microgrid simulation activities

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Presentation transcript:

microgrid simulation activities Status update Enrico Ferrera – ISMB

Simulation tools Survey D2.2 – Modelling and Simulation of Energy Systems Transmission network simulators MATPOWER (http://www.pserc.cornell.edu/matpower/) Matlab tool PowerWorld (http://www.powerworld.com/) Commercial license PowerFactory (http://www.digsilent.de/) Commercial license, a Demo is available OpenDSS (http://electricdss.sourceforge.net/) Released June 2013 HOMER (http://homerenergy.com/software.html) Not easy to extend GRIDLab-D (http://www.gridlabd.org/) 23/11/2018 ISMB – Copyright 2013

GridLAB-D A power distribution system simulation and analysis tool Developed by the U.S. Department of Energy (DOE) at Pacific Northwest National Laboratory (PNNL) BSD-style license: vendors can add or extract their own modules and have almost no restrictions on the redistribution of the SW components. 23/11/2018 ISMB – Copyright 2013

GridLAB-D Main Features Agent-based modeling tool Handles time scales ranging from sub-seconds to many years clock { timezone PST+8PDT; starttime '2001-01-01 00:00:00 PST'; stoptime '2001-01-01 23:59:59 PST'; } Supports the modeling of: 3-phase, unbalanced (meshed or radial) power systems end-use load behavior of thousands to millions of homes and appliances retail level markets and related controls distributed generation and storage demand response and direct load control 23/11/2018 ISMB – Copyright 2013

Residential Model Typical single-family residential units in North America. They are defined with 110/220 volt distribution panels that allow various end-use loads to be connected. 23/11/2018 ISMB – Copyright 2013

GridLAB-D Model clock { timezone EST+5EDT; starttime '2001-06-01 00:00:00'; stoptime '2001-06-01 23:59:59'; } module tape; module powerflow; module generators; module climate; module residential { implicit_enduses LIGHTS|PLUGS|REFRIGERATOR|CLOTHESWASHER|DRYER; 23/11/2018 ISMB – Copyright 2013

GridLAB-D Model object climate { name newyork; tmyfile "NY-New_york_city.tmy2"; interpolate QUADRATIC; }; object triplex_meter { name meter1; phases AS; nominal_voltage 120.0; } 23/11/2018 ISMB – Copyright 2013

GridLAB-D Model object inverter { name inverter1; parent meter1; phases AS; rated_power 25000; } object solar { name PV1; parent inverter1; Rated_kVA 4.0 kVA; tilt_angle 45.0; efficiency 1; orientation_azimuth 180.0; //equator-facing (South) orientation FIXED_AXIS; SOLAR_TILT_MODEL SOLPOS; SOLAR_POWER_MODEL FLATPLATE; 23/11/2018 ISMB – Copyright 2013

GridLAB-D Model }; object house { name house1; parent meter1; panel.power_factor 0.98; object waterheater { } object recorder { parent inverter1; property "VA_Out"; file plot:inverter.plot; 23/11/2018 ISMB – Copyright 2013

PV Modeling Example: object solar { name PV1; phases AS; parent inverter1; Rated_kVA 4.0 kVA; tilt_angle 45.0; efficiency 1; orientation_azimuth 180.0; orientation FIXED_AXIS; SOLAR_TILT_MODEL SOLPOS; SOLAR_POWER_MODEL FLATPLATE; }; 23/11/2018 ISMB – Copyright 2013

Load Modeling Example: module residential { implicit_enduses MICROWAVE; } object house{ name House; object recorder{ property panel.power,panel.energy; file "plot:test_microwave_energy.plot"; interval 3600; limit 100; }; 23/11/2018 ISMB – Copyright 2013

House + PV 23/11/2018 ISMB – Copyright 2013

PV production 23/11/2018 ISMB – Copyright 2013

ISMB – Copyright 2013