Senior Engineer III - Robotics Systems
NewSpace Research and Technologies · Bengaluru
- Experience1–2 yrs
- SalaryNot disclosed
- Work modeonsite
- Leveljunior
- Posted16 Sept 2026
About NewSpace Research and Technologies
NewSpace Research and Technologies is hiring in Bengaluru in automotive mobility. This role looks for around 1+ years of experience.
Skills
- requirements engineering
- system architecture
- system integration
- verification and validation
- interface management
- configuration control
- technical risk management
- log analysis
- debugging
- root-cause investigation
- vision-aided navigation
- radar-aided navigation
- GNSS-denied PNT
- RF-based localization
- machine vision
- IMU/INS
- embedded computers
- microcontrollers
- TOF sensors
- 3D LiDAR
- ArduPilot
- PX4
- ROS
- ROS2
- MAVLink
- Mission Planner
- QGroundControl
- timing and synchronization
- Linear Algebra
- Probability
- Statistics
The role
A robotics systems engineer at an autonomous flight technology company defines system architecture and leads requirements engineering and system integration for field-validated robotic platforms. The role applies model-based systems engineering, embedded systems, and GNSS-denied navigation across verification, flight testing, and technical acceptance.
Full job description
Job Area:
Denied Operations Division > GNSS-Denied
Domain:
Robotic Systems
What this Role Offers
Opportunity to lead the system architecture, integration, verification, and field acceptance of advanced autonomous flight systems.
End-to-end technical ownership across R&D algorithms, flight-control firmware, robotics software, embedded systems, and deployment.
Hands-on exposure to ground testing, flight testing, failure investigation, and real-world system validation.
Collaboration with Navigation, Sensor Fusion, GNC, Vision, Radar, CRPA, Avionics, Cybersecurity, and RF/EMI-EMC teams.
About the Role
The Senior Engineer - Robotic Systems Engineering role is a senior, hands-on position responsible for ensuring that independently developed technologies operate as a coherent, deployable, and field-validated system. The engineer will own system requirements, architecture, interfaces, integration strategy, verification planning, configuration baselines, and system-level technical acceptance.
The role connects specialized R&D, flight-control firmware, software, embedded systems and company-wide technical units, ensuring that independently developed capabilities become reliable, deployable products. This role is ideal for engineers who enjoy solving cross-disciplinary problems and taking complex systems from development to reliable field operation.
Key Responsibilities
Define and maintain system requirements, architecture, interfaces, operating concepts, and technical baselines.
Translate program objectives into measurable subsystem requirements, verification methods, and acceptance criteria.
Maintain relevant compute, timing, latency, bandwidth, power, thermal, and system-performance budgets.
Define integration, simulation, bench, HIL, ground test, and flight test strategies with the technical owners.
Lead technical reviews, trade studies, failure investigations, and cross-functional issue resolution.
Establish requirements to test traceability, approve system-level verification evidence, and release baselines.
Coordinate interfaces with Navigation, Sensor Fusion, GNC, Vision, Radar, CRPA, and Flight-Control Firmware teams.
Coordinate with Avionics, Cybersecurity, and RF/EMI-EMC units without duplicating their specialist ownership.
Own deployment plans, flight-test objectives, known system limitations, and technical acceptance criteria.
Mentor Systems Engineers working in Robotics Software, Software Platform, Robotics Integration, and Embedded Software.
Communicate technical risks, evidence, decisions, and system status to management and Program Management.
Minimum Qualifications
Bachelor’s, Master’s or PhD degree in Robotics/Mechatronics, Electrical/Electronics Engineering, Engineering Design, or Aerospace Engineering
6+ years (Bachelor’s) or 5+ years (Master’s) or 1+ years (PhD) or more years of industrial experience in systems engineering and integration affiliated to aerospace, UAVs, robotics, or complex embedded products; demonstrated architecture ownership and technical depth are more important than a strict year count
Demonstrated experience owning a complete system or major subsystem from requirements through integration and field validation
Strong understanding of requirements engineering, interface management, verification, configuration control, and technical risk management
Strong log analysis, debugging, root-cause investigation, and technical decision-making skills.
Strong technical writing, review, mentoring, and stakeholder communication skills
Experience in either of the following: vision-aided navigation, radar-aided navigation, GNSS-Denied PNT solutions, or RF-based localization in mobile robots
Hands-on experience with industrial machine-vision cameras, IMU/INS, embedded computers, microcontrollers, TOF sensors, and 3D LiDAR
Experience working with ArduPilot/PX4, ROS/ROS2, MAVLink, Mission Planner or QGroundControl
Experience working on timing and synchronization in embedded systems
Application knowledge of Linear Algebra, Probability, and Statistics in robotics
Preferred Qualifications
Application knowledge of time-series analysis
Technical depth in model-based systems engineering and system identification
Working knowledge of antennas, GNSS receivers, and RF spectrum
Experience with SIL/HIL simulation, automated regression, flight-test planning, and incident investigation
Experience in multi-agent systems and dynamic game theory
Experience in V2X, energy optimization, and electronic circuits
Familiarity with safety analysis, failure modes, degraded operations, or qualification of airborne/robotic systems
Experience leading multidisciplinary engineering teams in a startup or fast-moving product environment
Additional Considerations for PhD Graduates
Candidates with a PhD may be considered for an enhanced designation or role variant (e.g., Lead Engineer) based on:
Depth of thesis/research experience in robotics, UAV autonomy, control systems, state estimation, navigation and planning, or perception
Research internships or lab experience involving UAV testing and system integration
Ability to take ownership of specific subsystem modules or small projects early in their tenure
Strong publication track record (IEEE Transactions, IJJR, Science Robotics, ICRA, IROS, CoRL, CVPR, ECCV, JoFR)
Working Hours
Standard working hours are 9:30 AM to 6:30 PM, Monday to Friday
Field-testing activities may require early-morning or extended hours, depending on mission requirements
Compensation Range
Competitive compensation aligned with industry standards, including performance-based incentives
Exact salary ranges will be customised according to experience
Benefits
Comprehensive health insurance
Professional development support
Detachment allowance