name, print_start_of_file=True):
    """
    Downloads a file from the catalog using its fileUuid and saves it to disk with the given file_name.
    Note that this will use one of your download limit.
    """
    download_url = f'{catalog_url}/{fileUuid}'
    print(f"\nCalling download endpoint: {download_url}")

    try:
        download_response = requests.get(download_url, headers={'Authorization': f'Bearer {api_token}'})
        download_response.raise_for_status()  # Raise an exception for HTTP errors
        print("Response from download received successfully.")

        # The downloaded file content is in download_response.content. You can save it to a file if needed.
        # For demonstration, we'll just print the first 100 bytes of the content.
        if print_start_of_file:
            print(f"First 100 bytes of downloaded file content:\n{download_response.content[:100]}")

        # Print rate limit info for the download response as well
        print_rate_limit_info(download_response)

        # Save the downloaded file to disk (saves the bytes of the file directly).
        with open(file_name, 'wb') as f:
            f.write(download_response.content)
            print(f'Downloaded file saved as: "{file_name}"')

    except Exception as exc:
        print(f"Exception thrown when downloading {download_url} and saving to {file_name}")
        print(str(exc))

try:
    top_3_inverters_url = f'{catalog_inverters_url}?top=3'

    print(f"Calling: {top_3_inverters_url}")
    response = requests.get(top_3_inverters_url, headers=headers)
    response.raise_for_status()  # Raise an exception for HTTP errors
    print("Response received successfully.")

    # Print the rate limit information from the response headers
    print_rate_limit_info(response)

    # Extract the 'items' list from the JSON response and print the number of items
    json = response.json()
    items = json.get('items', [])
    item_count = len(items)
    print(f"\nNumber of items returned = {item_count}")
    if item_count > 0:
        # Extract 'fileUuid' and 'filename' from the first item in the list
        first_item = items[0]
        fileUuid = first_item.get('fileUuid')
        file_name = first_item.get('filename')
        print(f"fileUuid of first item: {fileUuid}")
        print(f'filename of first item: "{file_name}"')

        # Call the download_equipment_file function to download the file using
        # its fileUuid and save it with the given filename
        download_equipment_file(fileUuid, file_name, print_start_of_file=True)            

except Exception as exc:
    print(f"Exception thrown when calling {top_3_inverters_url}")
    print(str(exc))


```

```python
api_token = 'ENTER YOUR API TOKEN HERE!!!'


```

--------------------------------

### Convert Unix timestamp to DateTime in C# and Python

Source: https://mysoftware.dnv.com/download/public/renewables/solarfarmer/manuals/latest/WebApi/RclApi/RclEndpoint.html

Convert the Unix timestamp from the x-ratelimit-reset header into a DateTime object. The C# example uses DateTimeOffset.FromUnixTimeSeconds and the Python example uses datetime.fromtimestamp with UTC timezone.

```csharp
DateTime resetDateTimeUtc = DateTimeOffset.FromUnixTimeSeconds(unixSeconds).UtcDateTime;

```

```python
from datetime import datetime, timezone

dt = datetime.fromtimestamp(unixSeconds, tz=timezone.utc)
print(dt)

```

--------------------------------

### Module string and index output example

Source: https://mysoftware.dnv.com/download/public/renewables/solarfarmer/manuals/latest/SfScripting/CodeSnippets/SetUpWorkbook/Layout.html

This output shows the structure of module string data, including the inverter input, module string index, RackID, and X/Y indices within the rack.

```text
InvInput: 0, number of module strings = 13
ModuleString: 0, moduleIndex RackID: 49833, XIndexInRack = 9, YIndexInRack = 0
ModuleString: 0, moduleIndex RackID: 49833, XIndexInRack = 8, YIndexInRack = 0
ModuleString: 0, moduleIndex RackID: 49833, XIndexInRack = 7, YIndexInRack = 0
ModuleString: 0, moduleIndex RackID: 49833, XIndexInRack = 6, YIndexInRack = 0
ModuleString: 0, moduleIndex RackID: 49833, XIndexInRack = 5, YIndexInRack = 0
ModuleString: 0, moduleIndex RackID: 49833, XIndexInRack = 4, YIndexInRack = 0
ModuleString: 0, moduleIndex RackID: 49833, XIndexInRack = 3, YIndexInRack = 0
ModuleString: 0, moduleIndex RackID: 49833, XIndexInRack = 2, YIndexInRack = 0
ModuleString: 1, moduleIndex RackID: 49833, XIndexInRack = 9, YIndexInRack = 1
ModuleString: 1, moduleIndex RackID: 49833, XIndexInRack = 8, YIndexInRack = 1
ModuleString: 1, moduleIndex RackID: 49833, XIndexInRack = 7, YIndexInRack = 1
ModuleString: 1, moduleIndex RackID: 49833, XIndexInRack = 6, YIndexInRack = 1
ModuleString: 1, moduleIndex RackID: 49833, XIndexInRack = 5, YIndexInRack = 1
ModuleString: 1, moduleIndex RackID: 49833, XIndexInRack = 4, YIndexInRack = 1
ModuleString: 1, moduleIndex RackID: 49833, XIndexInRack = 3, YIndexInRack = 1
ModuleString: 1, moduleIndex RackID: 49833, XIndexInRack = 2, YIndexInRack = 1
ModuleString: 2, moduleIndex RackID: 49833, XIndexInRack = 9, YIndexInRack = 2
ModuleString: 2, moduleIndex RackID: 49833, XIndexInRack = 8, YIndexInRack = 2
ModuleString: 2, moduleIndex RackID: 49833, XIndexInRack = 7, YIndexInRack = 2
ModuleString: 2, moduleIndex RackID: 49833, XIndexInRack = 6, YIndexInRack = 2
ModuleString: 2, moduleIndex RackID: 49833, XIndexInRack = 5, YIndexInRack = 2
ModuleString: 2, moduleIndex RackID: 49833, XIndexInRack = 4, YIndexInRack = 2
ModuleString: 2, moduleIndex RackID: 49833, XIndexInRack = 3, YIndexInRack = 2
ModuleString: 2, moduleIndex RackID: 49833, XIndexInRack = 2, YIndexInRack = 2
ModuleString: 3, moduleIndex RackID: 49833, XIndexInRack = 1, YIndexInRack = 0
ModuleString: 3, moduleIndex RackID: 49833, XIndexInRack = 0, YIndexInRack = 0
ModuleString: 3, moduleIndex RackID: 49832, XIndexInRack = 9, YIndexInRack = 0
ModuleString: 3, moduleIndex RackID: 49832, XIndexInRack = 8, YIndexInRack = 0
ModuleString: 3, moduleIndex RackID: 49832, XIndexInRack = 7, YIndexInRack = 0
ModuleString: 3, moduleIndex RackID: 49832, XIndexInRack = 6, YIndexInRack = 0
ModuleString: 3, moduleIndex RackID: 49832, XIndexInRack = 5, YIndexInRack = 0
ModuleString: 3, moduleIndex RackID: 49832, XIndexInRack = 4, YIndexInRack = 0
ModuleString: 4, moduleIndex RackID: 49833, XIndexInRack = 1, YIndexInRack = 1
ModuleString: 4, moduleIndex RackID: 49833, XIndexInRack = 0, YIndexInRack = 1
ModuleString: 4, moduleIndex RackID: 49832, XIndexInRack = 9, YIndexInRack = 1
ModuleString: 4, moduleIndex RackID: 49832, XIndexInRack = 8, YIndexInRack = 1
ModuleString: 4, moduleIndex RackID: 49832, XIndexInRack = 7, YIndexInRack = 1
ModuleString: 4, moduleIndex RackID: 49832, XIndexInRack = 6, YIndexInRack = 1
ModuleString: 4, moduleIndex RackID: 49832, XIndexInRack = 5, YIndexInRack = 1
...
```

--------------------------------

### Example Output for Rack Coordinates

Source: https://mysoftware.dnv.com/download/public/renewables/solarfarmer/manuals/latest/SfScripting/CodeSnippets/SetUpWorkbook/Layout.html

This block shows the expected log output format for the rack corner coordinates retrieved by the previous code snippet.

```text
Rack: ID=49833
  P1 = 300602.76, 4661576.81, 78.00
  P2 = 300602.76, 4661581.62, 81.38
  P3 = 300592.84, 4661581.62, 81.38
  P4 = 300592.84, 4661576.81, 78.00

Rack: ID=49832
  P1 = 300612.78, 4661576.81, 78.00
  P2 = 300612.78, 4661581.62, 81.38
  P3 = 300602.86, 4661581.62, 81.38
  P4 = 300602.86, 4661576.81, 78.00

Rack: ID=49831
  P1 = 300622.80, 4661576.81, 78.00
  P2 = 300622.80, 4661581.62, 81.38
  P3 = 300612.88, 4661581.62, 81.38
  P4 = 300612.88, 4661576.81, 78.00

Rack: ID=49830
  P1 = 300632.82, 4661576.81, 78.00
  P2 = 300632.82, 4661581.62, 81.38
  P3 = 300622.90, 4661581.62, 81.38
  P4 = 300622.90, 4661576.81, 78.00
```

--------------------------------

### Toolbox.Reporting

Source: https://mysoftware.dnv.com/download/public/renewables/solarfarmer/manuals/latest/api/Scripting.Toolbox.html

Gets the reporting functionality.

```APIDOC
## Property: Reporting

### Description
Gets the reporting functionality.

### Declaration
public static Reporting Reporting { get; }

### Property Value
- **Type**: Reporting
- **Description**: The reporting functionality.
```

--------------------------------

### 3D PVPlant with InverterInputs and ModuleStrings

Source: https://mysoftware.dnv.com/download/public/renewables/solarfarmer/manuals/latest/WebApi/Endpoints/ModelChainAsyncEndpoint.html

Example of a 3D plant configuration with a transformer, an inverter, and module strings on the inverter. The Inverter object has an empty Layouts property, and the InverterInputs property contains ModuleStrings with ModuleIndexRange objects defining the string layout on racks/trackers.

```json
  "PVPlant": {
    "Transformers": [
      {
        "TransformerSpecID": "Transformer Specification 1",
        "TransformerCount": 1,
        "Inverters": [
          {
            "Name": "PV Powered PVP 260KW_NIST",
            "InverterSpecID": "PVP 260KW_NIST",
            "InverterCount": 1,
            "Layouts": [],
            "InverterInputs": [
              {
                "ModuleSpecificationID": "CanadianSolar_CS6U-330M_APP",
                "ModuleStrings": [
                  {
                    "ModuleIndexRanges": [
                      {
                        "MountingID": 11137,
                        "StartX": 11,
                        "EndX": 0,
                        "Y": 0
                      }
                    ]
                  },
                  {
                    "ModuleIndexRanges": [
                      {
                        "MountingID": 11137,
                        "StartX": 11,
                        "EndX": 0,
                        "Y": 1
                      }
                    ]
                  },


```

--------------------------------

### Configure EnergyCalculationOptions

Source: https://mysoftware.dnv.com/download/public/renewables/solarfarmer/manuals/latest/WebApi/Endpoints/ModelChainEndpoint.html

Example of the required EnergyCalculationOptions object used to define the parameters for the energy calculation.

```json
  "EnergyCalculationOptions": {
    "CalculationYear": 2017,
    "DefaultWindSpeed": 0.0,
    "CalculateDHI": false,
    "IncludeHorizon": false,
    "DiffuseModel": "Perez",
    "TreatCircumsolarAsDirect": false,
    "UseMostShadedCellForDiffuse": false,
    "ModelBackRowSeparately": true,
    "ApplyIAM": true,
    "ApplySpectralMismatchModifier": false,
    "IncludeModulePerformance": true,
    "IncludeCellTemperatureModel": true,
    "IncludeSoilingLossInTemperatureModel": true,
    "UseIAMForTemperatureModel": false,
    "IncludeArrayIV": true,
    "IncludeInverterModel": true,
    "IncludeACModel": true,
    "GridAvailabilityLoss": 0.017,
    "AddTareLossToInverterEfficiencyModel": true,
    "IgnoreLowPowerPointInEfficiencyData": false,
    "ReturnPvSystFormatTimeSeriesResults": true,
    "ReturnDetailedTimeSeriesResults": false,
    "ReturnLossTreeTimeSeriesResults": false
  },
```

--------------------------------

### Toolbox.GeoSpatial

Source: https://mysoftware.dnv.com/download/public/renewables/solarfarmer/manuals/latest/api/Scripting.Toolbox.html

Gets the geospatial functionality.

```APIDOC
## Property: GeoSpatial

### Description
Gets the geospatial functionality.

### Declaration
public static GeoSpatial GeoSpatial { get; }

### Property Value
- **Type**: GeoSpatial
- **Description**: The geospatial functionality.
```

--------------------------------

### Toolbox.Export

Source: https://mysoftware.dnv.com/download/public/renewables/solarfarmer/manuals/latest/api/Scripting.Toolbox.html

Gets the export functionality.

```APIDOC
## Property: Export

### Description
Gets the export functionality.

### Declaration
public static Export Export { get; }

### Property Value
- **Type**: Export
- **Description**: The export functionality.
```

--------------------------------

### Ping command to test license server connectivity

Source: https://mysoftware.dnv.com/download/public/renewables/solarfarmer/manuals/latest/UserGuide/Introduction/DesktopLicensing.html

Run this command in a command prompt (cmd.exe) to verify that a machine can be used as a license server. Replace myLicenseServerMachineName with the machine name or IP address. Successful replies indicate the machine is reachable.

```bash
ping myLicenseServerMachineName 

```

--------------------------------

### Temperature.InCelsius

Source: https://mysoftware.dnv.com/download/public/renewables/solarfarmer/manuals/latest/api/Scripting.Temperature.html

Gets the temperature in celsius.

```APIDOC
## Temperature.InCelsius

### Description
Gets the temperature in celsius.

### Declaration
public readonly double InCelsius { get; }

### Property Value
- **Type**: System.Double

```

--------------------------------

### RackInstanceInfos

Source: https://mysoftware.dnv.com/download/public/renewables/solarfarmer/manuals/latest/api/Scripting.LayoutBoundary.html

Gets the rack instance infos for the SiteLayout.

```APIDOC
## RackInstanceInfos

### Description
Gets the rack instance infos for the SiteLayout.

### Declaration
```csharp
public IEnumerable<RackInstanceInfo> RackInstanceInfos { get; }
```

### Property Value
| Type | Description |
|------|-------------|
| System.Collections.Generic.IEnumerable<RackInstanceInfo> | The rack instance infos. |

```

--------------------------------

### Import PAN file for PV modules

Source: https://mysoftware.dnv.com/download/public/renewables/solarfarmer/manuals/latest/SfScripting/CodeSnippets/SetUpWorkbook/Components.html

Loads a PAN file and adds the module specification to the workbook using Toolbox.Import.ImportPANModuleSpecificationFileIntoWorkbook.

```csharp
// Load a PAN file and add the module specification to the workbook
const string panFilePath = @"C:\Data\Components\CanadianSolar_CS6U-330M_APP.PAN";
Toolbox.Import.ImportPANModuleSpecificationFileIntoWorkbook(panFilePath);

```

--------------------------------

### Pitch

Source: https://mysoftware.dnv.com/download/public/renewables/solarfarmer/manuals/latest/api/Scripting.SpacingZone.html

Gets or sets the pitch.

```APIDOC
## Pitch

### Description
Gets or sets the pitch.

### Declaration
```csharp
public double Pitch { get; set; }
```

### Property Value
| Type | Description |
|------|-------------|
| System.Double | The pitch. |

```

--------------------------------

### YieldResults.GetHashCode()

Source: https://mysoftware.dnv.com/download/public/renewables/solarfarmer/manuals/latest/api/Scripting.YieldResults.html

Gets the hash code for this object.

```APIDOC
## YieldResults.GetHashCode()

### Description
Gets the hash code for this object.

### Declaration
```csharp
public override int GetHashCode()
```

### Returns
| Type | Description |
|------|-------------|
| System.Int32 | The hash code for this object. |

### Overrides
System.Object.GetHashCode()

```

--------------------------------

### Run energy calculation with current settings

Source: https://mysoftware.dnv.com/download/public/renewables/solarfarmer/manuals/latest/SfScripting/CodeSnippets/Calculation/RunEnergyCalculation.html

Runs the energy calculation using the current site layout, solar resource, and horizon data from the calculation settings. The scenario name is passed as the first argument.

```csharp
EnergyYieldCalculationScenario scenario = Toolbox.ExecuteEnergyCalculation(
    "Scenario 1",
    Workbook.CalculationSettings.SolarResource,
    Workbook.CalculationSettings.SiteLayout,
    Workbook.CalculationSettings.HorizonData);

```

--------------------------------

### Toolbox.TrackerImport

Source: https://mysoftware.dnv.com/download/public/renewables/solarfarmer/manuals/latest/api/Scripting.Toolbox.html

Gets the tracker import functionality.

```APIDOC
## Property: TrackerImport

### Description
Gets the tracker import functionality.

### Declaration
public static TrackerImport TrackerImport { get; }

### Property Value
- **Type**: TrackerImport
- **Description**: The tracker import functionality.
```

--------------------------------

### SiteLayout()

Source: https://mysoftware.dnv.com/download/public/renewables/solarfarmer/manuals/latest/api/Scripting.SiteLayout.html

Creates an instance of the SiteLayout class.

```APIDOC
## SiteLayout()

### Description
Creates an instance of the SiteLayout class.

### Method
Constructor

### Declaration
```
public SiteLayout()
```

```

--------------------------------

### Toolbox.GeometryToolkit

Source: https://mysoftware.dnv.com/download/public/renewables/solarfarmer/manuals/latest/api/Scripting.Toolbox.html

Gets the geometry toolkit functionality.

```APIDOC
## Property: GeometryToolkit

### Description
Gets the geometry toolkit functionality.

### Declaration
public static GeometryToolkit GeometryToolkit { get; }

### Property Value
- **Type**: GeometryToolkit
- **Description**: The geometry toolkit functionality.
```

--------------------------------

### Print monthly albedo values to log using Toolbox.Log

Source: https://mysoftware.dnv.com/download/public/renewables/solarfarmer/manuals/latest/SfScripting/CodeSnippets/SetUpWorkbook/Climate.html

Iterates over the MonthlyAlbedoValues collection and logs each month and its albedo value using Toolbox.Log. Useful for verifying the configured monthly albedo values.

```csharp
// Print out the monthly albedo values to the log
foreach (MonthlyAlbedo monthlyAlbedo in Workbook.Domain.Geography.MonthlyAlbedoValues)
{
    Toolbox.Log(string.Format("Month = {0}, Value = {1}", 
        monthlyAlbedo.Month, monthlyAlbedo.AlbedoValue));
}

```

--------------------------------

### TimeZoneName

Source: https://mysoftware.dnv.com/download/public/renewables/solarfarmer/manuals/latest/api/Scripting.SolarResource.html

Gets or sets the name of the timezone.

```APIDOC
## TimeZoneName

### Description
Gets or sets the name of the timezone.

### Declaration
```
public string TimeZoneName { get; set; }
```

### Property Value
- **Type**: System.String

```

--------------------------------

### PitchModel

Source: https://mysoftware.dnv.com/download/public/renewables/solarfarmer/manuals/latest/api/Scripting.SpacingZone.html

Gets or sets the pitch model.

```APIDOC
## PitchModel

### Description
Gets or sets the pitch model.

### Declaration
```csharp
public LayoutParamsPitchModel PitchModel { get; set; }
```

### Property Value
| Type | Description |
|------|-------------|
| LayoutParamsPitchModel | The pitch model. |

```

--------------------------------

### Initialise()

Source: https://mysoftware.dnv.com/download/public/renewables/solarfarmer/manuals/latest/api/Scripting.CustomDateTimeTrackerPositionAlgorithmBase.html

Performs any initialization before any tracker positions are calculated. Override in the derived class.

```APIDOC
## Initialise()

### Description
Performs any initialization before any tracker positions are calculated. Override in the derived class.

### Method
Initialise

### Parameters
None

### Returns
System.Boolean - `true` if initialization succeeds; otherwise `false` if an error occurred.
```

--------------------------------

### TrackerLayoutParameters

Source: https://mysoftware.dnv.com/download/public/renewables/solarfarmer/manuals/latest/api/Scripting.LayoutBoundary.html

Gets the tracker layout parameters.

```APIDOC
## TrackerLayoutParameters

### Description
Gets the tracker layout parameters.

### Declaration
```csharp
public TrackerLayoutParameters TrackerLayoutParameters { get; }
```

### Property Value
| Type | Description |
|------|-------------|
| TrackerLayoutParameters | The tracker layout parameters. |

```

--------------------------------

### Constructor TrackerAlgorithmSummaryPeriod()

Source: https://mysoftware.dnv.com/download/public/renewables/solarfarmer/manuals/latest/api/Scripting.TrackerAlgorithmSummaryPeriod.html

Creates an instance of the TrackerAlgorithmSummaryPeriod class.

```APIDOC
## Constructor TrackerAlgorithmSummaryPeriod()

### Description
Creates an instance of the TrackerAlgorithmSummaryPeriod class.

### Declaration
```
public TrackerAlgorithmSummaryPeriod()
```

### Parameters
None.

### Returns
A new instance of the TrackerAlgorithmSummaryPeriod class.
```

--------------------------------

### Setback

Source: https://mysoftware.dnv.com/download/public/renewables/solarfarmer/manuals/latest/api/Scripting.LayoutBoundary.html

Gets or sets the setback distance.

```APIDOC
## Setback

### Description
Gets or sets the setback distance.

### Declaration
```csharp
public double Setback { get; set; }
```

### Property Value
| Type | Description |
|------|-------------|
| System.Double | The setback distance. |

```

--------------------------------

### RackLayoutParameters

Source: https://mysoftware.dnv.com/download/public/renewables/solarfarmer/manuals/latest/api/Scripting.LayoutBoundary.html

Gets the rack layout parameters.

```APIDOC
## RackLayoutParameters

### Description
Gets the rack layout parameters.

### Declaration
```csharp
public RackLayoutParameters RackLayoutParameters { get; }
```

### Property Value
| Type | Description |
|------|-------------|
| RackLayoutParameters | The rack layout parameters. |

```

--------------------------------

### Domain()

Source: https://mysoftware.dnv.com/download/public/renewables/solarfarmer/manuals/latest/api/Scripting.Domain.html

Initializes a new instance of the Domain class.

```APIDOC
## Domain()

### Description
Creates an instance of the Domain class.

### Declaration
```csharp
public Domain()
```

```

--------------------------------

### Initialize Layout Parameters

Source: https://mysoftware.dnv.com/download/public/renewables/solarfarmer/manuals/latest/SfScripting/CodeSnippets/Layout/DefiningInverterBlocks.html

Create and initialize the necessary parameters for central inverter location, roads, margins, and string assignment before applying them to a layout region.

```csharp
// Create and initialise the central inverter location parameters
CentralInverterLocationParameters inverterLocationParams =
    new CentralInverterLocationParameters
    {
        DistanceTypeFromTop = DistanceType.PercentageAcrossLength,
        TopValue = 50.0,
        DistanceTypeFromLeft = DistanceType.PercentageAcrossLength,
        LeftValue = 50.0,
    };

// Create and initialise the vertical and horizontal road parameters
RoadLocationParameters verticalRoadParams = new RoadLocationParameters
{
    DistanceType = DistanceType.Count,
    DistanceValue = 3,
    RoadWidth = 5.0,
};

RoadLocationParameters horizontalRoadParams = new RoadLocationParameters
{
    DistanceType = DistanceType.Count,
    DistanceValue = 3,
    RoadWidth = 5.0,
};

// Create and initialise the margin parameters
LayoutBoundaryMarginParameters margins = new LayoutBoundaryMarginParameters(
    new LayoutBoundaryMarginParameter(MarginType.HalfRowColumn, 0), // Top
    new LayoutBoundaryMarginParameter(MarginType.HalfRowColumn, 0), // Bottom
    new LayoutBoundaryMarginParameter(MarginType.Custom, 0), // Left
    new LayoutBoundaryMarginParameter(MarginType.Custom, 0)); // Right

// Create and initialise the central inverter and strings parameters
AddCentralInverterAndAssignStringsParameters addInverterParams = new
    AddCentralInverterAndAssignStringsParameters
{
    InverterSpecification = Workbook.ComponentLibrary.InverterSpecifications[0],
    ModuleSpecification = Workbook.ComponentLibrary.ModuleSpecifications[0],
    StringLength = 12,
    StringPatternType = StringPatternType.Straight,
};
```

--------------------------------

### ReadOnly3DLocation.GetHashCode()

Source: https://mysoftware.dnv.com/download/public/renewables/solarfarmer/manuals/latest/api/Scripting.ReadOnly3DLocation.html

Gets the hash code for this object.

```APIDOC
## Method: GetHashCode()

### Description
Gets the hash code for this object.

### Declaration
public override int GetHashCode()

### Returns
- Type: System.Int32
- Description: The hash code.

### Overrides
ReadOnlyLocation.GetHashCode()
```

--------------------------------

### Set up calculation settings for energy yield

Source: https://mysoftware.dnv.com/download/public/renewables/solarfarmer/manuals/latest/SfScripting/CodeSnippets/SetUpWorkbook/Energy.html

Configures the calculation settings for the energy yield calculation by assigning the visible site layout, the first solar resource, and the first horizon data, and enabling the horizon line. Use this before running the calculation.

```csharp
CalculationSettings calcSettings = Workbook.CalculationSettings;

// Set the site layout to use 
calcSettings.SiteLayout = Workbook.Domain.VisibleSiteLayout;

// Set the solar resource
calcSettings.SolarResource = Workbook.Climate.SolarResources.First();

// Set the horizon
calcSettings.HorizonData = Workbook.Domain.Geography.HorizonData.First();
calcSettings.UseHorizonLine = true;

```

--------------------------------

### ReportCategory.GetHashCode()

Source: https://mysoftware.dnv.com/download/public/renewables/solarfarmer/manuals/latest/api/Scripting.ReportCategory.html

Gets the hash code for this object.

```APIDOC
## ReportCategory.GetHashCode()

### Description
Gets the hash code for this object.

### Declaration
public override int GetHashCode()

### Returns
- **Type**: System.Int32 - The hash code for this object.

### Overrides
System.Object.GetHashCode()

```

--------------------------------

### Region.Name Property

Source: https://mysoftware.dnv.com/download/public/renewables/solarfarmer/manuals/latest/api/Scripting.Region.html

Gets the name of the region.

```APIDOC
## Region.Name Property

### Description
Gets the name of the region.

### Declaration
`public string Name { get; }`

### Property Value
- **Type**: System.String

```

--------------------------------

### Stringing an Optimised Layout with Specify Site Tool

Source: https://mysoftware.dnv.com/download/public/renewables/solarfarmer/manuals/latest/SfScripting/CodeSnippets/Optimisation/OptimisationTargetDcCapacityComplexTerrain.html

This script adds necessary electrical components to a layout, estimates module and inverter counts based on DC capacity, and updates the site layout configuration.

```csharp
// Add transformer and inverters to the optimised layout.
// If not defined in the layout, add transformer instance to the layout
// (placed an offset from the bottom left coordinate of the first layout)
int trafoNb = finalSiteLayout.TransformerInstances.Count();

if (trafoNb == 0)
{
    double offsetForTransformer = 500;
    double trafoX = templateSiteLayout.LayoutBoundaries.First()
                                      .Bounds.BottomLeft.X - offsetForTransformer;
    double trafoY = templateSiteLayout.LayoutBoundaries.First()
                                      .Bounds.BottomLeft.Y - offsetForTransformer;
    finalSiteLayout.AddTransformerInstance(new Location(trafoX, trafoY), 
        Workbook.ComponentLibrary.TransformerSpecifications.First());
}

// Select library components
ModuleSpecification moduleSpecification = Workbook.ComponentLibrary.ModuleSpecifications
                                       .First(s => s.Name.Contains(moduleName));
InverterSpecification inverterSpecification = Workbook.ComponentLibrary.InverterSpecifications
                                       .First(s => s.Name.Contains(inverterName));

double layoutRegionModulePower = moduleSpecification.Pnom; // in Watts
double inverterNominalPower = inverterSpecification.PnomAC / 1000; // in kW

// Specify site tool - the layout regions will be filled by component numbers.
// The algorithm estimates the numbers of components needed based on the estimated DC capacity in each layout.
SpecifySiteDefinition specifySiteDefinition = new SpecifySiteDefinition
{
    // Choose how to fill. We'll choose 'Specify by Module and Inverter Counts'
    SpecifySiteConfiguration = SpecifySiteConfiguration.SpecifyModuleAndInverterCounts,

    // Set how to fill the layout regions (we use 'fill specific layout regions')
    SpecifySiteLayoutRegionFillChoice = SpecifySiteLayoutRegionFillChoice.FillSpecific,
};

List<SubArray> arrayListForSpecifyTool = new List<SubArray>();

// Iterate over each layout region and estimate the number of strings in each inverter.
// It accounts for irregular string distribution (uneven DC/AC ratio) among inverters.
for (int i = 0; i < finalSiteLayout.LayoutBoundaries.Count(); i += 1)
{
    string layoutRegionName = finalSiteLayout.LayoutBoundaries.ElementAt(i).Name;

    // Estimate total number of strings 
    double dcCapacityInLayoutRegion = finalSiteLayout.Statistics.
                                      LayoutBoundaryStatistics[i].EstimatedDcCapacity;
    double numberModules = dcCapacityInLayoutRegion * 1000 / layoutRegionModulePower;
    int totalStringNumberInLayout = (int)numberModules / stringLength;

    // Estimate total number of full inverters
    double AcCapacityExpected = dcCapacityInLayoutRegion / desiredDcAcRatio;
    int numberInvertersFull = (int)Math.Round(AcCapacityExpected / inverterNominalPower, 0);
    double AcCapacityApplied = inverterNominalPower * (double)numberInvertersFull;

    Toolbox.Log(string.Format("{0}, DC power {1}, AC power {2} (DC/AC ratio: {3}), " +
                              "inverters {4}, strings {5}", 
                                layoutRegionName, dcCapacityInLayoutRegion, 
                                AcCapacityApplied, 
                                Math.Round(dcCapacityInLayoutRegion / AcCapacityApplied, 3), 
                                numberInvertersFull, totalStringNumberInLayout));

    // Estimate the string distribution over the inverters in the layout region
    int[] initialAssignment = DistributeStrings(totalStringNumberInLayout, numberInvertersFull, 
        invertersDifferentIfIrregularLoading, evenLoading);
    
    Toolbox.Log(string.Format("Distribution of strings in the {0} inverter(s) of the layout region:", numberInvertersFull));
    Toolbox.Log(string.Join(", ", initialAssignment));

    List<SubArray> arraysInLayout = GetSpecificArrayNumbers(initialAssignment, 
                                                    stringLength, layoutRegionName);

    arrayListForSpecifyTool.AddRange(arraysInLayout);
}

Toolbox.Log("Summary - Array details used in the Specify Site Tool:");
foreach (SubArray subarray in arrayListForSpecifyTool)
{
    Toolbox.Log(subarray.SelectedLayoutRegionNames.First().ToString());
    Toolbox.Log("\t" + subarray.Name.ToString());
    Toolbox.Log("\t" + subarray.NumberOfModules_Input.ToString() + " modules and " + subarray.NumberOfInverters_Input.ToString() + " inverters");
    specifySiteDefinition.SubArrays.Add(subarray);
}

finalSiteLayout.UpdateFromSpecifySiteDefinition(specifySiteDefinition);

finalSiteLayout.RemoveAllEmptyRacksOrTrackers();

// Set the optimised layout in the screen: Energy -> Layout and resources, Site layout. 
Workbook.CalculationSettings.SiteLayout = finalSiteLayout;
```

--------------------------------

### ReadOnly3DLocation.HeightAboveGround

Source: https://mysoftware.dnv.com/download/public/renewables/solarfarmer/manuals/latest/api/Scripting.ReadOnly3DLocation.html

Gets the height above ground for the location.

```APIDOC
## Property: HeightAboveGround

### Description
Gets the height above ground.

### Declaration
public double HeightAboveGround { get; }

### Property Value
- Type: System.Double
- Description: The height above ground.
```

--------------------------------

### Projection.GetHashCode()

Source: https://mysoftware.dnv.com/download/public/renewables/solarfarmer/manuals/latest/api/Scripting.Projection.html

Gets the hash code for this object.

```APIDOC
## Projection.GetHashCode()

### Description
Gets the hash code for this object.

### Method
GetHashCode

### Signature
public override int GetHashCode()

### Returns
- **System.Int32** - The hash code for this object.

### Overrides
System.Object.GetHashCode()
```

--------------------------------

### Point4

Source: https://mysoftware.dnv.com/download/public/renewables/solarfarmer/manuals/latest/api/Scripting.Quad.html

Gets the fourth point of the Quad.

```APIDOC
## Point4

### Description
Gets the fourth point of the Quad.

### Declaration
public Point3D Point4 { get; }

### Property Value
Type: Point3D

```

--------------------------------

### Point3

Source: https://mysoftware.dnv.com/download/public/renewables/solarfarmer/manuals/latest/api/Scripting.Quad.html

Gets the third point of the Quad.

```APIDOC
## Point3

### Description
Gets the third point of the Quad.

### Declaration
public Point3D Point3 { get; }

### Property Value
Type: Point3D

```

--------------------------------

### Y Property

Source: https://mysoftware.dnv.com/download/public/renewables/solarfarmer/manuals/latest/api/Scripting.Location.html

Gets or sets the location Y value.

```APIDOC
## Y Property

### Description
Gets or sets the location Y value.

### Declaration
public double Y { get; set; }

### Property Value
Type: System.Double
```