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We are seeking a capable and experienced Algorithm engineer to join our R&D team. The engineer will be part of a team responsible for the core autonomy parts of the product responsible for developing the foundational algorithms that guide our autonomous vehicles. This role is a part of the group that oversees Motion Planning, Decision-Making, Localization, and Control, blending traditional robotics with state-of-the-art AI to solve the most challenging problems in autonomous driving. This is an opportunity to architect and deliver the core autonomy stack for a scalable, mapless L3-L4 system. You will work on cutting-edge algorithms, including Agentic AI and large-scale models, and see your innovations deployed on public roads in our global fleet of cars and buses. Responsibilities Be part of the development of four key domains: Motion Planning and Decision-Making: Oversee the trajectory planner and the decision-making module that sets the context for vehicle behavior. Localization: Guide the development of high-frequency, high-accuracy vehicle state estimation using advanced sensor fusion algorithms. Control: Supervise the design and implementation of the vehicle's lateral and longitudinal controllers. Drive innovation by integrating state-of-the-art (SOTA) methodologies, including Agentic AI, vision language models (VLMs), transformers, multi-agent prediction, trajectory optimization, uncertainty management, and safety-aware algorithms.
* Be part of a group involving multiple engineers, from initial research and prototyping to robust deployment and validation.
* Be part of a group in charge of complex data pipelines, from collection and annotation to model training and evaluation.

We push the boundaries of technology, developing innovative DFT solutions that drive industry-leading programmability, scalability, and performance. Our team operates in a hybrid model, with three days a week in the office in Midtown Tel Aviv or Caesarea, fostering collaboration and technical excellence in a startup-like atmosphere within a stable, global corporation.

Your Impact

As an Experienced DFT Engineer, you will:

Own and drive DFT execution across the full product lifecycle, from pre-silicon design through post-silicon debug and production qualification.

Define and align DFT architecture and strategy in close collaboration with chip architects, design, and verification teams.

Oversee and contribute hands-on to the implementation of DFT features, including ATPG, scan insertion and compression, and memory BIST.

Lead silicon debug activities and root-cause analysis, driving corrective actions to improve yield, reliability, and test quality.

Establish, standardize, and evolve DFT methodologies and best practices across projects.

You'll handle all aspects of chip design, including Definition, Physical Synthesis, Place and Route, Optimization, Timing Closure, Design Floor Planning.

You'll be joining our Physical Design team within 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 the tech lead for CAD within the team, leveraging your extensive 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.

We demonstrate the latest silicon technologies and processes to build the largest-scale and most complex devices, pushing the boundaries of feasibility.

Collaborate closely with the ASIC Architecture team to implement an accurate and efficient software model based on the architecture specifications.

Partner with both Software and Hardware design teams, providing support as they use the simulator as the golden reference for hardware implementation.

Ensure the simulator meets the highest standards of performance, reliability, and usability.

Contribute to defining best practices and methodologies for model development, validation, and integration. 

You'll be joining our Physical Design team within 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 the Physical Design Group Leader, you will provide strategic and technical leadership to a team of engineers, guiding them through the entire chip design lifecycle. You will be responsible for the group's output, including Definition, Physical Synthesis, Place and Route, Optimization, Timing Closure, Design Floor Planning.

* Manage and build a world class team managing ASIC design, micro-arch, SDC constraints and integration efforts of the project.
* Translate high level goals to measurable plans and milestones. Lead RTL design, quality checks, and manage schedule for on-time delivery of key IPs.
* Work with verification and physical design teams to achieve high quality design.
* Interface with IP teams and manage schedule and delivery of IPs for successful TO.
* Guide and mentor junior engineers as required.
* Hire and retain tier one engineers and foster teamwork with cross functional collaboration.
* Build a culture of execution excellence coupled with innovation.
* Build a team of hard-working and passionate leaders as we scale.
* Maintain close interactions with NPI, Packaging, DFT, Architecture teams.
* Own power, performance and area optimization of design.

Review micro-architecture specifications

Supervise verification team members and provide professional guidance

Implement Verification environment UVM based

Collaborate with Design engineers to resolve bugs and achieve coverage closure

Work with the firmware/Lab teams to verify chip flows

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

Craft and develop software driving the world's most complex infrastructures
Gain intimate knowledge of world-class silicon and programming models
Work with architecture and design teams to define the next generation of ASIC products being developed

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

Join the PHY system team , a pivotal part of silicon development. Our team focuses on the PHY and system aspects of our devices, including PHY firmware, calibrations, system definitions, operations, and post-silicon validation.

Key responsibilities include:

Working with the latest silicon technologies and processes to build large-scale, complex devices at the forefront of feasibility.
Contributing to the development of PHY firmware and system calibrations.
Participating in system definitions, operations, and post-silicon validation activities.

What Youll Do:

Youll be part of the group driving next-generation network devices within a startup-like atmosphere inside a well-established, leading corporation.

Our unique design center integrates all silicon hardware and software development disciplines under one roof. We are revolutionizing the industry by building a new internet for the 5G era, with a unified, programmable silicon architecture that will underpin future routing products. Our devices are designed for adaptability across service providers and web-scale markets, delivering high speed without compromising programmability, buffering, power efficiency, scale, or feature flexibility.