Community Geothermal: Soil Conductivity, Borehole Design, Energy Models, and Load Data for a Residential System Development - Hinesburg, VT
This dataset contains materials from the Coalition for Community-Supported Affordable Geothermal Energy Systems (C2SAGES) project, which evaluated the techno-economic feasibility of a community geothermal system for a residential development in Hinesburg, VT. The dataset includes detailed soil conductivity test reports, energy models, borehole design reports, hourly energy loads for heating, cooling, and hot water, and design layouts. EnergyPlus was used to model building energy loads, and Modelica software was applied for geothermal loop sizing based on these loads and soil conductivity results. Python scripts for network design further refined the models.
Key files include PDF reports on borehole design (with projections for 1-year, 15-year, and 30-year systems), soil conductivity test results, EnergyPlus modeling outputs, and 2D/3D design drawings in PDF, DWG, and DXF formats. Python notebooks for network design and OnePipe model files are also provided, with Modelica required for viewing certain files. Outputs and modeling data are in various formats including CSV, JPG, HTML, and IDF, with units and data clearly labeled to support understanding of system design and performance for the proposed geothermal solution.
Axonometric View of the Proposed Project Plan.jpg
Back View of the Proposed Project Plan.jpg
Borehole Loads for Phase 1 and Phase 2.xlsx
Borehole Loads with and without DHW - Phase 1.xlsx
Borehole Temperatures with DHW - Phase 1.xlsx
Borehole Temperatures with DHW Phase 2.xlsx
Borehole design report - 1 year hourly method.pdf
Borehole design report - 15 year hourly method.pdf
Borehole design report - 30 year monthly method.pdf
Borehole design report - Summary.pdf
EnergyPlus File - GHX Sizing - Phase 1.idf
EnergyPlus File - GHX Sizing - Phase 2.idf
EnergyPlus Output - Phase 1 Baseline.htm
EnergyPlus Output - Phase 1 Proposed Geothermal.htm
EnergyPlus Output - Phase 2 - Baseline - 5 electric meters.htm
EnergyPlus Output - Phase 2 - Proposed Geothermal - 5 electric meters.htm
EnergyPlus Output - Phase 2 - Proposed Geothermal - Water Meter.htm
EnergyPlus Output - Phase 2 Baseline - Gas and Water Tariff.htm
First Floor Plan.pdf
Front Elevation.pdf
Front View of the Proposed Project Plan.jpg
GHX Network Design - Python Notebooks - Phase 1 2.zip
Ground Floor Plan.pdf
Hourly DHW Loads - Proposed Project.csv
Hourly Space Conditioning Loads - Phase 1 - 1 Bedroom Multifamily Building.csv
Hourly Space Conditioning Loads - Phase 1 - 6 Town House Units.csv
Hourly Space Conditioning Loads - Phase 1 - 8 Townhouse Unit Buildings.csv
Hourly Space Conditioning Loads - Phase 1 - Mixed unit buildings.csv
Hourly Space Conditioning Loads - Phase 1 - Private Townhouse Units.csv
Hourly Space Conditioning Loads - Phase 1 - Proposed Project.csv
Hourly Space Conditioning Loads - Phase 2 - Proposed Project.csv
Hourly Space Conditioning Loads - Proposed Project - Phase 2 - Champlaign Housing Trust.csv
Hourly Space Conditioning Loads - Proposed Project - Phase 2 - Daycare.csv
Hourly Space Conditioning Loads - Proposed Project - Phase 2 - Sterling Homes.csv
Isometric View of the North Meadow Homes.jpg
Isometric View of the Sterling Homes.jpg
Left Elevation.pdf
Left View of the Proposed Project Plan.jpg
OnePipe Model - Phase 1.zip
Pipe Layout Combined Phase 1 and 2.xlsx
Rear Elevation.pdf
Right Elevation.pdf
Right View of the Proposed Project Plan.jpg
Second Floor Plan.pdf
Single Family Housing Floor Plan.pdf
Soil Conductivity Test Report - 06-12-2024.pdf
Soil Conductivity Test Report - 12-29-2023.pdf
Top View of the Proposed Project Plan.jpg
Topology of Project Site.dwg
Windy Ridge Phase 1 - Baseline.idf
Windy Ridge Phase 1 - Proposed Geothermal before GHX sizing.idf
Windy Ridge Phase 1 - Proposed Geothermal.idf
Windy Ridge Phase 2 Baseline.idf
Windy Ridge Phase 2 Proposed Geothermal.idf
Citation Formats
GTI Energy. (2024). Community Geothermal: Soil Conductivity, Borehole Design, Energy Models, and Load Data for a Residential System Development - Hinesburg, VT [data set]. Retrieved from https://dx.doi.org/10.15121/2447627.
Jogineedi, Rohit, Estep, Greg, Mitchell, Matt, and Javed, Saqib. Community Geothermal: Soil Conductivity, Borehole Design, Energy Models, and Load Data for a Residential System Development - Hinesburg, VT. United States: N.p., 30 Aug, 2024. Web. doi: 10.15121/2447627.
Jogineedi, Rohit, Estep, Greg, Mitchell, Matt, & Javed, Saqib. Community Geothermal: Soil Conductivity, Borehole Design, Energy Models, and Load Data for a Residential System Development - Hinesburg, VT. United States. https://dx.doi.org/10.15121/2447627
Jogineedi, Rohit, Estep, Greg, Mitchell, Matt, and Javed, Saqib. 2024. "Community Geothermal: Soil Conductivity, Borehole Design, Energy Models, and Load Data for a Residential System Development - Hinesburg, VT". United States. https://dx.doi.org/10.15121/2447627. https://gdr.openei.org/submissions/1667.
@div{oedi_1667, title = {Community Geothermal: Soil Conductivity, Borehole Design, Energy Models, and Load Data for a Residential System Development - Hinesburg, VT}, author = {Jogineedi, Rohit, Estep, Greg, Mitchell, Matt, and Javed, Saqib.}, abstractNote = {This dataset contains materials from the Coalition for Community-Supported Affordable Geothermal Energy Systems (C2SAGES) project, which evaluated the techno-economic feasibility of a community geothermal system for a residential development in Hinesburg, VT. The dataset includes detailed soil conductivity test reports, energy models, borehole design reports, hourly energy loads for heating, cooling, and hot water, and design layouts. EnergyPlus was used to model building energy loads, and Modelica software was applied for geothermal loop sizing based on these loads and soil conductivity results. Python scripts for network design further refined the models.
Key files include PDF reports on borehole design (with projections for 1-year, 15-year, and 30-year systems), soil conductivity test results, EnergyPlus modeling outputs, and 2D/3D design drawings in PDF, DWG, and DXF formats. Python notebooks for network design and OnePipe model files are also provided, with Modelica required for viewing certain files. Outputs and modeling data are in various formats including CSV, JPG, HTML, and IDF, with units and data clearly labeled to support understanding of system design and performance for the proposed geothermal solution.}, doi = {10.15121/2447627}, url = {https://gdr.openei.org/submissions/1667}, journal = {}, number = , volume = , place = {United States}, year = {2024}, month = {08}}
https://dx.doi.org/10.15121/2447627
Details
Data from Aug 30, 2024
Last updated Sep 24, 2024
Submitted Sep 23, 2024
Organization
GTI Energy
Contact
Kaushik Biswas
530.322.9878
Authors
Rohit Jogineedi
GTI EnergyGreg Estep
LN ConsultingMatt Mitchell
National Renewable Energy LaboratorySaqib Javed
National Renewable Energy LaboratoryKeywords
geothermal, energy, community geothermal, geothermal sizing, borehole testing, geothermal heat pump, workforce development, building energy modeling, ground heat exchanger, geothermal network design, community engagement, commGeo, Hinesburg, Vermont, Modelica, EnergyPlus, OnePipe, Python, modeling, thermal conductivity test, report, energy model, borehole design, hourly energy loads, sizing, geothermal loop sizing, system design, developmentDOE Project Details
Project Name Community Geothermal Heating and Cooling Design and Deployment
Project Lead Arlene Anderson
Project Number EE0010669