Descrição da função
Position Overview
You will develop PLC-based and hardwired control systems for personnel access, equipment permissives, interlocks, and protective shutdown functions. Your work will span requirements, electrical and software design, hardware integration, testing, commissioning, and operational support. You will collaborate with controls engineers, subsystem owners, physics, operations, and safety specialists to implement and verify the required protective functions.
As Eos advances through design and into construction, you will contribute reusable PLC software, electrical designs, interface specifications, and test methods that support consistent implementation across plant systems. This is a hands-on engineering role requiring strong controls development and troubleshooting skills, practical experience with safety-rated hardware, and sound judgment in applying functional safety requirements.
Key Responsibility Areas
- Develop control architectures for safety and interlock systems, including personnel access, emergency shutdown, and interfaces with subsystem controls and machine protection. Work with system owners to define signal interfaces and the required independence between safety functions, normal plant control, and equipment protection.
- Translate approved safety and operational requirements into control specifications, functional descriptions, cause-and-effect matrices, I/O lists, and interface control documents. Maintain traceability between requirements, hardware and software implementation, and test results.
- Participate in hazard and design reviews with system owners and safety specialists. Provide controls expertise to identify failure modes, evaluate proposed protective actions, and translate risk assessment findings into implementable control functions.
- Work with safety specialists to establish the integrity and performance requirements applicable to each control function. Implement and document safe states, response times, diagnostics, fault handling, reset conditions, and provisions for proof testing in the hardware and software design.
- Select and integrate safety PLCs, safety-rated I/O, hardwired circuits, and communications appropriate to the specified functions. Evaluate fault behavior, common-cause vulnerabilities, maintainability, and availability when developing control architectures.
- Design personnel access and exclusion systems, including controlled zones, search-and-secure sequences, trapped-key interlocks, door monitoring, emergency stops, warning systems, and prevention of unexpected restart.
- Implement interlock and shutdown controls for systems involving high voltage, high current and stored energy, superconducting magnets, RF and neutral beam heating, radiation-generating equipment, cryogenics, oxygen deficiency monitoring, and hazardous gases, working with the responsible technical and safety specialists.
- Define coordinated trip, inhibit, isolation, and shutdown sequences across plant systems. Ensure that protective actions account for stored energy and preserve cooling, ventilation, monitoring, or other services required to reach and maintain a safe state.
- Coordinate interfaces with magnet quench protection, power supply protection, radiation monitoring, gas detection, and facility emergency systems. Define ownership, signal integrity, response timing, and fault behavior at each interface.
- Specify behavior across operating modes and transitions, including preparation, energization, plasma operation, shutdown, maintenance, and fault recovery. Establish controlled provisions for commissioning overrides, bypasses, and inhibited functions.
- Produce and review electrical schematics, safety loop diagrams, panel designs, I/O schedules, cable and grounding requirements, equipment specifications, and installation work packages using EPLAN or comparable tools.
- Develop, document, and test safety PLC application software and configuration using approved platform tools and IEC 61131-3 languages. Establish reusable function blocks, coding practices, version control, and controlled release processes.
- Specify and integrate safety-rated sensors, switches, relays, final elements, power supplies, and communications. Evaluate the complete sensor-to-final-element chain, including component suitability and failure modes.
- Integrate status, alarms, first-out trip information, and diagnostics with the supervisory control system while preserving the integrity and independence of the safety functions. Design operator interactions that support clear decisions and safe recovery.
- Develop and execute hardware and software verification plans, factory and site acceptance tests, integration tests, and commissioning procedures. Provide test results and configuration records to support independent validation and safety reviews as required.
- Define technical work packages and acceptance criteria; review supplier designs and test evidence; and coordinate implementation with vendors, integrators, and internal system owners.
Required Qualifications
- Bachelor's degree in electrical engineering, controls engineering, automation, or a related technical discipline, or equivalent relevant professional experience.
- Typically 8 or more years of relevant controls or electrical engineering experience, including hands-on design, programming, integration, and commissioning of PLC-based control systems with safety or interlock functions.
- Demonstrated experience delivering controls for personnel access, interlocks, or protective shutdown systems in fusion facilities, particle accelerators, synchrotrons, spallation sources, or comparable large scientific facilities.
- Practical understanding of functional safety requirements and experience applying IEC 61508, IEC 61511, IEC 62061, or ISO 13849, as relevant, to control hardware, application software, and verification activities.
- Hands-on experience programming, integrating, and validating safety PLCs, safety-rated I/O, interlock circuits, and field devices. Experience with Rockwell Automation GuardLogix, Siemens SIMATIC F systems, or comparable platforms.
- Ability to translate functional and safety requirements into electrical designs, PLC logic, and measurable acceptance criteria, with documented traceability and configuration control.
- Experience designing personnel access controls, emergency shutdown functions, and safe interfaces to hazardous equipment or processes.
- Strong electrical design and troubleshooting skills, including schematic development, control panel integration, instrumentation, and testing of complete safety loops.
- Experience with system integration, commissioning, functional testing, and maintenance or proof testing of safety systems in an operating facility.
- Ability to resolve control system interface issues across disciplines, explain design tradeoffs clearly, and produce electrical, software, and test documentation suitable for engineering reviews.
Preferred Qualifications
- Direct experience with fusion plant safety controls, superconducting magnets, high-energy power systems, RF heating, neutral beam systems, or radiation-generating equipment.
- Experience integrating radiation protection, oxygen deficiency monitoring, gas detection, laser safety, or cryogenic safety systems into a facility safety architecture.
- Experience supporting reliability or safety integrity assessments through hardware failure analysis, diagnostic implementation, response-time evaluation, and proof-test design.
- Familiarity with applicable US electrical and machinery safety practices and standards, such as NFPA 70, NFPA 70E, and NFPA 79, and experience working with safety and compliance specialists to define the project requirements.
- Experience with EPLAN or comparable electrical design software, PLC development environments, requirements and configuration management tools, and interfaces to SCADA or scientific control environments such as EPICS.
- Functional safety training or certification, such as CFSE, CFSP, or a recognized functional safety engineer qualification, particularly where applied to PLC-based control system implementation.
Company Benefits
- Salary Range: $180,000 - $230,000 per year
- Comprehensive health benefits (e.g. medical/dental/vision)
- Employee equity stock options
- 20 days PTO
Requirements
- Ability to occasionally lift up to 50 lbs.
- Ability to perform activities such as typing, standing, or sitting for extended periods of time.
- Willingness to occasionally travel or work required nights/weekends/on-call.
- Ability to work in a facility that contains industrial hazards including heat, cold, noise, fumes, strong magnets, high voltage, high current, pressure systems, and cryogenics.
It's not necessary to meet all of the skillsets outlined above. Please feel free to send us a note and tell us why you would still be a great fit for this role or Thea Energy.
Diversity and Inclusion
Thea Energy is an equal opportunity employer committed to creating a company of diverse backgrounds. By creating a diverse environment, we will bring new ideas and approaches to solving some of the world's hardest (and most important) problems. All qualified applicants will receive consideration for employment without regard to race, color, religion, sex, gender, sexual orientation, gender identity or expression, national origin, family or marital status, age, disability, veteran's status, or other characteristic protected by applicable laws and regulations.
We may use artificial intelligence (AI) tools to support parts of the hiring process, such as reviewing applications, analyzing resumes, or assessing responses and identifying potential inconsistencies or verification signals in application materials based on available information. These tools assist our recruitment team but do not replace human judgment. Final hiring decisions are ultimately made by humans. If you would like more information about how your data is processed, please contact us.
Salário e benefícios
Sobre esta vaga
Sobre Thea Energy
Visão Geral da Empresa
Thea Energy, originalmente conhecida como Princeton Stellarators Inc.
Princeton, Nova Jersey, Estados Unidos
2022
O número de funcionários e os dados de receita para 2023 ou posterior permanecem não divulgados publicamente, embora opere como uma startup privada de fusão com financiamento do Programa de Desenvolvimento de Fusão Baseado em Marcos do Departamento de Energia dos EUA, sendo uma das oito beneficiárias (fonte: pppl.gov).
O Que Eles Fazem
A Thea Energy se concentra em avançar a energia de fusão por meio de designs inovadores de stellarators, utilizando arranjos de bobinas supercondutoras de alta temperatura (HTS) planas para alcançar confinamento magnético estável. Essa abordagem simplifica os complexos ímãs modulares 3D tradicionais encontrados em stellarators convencionais, permitindo uma produção de energia de fusão mais eficiente e eficaz (fonte: fusionxinvest.com). Seu sistema principal, chamado Eos em homenagem à deusa grega da aurora, é projetado para produzir nêutrons para a produção de trítio, essencial para validar sua tecnologia e possibilitar futuras aplicações comerciais, como usinas de energia de fusão em estado estacionário (fonte: heatmap.news). A tecnologia da empresa aproveita o poder computacional moderno e materiais HTS para otimizar designs, proporcionando uma estabilidade inerente em estado estacionário que mitiga as interrupções comumente associadas a tokamaks (fonte: thea.energy). Seus mercados-alvo incluem principalmente desenvolvedores de energia de fusão comercial, com um foco inicial em fontes de nêutrons para aplicações industriais, embora segmentos específicos de clientes não tenham sido detalhados (fonte: fusionxinvest.com). Um diferencial chave da Thea Energy é sua rápida capacidade de fabricação interna, que utiliza ferramentas como uma máquina CNC e um dispositivo especializado chamado "Zeus" para enrolar fita HTS, permitindo iterações rápidas e reduzindo a dependência de mão de obra terceirizada (fonte: heatmap.news).
Projetos & Histórico
Até agora, a Thea Energy não completou nenhum projeto, pois ainda está nas fases iniciais de desenvolvimento focadas na prototipagem de seu sistema Eos. Este sistema destina-se a servir como o primeiro demonstrador para a produção de nêutrons e trítio, mas datas específicas de conclusão, especificações de capacidade ou locais de projetos não foram relatados (fonte: fusionxinvest.com). A empresa está ativamente envolvida na construção e teste de protótipos de bobinas HTS planas em sua instalação em Kearny, Nova Jersey, que está equipada com um espaço de escritório aberto, laboratório e capacidades de fabricação em pequena escala para arranjos de ímãs (fonte: heatmap.news). As origens da Thea Energy no Laboratório de Física Plasmas de Princeton (PPPL) proporcionam parcerias fortes e uma base em pesquisa de stellarators, com o co-fundador David Gates sendo um físico notável e vencedor do Prêmio Edison de Patente por suas contribuições ao campo (fonte: pppl.gov). Atualmente, a presença geográfica da Thea Energy é limitada a Nova Jersey, e não houve anúncios sobre expansão, embora a localização se beneficie da proximidade com importantes centros de pesquisa em fusão no Nordeste, incluindo o PPPL e a Universidade de Columbia (fonte: heatmap.news).
Desenvolvimentos Recentes
Em 2023, antes de sua rebranding, a Princeton Stellarators Inc. recebeu financiamento do Programa de Desenvolvimento de Fusão Baseado em Marcos do Departamento de Energia dos EUA, que apoia avanços na tecnologia de stellarators em direção à comercialização (fonte: pppl.gov). No entanto, não houve contratos, aquisições, fusões ou rodadas adicionais de financiamento relatadas nos últimos dois anos, enquanto a empresa se concentra em avanços proprietários sem marcos ou prêmios públicos além da patente pessoal de Edison de Gates (fonte: thea.energy). O site da Thea Energy incentiva atualizações de assinatura, mas não lista nenhum comunicado de imprensa recente sobre anúncios importantes, indicando um período relativamente tranquilo em termos de comunicações públicas (fonte: thea.energy).
Trabalhando Lá
Informações sobre trabalhar na Thea Energy são limitadas, mas parece ser adequada para candidatos a emprego interessados em um ambiente de startup de fusão pequeno e em estágio inicial. Os cargos provavelmente abrangem posições de engenharia focadas em design de ímãs, enrolamento de HTS e fabricação CNC, bem como pesquisa em física e funções operacionais, inferidas pela mistura de mesas abertas, trabalho de laboratório e construção de protótipos da instalação (fonte: heatmap.news). A contratação parece estar concentrada no local de Nova Jersey, sem postagens documentadas para trabalho remoto ou em outros locais (fonte: fusionxinvest.com). A cultura da empresa parece misturar a agilidade de uma startup de tecnologia com as práticas de um ambiente de laboratório, enfatizando mão de obra local sindicalizada para escalabilidade e prototipagem rápida, em vez de depender de talentos acadêmicos de elite, tudo dentro de um espaço que prioriza a eficiência de fabricação (fonte: heatmap.news). No entanto, não há benefícios documentados, dados salariais ou depoimentos de funcionários disponíveis em fontes públicas.