Projects
Boston Solar Helping Ignite Neighborhood Economies (SHINE)
2023 - 2025
Our founders met while working for the international organization Rare, a leader in the application of behavioral science to environmental issues. During their tenure at Rare, they co-created and earned funding for SHINE, an integrated approach to climate adaptation, workforce development, community resilience, and energy equity.
SHINE’s premise is to train disadvantaged and job-insecure residents of Boston to be solar technicians; these trainees construct solar arrays on the roofs of local nonprofits, routing the power generated through a shared solar framework to social service organizations in the community in addition to energy-burdened households that can’t afford the upfront costs of rooftop solar. We secured funding from both the U.S. Department of Energy and the Massachusetts Clean Energy Center to roll out training programs and community solar design.
Sacred River, Resilient Peoples: Building Community Strength in the Dungeness River Watershed
(EPA Community Change Grant development)
2024
This was a joint effort between the Dungeness River Nature Center, of which Frank was Director at the time, and the Jamestown S’Klallam Tribe, for which Olivia was a contractor at the time. In collaboration with the Tribe’s Environmental Planning Department, we developed and sought funding for an adaptation project that would address accelerating climate and weather risks in the Olympic Peninsula of Washington. Risks are largely associated with the historic dependence of Northwest rivers on snowmelt to maintain summer flow regimes. As global climate change results in a shift from winter snow to winter rain, snowpack extent and depth are declining, and glaciers and perennial snowfields are disappearing. The result is a combination of low summer flows, which threaten salmon movement and survival at juvenile life stages, and high winter flows, which scour the stream bottom and again threaten the survival of juvenile salmon. At the same time, such drought in summer and high water levels in winter threaten human communities in the basin of the Dungeness River and particularly agricultural and aquacultural enterprises.
Our team members were central to the development of a framework for addressing hazards like drought, wildfire, and flooding that are affecting or could in the future affect Tribal Citizens, local non-Tribal community members, and key plant and animal species, particularly the salmon species that hold cultural importance for the S’Klallam Tribes.
While the overarching federal program was shut down in early 2025, we were pleased with the project’s architecture and gained experience in several consequential areas, including resilience hub design and Tribal cultural resilience provisions.
Watershed level adaptation program for the mountains of the Sierra Madre
2010 - Present
This project aimed to address climate disruption in the state of Chiapas, Mexico. In Chiapas, climate change is manifesting as an extension of the dry season from a historic 6 months to currently 8 months per year, resulting in failures of key crops (corn, coffee) and starvation of cattle. The small communities of the region that own land in common as “ejidos” tend to respond to these problems by clearing land uphill into the mountains to try to increase production, which exacerbates the flashiness of runoff regimes, intensifying water shortages and creating devastating, sediment-laden flooding.
With The Nature Conservancy’s in-country staff and local partners, we designed a program to increase production across multiple communities without clearing high-elevation, steep areas; instead, we encouraged the use of silvo-pastoral techniques that extended the survival of pasture grass into the dry season. Trees were planted in the pasture to shade grass and cattle, and nitrogen-fixing tree species were chosen to improve overall pasture growth. Rotational grazing was introduced to provide “grass banks” for use during drought or late-dry-season times. “Living fences” were introduced to reduce bank erosion along streams from cattle entry, reducing high water erosion and thereby downstream sediment damage. The techniques worked well and were popular with local ranchers and community members.
