Full-Time

Director of Laser System Development

Updated on 8/1/2026

Neurophos

Neurophos

51-200 employees

Optical metasurface AI accelerators

Compensation Overview

$275k - $350k/yr

+ 401(k) matching + Stock options

Austin, TX, USA + 2 more

More locations: San Mateo, CA, USA | Sunnyvale, CA, USA

In Person

Full-time on-site position in Austin or San Jose, California.

Category
Electrical Engineering (1)

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Requirements
  • A Ph.D. in Photonics, Electrical Engineering, Applied Physics, or a closely related field is required; an M.S. with extensive industry experience will be considered.
  • At least 12 years of progressive experience in laser and photonic device or system development, including at least 4 years in technical leadership or management roles.
  • Hands-on experience with high-power laser development, including design, foundry engagement, device characterization, and qualification.
  • Deep expertise in C-band laser physics and system integration, including high-output-power architectures targeting narrow linewidth, low relative intensity noise, and high side-mode suppression ratio.
  • A proven track record developing and qualifying erbium-doped waveguide amplifier or erbium-doped fiber amplifier configurations and/or injection-locked laser systems for high-power single-wavelength output, such as more than 300 mW fiber-coupled output.
  • System-level understanding of injection-locking dynamics, including locking bandwidth and its asymmetry, linewidth enhancement factor and its role in frequency pulling and phase noise, master-slave optical path design, and stability under varying temperature and drive conditions.
  • Ability to define feedback and control requirements for maintaining injection locking over temperature and aging and to validate that electronics solutions meet system-level specifications without necessarily designing the control loop directly.
  • Understanding of coherent-system behavior, including phase-noise contribution, gain saturation, amplified spontaneous emission management, back-reflection risks, and polarization sensitivity, and how to design around these constraints at the system level.
  • Strong background in optical system-level design, fiber coupling, and higher-power laser packaging.
  • Proficiency with test and measurement systems relevant to coherent laser characterization, including optical spectrum analyzers, frequency or phase-noise analyzers, self-heterodyne linewidth measurement, light-current-voltage testing, locking-range characterization, and bit-error-rate testing.
Responsibilities
  • Lead the design, development, and optimization of high-power laser systems operating in the C-band at 1550 nm.
  • Develop erbium-doped fiber amplifier or waveguide amplifier laser systems.
  • Define and drive laser-system configurations to achieve high output power targets with high coherence, narrow linewidth, and low noise.
  • Own locking-range analysis, injected-power-ratio optimization, and stability-margin assessment across temperature and aging conditions for injection-locked systems.
  • Define feedback and control requirements for maintaining lock and validate that electronics solutions meet system-level specifications.
  • Own system-level trade studies covering optical output power, coherence length, linewidth, relative intensity noise, side-mode suppression ratio, locking bandwidth, and wavelength stability across operating conditions.
  • Develop and validate device and system models to predict performance and guide design decisions through simulation platforms such as Lumerical, VPIphotonics, PICS3D, or equivalent.
  • Build, lead, and mentor a multidisciplinary laser engineering team spanning laser physics, photonic integration, packaging, and test.
  • Define technical roadmaps and milestone-driven development plans aligned with product schedules and business objectives.
  • Drive program execution across in-house engineering teams and external foundry and packaging partners, working with technical program managers on schedule management, vendor coordination, and milestone tracking.
  • Lead design reviews, root-cause failure analyses, and risk-mitigation planning for laser subsystems.
  • Communicate program status, critical path, technical risks, and resource needs to executive leadership.
  • Manage external foundries, vendors, and module assembly partners throughout the development lifecycle.
  • Ensure vendor deliverables are properly scoped, tracked, and aligned with internal program milestones; conduct regular reviews and proactively escalate risks.
  • Support negotiation and execution of co-development agreements, statements of work, and supply agreements with foundry and component partners.
  • Stay current with C-band laser technology, including distributed-feedback and distributed-Bragg-reflector seed lasers, master oscillator power amplifier systems, single-wavelength injection locking, and photonic integrated-circuit integration.
  • Drive intellectual-property generation and protect proprietary innovations through patents and trade secrets in laser design, integration, injection locking, and high-power packaging.
  • Identify and cultivate academic, national laboratory, and industry partnerships to accelerate technology development.

Neurophos designs AI accelerator chips built with optical metasurfaces and silicon photonics to deliver high-density, energy-efficient AI computation for data centers. Its processors are designed to shrink optical components by about 8000x, increasing compute power per dollar spent and reducing both capital and operating expenditures. The product works by using optical processing techniques that handle AI inference workloads more efficiently than traditional GPUs or electronic AI accelerators, enabling faster throughput with lower power use. Neurophos differentiates itself by combining optical metasurfaces with silicon photonics to achieve higher density and energy efficiency, targeting data centers and enterprises that need scalable, cost-sensitive AI inference. The company aims to reshape the AI landscape by offering faster, denser, and more energy-efficient AI computation while lowering the total cost of ownership for data centers.

Company Size

51-200

Company Stage

Series A

Total Funding

$117.2M

Headquarters

Austin, Texas

Founded

2020

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Benefits

Health Insurance

Unlimited Paid Time Off

401(k) Company Match

Stock Options

Health Savings Account/Flexible Spending Account

Dental Insurance

Vision Insurance

Life Insurance

Growth & Insights and Company News

Headcount

6 month growth

1%

1 year growth

-3%

2 year growth

0%
North Coast Co-op
Jan 27th, 2026
Neurophos secures funding round to advance photonic AI chip

Neurophos secures funding round to advance photonic AI chip. Neurophos is a semiconductor startup based in Austin, that manufactures high powered, energy efficient photonic chips for AI inference. The company was established by Dr Patrick Bowen and Dr Andrew Traverso, who have gathered a professional team of experts with deep experience from major tech and hardware companies such NVDIA, Apple and Meta. Neurophos just secured a funding round from major investors including M12(Microsoft) to advance its photonic AI chip development. The company is addressing a major bottleneck in the AI industry. Traditional silicon based GPUs are struggling to support the demands of modern AI algorithms. To solve this Neurophos has developed a novel Optical Processing Unit (OPU). Unlike traditional chips, this chip uses light-based(photonic) computing and metamaterials to perform calculations. The company has been able to achieve massive miniaturization, they have managed to shrink optical components by 10000x, allowing them to fit over a million processing elements onto a single chip. The company has claimed that the chips have huge performance gains, their technology can provide up to 100x the performance and energy efficiency of traditional chips. Neurophos also claims that their chips are more sustainable, reducing the amount of electricity required for high level AI inference, hence reducing the carbon footprint of data centers. Neurophos also chips also boasts seamless integration, the chips are designed to be drop in replacements for existing GPUs, allowing data centers to easily upgrade their infrastructure. The new capital will be used to finalize the company's first integrated compute system, expand its software stack and open a new engineering facility in San Francisco. Investors and industry experts view this as a "physics-level" breakthrough that would be able to support modern AI models, as traditional Moore's law begins to plateau.