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Nano Engineering Jobs in Oregon (NOW HIRING)

The Mission To be an outstanding Engineering and R&D organization committed to our customers' success by providing world-class solutions to challenges at the nanoscale. We are devoted to bringing ...

Our broad range of high-performance microscopy workflows provides critical data at the micro-, nano ... Coordinate closely with internal product, engineering, marketing and account teams on product ...

... Engineering Math) field of study. Plus 7+ years of Semiconductor industry experience. * Advanced node semiconductor processing, Semiconductor fabrication, or nanotechnology such as: Design of ...

... Engineering Math) field of study. Plus 7+ years of Semiconductor industry experience. * Advanced node semiconductor processing, Semiconductor fabrication, or nanotechnology such as: Design of ...

... Engineering Math) field of study. Plus 7+ years of Semiconductor industry experience. * Advanced node semiconductor processing, Semiconductor fabrication, or nanotechnology such as: Design of ...

... Engineering Math) field of study. Plus 7+ years of Semiconductor industry experience. * Advanced node semiconductor processing, Semiconductor fabrication, or nanotechnology such as: Design of ...

... Engineering Math) field of study. Plus 7+ years of Semiconductor industry experience. * Advanced node semiconductor processing, Semiconductor fabrication, or nanotechnology such as: Design of ...

... Engineering Math) field of study. Plus 7+ years of Semiconductor industry experience. * Advanced node semiconductor processing, Semiconductor fabrication, or nanotechnology such as: Design of ...

... Engineering Math) field of study. Plus 7+ years of Semiconductor industry experience. * Advanced node semiconductor processing, Semiconductor fabrication, or nanotechnology such as: Design of ...

... Engineering Math) field of study. Plus 7+ years of Semiconductor industry experience. * Advanced node semiconductor processing, Semiconductor fabrication, or nanotechnology such as: Design of ...

... Engineering Math) field of study. Plus 7+ years of Semiconductor industry experience. * Advanced node semiconductor processing, Semiconductor fabrication, or nanotechnology such as: Design of ...

... Engineering Math) field of study. Plus 7+ years of Semiconductor industry experience. * Advanced node semiconductor processing, Semiconductor fabrication, or nanotechnology such as: Design of ...

... Engineering Math) field of study. Plus 7+ years of Semiconductor industry experience. * Advanced node semiconductor processing, Semiconductor fabrication, or nanotechnology such as: Design of ...

... Engineering Math) field of study. Plus 7+ years of Semiconductor industry experience. * Advanced node semiconductor processing, Semiconductor fabrication, or nanotechnology such as: Design of ...

Showing results 21-40

Nano Engineering information

See Oregon salary details

$17

$32

$47

How much do nano engineering jobs pay per hour?

As of Aug 9, 2026, the average hourly pay for nano engineering in Oregon is $32.55, according to ZipRecruiter salary data. Most workers in this role earn between $25.14 and $38.12 per hour, depending on experience, location, and employer.

What are the key skills and qualifications needed to thrive as a nano engineer, and why are they important?

To thrive as a Nano Engineer, you need a strong background in physics, chemistry, materials science, and nanotechnology, typically supported by a relevant engineering degree. Familiarity with tools like scanning electron microscopes (SEM), atomic force microscopes (AFM), and nanofabrication software, as well as certifications in cleanroom safety, are often required. Attention to detail, problem-solving, and effective collaboration are essential soft skills for success in interdisciplinary teams. These competencies are crucial for developing innovative nanoscale solutions, ensuring precision, and advancing technology in fields such as electronics, medicine, and materials science.

What does a nano engineering do?

A nano engineer designs, develops, and applies materials and devices at the nanoscale, typically between 1 and 100 nanometers. They work with advanced tools like electron microscopes and focus on fields such as electronics, medicine, and materials science to create innovative solutions. Strong knowledge of physics, chemistry, and engineering principles is essential for this role.

What is the difference between nano engineering and nanotechnology?

People often use the terms nanoengineering and nanotechnology interchangeably. However, they are slightly different. As the name implies, nanoengineering focuses more on the engineering and product development side of the field. Nanotechnology is more of an umbrella term that covers the entire scientific field. In a nanotechnology role, you may focus entirely on the pure science of the field. In short, nanotechnology is simply the field of study that focuses on the nanoscale, while nanoengineering focuses on the actual engineering. The fields are closely related, and often, those who focus on one have the skills to work in both.

What are some common challenges faced by nano engineers when working on interdisciplinary teams?

Nano engineers often collaborate with professionals from diverse backgrounds such as materials science, chemistry, biology, and electrical engineering. One common challenge is effectively communicating complex nanoscale concepts to team members who may not have specialized knowledge in nanotechnology. Additionally, aligning project goals and timelines across disciplines can require flexibility and strong organizational skills. Overcoming these challenges not only enhances project outcomes but also helps nano engineers build valuable cross-functional experience for career growth.

What can you do with a nano engineering degree?

A nano engineering degree prepares individuals for careers in research, development, and manufacturing involving nanomaterials, nanodevices, and nanosystems. Graduates can work in industries such as electronics, healthcare, energy, and materials science, often utilizing skills in microscopy, characterization tools, and programming. The field requires strong problem-solving abilities and knowledge of physics, chemistry, and engineering principles.

What is nano engineering?

Nano engineering is a branch of engineering that focuses on designing, creating, and utilizing materials and devices at the nanometer scale, typically less than 100 nanometers. It combines principles from physics, chemistry, biology, and engineering to manipulate matter at the atomic and molecular level for various applications. These applications can include electronics, medicine, energy, and materials science, among others. Nano engineers work to develop innovative solutions like stronger materials, targeted drug delivery systems, and advanced sensors. This field requires a strong foundation in science and mathematics, as well as knowledge of nanotechnology tools and techniques.

What is the difference between Nano Engineering vs Materials Science?

AspectNano EngineeringMaterials Science
Required CredentialsBachelor's or higher in Nano Engineering, Materials Science, or related fieldsBachelor's or higher in Materials Science, Chemistry, or Physics
Work EnvironmentResearch labs, manufacturing facilities, R&D departmentsResearch labs, manufacturing, academia, industry
Industry UsageElectronics, healthcare, energy, nanotechnology startupsAutomotive, aerospace, electronics, academia

Nano Engineering and Materials Science share overlapping skills and work environments, but Nano Engineering focuses specifically on manipulating materials at the nanoscale for innovative applications, while Materials Science covers broader material properties and applications across various industries.

What are popular job titles related to Nano Engineering jobs in Oregon? For Nano Engineering jobs in Oregon, the most frequently searched job titles are:
Infographic showing various Nano Engineering job openings in Oregon as of August 2026, with employment types broken down into 100% Full Time. Highlights an 100% In-person job distribution, with an average salary of $67,698 per year, or $32.5 per hour.

Structural/ Thermal Modeling Engineer 3

Lam Research Corporation

Tualatin, OR • On-site

Full-time

Re-posted 17 days ago


Lam Research rating

8.2

Company rating: 8.2 out of 10

Based on 46 frontline employees who took The Breakroom Quiz

129th of 487 rated machine equipment manufacturers


Job description

The group you'll be a part of
In the Global Products Group, we are dedicated to excellence in the design and engineering of Lam's etch and deposition products. We drive innovation to ensure our cutting-edge solutions are helping to solve the biggest challenges in the semiconductor industry.
The impact you'll make
We move atoms that move the world.
At Lam Research, we create equipment that allows chipmakers to build device features more than 1,000 times smaller than a grain of sand. This tiny scale has a huge impact. Virtually every leading-edge chip inside the electronic products you use every day (TVs, smartphones, laptops, cars-even medical devices) has been made using our equipment.
As one of the world's most trusted suppliers in the semiconductor equipment industry, we're transforming technology. Our equipment places atoms so precisely that nearly every chip today is made using our innovations.
To build a prosperous career, start with an atom.
Should you choose to walk the path historically driven by Moore's law, your primary job function will involve cutting edge R&D activities in the Semiconductor Equipment Industry. If solving challenges no one has faced before or attempted are of interest to you, then Lam Research is the company for you.
What you'll do
  • Developing physics-based models for Thermo-Elastic, Structural and CFD applications for components in semiconductor capital equipment industry. Experience in commercial software like ABAQUS, ANSYS, NASTRAN, COMSOL, etc., is highly desirable.
  • Data driven modeling - Juncture of physics-based modeling with data-driven, AI/ML methods:
    • Developing methods for translating tool operational data into improved engineering designs
    • Utilizing DOE, Optimization, and statistical methods to correlate Simulation data to experimental data.
    • Stochastic optimization tools to bridge between simulation and experiments.
    • Predict, measure and analyze the experimental data of mechanical designs, process specification and software programs for semiconductor manufacturing equipment.
    • Uncertainty Quantification & propagation, sensitivity analysis, statistical inference for model calibration, decision making under uncertainty.
  • Developing and maintaining live multi-physics models
  • Multi-scale modeling from nano, meso to macro levels
  • Provide design improvements of in-service tools based upon quantitative field measured failure data and less quantitative quality metrics as measured by Lam Research.
  • Use advanced statistical, probabilistic and forecasting methods to best quantify design and performance of overall system.
  • Provide written reports and oral presentation of results to design teams and management.
  • Work directly with mechanical, electrical, process and software engineers to define design requirements, goals and objectives of design, CIP, testing and simulation plans.

Who we're looking for
Minimum Qualifications:
  • PhD in Mechanical Engineering or closely related field with strong emphasis in solid mechanics, heat transfer and fluid mechanics or related fields.
  • Strong ability and understanding of AI/ML concepts and hybrid physics-based AI/ML modeling software.
  • Coding ability to supplement commercial software for specific applications as needs arise.
  • Ability to work within a team to own and design concepts and drive design decisions.
  • Ability to lead and conduct design reviews in cross functional and matrixed environments.
  • Strong written and oral communication. Self-starter to start own initiatives and projects for continuous improvement in capabilities and design.
  • This is a graduate eligible role.

Preferred qualifications
  • Preferred knowledge of chemistry, semiconductor metrology methods, and employing sensors and hardware designs in a vacuum environment is also a plus.
  • Expertise or working knowledge in several of these areas are desired:
    • Big data, AI/ML algorithms and concepts.
    • Multi-physics modeling,
    • Multi-scale modeling, Feature scale from nano, meso scale to macro scale.
    • Heat transfer in low pressure regimes
    • HPC, optimization and cloud computing
    • Numerical methods - Smoothed Particle Hydrodynamics (SPH), MD, BTE, Spectral Element, molecular dynamics, DSMC.
    • Thin film mechanics and characterization
    • Ceramic materials
    • Fracture mechanics and Fatigue
    • Uncertainty qualification, error analysis, statistical methods.
    • Statistical theory, DOE, optimization algorithms.

Our commitment
We believe it is important for every person to feel valued, included, and empowered to achieve their full potential. By bringing unique individuals and viewpoints together, we achieve extraordinary results.
Lam Research ("Lam" or the "Company") is an equal opportunity employer. Lam is committed to and reaffirms support of equal opportunity in employment and non-discrimination in employment policies, practices and procedures on the basis of race, religious creed, color, national origin, ancestry, physical disability, mental disability, medical condition, genetic information, marital status, sex (including pregnancy, childbirth and related medical conditions), gender, gender identity, gender expression, age, sexual orientation, or military and veteran status or any other category protected by applicable federal, state, or local laws. It is the Company's intention to comply with all applicable laws and regulations. Company policy prohibits unlawful discrimination against applicants or employees.
Lam offers a variety of work location models based on the needs of each role. Our hybrid roles combine the benefits of on-site collaboration with colleagues and the flexibility to work remotely and fall into two categories - On-site Flex and Virtual Flex. 'On-site Flex' you'll work 3+ days per week on-site at a Lam or customer/supplier location, with the opportunity to work remotely for the balance of the week. 'Virtual Flex' you'll work 1-2 days per week on-site at a Lam or customer/supplier location, and remotely the rest of the time.
Our Perks and Benefits
At Lam, our people make amazing things possible. That's why we invest in you throughout the phases of your life with a comprehensive set of outstanding benefits.

What Lam Research employees say

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About Lam Research

Sourced by ZipRecruiter

Lam Research designs and builds products for semiconductor manufacturing, including equipment for thin film deposition, plasma etch, photoresist strip, and wafer cleaning processes.

Industry

Manufacturing

Company size

10,000+ Employees

Headquarters location

Fremont, CA, US

Year founded

1980

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