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- Remote
- Experience
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- Employment
- Full Time
- Compensation
- Not disclosed
- Technology signal
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Role description
Svitla Systems Inc. is looking for a Physics-Informed Machine Learning Engineer for a full-time position (40 hours per week) in Europe. Our client is a technology startup.
- Experience in building and training physics-informed models - a physics-based term in the loss function of a real project (PINN, physics-regularized NN, or equivalent).
- Strong understanding of time-series/sequence modeling (LSTM, temporal CNN, transformers, or state-space models) on sensor or telemetry data.
- Understanding of parameter calibration / inverse problem: fitting mechanistic model parameters to noisy observational data (Bayesian calibration, MLE, or optimization-based).
- Expert knowledge of Python scientific stack (Pandas, NumPy, scikit-learn, PyTorch, or JAX) and be comfortable owning a data pipeline end to end, including data-quality investigation.
- Expertise in reading and reasoning about physics/reliability equations governing degradation; you don't need to derive them, but they can't be a black box.
- Experience in reliability engineering/PHM (prognostics and health management) background: RUL estimation, degradation modeling, accelerated-life testing.
- Exposure to semiconductor or hardware degradation physics at a "read the literature critically" level.
- Familiarity with nonlinear dynamics/recurrence or dynamical-systems features (e.g., RQA or comparable techniques).
- Familiarity with hardware/datacenter telemetry or fleet analytics.
- Experience working in small teams alongside domain scientists/mathematicians; comfortable turning research feedback into production code.
- Build the temporal model: design and train a physics-informed sequence model (e.g., LSTM or similar temporal architecture) for degradation and health prediction, incorporating a physics-based loss term alongside the data-driven loss.
- Design the fusion layer: define how physics-based stress features, dynamical/mathematical features, and other signals combine into model inputs and a defensible health score, replacing today's simple hand-set weighting.
- Calibrate the physics-informed components: the stress-proxy parameters are currently engineering priors. You'll help design and execute calibration strategies against the available outcome labels.
- Harden the feature pipeline: the pipeline is Python/Pandas over time-aligned multi-sensor telemetry; you'll extend and maintain it (feature audits, label engineering, data-quality gates) as modeling needs dictate.
- Write clear analysis docs and defend modeling choices to technical stakeholders and clients.