How AMD Interviews in 2026: Process, Questions & What They Score

1. 01

   Can you explain the process of designing a high-performance CPU or GPU, from conceptualization to tape-out?

   Tests end-to-end silicon design lifecycle knowledge from architecture through tape-out.

2. 02

   How do you ensure that your designs meet power, performance, and area (PPA) targets throughout the development cycle?

   Tests whether PPA targets are actively tracked and enforced across the full design cycle.

3. 03

   How do you prioritize trade-offs between competing design requirements, such as power consumption, performance, and area?

   Tests how you rank power, performance and area against each other when they conflict.

4. 04

   What methods do you use for optimizing digital circuits at different levels of abstraction, including gate level, RTL, and architectural level?

   Tests circuit optimization technique choice across gate, RTL and architectural abstraction levels.

5. 05

   Describe your experience with physical design techniques, such as floorplanning, placement, routing, and clock tree synthesis.

   Tests hands-on physical design experience: floorplanning, placement, routing, clock tree synthesis.

6. 06

   How would you implement power management features, such as voltage scaling and clock gating, within a design?

   Tests practical knowledge of voltage scaling and clock gating implementation.

7. 07

   What methods do you employ to mitigate the impacts of process variability, temperature, and aging effects on circuit performance?

   Tests mitigation strategies for process variation, temperature and aging effects on circuits.

Reported problems, listed so you know what to expect. Practice them in your own editor or on the platform you prefer; SupaCV's practice mode coaches how you talk through them.

1. 01

   What is the difference between a flip-flop and a latch?

   Tests fundamental digital-logic knowledge: level-triggered latch versus edge-triggered flip-flop.

2. 02

   What is the difference between a Mealy machine and a Moore machine, and design an FSM that detects a given sequence.

   Tests FSM theory (Mealy versus Moore) plus hands-on sequence-detector design.

3. 03

   Design a frequency divider, and realize a NAND gate using multiplexers.

   Tests gate-level design skill: frequency-divider circuits and NAND realization via multiplexers.

4. 04

   Explain the modeling types in Verilog and write code for a simple module.

   Tests knowledge of Verilog modeling styles and basic RTL coding ability.

5. 05

   Explain the communication protocols UART, SPI, I2C and PCIe.

   Tests knowledge of common on-chip and peripheral communication protocols.

6. 06

   Explain the difference between AMD's Zen 2 and Zen 3 microarchitectures.

   Tests current knowledge of AMD's Zen microarchitecture generational differences.

7. 07

   Compare the L1, L2, and L3 caches in Ryzen CPUs in terms of latency and size.

   Tests cache hierarchy knowledge: relative latency and size trade-offs across L1 to L3.

8. 08

   How does AMD's SMT (Simultaneous Multithreading) architecture work?

   Tests understanding of simultaneous multithreading and its microarchitectural implementation.

9. 09

   Describe how AMD's chiplet design impacts performance scalability.

   Tests understanding of chiplet architecture's effect on performance scaling.

10. 10

    Can you explain how cache coherence protocols work and their importance in maintaining consistency across shared memory systems?

    Tests cache coherence protocol knowledge in shared-memory multiprocessor systems.

11. 11

    What is Cache memory?

    Tests fundamental cache-memory concepts: purpose, levels and hit/miss behavior.

12. 12

    What is Virtual Memory in Operating System?

    Tests fundamental operating-system virtual memory concepts.

Reported problems, listed so you know what to expect. Practice them in your own editor or on the platform you prefer; SupaCV's practice mode coaches how you talk through them.

1. 01

   How do you approach validating and debugging complex hardware designs, both pre-silicon and post-silicon?

   Tests validation methodology spanning pre-silicon simulation and post-silicon bring-up.

2. 02

   Explain the importance of testbenches and simulation in verifying the functionality and performance of your designs.

   Tests understanding of testbench and simulation roles in functional and performance verification.

3. 03

   What is your experience with using Hardware Description Languages (HDLs), such as Verilog or VHDL, for ASIC design?

   Tests hands-on HDL experience (Verilog or VHDL) applied to ASIC design.

4. 04

   For a chip that performs addition, subtraction, multiplication and division on 8-bit values with a 20-operand stack, what end cases and possible errors would you handle in Verilog testbenches, and how would you write those test cases?

   Tests verification test-planning: enumerating arithmetic-overflow and stack-overflow edge cases before coding testbenches.

Reported problems, listed so you know what to expect. Practice them in your own editor or on the platform you prefer; SupaCV's practice mode coaches how you talk through them.

1. 01

   Implement a low-level component such as a custom memory allocator or a circular buffer, then answer follow-up questions on operating-system fundamentals.

   Tests low-level memory-management coding (allocator or ring buffer) plus OS fundamentals follow-up.

2. 02

   Difference between Process and Thread?

   Tests fundamental operating-system process versus thread distinction.

3. 03

   What is Booting in Operating System?

   Tests fundamental knowledge of the operating-system boot sequence.

4. 04

   How would you approach optimizing code for performance?

   Tests general performance-optimization methodology and profiling approach.

5. 05

   Write a C program to measure L1 and L2 cache access latency on an AMD Ryzen CPU.

   Tests hands-on C coding to empirically measure cache access latency.

6. 06

   Provide an example of how to use SIMD with AMD CPUs using AVX2 in C++.

   Tests SIMD vectorization coding using AVX2 intrinsics in C++.

7. 07

   Demonstrate how to profile CPU performance on Linux using perf.

   Tests hands-on Linux perf profiling skill.

8. 08

   What tools and techniques have you used for profiling and optimizing software running on multicore processors or GPUs?

   Tests practical multicore and GPU profiling and optimization tooling experience.

9. 09

   How do you ensure that the firmware or drivers you develop are compatible across various platforms and operating systems?

   Tests cross-platform compatibility approach for firmware and driver development.

Reported problems, listed so you know what to expect. Practice them in your own editor or on the platform you prefer; SupaCV's practice mode coaches how you talk through them.

1. 01

   Describe a challenging issue you faced while working on a silicon design project and how you resolved it.

2. 02

   Describe an instance where you had to debug complex software issues related to hardware-software interactions.

1. 01

   Why do you want to work at AMD?

2. 02

   Tell me about yourself and your interest in AMD.

3. 03

   What are your strengths and weaknesses?

4. 04

   Tell me about a time you had to collaborate with a cross-functional team to deliver a difficult project.

5. 05

   Discuss your experience collaborating with cross-functional teams, such as systems engineering, software development, and manufacturing.

6. 06

   Describe a situation where you disagreed with a teammate or stakeholder.

7. 07

   Tell me about a time you had to explain a highly technical concept to a non-technical audience.

8. 08

   Tell me about a time you failed or fell short on a project.

9. 09

   How do you use AI tools such as GitHub Copilot or LLMs in your day-to-day work?

10. 10

    How do you handle multiple priorities?

11. 11

    Can you describe a situation where you had to manage a team through a challenging project?