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Kairos Power

Develops fluoride-salt cooled high-temperature reactor

Plant Control Systems Engineer - Motion Control

Controls & Automation EngineeringConfirmed live in the last 24 hours
Full-time$140.6k - $165.4k

About the Job

Requirements

  • A Bachelor's or Master's degree in Electrical Engineering, Controls Engineering, Mechatronics, or a related engineering discipline is required.
  • At least 4 years of progressively responsible experience in control-systems engineering, industrial automation, instrumentation and controls, or a related field, including control-logic development using IEC 61131-3 languages or equivalent standards.
  • Experience serving as a responsible engineer, system owner, technical lead, or lead designer for complex electrical, controls, or mechanical-handling equipment.
  • Experience with cranes, hoists, manipulators, lifts, conveyors, positioning systems, remotely operated equipment, robotics, or similar motion-control applications.
  • Experience with system requirements, design documentation, supplier coordination, technical reviews, testing, commissioning, troubleshooting, and design-change implementation.
  • Strong knowledge of motion-control architectures, including AC motors, servo motors, variable-frequency drives, servo drives, motor starters, gearboxes, brakes, mechanical transmissions, encoders, resolvers, limit switches, proximity sensors, load cells, and associated instrumentation.
  • Ability to perform or review motor sizing, torque-speed, inertia, acceleration, duty-cycle, thermal, gearbox, braking, electrical-protection, grounding, shielding, cable-selection, and power-quality analyses.
  • Experience with programmable logic controller and motion-controller programming using ladder logic, structured text, function blocks, sequential-function charts, or equivalent methods.
  • Experience with industrial-control platforms such as Rockwell Automation, Siemens, Emerson, ABB, GE, or equivalent.
  • Experience with distributed control systems, human-machine interfaces, supervisory control and data acquisition, remote input/output, instrumentation, control panels, historians, supervisory controls, and industrial communications.
  • Familiarity with industrial communication protocols including Ethernet/IP, Modbus, OPC, Profibus, Profinet, fiber-optic networks, or equivalent technologies.
  • Ability to develop and interpret electrical schematics, wiring diagrams, panel layouts, control narratives, piping and instrumentation diagrams, functional logic diagrams, cause-and-effect matrices, input/output lists, and test procedures.
  • Familiarity with machine-safety practices, including safety programmable logic controllers, safety relays, emergency stops, interlocks, overload protection, limit switches, safety-rated feedback, brake monitoring, and safe torque-off functions.
  • Working knowledge of low-voltage electrical design, including control power and interfaces from 480 VAC through 24 VDC.
  • Familiarity with configuration management, requirements traceability, independent review, software quality practices, controlled implementation, and lifecycle documentation.
  • Familiarity with applicable IEEE, IEC, NEMA, NFPA, ISA, ASME, OSHA, and project-specific requirements.
  • Knowledge of control-system requirements management, design verification, and requirements traceability practices.
  • Ability to develop, review, and evaluate control-system test plans, procedures, acceptance criteria, and test results.
  • Ability to define, coordinate, and resolve multidisciplinary technical interfaces.
  • Ability to evaluate technical alternatives, risks, assumptions, and design tradeoffs and document engineering decisions.
  • Ability to independently manage complex technical assignments with limited supervision.
  • Ability to communicate complex technical information in written, graphical, and verbal form.
  • Ability to collaborate with engineering, operations, maintenance, quality, safety, suppliers, and commissioning teams.
  • Ability to proactively collect, manage, and transfer knowledge.
  • Ability to seek novel ways to create efficiencies when working on problems and challenges.
  • Ability to move between tasks or worksites, communicate with others, and remain standing or seated for prolonged periods.
  • Ability to read and interpret hazardous warning signs, report equipment issues or unsafe conditions, and wear required personal protective equipment.
  • Schedule flexibility is occasionally required, and extended hours are seldomly required to support launch and critical project timelines.

Responsibilities

  • Serve as responsible engineer, system owner, or technical lead for assigned motion-control, electrical-control, motor-drive, and mechanical-handling systems.
  • Develop and maintain requirements, functional specifications, interface-control documents, design descriptions, calculations, drawings, equipment data sheets, and verification records.
  • Translate plant operating, equipment, environmental, maintenance, and safety requirements into practical electrical and control-system designs.
  • Define operating modes, local and remote control functions, manual and automatic operation, startup and shutdown sequences, equipment protection, fault response, alarms, interlocks, permissives, trips, and safe-state behavior.
  • Specify and integrate AC motors, servo motors, stepper motors, variable-frequency drives, servo drives, stepper drives, motor starters, gearboxes, brakes, encoders, resolvers, limit switches, proximity sensors, load cells, instrumentation, safety devices, control panels, and related equipment.
  • Perform or review motor sizing, torque-speed characteristics, duty-cycle and thermal analyses, load and inertia calculations, acceleration/deceleration profiles, drive sizing, braking requirements, cable sizing, electrical protection, grounding, shielding, and power-quality considerations.
  • Develop or review electrical schematics, panel layouts, wiring diagrams, termination drawings, input/output lists, loop diagrams, control narratives, functional logic diagrams, cause-and-effect matrices, and test procedures.
  • Develop, configure, review, and test programmable logic controller, motion-controller, distributed control system interface, human-machine interface, supervisory control and data acquisition, and related control software using established software-development, peer-review, testing, release, and configuration-management practices.
  • Define interfaces for equipment commands, status, position feedback, alarms, diagnostics, permissives, trips, safety signals, remote monitoring, data collection, event logging, and maintenance diagnostics.
  • Integrate assigned equipment with plant controls, supervisory systems, industrial networks, remote input/output, local and control-room operator interfaces, and approved cybersecurity architectures.
  • Support appropriate separation and interface definition among equipment controls, plant controls, plant protection systems, and other safety functions.
  • Review supplier designs, calculations, drawings, software, test procedures, and technical submittals for compliance with project requirements.
  • Support supplier technical evaluations, procurement specifications, design reviews, inspections, test witnessing, factory acceptance testing, site acceptance testing, load testing, installation, commissioning, startup, and turnover.
  • Develop or review acceptance criteria, test plans, test procedures, test reports, and resolution documentation for design changes, nonconformances, and corrective actions.
  • Support troubleshooting, operability evaluations, root-cause analysis, corrective-action implementation, reliability improvement, and lifecycle management of assigned systems.
  • Maintain traceability among control-system requirements, design outputs, interfaces, software implementation, and verification activities throughout the system development lifecycle.
  • Evaluate and implement control-system design changes in accordance with applicable engineering change, configuration-management, and design-control processes.
  • Coordinate control-system design interfaces with process, mechanical, electrical, nuclear, operations, cybersecurity, and other applicable disciplines to ensure integrated system performance and resolve interface issues.
  • Perform or support design verification and technical reviews to confirm that control-system designs satisfy applicable requirements, interfaces, design criteria, and engineering standards.
  • Mentor junior engineers and contribute to technical standards, reusable designs, control libraries, test methods, and lessons learned.
  • Develop, configure, review, test, and implement control software for programmable logic controllers and other industrial control platforms.
  • Develop control logic using IEC 61131-3.
  • Implement regulatory controls, sequencing logic, equipment controls, permissives, interlocks, alarms, diagnostics, and fault-response functions.
  • Develop or support human-machine interface and supervisory control functionality associated with assigned control systems.
  • Establish and follow software-development practices for code organization, naming conventions, peer review, testing, version control, configuration management, and release documentation.
  • Perform peer reviews of control code and associated design documentation.
  • Develop simulation, emulation, or test environments to verify control-system behavior before deployment.
  • Investigate and resolve control-software defects, integration issues, communication problems, and unexpected system behavior.
  • Support controlled software installation, commissioning, turnover, and lifecycle maintenance.
  • Provide technical guidance and mentoring to engineers, designers, technicians, and project-team members.
  • Lead technical reviews, design discussions, troubleshooting sessions, and resolution of complex control-system issues.
  • Review the work of other engineers for technical accuracy, completeness, consistency, and compliance with project requirements.
  • Develop reusable design methods, standard architectures, templates, libraries, and engineering practices.
  • Share lessons learned and promote continuous improvement in control-system design, software development, testing, and commissioning.
  • Support training and cross-training of engineers on applicable control platforms, design tools, and plant systems.
  • Serve as a technical resource to the Senior Manager without assuming formal hiring, compensation, performance-management, or other personnel-management responsibilities.
  • Perform other duties as assigned.
  • Travel up to 10% may be required.

Desired Qualifications

  • A Professional Engineer license or eligibility for licensure is preferred.
  • Nuclear power plant, advanced reactor, radiological facility, power-generation, utility, heavy-industrial, manufacturing, process-plant, or engineering, procurement, and construction experience is preferred.
  • Additional certifications such as NETA or CMCP are a plus.

About the Company

Kairos Power

Develops fluoride-salt cooled high-temperature reactor

Kairos Power develops the KP-FHR, a fluoride salt-cooled high-temperature reactor that uses TRISO fuel to generate electricity at low pressure. Heat from the fuel moves through a single-pass molten fluoride salt loop to a power cycle, keeping the reactor at low pressure to simplify containment. The company uses a vertically integrated, iterative path by building test units and demonstration plants to de-risk licensing, manufacturing, and construction before commercial deployment. Its goal is to provide clean, reliable, cost-competitive electricity, with Hermes being demonstrated in Oak Ridge and partnerships with Google and TVA guiding early deployment.

Company size
501-1,000
Company stage
Grant
Total funding
$643M
Headquarters
Alameda, CA
Founded
2016

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