Functional Focus: High-Performance Computing, Numerical Methods, and Physics SimulationSimulation Engine Development: Write high-performance C++ code for adaptive-step numerical integration of physical systems, handling multiple perturbation/force models.Numerical Accuracy & Stability: Implement quaternion-based rotational dynamics and coordinate frame transformations, ensuring zero memory leaks when integrating third-party C/C++ scientific libraries.Shared-Memory Optimization: Design cache-friendly memory structures and multi-threaded execution models that avoid race conditions and false sharing across compute cores.Parallel Compute Strategy: Evaluate and implement intra-job CPU parallelism strategies — serial, shared-memory (e.g. OpenMP), or message-passing (e.g. MPI) —appropriate to workload scale.State Estimation: Implement Kalman-filter-based state estimation that fuses multiple sensor measurements — prediction, innovation, Jacobian assembly, and correction.RequirementsMandatory:C++ (modern, 11/14/17+)Adaptive-step ODE/numerical integration, linear algebraMulti-threading (std::thread, thread pools), race-condition/false-sharing avoidanceManual memory management, leak-free integration with third-party C/C++ librariesQuaternion/rotation math, coordinate frame transformsCMake, unit testing (GoogleTest or similar)Python (for tooling/scripting/testing)Kalman/Bayesian filtering theoryAttitude/rigid-body dynamics backgroundAstrodynamics / orbital mechanics fundamentalsTLE (Two-Line Element) format familiarityOptional:OpenMP, MPI/OpenMPIValgrind, AddressSanitizer, profilers (perf, VTune)CI pipelines for C++, cross-platform buildsBenefitsWe offer great career growth, ESOPs, Gratuity, PF and Health Insurance.
Functional Focus: High-Performance Computing, Numerical Methods, and Physics Simulation
- Simulation Engine Development: Write high-performance C++ code for adaptive-step numerical integration of physical systems, handling multiple perturbation/force models.
- Numerical Accuracy & Stability: Implement quaternion-based rotational dynamics and coordinate frame transformations, ensuring zero memory leaks when integrating third-party C/C++ scientific libraries.
- Shared-Memory Optimization: Design cache-friendly memory structures and multi-threaded execution models that avoid race conditions and false sharing across compute cores.
- Parallel Compute Strategy: Evaluate and implement intra-job CPU parallelism strategies — serial, shared-memory (e.g. OpenMP), or message-passing (e.g. MPI) —appropriate to workload scale.
- State Estimation: Implement Kalman-filter-based state estimation that fuses multiple sensor measurements — prediction, innovation, Jacobian assembly, and correction.
Requirements
Mandatory:
- C++ (modern, 11/14/17+)
- Adaptive-step ODE/numerical integration, linear algebra
- Multi-threading (std::thread, thread pools), race-condition/false-sharing avoidance
- Manual memory management, leak-free integration with third-party C/C++ libraries
- Quaternion/rotation math, coordinate frame transforms
- CMake, unit testing (GoogleTest or similar)
- Python (for tooling/scripting/testing)
- Kalman/Bayesian filtering theory
- Attitude/rigid-body dynamics background
- Astrodynamics / orbital mechanics fundamentals
- TLE (Two-Line Element) format familiarity
Optional:
- OpenMP, MPI/OpenMPI
- Valgrind, AddressSanitizer, profilers (perf, VTune)
- CI pipelines for C++, cross-platform builds
Benefits
We offer great career growth, ESOPs, Gratuity, PF and Health Insurance.
Astrome is constantly innovating the next generation Millimeter-Wave Wireless products through our hardware innovation in phased array antenna and software innovation in beam-forming and beam-steering.
Astrome is constantly innovating the next generation Millimeter-Wave Wireless products through our hardware innovation in phased array antenna and software innovation in beam-forming and beam-steering.
