We are looking for a Technical support to join our growing robotics startup. This role is hands-on and multidisciplinary, involving installation, maintenance, troubleshooting, and on-site support of complex robotic systems. The systems combine mechanics, hardware, electronics, and advanced software, and require strong system-level understanding. The position includes work at our companys facilities as well as international travel, primarily for system installations, demos, and field troubleshooting. As part of our rapidly growing, small, motivated, and multi-disciplinary team, this position is the first dedicated role in its domain, providing a unique opportunity to contribute to a new area within the company.

Responsibilities
Maintain, test, and troubleshoot robotic systems at the companys facilities.
Install, calibrate, and commission robotic systems at customer and partner sites abroad.
Lead on-site system setup and troubleshooting during demos and early deployments.
Diagnose and resolve hardware, mechanical, and software issues in the field
Perform hands-on replacement and repair of mechanical and electromechanical components.
Work closely with R&D teams (software, mechanical, electrical, algorithms) to deeply understand the system.
Gather knowledge from internal engineering teams and apply it independently in the field.
Provide technical feedback from the field to improve system robustness and usability.
Document issues, procedures, and best practices.

We are seeking a high-driven, results-oriented multidisciplinary orchestrator to act as the primary catalyst for our development infrastructure. In this role, you will operate at the critical intersection of product strategy, hardware engineering, and lab operations, serving as the connective tissue that aligns disparate teams under a unified goal. You will be responsible for driving cross-functional alignment across the organization, effectively managing stakeholders with differing ownership to ensure infrastructure roadmaps scale alongside product milestones. This position requires a self-starter comfortable pushing for success in ambiguous environments, where you will translate high-level strategy into the tactical execution of the physical and virtual ecosystems that power our development lifecycle.

Your Impact

You will own the end-to-end lifecycle of infrastructure projects, ensuring that our Sanity Test Beds and development environments are optimized to meet aggressive product launch timelines. By bridging the gap between engineering roadmaps and infrastructure requirements, you will serve as the engine that ensures our teams have the right resources at the right time, regardless of technical or organizational complexity.

Key Responsibilities

Strategic Orchestration & Alignment

Unified Roadmap Integration: Translate complex product development roadmaps into long-term infrastructure requirements, driving cross-functional alignment between silicon milestones and lab availability.
Stakeholder Management: Act as the primary liaison between hardware engineering, software development, procurement, and lab operations; navigate competing priorities among stakeholders with differing ownership to keep teams synchronized.
Ambiguity Management: Proactively identify project roadblocks and navigate ambiguous environments to push critical-path dependencies to resolution.
Operational Velocity: Drive continuous improvement in infrastructure processes, identifying and removing friction to increase overall engineering velocity.
Operational Oversight & Execution

Strategic Capacity Planning: Lead high-stakes capacity management efforts, forecasting needs for power, rack space, and compute resources to proactively eliminate infrastructure bottlenecks.
Lifecycle Ownership: Oversee the full lifecycle of infrastructure projects-from initial procurement and technical specification through deployment, validation, and transition to operational readiness.
Visibility & Reporting: Drive the development of dashboards and reporting mechanisms to provide real-time visibility into infrastructure health, ensuring data-driven decision-making across the organization.
Vendor & Asset Optimization: Partner with cross-functional leadership to manage technical specifications, equipment lead times, and hardware lifecycles, ensuring a high-performance, cost-effective infrastructure footprint.

In this role, you will contribute to the development of complex ASIC package designs from early planning and exploration through implementation and tapeout. You will collaborate across package design, layout, SI/PI, and silicon teams to help deliver high‑speed, robust, and manufacturable package solutions.

You will participate in package architecture activities, design tradeoff discussions, and technical problem solving while growing your expertise in advanced packaging technologies and system-level integration. This role provides an opportunity to work on some of the most advanced networking silicon products in the industry within a highly collaborative engineering environment.

Responsibilities:
As a member of the Package Design team, you will:

Lead the package design activities including planning, floorplanning, pinout optimization, stack‑up definition, and high‑speed routing support.

Collaborate with SI/PI, silicon floorplanning, layout, and manufacturing teams to ensure high‑quality package solutions.

Support package implementation activities and work closely with layout designers to ensure alignment between design intent and physical implementation.

Participate in technical investigations, design reviews, and tradeoff discussions involving performance, manufacturability, and schedule considerations.

Assist in developing and improving package design methodologies, flows, and best practices.

Contribute to debugging, issue resolution, and package bring‑up activities as needed.

In this role, you will be leading all aspects of verification and will have a critical impact on the company's R&D path.



Responsibilities:

Define and implement robust SV/UVM verification solutions, including test benches and methodologies, to drive efficient verification closure across block-level and full-chip designs, integrating Mix-signals SoC simulation environment using Verilog, MATLAB, HW/SW Co-simulation and lab integration.
Work closely with Digital Design, Analog Design, Software, Back-end, SW and System teams to understand the functional, power and performance goals of the product and ensure its quality.

Spearhead innovative silicon architecture for AI infrastructure, guiding board design from concept through to mass production.

Act as the technical decision-maker for the project and collaborate with cross-functional teams in mechanics, thermal, PCB layout, and software/RTL.

Define product specifications, develop electrical schematics, and guide component selection.

Conduct hands-on testing in a lab environment and drive the PCB bring-up, characterization, and debugging stages.

You'll be joining our Physical Design team within Cisco Silicon One, which is responsible for the entire backend methodology and flow development from RTL to GDS. This is a critical part of the group leading the development of high-quality VLSI designs.

Our Backend Engineers handle all aspects of chip design, including Definition, Physical Synthesis, Place and Route, Optimization, Timing Closure, Design Floor Planning.

You will be leveraging your backend and physical design experience to drive the development, optimization, and innovation of CAD methodologies and tools, ensuring the highest quality and efficiency in our chip design flows from RTL to GDS.

As a Project Manager, you will support multiple ASIC development programs by coordinating execution, tracking deliverables, and enabling collaboration across engineering teams. You will strengthen operational excellence through AI-based automation and tracking solutions. Your work will help teams identify risks and dependencies early, maintain alignment, and deliver programs successfully.

Support Program Managers throughout each phase of ASIC program execution.
Track milestones, action items, dependencies, risks, deliverables, status reports, dashboards, and execution metrics across multiple projects.
Coordinate activities among ASIC, Software, and Business Operations teams, including global stakeholders.
Drive follow-up and accountability to ensure project actions are completed on time.
Develop AI-powered tracking tools and automation solutions that improve project visibility, streamline processes, and strengthen program management methodologies.
Collaborate with engineering and operations teams to maintain alignment and support successful program delivery.

Write and review micro-architecture specifications

Implement RTL (Verilog/SystemVerilog) to meet timing, performance, and power requirements

Contribute to full chip integration, timing methodology, and analysis

Collaborate with verification engineers to resolve bugs and achieve coverage closure

Work with the physical design team to close timing and PnR issues

Support design methodology evolution and best practices

Perform debug, root-cause analysis, and post-silicon validation in the lab

Write and review micro-architecture specifications
Implement RTL (Verilog/SystemVerilog) to meet timing, performance, and power requirements
Contribute to full chip integration, timing methodology, and analysis
Collaborate with verification engineers to resolve bugs and achieve coverage closure
Work with the physical design team to close timing and PnR issues
Support design methodology evolution and best practices
Perform debug, root-cause analysis, and post-silicon validation in the lab

As SIPI engineer youll be required to design and analyze high speed analog/digital signals for networking products, with emphasis on high speed signal and power analysis of ASIC, Package and PCB. Model/simulate/characterize high speed systems, including high speed I/Os, chip packages, printed circuit boards, and system interconnects. Overcome the challenges of ultra-high data rate and cutting-edge technology. We use the latest silicon technologies and processes to build largest scale and most complex devices at the edge of feasibility.