diff --git a/README.md b/README.md index 65a1db84..2f19a641 100644 --- a/README.md +++ b/README.md @@ -206,9 +206,9 @@ install packages listed in the environment manually. You can also use the `requi * **If using Native Windows**: Navigate to `test_cases/battery/feeder_population` and run `feeder_population_collocated.py` for collocated (DEFAULT) case or `feeder_population_centralized.py`. This uses the `test_cases/battery/feeder_population/config.txt` settings to prepare the power system and populate the secondary distribution network with time-varying base loads, EV charging stations, Distributed Energy Resources (DERs - Solar, Storage), and required transformers. - * Once confirmed that `feeder_population_.py` (CASE_TYPE is either collocated or centralized but only collocated is supported at this time) has run successfully and generates the required `IEEE123_secondary.glm` and - `IEEE123_populated.glm` files, you are done with the initial pre-simulation run preparation. - * Now navigate one level of out `/feeder_population` and run scenarios.py using `python3 scenarios.py` or `gridlabd python scenarios.py` (recommended). + * Once confirmed that `feeder_population_.py` (CASE_TYPE is either collocated or centralized but only collocated is supported at this time) has run successfully and generates the required `IEEE123_secondary.glm` and + `IEEE123_populated.glm` files, you are done with the initial pre-simulation run preparation. + * Now navigate one level of out `/feeder_population` and run scenarios.py using `python3 scenarios.py` or `gridlabd python scenarios.py` (recommended). 6. For base case (Requires GridLAB-D install): * Navigate to `./test_cases/base_case/feeder_population` and run `feeder_population.py`. This uses the