Jabil Circuit Inc Jobs in Usa

Job Title: Principal Electrical Controls Engineer

Job Family: Electrical Design Engineering

Organization: Data Center Infrastructure Team

Location: Remote* OR Austin, TX

*Requires up to 20% domestic and/or international travel (rare)

How will you make an impact?

We are seeking a highly experienced and innovative Principal Controls Engineer to lead the development, optimization and implementation of advanced control systems across critical infrastructure products and automation platforms. This role is critical to ensuring the performance, reliability, and scalability of critical systems, with a strong emphasis on data center infrastructure, power/energy management, and industrial automation.

This role will involve designing and developing wiring harness systems, including schematic creation, harness architecture, panel layout, developing specifications, selecting key components, and transitioning design to manufacturing. Furthermore, the position includes leading test process implementation and ensuring equipment alignment to maintain the highest standards of operational excellence and reliability.

What will you do?

- Define and own the control system architecture across multiple platforms, including PLCs, BMS, EPMS, and ATS systems, ensuring scalability, reliability, and maintainability.

- Develop detailed control system specifications, functional design documents, and interface definitions for all subsystems.

- Proficiency in PLC/SCADA programming, HMI development, and system integration with IT networks and facility equipment.

- Ability to read and create BOMs. visual aids, electrical schematics, control diagrams, and sequence of operations.

- Define control logic, sensor integration, and communication protocols (e.g., Modbus, BACnet, SNMP) for intelligent power and cooling management.

- Validate control systems through simulation, testing, and commissioning to ensure reliability, safety, and responsiveness.

- Experience with critical infrastructure systems: UPS, generators, switchgear, chillers, CRAC/CRAH units, fire suppression systems.

- Lead Factory Acceptance Testing (FAT) and Site Acceptance Testing (SAT) for new projects and revisions.

- Drive the development of system-level simulations and digital twins to validate control strategies before deployment

- Architect integration strategies for control systems with enterprise platforms such as SCADA, CMMS, and cloud-based monitoring tools

- Establish design patterns and best practices for modular and reusable control logic across projects

- Lead root cause analysis and resolution of complex control system issues during commissioning and operations

- Evaluate emerging technologies and automation trends to continuously improve system performance and efficiency

- Develop and maintain documentation for system architecture, control logic, and operational procedures

- Collaborate with electrical, mechanical, software, and facilities engineering teams to ensure seamless integration of control systems with physical infrastructure

- Work closely with cross functional teams to align control system designs with business requirements, timelines, and operational constraints

- Facilitate design reviews, technical workshops, and cross-functional planning sessions to ensure alignment and transparency across engineering disciplines

- Support commissioning and field teams during deployment, troubleshooting, and optimization of control systems

How will you get here?

Education:

- Bachelor’s Degree in Electrical Engineering or a relevant engineering discipline.

Experience:

- 8+ years pf experience in control system design and implementation

- Deep expertise in the following:

- PLC programming (Allen-Bradley, Siemens, Schneider Electric)

- Building Management Systems (BMS) integration and optimization

- Electrical Power Monitoring Systems (EPMS/EDPM) for real-time energy analytics

- Automatic Transfer Switches (ATS) control and failover logic

- Strong proficiency in control theory, system modeling, and simulation tools (MATLAB/Simulink)

- Experience with industrial protocols (Modbus, BACnet, OPC UA, Ethernet/IP)

- Familiarity with NFPA, IEC, and ISO standards related to control systems and safety.

Knowledge, Skills, Abilities:

- Excellent interpersonal and communication skills

- Creative, self-motivated, accountable, and team-oriented

- Able to work independently with minimal oversight as part of a global team

- Proficient in reading, analyzing, and interpreting general business publications, professional journals, technical procedures, and government regulations

- Skilled in writing reports, business correspondence, and procedural guides

- Effective at presenting information and responding to management, clients, and public queries

- Capable of influencing others and sharing best practices while mentoring less experienced engineers

- Capable of assessing projects, articulating risks, and developing project milestones

- Familiar with stage-gate processes in project lifecycle management (PLCM)

- Excellent problem-solving skills and attention to detail

- Experience in EPlan, WindChill, SolidWorks, and DevOps are a plus

- Experience with hyperscale or colocation data center environments

- Familiarity with low and medium-voltage systems

Preferred Qualifications: 

- Master’s Degree in Electrical Engineering or a relevant engineering discipline

- Active Professional Engineer (PE) license

- Experience in mission-critical environments such as data centers, manufacturing, or energy systems.

- Experience with digital twin modeling and predictive maintenance strategies.
Remote working/work at home options are available for this role.

Job Title: Principal Mechanical Integration Engineer

Job Family: Mechanical Design Engineering

Organization: Data Center Infrastructure Team

Location: Remote* OR Austin, TX

*Requires up to 20% domestic and/or international travel (rare)

How will you make an impact? 

The Principal Mechanical Design Engineer (Data Center Infrastructure) is a technical leader responsible for the architecture, integration, and validation of advanced mechanical systems supporting hyperscale data center environments. This role requires deep expertise in liquid cooling technologies (single-phase and two-phase), hydronic system design, structural integration, and manufacturable rack-level infrastructure solutions.

This role is responsible for defining system performance requirements, developing technical specifications, selection and integration of critical components, and leading mechanical design from concept through production release. Responsibilities include wetted material selection, thermal and structural analysis, fastening strategies, component layout, and design for manufacturability. Partners cross-functionally to deliver reliable, scalable, and cost-effective Data Center Infrastructure solutions while advancing innovation in liquid cooling performance.

What will you do?

- Lead the end-to-end mechanical design and engineering of hyperscale Data Center Infrastructure (DCI) systems, including liquid-cooled rack assemblies, CDUs, manifolds, enclosures, structural frames, and associated hydronic piping systems.

- Serve as the technical authority for single-phase and two-phase liquid cooling architectures, including primary and secondary loop design, in-rack distribution, and system integration within hyperscale data center environments.

- Define and validate operational performance requirements for liquid-cooled infrastructure, including pressure ratings, hydrostatic limits, temperature ranges, flow rates and uniformity, thermal expansion, durability, and serviceability.

- Design, analyze, and validate machined components, welded fabrications, manifolds, and structural systems using advanced engineering principles, including stress analysis, finite element analysis (FEA), flow modeling, and structural load calculations to ensure mechanical integrity and code compliance.

- Lead wetted material selection and compatibility analysis for liquid cooling systems, including corrosion mitigation strategies, surface treatments, cleanliness standards, and long-term durability considerations.

- Develop and review CAD models and complete technical data packages using CREO, SolidWorks, or equivalent tools; ensure design accuracy, manufacturability, and system-level integration.

- Author and approve technical specifications for piping systems, rack-level cooling infrastructure, and hydronic components, including installation guidelines, maintenance procedures, testing requirements, and compliance with applicable standards (ASME, ISO).

- Establish and oversee validation protocols including hydrostatic pressure testing, leak detection and mitigation, flow resistance analysis, and corrosion verification to ensure regulatory compliance and operational reliability.

- Evaluate customer design proposals and technical specifications to assess feasibility, manufacturability, cost, and risk; provide recommendations to optimize performance and total cost of ownership.

- Lead cross-functional design reviews with electrical, thermal, manufacturing, quality, and supply chain teams to ensure full system integration and compliance with product specifications and applicable plumbing and hydronic codes.

- Optimize rack manifold design and manufacturing processes, including machining, welding, surface finishing, connection interfaces, venting and draining strategies, and flow path optimization to enhance performance and manufacturability.

- Drive continuous improvement in manufacturing assembly methods and tooling in collaboration with production teams and equipment vendors to improve quality, scalability, and cost efficiency.

- Lead root cause investigations for complex mechanical failures identified during validation or field deployment and implement corrective design improvements.

- Provide technical leadership in vendor qualification and management for mechanical components and liquid cooling subsystems.

- Identify and mitigate technical risks impacting performance, schedule, or cost, and contribute to R&D initiatives advancing liquid cooling technologies and system innovation.

MINIMUM QUALIFICATIONS

Education: 

- Bachelor’s degree in Mechanical Engineering, Systems Engineering, or a related engineering discipline from an accredited university.

Experience: 

- 8 years' experience in mechanical design and integration of mission-critical systems.

- Proven track record of successful system designs and implementations in a relevant industry

- Strong understanding of mechanical systems, integration strategy, and system coordination

- Familiarity with industry standards and regulations related to Energy Storage Systems and Data Center Infrastructure is preferred.

- Excellent problem-solving skills and attention to detail

- Strong communication and teamwork abilities

PREFERRED QUALIFICATIONS

- Master’s Degree in Mechanical Engineering

- Professional Engineer (PE) License

Job Summary

The Quality Engineer II plays a key role in ensuring product and process quality throughout the product lifecycle. This position involves applying quality engineering principles to prevent defects, improve manufacturing processes, and maintain compliance with established standards.

Job Responsibilities

- Develop, implement, and maintain quality control plans and procedures for new and existing products.

- Conduct root cause analysis for product non-conformances and process deviations, implementing effective corrective and preventive actions (CAPA).

- Perform statistical analysis of quality data to identify trends, opportunities for improvement, and risks.

- Participate in design reviews, process validations, and manufacturing readiness reviews to ensure quality requirements are met.

- Collaborate with cross-functional teams (e.g., R&D, Manufacturing, Supply Chain) to integrate quality into product development and production.

- Support internal and external audits, ensuring compliance with ISO standards, customer specifications, and regulatory requirements.

- Develop and deliver quality training to manufacturing personnel and other stakeholders.

- Review and approve engineering changes, ensuring their impact on product quality is assessed and controlled.

- Drive continuous improvement initiatives using methodologies such as Six Sigma, Lean Manufacturing, and FMEA.

- Document and report on key quality metrics and performance indicators.

Job Qualifications

- Bachelor's degree in Engineering (e.g., Mechanical, Electrical, Industrial, Manufacturing) or a related technical field.

- 3-5 years of experience in a Quality Engineering role within a manufacturing environment.

- Strong understanding of quality management systems (e.g., ISO 9001, AS9100, ISO 13485 depending on industry).

- Proficiency in statistical process control (SPC), measurement system analysis (MSA), and other quality tools.

- Demonstrated experience with root cause analysis methodologies (e.g., 8D, 5 Why, Fishbone diagrams).

- Excellent analytical, problem-solving, and decision-making skills.

- Strong communication and interpersonal skills, with the ability to effectively collaborate with diverse teams.

- Ability to read and interpret technical drawings and specifications.

- Proficiency in Microsoft Office Suite (Word, Excel, PowerPoint).

- ASQ certifications (e.g., CQE, CSSBB) are a plus.

JOB SUMMARY

Oversee production processes and assists Supervisor in establishing production priorities for products in keeping with effective operations and cost factors.

ESSENTIAL DUTIES AND RESPONSIBILITIES

· Confers with management personnel to establish production and quality control standards. Also assists in obtaining data regarding types, quantities, specifications, and delivery dates of products ordered. Helps to minimize excessive material on production floor.
· Assists in the coordination of production activities with procurement, maintenance, and quality control activities to obtain optimum production and utilization of human resources, machines, and equipment.
· Reviews and discusses production, quality control, maintenance, and operational reports to determine causes of nonconformity with product specifications, and operating or production problems with production supervisors.
· Assists in the minimization of scrap and materials request order (MRO) usage. Ensures that each workstation has a clean operating area. Assists in the implementation of operating methods and procedures designed to eliminate operating problems and improve metrics.
· Monitors all production metrics and completes monthly “report card”. Seeks continued improvement in lowering line and plant defects per million (DPM).
· Ensures that line employees read, understand and adhere to appropriate policies and procedures. Ensures proper stocking and availability of operation supplies and equipment.
· Assists in monitoring the SPC system to fix repetitive and recognize problems immediately. Compiles, stores, and retrieves production data.
· May perform other duties and responsibilities as assigned.

JOB QUALIFICATIONS
KNOWLEDGE REQUIREMENTS

· Strong knowledge of global and regional logistics operations and industry.
· Strong proficiency in determining logistics requirements to enable company’s business goals and objectives with ability to devise and implement strategy to achieve targets.
· Strong financial and analytical ability. Proficiency in managing business analytics to determine optimum company footprint.
· Strong knowledge of international direct and indirect taxes as well as global customs regimes.
· Proven track record of successful change management accomplishments, implementing and management continuous productivity and cost reduction programs.
· Strong and convincing communication skills.
· Proficiency in use of personal computers, Microsoft Office products (Excel, Word and PowerPoint) and e-mail skills required.

EDUCATION & EXPERIENCE REQUIREMENTS

· Bachelor’s degree or equivalent preferred.
· At least 2 years experience.
· Or a combination of education, experience and/or training.

Job Title: Principal Electrical Design Engineer

Job Family: Electrical Design Engineering

Organization: Data Center Infrastructure Team

Location: Remote* OR Austin, TX

*Requires up to 20% domestic and/or international travel (rare)

How will you make an impact?

We are seeking a highly experienced and innovative Principal Controls Engineer to lead the development, optimization and implementation of advanced control systems across critical infrastructure products and automation platforms. This role is critical to ensuring the performance, reliability, and scalability of critical systems, with a strong emphasis on data center infrastructure, power/energy management, and industrial automation.

This role will involve designing and developing wiring harness systems, including schematic creation, harness architecture, panel layout, developing specifications, selecting key components, and transitioning design to manufacturing. Furthermore, the position includes leading test process implementation and ensuring equipment alignment to maintain the highest standards of operational excellence and reliability.

What will you do?

- Define and own the control system architecture across multiple platforms, including PLCs, BMS, EPMS, and ATS systems, ensuring scalability, reliability, and maintainability.
- Develop detailed control system specifications, functional design documents, and interface definitions for all subsystems.
- Proficiency in PLC/SCADA programming, HMI development, and system integration with IT networks and facility equipment.
- Ability to read and create BOMs. visual aids, electrical schematics, control diagrams, and sequence of operations.
- Define control logic, sensor integration, and communication protocols (e.g., Modbus, BACnet, SNMP) for intelligent power and cooling management.
- Validate control systems through simulation, testing, and commissioning to ensure reliability, safety, and responsiveness.
- Experience with critical infrastructure systems: UPS, generators, switchgear, chillers, CRAC/CRAH units, fire suppression systems.
- Lead Factory Acceptance Testing (FAT) and Site Acceptance Testing (SAT) for new projects and revisions.
- Drive the development of system-level simulations and digital twins to validate control strategies before deployment
- Architect integration strategies for control systems with enterprise platforms such as SCADA, CMMS, and cloud-based monitoring tools
- Establish design patterns and best practices for modular and reusable control logic across projects
- Lead root cause analysis and resolution of complex control system issues during commissioning and operations
- Evaluate emerging technologies and automation trends to continuously improve system performance and efficiency
- Develop and maintain documentation for system architecture, control logic, and operational procedures
- Collaborate with electrical, mechanical, software, and facilities engineering teams to ensure seamless integration of control systems with physical infrastructure
- Work closely with cross functional teams to align control system designs with business requirements, timelines, and operational constraints
- Facilitate design reviews, technical workshops, and cross-functional planning sessions to ensure alignment and transparency across engineering disciplines
- Support commissioning and field teams during deployment, troubleshooting, and optimization of control systems

How will you get here?

Education:

- Bachelor’s Degree in Electrical Engineering or a relevant engineering discipline.

Experience:

- 8+ years pf experience in control system design and implementation
- Deep expertise in the following:

- PLC programming (Allen-Bradley, Siemens, Schneider Electric)

- Building Management Systems (BMS) integration and optimization

- Electrical Power Monitoring Systems (EPMS/EDPM) for real-time energy analytics

- Automatic Transfer Switches (ATS) control and failover logic

- Strong proficiency in control theory, system modeling, and simulation tools (MATLAB/Simulink)
- Experience with industrial protocols (Modbus, BACnet, OPC UA, Ethernet/IP)
- Familiarity with NFPA, IEC, and ISO standards related to control systems and safety.

Knowledge, Skills, Abilities:

- Excellent interpersonal and communication skills
- Creative, self-motivated, accountable, and team-oriented
- Able to work independently with minimal oversight as part of a global team
- Proficient in reading, analyzing, and interpreting general business publications, professional journals, technical procedures, and government regulations
- Skilled in writing reports, business correspondence, and procedural guides
- Effective at presenting information and responding to management, clients, and public queries
- Capable of influencing others and sharing best practices while mentoring less experienced engineers
- Capable of assessing projects, articulating risks, and developing project milestones
- Familiar with stage-gate processes in project lifecycle management (PLCM)
- Excellent problem-solving skills and attention to detail
- Experience in EPlan, WindChill, SolidWorks, and DevOps are a plus
- Experience with hyperscale or colocation data center environments
- Familiarity with low and medium-voltage systems

Preferred Qualifications: 

- Master’s Degree in Electrical Engineering or a relevant engineering discipline
- Active Professional Engineer (PE) license
- Experience in mission-critical environments such as data centers, manufacturing, or energy systems.
- Experience with digital twin modeling and predictive maintenance strategies.

**This position supports hybrid work schedule depending on organization needs.**

RESPONSIBILITIES:

- Architect, design, and maintain scalable CI/CD pipelines using Azure/AWS DevSecOps.

- Build and optimize Docker-based microservices, images, and deployment pipelines.

- Lead deployments across Docker Swarm, Kubernetes/EKS, and multi-location environments.

- Develop infrastructure automation using Ansible, bash scripting, Terraform and Git-based workflow.

- Manage release pipelines using container registries, artifact feeds, template pipelines, and multi-stage workflows.

- Design multi-environment strategies for dev, QA, staging, and production deployment.

- Implement cloud-native services with AWS & Azure cloud platforms.

- Implement basic security practices, including IAM roles, secrets management, and access controls.

- Develop secure, modular, reusable build and release systems.

- Work closely with full-stack engineering teams (Angular, Java, Python , backend APIs, database engineers).

- Mentor junior DevOps engineers and lead DevOps roadmap decisions.

KNOWLEDGE REQUIREMENTS:

DevOps Expertise:

Azure DevOps pipelines, YAML templating, CI/CD strategy, Git branching models.

Containerization & Orchestration:

Docker images, Docker Compose, Docker Swarm, multi-node/multi-location deployments.

Cloud Technologies:

Azure deployments & infrastructure, AWS (IAM, Lambda, S3, CloudWatch).

Programming / Scripting Languages:

Python, Bash, Linux/Unix administration, awk, shell automation, groovy.

Infrastructure Automation:

Ansible playbooks, tasks/roles, inventory design, configuration management.

Distributed Deployment Architecture:

Multi-site replication, node selection by IP, dynamic service routing.

Database Stack Experience:

PostgreSQL, MySQL, MariaDB operations & migrations.

Observability & Logging:

CloudWatch monitoring, log collection, Prometheus, Grafana, reporting & metrics.

Version Control & Build Systems:

Azure Devops, Git, Git submodules, artifact storage, registry solutions, Secrets Management.

Nice to have AI knowledge/experience and willingness to learn.

EDUCATION & EXPERIENCE REQUIREMENTS

- BS degree in Electrical/Computer Engineering, Computer Science or related field. MS preferred.
- 7+ years experience in a software devops/development/test capacity with enterprise server, storage or networking products.
Remote working/work at home options are available for this role.

Job Title: Principal Mechanical Integration Engineer

Job Family: Mechanical Design Engineering

Organization: Data Center Infrastructure Team

Location: Remote* OR Austin, TX

*Requires up to 20% domestic and/or international travel (rare)

How will you make an impact? 

The Principal Mechanical Design Engineer (Data Center Infrastructure) is a technical leader responsible for the architecture, integration, and validation of advanced mechanical systems supporting hyperscale data center environments. This role requires deep expertise in liquid cooling technologies (single-phase and two-phase), hydronic system design, structural integration, and manufacturable rack-level infrastructure solutions.

This role is responsible for defining system performance requirements, developing technical specifications, selection and integration of critical components, and leading mechanical design from concept through production release. Responsibilities include wetted material selection, thermal and structural analysis, fastening strategies, component layout, and design for manufacturability. Partners cross-functionally to deliver reliable, scalable, and cost-effective Data Center Infrastructure solutions while advancing innovation in liquid cooling performance.

What will you do?

- Lead the end-to-end mechanical design and engineering of hyperscale Data Center Infrastructure (DCI) systems, including liquid-cooled rack assemblies, CDUs, manifolds, enclosures, structural frames, and associated hydronic piping systems.

- Serve as the technical authority for single-phase and two-phase liquid cooling architectures, including primary and secondary loop design, in-rack distribution, and system integration within hyperscale data center environments.

- Define and validate operational performance requirements for liquid-cooled infrastructure, including pressure ratings, hydrostatic limits, temperature ranges, flow rates and uniformity, thermal expansion, durability, and serviceability.

- Design, analyze, and validate machined components, welded fabrications, manifolds, and structural systems using advanced engineering principles, including stress analysis, finite element analysis (FEA), flow modeling, and structural load calculations to ensure mechanical integrity and code compliance.

- Lead wetted material selection and compatibility analysis for liquid cooling systems, including corrosion mitigation strategies, surface treatments, cleanliness standards, and long-term durability considerations.

- Develop and review CAD models and complete technical data packages using CREO, SolidWorks, or equivalent tools; ensure design accuracy, manufacturability, and system-level integration.

- Author and approve technical specifications for piping systems, rack-level cooling infrastructure, and hydronic components, including installation guidelines, maintenance procedures, testing requirements, and compliance with applicable standards (ASME, ISO).

- Establish and oversee validation protocols including hydrostatic pressure testing, leak detection and mitigation, flow resistance analysis, and corrosion verification to ensure regulatory compliance and operational reliability.

- Evaluate customer design proposals and technical specifications to assess feasibility, manufacturability, cost, and risk; provide recommendations to optimize performance and total cost of ownership.

- Lead cross-functional design reviews with electrical, thermal, manufacturing, quality, and supply chain teams to ensure full system integration and compliance with product specifications and applicable plumbing and hydronic codes.

- Optimize rack manifold design and manufacturing processes, including machining, welding, surface finishing, connection interfaces, venting and draining strategies, and flow path optimization to enhance performance and manufacturability.

- Drive continuous improvement in manufacturing assembly methods and tooling in collaboration with production teams and equipment vendors to improve quality, scalability, and cost efficiency.

- Lead root cause investigations for complex mechanical failures identified during validation or field deployment and implement corrective design improvements.

- Provide technical leadership in vendor qualification and management for mechanical components and liquid cooling subsystems.

- Identify and mitigate technical risks impacting performance, schedule, or cost, and contribute to R&D initiatives advancing liquid cooling technologies and system innovation.

MINIMUM QUALIFICATIONS

Education: 

- Bachelor’s degree in Mechanical Engineering, Systems Engineering, or a related engineering discipline from an accredited university.

Experience: 

- 8 years' experience in mechanical design and integration of mission-critical systems.

- Proven track record of successful system designs and implementations in a relevant industry

- Strong understanding of mechanical systems, integration strategy, and system coordination

- Familiarity with industry standards and regulations related to Energy Storage Systems and Data Center Infrastructure is preferred.

- Excellent problem-solving skills and attention to detail

- Strong communication and teamwork abilities

PREFERRED QUALIFICATIONS

- Master’s Degree in Mechanical Engineering

- Professional Engineer (PE) License
Remote working/work at home options are available for this role.

Principal Mechanical Integration Engineer
Mechanical Design Engineering 
Data Center Infrastructure Team
Location: Remote* OR Austin, TX
*Requires up to 20% domestic and/or international travel (rare)

The Principal Mechanical Design Engineer (Data Center Infrastructure) is a technical leader responsible for the architecture, integration, and validation of advanced mechanical systems supporting hyperscale data center environments. This role requires deep expertise in liquid cooling technologies (single-phase and two-phase), hydronic system design, structural integration, and manufacturable rack-level infrastructure solutions.

This role is responsible for defining system performance requirements, developing technical specifications, selection and integration of critical components, and leading mechanical design from concept through production release. Responsibilities include wetted material selection, thermal and structural analysis, fastening strategies, component layout, and design for manufacturability. Partners cross-functionally to deliver reliable, scalable, and cost-effective Data Center Infrastructure solutions while advancing innovation in liquid cooling performance.

Lead the end-to-end mechanical design and engineering of hyperscale Data Center Infrastructure (DCI) systems, including liquid-cooled rack assemblies, CDUs, manifolds, enclosures, structural frames, and associated hydronic piping systems.
Serve as the technical authority for single-phase and two-phase liquid cooling architectures, including primary and secondary loop design, in-rack distribution, and system integration within hyperscale data center environments.
Define and validate operational performance requirements for liquid-cooled infrastructure, including pressure ratings, hydrostatic limits, temperature ranges, flow rates and uniformity, thermal expansion, durability, and serviceability.
Design, analyze, and validate machined components, welded fabrications, manifolds, and structural systems using advanced engineering principles, including stress analysis, finite element analysis (FEA), flow modeling, and structural load calculations to ensure mechanical integrity and code compliance.
Lead wetted material selection and compatibility analysis for liquid cooling systems, including corrosion mitigation strategies, surface treatments, cleanliness standards, and long-term durability considerations.
Develop and review CAD models and complete technical data packages using CREO, SolidWorks, or equivalent tools; ensure design accuracy, manufacturability, and system-level integration.
Author and approve technical specifications for piping systems, rack-level cooling infrastructure, and hydronic components, including installation guidelines, maintenance procedures, testing requirements, and compliance with applicable standards (ASME, ISO).
Establish and oversee validation protocols including hydrostatic pressure testing, leak detection and mitigation, flow resistance analysis, and corrosion verification to ensure regulatory compliance and operational reliability.
Evaluate customer design proposals and technical specifications to assess feasibility, manufacturability, cost, and risk; provide recommendations to optimize performance and total cost of ownership.
Lead cross-functional design reviews with electrical, thermal, manufacturing, quality, and supply chain teams to ensure full system integration and compliance with product specifications and applicable plumbing and hydronic codes.
Optimize rack manifold design and manufacturing processes, including machining, welding, surface finishing, connection interfaces, venting and draining strategies, and flow path optimization to enhance performance and manufacturability.
Drive continuous improvement in manufacturing assembly methods and tooling in collaboration with production teams and equipment vendors to improve quality, scalability, and cost efficiency.
Lead root cause investigations for complex mechanical failures identified during validation or field deployment and implement corrective design improvements.
Provide technical leadership in vendor qualification and management for mechanical components and liquid cooling subsystems.
Identify and mitigate technical risks impacting performance, schedule, or cost, and contribute to R&D initiatives advancing liquid cooling technologies and system innovation.

Bachelor’s degree in Mechanical Engineering, Systems Engineering, or a related engineering discipline from an accredited university.

8 years' experience in mechanical design and integration of mission-critical systems.
~ Proven track record of successful system designs and implementations in a relevant industry
~ Strong understanding of mechanical systems, integration strategy, and system coordination
~ Familiarity with industry standards and regulations related to Energy Storage Systems and Data Center Infrastructure is preferred.
~ Master’s Degree in Mechanical Engineering
~
Remote working/work at home options are available for this role.

Job Title: Principal Mechanical Design Engineer

Job Family: Mechanical Design Engineering

Organization: Data Center Infrastructure Team

Location: Remote* OR Austin, TX

*Requires up to 20% domestic and/or international travel (rare)

How will you make an impact?

We are seeking a highly skilled, technically proficient and detail-oriented Principal Mechanical Engineer with expertise in metal structures, frame design, pipes and fabrication to support the development of power and cooling infrastructure for data centers. This role is critical in designing robust mechanical systems that house and support electrical and thermal management equipment, ensuring structural integrity, manufacturability, and compliance with industry standards.

What will you do?

- Experience designing and integrating hydronic systems including pumps, piping networks, valves, and heat exchangers for data center cooling applications.

- Knowledge of fluid dynamics, pressure drop calculations, and pipe sizing for chilled water and glycol-based systems.

- Understanding of installation constraints, maintenance access, and serviceability in large-scale mechanical infrastructure.

- Design and develop mechanical frames, enclosures, and support structures for data center power and cooling products (UPS systems, battery racks, CRAC units, containment systems, LVS, MVS).

- Perform advanced structural analysis using FEA tools to validate mechanical integrity under static, dynamic, seismic, and thermal loads.

- Analyze load paths, stress concentrations, and fatigue life of structural components to ensure long-term reliability.

- Design metal enclosures with considerations for airflow, thermal containment, EMI shielding, and environmental protection.

- Evaluate and implement new materials, coatings, and fabrication technologies to enhance product performance and reliability.

- Participate in customer engagements and site visits to understand deployment constraints and gather feedback for design improvements.

- Create detailed CAD models and fabrication drawings, including weldments, sheet metal, and machined parts

- Select appropriate materials and fabrication methods to optimize cost, performance, and reliability

- Collaborate with electrical, thermal, and systems engineering teams to integrate mechanical designs with functional components.

- Lead mechanical design reviews and contribute to cross-functional design validation efforts.

- Develop and maintain design documentation including BOMs, specifications, test plans, and engineering change orders (ECOs).

- Drive continuous improvement in mechanical design for manufacturability (DFM), cost reduction, and performance optimization.

- Interface with suppliers and customers to resolve fabrication issues and ensure quality standards are met.

- Support lifecycle management of mechanical components, including obsolescence planning and alternate sourcing.

- Conduct root cause analysis and corrective actions for mechanical failures or field issues.

- Ensure mechanical designs support airflow management, thermal containment, and integration with cooling systems (in-row cooling, rear door heat exchangers).

- Collaborate with compliance and certification teams to ensure mechanical designs meet global regulatory requirements (UL, CE, RoHS, REACH)

- May perform other duties and responsibilities as assigned

How will you get here?

Education:

- Bachelor’s Degree in Mechanical Engineering or related engineering discipline.

Experience:

- 8+ years of experience in mechanical design and fabrication, preferably in data center, industrial, or power systems environment.

- Proficiency in CAD tools (SolidWorks, Creo, Inventor) and FEA software (ANSYS, Abaqus).

- Strong knowledge of metal fabrication processes including welding, sheet metal forming, and machining is a must

- Experience with structural design for heavy equipment or large assemblies, and familiarity with thermal and airflow considerations in enclosure design is required

- Excellent communication and cross-functional collaboration skills

Knowledge, Skills, Abilities:

- Excellent interpersonal and communication skills

- Creative, self-motivated, accountable, and team-oriented

- Able to work independently with minimal oversight

- Proficient in reading, analyzing, and interpreting general business publications, professional journals, technical procedures, and government regulations

- Skilled in writing reports, business correspondence, and procedural guides

- Effective at presenting information and responding to management, clients, and public queries

- Capable of influencing others and sharing best practices

- Comfortable working as part of a global team

- Capable of assessing projects, articulating risks, and developing project milestones

- Familiar with stage-gate processes in project lifecycle management (PLCM)

- Able to mentor less experienced engineers

- Ability to travel both domestically and internationally up to 30%

Preferred Qualifications: 

- Master’s Degree in Mechanical Engineering

- Experience designing mechanical systems for data centers, telecom, or industrial power/cooling products.

- Active Professional Engineer (PE) license.

- Knowledge of regulatory and safety standards applicable to data center infrastructure.

- Hands-on experience with prototype fabrication and testing; Experience working with global suppliers and contract manufacturers a plus
Remote working/work at home options are available for this role.

The Industrial Engineer supports manufacturing sustainment operations and new product introductions (NPI) for advanced AI/ML and GPU-accelerated server rack platforms. This role is responsible for optimizing production systems to ensure safety, quality, delivery, cost, and scalability objectives are achieved. The position plays a critical role in production ramp readiness, time standard integrity, capacity modeling, layout optimization, and continuous improvement execution within a high-complexity, fast-paced manufacturing environment.

This position is part of the core team launching new manufacturing technologies at our production facility in Florence, KY. It is a fully on-site role, and relocation assistance may be available for candidates who reside more than 50 miles from the Florence area. The ideal candidate has experience supporting the assembly, testing, and integration of complex electronic hardware systems in a manufacturing environment. This is a junior individual contributor position requiring strong cross-functional collaboration in a high-constraint environment to deliver data-driven process improvements.

SHIFT / SCHEDULE :
The Industrial Engineer is required to work 12-hour shifts, on the following schedule:
Shift 404 : (nights) 6:00PM to 6:00AM, Thursday through Saturday every week and Wednesday through Saturday every other week.
36 hours on week 1 (Thursday - Saturday), 48 hours on week 2 (Wednesday - Saturday), 36 hours week 3, etc.
Occasional overtime may be required, depending on business needs.

Partner cross-functionally with Manufacturing Engineering, Quality, Operations, Supply Chain, and Test Engineering to accelerate new product introductions (NPI) and ensure manufacturing readiness.
Develop and validate time standards, labor models, and capacity plans to support production ramp and long-term scalability.
Define workstation requirements, material flow strategies, tooling needs, and shop-floor system configuration (MES/iFactory).
Support NPI builds, identify bottlenecks, and implement structured corrective actions to improve yield and throughput.
Conduct time studies and work measurement analysis; maintain accurate and sustainable time standard databases.
Lead layout improvements, line balancing efforts, and material handling optimization initiatives.
Develop and maintain standard work, process documentation, and visual management systems.
Perform root cause analysis and drive sustainable corrective actions using Lean methodologies (DMAIC, 5-Why, Kaizen).
Ensure data alignment and configuration accuracy across ERP and manufacturing execution systems (SAP, MES, iFactory).
Build analytical tools (Excel models, dashboards, and simulations) to support data-driven decision-making.
Assist in scoping capital equipment needs, developing business justifications, and supporting vendor engagement through implementation.
Support layout modeling and infrastructure planning for new production lines or facility expansions.

Bachelor’s degree in Industrial, Mechanical, Electrical Engineering, or a related engineering discipline.
~1-2 years of Industrial Engineering experience in a manufacturing environment.
~ Experience performing time studies, capacity modeling, and production flow optimization.
~ Strong analytical and problem-solving skills with proficiency in Microsoft Excel.
~ Experience working in cross-functional production environments.
~ Experience supporting the assembly, testing, and integration of complex electronic hardware infrastructure.
Familiarity with MES systems and ERP platforms (SAP preferred).
Experience with manufacturing simulation tools or advanced data modeling.
Lean Six Sigma certification (Green Belt preferred).
AutoCAD or layout modeling experience.

The employee is frequently required to walk and may lift or carry PCs and test equipment weighing up to 50 lbs. Specific vision abilities required include close vision and extended use of computer monitor screens.

The primary workstation is located on the manufacturing floor, with some time spent in an office setting. Required PPE in the manufacturing area includes: composite-toe shoes, hearing protection, protective eyewear, and an ESD vest. The manufacturing floor is modern, climate-controlled, and well-lit.

Medical, Dental, Prescription Drug, and Vision Insurance with HRA and HSA options
~Employee Stock Purchase Plan
~ Tuition Reimbursement
~ Life, AD&D, and Disability Insurance
~ Employee Assistance Program
~ Community Volunteer Opportunities

Job Summary

The SMT Process Engineer IV is a senior-level technical expert responsible for optimizing and maintaining surface mount technology (SMT) processes to ensure high-quality, efficient, and cost-effective electronic assembly. This role involves advanced troubleshooting, process development, and continuous improvement initiatives across multiple SMT lines, often acting as a lead or mentor within the engineering team. Job Responsibilities

• Lead the development, implementation, and optimization of complex SMT processes, including stencil printing, pick-and-place FUJI, reflow soldering, and automated optical inspection (AOI).

• Conduct advanced root cause analysis and implement corrective actions for SMT process defects (e.g., shorts, opens, voids, component placement issues) using statistical process control (SPC) and other analytical tools.

• Design and execute experiments (DOE) to improve SMT process robustness, yield, and throughput, focusing on new product introduction (NPI) and existing product enhancements.

• Collaborate with design engineering, manufacturing, and quality teams to ensure manufacturability (DFM) and resolve complex technical issues related to SMT assembly.

• Develop and maintain comprehensive process documentation, work instructions, and training materials for SMT operators and technicians.

• Evaluate and recommend new SMT equipment, materials, and technologies to enhance capabilities and improve manufacturing efficiency.

• Provide technical mentorship and guidance to junior engineers and manufacturing personnel on SMT best practices and problem-solving techniques.

• Drive continuous improvement projects using Lean manufacturing and Six Sigma methodologies to reduce waste and increase productivity within SMT operations.

• Monitor key performance indicators (KPIs) for SMT processes and present findings and recommendations to management.

• Ensure compliance with all relevant industry standards, safety regulations, and quality management systems (e.g., ISO, IPC).

Job Qualifications

• Bachelor's degree in Electrical Engineering, Mechanical Engineering, Materials Science, or a related technical field. Master's degree preferred.

• 8+ years of progressive experience in SMT process engineering within a high-volume electronics manufacturing environment.

• Expert-level knowledge of SMT equipment (e.g., printers, pick-and-place machines, reflow ovens, AOI/SPI) from various manufacturers (e.g., Fuji, Universal, Koh Young, Agilent).

• Deep understanding of IPC-A-610 and J-STD-001 standards.

• Proficiency in statistical process control (SPC), design of experiments (DOE), and advanced problem-solving methodologies (e.g., 8D, Six Sigma).

• Strong analytical skills with the ability to interpret complex data and make data-driven decisions.

• Demonstrated ability to lead technical projects and drive process improvements.

• Excellent communication, interpersonal, and presentation skills, with the ability to effectively collaborate with cross-functional teams and mentor others.

• Experience with CAD/CAM software for SMT programming and DFM analysis is a plus.

• Ability to work effectively in a fast-paced, dynamic manufacturing environment.

Principal Mechanical Integration Engineer
Mechanical Design Engineering 
Data Center Infrastructure Team
Location: Remote* OR Austin, TX
*Requires up to 20% domestic and/or international travel (rare)

The Principal Mechanical Design Engineer (Data Center Infrastructure) is a technical leader responsible for the architecture, integration, and validation of advanced mechanical systems supporting hyperscale data center environments. This role is responsible for defining system performance requirements, developing technical specifications, selection and integration of critical components, and leading mechanical design from concept through production release. Responsibilities include wetted material selection, thermal and structural analysis, fastening strategies, component layout, and design for manufacturability. Partners cross-functionally to deliver reliable, scalable, and cost-effective Data Center Infrastructure solutions while advancing innovation in liquid cooling performance.

Lead the end-to-end mechanical design and engineering of hyperscale Data Center Infrastructure (DCI) systems, including liquid-cooled rack assemblies, CDUs, manifolds, enclosures, structural frames, and associated hydronic piping systems.
Serve as the technical authority for single-phase and two-phase liquid cooling architectures, including primary and secondary loop design, in-rack distribution, and system integration within hyperscale data center environments.
Define and validate operational performance requirements for liquid-cooled infrastructure, including pressure ratings, hydrostatic limits, temperature ranges, flow rates and uniformity, thermal expansion, durability, and serviceability.
Design, analyze, and validate machined components, welded fabrications, manifolds, and structural systems using advanced engineering principles, including stress analysis, finite element analysis (FEA), flow modeling, and structural load calculations to ensure mechanical integrity and code compliance.
Lead wetted material selection and compatibility analysis for liquid cooling systems, including corrosion mitigation strategies, surface treatments, cleanliness standards, and long-term durability considerations.
Develop and review CAD models and complete technical data packages using CREO, SolidWorks, or equivalent tools; Author and approve technical specifications for piping systems, rack-level cooling infrastructure, and hydronic components, including installation guidelines, maintenance procedures, testing requirements, and compliance with applicable standards (ASME, ISO).
Establish and oversee validation protocols including hydrostatic pressure testing, leak detection and mitigation, flow resistance analysis, and corrosion verification to ensure regulatory compliance and operational reliability.
Evaluate customer design proposals and technical specifications to assess feasibility, manufacturability, cost, and risk; provide recommendations to optimize performance and total cost of ownership.
Lead cross-functional design reviews with electrical, thermal, manufacturing, quality, and supply chain teams to ensure full system integration and compliance with product specifications and applicable plumbing and hydronic codes.
Optimize rack manifold design and manufacturing processes, including machining, welding, surface finishing, connection interfaces, venting and draining strategies, and flow path optimization to enhance performance and manufacturability.
Drive continuous improvement in manufacturing assembly methods and tooling in collaboration with production teams and equipment vendors to improve quality, scalability, and cost efficiency.
Lead root cause investigations for complex mechanical failures identified during validation or field deployment and implement corrective design improvements.
Provide technical leadership in vendor qualification and management for mechanical components and liquid cooling subsystems.
Identify and mitigate technical risks impacting performance, schedule, or cost, and contribute to R&D initiatives advancing liquid cooling technologies and system innovation.

Bachelor’s degree in Mechanical Engineering, Systems Engineering, or a related engineering discipline from an accredited university.

8 years' experience in mechanical design and integration of mission-critical systems.
~ Proven track record of successful system designs and implementations in a relevant industry
~ Strong understanding of mechanical systems, integration strategy, and system coordination
~ Familiarity with industry standards and regulations related to Energy Storage Systems and Data Center Infrastructure is preferred.
~ Master’s Degree in Mechanical Engineering
~

Job Summary
The SMT Engineering Tech will be responsible for supporting the surface mount technology (SMT) production lines, ensuring efficient operation, high-quality output, and continuous improvement through troubleshooting, maintenance, and process optimization.
Job Responsibilities
Perform set-up, operation, and troubleshooting of SMT equipment including pick-and-place machines, reflow ovens, screen printers, and automated optical inspection (AOI) systems.
Monitor SMT production processes to identify and resolve issues related to component placement, solder paste application, and reflow profiles.
Conduct preventative maintenance and calibration on SMT machinery to ensure optimal performance and minimize downtime.
Assist engineers in the development and implementation of new SMT processes, equipment, and materials.
Interpret and analyze SMT process data to identify trends, root causes of defects, and areas for improvement.
Provide technical support to production operators, offering guidance on best practices and troubleshooting techniques.
Participate in continuous improvement initiatives, including lean manufacturing and Six Sigma methodologies, to enhance SMT line efficiency and product quality.
Maintain accurate records of equipment maintenance, process parameters, and production issues.
Adhere to all safety protocols and quality standards within the SMT department.

Job Qualifications
Associate's degree in Electrical Engineering Technology, Electronics, or a related field; or equivalent practical experience.
Minimum of 2-4 years of experience working with SMT production lines and equipment.
Strong understanding of SMT processes, including solder paste deposition, component placement, reflow soldering, and AOI.
Proficiency in operating and troubleshooting various SMT equipment (e.g., Fuji, MyData, Universal, MPM, DEK, Koh Young, Mirtec).
Ability to read and interpret technical drawings, schematics, and process specifications.
Excellent problem-solving skills and a methodical approach to troubleshooting.
Strong communication and interpersonal skills to effectively collaborate with engineers and production teams.
Ability to work independently and as part of a team in a fast-paced manufacturing environment.
Familiarity with IPC standards (e.g., IPC-A-610) is a plus.

Job Summary

The SMT Process Engineer IV is a senior-level technical expert responsible for optimizing and maintaining surface mount technology (SMT) processes to ensure high-quality, efficient, and cost-effective electronic assembly. This role involves advanced troubleshooting, process development, and continuous improvement initiatives across multiple SMT lines, often acting as a lead or mentor within the engineering team. Job Responsibilities

• Lead the development, implementation, and optimization of complex SMT processes, including stencil printing, pick-and-place FUJI, reflow soldering, and automated optical inspection (AOI).

• Conduct advanced root cause analysis and implement corrective actions for SMT process defects (e.g., shorts, opens, voids, component placement issues) using statistical process control (SPC) and other analytical tools.

• Design and execute experiments (DOE) to improve SMT process robustness, yield, and throughput, focusing on new product introduction (NPI) and existing product enhancements.

• Collaborate with design engineering, manufacturing, and quality teams to ensure manufacturability (DFM) and resolve complex technical issues related to SMT assembly.

• Develop and maintain comprehensive process documentation, work instructions, and training materials for SMT operators and technicians.

• Evaluate and recommend new SMT equipment, materials, and technologies to enhance capabilities and improve manufacturing efficiency.

• Provide technical mentorship and guidance to junior engineers and manufacturing personnel on SMT best practices and problem-solving techniques.

• Drive continuous improvement projects using Lean manufacturing and Six Sigma methodologies to reduce waste and increase productivity within SMT operations.

• Monitor key performance indicators (KPIs) for SMT processes and present findings and recommendations to management.

• Ensure compliance with all relevant industry standards, safety regulations, and quality management systems (e.g., ISO, IPC).

Job Qualifications

• Bachelor's degree in Electrical Engineering, Mechanical Engineering, Materials Science, or a related technical field. Master's degree preferred.

• 8+ years of progressive experience in SMT process engineering within a high-volume electronics manufacturing environment.

• Expert-level knowledge of SMT equipment (e.g., printers, pick-and-place machines, reflow ovens, AOI/SPI) from various manufacturers (e.g., Fuji, Universal, Koh Young, Agilent).

• Deep understanding of IPC-A-610 and J-STD-001 standards.

• Proficiency in statistical process control (SPC), design of experiments (DOE), and advanced problem-solving methodologies (e.g., 8D, Six Sigma).

• Strong analytical skills with the ability to interpret complex data and make data-driven decisions.

• Demonstrated ability to lead technical projects and drive process improvements.

• Excellent communication, interpersonal, and presentation skills, with the ability to effectively collaborate with cross-functional teams and mentor others.

• Experience with CAD/CAM software for SMT programming and DFM analysis is a plus.

• Ability to work effectively in a fast-paced, dynamic manufacturing environment.

Job Summary

The SMT Engineering Tech will be responsible for supporting the surface mount technology (SMT) production lines, ensuring efficient operation, high-quality output, and continuous improvement through troubleshooting, maintenance, and process optimization. Job Responsibilities

• Perform set-up, operation, and troubleshooting of SMT equipment including pick-and-place machines, reflow ovens, screen printers, and automated optical inspection (AOI) systems.
• Monitor SMT production processes to identify and resolve issues related to component placement, solder paste application, and reflow profiles.
• Conduct preventative maintenance and calibration on SMT machinery to ensure optimal performance and minimize downtime.
• Assist engineers in the development and implementation of new SMT processes, equipment, and materials.
• Interpret and analyze SMT process data to identify trends, root causes of defects, and areas for improvement.
• Provide technical support to production operators, offering guidance on best practices and troubleshooting techniques.
• Participate in continuous improvement initiatives, including lean manufacturing and Six Sigma methodologies, to enhance SMT line efficiency and product quality.
• Maintain accurate records of equipment maintenance, process parameters, and production issues.
• Adhere to all safety protocols and quality standards within the SMT department.

Job Qualifications

• Associate's degree in Electrical Engineering Technology, Electronics, or a related field; or equivalent practical experience.
• Minimum of 2-4 years of experience working with SMT production lines and equipment.
• Strong understanding of SMT processes, including solder paste deposition, component placement, reflow soldering, and AOI.
• Proficiency in operating and troubleshooting various SMT equipment (e.g., Fuji, MyData, Universal, MPM, DEK, Koh Young, Mirtec).
• Ability to read and interpret technical drawings, schematics, and process specifications.
• Excellent problem-solving skills and a methodical approach to troubleshooting.
• Strong communication and interpersonal skills to effectively collaborate with engineers and production teams.
• Ability to work independently and as part of a team in a fast-paced manufacturing environment.
• Familiarity with IPC standards (e.g., IPC-A-610) is a plus.

Job Summary

The SMT Process Engineer IV is a senior-level technical expert responsible for optimizing and maintaining surface mount technology (SMT) processes to ensure high-quality, efficient, and cost-effective electronic assembly. This role involves advanced troubleshooting, process development, and continuous improvement initiatives across multiple SMT lines, often acting as a lead or mentor within the engineering team. Job Responsibilities

• Lead the development, implementation, and optimization of complex SMT processes, including stencil printing, pick-and-place FUJI, reflow soldering, and automated optical inspection (AOI).

• Conduct advanced root cause analysis and implement corrective actions for SMT process defects (e.g., shorts, opens, voids, component placement issues) using statistical process control (SPC) and other analytical tools.

• Design and execute experiments (DOE) to improve SMT process robustness, yield, and throughput, focusing on new product introduction (NPI) and existing product enhancements.

• Collaborate with design engineering, manufacturing, and quality teams to ensure manufacturability (DFM) and resolve complex technical issues related to SMT assembly.

• Develop and maintain comprehensive process documentation, work instructions, and training materials for SMT operators and technicians.

• Evaluate and recommend new SMT equipment, materials, and technologies to enhance capabilities and improve manufacturing efficiency.

• Provide technical mentorship and guidance to junior engineers and manufacturing personnel on SMT best practices and problem-solving techniques.

• Drive continuous improvement projects using Lean manufacturing and Six Sigma methodologies to reduce waste and increase productivity within SMT operations.

• Monitor key performance indicators (KPIs) for SMT processes and present findings and recommendations to management.

• Ensure compliance with all relevant industry standards, safety regulations, and quality management systems (e.g., ISO, IPC).

Job Qualifications

• Bachelor's degree in Electrical Engineering, Mechanical Engineering, Materials Science, or a related technical field. Master's degree preferred.

• 8+ years of progressive experience in SMT process engineering within a high-volume electronics manufacturing environment.

• Expert-level knowledge of SMT equipment (e.g., printers, pick-and-place machines, reflow ovens, AOI/SPI) from various manufacturers (e.g., Fuji, Universal, Koh Young, Agilent).

• Deep understanding of IPC-A-610 and J-STD-001 standards.

• Proficiency in statistical process control (SPC), design of experiments (DOE), and advanced problem-solving methodologies (e.g., 8D, Six Sigma).

• Strong analytical skills with the ability to interpret complex data and make data-driven decisions.

• Demonstrated ability to lead technical projects and drive process improvements.

• Excellent communication, interpersonal, and presentation skills, with the ability to effectively collaborate with cross-functional teams and mentor others.

• Experience with CAD/CAM software for SMT programming and DFM analysis is a plus.

• Ability to work effectively in a fast-paced, dynamic manufacturing environment.

Job Summary

The SMT Process Engineer IV is a senior-level technical expert responsible for optimizing and maintaining surface mount technology (SMT) processes to ensure high-quality, efficient, and cost-effective electronic assembly. This role involves advanced troubleshooting, process development, and continuous improvement initiatives across multiple SMT lines, often acting as a lead or mentor within the engineering team. Job Responsibilities

• Lead the development, implementation, and optimization of complex SMT processes, including stencil printing, pick-and-place FUJI, reflow soldering, and automated optical inspection (AOI).

• Conduct advanced root cause analysis and implement corrective actions for SMT process defects (e.g., shorts, opens, voids, component placement issues) using statistical process control (SPC) and other analytical tools.

• Design and execute experiments (DOE) to improve SMT process robustness, yield, and throughput, focusing on new product introduction (NPI) and existing product enhancements.

• Collaborate with design engineering, manufacturing, and quality teams to ensure manufacturability (DFM) and resolve complex technical issues related to SMT assembly.

• Develop and maintain comprehensive process documentation, work instructions, and training materials for SMT operators and technicians.

• Evaluate and recommend new SMT equipment, materials, and technologies to enhance capabilities and improve manufacturing efficiency.

• Provide technical mentorship and guidance to junior engineers and manufacturing personnel on SMT best practices and problem-solving techniques.

• Drive continuous improvement projects using Lean manufacturing and Six Sigma methodologies to reduce waste and increase productivity within SMT operations.

• Monitor key performance indicators (KPIs) for SMT processes and present findings and recommendations to management.

• Ensure compliance with all relevant industry standards, safety regulations, and quality management systems (e.g., ISO, IPC).

Job Qualifications

• Bachelor's degree in Electrical Engineering, Mechanical Engineering, Materials Science, or a related technical field. Master's degree preferred.

• 8+ years of progressive experience in SMT process engineering within a high-volume electronics manufacturing environment.

• Expert-level knowledge of SMT equipment (e.g., printers, pick-and-place machines, reflow ovens, AOI/SPI) from various manufacturers (e.g., Fuji, Universal, Koh Young, Agilent).

• Deep understanding of IPC-A-610 and J-STD-001 standards.

• Proficiency in statistical process control (SPC), design of experiments (DOE), and advanced problem-solving methodologies (e.g., 8D, Six Sigma).

• Strong analytical skills with the ability to interpret complex data and make data-driven decisions.

• Demonstrated ability to lead technical projects and drive process improvements.

• Excellent communication, interpersonal, and presentation skills, with the ability to effectively collaborate with cross-functional teams and mentor others.

• Experience with CAD/CAM software for SMT programming and DFM analysis is a plus.

• Ability to work effectively in a fast-paced, dynamic manufacturing environment.

Job Summary

The SMT Engineering Technician Night Shift will support the manufacturing process by maintaining Surface Mount Technology (SMT) equipment, troubleshooting production issues, and ensuring optimal machine performance during night operations to meet production targets. Job Responsibilities

• Perform preventative maintenance and calibration on SMT equipment (e.g., screen printers, pick-and-place machines, reflow ovens, AOI) according to established schedules and procedures.
• Diagnose and repair complex SMT equipment malfunctions, including mechanical, electrical, and software issues, in a timely manner to minimize downtime.
• Assist engineers in process optimization, equipment setup, and the development of new manufacturing processes and procedures.
• Monitor SMT line performance, identify potential issues, and implement corrective actions to improve efficiency, quality, and yield.
• Provide technical support to production operators, offering guidance and training on SMT equipment operation and basic troubleshooting.
• Document all maintenance activities, repairs, and process changes accurately and thoroughly.
• Participate in root cause analysis for production defects and implement effective solutions.
• Adhere to all safety regulations and company policies, maintaining a clean and organized work environment.
• Collaborate effectively with cross-functional teams, including production, quality, and engineering, to resolve issues and achieve production goals.
• Flexibility to work night shifts, including weekends and holidays as required.

Job Qualifications

• Associate's degree in Electronics, Mechatronics, or a related technical field, or equivalent practical experience.
• Minimum of 3-5 years of experience as an SMT Technician or similar role in a high-volume manufacturing environment.
• Strong understanding of SMT processes, equipment operation, and common defects.
• Proficiency in troubleshooting and repairing complex SMT machinery, including electrical, mechanical, and pneumatic systems.
• Ability to read and interpret schematics, technical drawings, and equipment manuals.
• Experience with various SMT equipment manufacturers (e.g., Fuji, Panasonic, Mycronic, Juki, DEK, MPM, BTU, Koh Young, Mirtec) is highly desirable.
• Familiarity with IPC standards and quality control principles.
• Excellent problem-solving skills and attention to detail.
• Strong communication and interpersonal skills, with the ability to work independently and as part of a team.
• Proficient in using standard hand tools, diagnostic equipment, and computers.
• Ability to lift up to 35 lbs and stand for extended periods.

Job Summary

The SMT Engineering Technician Night Shift will support the manufacturing process by maintaining Surface Mount Technology (SMT) equipment, troubleshooting production issues, and ensuring optimal machine performance during night operations to meet production targets. Job Responsibilities

• Perform preventative maintenance and calibration on SMT equipment (e.g., screen printers, pick-and-place machines, reflow ovens, AOI) according to established schedules and procedures.
• Diagnose and repair complex SMT equipment malfunctions, including mechanical, electrical, and software issues, in a timely manner to minimize downtime.
• Assist engineers in process optimization, equipment setup, and the development of new manufacturing processes and procedures.
• Monitor SMT line performance, identify potential issues, and implement corrective actions to improve efficiency, quality, and yield.
• Provide technical support to production operators, offering guidance and training on SMT equipment operation and basic troubleshooting.
• Document all maintenance activities, repairs, and process changes accurately and thoroughly.
• Participate in root cause analysis for production defects and implement effective solutions.
• Adhere to all safety regulations and company policies, maintaining a clean and organized work environment.
• Collaborate effectively with cross-functional teams, including production, quality, and engineering, to resolve issues and achieve production goals.
• Flexibility to work night shifts, including weekends and holidays as required.

Job Qualifications

• Associate's degree in Electronics, Mechatronics, or a related technical field, or equivalent practical experience.
• Minimum of 3-5 years of experience as an SMT Technician or similar role in a high-volume manufacturing environment.
• Strong understanding of SMT processes, equipment operation, and common defects.
• Proficiency in troubleshooting and repairing complex SMT machinery, including electrical, mechanical, and pneumatic systems.
• Ability to read and interpret schematics, technical drawings, and equipment manuals.
• Experience with various SMT equipment manufacturers (e.g., Fuji, Panasonic, Mycronic, Juki, DEK, MPM, BTU, Koh Young, Mirtec) is highly desirable.
• Familiarity with IPC standards and quality control principles.
• Excellent problem-solving skills and attention to detail.
• Strong communication and interpersonal skills, with the ability to work independently and as part of a team.
• Proficient in using standard hand tools, diagnostic equipment, and computers.
• Ability to lift up to 35 lbs and stand for extended periods.

Principal Mechanical Integration Engineer
Mechanical Design Engineering 
Data Center Infrastructure Team
Location: Remote* OR Austin, TX
*Requires up to 20% domestic and/or international travel (rare)

The Principal Mechanical Design Engineer (Data Center Infrastructure) is a technical leader responsible for the architecture, integration, and validation of advanced mechanical systems supporting hyperscale data center environments. This role is responsible for defining system performance requirements, developing technical specifications, selection and integration of critical components, and leading mechanical design from concept through production release. Responsibilities include wetted material selection, thermal and structural analysis, fastening strategies, component layout, and design for manufacturability. Partners cross-functionally to deliver reliable, scalable, and cost-effective Data Center Infrastructure solutions while advancing innovation in liquid cooling performance.

Lead the end-to-end mechanical design and engineering of hyperscale Data Center Infrastructure (DCI) systems, including liquid-cooled rack assemblies, CDUs, manifolds, enclosures, structural frames, and associated hydronic piping systems.
Serve as the technical authority for single-phase and two-phase liquid cooling architectures, including primary and secondary loop design, in-rack distribution, and system integration within hyperscale data center environments.
Define and validate operational performance requirements for liquid-cooled infrastructure, including pressure ratings, hydrostatic limits, temperature ranges, flow rates and uniformity, thermal expansion, durability, and serviceability.
Design, analyze, and validate machined components, welded fabrications, manifolds, and structural systems using advanced engineering principles, including stress analysis, finite element analysis (FEA), flow modeling, and structural load calculations to ensure mechanical integrity and code compliance.
Lead wetted material selection and compatibility analysis for liquid cooling systems, including corrosion mitigation strategies, surface treatments, cleanliness standards, and long-term durability considerations.
Develop and review CAD models and complete technical data packages using CREO, SolidWorks, or equivalent tools; Author and approve technical specifications for piping systems, rack-level cooling infrastructure, and hydronic components, including installation guidelines, maintenance procedures, testing requirements, and compliance with applicable standards (ASME, ISO).
Establish and oversee validation protocols including hydrostatic pressure testing, leak detection and mitigation, flow resistance analysis, and corrosion verification to ensure regulatory compliance and operational reliability.
Evaluate customer design proposals and technical specifications to assess feasibility, manufacturability, cost, and risk; provide recommendations to optimize performance and total cost of ownership.
Lead cross-functional design reviews with electrical, thermal, manufacturing, quality, and supply chain teams to ensure full system integration and compliance with product specifications and applicable plumbing and hydronic codes.
Optimize rack manifold design and manufacturing processes, including machining, welding, surface finishing, connection interfaces, venting and draining strategies, and flow path optimization to enhance performance and manufacturability.
Drive continuous improvement in manufacturing assembly methods and tooling in collaboration with production teams and equipment vendors to improve quality, scalability, and cost efficiency.
Lead root cause investigations for complex mechanical failures identified during validation or field deployment and implement corrective design improvements.
Provide technical leadership in vendor qualification and management for mechanical components and liquid cooling subsystems.
Identify and mitigate technical risks impacting performance, schedule, or cost, and contribute to R&D initiatives advancing liquid cooling technologies and system innovation.

Bachelor’s degree in Mechanical Engineering, Systems Engineering, or a related engineering discipline from an accredited university.

8 years' experience in mechanical design and integration of mission-critical systems.
~ Proven track record of successful system designs and implementations in a relevant industry
~ Strong understanding of mechanical systems, integration strategy, and system coordination
~ Familiarity with industry standards and regulations related to Energy Storage Systems and Data Center Infrastructure is preferred.
~ Master’s Degree in Mechanical Engineering
~
Remote working/work at home options are available for this role.