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  • University of Plymouth
  • Plymouth, United Kingdom
  • LinkedIn in/gkwakye

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kwakye02/README.md

George Kwakye

Energy Data Analyst

MSc Data Science & Environmental Intelligence | Petroleum Engineering background

Python · Machine Learning · GIS · Energy Demand Analytics

Email · LinkedIn · GitHub

Profile

I combine energy domain knowledge with data science to investigate how energy is produced, distributed and used. My work applies Python, statistical modelling, machine learning and geospatial analysis to electricity systems, geothermal resources and energy demand.

I am currently completing an MSc in Data Science & Environmental Intelligence at the University of Plymouth, building on an academic background in Petroleum Engineering. I am interested in graduate and junior opportunities in energy data analytics, energy systems, electricity markets and geospatial analytics.

Featured analysis

Map of local geothermal supply and residential energy demand balance across Plymouth

An end to end geospatial assessment of how closed loop ground source heat pump potential could contribute to residential energy demand across Plymouth.

Selected results

  • Modelled 164 LSOAs using local geology, residential demand and candidate borehole locations.
  • Estimated 398.5 GWh/year of representative geothermal potential, with 356.0 GWh/year locally matched to demand.
  • Found representative city coverage of 44.8% of the modelled residential demand.
  • A 10,000 run Monte Carlo analysis produced a median coverage of 44.3% and a central 90% interval of 42.5–45.9%.
  • PRCC analysis identified boiler efficiency and slate thermal conductivity as the strongest model sensitivities.

Methods: GeoPandas · QGIS · spatial joins · G.POT modelling · Monte Carlo simulation · PRCC sensitivity analysis

Current portfolio development

  • GB electricity demand and imbalance forecasting — probabilistic forecasting of demand, system imbalance and market signals using NESO and Elexon data.
  • UK renewable imbalance risk analytics — analysis of renewable generation, weather, settlement and portfolio imbalance exposure.
  • Energy system case studies — applied forecasting, modelling and energy-transition analytics.

These projects are being prepared as reproducible public case studies. The geothermal assessment above is the first full project available for review.

Earlier domain projects

Technical toolkit

Area Tools and methods
Data analysis Python, pandas, NumPy, SciPy, exploratory analysis and visualisation
Machine learning scikit learn, regression, classification, model evaluation and uncertainty analysis
Geospatial analysis GeoPandas, QGIS, Shapely, Rasterio, spatial joins and thematic mapping
Energy analytics Energy demand modelling, electricity forecasting, geothermal assessment and sensitivity analysis
Reproducible workflow Jupyter, Conda environments, Git and documented analytical pipelines

Contact

Pinned Loading

  1. msc-geothermal-plymouth msc-geothermal-plymouth Public

    Geospatial analysis of Plymouth's residential energy demand and closed-loop geothermal potential using Python, GeoPandas, QGIS, Monte Carlo simulation and PRCC.

    Jupyter Notebook

  2. Python-for-oil-and-gas Python-for-oil-and-gas Public

    Production modelling, Arps decline-curve analysis and 1D reservoir simulation using Python and public Volve field data.

    Jupyter Notebook 1