

This project began with a systems-level question. Early into my senior semester, I learned about vertical farms in Europe that had recently gone out of business. The Russo-Ukrainian Conflict and the shift from Russian-supplied energy had led to a dramatic increase in energy costs, which these farms could not absorb. This illustrated how supply chain disruption and energy costs can cascade through seemingly unrelated industries.
When the gas was shut off, as it were, there were second order effects that rippled out in all directions.
Without an energy system, we have no food system. I centered my research on energy systems and how fragile critical infrastructure becomes when disrupted.
80% of domestic energy production relies on fossil fuels like oil, coal, and natural gas, extracted through wells and mines. Though renewable energy production is not reliant on fossil fuels, its production significantly relies on the earth's mineral resources: vast amounts of copper, silicon, and rare earth metals. The extraction and processing of these materials has environmental and human impacts at a global scale.
Currently, energy production largely involves converting organic matter into electricity through combustion, steam, and turbines. While efficient in converting fuel to electricity, this thermal method of energy production comes with significant environmental costs. Renewable energy sources harness natural processes to generate electricity, but are not without their own unique challenges.
The US energy distribution network is notably fragile and complex. It is not governed by a single entity; rather, it is managed by a myriad of private and public firms. Remarkably, the failure of just 10 key US power substations could trigger a catastrophic collapse of the grid throughout the country.
Energy consumption remains curiously opaque to end-users. Before we can engage in meaningful conversation about decarbonization, it has become clear to me that the complexity of these systems make it difficult for people to comprehend the impact of our energy use. This project aims to bring clarity to these enormous and critical systems, wrangling complexity into a legible medium.

Once I had obtained a better understanding of this system for myself, I set out to build tools that would help others come to share this understanding, specifically within the scope of the United States. The tool offers insight into the energy mix of a given area. Users can search for a location, then isolate particular energy production methods. Vertical extrusions encode plant capacity (height = megawatts); color encodes energy type. The vasculature represents electricity flow from plants into the grid.
I sourced the data that powers the application from the US Energy Information Administration. I was conscious of the inherent subjectivity of data visualization: designers and developers choose what to omit, emphasize, and minimize. I aimed to represent EIA data in an unbiased, objective manner.
