ZipRecruiter

Log In

1

Microelectronic Engineer Jobs (NOW HIRING)

Modern Technology Solutions, Inc.

Education: * BS and MS degree in Electrical, Radar, Software, Microelectronics, or Computer Engineering (Master's degree may be waiverable with customer approval). Even better if you have these ...

Modern Technology Solutions, Inc.

$121K - $167K/yr

Education: * BS and MS degree in Electrical, Radar, Software, Microelectronics, or Computer Engineering (Master's degree may be waiverable with customer approval). Even better if you have these ...

next page

Showing results 1-20

All JobsMicroelectronic Engineer Jobs

Microelectronic Engineer information

See salary details

$10

$38

$60

How much do microelectronic engineer jobs pay per hour?

As of Jul 8, 2026, the average hourly pay for microelectronic engineer in the United States is $38.22, according to ZipRecruiter salary data. Most workers in this role earn between $27.16 and $46.39 per hour, depending on experience, location, and employer.

What is the difference between Microelectronic Engineer vs Electrical Engineer?

AspectMicroelectronic EngineerElectrical Engineer
Required CredentialsBachelor's or Master's in Microelectronics, Electrical Engineering, or related fieldsBachelor's or Master's in Electrical Engineering or similar
Work EnvironmentSemiconductor fabs, R&D labs, electronics manufacturingPower plants, electronics design firms, manufacturing
Industry UsageSemiconductor industry, consumer electronics, integrated circuitsEnergy, telecommunications, electronics systems

Microelectronic Engineers focus on designing and developing tiny electronic components like integrated circuits, often working in semiconductor manufacturing and R&D. Electrical Engineers have a broader scope, working on electrical systems, power distribution, and larger electronic devices. While both roles require similar educational backgrounds, their work environments and industry applications differ significantly.

What are microelectronic engineers?

Microelectronic engineers are professionals who design, develop, and test tiny electronic components and systems, such as integrated circuits, microchips, and semiconductors. These engineers work at the forefront of technology, enabling advancements in computers, smartphones, medical devices, and other electronic equipment. Their work often involves using advanced computer-aided design (CAD) tools and collaborating with other engineers to create smaller, faster, and more efficient electronic products. Microelectronic engineers are employed in industries such as consumer electronics, telecommunications, aerospace, and healthcare.

What are some common challenges microelectronic engineers face when working on integrated circuit design projects?

Microelectronic engineers frequently encounter challenges such as managing the trade-off between performance, power consumption, and chip area during integrated circuit (IC) design projects. Meeting tight deadlines while ensuring high reliability and manufacturability of the designs can also be demanding. Additionally, staying up-to-date with rapidly evolving fabrication technologies and collaborating closely with multidisciplinary teams—including layout designers, test engineers, and process engineers—are essential parts of the role. Effective communication and adaptability are key to overcoming these challenges and delivering successful IC solutions.

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

To thrive as a Microelectronic Engineer, you need a solid background in electrical engineering, semiconductor physics, and circuit design, usually supported by a relevant bachelor's or master's degree. Familiarity with EDA tools like Cadence, Mentor Graphics, and proficiency in languages such as VHDL or Verilog are typically required, along with knowledge of cleanroom protocols. Strong problem-solving abilities, attention to detail, and effective teamwork set standout professionals apart in this field. These skills and qualities are vital for developing reliable, innovative microelectronic devices and ensuring successful collaboration in multidisciplinary environments.
What states have the most Microelectronic Engineer jobs? States with the most job openings for Microelectronic Engineer jobs include:
Microelectronic Engineer jobs near you
Infographic showing various Microelectronic Engineer job openings in the United States as of July 2026, with employment types broken down into 95% Full Time, 2% Part Time, and 3% Contract. Highlights an 87% Physical, 4% Hybrid, and 9% Remote job distribution, with an average salary of $79,489 per year, or $38.2 per hour.

Principal Microelectronics Architect

TAP Engineering

Bloomington, IN • Remote

Full-time

Medical, Dental, Vision, Retirement, PTO

Posted 17 days ago

Job description

Principal Microelectronics Architect (SME)

Remote (U.S.) | Full-Time | Secret Clearance Required

Position: Principal Microelectronics Architect (SME)
Location: Remote (Periodic On-site Support as Needed)
Category: Hardware Engineering / Systems Architecture
Clearance Requirement: U.S. Citizenship Required; Active Secret Clearance
Education Requirement: Bachelor's Degree in Electrical Engineering, Computer Engineering, or related discipline (Master's or PhD preferred)
Experience Requirement: 10+ Years in Microelectronics Design, Semiconductor Development, or IP Architecture

Position Overview

We are seeking an experienced Principal Microelectronics Architect to serve as a Subject Matter Expert (SME) supporting a critical government-sponsored microelectronics modernization initiative. This role will provide technical leadership in the development of a secure, collaborative design environment focused on advancing semiconductor innovation, intellectual property reuse, and next-generation design workflows.

The selected candidate will work within a highly technical team responsible for defining architecture, standards, and governance models that support the development and integration of advanced microelectronics technologies. This position offers the opportunity to influence long-term strategy while working closely with government stakeholders, industry partners, and engineering teams across the semiconductor ecosystem.

The ideal candidate brings deep expertise in microelectronics design, silicon IP, system-on-chip (SoC) architecture, FPGA technologies, and semiconductor design workflows, along with the ability to communicate complex technical concepts to both technical and executive audiences.

Key ResponsibilitiesStrategic Technical Leadership
  • Serve as a trusted technical advisor supporting the development of secure, cloud-enabled microelectronics design environments.
  • Provide expertise in semiconductor design methodologies, silicon IP reuse, and design ecosystem modernization.
  • Guide architectural decisions that support long-term scalability, interoperability, and sustainability.
Intellectual Property Management & Governance
  • Develop and validate standards for managing reusable design IP repositories.
  • Establish best practices for secure integration and lifecycle management of commercial and government-developed IP assets.
  • Assess technical risks, licensing considerations, and long-term sustainability of IP portfolios.
  • Support governance strategies that promote efficient IP sharing and collaboration.
Design Flow & Technology Integration
  • Evaluate and optimize semiconductor design workflows across modern engineering environments.
  • Support the integration of foundry-qualified design flows and advanced packaging technologies.
  • Promote interoperability across multiple vendors, toolchains, and semiconductor platforms.
  • Identify opportunities to accelerate development timelines and improve engineering productivity.
Technical Assessments & Program Execution
  • Conduct technology evaluations and produce technical assessment reports.
  • Deliver recommendations related to design infrastructure, tool interoperability, and ecosystem scalability.
  • Support milestone reviews and provide technical briefings to program leadership and stakeholders.
  • Contribute to strategic roadmaps that support future program growth and modernization efforts.
Stakeholder Collaboration
  • Coordinate requirements and technical activities across government organizations, industry partners, research institutions, and engineering teams.
  • Facilitate collaboration among stakeholders focused on semiconductor design, fabrication, packaging, and testing.
  • Build consensus around standards, processes, and technical direction.
Required Qualifications
  • Bachelor's degree in Electrical Engineering, Computer Engineering, or a related technical discipline
  • 10+ years of experience in microelectronics design, semiconductor development, FPGA design, or System-on-Chip (SoC) architecture
  • Deep understanding of silicon IP development, integration, validation, and reuse methodologies
  • Experience evaluating and managing third-party intellectual property within complex hardware environments
  • Familiarity with industry-standard Electronic Design Automation (EDA) tools, including:
    • Cadence
    • Synopsys
    • Siemens EDA
  • Understanding of cloud-enabled design environments and collaborative engineering workflows
  • Strong knowledge of semiconductor design processes and technology development lifecycles
  • Exceptional technical writing, documentation, and presentation skills
  • Ability to communicate complex technical concepts to both engineering teams and executive leadership
  • U.S. Citizenship with the ability to obtain and maintain a Secret security clearance
Preferred Qualifications
  • Active Secret clearance or higher preferred
  • Experience supporting government-sponsored microelectronics programs
  • Familiarity with trusted semiconductor manufacturing and supply chain assurance initiatives
  • Experience with advanced packaging technologies and chiplet architectures
  • Knowledge of modern semiconductor fabrication processes and foundry ecosystems
  • Familiarity with radiation-hardened, high-reliability, or mission-critical electronics
  • Experience supporting collaborative research and development initiatives involving government, industry, and academia
  • Knowledge of leading semiconductor foundries and advanced process technologies
Benefits Overview

TAP Engineering offers a comprehensive and highly competitive benefits package designed to support your health, financial well-being, professional growth, and work-life balance.

  • Paid Time Off: 15–25 days of PTO annually based on tenure, plus 11 paid holidays with no use-it-or-lose-it policy.
  • Retirement Benefits: Up to a 15% employer contribution to your 401(k) through a combination of company match and profit-sharing.
  • Comprehensive Medical Coverage: Employer-paid medical insurance for employees, with optional enhanced plans and dependent coverage available.
  • Dental & Vision Insurance: Employer-paid dental and vision coverage with optional buy-up plans.
  • Tuition Reimbursement: Up to $36,000 annually for approved degree programs, certifications, and continuing education opportunities.
  • Wellness & Employee Support Programs: Employee Assistance Program (EAP), wellness incentives, virtual healthcare services, prescription savings programs, and travel assistance resources.
  • Additional Employee Perks: Access to employee discount programs and other company-sponsored benefits.
  • Performance-Based Recognition: Merit increases, performance bonuses, and employee referral bonuses designed to reward contributions and success.
Why Join Us?

This is a unique opportunity to help shape the future of microelectronics design and collaboration within a highly visible national-level initiative. You'll work alongside industry and government leaders, influence next-generation design environments, and contribute to the development of technologies that will impact critical systems for years to come.

The role begins with an initial six-month technical engagement focused on architecture definition, standards development, and technology assessments. Successful completion of Phase 1 is expected to lead to a five-year follow-on effort, providing the opportunity to serve as a technical lead for a major microelectronics modernization initiative and help shape its long-term architecture, standards, and implementation strategy.

Powered by JazzHR

kMAxFYttet