%0 Journal Article %1 Martinez20111671 %A Martinez, J.A. %A Dinavahi, V. %A Nehrir, M.H. %A Guillaud, X. %D 2011 %J IEEE Transactions on Power Delivery %K Gridlab-D %N 3 %P 1671-1680 %R 10.1109/TPWRD.2011.2116047 %T Tools for analysis and design of distributed resources-Part IV: Future trends %U http://www.scopus.com/inward/record.url?eid=2-s2.0-79959712953&partnerID=40&md5=25f9968dc9484b2f9e774f6b3fee12eb %V 26 %X Real-time testing of new and more sophisticated distributed resource interfaces during transients, representing the different physical parts (mechanical, thermal, hydraulic, chemical, electrical, electronics) of a nonconventional generator in a single platform, or analyzing the interactions of distribution systems with distributed generators, energy markets, and customer behaviors are scenarios that cannot be studied with current software packages. This paper analyzes the present status and discusses the future development of tools that could cope with these simulation challenges. This paper includes test cases that will illustrate the scope of some of these simulation tools. © 2011 IEEE.

@article{Martinez20111671, abbrev_source_title = {IEEE Trans Power Delivery}, abstract = {Real-time testing of new and more sophisticated distributed resource interfaces during transients, representing the different physical parts (mechanical, thermal, hydraulic, chemical, electrical, electronics) of a nonconventional generator in a single platform, or analyzing the interactions of distribution systems with distributed generators, energy markets, and customer behaviors are scenarios that cannot be studied with current software packages. This paper analyzes the present status and discusses the future development of tools that could cope with these simulation challenges. This paper includes test cases that will illustrate the scope of some of these simulation tools. © 2011 IEEE.}, added-at = {2012-04-22T19:22:44.000+0200}, affiliation = {Task Force on Analysis Tools, Working Group on Distributed Resources, Power and Energy Society, Transmission and Distribution Committee, United States}, art_number = {5741004}, author = {Martinez, J.A. and Dinavahi, V. and Nehrir, M.H. and Guillaud, X.}, author_keywords = {Distributed generation (DG); distributed resource (DR); distribution network; GridLAB-D; modeling; multiagent simulation; multidomain simulation; real-time simulation; storage}, biburl = {https://www.bibsonomy.org/bibtex/2bd7f81c9f5c4d723aa537062874d21ef/adnasiak}, coden = {ITPDE}, correspondence_address = {Martinez, J.A.; Task Force on Analysis Tools, Working Group on Distributed Resources, Power and Energy Society, Transmission and Distribution CommitteeUnited States; email: martinez@ee.upc.edu}, description = {It refers to real-time simulation platforms and examples of using various simulation tools like Matlab(microturbine system), Gridlab-D e.g.. }, document_type = {Article}, doi = {10.1109/TPWRD.2011.2116047}, interhash = {3846bbab43f8f33cbdfc94f72b861aad}, intrahash = {bd7f81c9f5c4d723aa537062874d21ef}, issn = {08858977}, journal = {IEEE Transactions on Power Delivery}, keywords = {Gridlab-D}, language = {English}, note = {cited By (since 1996) 0}, number = 3, pages = {1671-1680}, references = {McLaren, P.G., Kuffel, R., Wierckx, R., Giesbrecht, J., Arendt, L., A real time digital simulator for testing relays (1992) IEEE Trans. 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