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Accord Technologies Inc in Irvine, CA is seeking a Senior Embedded Platform Engineer to own system-level control software for safety-critical aerospace applications. You will design, implement, and verify supervisory control logic coordinating actuators, motor drives, and vehicle-level systems on real-time MCUs.
Key work includes model-based design with MATLAB/Simulink, CAN and ARINC interfaces, HIL testing, DO-178C/ARP4754-aligned processes, and collaboration across hardware, firmware, and
Total Position 2
Position type: Open (FTE/C2C)
Sr Embedded Platform Engineer
Location: Irvine CA (100% Onsite)
Visa: US personal only
Note: Platform engineer should be low level can develop drivers and has developed them in past.
We re seeking a Senior Embedded Systems Software Engineer with strong systems intuition and a passion for building robust, safety-critical control software. This role sits at the intersection of embedded platform software, and system level control logic owning the supervisory controllayers that coordinate actuators, motor drives, and flight-level systems.
You will architect and implement system control logic, state machines, sequencing, diagnostics, and communication interfaces that ensure safe, deterministic operation across complex aerospace systems. While this role interfaces closely with actuator control, BMS, and vehicle control software, its primary focus is system behavior, integration, and correctness not fast inner-loop control.
Design and own system level control architecture spanning actuator control, power sequencing, and operational state management. Develop supervisory logic, state machines, and mode management that coordinate lower-level motor control, embedded platform software, and hardware subsystems. Define and implement safe power-up, power-down, input processing, fault response, and degraded operating modes consistent with system safety assessments and aerospace certification requirements.
Develop and maintain embedded software in C/C++ or MATLAB/Simulink on real-time microcontroller platforms (e.g., TI C2000, NXP, or comparable safety-oriented MCUs). Architect scalable and maintainable software frameworks supporting control execution, communication, diagnostics, and monitoring. Work across BSPs, middleware, and application layers to ensure deterministic behavior and system robustness.
Define, implement, and document system interfaces between controllers, subsystems, and external equipment. Author and maintain Interface Control Documents (ICDs) for communication protocols such as CAN (including safety-oriented profiles), ARINC 825, and other aerospace or automotive buses. Ensure reliable data exchange, arbitration, and fault handling across system boundaries.
Use MATLAB/Simulink to develop and validate system level control logic, sequencing, and coordination strategies. Support model-based design workflows spanning MIL, SIL, and HIL environments. Leverage simulation and lab data to validate system behavior across nominal, corner-case, and fault scenarios.
Lead system level integration activities across motor control, BMS, sensors, and vehicle control software. Support hardware bring-up, HIL testing, and lab validation, diagnosing issues that span software, hardware, and system interactions. Develop test strategies, automation hooks, and data analysis workflows to ensure repeatable verification.
Support development of safety-critical embedded software by following disciplined software development processes. Contribute to requirements definition, traceability, verification planning, and certification readiness activities aligned with standards such as DO-178C, ARP4754/4761, or equivalent safety frameworks. Maintain configuration control and long-term maintainability of system software artifacts.
This role defines how complex control systems behave as a whole. Your work ensures that motors, actuators, power, and climate systems operate coherently, safely, and predictably under all conditions. You’ll have deep technical ownership and influence system architecture decisions. Play a key role in bringing flight‑ready control systems from concept to deployment.