Full metadata record
DC FieldValueLanguage
dc.contributor.authorCense, Sebastien-
dc.date.accessioned2018-12-27T19:25:54Z-
dc.date.available2018-12-27T19:25:54Z-
dc.date.issued2017-01-
dc.identifier.urihttp://item.bettergrids.org/handle/1001/518-
dc.description.abstractThis model implements a basic FPGA implementation of the eHS solver, and is used to generate the firmware of the standard RT-LAB - eHS example models. The eHS on FPGA solver being circuit independent, this example model is not associated to any specific circuit topology, as long as the standard eHS requirements in terms of maximum number of elements are met. The generated firmware can be used directly with the RT-LAB example models, or the model can be adapted by the developer to connect the eHS solver to other FPGA-based computation elements directly, without passing through the CPU-based model. The developer should use extra care not to remove critical elements from the eHS feature when adapting this standard design into a custom configuration. [This model implements a basic FPGA implementation of the eHS solver, and is used to generate the firmware of the standard RT-LAB - eHS example models. The eHS on FPGA solver being circuit independent, this example model is not associated to any specific circuit topology, as long as the standard eHS requirements in terms of maximum number of elements are met. The generated firmware can be used directly with the RT-LAB example models, or the model can be adapted by the developer to connect the eHS solver to other FPGA-based computation elements directly, without passing through the CPU-based model. The developer should use extra care not to remove critical elements from the eHS feature when adapting this standard design into a custom configuration. [This model implements a basic FPGA implementation of the eHS solver, and is used to generate the firmware of the standard RT-LAB - eHS example models. The eHS on FPGA solver being circuit independent, this example model is not associated to any specific circuit topology, as long as the standard eHS requirements in terms of maximum number of elements are met. The generated firmware can be used directly with the RT-LAB example models, or the model can be adapted by the developer to connect the eHS solver to other FPGA-based computation elements directly, without passing through the CPU-based model. The developer should use extra care not to remove critical elements from the eHS feature when adapting this standard design into a custom configuration. [Solver: eHS; Toolbox: RT-XSG; Third Party Software: Xilinx System Generator] & [FPGA and I/O Board: K7 325 MMPK7, K7 410 MMPK7, K7 325 TE0741, ML605_2 ]en_US
dc.publisherOPAL-RT Technologiesen_US
dc.subjectDynamicen_US
dc.titleStandard RT-XSG - eHS Without I/Oen_US
dc.typeGrid Model Dataseten_US
grid.versionV1.0en_US
grid.publisher.urlhttps://www.opal-rt.com/resource-center/demo/?resource=L00143_0163en_US
grid.formatOpalRTen_US
grid.buses0en_US
grid.generators0en_US
grid.loads0en_US
grid.feeders0en_US
grid.switches0en_US
grid.nodes0en_US
grid.formatversionXilinx System Generator; eFPGAsim; RT-XSGen_US
grid.voltages0en_US
grid.climateZones0en_US
grid.branches0en_US
grid.identifier.urlhttps://www.opal-rt.com/resource-center/demo/?resource=L00143_0163-
Appears in Collections:Distribution Dynamic

File Description Size Format Export Browse
Model Schematic33.43 kBimage/png


User Comments

Average user rating

0.0 / 5

Rating breakdown

5
80% Complete (danger)
0%
4
80% Complete (danger)
0%
3
80% Complete (danger)
0%
2
80% Complete (danger)
0%
1
80% Complete (danger)
0%

Items in BetterGrids are protected by copyright, with all rights reserved, unless otherwise indicated.