## On this page

  

 

 # Exporting data using the Engineering Data Service

 Last update: 16.07.2025 

Find a list of FEA exporters for a record in a Granta MI database, and export relevant parameter values.

This example demonstrates:

- Retrieving a list of available exporters
- Retrieving a list exporters applicable to a specific record in a Granta MI database
- Get the parameters that can be exported for a specific exporter and record combination
- Run the FEA exporter on the specific record

## Create a Granta MI Session

Import the GRANTA\_MIScriptingToolkit package, and create a connection to a Granta MI server.

```python
import GRANTA_MIScriptingToolkit as gdl

session = gdl.GRANTA_MISession("http://my.server.name/mi_servicelayer", autoLogon=True)

```

## List the available exporters

Retrieve the list of FEA exporters that will export data from the database MI\_Training into Ansys Workbench format.

```python
dbKey = "MI_Training"
request = gdl.GetAvailableExportersRequest(DBKey=dbKey, package="ANSYS Workbench", matchDB=True)

print("Output of available Exporters for Ansys Workbench")
response = session.engineeringDataService.GetAvailableExporters(request)

for exporter in response.exporters:
    print(f"{exporter.name} ({exporter.package}) - {exporter.description}")

```

*Previous cell output:*

```output
Output of available Exporters for Ansys Workbench
458E9A7E-C268-4ED0-9CC1-FF7438521B4F (ANSYS Workbench) - Exports linear, temperature-independent, isotropic data to the Ansys Workbench format
CE8DCFA2-B3EE-4545-8D3E-82810FA92AFC (ANSYS Workbench) - Exports linear, temperature-dependent, isotropic data to the Ansys Workbench format
4B0B1EA3-8760-43DF-8060-2C79CA471D4C (ANSYS Workbench) - Exports linear, temperature-independent, isotropic with simple failure data to the Ansys Workbench format

```

Get a record by name.

```python
req = gdl.RecordNameSearchRequest(
    recordName="Nickel alloys, Inconel 718, Forging",
    table=gdl.TableReference(DBKey=dbKey, name="Design Data"),
    searchShortNames=True
)
resp = session.searchService.RecordNameSearch(req)
print(f"Found {len(resp.searchResults)} record(s)")
rec = resp.searchResults[0].recordReference

```

*Previous cell output:*

```output
Found 1 record(s)

```

## Get exporters for a specific record

Use the engineering data service to find valid FEA exporters for Inconel 718.

```python
request = gdl.ExportersForRecordsRequest(records=[rec])
resp = session.engineeringDataService.ExportersForRecords(request)
print("Output of exporters for Inconel 718")
for exporter in resp.records[0].exporters:
    print(f"{exporter.name} ({exporter.package}) - {exporter.description}")

```

*Previous cell output:*

```output
Output of exporters for Inconel 718
71CE1C21-FDEA-4119-B481-81BDC41BD900 (Abaqus 6) - Exports temperature dependent, isotropic data to the Abaqus format.
5C560880-4FD3-4E5C-992B-4B6CEF6A055A (Abaqus 6) - Exports temperature independent, isotropic data to the Abaqus 6 format.
911AF055-B388-439A-8AF6-EB18480E2D80 (Abaqus 6) - Linear, temperature-independent, isotropic, simple failure
3AE2BEA5-B1DB-45D3-A431-48915B8D1317 (Abaqus 6) - Linear, temperature-independent, isotropic, simple failure with thermal expansion
722E5C46-3633-4B72-BF93-74E8112C20C3 (Abaqus 6) - Exports temperature dependent, isotropic data to the Abaqus 6 format.
B653C213-8BEB-42A7-8512-5F340EEBFAB4 (Abaqus 6) - Exports temperature independent, isotropic data to the Abaqus 6 format.
458E9A7E-C268-4ED0-9CC1-FF7438521B4F (ANSYS Workbench) - Exports linear, temperature-independent, isotropic data to the Ansys Workbench format
CE8DCFA2-B3EE-4545-8D3E-82810FA92AFC (ANSYS Workbench) - Exports linear, temperature-dependent, isotropic data to the Ansys Workbench format
4B0B1EA3-8760-43DF-8060-2C79CA471D4C (ANSYS Workbench) - Exports linear, temperature-independent, isotropic with simple failure data to the Ansys Workbench format

```

## Get a list of parameters that can be exported

Get the parameters that can be exported from Inconel 718 using an exporter that supports them.

```python
exporter = resp.records[0].exporters[7]
req = gdl.GetExporterParametersRequest(records=[rec], exporterKey=exporter.key)
expParams = session.engineeringDataService.GetExporterParameters(req)
for attrib in expParams.records[0].attributes:
    print(attrib.attribute.name)
    for param in attrib.parameters:
        print(f"\t{param.name}")

```

*Previous cell output:*

```output
Tensile Modulus (L-dir) with Temp.
	Temperature
	Time
	Other

```

## Perform an FEA Export

Get all applicable attributes for this record.

```python
req = gdl.GetRecordAttributesRequest(recordReferences=[rec])
attribs = session.browseService.GetRecordAttributes(req)

```

If exporting a functional data attribute, you also need to define a parameter value to evaluate the attribute at. Here, a parameter is fixed at 1.337.

```python
myParam = expParams.records[0].attributes[0].parameters[0]
pwv = gdl.ParameterReferenceAndValue(
    parameterValue=gdl.ParameterValue(numericValue=1.337),
    parameter=myParam.parameterReference,
)

pv = gdl.UnittedParameterValue(
    unitSymbol=myParam.unit.unitSymbol,
    parameterWithValues=pwv,
)

```

Run the FEA exporter, and print the output.

```python
expReq = gdl.ExportRecordDataRequest(
    attributeReferences=[a.attribute.attribute for a in attribs.recordAttributes], 
    records=[rec], 
    exporterKey=exporter.key,
    parameterValues=[pv]
)

resp = session.engineeringDataService.ExportRecordData(expReq)

print(resp.text[:200] + "...")

```

*Previous cell output:*

```output
<?xml version="1.0" encoding="utf-8"?>
<engineeringdata version="14.0.0.367" xmlns:xsi="http://www.w3.org/2001/XMLSchema-instance">
  <materials>
    <matml_doc xsi:nonamespaceschemalocation="http:...

```

Write the output to file. First create an output directory if it doesn't exist, and then save the XML file into that directory.

```python
from pathlib import Path
Path(" with as f:></matml_doc></materials></engineeringdata>

```