Careers at Etched

About Etched Etched is building hardware for frontier intelligence. We co-design chips, racks, software, and manufacturing to deliver best-in-class throughput and latency across both prefill and decode workloads. Our first products are heavily focused on inference . Backed by hundreds of millions from top-tier investors and staffed by leading engineers, Etched is redefining the infrastructure layer for the fastest growing industry in history. Job Summary Designing frontier AI hardware means solving electrical and mechanical problems together: schematics and board layouts, power delivery and signal integrity, packaging and cooling, manufacturing and assembly. Every decision changes the constraints on the next. Future breakthroughs will come from AI systems that can reason across these domains, operate engineering tools, run thousands of experiments, and learn which designs work in the physical world. You will build those systems. Your mandate is to build agents that take electrical and mechanical designs from requirements through verified, manufacturable outputs. These agents should create and modify CAD models, design schematics and PCB layouts, run simulations, diagnose failures, and iterate with our engineers, pushing the limits of how much of the design process AI can own end to end. Etched offers a uniquely tight research loop: chips, boards, racks, cooling systems, manufacturing, and dedicated in-office compute under one roof. By architecting and orchestrating agent loops, you will turn proprietary designs, simulation results, engineering decisions, and physical test data into systems that get better with every experiment—and ship the hardware they help design. Key Responsibilities Build and own AI systems that turn engineering requirements into verified electrical and mechanical designs, carrying intent and constraints from initial concepts through manufacturing outputs. Build agents that operate CAD, EDA, and simulation tools to generate designs, run experiments, inspect results, diagnose problems, and iterate with our teams, to the limits of model autonomy. Develop workflows spanning component selection, schematic capture, PCB layout, mechanical CAD, assemblies, thermal analysis, and electrical and structural simulation. Build the tool integrations and representations agents need to reason about geometry, connectivity, materials, tolerances, and coupled electrical, mechanical, thermal, and manufacturing constraints. Design evals that measure engineering correctness, constraint satisfaction, simulation accuracy, manufacturability, and performance on real design tasks. Turn simulation outputs, design-rule checks, engineering reviews, and physical measurements into structured feedback models can learn from. Curate proprietary datasets and design memory from complete trajectories, expert demonstrations, failed approaches, and manufactured outcomes. Build reproducible experiment infrastructure so design revisions, tool actions, simulation settings, and results remain traceable and experiments can run at scale. Ship agent-generated designs with our electrical, mechanical, and manufacturing teams, and quantify improvements in design cycle time, hardware performance, and engineering effort. Continuously evaluate new model releases and deploy the best models and methods for each stage of the design loop. You may be a good fit if you have (Must-have qualifications) A track record of solving hard problems across stacks and domains—you enjoy being dropped into unfamiliar territory and figuring it out. Hands-on experience building and shipping LLM-based agents or AI tooling that people depend on: context engineering, tool integration, orchestration, evaluation, and failure analysis. Strong software engineering skills, especially in Python. You can build reliable integrations with complex engineering tools, debug unfamiliar systems, and direct AI to write code well. We do not care whether you write code from scratch—we care whether you ship things that work. Interest, experience, or an academic exposure to in electrical or mechanical engineering, or a record of learning a technical domain deeply enough to build useful tools for its practitioners. You can reason about physical constraints and distinguish a plausible design from a verified one. Fluency using AI to learn and ramp on new problems—agentic coding tools, deep research, and frontier models are how you work, not an add-on. An eval-driven mindset: you measure whether AI systems work, investigate where they fail, and use those failures to improve them. Comfort moving between research exploration, agentic experimentation, engineering-tool debugging, and production execution. Strong candidates may also have experience with (Nice-to-have qualifications) High agency and comfort with ambiguity—you find the real problem to solve. Automating CAD or EDA tools through APIs, scripting, plugins, or GUI interaction. Schematic design, PCB layout, component selection, power delivery, or signal and power integrity. Parametric CAD, mechanical assemblies, tolerance analysis, thermal management, CFD, or FEA. Design optimization, constraint solving, or search over large engineering design spaces. Fine-tuning or post-training models using tool-use trajectories, simulation feedback, or expert demonstrations. Multimodal reasoning over engineering drawings, schematics, geometry, and simulation results. Taking hardware through fabrication, assembly, bring-up, and testing, and understanding where simulation and physical behavior diverge. Benefits Medical, dental, and vision packages with generous premium coverage $500 per month credit for waiving medical benefits Housing subsidy of $2,500 per month for those living within walking distance of the office Relocation support for those moving to San Jose (Santana Row) Various wellness benefits covering fitness, mental health, and more Daily lunch and dinner in our office Unlimited compute budget subject to ROI justification Base Compensation Range $150K – $250K Plus Significant Equity How we’re different Etched believes in the Bitter Lesson . We are the first inference-focused frontier AI system, betting early on transformer and transformer-like architectures and on increasing model sizes. Our addressable market is the entirety of inference, unlike many of our competitors. We are a fully in-person team in San Jose (Santana Row), and greatly value engineering skills. We do not have boundaries between engineering and research, and we expect all of our technical staff to contribute to both and work across disciplines as needed.

About Etched Etched is building the world’s first AI inference system purpose-built for transformers - delivering over 10x higher performance and dramatically lower cost and latency than a B200. With Etched ASICs, you can build products that would be impossible with GPUs, like real-time video generation models and extremely deep & parallel chain-of-thought reasoning agents. Backed by hundreds of millions from top-tier investors and staffed by leading engineers, Etched is redefining the infrastructure layer for the fastest growing industry in history. Job Summary We’re seeking a skilled PCB Layout Engineer to join our dynamic team and contribute to our high-performance data center products. As a PCB Layout Engineer at Etched, you will play a crucial role in designing and optimizing printed circuit boards (PCBs) using Cadence Allegro PCB design tools. Your primary focus will be on high-speed signaling, including 100G applications, power distribution, large BGA ball-map breakouts and complex HDI PCB stack-ups for high-performance data center products. Your expertise will ensure that our products meet the highest standards of performance, reliability, and efficiency. Key Responsibilities Lead the design and optimization of high-speed PCB layouts using Cadence Allegro, tailored for 100G signaling. Implement strategies for impedance matching, trace routing, and crosstalk mitigation, resulting in robust designs that meet the stringent performance demands of modern data centers. Develop and implement power distribution networks for cutting-edge data center hardware. Design power planes, decoupling strategies, and thermal management solutions to support high-performance systems, ensuring reliability and efficiency under heavy operational loads. Manage the design of complex High-Density Interconnect (HDI) PCB stack-ups for multi-layer boards. Integrate blind/buried vias and microvias to meet the advanced technological requirements of data center systems, enhancing signal integrity and achieving compact form factors. Collaborate with electrical and mechanical engineering teams to integrate PCB designs within the overall system architecture. Provide key input during design reviews to optimize performance, ensure manufacturability, and align with system-level objectives in a data center environment. You maybe a good fit if you Have a Bachelor’s degree in Electrical Engineering, Electronics Engineering, or a related field. Advanced degrees or certifications are a plus. Are equipped with 10 years of experience in PCB layout design with a focus on high-speed signaling, power distribution, and HDI stack-ups , ideally for high-performance data center products. Demonstrate proficiency in Cadence Allegro PCB design tools Command in-depth knowledge of high-speed digital design principles, including signal integrity and impedance control . Have Experience with complex HDI PCB design and manufacturing processes . Understand power distribution network design and thermal management techniques, particularly for data center applications. Are excellent at problem-solving skills and attention to detail. We encourage you to apply even if you do not believe you meet every single qualification. Benefits Competitive compensation packages, including generous equity packages Comprehensive insurance coverage and other top-of-market benefits US onboarding experience in our Silicon Valley HQ How we’re different Etched believes in the Bitter Lesson . We think most of the progress in the AI field has come from using more FLOPs to train and run models, and the best way to get more FLOPs is to build model-specific hardware. Larger and larger training runs encourage companies to consolidate around fewer model architectures, which creates a market for single-model ASICs. We are a fully in-person team in San Jose and Taipei, and greatly value engineering skills. We do not have boundaries between engineering and research, and we expect all of our technical staff to contribute to both as needed.