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Applied Materials

Builds equipment for chip and display factories

Mechanical Design Engineer 4 - ESC

Design EngineeringConfirmed live in the last 24 hours
Full-timeSanta Clara, CA, USA

About the Job

Requirements

  • A bachelor's degree in Mechanical Engineering or a closely related engineering discipline is required.
  • 7–12 years of relevant mechanical design experience, including ownership of complex hardware from concept through qualification and release.
  • Proficiency in 3D computer-aided design and production drawing practices, including geometric dimensioning and tolerancing, tolerance analysis, material and finish specifications, and configuration control.
  • Hands-on experience with semiconductor equipment, high-vacuum systems, precision thermal hardware, or similarly complex capital equipment.
  • Working knowledge of heat transfer, fluid flow, structural mechanics, thermal expansion, contact interfaces, sealing, and design for manufacturability and assembly.
  • Ability to create product requirements, verification plans, engineering reports, and clear design-review presentations.
  • Demonstrated success troubleshooting complex multidisciplinary hardware with limited supervision and leading root-cause and corrective-action efforts.
  • Ability to work effectively with global suppliers and cross-functional teams; travel is required.

Responsibilities

  • Lead concept-through-release design of electrostatic chuck and pedestal assemblies, including ceramic puck, aluminum base, cooling channels, backside-gas distribution, seal bands, lift-pin features, radio-frequency/direct-current feed interfaces, insulators, cables, and service interfaces.
  • Perform or direct tolerance analysis, thermal calculations, structural and stress assessment, heat-transfer analysis, and design trade studies; use finite element analysis and computational fluid dynamics to evaluate thermal uniformity, pressure drop, deformation, interface stress, and reliability margin.
  • Partner with electrical, radio-frequency, process, systems, and safety engineers to manage high-voltage isolation, radio-frequency current paths, grounding, creepage and clearance, filter and cable interfaces, backside ignition risk, and parasitic plasma risk.
  • Select and specify ceramics, metals, coatings, adhesives and bond layers, O-rings, insulators, and surface finishes for vacuum, plasma, radio-frequency, thermal cycling, low outgassing, chemical compatibility, and particle-control requirements.
  • Identify and mitigate failure modes including ceramic cracking, bond delamination, coefficient-of-thermal-expansion mismatch stress, helium leakage, minimum-contact-area and mesa wear, high leakage current, corrosion, backside ignition, residual charge, and chucking/de-chucking instability.
  • Define requirements and test plans; design fixtures; coordinate vacuum-integrity, chucking-force, thermal-uniformity, leakage-current, dielectric, lift-pin cycling, warped-substrate, radio-frequency, and life-cycle testing; analyze data and issue engineering reports.
  • Lead technical engagement with electrostatic chuck, ceramic, coating, bonding, machining, and cable suppliers; review supplier capability, drawings, process controls, inspection methods, failure analysis, and corrective actions.
  • Create and review product specifications, 3D models, 2D drawings, geometric dimensioning and tolerancing, tolerance stacks, bills of materials, test reports, failure mode and effects analyses, design-review packages, and change documentation using disciplined product-development processes.
  • Technically lead complex projects with moderate resource, schedule, and risk requirements; communicate trade-offs, drive decisions, and coordinate actions across globally distributed teams.
  • Interface with internal and external customers on complex electrostatic-chuck-related issues, lead root-cause investigations, and convert field learning into robust design improvements and reusable engineering standards.
  • Lead functional teams or technical projects of moderate complexity and influence decisions without relying on formal authority.
  • Interpret internal and external technical challenges and recommend best practices that improve product performance, reliability, manufacturability, cost, and serviceability.
  • Lead others in solving complex, ambiguous problems using analytical judgment, first-principles reasoning, structured experiments, and evidence-based trade-offs.
  • Establish approaches that may be reused across programs and directly affect customer, operational, and product objectives.
  • Explain difficult concepts clearly, constructively challenge assumptions, and negotiate alignment among engineering, supplier, and customer stakeholders.

Desired Qualifications

  • Direct experience designing electrostatic chucks, radio-frequency-biased pedestals, cathodes, or substrate temperature-control assemblies.
  • Knowledge of Coulombic and Johnsen-Rahbek chucking principles, ceramic dielectric behavior, high-voltage leakage, residual-charge management, and chucking/de-chucking controls.
  • Experience with aluminum oxide or aluminum nitride ceramics, aluminum baseplates, brazed or bonded ceramic-to-metal structures, plasma-spray coatings, low-outgassing adhesives, and vacuum-compatible elastomers.
  • Experience designing backside-gas zones, coolant circuits, lift-pin systems, minimum-contact-area features, seal bands, radio-frequency feed structures, high-voltage connectors, and associated test fixtures.
  • Experience with ANSYS or equivalent finite element analysis and computational fluid dynamics tools, design of experiments methods, failure mode, effects, and criticality analysis, reliability testing, supplier qualification, and failure analysis.
  • Familiarity with NX and Teamcenter, phase-gate and product-development processes, engineering change control, and semiconductor equipment safety requirements.
  • Experience with large or warped substrates, panel-level processing, advanced packaging, etch, physical vapor deposition, chemical vapor deposition, or related plasma-processing applications.

About the Company

Applied Materials

Builds equipment for chip and display factories

Applied Materials designs and builds precision machines that chipmakers and display manufacturers use to form, shape and inspect thin layers of material. Its platforms handle steps such as depositing films and removing unwanted material, helping chipmakers create transistors and wiring at atomic scale. Customers include makers of logic chips and memory, as well as manufacturers of advanced displays. The company earns money from equipment sales, replacement parts and services, and factory software that schedules production and monitors manufacturing processes. Applied Materials was founded in 1967 and is headquartered in Santa Clara, California.

Company size
10,001+
Company stage
IPO
Headquarters
Santa Clara, CA
Founded
1967

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