K

Kairos Power

Develops fluoride-salt cooled high-temperature reactor

Fuels Instrumentation, Controls and Electrical Engineer

Full-Time
No salary listed
Mid
Bachelor's
Albuquerque, NM, USA
In Person
Electrical EngineeringControls & Automation Engineering

About the job

Requirements
  • Bachelor’s degree in Electrical Engineering, Controls Engineering, Instrumentation Engineering, or a related engineering discipline; an equivalent combination of relevant education and experience may be considered.
  • At least 4 years of relevant experience in instrumentation, controls, electrical, process automation, or related engineering work in a chemical, pharmaceutical, industrial, manufacturing, or similar process environment.
  • Experience developing or implementing instrumentation and control solutions for industrial or process equipment.
  • Experience reading, interpreting, and working with engineering documentation such as PFDs, P&IDs, equipment lists, instrumentation data sheets, control narratives, and Cause-and-Effect diagrams.
  • Experience specifying or selecting instrumentation and controls equipment based on process and operational requirements.
  • Experience supporting the installation, integration, testing, commissioning, or startup of instrumentation, controls, automation, or process equipment.
  • Experience working with hazardous processes or chemicals and applying appropriate engineering and safety controls.
  • Knowledge of instrumentation and process control principles, including measurement, control loops, alarms, interlocks, control sequencing, and basic process automation concepts.
  • Knowledge of industrial controls equipment and components, including PLCs, VFDs, motors, controllers, I/O, process instrumentation, and associated electrical interfaces.
  • Ability to apply instrumentation scaling and calibration principles during system design, checkout, commissioning, and troubleshooting.
  • Ability to troubleshoot instrumentation, control, and automation system issues using engineering documentation, system data, equipment information, and observed system performance.
  • Ability to support functional testing and verification of instrumentation, controls, and process equipment in accordance with approved design requirements and test procedures.
  • Ability to analyze technical and operational data and use findings to support engineering decisions and system improvements.
  • Ability to prepare clear and accurate engineering documentation, requirements, reports, plans, and test records.
  • Ability to communicate technical information effectively and collaborate across engineering, operations, EHS, quality, and vendor or supplier teams.
  • Ability to manage multiple engineering activities and priorities while maintaining accuracy, documentation quality, and attention to technical requirements.
  • Ability to apply established safety requirements and practices when working with process equipment, instrumentation, controls, and hazardous processes.
  • Ability to work with hazardous warning signs, report equipment issues or unsafe conditions, and wear required PPE.
  • Ability to work in general office, noisy, and chemical odor or fume environments, and to assess work for accuracy, neatness, and thoroughness.
  • Ability to climb ladders, stairs, scaffolding, ramps, scissor lifts, and articulated boom lifts; move in tight or confined spaces; stand or sit for prolonged periods; move between worksites; and transport or position objects weighing up to 10 pounds.
  • Occasional schedule flexibility and infrequent weekend or extended-hours work may be required to support launch and critical project timelines.
  • Must be authorized by the Department of Energy to access Part 810-controlled information; foreign nationals from countries outside the Department of Energy’s general authorization list require an export control license for access.
Responsibilities
  • Perform IC&E design and engineering activities for prototype and production systems supporting TRISO fuel fabrication.
  • Implement and configure process automation solutions in coordination with process, mechanical, and other engineering disciplines, based on defined process requirements, control narratives, and safety design requirements.
  • Develop equipment and instrumentation specifications and select appropriate IC&E components, including instrumentation, programmable logic controllers (PLCs), variable frequency drives (VFDs), motors, controllers, and input/output (I/O) components, based on process, control, and operational requirements.
  • Develop and review IC&E engineering requirements, equipment and instrumentation lists, data sheets, and related technical documentation.
  • Review and contribute to piping and instrumentation diagrams (P&IDs) and other process documentation to support development and integration of IC&E designs.
  • Interpret Cause-and-Effect (C&E) diagrams and translate defined control requirements into control sequences and associated IC&E implementation.
  • Participate in design reviews to evaluate mechanical and process designs for IC&E integration and define cabling, instrumentation, electrical interface, and equipment-control requirements.
  • Coordinate with CAD and other design personnel to develop cable routing and instrumentation and electrical interface requirements for process equipment and skid designs.
  • Provide hands-on engineering support for fabrication, assembly, installation, integration, and checkout of controls and instrumentation for assigned systems.
  • Develop and support execution of commissioning plans, procedures, functional tests, and associated test documentation for instrumentation, controls, and process equipment.
  • Support checkout and verification of instrumentation and control system inputs, outputs, alarms, interlocks, control sequences, scaling, and calibration in accordance with approved design requirements.
  • Interface with vendors and suppliers to support technical evaluation, selection, procurement, and integration of equipment and instrumentation.
  • Collect, review, and analyze system and operational data to identify opportunities to improve IC&E design, system performance, reliability, maintainability, safety, and operational efficiency.
  • Troubleshoot process automation, instrumentation, controls, and equipment issues during fabrication, commissioning, startup, and operations, and support development and implementation of appropriate technical solutions.
  • Participate in process hazard analyses and design and operational safety reviews, including HAZOP and What-If analyses, as applicable.
  • Prepare and review IC&E engineering reports and other technical documentation related to assigned systems and engineering activities.
  • Collaborate with facility operations and engineering teams to implement, optimize, and sustain TRISO fuel fabrication processes and associated automation and control systems.
  • Perform other duties as assigned.
Desired Qualifications
  • Experience with Rockwell / Allen-Bradley platforms (Studio 5000, CompactLogix, or ControlLogix), including Add-On Instruction development and version management.
  • Experience with Ignition or a comparable modern SCADA platform.
  • Experience with EtherNet/IP remote I/O and IO-Link device architectures.
  • Experience in nuclear, radiological, or other regulated manufacturing environments, including documentation and traceability expectations.
  • Experience with modular skid design, fabrication and field integration, and process unit operations such as powder handling, thermal processing, coating, compaction, or solvent recovery.
  • Exposure to TRISO fuel, advanced ceramics, graphite and carbon-based materials, or high-temperature process systems.
  • Experience scripting or automating engineering tasks, such as using Python or VBA to generate controls code, tag databases, or test documentation.
  • Experience with 2D or 3D design software such as AutoCAD, SolidWorks, or equivalent to produce and mark up fabrication and installation drawings.
  • Familiarity with process hazard analysis methods and functional safety concepts.

About the company

Kairos Power develops the KP-FHR, a low-pressure fluoride-salt–cooled high-temperature reactor that uses TRISO fuel to produce electricity. Heat is transferred with a high-temperature, single-pass molten fluoride salt loop to a conventional power cycle, while the reactor stays at low pressure for safety. The company builds test units and Hermes demonstration reactors to de-risk licensing, manufacturing, and construction before deploying fleets of commercial reactors. It has a 500 MW agreement with Google and a TVA power purchase agreement, targets first power around 2030, and is backed by DOE cost-share funds and private investors, with Samsung C&T collaborating on deployment.

Company Size

501-1,000

Company Stage

Grant

Total Funding

$643M

Headquarters

Alameda, California

Founded

2016

Get referred to Kairos Power

See people who can refer or advise you

Simplify Jobs

Simplify's Take

What believers are saying

  • Samsung C&T pledged up to $100 million plus EPC support on September 21, 2026.
  • NuCAMP, launched August 18, 2026, expands Oak Ridge manufacturing and workforce capacity.
  • DOE ARDP funding and ORNL's $27 million partnership strengthen technical de-risking.

What critics are saying

  • Hermes 1's completion slipped to April 2029 after a 2026 license amendment request.
  • Hermes 2 must still hit 2030, leaving little slack for construction delays.
  • Any TRISO, salt-supply, or licensing failure kills Google's 500-megawatt commercialization plan.

What makes Kairos Power unique

  • Kairos won NRC Hermes 2 approval and broke ground in April 2026.
  • Its KP-FHR pairs TRISO fuel with fluoride salt cooling for low-pressure operation.
  • Google and TVA committed 500 megawatts, validating Kairos's commercial path.

Help us improve and share your feedback! Did you find this helpful?

Benefits

  • Health Insurance
  • Dental Insurance
  • Vision Insurance
  • Paid Vacation
  • 401(k) Company Match
  • 401(k) Retirement Plan

Growth & Insights and Company News

Headcount

6 month growth

2%

1 year growth

3%

2 year growth

1%
Oak Ridge Today
Oct 19th, 2026
Oak Ridge hosts Nuclear Science Week 2026 events.

Oak Ridge hosts Nuclear Science Week 2026 events. Free admission to AMSE Saturday; other activities this week. The Oak Ridger Updated Oct. 19, 2026, 2:56 p.m. ET The American Museum of Science and Energy (AMSE) and the Oak Ridge Discovery Foundation invite the community to celebrate Nuclear Science Week 2026, Oct. 19-24. The week covers the science, careers and future of nuclear energy in the birthplace of the Manhattan Project and home of the nation's largest national laboratory. Nuclear Science Week 2026 is presented by Kairos Power, according to an AMSE news release.

Energy Central
Oct 15th, 2026
Kairos Power raises $643M for advanced nuclear reactors to power Google data centres

Kairos Power has raised $643M to fund advanced nuclear technology slated to power Google data centres. The money will support Hermes 2, a 50MW molten salt demonstration reactor planned to switch on in 2030. Investors including Google Ventures and Samsung C&T are providing $368M, while the US Department of Energy (DOE) is supplying $275M. In 2024, Kairos announced a partnership with Google to build 500MW of advanced nuclear reactors by 2035. First, the company must prove its technology is ready for wide use.

Interesting Engineering
Oct 15th, 2026
Automated inspection checks each fuel pebble.

Automated inspection checks each fuel pebble. Kairos Power is developing fluoride salt-cooled, high-temperature reactor technology that uses spherical fuel elements, commonly called pebbles. Before the pebbles enter testing platforms or are prepared for transport, the new automated line subjects them to a series of quality checks. The system measures each pebble's diameter, geometry, and density in real time to confirm it meets manufacturing specifications. High-precision lasers then scan the exterior surface at the micron level to assess its structural integrity. Automating these checks allows the company to process pebbles while collecting standardized measurements for individual records. The resulting data can help engineers identify manufacturing variations and improve subsequent production campaigns. Rather than relying solely on batch-level records, the system links inspection results to each pebble, providing more detailed information about the fuel elements entering tests. Laser codes create individual fuel records. After inspection, each pebble moves to an infrared laser engraving station. The system etches three redundant data matrix codes, similar to QR codes, into the graphite surface, with markings approximately half a millimeter deep, according to the company. Each code links the pebble to an individual record containing its dimensions, density measurements, production batch, and inspection status. Additional markings around the codes let optical systems identify different pebble types if a data matrix is damaged. That traceability could become increasingly important as Kairos Power expands its fuel development and testing activities. By linking physical fuel elements to manufacturing and inspection data, engineers can track individual pebbles through downstream handling and testing. The company also expects the markings to help distinguish different pebble types, improve fuel-consumption measurements, and strengthen material accountability during reactor operations. "By automating our quality control and laser-engraving processes in-house, we are building the foundational capabilities and traceability required to support our iterative approach to fuel development," said Kirby Boone, a senior engineer on Kairos Power's fuel team. Boone added that the system will generate data to inform future manufacturing and handling systems, from Hermes 2 to the company's planned commercial fleet. Supporting Hermes 2 and future fuel production. The automated line is currently processing pebbles for upcoming hardware demonstrations, with a near-term target of 70,000 inspected fuel elements for testing platforms that include the second ETU. The system is also intended to support Hermes 2, the company's planned demonstration plant in Oak Ridge. Kairos Power is developing the inspection infrastructure in-house so it can use lessons from each production campaign to refine manufacturing processes and prepare for larger-scale fuel production.

Bloomberg Law
Oct 14th, 2026
Nuclear Startup Kairos Raises $643 Million for Tennessee Project

Kairos Power LLC, a nuclear-energy startup, lined up $643 million in private and government funding to support construction of its demonstration reactor in Tennessee.

Bloomberg
Oct 14th, 2026
Nuclear startup Kairos raises $643 million for Tennessee project.

Nuclear startup Kairos raises $643 million for Tennessee project. October 14, 2026 at 12:53 PM PDT Kairos Power LLC, a nuclear-energy startup, lined up $643 million in private and government funding to support construction of its demonstration reactor in Tennessee. The funding comprises $368 million from backers including Google Ventures and DCVC, as well as $275 million in financing from the US Energy Department, according to Kairos Chief Executive Officer Mike Laufer. The private investment includes $70 million from Samsung C&T Corp. through a partnership announced last month.