Lead Engineer - Mechanical

Eaton; Pune District; On-site; INR 1,800,000 - 2,800,000; Full time

Job summary

Eaton Corporation is seeking a Lead Mechanical Engineer in Pune, India to drive the design, validation, and productization of next‑generation critical power and energy storage solutions for data centers.

You will own mechanical design from concept to production, mentor engineers, and coordinate with electrical, thermal, and manufacturing teams to push DFM and cost-out initiatives.

Qualifications

• Bachelor’s degree in Mechanical Engineering from an accredited institution; 8+ years post-qualification experience.
• Master’s degree in Mechanical Engineering preferred.
• Advanced training in thermal, structural analysis, Six Sigma or DFx is a plus.

Responsibilities

• Lead mechanical architecture, design, validation and launch of data-center infrastructure products.
• Translate system requirements into mechanical specs and detailed designs.
• Balance thermal, structural, electrical clearances, manufacturability, and cost in packaging.
• Provide mechanical leadership across design reviews and cross-functional teams.
• Apply DFMEA and DFx, including manufacturing and serviceability considerations.
• Support product verification, reliability testing and root-cause investigations.
• Collaborate with suppliers and manufacturing for tooling, cost optimization and readiness.
• Ensure compliance with IEC/UL safety requirements and global certifications.

Skills

Mechanical packaging

3D CAD modelling

Geometric Dimensioning & Tolerancing

Sheet-metal design

Thermal management

Structural analysis

DFMEA & design reviews

Design for Manufacturing

Electromechanical integration

Product verification & testing

Education

Bachelor's degree in Mechanical Engineering

Master's degree in Mechanical Engineering

Advanced training in thermal/structural analysis or DFx

Job description

What You’ll Do

The Lead Mechanical Engineer will lead the mechanical design, development, validation, and productization of next-generation critical power and energy storage products for data centers and other mission-critical applications.

The Lead Mechanical Engineer will lead the mechanical design, development, validation, and productization of next-generation critical power and energy storage products for data centers and other mission-critical applications.

The role will provide mechanical technical leadership and design ownership from concept through production launch, ensuring products meet requirements for safety, quality, reliability, performance, manufacturability, serviceability, cost, and schedule.

The individual will collaborate with global cross-functional teams across systems, electrical, power electronics, thermal, manufacturing, sourcing, quality, reliability, service, and certification to deliver robust and scalable product solutions.

• Lead the mechanical architecture, design, development, validation, and launch of critical power and data-center infrastructure products.
• Translate system and customer requirements into mechanical requirements, architecture, specifications, and detailed designs.
• Drive product packaging and system layout while balancing thermal performance, structural integrity, electrical clearances, manufacturability, serviceability, reliability, and cost.
• Lead mechanical development of sheet-metal enclosures, structural frames, busbar integration, battery packaging, cooling systems, wiring/harness routing, and electromechanical assemblies.
• Perform and guide 3D CAD design, engineering calculations, tolerance analysis, structural and thermal analysis, prototyping, and product testing.
• Serve as the mechanical technical lead/design authority, leading design reviews and driving technical trade-off decisions across mechanical, electrical, thermal, manufacturing, and reliability domains.
• Apply DFMEA and DFx methodologies, including design for manufacturing, assembly, serviceability, reliability, cost, and testability.
• Lead mechanical design activities through prototype/EVT, DVT, certification, production readiness, and product launch.
• Support verification and validation, reliability testing, failure analysis, root-cause investigation, and corrective actions.
• Partner with suppliers, manufacturing, sourcing, and quality teams on design feasibility, tooling, prototype development, cost optimization, and manufacturing readiness.
• Support product compliance and certification activities, including applicable IEC/UL and global safety requirements.
• Drive design-to-cost, modularization, standardization, platform reuse, and value-engineering initiatives.
• Provide technical mentoring and guidance to mechanical engineers and designers and strengthen engineering best practices and design standards.
• Drive continuous improvement in engineering processes, tools, simulation methods, design reviews, documentation, and test methodologies.

Qualifications

Bachelor’s degree in Mechanical Engineering or related engineering discipline from an accredited institution.

Master’s degree in Mechanical Engineering or a related discipline is preferred.

Advanced technical training/certification in areas such as thermal engineering, structural analysis, Six Sigma, DFx, or product development is an advantage.

Relevant Experience

M.Tech./M.E. with 8+ years of experience, or

B.Tech./B.E. with 10+ years of experience.

Skills

The candidate should demonstrate strong knowledge and practical experience in:

• Mechanical product architecture and electromechanical packaging
• 3D CAD modelling and development of 2D production drawings and assembly documentation
• Geometric Dimensioning &Tolerancing, tolerance analysis, tolerance stack-up, and design documentation
• Sheet-metal design, structural frames, enclosures, brackets, and mechanical assemblies
• Busbar mechanical integration, cable/wiring routing, insulation interfaces, and electrical clearances
• Thermal management, including airflow, heat transfer, forced-air cooling, component cooling, and thermal interface design
• Structural and mechanical analysis, including stress, vibration, shock, loading, and structural integrity
• Engineering simulation and correlation of analysis with physical test results
• Materials selection and manufacturing processes including sheet metal, machining, plastics, fastening, joining, and surface finishes
• DFMEA, design reviews, failure analysis, root-cause analysis, and corrective-action methodologies
• DFM, DFA, Design for Serviceability, Design for Reliability, Design-to-Cost, and Value Engineering
• Mechanical integration of Li-ion battery/energy storage systems
• Product verification and validation methodologies
• Prototype development and engineering build support
• Manufacturing-process and production-readiness considerations
• Supplier technical evaluation and design-for-manufacturing reviews
• Product safety and regulatory requirements, including experience supporting IEC/ UL certification
• Product lifecycle and configuration management practices
• Familiarity with data-center power architecture and infrastructure is strongly preferred.

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• Technical Leadership: Ability to act as the mechanical technical authority, lead design decisions, resolve technical issues, and provide direction to engineers and designers.
• Systems Thinking: Understands interactions between mechanical, electrical, thermal, controls, manufacturing, reliability, safety, and service requirements.
• Problem Solving: Applies engineering fundamentals, data, simulation, testing, and structured methodologies to solve complex product-development problems.
• Decision Quality: Makes timely, data-driven technical decisions while effectively balancing performance, risk, cost, quality, and schedule.
• Ownership & Drive for Results: Demonstrates strong accountability for technical deliverables and drives issues to closure throughout the product-development lifecycle.
• Collaboration & Influence: Works effectively with global engineering teams, manufacturing, quality, sourcing, suppliers, certification teams, and other stakeholders.
• Communication: Clearly communicates technical concepts, design decisions, risks, trade-offs, recommendations, and project status to both technical and leadership stakeholders.
• Mentoring & Knowledge Sharing: Develops engineers and designers through coaching, technical reviews, and sharing of engineering best practices.
• Customer & Quality Focus: Maintains a strong understanding of customer needs and ensures designs meet expectations for safety, quality, reliability, serviceability, and performance.
• Innovation & Continuous Improvement: Identifies opportunities for design reuse, modularization, cost optimization, process improvement, and faster product development.
• Adaptability: Comfortable operating in a fast-paced, global product-development environment with evolving requirements and priorities.