Ampira Energy Limited in the United Kingdom is seeking an experienced HV Systems Engineer to define and implement high-voltage architectures for electrified aircraft propulsion. You will contribute across the full product lifecycle from concept through verification and flight-ready hardware, collaborating with power electronics, battery, fuel cell, controls and mechanical teams. The role requires a degree in Electrical/Electronic/Aerospace Engineering and several years of aerospace or regulated
25/07/2026
Full time
Ampira Energy Limited in the United Kingdom is seeking an experienced HV Systems Engineer to define and implement high-voltage architectures for electrified aircraft propulsion. You will contribute across the full product lifecycle from concept through verification and flight-ready hardware, collaborating with power electronics, battery, fuel cell, controls and mechanical teams. The role requires a degree in Electrical/Electronic/Aerospace Engineering and several years of aerospace or regulated
# HV Systems Engineer (Aerospace Electrification)UK (Hybrid)CompetitiveApply / Discuss This RoleRegister for Similar RolesAn exciting opportunity has become available for an experienced High Voltage (HV) Systems Engineer to join an innovative aerospace engineering team developing next-generation electric propulsion technologies. Working within a multidisciplinary environment, you will play a key role in defining, developing and integrating high-voltage electrical architectures for advanced aircraft platforms. The role offers involvement across the complete product lifecycle, from concept development and system architecture through verification, certification and flight-ready hardware. This position would suit an engineer with experience in high-voltage aircraft systems, electric propulsion, battery or fuel cell technologies, and aerospace certification programmes. Key Responsibilities Develop high-voltage electrical system architectures for advanced aerospace platforms. Define system-level electrical distribution strategies for propulsion and aircraft power systems. Lead the specification and development of High Voltage Power Distribution Units (HV PDUs) and associated electrical hardware. Support the design and integration of Low Voltage (LV) electrical distribution systems where required. Produce system requirements, interface definitions and electrical architecture documentation. Ensure system designs satisfy aerospace safety, certification and regulatory requirements. Support system integration, verification, validation and environmental qualification activities. Work closely with multidisciplinary teams including power electronics, battery, fuel cell, controls, software and mechanical engineering. Participate in system design reviews, technical risk assessments and architecture trade studies. Contribute to safety analyses including FMEA, FHA and other system safety activities. Support supplier engagement, component selection and technical oversight throughout development. Drive continuous improvement and contribute to future technology roadmaps for electrified aircraft systems. Essential Requirements Degree in Electrical Engineering, Electronic Engineering, Aerospace Engineering or a related discipline. Several years of experience developing electrical systems within aerospace or another highly regulated industry. Experience developing high-voltage electrical systems for aerospace or other safety-critical industries. Knowledge of electrical system architecture for electric propulsion platforms. Experience with High Voltage Power Distribution Unit (HV PDU) development and integration. Familiarity with aircraft electrical power distribution systems. Understanding of high-voltage component integration including contactors, fuses, pre-charge circuits and isolation monitoring. Experience with electrical system integration from concept through verification and certification. Ability to work within highly regulated engineering environments. Desirable Chartered status or progress towards professional registration. DO-160 environmental qualification experience. Knowledge of aerospace system development standards and aircraft certification processes. Experience with functional safety and system safety assessments. Background in battery-electric, hydrogen fuel cell, or hybrid-electric propulsion. Experience with energy storage integration, electric motors and inverters. Verification and validation planning and requirements management. Interested in this role?Contact Rick directly to discuss this opportunity or register your CV for similar roles.Book a Call with RickEmail Us Role SummaryJob Type: PermanentLocation: UK (Hybrid)Salary: CompetitiveSector: AerospacePosted: July 2026
25/07/2026
Full time
# HV Systems Engineer (Aerospace Electrification)UK (Hybrid)CompetitiveApply / Discuss This RoleRegister for Similar RolesAn exciting opportunity has become available for an experienced High Voltage (HV) Systems Engineer to join an innovative aerospace engineering team developing next-generation electric propulsion technologies. Working within a multidisciplinary environment, you will play a key role in defining, developing and integrating high-voltage electrical architectures for advanced aircraft platforms. The role offers involvement across the complete product lifecycle, from concept development and system architecture through verification, certification and flight-ready hardware. This position would suit an engineer with experience in high-voltage aircraft systems, electric propulsion, battery or fuel cell technologies, and aerospace certification programmes. Key Responsibilities Develop high-voltage electrical system architectures for advanced aerospace platforms. Define system-level electrical distribution strategies for propulsion and aircraft power systems. Lead the specification and development of High Voltage Power Distribution Units (HV PDUs) and associated electrical hardware. Support the design and integration of Low Voltage (LV) electrical distribution systems where required. Produce system requirements, interface definitions and electrical architecture documentation. Ensure system designs satisfy aerospace safety, certification and regulatory requirements. Support system integration, verification, validation and environmental qualification activities. Work closely with multidisciplinary teams including power electronics, battery, fuel cell, controls, software and mechanical engineering. Participate in system design reviews, technical risk assessments and architecture trade studies. Contribute to safety analyses including FMEA, FHA and other system safety activities. Support supplier engagement, component selection and technical oversight throughout development. Drive continuous improvement and contribute to future technology roadmaps for electrified aircraft systems. Essential Requirements Degree in Electrical Engineering, Electronic Engineering, Aerospace Engineering or a related discipline. Several years of experience developing electrical systems within aerospace or another highly regulated industry. Experience developing high-voltage electrical systems for aerospace or other safety-critical industries. Knowledge of electrical system architecture for electric propulsion platforms. Experience with High Voltage Power Distribution Unit (HV PDU) development and integration. Familiarity with aircraft electrical power distribution systems. Understanding of high-voltage component integration including contactors, fuses, pre-charge circuits and isolation monitoring. Experience with electrical system integration from concept through verification and certification. Ability to work within highly regulated engineering environments. Desirable Chartered status or progress towards professional registration. DO-160 environmental qualification experience. Knowledge of aerospace system development standards and aircraft certification processes. Experience with functional safety and system safety assessments. Background in battery-electric, hydrogen fuel cell, or hybrid-electric propulsion. Experience with energy storage integration, electric motors and inverters. Verification and validation planning and requirements management. Interested in this role?Contact Rick directly to discuss this opportunity or register your CV for similar roles.Book a Call with RickEmail Us Role SummaryJob Type: PermanentLocation: UK (Hybrid)Salary: CompetitiveSector: AerospacePosted: July 2026
Ampira Energy Limited invites applications for a Senior Battery Management Systems Specialist to lead hardware development for lithium-ion applications. You will guide safety-critical BMS hardware from concept through production, review schematics and PCB designs, and integrate advanced battery monitoring ICs. The role spans architecture definition, verification support, and cross-disciplinary collaboration with software, controls and mechanical teams.
24/07/2026
Full time
Ampira Energy Limited invites applications for a Senior Battery Management Systems Specialist to lead hardware development for lithium-ion applications. You will guide safety-critical BMS hardware from concept through production, review schematics and PCB designs, and integrate advanced battery monitoring ICs. The role spans architecture definition, verification support, and cross-disciplinary collaboration with software, controls and mechanical teams.
Ampira Energy Limited is seeking an experienced Lead/Principal/Chief Engineer to drive propeller system design, development, integration and certification for a next-generation electric aircraft propulsion platform. You will lead a multidisciplinary team, act as technical authority, ensure safety and compliance, and guide the project from concept through certification with a focus on reliability and airworthiness.
24/07/2026
Full time
Ampira Energy Limited is seeking an experienced Lead/Principal/Chief Engineer to drive propeller system design, development, integration and certification for a next-generation electric aircraft propulsion platform. You will lead a multidisciplinary team, act as technical authority, ensure safety and compliance, and guide the project from concept through certification with a focus on reliability and airworthiness.
# Battery Management Systems SpecialistUKCompetitiveApply / Discuss This RoleRegister for Similar RolesWe are seeking an experienced Battery Management Systems Specialist to take a senior technical role in the development of advanced BMS hardware for lithium-ion battery applications. You will provide technical leadership across multiple engineering programmes, driving best practice in hardware design, functional safety and reliability. The role offers involvement across the full hardware development lifecycle, from concept architecture and schematic capture through PCB design, verification and industrialisation. Key Responsibilities Leading the development of Battery Management System hardware from concept through production release. Producing and reviewing schematics and multilayer PCB designs for safety-critical BMS applications. Integrating battery monitoring ICs from leading semiconductor manufacturers into BMS hardware designs. Defining and implementing hardware architectures that meet functional safety requirements. Supporting hardware verification, validation, root cause analysis and technical investigations. Driving best practice in hardware functional safety, reliability engineering and DFMEA activities. Collaborating closely with software, systems, controls, mechanical and electrical engineering teams throughout development. Supporting customer workshops, feasibility studies, technical proposals and technology planning activities. Evaluating emerging semiconductor technologies, battery monitoring devices and hardware design methodologies. Developing engineering standards, design guidelines and technical documentation. Working with external suppliers and manufacturing partners to ensure successful product industrialisation. Essential Requirements Degree in Electronics Engineering or a closely related discipline. Significant experience developing Battery Management System hardware for lithium-ion battery applications. Strong knowledge of battery monitoring ICs and integration of devices from leading semiconductor manufacturers. Experience producing and reviewing schematics and multilayer PCB designs for safety-critical products. Hands-on experience with laboratory debugging, fault finding and electronic test equipment. Knowledge of circuit simulation and electronic verification techniques. Experience supporting structured engineering development processes and functional safety activities. Proven ability to provide technical leadership across multiple engineering programmes. Desirable Energy Storage Systems development within Industrial Electrification, e-mobility or Defence industries. Functional Safety (ISO 26262, IEC 61508 or equivalent). UN ECE R100 or related battery regulations. Traction battery systems experience. High-voltage development and test environments. FPGA-based hardware integration. Advanced diagnostics or fault monitoring architectures. Technical roadmap development and R&D activities. Interested in this role?Contact Rick directly to discuss this opportunity or register your CV for similar roles.Book a Call with RickEmail Us Role SummaryJob Type: PermanentLocation: UKSalary: CompetitiveSector: AutomotivePosted: July 2026
24/07/2026
Full time
# Battery Management Systems SpecialistUKCompetitiveApply / Discuss This RoleRegister for Similar RolesWe are seeking an experienced Battery Management Systems Specialist to take a senior technical role in the development of advanced BMS hardware for lithium-ion battery applications. You will provide technical leadership across multiple engineering programmes, driving best practice in hardware design, functional safety and reliability. The role offers involvement across the full hardware development lifecycle, from concept architecture and schematic capture through PCB design, verification and industrialisation. Key Responsibilities Leading the development of Battery Management System hardware from concept through production release. Producing and reviewing schematics and multilayer PCB designs for safety-critical BMS applications. Integrating battery monitoring ICs from leading semiconductor manufacturers into BMS hardware designs. Defining and implementing hardware architectures that meet functional safety requirements. Supporting hardware verification, validation, root cause analysis and technical investigations. Driving best practice in hardware functional safety, reliability engineering and DFMEA activities. Collaborating closely with software, systems, controls, mechanical and electrical engineering teams throughout development. Supporting customer workshops, feasibility studies, technical proposals and technology planning activities. Evaluating emerging semiconductor technologies, battery monitoring devices and hardware design methodologies. Developing engineering standards, design guidelines and technical documentation. Working with external suppliers and manufacturing partners to ensure successful product industrialisation. Essential Requirements Degree in Electronics Engineering or a closely related discipline. Significant experience developing Battery Management System hardware for lithium-ion battery applications. Strong knowledge of battery monitoring ICs and integration of devices from leading semiconductor manufacturers. Experience producing and reviewing schematics and multilayer PCB designs for safety-critical products. Hands-on experience with laboratory debugging, fault finding and electronic test equipment. Knowledge of circuit simulation and electronic verification techniques. Experience supporting structured engineering development processes and functional safety activities. Proven ability to provide technical leadership across multiple engineering programmes. Desirable Energy Storage Systems development within Industrial Electrification, e-mobility or Defence industries. Functional Safety (ISO 26262, IEC 61508 or equivalent). UN ECE R100 or related battery regulations. Traction battery systems experience. High-voltage development and test environments. FPGA-based hardware integration. Advanced diagnostics or fault monitoring architectures. Technical roadmap development and R&D activities. Interested in this role?Contact Rick directly to discuss this opportunity or register your CV for similar roles.Book a Call with RickEmail Us Role SummaryJob Type: PermanentLocation: UKSalary: CompetitiveSector: AutomotivePosted: July 2026
Hybrid, South East UK Contract Posted March 2026 About the Role Our client, an engineering organisation developing advanced power conversion and electrification technologies, is seeking an Embedded Software Engineer to support firmware development for high-power converter systems. In this role, you will work closely with power electronics, hardware, and systems engineering teams to design and implement embedded control software for real-time power electronics applications. Key Responsibilities Develop and maintain embedded firmware for real-time power electronics control systems operating in safety-critical environments Implement control algorithms for DC-DC converters, AC-DC converters, and inverter systems, including modulation, protection mechanisms, and state management Support integration of firmware with FPGA-based control and sensing architectures Translate control system requirements into efficient and testable firmware implementations Perform board bring-up and firmware validation on bare-metal embedded targets Contribute to unit testing, integration testing, and automated build pipelines Support verification, validation, and commissioning activities at both laboratory and system levels Produce and maintain technical documentation covering firmware design, interfaces, and known limitations Strong proficiency in C programming for embedded systems Experience developing bare-metal firmware (minimal or no RTOS environments) Understanding of power electronics control concepts: PWM generation, current/voltage control loops, protection mechanisms Experience interfacing firmware with embedded peripherals (ADCs, PWM, CAN, SPI, I C, etc.) Experience implementing unit testing approaches for embedded software Familiarity with CI/CD pipelines for firmware build, testing, and deployment Experience with DevOps-style workflows including version control (Git) and agile environments Proficiency in embedded debugging tools: JTAG/SWD debuggers, logic analysers, oscilloscopes Desirable / Advantageous Experience with VHDL and FPGA-based signal processing or control Understanding of CPU/FPGA co-processing architectures Exposure to high-power or high-voltage power conversion systems Familiarity with control theory applied to power electronics (PI/PR controllers, feed-forward control) Experience using MATLAB/Simulink for modelling and control algorithm validation Knowledge of Python for scripting, automation, or test tooling
04/07/2026
Full time
Hybrid, South East UK Contract Posted March 2026 About the Role Our client, an engineering organisation developing advanced power conversion and electrification technologies, is seeking an Embedded Software Engineer to support firmware development for high-power converter systems. In this role, you will work closely with power electronics, hardware, and systems engineering teams to design and implement embedded control software for real-time power electronics applications. Key Responsibilities Develop and maintain embedded firmware for real-time power electronics control systems operating in safety-critical environments Implement control algorithms for DC-DC converters, AC-DC converters, and inverter systems, including modulation, protection mechanisms, and state management Support integration of firmware with FPGA-based control and sensing architectures Translate control system requirements into efficient and testable firmware implementations Perform board bring-up and firmware validation on bare-metal embedded targets Contribute to unit testing, integration testing, and automated build pipelines Support verification, validation, and commissioning activities at both laboratory and system levels Produce and maintain technical documentation covering firmware design, interfaces, and known limitations Strong proficiency in C programming for embedded systems Experience developing bare-metal firmware (minimal or no RTOS environments) Understanding of power electronics control concepts: PWM generation, current/voltage control loops, protection mechanisms Experience interfacing firmware with embedded peripherals (ADCs, PWM, CAN, SPI, I C, etc.) Experience implementing unit testing approaches for embedded software Familiarity with CI/CD pipelines for firmware build, testing, and deployment Experience with DevOps-style workflows including version control (Git) and agile environments Proficiency in embedded debugging tools: JTAG/SWD debuggers, logic analysers, oscilloscopes Desirable / Advantageous Experience with VHDL and FPGA-based signal processing or control Understanding of CPU/FPGA co-processing architectures Exposure to high-power or high-voltage power conversion systems Familiarity with control theory applied to power electronics (PI/PR controllers, feed-forward control) Experience using MATLAB/Simulink for modelling and control algorithm validation Knowledge of Python for scripting, automation, or test tooling
Hybrid, South East UK Contract Posted March 2026 About the Role Our client, an engineering organisation developing advanced power conversion and electrification technologies, is seeking an Embedded Software Engineer to support firmware development for high-power converter systems. In this role, you will work closely with power electronics, hardware, and systems engineering teams to design and implement embedded control software for real-time power electronics applications. Key Responsibilities Develop and maintain embedded firmware for real-time power electronics control systems operating in safety-critical environments Implement control algorithms for DC-DC converters, AC-DC converters, and inverter systems, including modulation, protection mechanisms, and state management Support integration of firmware with FPGA-based control and sensing architectures Translate control system requirements into efficient and testable firmware implementations Perform board bring-up and firmware validation on bare-metal embedded targets Contribute to unit testing, integration testing, and automated build pipelines Support verification, validation, and commissioning activities at both laboratory and system levels Produce and maintain technical documentation covering firmware design, interfaces, and known limitations Strong proficiency in C programming for embedded systems Experience developing bare-metal firmware (minimal or no RTOS environments) Understanding of power electronics control concepts: PWM generation, current/voltage control loops, protection mechanisms Experience interfacing firmware with embedded peripherals (ADCs, PWM, CAN, SPI, I C, etc.) Experience implementing unit testing approaches for embedded software Familiarity with CI/CD pipelines for firmware build, testing, and deployment Experience with DevOps-style workflows including version control (Git) and agile environments Proficiency in embedded debugging tools: JTAG/SWD debuggers, logic analysers, oscilloscopes Desirable / Advantageous Experience with VHDL and FPGA-based signal processing or control Understanding of CPU/FPGA co-processing architectures Exposure to high-power or high-voltage power conversion systems Familiarity with control theory applied to power electronics (PI/PR controllers, feed-forward control) Experience using MATLAB/Simulink for modelling and control algorithm validation Knowledge of Python for scripting, automation, or test tooling
04/07/2026
Full time
Hybrid, South East UK Contract Posted March 2026 About the Role Our client, an engineering organisation developing advanced power conversion and electrification technologies, is seeking an Embedded Software Engineer to support firmware development for high-power converter systems. In this role, you will work closely with power electronics, hardware, and systems engineering teams to design and implement embedded control software for real-time power electronics applications. Key Responsibilities Develop and maintain embedded firmware for real-time power electronics control systems operating in safety-critical environments Implement control algorithms for DC-DC converters, AC-DC converters, and inverter systems, including modulation, protection mechanisms, and state management Support integration of firmware with FPGA-based control and sensing architectures Translate control system requirements into efficient and testable firmware implementations Perform board bring-up and firmware validation on bare-metal embedded targets Contribute to unit testing, integration testing, and automated build pipelines Support verification, validation, and commissioning activities at both laboratory and system levels Produce and maintain technical documentation covering firmware design, interfaces, and known limitations Strong proficiency in C programming for embedded systems Experience developing bare-metal firmware (minimal or no RTOS environments) Understanding of power electronics control concepts: PWM generation, current/voltage control loops, protection mechanisms Experience interfacing firmware with embedded peripherals (ADCs, PWM, CAN, SPI, I C, etc.) Experience implementing unit testing approaches for embedded software Familiarity with CI/CD pipelines for firmware build, testing, and deployment Experience with DevOps-style workflows including version control (Git) and agile environments Proficiency in embedded debugging tools: JTAG/SWD debuggers, logic analysers, oscilloscopes Desirable / Advantageous Experience with VHDL and FPGA-based signal processing or control Understanding of CPU/FPGA co-processing architectures Exposure to high-power or high-voltage power conversion systems Familiarity with control theory applied to power electronics (PI/PR controllers, feed-forward control) Experience using MATLAB/Simulink for modelling and control algorithm validation Knowledge of Python for scripting, automation, or test tooling
South East, United Kingdom Permanent Posted February 2026 About the Role Our client, an engineering organisation developing embedded ECU platforms, is seeking a BSW MCAL / Autosar Architect to define, maintain, and evolve a reusable AUTOSAR Classic MCAL and low-level BSW foundation across multiple ECU products. This role serves as the long-term technical owner of the MCAL and low-level software platform, with responsibility for architecture decisions, consistency, scalability, safety alignment, and efficient reuse across programs and customer-specific variants. MCAL & BSW Platform Architecture Define, implement, and maintain an internal AUTOSAR Classic MCAL and low-level BSW / CDD platform Establish platform-wide configuration strategies, abstraction concepts, and reuse models Lead MCAL integration and optimization for target microcontrollers (e.g. Infineon AURIX, NXP S32, TI) Define and maintain internal standards for low-level drivers, hardware abstraction, and CDD usage Act as the technical owner for MCU peripherals, including interrupts, DMA, timers, and related safety mechanisms Guide platform roadmap decisions in alignment with system, hardware, and product needs Enable multiple ECU programs to share a common, well-documented BSW foundation Provide technical leadership and mentoring to BSW and application engineers CDD, Safety & Real-Time Governance Own and evolve the internal Complex Device Driver (CDD) framework Own platform integration of MCAL drivers: ADC, SPI, DMA, ICU, IPC, SBC, and related modules Support functional safety activities through reusable platform artifacts and design patterns Define platform-level execution and scheduling models for interrupts, DMA usage, and timing behavior Ensure deterministic real-time performance across all products using the platform Define and own the MCAL/BSW validation strategy Ensure consistent application of static analysis, MISRA compliance, and coverage metrics Qualifications & Experience Proven experience as an AUTOSAR Classic MCAL Architect, BSW Architect, or Platform Owner Strong hands-on experience with Infineon, NXP, and/or TI microcontrollers Deep technical expertise in MCAL drivers, CDD integration, and low-level embedded software Experience designing and maintaining reusable embedded software platforms across multiple ECU products Understanding of ISO 26262 and ASPICE in a platform or architecture context is beneficial Strong technical leadership skills, with the ability to drive topics independently and collaboratively
03/07/2026
Full time
South East, United Kingdom Permanent Posted February 2026 About the Role Our client, an engineering organisation developing embedded ECU platforms, is seeking a BSW MCAL / Autosar Architect to define, maintain, and evolve a reusable AUTOSAR Classic MCAL and low-level BSW foundation across multiple ECU products. This role serves as the long-term technical owner of the MCAL and low-level software platform, with responsibility for architecture decisions, consistency, scalability, safety alignment, and efficient reuse across programs and customer-specific variants. MCAL & BSW Platform Architecture Define, implement, and maintain an internal AUTOSAR Classic MCAL and low-level BSW / CDD platform Establish platform-wide configuration strategies, abstraction concepts, and reuse models Lead MCAL integration and optimization for target microcontrollers (e.g. Infineon AURIX, NXP S32, TI) Define and maintain internal standards for low-level drivers, hardware abstraction, and CDD usage Act as the technical owner for MCU peripherals, including interrupts, DMA, timers, and related safety mechanisms Guide platform roadmap decisions in alignment with system, hardware, and product needs Enable multiple ECU programs to share a common, well-documented BSW foundation Provide technical leadership and mentoring to BSW and application engineers CDD, Safety & Real-Time Governance Own and evolve the internal Complex Device Driver (CDD) framework Own platform integration of MCAL drivers: ADC, SPI, DMA, ICU, IPC, SBC, and related modules Support functional safety activities through reusable platform artifacts and design patterns Define platform-level execution and scheduling models for interrupts, DMA usage, and timing behavior Ensure deterministic real-time performance across all products using the platform Define and own the MCAL/BSW validation strategy Ensure consistent application of static analysis, MISRA compliance, and coverage metrics Qualifications & Experience Proven experience as an AUTOSAR Classic MCAL Architect, BSW Architect, or Platform Owner Strong hands-on experience with Infineon, NXP, and/or TI microcontrollers Deep technical expertise in MCAL drivers, CDD integration, and low-level embedded software Experience designing and maintaining reusable embedded software platforms across multiple ECU products Understanding of ISO 26262 and ASPICE in a platform or architecture context is beneficial Strong technical leadership skills, with the ability to drive topics independently and collaboratively
About the Role Our client, an engineering organisation developing embedded ECU platforms, is seeking a BSW MCAL / Autosar Architect to define, maintain, and evolve a reusable AUTOSAR Classic MCAL and low-level BSW foundation across multiple ECU products. This role serves as the long-term technical owner of the MCAL and low-level software platform, with responsibility for architecture decisions, consistency, scalability, safety alignment, and efficient reuse across programs and customer-specific variants. MCAL & BSW Platform Architecture Define, implement, and maintain an internal AUTOSAR Classic MCAL and low-level BSW / CDD platform Establish platform-wide configuration strategies, abstraction concepts, and reuse models Lead MCAL integration and optimization for target microcontrollers (e.g. Infineon AURIX, NXP S32, TI) Define and maintain internal standards for low-level drivers, hardware abstraction, and CDD usage Act as the technical owner for MCU peripherals, including interrupts, DMA, timers, and related safety mechanisms Guide platform roadmap decisions in alignment with system, hardware, and product needs Enable multiple ECU programs to share a common, well-documented BSW foundation Provide technical leadership and mentoring to BSW and application engineers CDD, Safety & Real-Time Governance Own and evolve the internal Complex Device Driver (CDD) framework Own platform integration of MCAL drivers: ADC, SPI, DMA, ICU, IPC, SBC, and related modules Support functional safety activities through reusable platform artifacts and design patterns Define platform-level execution and scheduling models for interrupts, DMA usage, and timing behavior Ensure deterministic real-time performance across all products using the platform Define and own the MCAL/BSW validation strategy Ensure consistent application of static analysis, MISRA compliance, and coverage metrics Qualifications & Experience Proven experience as an AUTOSAR Classic MCAL Architect, BSW Architect, or Platform Owner Strong hands-on experience with Infineon, NXP, and/or TI microcontrollers Deep technical expertise in MCAL drivers, CDD integration, and low-level embedded software Experience designing and maintaining reusable embedded software platforms across multiple ECU products Understanding of ISO 26262 and ASPICE in a platform or architecture context is beneficial Strong technical leadership skills, with the ability to drive topics independently and collaboratively
03/07/2026
Full time
About the Role Our client, an engineering organisation developing embedded ECU platforms, is seeking a BSW MCAL / Autosar Architect to define, maintain, and evolve a reusable AUTOSAR Classic MCAL and low-level BSW foundation across multiple ECU products. This role serves as the long-term technical owner of the MCAL and low-level software platform, with responsibility for architecture decisions, consistency, scalability, safety alignment, and efficient reuse across programs and customer-specific variants. MCAL & BSW Platform Architecture Define, implement, and maintain an internal AUTOSAR Classic MCAL and low-level BSW / CDD platform Establish platform-wide configuration strategies, abstraction concepts, and reuse models Lead MCAL integration and optimization for target microcontrollers (e.g. Infineon AURIX, NXP S32, TI) Define and maintain internal standards for low-level drivers, hardware abstraction, and CDD usage Act as the technical owner for MCU peripherals, including interrupts, DMA, timers, and related safety mechanisms Guide platform roadmap decisions in alignment with system, hardware, and product needs Enable multiple ECU programs to share a common, well-documented BSW foundation Provide technical leadership and mentoring to BSW and application engineers CDD, Safety & Real-Time Governance Own and evolve the internal Complex Device Driver (CDD) framework Own platform integration of MCAL drivers: ADC, SPI, DMA, ICU, IPC, SBC, and related modules Support functional safety activities through reusable platform artifacts and design patterns Define platform-level execution and scheduling models for interrupts, DMA usage, and timing behavior Ensure deterministic real-time performance across all products using the platform Define and own the MCAL/BSW validation strategy Ensure consistent application of static analysis, MISRA compliance, and coverage metrics Qualifications & Experience Proven experience as an AUTOSAR Classic MCAL Architect, BSW Architect, or Platform Owner Strong hands-on experience with Infineon, NXP, and/or TI microcontrollers Deep technical expertise in MCAL drivers, CDD integration, and low-level embedded software Experience designing and maintaining reusable embedded software platforms across multiple ECU products Understanding of ISO 26262 and ASPICE in a platform or architecture context is beneficial Strong technical leadership skills, with the ability to drive topics independently and collaboratively
South East, United Kingdom Permanent Posted February 2026 About the Role Our client, an engineering organisation developing advanced power electronics and electrified vehicle systems, is seeking a Senior Electronics Design Engineer to lead PCB and hardware design activities. The role involves owning hardware design from concept through to production release, working closely with embedded software, systems, and mechanical teams. You will be responsible for the design of complex, high-reliability electronics for demanding automotive and industrial environments, with a strong emphasis on signal integrity, EMC, and design-for-manufacture principles. Key Responsibilities Lead electronics hardware design from requirements capture through to production release Design and review complex multi-layer PCBs for power electronics, motor control, and ECU applications Define and own hardware architecture for new products and platforms Perform schematic capture and PCB layout using industry-standard EDA tools (e.g. Altium Designer) Conduct design reviews, FMEA, and DFM/DFT analysis Support hardware bring-up, debug, and validation activities in the lab Collaborate with embedded software engineers on hardware/software interface definition Work with supply chain and manufacturing teams to support component selection and qualification Produce and maintain hardware design documentation to appropriate standards Mentor junior engineers and contribute to team capability development Degree in Electronics, Electrical Engineering, or equivalent Significant experience in electronics hardware design for automotive, industrial, or high-reliability applications Strong proficiency with Altium Designer or equivalent EDA tooling Experience designing for EMC compliance and signal integrity in mixed-signal environments Familiarity with automotive communication protocols (CAN, LIN, Ethernet, SPI, I C) Experience with hardware bring-up, oscilloscope debugging, and lab-based validation Understanding of functional safety principles (ISO 26262 awareness beneficial) Strong documentation skills and experience with formal design review processes Experience with high-voltage or high-current power electronics hardware Familiarity with AUTOSAR hardware abstraction layer requirements Experience with SPICE simulation or equivalent circuit modelling tools Background in EV, HEV, or powertrain electronics
02/07/2026
Full time
South East, United Kingdom Permanent Posted February 2026 About the Role Our client, an engineering organisation developing advanced power electronics and electrified vehicle systems, is seeking a Senior Electronics Design Engineer to lead PCB and hardware design activities. The role involves owning hardware design from concept through to production release, working closely with embedded software, systems, and mechanical teams. You will be responsible for the design of complex, high-reliability electronics for demanding automotive and industrial environments, with a strong emphasis on signal integrity, EMC, and design-for-manufacture principles. Key Responsibilities Lead electronics hardware design from requirements capture through to production release Design and review complex multi-layer PCBs for power electronics, motor control, and ECU applications Define and own hardware architecture for new products and platforms Perform schematic capture and PCB layout using industry-standard EDA tools (e.g. Altium Designer) Conduct design reviews, FMEA, and DFM/DFT analysis Support hardware bring-up, debug, and validation activities in the lab Collaborate with embedded software engineers on hardware/software interface definition Work with supply chain and manufacturing teams to support component selection and qualification Produce and maintain hardware design documentation to appropriate standards Mentor junior engineers and contribute to team capability development Degree in Electronics, Electrical Engineering, or equivalent Significant experience in electronics hardware design for automotive, industrial, or high-reliability applications Strong proficiency with Altium Designer or equivalent EDA tooling Experience designing for EMC compliance and signal integrity in mixed-signal environments Familiarity with automotive communication protocols (CAN, LIN, Ethernet, SPI, I C) Experience with hardware bring-up, oscilloscope debugging, and lab-based validation Understanding of functional safety principles (ISO 26262 awareness beneficial) Strong documentation skills and experience with formal design review processes Experience with high-voltage or high-current power electronics hardware Familiarity with AUTOSAR hardware abstraction layer requirements Experience with SPICE simulation or equivalent circuit modelling tools Background in EV, HEV, or powertrain electronics