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Passive Logic

Physical AI Engineer - Multiple Teams

Applied Machine LearningConfirmed live in the last 24 hours
Full-timeHolladay, UT, USAIn-person

About the Job

Requirements

  • A Master of Science or PhD in control engineering, computer science, robotics, applied mathematics, mechanical engineering, or a related field.
  • Demonstrated expertise in artificial intelligence development, scientific machine learning, optimal control, reinforcement learning, multi-agent systems, physics-informed machine learning, and optimization theory.
  • A strong technical background in control theory, model predictive control, state estimation, and system identification.
  • Strong programming skills in Python, C++, Swift, or a similar language.
  • Strong analytical, debugging, and root-cause analysis skills.
  • Experience with automatic differentiation and differentiable programming.
  • Experience with software design, design patterns, and software architecture.
  • Knowledge of building science, heating, ventilation, and air conditioning systems, thermodynamics, energy modeling, or grid-interactive controls.
  • Experience with software-in-the-loop and hardware-in-the-loop testing.
  • Experience with formal methods, probabilistic modeling, and graph neural networks.
  • Experience with building energy-modeling tools such as Dymola and EnergyPlus.
  • Experience in vector, single instruction, multiple data, and tensor computational methods.

Responsibilities

  • Design and implement autonomous control strategies that use physics-based digital twins for prediction, optimization, and decision-making.
  • Translate comfort, energy, equipment life, and operational requirements into control objectives, constraints, and cost functions.
  • Develop scalable optimization algorithms using methods such as stochastic gradient descent, coordinate descent, distributed optimization, Bayesian methods, and evolutionary algorithms.
  • Design and implement physics-based automated fault-detection and diagnosis algorithms.
  • Develop fault-tolerant control methods that support degraded operation and system recovery.
  • Integrate control and learning algorithms into production systems while meeting reliability and real-time performance requirements.
  • Develop physics-informed predictive and learning models using deep learning, reinforcement learning, and transfer learning.
  • Develop autonomous agents, state-estimation methods, model adaptation, and control-correction algorithms.
  • Create learning methods that remain reliable under noise, outliers, sparse data, model uncertainty, and changing system behavior.
  • Define performance metrics, acceptance criteria, and automated tests for autonomous capabilities and levels of autonomy.
  • Test system behavior under disturbances, incomplete observations, model divergence, and equipment, sensor, or communication failures.
  • Verify fault-detection accuracy and validate fault-tolerant control, degraded operation, and recovery behavior.
  • Compare simulation results with analytical solutions, laboratory measurements, and real-building data.

About the Company

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