Conduct simulations to model detector technologies via COMSOL, CST Studios, SPICE, and/or Silvaco
Perform system-level testing, data analysis, and debugging of electrical systems
Document design specifications, test procedures, and technical reports
Design and develop diagnostic electronics for our x-ray diagnostic suite. This includes but is not limited to camera electronics, electrical-to-optical electronics, A/D readout electronics, PCBA design, and FPGA/ASIC design and data acquisition equipment
Manage electrical scope which includes risk analysis, risk management, data based decisions.
Collaborate with cross-functional teams including optical, nuclear, mechanical, and software engineers as well as scientists and experimentalists
Stay current with advancements relevant technologies
Requirements
python
matlab
labview
bs electrical
comsol
high‑speed
Programming skills in Python, MATLAB, or LabVIEW for test automation and data analysis.
Minimum of BS in Electrical Engineer
Experience in multidisciplinary projects and ability to work cross functionally
Experience with simulation software such as COMSOL, CST Studios, SPICE, and/or Silvaco (or equivalent)
Strong understanding of analog, digital, and mixed-signal circuit design.
Track record of identifying gaps and taking initiative.
Experience with detector technologies such as phosphors, MCPs, imaging sensors, photodiodes, PMTs and photocathodes
Knowledge of radiation effects on electrical systems
Experience with high-speed electronics and data acquisition systems.
Experience working closely with PhD scientists and R&D technology organizations
Minimum 5+ years of expertise working in high pedigree, low volume electrical subsystems
Track record of designing reliable electrical subsystems and bringing them through the product development process into commissioned hardware.
Integration of various detector technologies including phosphors, microchannel plates (MCPs), imaging sensors (understanding of fabrication techniques is a plus), photodiodes (understanding of fabrication techniques is a plus), photomultiplier tubes (PMTs) and photocathodes
Benefits
Equity plan
Generous paid time off (including sick leave, vacation, paid family leave)
6% employer 401k matching
Medical, Dental, and Vision insurance
Industry-competitive salary
Training + Development
Information not given or found
Interview process
Information not given or found
Visa Sponsorship
Information not given or found
Security clearance
Information not given or found
Company
Overview
$900M
Series A Investment
The company secured over $900 million in Series A funding led by top-tier investors.
135k ft²
Facility Size
Construction is underway in a 135,000-square-foot facility in San Leandro.
150 Modules
Fusion Target
They aim to use 150 modular units to achieve net facility gain by 2030.
Led by founders from NASA, DOE labs, and genomics—Eric Lander (co‑founder/CEO) and Keith LeChien (CTO) steer the technical vision.
They’re pioneering pulsed magnetic inertial fusion: stacking modular ‘bricks’ in Marx generators to drive fuel capsules to fusion.
Built in a 135k ft² San Leandro facility, the team of ~60 engineers and scientists is constructing full-scale pulser modules.
Collaborations with General Atomics and US national labs accelerate scaling and prototype testing.
Their demonstration system in Livermore targets research-grade operations ahead of commercial rollouts.
By focusing on mass‑manufacturable modules and affordable supply chains, they aim to bring fusion to market within a decade.
Culture + Values
Talented, humble builders
United by a shared sense of urgency — to meet rapidly growing global energy demand while addressing climate change
Shared sense of responsibility — to each other, to our investors, to our country, and to our planet
Committed to collaborating with the broader scientific community… regularly share and publish our research… committed to partnering with communities, regulators, policymakers, suppliers, industry peers, and customers
Environment + Sustainability
$900M+ Funded
Series A Financing
Raised $900 million in Series A funding tied to technical milestones for advancing clean energy solutions.
>100 MJ Output
Fusion Energy Yield
Collaborating with partners to achieve high-yield fusion energy output in inherently safe, carbon-free systems.
2030 Target
Net Facility Gain
Technology aims to achieve net facility gain by 2030, producing more fusion energy output than stored energy input.
Mission: power the world with abundant, affordable, clean energy
Building pulsed magnetic inertial fusion system using widely available materials and mass‑manufacturable modular units ('bricks' and 'modules') to support scalable clean power
Collaborating with National Lab partners (General Atomics, LLNL) to drive advances toward high‑yield fusion in inherently safe, carbon‑free systems
Inclusion & Diversity
No publicly available DEI strategy or gender-related statistics found on website or LinkedIn profiles