Company SummaryOur mission is to accelerate our planet’s transition to a carbon negative society. We will capture 1B tons of CO2 from the atmosphere by 2035 (equivalent of ~60M Americans’ annual emissions today), and build a multi-billion dollar business along the way. The problem we are solving is that according to IPCC, billions of tons of CO2 need to removed from the atmosphere (in addition to decarbonizing the entire economy) by 2050 to keep global warming to 1.5 °C, but current technologies are too expensive and not scalable to the volume necessary.Unlike traditional engineered removal solutions, our Nature published technology combines the natural properties of minerals (carbon mineralization) with engineering to provide a low cost path to $50/tCO2 for Direct Air Capture (DAC), the cost at which carbon removal will be transformative. Our early customers are corporations and other entities that need to reduce and offset their carbon emissions to meet compliance requirements or carbon pledges. Our go-to-market strategy allows us to be unit profitable from day one, and reach >$1B in revenue just from existing markets and pledges. Our $100B opportunity lies with carbon markets set for creation in the EU, US, and other markets. Over the next 18 months, we will de-risk our cost estimates, build our first deployment, and validate the commercial viability of this technology.About the jobThe Heirloom team is on a path to creating the world’s first sustainable, scalable, and economically viable carbon removal system. This technology - which requires a unique blend of geology, chemistry, industrial automation, and process engineering - doesn’t yet exist at the scales necessary to make a difference, so we need to build it ourselves. We are looking for dedicated and driven hardware scientists and engineers to help us design and build systems that capture CO2 directly from the air and enable us to process it into a variety of products (carbon credits, carbon negative materials, etc).You will design and build the hardware, software, and infrastructure to capture and measure the CO2 we capture from the air we breathe. While our laboratory results demonstrate the general concept, we must scale from lab bench to industrial scales. You will help shape and drive exploratory research and development phases to evaluate and test new ideas and setups. You revel in both complexity and uncertainty and delight in breaking down and translating huge problems into actionable and testable systems requirements. As we scale, you will help us design and build the infrastructure necessary to operate at the industrial levels necessary to effect global change on our CO2 footprint. Your work has the potential to directly shape our fight against climate change.
- Work in an interdisciplinary field of engineering and engineering management that focuses on how to design, integrate, and manage complex systems over their life cycles.
- Discovering the real problems that need to be resolved, and identifying the most probable or highest impact failures that can occur.
- Define product design success criteria and metrics.
- Use 3D tools to design, build, and test our novel enhanced weathering methodology to capture CO2 at massive scale in the billions of tons.
- Generate system definition and concepts based on observational and analytical research performed by the Heirloom Research Team.
- Perform discrete event simulation to understand and define material flow requirements.
- Define product modules that can be defined, designed, built, and tested as independent systems.
- Drive system level analysis to consider trade-offs between function, deployment time, operational costs, and capital investment
- BS / MS in Mechanical Engineering (or equivalent)
- Ability to take an observational and analytical approach to problem definition.
- Experience in product design, with an emphasis on modularity.
- Demonstrated success in multiple industries, across multiple products types, and multiple product life cycles.
- Professional experience in design-for-manufacturing and lean manufacturing principles.
- Familiar with construction methods, with an emphasis on modularity.
- Catia, NX, or Solidworks
- Discrete Event Simulation software such as AnyLogic or Process Simulate
Carbon Removal & Utilization Engineering