Jobs at Lyte

Leads III-V photonic component manufacturing across Taiwan and Asia, from NPI and process qualification through pilot builds and high-volume production. Manages foundry, OSAT, and contract manufacturing partners; improves wafer, coating, testing, assembly, burn-in, yield, quality, capacity, and reliability. Establishes process controls, analyzes production data, drives corrective actions, supports DFM/DFT, coordinates supply, and reports ramp performance while collaborating with global engineering teams.

Build, align, integrate, and characterize optical subsystems and laboratory setups. Perform optical alignment, system validation, testing, troubleshooting, data analysis, and failure investigations. Develop Python-based automation and analysis tools, support sensor prototyping and manufacturing-process validation, document results, and collaborate with electrical, firmware, DSP, software, and mechanical engineering teams.

Manages daily front-desk and office operations, including visitor reception, badges, mail and packages, meeting-room preparation, supplies, catering, vendors, maintenance requests, workplace events, and employee onboarding or offboarding. Provides reliable on-site coverage, maintains organized shared spaces, supports company meetings and visitors, and delivers administrative and operational support across teams.

Own hardware reliability and environmental qualification for sensor modules and custom silicon. Design, execute, and analyze HALT/HASS, vibration, shock, thermal, humidity, dust, and EMI/EMC testing. Develop accelerated life models and reliability predictions, lead failure analysis and corrective actions, manage test fixtures and chambers, and contribute design-for-reliability requirements. Document qualification results for customer and regulatory review while supporting functional safety and durability claims.

Owns internal IT infrastructure and information security across cloud, SaaS, endpoints, identity, networking, Linux, firewalls, and hybrid systems. Manages Microsoft environments, security operations, vulnerabilities, incidents, vendors, technology costs, and compliance support. Partners with engineering on secure infrastructure, backups, business continuity, and AI tools. Automates workflows using scripting and independently drives technical issues and infrastructure improvements from identification through implementation.

Research and develop end-to-end sensing algorithms for robotics and Physical AI, spanning signal processing, detection, estimation, camera and image processing, computer vision, machine learning, and multisensor fusion. Prototype in Python and C/C++, validate against simulated and real-world sensor data, define performance KPIs, optimize algorithms for embedded platforms, and support hardware, firmware, silicon, customer integration, and product bring-up.

Develop and test signal-processing and perception algorithms for sensing systems, prototyping on FPGA and GPU platforms and transitioning solutions to silicon-optimized production implementations. Build digital twins, define algorithm specifications, evaluate system performance, bring up revised chipsets, and automate testing and engineering workflows. Collaborate with hardware, software, and systems teams across robotics and autonomous-systems development.

Owns environmental and durability qualification for sensor modules and custom silicon. Designs and executes HALT/HASS, vibration, shock, thermal, humidity, dust, ingress, and EMI/EMC testing; analyzes reliability data and predicts field life using Weibull and accelerated-life models. Leads failure analysis and corrective action with silicon, optics, and mechanical teams, maintains test infrastructure and documentation, contributes design-for-reliability requirements, and supports functional safety and durability claims.

Develops and optimizes signal-processing algorithm pipelines for sensing products and hardware accelerators. Responsibilities include algorithm research, fixed-point modeling, MATLAB/Python simulation, performance validation, HW/SW partitioning, test-vector generation, silicon bring-up, and system integration. The role collaborates with digital front-end, verification, architecture, embedded DSP software, and systems teams to deliver production-ready solutions for applications including radar, LiDAR, robotics, and multimodal sensing.

Design and implement complex digital SoC blocks and DSP pipelines from architecture through synthesis and mass production. Collaborate with backend, DFT, and verification teams; define specifications and test suites; debug designs and contribute to design methodologies, including AI-assisted tools. Participate in post-silicon validation and silicon bring-up. The role requires deep expertise in embedded and mixed-mode SoCs, Verilog, SystemVerilog, and logic synthesis.

Develop and execute design verification for complex mixed-mode SoCs from prototype through mass production. Responsibilities include defining DV architecture and test programs, building UVM/SystemVerilog testbenches, performing functional verification, debugging tests, triaging regressions, and coordinating with digital design, architecture, software, and DSP teams.

Leads end-to-end integration of robotic platforms, sensors, compute, and software for prototypes, customer demonstrations, and field deployments. Performs hardware and software bring-up, debugging, networking and synchronization integration, and system-level troubleshooting across power, thermal, mechanical, timing, and software interfaces. Collaborates cross-functionally with engineering teams, builds reliable polished demos, supports customer events, and feeds lessons learned into product roadmaps.

Designs and maintains embedded software development, testing, manufacturing, and deployment tools. Responsibilities include board bring-up, flashing, provisioning, diagnostics, hardware-in-the-loop testing, factory automation, simulation, observability, and cross-platform toolchain integration across embedded hardware. Collaborates with firmware, hardware, systems, test, and manufacturing teams to improve productivity, reliability, test coverage, and production workflows.

Develop and integrate robotics algorithms and machine-learning systems for perception, state estimation, localization, mapping, sensor fusion, planning, control, and learned behaviors. Build and deploy autonomy software across mobile robots, robotic arms, quadrupeds, and humanoids. Integrate camera, LiDAR, and IMU data, optimize software for embedded and edge platforms, support real-robot testing and demos, and debug system-level autonomy issues.

Lead the design, simulation, layout, tapeout, and testing of passive and active silicon photonics components, subsystems, and PICs. Develop wafer-to-module test plans, analyze measurements, troubleshoot optical systems and test setups, document designs, and collaborate cross-functionally to improve products and transition designs into high-volume manufacturing.

Design and define architectures for complex embedded SoCs, translating system requirements into optimized chip requirements and custom logic. Research and evaluate vendor IP, maintain architecture documentation, participate in design and test-plan reviews, define coverage and performance targets, and support silicon bring-up, system validation, debugging, and implementation. The role collaborates across systems, software, design, and verification teams.

Develops rapid product prototypes and technology demonstrations in C/C++ and Python across evolving embedded hardware. Responsibilities include modifying drivers and software frameworks, designing architectures, establishing CI/CD and code review workflows, translating research algorithms into high-performance embedded code, supporting chip and board bring-up, collaborating with Systems and Physical AI teams, documenting implementations, and handing successful prototypes to production software teams.

Owns high-speed signal integrity and power distribution network simulations and validation for complex SoC, sensor, and mixed-signal systems. Collaborates with electrical, systems, and package engineers to define SI, PI, EMI, and EMC performance. Develops test plans, models power networks and interconnects, validates designs in laboratory settings, analyzes simulation and measurement data, troubleshoots issues, and proposes corrective actions across multiple concurrent projects.

Lead cross-functional semiconductor assembly and test programs with OSAT partners. Drive manufacturing milestones, capacity readiness, NPI, qualification builds, production ramp, KPI tracking, risk escalation, root-cause resolution, and executive reporting. Coordinate engineering, quality, operations, supply chain, manufacturing, and external stakeholders while securing resources and resolving technical or operational blockers. Occasional travel to OSAT partner sites is required.

Own electrical designs for robotics platforms from concept through production, including power, motor control, sensing, mixed-signal PCBs, high-speed interfaces, and sensor integration. Develop schematics, layouts, test plans, and manufacturing-ready designs; perform laboratory power and signal-integrity validation; debug issues; optimize cost, reliability, and manufacturability; and collaborate across architecture, production, compliance, and system integration teams.