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Advanced Process Control Jobs in Utah (NOW HIRING)

Supports the Automation Engineer to implement plant systems consisting of artificial intelligence, advanced process control (APC), automation systems, analytical systems, and digitalization ...

Supports the Automation Engineer to implement plant systems consisting of artificial intelligence, advanced process control (APC), automation systems, analytical systems, and digitalization ...

Assume full responsibility for managing process conditions to meet Process Control Document ... HXL) is a global leader in advanced composites technology, a leading producer of carbon fiber, and ...

Operate and program Coordinate Measuring Machines (CMMs) and other advanced metrology equipment ... Conduct first article inspections (FAI) and in-process inspections * Ensure compliance with ISO ...

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Advanced Process Control information

What is advanced process control?

Advanced Process Control (APC) refers to a collection of techniques and technologies used to optimize the performance of industrial processes beyond what is possible with basic process control methods. APC systems use complex algorithms, such as model predictive control and multivariable control, to improve process efficiency, product quality, and safety. They are commonly used in industries like oil and gas, chemicals, and manufacturing to reduce variability, increase throughput, and minimize energy consumption. Implementing APC can lead to significant economic benefits for companies by enabling more precise and consistent control of processes.

What are the key skills and qualifications needed to thrive as an advanced process control engineer?

To thrive as an Advanced Process Control Engineer, you need a solid background in chemical or process engineering, strong analytical skills, and experience with control theory, typically supported by a relevant engineering degree. Familiarity with Distributed Control Systems (DCS), Programmable Logic Controllers (PLCs), and APC software like Aspen DMCplus or Honeywell Profit Controller is commonly required. Excellent problem-solving, teamwork, and communication skills help you collaborate effectively with operations and technical teams. These skills are crucial for optimizing plant performance, ensuring process safety, and delivering cost and efficiency improvements.

What are some common challenges faced by professionals in advanced process control, and how can they be addressed?

Professionals in Advanced Process Control (APC) often encounter challenges such as integrating new control strategies with legacy systems, managing large volumes of process data, and ensuring that control solutions remain robust in the face of process variability. Addressing these challenges typically involves close collaboration with operations and IT teams, ongoing training in both process engineering and automation technologies, and a proactive approach to troubleshooting and optimization. Staying current with industry best practices and leveraging simulation tools can also help APC engineers deliver effective and reliable control solutions.

What is the difference between Advanced Process Control vs Process Engineer?

AspectAdvanced Process ControlProcess Engineer
CredentialsEngineering degree, specialized training in control systemsEngineering degree, often in chemical, mechanical, or industrial engineering
Work EnvironmentIndustrial plants, manufacturing facilities, process industriesDesign, optimize, and improve manufacturing processes across industries
Employer & IndustryProcess industries like oil & gas, chemicals, pharmaceuticalsManufacturing, process industries, consulting firms

Advanced Process Control specialists focus on implementing control algorithms to optimize industrial processes, while Process Engineers design and improve overall manufacturing systems. Both roles require engineering backgrounds, but their daily tasks and focus areas differ significantly.

What are popular job titles related to Advanced Process Control jobs in Utah?

For Advanced Process Control jobs in Utah, the most frequently searched job titles are:

What job categories do people searching Advanced Process Control jobs in Utah look for?

The top searched job categories for Advanced Process Control jobs in Utah are:

Infographic showing various Advanced Process Control job openings in Utah as of August 2026, with employment types broken down into 1% As Needed, 73% Full Time, 23% Part Time, 2% Contract, and 1% Nights. Highlights an 91% Physical, 3% Hybrid, and 6% Remote job distribution.

Photolithography Process Development Engineer (Advanced Patterning)

Texas Instruments

Lehi, UT • On-site

$90 - $120/hr

Other

Re-posted 13 days ago


Texas Instruments rating

8.1

Company rating: 8.1 out of 10

Based on 86 frontline employees who took The Breakroom Quiz

50th of 159 rated electronics manufacturers


Job description

Change the world. Love your job.

We’re at the forefront of an exciting era of semiconductor innovation at Texas Instruments’ LFAB in Lehi, Utah — home to our state-of-the‑art 300mm manufacturing facility now ramping our most advanced 28nm analog and embedded process technology in the heart of the Silicon Slopes. As part of our Advanced Technology Development (ATD) organization, you will be challenged with developing and characterizing the next generation node. We are seeking a highly skilled and hands‑on Process Development Engineer with deep expertise in advanced‑node semiconductor manufacturing. This role focuses on the next generation 20nm‑class logic technologies, with primary responsibility for photolithography and litho‑etch integration, including advanced patterning techniques such as pitch doubling (SADP/LELE). This role will also work directly with the Resolution Enhancement Techniques (RET) team to create Optical Proximity Corrections (OPC) and validate final pattern meets design tolerance.

You will play a critical role in developing, optimizing, and scaling patterning processes to meet aggressive performance, yield, and manufacturability targets. This is a high‑impact position working at the intersection of lithography, materials science, and plasma etch.

Responsibilities
  • Modeling & Simulation:Utilize lithography simulation software (e.g., Prolith, S‑Litho) to analyze process windows and optimize patterning results.
  • Metrology & Yield Improvement:Utilize advanced metrology (CD‑SEM, Overlay, Scatterometry) to identify defects and improve Critical Dimension Uniformity (CDU) and overlay performance.
  • Vendor & Subsystem Interaction:Work with equipment vendors to evaluate new materials, photoresists, and tool hardware upgrades.
  • Data Analysis & SPC:Analyze process data, identify root cause, and implement robust process improvements. Apply Statistical Process Control (SPC) and Design of Experiments (DOE) to develop new processes to enable Litho shrink processes.
  • Pathfinding & Technology Transfer:Define pathfinding activities for new patterning technology, evaluating High NA Immersion for next‑generation nodes. Lead technology transfer from R&D to HVM for photolithography processes.
    • Drivelitho-etch integration (LE, LELE, SADP / pitch doubling)for advanced patterning schemes.
    • Develop and implementresolution enhancement techniques (RET) andoptical proximity correction (OPC)strategies.
    • Evaluate and selectmaterials systems, including photoresists, hard masks, and anti-reflective coatings.
    • Characterize and reduce patterning defects, includingline edge roughness (LER), CD variation, and overlay errors.
    • Collaborate closely with Etch team to optimizepattern transfer, profile control, and CD uniformityInterface with cross-functional teams including design, integration, yield, and manufacturing.
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About Texas Instruments

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As a global semiconductor company, we design, manufacture, test and sell analog and embedded processing chips to nearly 100,000 customers. Our products enable electronics everywhere and in things you experience every day - from health care, smart homes and connected cars to drones, smart phones and more. Our passion to create a better and more sustainable world by making electronics more affordable through semiconductors drives us to make our technology smaller, more efficient, more reliable and more affordable.

Industry

Semiconductor and electronic component manufacturing

Company size

10,000+ Employees

Headquarters location

Dallas, TX, US

Year founded

1930