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Do you have a passion for solving the hardest problems in silicon? Do you thrive at the intersection of circuit theory, device physics, and hands-on failure investigation? As part of our Silicon Debug group, you'll take complex, often elusive silicon failures and systematically uncover their root cause - from electrical characterization all the way down to physical analysis. You and your team will apply deep engineering fundamentals and cutting-edge failure analysis techniques to enable product ramp at scale. Your efforts will directly impact the quality and reliability of state-of-the-art ASICs that power experiences for millions of customers worldwide. Join us, and you'll play a central role in ensuring the silicon we build is everything it needs to be.
We have an extraordinary opportunity for Silicon Debug Engineers to investigate and root-cause failures in advanced custom digital megacells (SRAM memories, on-chip sensors, custom data paths) used in high-performance, low-power SoCs. You will bridge the gap between electrical debug and physical failure analysis, working at the frontier of silicon investigation.
Description
Imagine yourself at the center of our SoC bring-up and product ramp effort, collaborating across circuit design, process engineering, DFT, and failure analysis teams - with a critical impact on getting functional products to millions of customers quickly.","responsibilities":"Drive the silicon debug effort involving custom circuits from initial bring-up through volume ramp, owning failure isolation from symptom to root cause.
Work with circuit design teams to define silicon characterization and debug requirements for test chips and product chips.
Engage with PE / DFT / FA teams to plan and execute electrical and physical characterization strategies.
Perform design analysis, modeling/simulation, SPICE simulation, statistical analysis, and silicon bring-up to understand and reproduce failure signatures.
Work closely with systems and lab teams to reproduce circuit-level behavior using MBIST, functional diagnostics, and characterization structures.
Plan and interpret FA analysis - translating electrical failure signatures into targeted physical analysis strategies and understanding how FA technique choices impact observable circuit behavior.
Leverage eFA and pFA techniques including Dynamic Laser Stimulus (DLS), Lock-in Thermography (LIT), Nanoprobe, Focused Ion Beam (FIB), TEM/SEM, EMMI, and Physical Failure Analysis (PFA) to identify defect mechanisms and localize failures to specific circuit nodes.
Understand the circuit impact of FA techniques - including how photon emission, voltage contrast, charge injection, sample preparation, and probe-induced perturbations may influence or mask failure modes during analysis.
Preferred Qualifications
Experience in one or more of the following areas: SRAM circuits, custom circuit design, silicon debug.
Experience in design or debug of low-voltage / low-power custom circuits.
Deep understanding of deep-submicron device physics, leakage mechanisms, and technology interactions with device behavior.
Solid understanding of device matching, device noise sources (1/f, thermal), extrinsic noise sources (supply noise, jitter), and their impact on high-precision circuits.
Familiarity with electrical failure analysis (eFA) techniques and physical failure analysis (pFA) workflows, and the ability to plan FA strategies based on electrical debug data.
Understanding of Dynamic Lock-in Thermography (DLS) and Lock-in Thermography (LIT) for localization of resistive and leakage defects, including their sensitivity limits and how thermal signatures correlate to specific circuit fault modes.
Knowledge of Nanoprobe techniques for electrical probing of deep-submicron nodes, and appreciation of how probe contact, voltage bias, and electron beam exposure can perturb sensitive analog or memory circuits.
Awareness of how physical sample preparation steps (deprocessing, FIB cross-section, delayering) can alter or destroy evidence of electrical failures, and how to coordinate FA plans that preserve failure signatures.
Ability to interpret FA results (photon emission maps, OBIRCH, thermal maps, TEM/SEM imagery) in the context of circuit topology and failure electrical signatures.
Ability to conduct structured experiments during silicon debug, gather and analyze large datasets, and utilize scripting to support efficient handling of debug data.
Proficiency in scripting languages (Python, Perl, or others) and CAD automation tools.
Knowledge of industry-standard circuit design and simulation tools.
Minimum Qualifications
BSEE/MSEE
Pay & Benefits
At Apple, base pay is one part of our total compensation package and is determined within a range. This provides the opportunity to progress as you grow and develop within a role. The base pay range for this role is between $150,400 and $277,600, and your base pay will depend on your skills, qualifications, experience, and location.
Apple employees also have the opportunity to become an Apple shareholder through participation in Apple's discretionary employee stock programs. Apple employees are eligible for discretionary restricted stock unit awards, and can purchase Apple stock at a discount if voluntarily participating in Apple's Employee Stock Purchase Plan. You'll also receive benefits including: Comprehensive medical and dental coverage, retirement benefits, a range of discounted products and free services, and for formal education related to advancing your career at Apple, reimbursement for certain educational expenses - including tuition. Additionally, this role might be eligible for discretionary bonuses or commission payments as well as relocation. Learn more about Apple Benefits
Note: Apple benefit, compensation and employee stock programs are subject to eligibility requirements and other terms of the applicable plan or program.