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Applied Materials

Builds equipment for chip and display factories

Advanced Packaging Technology & Integration Leader

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

About the Job

Requirements

  • An advanced degree in Materials Science, Chemical Engineering, Electrical Engineering, Mechanical Engineering, Applied Physics, or a closely related discipline is preferred, or equivalent demonstrated semiconductor technology-development expertise.
  • Demonstrated experience developing semiconductor technologies or integration schemes from early concept through experimental validation.
  • Deep understanding of semiconductor process integration.
  • Strong expertise in several areas, with broad understanding across the remainder: hybrid bonding; through-silicon-via technology; 2.5D/3D integration; interposers; bridge die; chiplet integration; thermal-management materials; thin-wafer processing; wafer/die bonding; advanced metallization; chemical mechanical planarization and surface preparation; mechanical stress and wafer warpage; semiconductor/package reliability.
  • Ability to reason from fundamental physics and materials behavior when established solutions are insufficient.
  • Demonstrated ability to define experiments that distinguish between competing physical mechanisms and accelerate technical learning.
  • Strong record of leading complex, multidisciplinary semiconductor technology-development programs.
  • Demonstrated ability to mentor technical teams and influence organizations beyond direct reporting relationships.
  • Ability to communicate effectively, in writing and verbally, from detailed engineering reviews through executive-level technology strategy.

Responsibilities

  • Develop differentiated semiconductor packaging technologies from first principles, translating fundamental understanding of materials, interfaces, mechanics, thermals, electrical performance, and process physics into practical technology solutions.
  • Identify critical technology limitations in future AI/HPC, memory, and heterogeneous-integration architectures and develop new approaches to overcome them.
  • Convert early concepts into experimentally testable structures, integration flows, and technology demonstrations.
  • Establish technology roadmaps connecting future device and package requirements to new materials, processes, equipment capabilities, and integration schemes.
  • Evaluate competing technical approaches and make recommendations based on fundamental engineering trade-offs.
  • Provide technical leadership across wafer-to-wafer and die-to-wafer hybrid bonding; Cu-Cu and dielectric bonding interfaces; bond-pad scaling, planarity, surface preparation, overlay, and alignment; TSV formation and integration, including via etch, liner/barrier/seed, fill, reveal, stress, and wafer-thickness considerations; 2.5D and 3D integration; silicon and alternative interposers; bridge-die architectures and integration; chiplets and heterogeneous integration; advanced redistribution and high-density interconnects; thermal materials and thermal-management integration; backside and embedded thermal-management concepts; and warpage, stress, thermal-mechanical reliability, and interface engineering.
  • Develop complete process-integration strategies rather than isolated unit processes.
  • Understand interactions among deposition, etch, chemical mechanical planarization, cleans, bonding, lithography, metallization, wafer thinning, and packaging operations.
  • Define integration experiments and learning cycles that identify root causes and fundamental process limitations.
  • Work across process modules to understand trade-offs involving thermal budget, contamination, stress, topology, alignment, electrical performance, yield, and reliability.
  • Drive technology from concept through proof of principle, integrated demonstration, and manufacturable solution.
  • Lead multidisciplinary teams of process engineers, integration engineers, materials scientists, modeling engineers, equipment engineers, and external collaborators.
  • Establish technical direction while giving teams sufficient freedom to explore unconventional solutions.
  • Mentor senior technical staff and develop future technical leaders.
  • Create an environment where hypotheses are challenged through physics, modeling, data, and experimentation.
  • Lead technical reviews and articulate complex technical issues to engineering teams and senior executives.
  • Engage with leading logic, memory, foundry, OSAT, and AI/HPC customers to understand future integration challenges.
  • Translate customer architecture and scaling requirements into technology-development programs.
  • Collaborate with universities, research organizations, material suppliers, equipment partners, and ecosystem companies where appropriate.
  • Represent the organization as a technical authority in advanced packaging and heterogeneous integration.

Desired Qualifications

  • Experience developing technology for AI/HPC, HBM, chiplets, logic-memory integration, or other high-performance heterogeneous systems.
  • Experience working across the semiconductor ecosystem, including device manufacturers, foundries, OSATs, equipment companies, material suppliers, or research organizations.
  • Experience translating future device/package architectures into semiconductor process and equipment requirements.
  • Track record of technical innovation demonstrated through patents, publications, technology transfers, or successful product/process introductions.
  • Strong understanding of the interaction between electrical performance, power delivery, thermal management, mechanical integrity, manufacturability, cost, and yield.
  • Experience moving technology across the transition from pathfinding/R&D into product development or manufacturing.

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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