Odin Dynamics

Black Flag · Supports Organization, Organization · founded year

“Odin Dynamics builds autonomous underwater vehicles using a proprietary battery architecture that delivers greater energy density at lower cost.”

Industrial Base Alpha (Substack) · Mar 19, 2026 · Supports Organization technology, System

“Odin’s claim is that their patented battery architecture delivers an order of magnitude improvement in energy density at a fraction of current market pricing”

Pitch · Supports Organization technology

“Two generations of AUV prototypes completed (P1 & P2), with autonomous navigation demonstrated and critical subsystems validated.”

Black Flag · Jun 24, 2026 · Supports Funding round, Organization, Role

“We closed our pre-seed in February, we're to close our seed.”

U.S. Securities and Exchange Commission · Feb 20, 2026 · Supports Funding round

“Odin Dynamics Jan 2026 a Series of CGF2021 LLC; Date of First Sale: 2026-02-04; Total Amount Sold: $804,438”

Linkedin via Bright Data · Supports Organization · company size, Organization · logo, Organization · url, Organization metric · employees in linkedin, Organization metric · followers

“{"company_size": "11-50 employees"}”

LinkedIn via Bright Data · Supports Job posting · job listing

“{"company_id": "105049861", "company_name": "Odin Dynamics, Inc", "company_url": "https://www.linkedin.com/company/odin-dynamics?trk=public_jobs_topcard-org-name", "job_employment_type": "Full-time", "job_location": "Long Beach, CA", "job_posted_time": "1 month ago", "job_posting_id": "4450730990", "job_seniority_level": "Not Applicable", "job_summary": "About Odin Dynamics Founded in 2025, Odin Dynamics is a defense technology company building autonomous underwater vehicles that will define the next era of undersea warfare. We are focused on delivering capable, resilient autonomous systems that strengthen the strategic advantage of the United States and its allied navies. We move fast, build real hardware, and operate with the urgency that the mission demands. We are building a new platform from the ground up. This is not a role where you will inherit a mature product with every architectural decision already made. You will take incomplete requirements, early hardware, and difficult technical constraints and turn them into dependable, production-ready autonomy systems. We value rigorous engineering without unnecessary process. Decisions should be driven by physics, test data, and product outcomes—not inherited convention or documentation volume. The Role Odin Dynamics is hiring multiple Senior Electrical Engineers to serve as Responsible Engineers for critical electrical subsystems across our platform. Each engineer will take primary technical ownership of one of three areas: High-speed digital electronics and embedded compute hardware Motor-control and drive electronics Battery, power electronics, and power-distribution hardware Candidates will apply to a common requisition, and Odin Dynamics will determine the best area of focus through the interview process. We are looking for engineers with deep expertise in at least one area who are also comfortable working across electrical architecture, schematic design, PCB layout, embedded systems, power electronics, manufacturing, testing, and the broader engineering domain. As the Responsible Engineer for your subsystem, you will own the hardware throughout its lifecycle: requirements, architecture, detailed design, schematic capture, PCB layout, component selection, analysis, bring-up, verification, field testing, production support, failure analysis, and continued improvement after deployment. This is a hands-on individual-contributor position. You will be expected to design real hardware, make technical decisions, mentor other engineers, and remain accountable for the performance and reliability of your subsystem. There are no organizational handoffs when a difficult problem crosses the boundary between electrical, software, mechanical, manufacturing, or test engineering. What You’ll Do Serve as the Responsible Engineer for a major electrical subsystem. Develop greenfield electrical hardware from initial requirements and architecture through field-tested, production-ready implementation. Own schematic design, PCB layout, component selection, design reviews, analysis, bring-up, validation, production support, and sustaining improvements. Design high-reliability electronics for systems with strict size, weight, power, thermal, performance, and environmental constraints. Create electrical architectures and hardware interfaces in close collaboration with Embedded Software, Avionics, Power Electronics, Mechanical Engineering, Manufacturing Engineering, Supply Chain, and Test Engineering. Design and review multilayer PCBs, high-speed digital interfaces, controlled-impedance routing, mixed-signal circuitry, high-current power paths, power sequencing, clocking, reset behavior, grounding, and board-level power distribution. Bring up new boards in the lab and work closely with embedded software engineers to validate hardware/software integration. Debug board-level and system-level issues involving power rails, clocks, resets, signal integrity, noise, thermal behavior, communications, intermittent faults, and hardware/software interactions. Use oscilloscopes, logic analyzers, spectrum analyzers, network analyzers, electronic loads, power supplies, thermal cameras, and related lab equipment to identify root causes. Develop and execute board-level validation tests, integration tests, and system-level tests. Work with Test Engineering to validate systems in laboratory, field, and sea-trial environments. Support production testing, investigate failures on deployed hardware, and own corrective improvements throughout the product lifecycle. Coordinate with manufacturing partners, PCB fabricators, assembly vendors, component suppliers, and internal manufacturing teams to transition designs from prototype to production. Produce concise, functional engineering documentation that enables implementation, testing, operation, manufacturing, and future development. Mentor other engineers and contribute to technical reviews without moving away from hands-on engineering. Areas of Focus High-Speed Digital Electronics The High-Speed Digital Electronics Responsible Engineer will own electrical hardware for embedded compute and vehicle electronics, including: Embedded compute carrier boards Processor, microcontroller, memory, storage, and peripheral interfaces High-speed digital design, controlled impedance, signal integrity, and power integrity High-speed digital, memory, and storage interfaces, with associated clocks, resets, and power sequencing Power distribution for compute and vehicle electronics Board bring-up, validation, diagnostics, production support, and failure investigation Close collaboration with embedded Linux and firmware engineers during platform bring-up and hardware/software integration Motor Controls / Drive Electronics The Motor Controls Responsible Engineer will own electrical hardware for motor-control systems, including: Motor-controller hardware and power-stage electronics Motor-drive electronics and commutation hardware Gate drivers, current and voltage sensing, protection circuits, and control interfaces Microcontroller-based control boards and supporting power, clocking, reset, and communication circuits High-current layout, switching behavior, noise mitigation, thermal considerations, and fault protection Integration with embedded firmware, power electronics, vehicle-level controls, and test systems Board bring-up, validation, diagnostics, production support, and failure investigation Batteries / Power Electronics The Batteries and Power Electronics Responsible Engineer will own electrical hardware for battery-management, power electronics, and power-distribution systems, including: Battery-management hardware Cell-monitoring, sensing, balancing, protection, and communication circuits Power-distribution electronics and supporting control hardware Microcontroller-based battery-management boards and supporting power, clocking, reset, and communication circuits Power switching, monitoring, sequencing, protection, fault detection, and diagnostic interfaces Integration with embedded firmware, power electronics, vehicle-level systems, and test systems Board bring-up, validation, diagnostics, production support, and failure investigation What We’re Looking For Deep practical expertise in one or more of: High-speed digital electronics; Motor-control or drive electronics; Battery, power electronics, or power-distribution hardware. Sufficient familiarity with adjacent electrical and embedded systems to collaborate across subsystem boundaries. Strong experience designing, reviewing, and bringing up complex PCBs within your primary technical specialization. Strong schematic design and PCB layout experience. Experience with multilayer boards, high-speed digital design, controlled impedance, mixed-signal design, high-current power, high-voltage or power-constrained systems, dense embedded compute boards, and ruggedized electronics. Experience designing hardware that integrates tightly with embedded Linux, bare-metal firmware, RTOS-based firmware, sensors, actuators, power systems, and vehicle-level controls. Experience reading datasheets deeply, selecting components, defining interfaces, and making first-principles engineering tradeoffs. Experience debugging integrated hardware/software systems using lab equipment and structured root-cause analysis. Experience designing for real-world constraints such as noise, thermal behavior, manufacturability, reliability, serviceability, and environmental robustness. Experience working closely with embedded software engineers during board bring-up and hardware/software integration. Experience developing board-level validation plans, writing test procedures, executing tests, analyzing results, and driving design improvements. Experience supporting production test, manufacturing transition, failure analysis, and sustaining engineering after initial production. Demonstrated ability to work from first principles, make progress with incomplete information, and rapidly iterate between design, implementation, testing, and refinement. Ability to work independently with minimal oversight while collaborating closely across engineering disciplines. Willingness to support field testing and sea trials when required. Approximately five or more years of relevant electrical engineering experience is preferred, but demonstrated technical depth, multidisciplinary problem-solving ability, and a record of delivering difficult hardware systems matter more than a specific number of years. Exceptional candidates at any experience level are encouraged to apply. Preferred Experience Developing safety-critical, mission-critical, or high-reliability products. Taking an electrical subsystem from a blank sheet through multiple design, implementation, test, and refinement cycles into production or operational deployment. Autonomous vehicles, underwater systems, UAVs, robotics, aerospace, automotive, industrial controls, medical devices, energy systems, space systems, maritime systems, or other tightly integrated electromechanical products. Designing electronics for harsh environments. Industry-standard PCB design tools. Circuit simulation and analysis tools. Signal-integrity and power-integrity analysis. High-speed digital, memory, and storage interfaces. Embedded compute hardware, processor carrier boards, microcontroller boards, power sequencing, clocking, resets, and boot configuration. Motor-control electronics, drive hardware, gate drivers, inverter power stages, current sensing, protection circuits, and thermal management. Battery-management hardware, cell monitoring, cell balancing, protection circuits, power switching, sequencing, diagnostics, and fault-state design. Power electronics, power distribution, high-current layout, grounding, isolation, switching converters, and protection design. Working with PCB fabrication, assembly, component sourcing, manufacturing engineering, and supply chain teams to move hardware from prototype to production. Disclosures This position may require access to information protected under U.S. export control laws and regulations, including the Export Administration Regulations (EAR) and the International Traffic in Arms Regulations (ITAR). Please note that any offer for employment may be conditioned on authorization to receive software or technology controlled under these U.S. export control laws and regulations without sponsorship for an export license. Odin Dynamics, Inc. participates in E-Verify and will provide the federal government with your Form I-9 information to confirm that you are authorized to work in the U.S. Odin Dynamics is an equal opportunity employer committed to creating a diverse and inclusive workplace. All qualified applicants will be treated with respect and receive equal consideration for employment without regard to race, color, creed, religion, sex, gender identity, sexual orientation, national origin, disability, uniform service, Veteran status, age, or any other protected characteristic per federal, state, or local law, including those with a criminal history, in a manner consistent with the requirements of applicable state and local laws. 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. At Odin Dynamics, we offer competitive salaries benchmarked against the defense and robotics industries, meaningful early-stage equity, and benefits that cover the essentials — full covered health, dental, vision; 401(k); and paid time off. We invest in professional development and support our people in growing their skills alongside the company. We tie compensation to the impact you have, not your title. As we grow, our compensation and benefits will grow with us. We're building this company alongside the people who join it, and we believe everyone here should share in what we build together. Show more Show less", "job_title": "Senior Electrical Engineer", "timestamp": "2026-10-05T05:42:02.280Z"}”

LinkedIn via Bright Data · Supports Job posting · job listing

“{"company_id": "105049861", "company_name": "Odin Dynamics, Inc", "company_url": "https://www.linkedin.com/company/odin-dynamics?trk=public_jobs_topcard-org-name", "job_employment_type": "Full-time", "job_location": "Long Beach, CA", "job_posted_time": "1 month ago", "job_posting_id": "4450735471", "job_seniority_level": "Not Applicable", "job_summary": "About Odin Dynamics Founded in 2025, Odin Dynamics is a defense technology company building autonomous underwater vehicles that will define the next era of undersea warfare. We are focused on delivering capable, resilient autonomous systems that strengthen the strategic advantage of the United States and its allied navies. We move fast, build real hardware, and operate with the urgency that the mission demands. We are building a new platform from the ground up. This is not a role where you will inherit a mature product with every architectural decision already made. You will take incomplete requirements, early hardware, and difficult technical constraints and turn them into dependable, production-ready autonomy systems. We value rigorous engineering without unnecessary process. Decisions should be driven by physics, test data, and product outcomes—not inherited convention or documentation volume. The Role Odin Dynamics is hiring a Senior Autonomy Software Engineer to serve as the Responsible Engineer for the autonomy and perception stack of our autonomous underwater vehicle platform. This engineer will own the complete autonomy software lifecycle: requirements, architecture, algorithm design, implementation, model training, validation, simulation, integration, field testing, sea-trial support, production support, failure analysis, and continued improvement after deployment. This is not a research-only role, and it is not a narrow application-software role. You will be expected to develop autonomy algorithms, implement them in production software, validate them against real-world operating conditions, and remain accountable for their behavior in the field. The role spans autonomy, perception, decision-making, planning, machine learning, classical computer vision, sensor fusion, simulation, testing, and mission-level behavior. You will work closely with Avionics engineers on sensing architecture and sensor selection, with Embedded Software engineers on platform and sensor integration, and with Test Engineering on validation in laboratory, field, and sea-trial environments. This is a hands-on individual-contributor position. You will be expected to write substantial production code, train and evaluate models, analyze autonomy performance from logs and field data, make technical decisions, mentor other engineers, and remain accountable for the performance and reliability of the autonomy stack. There are no organizational handoffs when a difficult problem crosses the boundary between electrical, software, mechanical, manufacturing, or test engineering. What You’ll Do Serve as the Responsible Engineer for the autonomy and perception stack. Develop greenfield autonomy software from initial requirements and architecture through field-tested, production-ready implementation. Own autonomy behavior across mission planning, path planning, localization, state estimation, sensor fusion, perception, obstacle avoidance, recovery behavior, and fault-aware decision-making. Design and implement algorithms for object detection, recognition, classification, tracking, mapping, navigation, and autonomous decision-making. Develop both machine-learning-based and classical perception approaches, selecting the appropriate method based on mission requirements, data availability, compute constraints, reliability, and test evidence. Train, validate, evaluate, and improve perception and autonomy models using real, simulated, and replayed data. Build and maintain data workflows for model evaluation, scenario replay, regression testing, performance analysis, and failure investigation. Write, review, test, profile, and debug production software in appropriate systems and autonomy-development languages. Use modern machine learning frameworks for model development, training, evaluation, and deployment. Develop performance-conscious autonomy software under real-world compute, latency, memory, power, reliability, and observability constraints. Collaborate with Avionics engineers on sensor selection, sensing architecture, sensor trade studies, and practical perception requirements. Collaborate with Embedded Software engineers on platform integration, sensor interfaces, data pipelines, timing, logging, diagnostics, and deployment. Work with Test Engineering to validate autonomy behavior in simulation, laboratory, field, and sea-trial environments. Develop and maintain autonomy test environments, including: HOOTL — hardware-out-of-the-loop / SIL — software-in-the-loop HIL/HITL — hardware-in-the-loop Scenario-based simulation and replay Model validation and regression testing Analyze vehicle behavior from logs, telemetry, simulation results, field tests, and sea trials to identify root causes and drive corrective improvements. Define metrics for autonomy performance, perception quality, model reliability, mission success, and failure modes. Build automated development workflows using modern build systems, continuous integration, static analysis, profiling, model-evaluation pipelines, and automated testing. Produce concise, functional engineering documentation that enables implementation, testing, operation, and future development. Use AI-assisted development tools to accelerate implementation, testing, debugging, data analysis, and documentation while independently validating outputs and maintaining a first-principles understanding of the resulting system. Mentor other engineers and contribute to technical reviews without moving away from hands-on engineering. What We’re Looking For Deep practical experience developing autonomy, perception, planning, or robotics software for real-world systems. Strong proficiency in at least one systems programming language. Strong proficiency in a scripting language commonly used for autonomy development, data analysis, model development, testing, and automation. Experience with machine learning or deep learning for perception, classification, detection, tracking, recognition, or related autonomy tasks. Experience with classical computer vision, machine vision, state estimation, localization, sensor fusion, or related non-ML perception methods. Experience with path planning, motion planning, obstacle avoidance, mission planning, behavior trees, state machines, or other autonomous decision-making approaches. Experience integrating autonomy software into real systems with imperfect sensors, incomplete requirements, constrained compute, noisy data, and difficult operating environments. Experience training, validating, evaluating, and improving models using structured metrics, test datasets, simulation, replay, and field data. Experience developing reliable production software, not just prototypes, research code, notebooks, or isolated algorithms. Experience writing maintainable code, conducting code reviews, developing automated tests, using static analysis, profiling performance, and debugging complex system behavior. Experience building or extending simulation, replay, SIL, HIL/HITL, or scenario-based test environments for autonomy validation. Ability to reason from first principles about autonomy failures, perception failures, sensor limitations, edge cases, and system-level behavior. Ability to work from incomplete information, make defensible technical decisions, and rapidly iterate between design, implementation, testing, and refinement. Ability to work independently with minimal oversight while collaborating closely across engineering disciplines. Willingness to support field testing and sea trials when required. Approximately five or more years of relevant autonomy, perception, robotics, machine-learning, or production software experience is preferred, but demonstrated technical depth, multidisciplinary problem-solving ability, and a record of delivering difficult systems matter more than a specific number of years. Exceptional candidates at any experience level are encouraged to apply. Preferred Experience Autonomous vehicles, unmanned systems, UAVs, underwater systems, maritime systems, drones, robotics, aerospace systems, self-driving vehicles, industrial autonomy, or other real-world autonomous platforms. Taking autonomy, perception, planning, or machine-learning software from early architecture through field-tested deployment. Developing safety-critical, mission-critical, or high-reliability software for systems that operate in difficult real-world environments. Working with a range of perception and navigation sensing technologies. Developing autonomy software for GPS-denied, communications-constrained, low-observability, or otherwise challenging operating environments. Machine-learning model development, training, evaluation, deployment, or optimization using modern frameworks. Building simulation, replay, synthetic-data, scenario-generation, Monte Carlo, SIL, HIL/HITL, or model-validation environments for autonomy development. Debugging autonomy behavior using logs, telemetry, visualization tools, field data, and post-mission analysis. Working closely with electrical, embedded software, mechanical, manufacturing, and test engineers on tightly integrated electromechanical systems. Disclosures This position may require access to information protected under U.S. export control laws and regulations, including the Export Administration Regulations (EAR) and the International Traffic in Arms Regulations (ITAR). Please note that any offer for employment may be conditioned on authorization to receive software or technology controlled under these U.S. export control laws and regulations without sponsorship for an export license. Odin Dynamics, Inc. participates in E-Verify and will provide the federal government with your Form I-9 information to confirm that you are authorized to work in the U.S. Odin Dynamics is an equal opportunity employer committed to creating a diverse and inclusive workplace. All qualified applicants will be treated with respect and receive equal consideration for employment without regard to race, color, creed, religion, sex, gender identity, sexual orientation, national origin, disability, uniform service, Veteran status, age, or any other protected characteristic per federal, state, or local law, including those with a criminal history, in a manner consistent with the requirements of applicable state and local laws. 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. At Odin Dynamics, we offer competitive salaries benchmarked against the defense and robotics industries, meaningful early-stage equity, and benefits that cover the essentials — full covered health, dental, vision; 401(k); and paid time off. We invest in professional development and support our people in growing their skills alongside the company. We tie compensation to the impact you have, not your title. As we grow, our compensation and benefits will grow with us. We're building this company alongside the people who join it, and we believe everyone here should share in what we build together. Show more Show less", "job_title": "Senior Autonomy Software Engineer", "timestamp": "2026-10-05T05:42:05.237Z"}”

LinkedIn via Bright Data · Supports Job posting · job listing

“{"company_id": "105049861", "company_name": "Odin Dynamics, Inc", "company_url": "https://www.linkedin.com/company/odin-dynamics?trk=public_jobs_topcard-org-name", "job_employment_type": "Full-time", "job_location": "Long Beach, CA", "job_posted_time": "1 month ago", "job_posting_id": "4450739396", "job_seniority_level": "Not Applicable", "job_summary": "About Odin Dynamics Founded in 2025, Odin Dynamics is a defense technology company building autonomous underwater vehicles that will define the next era of undersea warfare. We are focused on delivering capable, resilient autonomous systems that strengthen the strategic advantage of the United States and its allied navies. We move fast, build real hardware, and operate with the urgency that the mission demands. We are building a new platform from the ground up. This is not a role where you will inherit a mature product with every architectural decision already made. You will take incomplete requirements, early hardware, and difficult technical constraints and turn them into dependable, production-ready autonomy systems. We value rigorous engineering without unnecessary process. Decisions should be driven by physics, test data, and product outcomes—not inherited convention or documentation volume. The Role Odin Dynamics is hiring a Senior Ground Software Engineer to serve as the Responsible Engineer for the ground software stack of our autonomous underwater vehicle platform. This engineer will own the complete ground software lifecycle: requirements, architecture, system design, implementation, testing, validation, field support, production support, failure analysis, and continued improvement after deployment. This is a true full-stack software engineering role. You will build frontend and backend software for mission planning, operator workflows, vehicle supervision, telemetry handling, telemetry visualization, data review, post-mission analysis, and remote mission-control workflows. The work includes product-quality user interfaces, backend services, APIs, telemetry pipelines, time-series data handling, storage systems, and analysis tools used by engineers and operators. This is not a generic web-application role, and it is not a narrow backend or UI role. The software you build will be used with real autonomous systems, real field data, constrained communications, incomplete requirements, and difficult operating environments. You will be expected to translate evolving operator, test, autonomy, and engineering needs into usable workflows and dependable production software. You will work closely with Autonomy Software engineers on mission-planning workflows, offboard autonomy-support tools, simulation, replay, mission review, and post-mission analysis. You will also work closely with Embedded Software, Avionics, Test Engineering, and Operations to ensure that ground software integrates cleanly with vehicle software, telemetry systems, test infrastructure, and field operations. This is a hands-on individual-contributor position. You will be expected to write substantial production code, make technical decisions, mentor other engineers, and remain accountable for the usability, reliability, and maintainability of the ground software stack. There are no organizational handoffs when a difficult problem crosses the boundary between frontend, backend, data systems, autonomy, embedded software, test engineering, or operations. What You’ll Do Serve as the Responsible Engineer for the ground software stack. Develop greenfield ground software from initial requirements and architecture through field-tested, production-ready implementation. Build frontend and backend software for mission planning, operator workflows, vehicle supervision, telemetry visualization, data review, post-mission analysis, and remote mission-control workflows. Design and implement operator-facing interfaces that help users plan missions, understand vehicle state, inspect telemetry, review data, and make effective decisions. Build backend services, APIs, data models, and application logic to support development, test, field operations, and production use. Develop telemetry ingestion, validation, normalization, storage, visualization, alerting, replay, and analysis capabilities. Design data storage and handling approaches for high-volume telemetry, logs, mission data, analysis results, and time-series data. Develop tools for engineering analysis, log inspection, anomaly investigation, mission replay, system debugging, and failure analysis. Build map-based and geospatial workflows for planning, route visualization, constraints, review, and operational awareness. Develop ground software that can support connected and disconnected use, intermittent or constrained communications, and on-premises or cloud-hosted deployment models. Work closely with Autonomy Software, Embedded Software, Avionics, Test Engineering, and Operations to support vehicle integration, mission planning, telemetry, diagnostics, simulation, replay, and field testing. Test and validate software using unit tests, integration tests, system-level tests, SIL, simulation and replay, and HITL test environments. Analyze ground software behavior, telemetry pipelines, data integrity, operator workflows, and system performance to identify root causes and drive corrective improvements. Build software with appropriate product-security considerations, including authentication, authorization, auditability, data protection, secure deployment, and operation in constrained or disconnected environments. Write, review, test, profile, and debug production software using modern frontend, backend, database, and data-processing technologies. Build automated development workflows using modern build systems, CI/CD, static analysis, profiling, automated testing, and software-quality tooling. Produce concise, functional engineering documentation that enables implementation, testing, operation, troubleshooting, and future development. Use AI-assisted development tools to accelerate implementation, testing, debugging, data analysis, and documentation while independently validating outputs and maintaining a first-principles understanding of the resulting system. Mentor other engineers and contribute to technical reviews without moving away from hands-on engineering. Support field testing and sea trials when required, work directly with operators, and may support operational use during tests. What We’re Looking For Deep practical experience developing full-stack production software across both frontend and backend systems. Strong frontend product-development experience building usable, reliable, operator-facing or customer-facing software. Strong backend and API-development experience for production applications, data systems, or operational software. Experience building telemetry pipelines, data-ingestion systems, data-processing workflows, time-series data systems, or comparable systems that handle real-world operational data. Strong proficiency with modern frontend and backend web technologies and a modern data-storage layer. Experience designing software for constrained, intermittent, unreliable, low-bandwidth, or high-latency communications environments. Experience validating production software through unit testing, integration testing, system testing, simulation, replay, SIL, HITL, or comparable test environments. Experience writing maintainable code, conducting code reviews, using static analysis, profiling performance, debugging complex software behavior, and improving software reliability over time. Ability to reason from first principles about usability, data integrity, system behavior, failure modes, edge cases, and operational risk. Ability to work independently with minimal oversight while collaborating closely across engineering disciplines. Willingness to support field testing and sea trials when required. Approximately five or more years of relevant full-stack, ground software, mission software, data systems, telemetry, or production software experience is preferred, but demonstrated technical depth, multidisciplinary problem-solving ability, and a record of delivering difficult systems matter more than a specific number of years. Exceptional candidates at any experience level are encouraged to apply. Preferred Experience Mission planning, ground software, mission-control software, operator tools, telemetry systems, command-and-control systems, or other operational software for complex technical products. Autonomous vehicles, unmanned systems, underwater systems, UAVs, robotics, aerospace systems, maritime systems, defense systems, industrial autonomy, or other real-world platforms. Taking full-stack software from early architecture through field-tested deployment and continued improvement after operational use. Building product-quality interfaces for operators, engineers, analysts, or other technical users in high-consequence environments. Developing map-based, geospatial, routing, planning, review, or operational-awareness workflows. Developing safety-critical, mission-critical, security-conscious, or high-reliability software for systems that operate in difficult real-world environments. Working closely with autonomy, embedded software, electrical, mechanical, test, manufacturing, and operations teams on tightly integrated electromechanical systems. Disclosures This position may require access to information protected under U.S. export control laws and regulations, including the Export Administration Regulations (EAR) and the International Traffic in Arms Regulations (ITAR). Please note that any offer for employment may be conditioned on authorization to receive software or technology controlled under these U.S. export control laws and regulations without sponsorship for an export license. Odin Dynamics, Inc. participates in E-Verify and will provide the federal government with your Form I-9 information to confirm that you are authorized to work in the U.S. Odin Dynamics is an equal opportunity employer committed to creating a diverse and inclusive workplace. All qualified applicants will be treated with respect and receive equal consideration for employment without regard to race, color, creed, religion, sex, gender identity, sexual orientation, national origin, disability, uniform service, Veteran status, age, or any other protected characteristic per federal, state, or local law, including those with a criminal history, in a manner consistent with the requirements of applicable state and local laws. 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. At Odin Dynamics, we offer competitive salaries benchmarked against the defense and robotics industries, meaningful early-stage equity, and benefits that cover the essentials — full covered health, dental, vision; 401(k); and paid time off. We invest in professional development and support our people in growing their skills alongside the company. We tie compensation to the impact you have, not your title. As we grow, our compensation and benefits will grow with us. We're building this company alongside the people who join it, and we believe everyone here should share in what we build together. Show more Show less", "job_title": "Senior Ground Software Engineer", "timestamp": "2026-10-05T05:42:03.913Z"}”

LinkedIn via Bright Data · Supports Job posting · job listing

“{"company_id": "105049861", "company_name": "Odin Dynamics, Inc", "company_url": "https://www.linkedin.com/company/odin-dynamics?trk=public_jobs_topcard-org-name", "job_employment_type": "Full-time", "job_location": "Long Beach, CA", "job_posted_time": "1 month ago", "job_posting_id": "4450742325", "job_seniority_level": "Not Applicable", "job_summary": "About Odin Dynamics Founded in 2025, Odin Dynamics is a defense technology company building autonomous underwater vehicles that will define the next era of undersea warfare. We are focused on delivering capable, resilient autonomous systems that strengthen the strategic advantage of the United States and its allied navies. We move fast, build real hardware, and operate with the urgency that the mission demands. We are building a new platform from the ground up. This is not a role where you will inherit a mature product with every architectural decision already made. You will take incomplete requirements, early hardware, and difficult technical constraints and turn them into dependable, production-ready autonomy systems. We value rigorous engineering without unnecessary process. Decisions should be driven by physics, test data, and product outcomes—not inherited convention or documentation volume. The Role Odin Dynamics is hiring multiple Senior Embedded Software Engineers to serve as Responsible Engineers for critical embedded subsystems across our platform. Each engineer will take primary technical ownership of one of three areas: Embedded Linux compute Motor-control firmware Battery-management-system firmware Candidates will apply to a common requisition, and Odin Dynamics will determine the best area of focus through the interview process. We are looking for engineers with deep expertise in at least one area who are also comfortable working across hardware, firmware, embedded Linux, controls, testing, and the broader software engineering domain. As the Responsible Engineer for your subsystem, you will own it throughout its lifecycle: requirements, architecture, detailed design, implementation, bring-up, verification, field testing, production support, failure analysis, and continued improvement after deployment. This is a hands-on individual-contributor position. You will be expected to write substantial production code, make technical decisions, mentor other engineers, and remain accountable for the performance and reliability of your subsystem. There are no organizational handoffs when a difficult problem crosses the boundary between software and hardware. What You’ll Do Serve as the Responsible Engineer for a major embedded subsystem. Develop greenfield embedded software from initial requirements and architecture through field-tested, production-ready implementation. Write, review, test, profile, and debug production software in a low-level systems programming language. Design deterministic software for systems with strict latency, jitter, timing, memory, and compute constraints. Bring up new embedded hardware in close collaboration with Avionics and Power Electronics engineers. Read schematics and component documentation, review hardware designs, and diagnose hardware/software integration issues. Debug low-level problems involving interrupts, DMA, concurrency, synchronization, memory corruption, peripheral configuration, communications, timing, and performance. Use oscilloscopes, logic analyzers, in-circuit debuggers, and related laboratory tools to identify root causes. Develop and maintain interfaces using common embedded communication protocols and bus architectures. Write unit tests, integration tests, and system-level tests for: HOOTL — hardware-out-of-the-loop SIL — software-in-the-loop HIL/HITL — hardware-in-the-loop Work with Test Engineering to validate systems in laboratory, field, and sea-trial environments. Support production testing, investigate failures on deployed hardware, and own corrective improvements throughout the product lifecycle. Build automated development workflows using modern build systems, continuous integration, static analysis, profiling, and automated testing. Produce concise, functional engineering documentation that enables implementation, testing, operation, and future development. Use AI-assisted development tools to accelerate implementation, testing, debugging, and documentation while independently validating outputs and maintaining a first-principles understanding of the resulting system. Mentor other engineers and contribute to technical reviews without moving away from hands-on engineering. Areas of Focus Embedded Linux Compute The Embedded Linux Responsible Engineer will own the platform software below the application and autonomy layers, including: Embedded Linux platform architecture and board-support packages Embedded Linux build and distribution systems Bootloaders, system bring-up, and low-level platform configuration Kernel configuration and driver development Secure boot and platform security mechanisms Hardware I/O and peripheral integration Networking and time synchronization Real-time Linux techniques, including scheduler configuration, CPU isolation, latency analysis, and performance tuning Storage and high-speed interfaces Platform diagnostics, reliability, and field support Motor Control The Motor Control Responsible Engineer will own the complete embedded software stack for a microcontroller-based motor-control system, including: MCU board-support packages and low-level firmware Peripheral and communications interfaces Real-time scheduling, timing, interrupts, DMA, and memory management Control state machines, fault handling, and protection behavior Closed-loop motor-control algorithms and system tuning Integration with power electronics and vehicle-level control systems Verification, field testing, production support, and failure investigation Battery Management The Battery Management Responsible Engineer will own the complete embedded software stack for a microcontroller-based battery-management system, including: MCU board-support packages and low-level firmware Cell-monitoring, communications, control, and protection interfaces Battery-management state machines and fault handling State-of-charge and state-of-health estimation Sequencing, monitoring, limits, diagnostics, and recovery behavior Integration with power electronics and vehicle-level systems Verification, field testing, production support, and failure investigation What We’re Looking For Deep practical expertise in either: Embedded Linux development; or Bare-metal or RTOS-based microcontroller development. Sufficient familiarity with adjacent embedded environments to collaborate across subsystem boundaries. Strong proficiency in at least one low-level systems programming language. Experience developing hard real-time or highly deterministic systems under latency, jitter, memory, and performance constraints. Experience bringing up new boards and embedded platforms within your primary technical specialization. Experience reading schematics, reviewing hardware interfaces, and debugging integrated hardware/software systems. Experience with common digital communication protocols and bus architectures. Experience using oscilloscopes, logic analyzers, in-circuit debuggers, and other hardware-debugging tools. Strong understanding of concurrency, synchronization, interrupts, DMA, timer configuration, memory allocation, scheduling, and low-level peripheral control. Experience writing maintainable production code, conducting code reviews, developing automated tests, using static analysis, profiling performance, and debugging complex timing or memory failures. Experience with modern build systems and CI/CD workflows. Demonstrated ability to work from first principles, make progress with incomplete information, and rapidly iterate between design, implementation, testing, and refinement. Ability to work independently with minimal oversight while collaborating closely across engineering disciplines. Willingness to support field testing and sea trials when required. Approximately five or more years of relevant embedded software experience is preferred, but demonstrated technical depth, multidisciplinary problem-solving ability, and a record of delivering difficult systems matter more than a specific number of years. Exceptional candidates at any experience level are encouraged to apply. Preferred Experience Developing safety-critical, mission-critical, or high-reliability products. Taking an embedded system from a blank sheet through multiple design, implementation, test, and refinement cycles into production or operational deployment. Autonomous vehicles, underwater systems, UAVs, robotics, aerospace, automotive, industrial controls, medical devices, energy systems, or other tightly integrated electromechanical products. Embedded Linux build and distribution systems. Experience across a range of embedded compute and microcontroller platforms. Kernel-driver development for Embedded Linux candidates. Motor-control concepts such as advanced commutation and control techniques, feedback systems, current control, velocity control, position control, and inverter protection. Battery-management concepts such as cell monitoring and balancing, state estimation, thermal monitoring, charge and discharge limits, sequencing, and fault-state design. High-speed and wireless interface integration. Establishing or extending HOOTL and SIL test environments. Disclosures This position may require access to information protected under U.S. export control laws and regulations, including the Export Administration Regulations (EAR) and the International Traffic in Arms Regulations (ITAR). Please note that any offer for employment may be conditioned on authorization to receive software or technology controlled under these U.S. export control laws and regulations without sponsorship for an export license. Odin Dynamics, Inc. participates in E-Verify and will provide the federal government with your Form I-9 information to confirm that you are authorized to work in the U.S. Odin Dynamics is an equal opportunity employer committed to creating a diverse and inclusive workplace. All qualified applicants will be treated with respect and receive equal consideration for employment without regard to race, color, creed, religion, sex, gender identity, sexual orientation, national origin, disability, uniform service, Veteran status, age, or any other protected characteristic per federal, state, or local law, including those with a criminal history, in a manner consistent with the requirements of applicable state and local laws. 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. At Odin Dynamics, we offer competitive salaries benchmarked against the defense and robotics industries, meaningful early-stage equity, and benefits that cover the essentials — full covered health, dental, vision; 401(k); and paid time off. We invest in professional development and support our people in growing their skills alongside the company. We tie compensation to the impact you have, not your title. As we grow, our compensation and benefits will grow with us. We're building this company alongside the people who join it, and we believe everyone here should share in what we build together. Show more Show less", "job_title": "Senior Embedded Software Engineer", "timestamp": "2026-10-05T05:42:03.419Z"}”

LinkedIn via Bright Data · Supports Job posting · job listing

“{"company_id": "105049861", "company_name": "Odin Dynamics, Inc", "company_url": "https://www.linkedin.com/company/odin-dynamics?trk=public_jobs_topcard-org-name", "job_employment_type": "Full-time", "job_location": "Long Beach, CA", "job_posted_time": "1 month ago", "job_posting_id": "4450752045", "job_seniority_level": "Not Applicable", "job_summary": "About Odin Dynamics Founded in 2025, Odin Dynamics is a defense technology company building autonomous underwater vehicles that will define the next era of undersea warfare. We are focused on delivering capable, resilient autonomous systems that strengthen the strategic advantage of the United States and its allied navies. We move fast, build real hardware, and operate with the urgency that the mission demands. We are building a new platform from the ground up. This is not a role where you will inherit a mature product with every architectural decision already made. You will take incomplete requirements, early hardware, and difficult technical constraints and turn them into dependable, production-ready autonomy systems. We value rigorous engineering without unnecessary process. Decisions should be driven by physics, test data, and product outcomes—not inherited convention or documentation volume. The Role Odin Dynamics is hiring multiple Senior Mechanical Engineers to serve as Responsible Engineers for critical mechanical subsystems across our platform. Each engineer will take primary technical ownership of one of five areas: Hull and hydrodynamics Structures and integration Mechanisms and actuation Battery and energy storage (mechanical) Propulsion (mechanical) Candidates will apply to a common requisition, and Odin Dynamics will determine the best area of focus through the interview process. We are looking for engineers with deep expertise in at least one area who are also comfortable working across structures, hydrodynamics, mechanisms, thermal, materials, manufacturing, and test. As the Responsible Engineer for your subsystem, you will own it throughout its lifecycle: requirements, architecture, detailed design, analysis, prototyping, integration, verification, field testing, production support, failure analysis, and continued improvement after deployment. This is a hands-on individual-contributor position. You will be expected to produce substantial design and analysis work, make technical decisions, mentor other engineers, and remain accountable for the performance and reliability of your subsystem. There are no organizational handoffs when a difficult problem crosses the boundary between mechanical, electrical, and software domains. What You’ll Do Serve as the Responsible Engineer for a major mechanical subsystem. Develop greenfield mechanical designs from initial requirements and architecture through field-tested, production-ready hardware. Produce detailed designs and complete assemblies in CAD, managing interfaces and integration across the vehicle. Perform structural, thermal, and fluid analyses—using both hand calculations and FEA—and apply the judgment to know which approach a problem needs. Select materials and design for the marine environment, accounting for pressure, corrosion, sealing, and long-duration reliability. Design for manufacturing, working directly with machine shops, fabrication partners, and internal technicians to ensure designs translate cleanly from CAD to production. Bring up, assemble, and validate hardware on the bench, in test fixtures, and in the water. Define mechanical interfaces and coordinate closely with electrical, firmware, and software engineers to ensure clean cross-disciplinary integration. Develop and execute test plans for your subsystem, from component-level validation through full-vehicle pressure testing and ocean trials. Support production, investigate failures on deployed hardware, and own corrective improvements throughout the product lifecycle. Produce concise, functional engineering documentation that enables fabrication, assembly, testing, operation, and future development. Use AI-assisted design and analysis tools to accelerate work while independently validating outputs and maintaining a first-principles understanding of the resulting system. Mentor other engineers and contribute to technical reviews without moving away from hands-on engineering. Areas of Focus Hull and Hydrodynamics The Hull Responsible Engineer will own the external vehicle form and the primary pressure boundary, including: Hull and fairing geometry design Pressure boundary design and analysis, including structural margin, buckling, and fatigue Sealing strategies and penetrator interfaces Material selection for pressure-loaded and corrosive environments Vehicle-body hydrodynamic performance, including drag, stability, and flow interaction over the hull Depth qualification and pressure-cycle testing Trade studies balancing performance, manufacturability, and packaging Coordination with controls and propulsion on vehicle dynamics Verification, field testing, production support, and failure investigation Structures and Integration The Structures Responsible Engineer will own the load-bearing and integration structures that are not part of the primary pressure boundary, including: Nose cone, payload bay, and secondary structure design Sensor and payload mounting and integration Internal component packaging, racks, and mounting structures Load path design, vibration, and shock considerations Tolerance analysis and interface management across subsystems Material selection and design for the marine environment Verification, field testing, production support, and failure investigation Mechanisms and Actuation The Mechanisms Responsible Engineer will own the moving systems of the vehicle, including: Design of mechanisms and actuated subsystems, including control surfaces and payload deployment Actuator selection, integration, and motion design Tolerance analysis, kinematics, and load path design Sealing and reliability of moving systems in the marine environment Integration with electrical and control systems Validation through bench, fixture, and in-water testing Verification, field testing, production support, and failure investigation Battery and Energy Storage (Mechanical) The Battery Responsible Engineer will own the mechanical design of the energy storage system, including: Battery pack mechanical architecture and enclosure design Cell and module packaging, structure, and retention Thermal management and heat-path design at the pack level Sealing, pressure tolerance, and environmental protection of the pack Structural integration of the pack into the vehicle Mechanical safety and abuse-tolerance considerations Design for manufacturing and assembly of the pack Coordination with power electronics and battery-management engineers on integration Verification, field testing, production support, and failure investigation Propulsion (Mechanical) The Propulsion Responsible Engineer will own the mechanical design of the thrust-producing system, including: Propulsor design, including blade geometry and propeller hydrodynamics for thrust generation Shaft, bearing, and dynamic rotating seal design Mechanical and thermal integration of the motor into the vehicle Drivetrain layout and propulsor-to-hull integration Reliability and wear life of rotating machinery in the marine environment Coordination with electrical engineers on motor electromagnetic design and power electronics, and with embedded engineers on motor-control firmware Verification, field testing, production support, and failure investigation What We’re Looking For Deep practical expertise in at least one of: hull and hydrodynamics, structures and integration, mechanisms and actuation, battery mechanical design, or propulsion. Sufficient familiarity with adjacent mechanical domains to collaborate across subsystem boundaries. Strong CAD proficiency and experience managing complex assemblies across multi-disciplinary teams. Strong analytical skills across FEA and hand calculations, with sound engineering judgment about when to use each. Demonstrated ability to design for manufacturing—you know how parts get made and you design accordingly. Hands-on experience with prototyping, assembly, and test—you are comfortable in a shop and on a dock. Experience reading and producing engineering drawings, defining tolerances, and managing interfaces. Experience designing for demanding physical environments, accounting for factors such as pressure, thermal, vibration, corrosion, or long-duration reliability as relevant to your specialization. Demonstrated ability to work from first principles, make progress with incomplete information, and rapidly iterate between design, analysis, fabrication, and test. Ability to work independently with minimal oversight while collaborating closely across engineering disciplines. Willingness to support field testing and sea trials when required. Approximately five or more years of relevant mechanical engineering experience is preferred, but demonstrated technical depth, multidisciplinary problem-solving ability, and a record of delivering difficult systems matter more than a specific number of years. Exceptional candidates at any experience level are encouraged to apply. Preferred Experience Developing safety-critical, mission-critical, or high-reliability products. Taking a mechanical system from a blank sheet through multiple design, analysis, test, and refinement cycles into production or operational deployment. Underwater vehicles, marine systems, UAVs, robotics, aerospace, automotive, or other tightly integrated electromechanical products. Design for pressure-loaded or submerged environments. Corrosion engineering and material compatibility in seawater environments. Battery pack mechanical, thermal, or enclosure design for demanding applications. Rotating machinery, propulsor or propeller design, shaft sealing, or drivetrain integration. Composite structures or advanced manufacturing methods. Environmental qualification testing, including shock, vibration, pressure cycling, and thermal extremes. Establishing or extending mechanical test and qualification environments. Disclosures This position may require access to information protected under U.S. export control laws and regulations, including the Export Administration Regulations (EAR) and the International Traffic in Arms Regulations (ITAR). Please note that any offer for employment may be conditioned on authorization to receive software or technology controlled under these U.S. export control laws and regulations without sponsorship for an export license. Odin Dynamics, Inc. participates in E-Verify and will provide the federal government with your Form I-9 information to confirm that you are authorized to work in the U.S. Odin Dynamics is an equal opportunity employer committed to creating a diverse and inclusive workplace. All qualified applicants will be treated with respect and receive equal consideration for employment without regard to race, color, creed, religion, sex, gender identity, sexual orientation, national origin, disability, uniform service, Veteran status, age, or any other protected characteristic per federal, state, or local law, including those with a criminal history, in a manner consistent with the requirements of applicable state and local laws. 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. At Odin Dynamics, we offer competitive salaries benchmarked against the defense and robotics industries, meaningful early-stage equity, and benefits that cover the essentials — full covered health, dental, vision; 401(k); and paid time off. We invest in professional development and support our people in growing their skills alongside the company. We tie compensation to the impact you have, not your title. As we grow, our compensation and benefits will grow with us. We're building this company alongside the people who join it, and we believe everyone here should share in what we build together. Show more Show less", "job_title": "Senior Mechanical Engineer", "timestamp": "2026-10-05T05:42:06.925Z"}”