Reliability Lab Shock and Vibration Testing Engineer

Intel•Chandler, AZ

1d•$115,110 - $219,550•Onsite

About The Position

The Stress Test and Reliability Laboratory organization is looking for a dynamic, hands-on engineer to join their environmental stress tool engineering team in Chandler, AZ. The lab engineering team develops and maintains a fleet of equipment which is used to evaluate Intel's silicon, package, and assembly technologies under simulated field use including heat, humidity, temperature change, and dynamic stresses such as shock and vibration. This role will focus on supporting our dynamics stress capability. In this role, you will be responsible for developing, executing, and analyzing mechanical reliability and environmental stress testing programs for semiconductor devices, boards, and assemblies. The role requires expertise in shock, vibration, and dynamic mechanical loading methodologies with a strong emphasis on industry-standard test requirements and a deep knowledge of the physics of failure.

Requirements

BS with 4+ years of experience in shock and vibration stress testing/methods -OR- MS with 1+ years of experience in shock and vibration stress testing/methods - OR- PhD with 6 months+ of experience in shock and vibration stress testing/methods
Hands-on experience conducting shock and vibration testing using electrodynamic shakers and mechanical shock equipment.
Working knowledge of JEDEC and/or IPC standards related to board-level reliability and mechanical stress testing.
Experience developing test plans, procedures, and qualification reports.
Proficiency with data acquisition systems, accelerometers, strain gauges, and vibration control software.
Experience analyzing vibration and shock response data and interpreting failure mechanisms.
Understanding of finite element analysis (FEA) results and correlation to physical testing.

Nice To Haves

Deep expertise with JEDEC standards such as JESD22-B103, JESD22-B110, JESD22-B111, and other relevant mechanical reliability requirements.
Experience interpreting and applying IPC standards including IPC-9703 and related solder joint reliability specifications.
Familiarity with military, aerospace, or transportation standards such as MIL-STD-810, ASTM, and IEC environmental test methods
Advanced knowledge of vibration analysis, modal analysis, frequency response functions (FRFs), and resonance characterization.
Proficiency with FEA tools such as Comsol Multiphysics, ANSYS, Abaqus, or Nastran.
Experience with standard and high-speed data acquisition systems (including DMM) and automated test scripting using Python, MATLAB, or LabVIEW.
Laboratory leadership experience, including test equipment specification, procurement, calibration management, and mentoring junior engineers.
Proficiency in electrical measurements, calibration, and troubleshooting programmable DC power supplies, multimeters, and other instrumentation.
Experience with data acquisition systems, instrumentation communication protocols (e.g., Ethernet, RS-232, GPIB), and automated test equipment.
Knowledge of design of experiments, statistical process control, and measurement system analysis.
Strong troubleshooting, root cause analysis, and problem-solving skills.
Excellent written and verbal communication skills.
Ability to work effectively in cross-functional engineering environments.

Responsibilities

Develop, plan, and execute dynamic stress tests, including shock, vibration, and other test methods in compliance with JEDEC, IPC, and/or customer requirements
Develop test fixtures, instrumentation strategies, and data acquisition systems to support mechanical reliability evaluations.
Working with the operations team, perform testing on devices
Analyze test data using statistical and engineering methods to identify failure modes, performance limits, and reliability risks.
Correlate test data to mechanical models to validate and improve simulation results
Generate detailed test plans, procedures, reports, and qualification documentation.
Drive continuous improvement of laboratory capabilities, test automation, and best practices for dynamic stress testing.
Ensure laboratory operations comply with applicable safety, quality, and calibration requirements.
Provide technical guidance regarding shock and vibration requirements throughout the product development lifecycle.