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Process Development Engineer | RF Photonics

Texas Instruments · Dallas, TXtoday

MS-level Process Engineering roles on Crosslinked list a median of $155k (59 that show pay). This posting does not list pay.

Lead heterogeneous integration process development of non-Si modulator materials into silicon photonics, from R&D to volume manufacturing.

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Worth knowing

Why it is interesting. Own the full HI process module from R&D to volume fab, bonding LiNbO3 and InP chiplets onto silicon photonics

Might not be for you. Heavy yield, SPC and fab-operations focus, with little polymer-side work

Mostly at the benchDeep specialist PhD-friendlySenior hires only

Adjacent materials roleHeterogeneous integration of non-Si modulator materials (lithium niobate, InP) into silicon photonics; layer transfer, die-to-wafer bonding, planarization, waveguide etching, materials characterization

H-1B filings

Texas Instruments filed 38 H-1B labor applications for scientist and engineer roles from Jan to Dec 2025.

Most common titles: Validation Engineering Manager, Analog Design Manager, Digital Design Manager. Median filed pay: $166K a year.

From U.S. Department of Labor disclosure data. A filing is a record of past hiring, not a promise about this role, so confirm sponsorship with the employer. Titles and filed pay ·Every employer's filings

Seniority
Senior
Work
On-site
Type
Full-time
Degree
MS
Experience
3+ yrs
Industry
Semiconductor
Role
Process Engineering
Materials
Lithium Niobate1 roleLithium TantalateBarium TitanateIndium Phosphide

Role details

Senior Silicon Photonics Process Engineer - Heterogeneous Integration Location: Dallas, TX, or Lehi, UT Group: Kilby Labs We can't predict what the future holds, but we know Texas Instruments will have a part in shaping it. Kilby Labs is the advanced R&D and product development support organization within TI chartered to define and develop new and innovative technologies and solutions in collaboration with business units and customers. As a member of Kilby Labs you’ll have the chance to interact with many product groups and functions, work with an interdisciplinary team, and bridge from lab to fab to develop technologies to enable new markets.

About the Position Kilby Labs is seeking a highly motivated and experienced Silicon Photonics Process Engineer to lead the development and implementation of heterogeneous integration (HI) of non-Si modulator materials into high-volume silicon photonics. This role is responsible for the initial process development through volume scaling of all aspects of the HI process module including layer transfer and post transfer processing.

The role requires working extensively across other internal teams including advanced process technology development, fab operations, chip design and test, and product engineering, to make innovative, high performance and cost-effective silicon photonics solutions, while also requiring a focus on high-yield, reliable, and cost-efficient manufacturing. For this role we are seeking a creative problem-solver who can develop unique, breakthrough technologies.

Responsibilities may include, but are not limited to : Lead the process development, execution, and optimization of volume die-to-wafer (D2W) bonding and post-bond device processing of non-Si material chiplets, integrated in silicon photonics. Owning part or all the non-Si material chiplet integration process module in the cleanroom; including the processes of dicing, grinding, die-to-wafer bonding, and waveguide etching. Drive the scaling of the heterogeneous integration processes from initial R&D and prototyping phases up to high volume manufacturing.

Provide necessary expertise to bridge the internal fab operations, advanced process development, and Kilby R&D design teams to align HI processes with device performance requirements and fab capabilities. Work with tool vendors and IP partners to reduce process development time leveraging external IP. Work closely with photonic design, architecture, and packaging teams to translate design, layout, and product requirements into cost and yield optimized manufacturing solutions. Establish robust process controls, root-cause failure analysis, and yield enhancement strategies to drive cost and power improvements, ensure high manufacturing yield and long-term device reliability.

Develop process characterization and troubleshooting procedures, including development of process monitors, test structures, critical to quality parameter specifications, metrology and inspection procedures, and correlations with device performance data. Develop and maintain process reporting and documentation, including process flow descriptions, quality specifications, goal plotting, and yield reports. Research and develop differentiating process techniques beyond the state of the art. Minimum Requirements : Master’s/Ph.D. degree in Electrical Engineering, Physics, Applied Physics, or Material Science.

3+ years of industry experience with one or more of the following processing steps for integration of non-Si high-speed modulator materials onto silicon photonics in a high volume silicon photonics fab environment: planarization and pre-bond surface preparation, die-to-wafer bonding, wafer-to-wafer bonding, post-bond waveguide etching and processing, and metallization. Experience with material physics and process-related effects on device performance for materials such as Lithium Niobate, Lithium Tantalate, Barium Titanate, or Indium Phosphide.

Track record of delivering high yield process modules for high speed silicon photonics fab processes involving heterogeneous integration of non-materials in high volume manufacturing. Strong expertise in statistical process control (SPC), design of experiments (DOE), and utilizing advanced material characterization techniques applied to Cpk optimization for silicon photonics with HI of non-SI materials. Ability to work independently and lead cross-functional collaboration between process, fab, and design teams.

Preferred Qualifications

Understanding of the mechanisms of direct bonding methods (i.e. fusion bonding) and surface chemistry of bonding Hands-on cleanroom experience with dicer, grinder and bonder (die-to-wafer or wafer-to-wafer). Knowledge of high-speed photonic modulator device physics, device design, and important device performance metrics Understanding of characterization and testing of high-speed modulators and silicon photonic devices Experience with volume manufacturing of high speed integrated photonic devices for state-of-the-art data communications products. Experience using process monitor and test data analysis tools and statistical analysis tools such as JMP or statistical libraries (e.g.

Matlab, Python). Strong verbal and written communication skills. Ideal candidates must also excel at promoting new ideas, building collaborative relationships, working across organizations.

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Common questions

Does Texas Instruments sponsor H-1B visas?

Texas Instruments has filed H-1B petitions with the US Department of Labor in past years, but this specific posting does not explicitly mention sponsorship for the Process Development Engineer | RF Photonics role. Confirm with the employer before applying if visa support is required.

Where is the Process Development Engineer | RF Photonics role at Texas Instruments based?

This role is based in Dallas, TX.

What degree is required for the Process Development Engineer | RF Photonics role at Texas Instruments?

This role requires a MS.

How many years of experience does this Process Development Engineer | RF Photonics role require?

The posting calls for at least 3 years of relevant experience.

What polymers or materials does this Process Development Engineer | RF Photonics role work with?

Lithium Niobate, Lithium Tantalate, Barium Titanate, Indium Phosphide.

What techniques or methods are required for this Process Development Engineer | RF Photonics role?

statistical process control, design of experiments, advanced material characterization.