We’re a small, stealth robotics company working on high-resolution tactile sensing for manipulation. Our hardware produces dense, image-like signals from contact with the world, and we need someone to turn that raw data into clean, calibrated tensors that downstream learning and control systems can actually use.
In this role, you’ll define the internal “tactile tensor” representations, build the calibration and compensation models, and work closely with an embedded/driver engineer who owns low-level drivers and data streaming.
**Architect the representation
**Design the tactile tensor layouts used internally for learning and control (dimensions, units, metadata, coordinate frames, sparse vs dense structures).
**Physics-aware calibration
**Build ML and signal-processing pipelines that map raw sensor outputs (images, voltages, capacitance, etc.) to grounded physical quantities such as forces, deformation, and contact geometry.
**Model the messy real world
**Implement models to handle thermal drift, hysteresis, wear, and other real-world artifacts, turning noisy streams into stable, scientific-grade measurements.
**Close the hardware loop
**Work closely with an embedded/driver engineer to:
Define logging schemas and APIs between drivers and ML components.
Debug data issues (timing, sync, dropped frames, saturation, coordinate misalignment).
Distinguish whether a glitch is electrical, mechanical, or algorithmic.
**Bridge simulation and reality
**Analyze and align data from physics engines (e.g., Isaac Sim, MuJoCo, PyBullet) and real hardware to quantify and reduce the sim-to-real gap.
**Design experiments and benchmarks
**Design and run experiments end-to-end: data collection, training, evaluation, and reporting. Help specify small benchmarks and demo tasks (e.g., grasp stability, slip detection) that showcase tactile capabilities.
Education / background
Strong Python fluency and experience with modern ML frameworks
PyTorch preferred; TensorFlow or JAX also fine.
Solid background in machine learning plus at least one of:
Computer vision (convolutions, geometry, calibration)
Robotics / robot learning
Sensor fusion, control, or time-series modeling
Experience with real hardware / robots / sensors
Signal processing & calibration intuition
Simulation exposure
Communication rigor