Apply finite element and computational modeling to improve optical fiber manufacturing at the Wilmington, NC plant, turning model results into implemented process and equipment improvements to raise yield, throughput, quality, and energy efficiency.
Compensation
The range for this position is $101,784.00 - $139,953.00 assuming full time status.
Responsibilities
Develop, validate, and maintain thermal, structural, and computational fluid dynamics (CFD) models of glassmaking processes and equipment using commercial tools such as ANSYS, COMSOL, and Fluent
Work hands-on in the plant to gather process data, run experiments and trials, and use the results to calibrate and validate models
Use physics-based analysis to identify root causes of process limitations, and translate results into engineering requirements, design recommendations, and process windows
Evaluate design and process alternatives both virtually and hands on to reduce development time, cost, and risk
Partner with technology development, process engineering, and manufacturing teams to improve yield, throughput, quality, and energy use
Requirements
Masters in Physics, Mechanics, Mechanical Engineering, Applied Mathematics, or a related field (e.g., solid mechanics, fluid dynamics, theoretical physics)
Nice to have: Model validation against experimental and plant data
Nice to have: Uncertainty and sensitivity analysis
Nice to have: Multiphysics experience (coupled thermal, structural, and fluid)
Influencing how the next generation of Gulfstream aircraft fly by turning aerodynamic data into aircraft models that engineers and test pilots can trust, working across simulation, wind tunnel testing, flight test, and certification.
Responsibilities
Plan and support wind tunnel test campaigns, including test execution and aerodynamic data reduction
Build and refine high-fidelity aerodynamic simulation models using wind tunnel, computational fluid dynamics, flight-test, and other applicable data
Support flight-test campaigns through pre-test planning, real-time telemetry monitoring, and post-flight data analysis
Update and validate aerodynamic models using flight data and parameter or system identification methods
Conduct static, time-history, and laboratory simulation analyses to evaluate aircraft response and handling qualities
Requirements
Bachelor's degree
Master's degree
Doctoral degree
Nice to have: Parameter or system identification techniques
Lead the end-to-end thermal design, simulation, optimization, and physical validation of Direct-to-Chip (D2C) liquid cooling solutions for next-generation AI accelerators and high-density compute platforms.
Compensation
The annual base salary range for this position is USD To USD
Responsibilities
Build and run detailed Computational Fluid Dynamics (CFD) and thermal-resistance network models to evaluate temperature distribution, pressure drop, and flow balancing across cold plates, trays, and racks.
Research advanced cooling technologies and develop integration and test plans to validate these technologies and convert them into production solutions.
Co-design high-performance liquid cold plates with strategic industry partners to cool high-heat-flux AI processors.
Specify, select, and qualify thermal interface materials for large, high warpage, devices to minimize contact resistance between silicon dies and cold plates on large devices.
Design coolant flow paths, quick-disconnects (QDs), hoses, and cold-plate retention/loading mechanisms in alignment with server chassis and OCP (Open Compute Project) standards.
Requirements
Bachelor’s or Master’s degree in Mechanical or Thermal Engineering
Oversee the complete engineering lifecycle of cooling systems for prefabricated data centre modules, translating thermal requirements into factory-ready manufacturing documentation.
Locations (2)
Jinshan, Shanghai, China
Johor Bahru, Johor, Malaysia
Responsibilities
Create comprehensive HVAC system configurations for modular units, producing precise fabrication drawings and detailed material lists for production
Execute thermal load assessments and computational fluid dynamics (CFD) analyses to verify system performance and enhance energy efficiency in specific project designs
Identify and integrate key cooling components, including chillers, cold distribution units, pumps, towers, and humidity control devices, ensuring they fit within the prefabricated module constraints
Offer technical expertise during the manufacturing process and on-site commissioning to troubleshoot and resolve any cooling-related technical challenges
Align technical specifications and equipment parameters with stakeholders, including clients, external consultants, general contractors, and equipment suppliers
Gather requirements and perform analysis and design activities for enterprise-level application features.
Design and develop new tools and capabilities related to Emerson’s PipelineManager and associated software solutions.
Convert conceptual ideas into scalable, customer-focused software solutions.
Design, develop, optimize, modify, and debug numerical simulation software using C#, Python, and SQL.
Perform software development and maintenance activities for hydraulic simulation, leak detection, and offline transient oil and gas pipeline modeling applications.
Requirements
Bachelor’s degree in Computer Science, Engineering, Physics, Mathematics, or a related technical discipline.
Provide instruction to undergraduate students in the Integrated Engineering Laboratory course (ESNS 3750U) using a technology-enhanced learning approach.
Compensation
Salary Grade: Administered in accordance with Appendix A of the Sessional Lecturers Collective Agreement with PSAC
Responsibilities
Prepare and teach a theoretically and methodologically sophisticated and relevant course at the upper-year undergraduate level
Deliver the course using a technology-enhanced learning approach
Prepare, deliver and grade all course material and student assessments
Be available for consultation with students during and following completion of the course session
Oversee weekly laboratories
Requirements
PhD in a relevant engineering discipline
equivalent of education and extensive industrial experience
Nice to have: Nuclear Engineering program teaching experience
Nice to have: Learning Management System (Canvas) experience
Nice to have: Delivering classes remotely using online modalities (Kaltura Media, Google Meets, Zoom)
Design and develop thermal and acoustic solutions for HP high-performance workstations, influencing system architecture, fan-control strategy, and reliability from concept to market.
Compensation
The pay range for this role is $93,400 to $143,800 USD annually with additional opportunities for pay in the form of bonus and/or equity (applies to United States of America candidates only). Pay varies by work location, job-related knowledge, skills, and experience.
Responsibilities
Develop and integrate thermal and acoustic solutions that balance compute performance, acoustics, reliability, cost, and schedule.
Evaluate emerging thermal-management and fan-control technologies and translate promising approaches into system-level designs.
Develop and execute validation plans, analyze results, and use findings to improve thermal, fan-control, acoustic, and reliability performance.
Work with internal teams and external development partners to communicate evidence, resolve trade-offs, and align on design decisions and system requirements.
Influence thermal architecture roadmaps and deliver solutions within project scope and budget requirements.
Requirements
Bachelor’s or master’s degree in mechanical engineering or a closely related engineering discipline
The pay range for this role is $93,400 to $143,800 USD annually with additional opportunities for pay in the form of bonus and/or equity (applies to United States of America candidates only). Pay varies by work location, job-related knowledge, skills, and experience.
Responsibilities
Design Excellence: Develop and integrate thermal and acoustic solutions that balance compute performance, acoustics, reliability, cost, and schedule.
Thermal Expertise: Evaluate emerging thermal-management and fan-control technologies and translate promising approaches into system-level designs.
Performance Optimization: Develop and execute validation plans, analyze results, and use the findings to improve thermal, fan-control, acoustic, and reliability performance.
Expert Collaboration: Work with internal teams and external development partners to communicate evidence, resolve trade-offs, and align on design decisions and system requirements.
Strategic Planning: Influence thermal architecture roadmaps and deliver solutions within project scope and budget requirements.
Requirements
Bachelor’s or master’s degree in mechanical engineering or a closely related engineering discipline
The pay range for this role is $93,400 to $143,800 USD annually with additional opportunities for pay in the form of bonus and/or equity (applies to United States of America candidates only). Pay varies by work location, job-related knowledge, skills, and experience.
Responsibilities
Design Excellence: Develop and integrate thermal and acoustic solutions that balance compute performance, acoustics, reliability, cost, and schedule.
Thermal Expertise: Evaluate emerging thermal-management and fan-control technologies and translate promising approaches into system-level designs.
Performance Optimization: Develop and execute validation plans, analyze results, and use the findings to improve thermal, fan-control, acoustic, and reliability performance.
Expert Collaboration: Work with internal teams and external development partners to communicate evidence, resolve trade-offs, and align on design decisions and system requirements.
Strategic Planning: Influence thermal architecture roadmaps and deliver solutions within project scope and budget requirements.
Requirements
Bachelor’s or master’s degree in mechanical engineering or a closely related engineering discipline