Contribuer aux méthodes de modélisation mathématique et de simulation numérique de Simcenter Amesim, transformer les concepts de la mécanique en prototypes de bibliothèques de simulation.
We offer competitive compensation and comprehensive benefits and programs.
Responsibilities
Lead modeling and simulation activities in alignment with the company’s product development process, ensuring high-quality system analysis, risk identification, and actionable design recommendations.
Define and drive the technical roadmap for 1D system simulation applications, improving simulation capability through new technologies, enhanced methodologies, and practical engineering needs.
Develop, review, and refine component mathematical models, system-level architectures, and unit control logic characteristics, ensuring accurate functional implementation and strong correlation with physical behavior.
Lead the integration of simulation with experimental validation, using test data to calibrate models, improve prediction accuracy, and support design decisions.
Drive standardization, automation, and continuous improvement of refrigeration system design and simulation workflows to increase development efficiency and technical consistency.
Simulation Engineer role to design and validate refrigeration systems using advanced simulation software and testing equipment.
Compensation
We offer competitive compensation and comprehensive benefits and programs.
Responsibilities
Follow the company's product development process, utilizing advanced simulation software and testing equipment to ensure optimal system performance, and deliver validated, high-quality refrigeration system designs and air conditioning products.
Utilize advanced simulation tools and software to create simulation models of systems and components.
Develop and optimize simulation models to accurately reflect the behavior and performance of systems.
Conduct system performance analysis, identify potential issues, and propose improvement suggestions.
Develop mathematical models to accurately reflect the control logic of the unit and promote the standardization and modular design of models.
Requirements
Master's degree or above in Thermodynamics, Refrigeration, Cryogenic, Air Conditioning, heat Transfer, or related fields.
Lead the development of advanced software tools that drive innovation in HVAC technology.
Compensation
$105,228.33 - $146,720.00
Responsibilities
Develop 1D steady-state and transient modelling capability for refrigeration systems, electrical systems, and other sub-systems for HVAC&R products.
Maintain and enhance in-house modeling tools with a focus on code quality, scalability, and performance.
Apply software engineering principles to improve simulation workflows and automate analysis processes.
Stay current with advancements in computational modeling, software development, and simulation technologies.
Collaborate with systems engineers to integrate simulation tools into the model-based design (MBD) and model-based systems engineering (MBSE) processes.
Requirements
Master's degree in Electrical, Mechatronics, Mechanical Engineering
Doctorate degree in Electrical, Mechatronics, Mechanical Engineering
Bachelor’s degree with 7+ years of relevant experience
Define and lead the end-to-end architecture for General Motors’ scalable, domain-agnostic co-simulation and virtual integration ecosystem, establishing the technical foundation to integrate embedded software, virtual ECUs, plant/behavioral models, and vehicle services.
Locations (2)
Markham, Ontario, Canada
Oshawa, Ontario, Canada
Compensation
The salary range for this role is $137,300 to $203,000.
Responsibilities
Define and evolve the end-to-end CoSim/SIL architecture, including system boundaries, interfaces, ownership models, reusable patterns, non-functional requirements, and architectural decision records.
Create a scalable reference architecture for integrating plant models, behavioral models, virtual ECUs, infrastructure vECUs, network behavior, embedded software, supplier assets, and test services into cohesive and repeatable virtual environments.
Establish platform standards for CoSim package structure, APIs, model and software interfaces, dependency management, versioning, documentation, release notes, and deployment.
Define integration and execution patterns that enable the repeatable assembly, validation, and use of CoSim assets.
Lead integration patterns for reusable cross-domain services such as activation and lifecycle behavior, diagnostics access, non-volatile memory behavior, network simulation, fault injection, configuration, logging, and test orchestration.