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Asic Design Engineer Jobs in Indiana (NOW HIRING)

Computer Engineer III/IV

Crane, IN · On-site

$111.50K - $131.40K/yr

... design, software development, or computer networks, including responsibility for end-to-end ... or ASIC development, plus experience integrating COTS single-board computers and networking ...

Computer Engineer III/IV

Crane, IN · On-site

$111.50K - $131.40K/yr

... design, software development, or computer networks, including responsibility for end-to-end ... or ASIC development, plus experience integrating COTS single-board computers and networking ...

Computer Engineer III/IV

Crane, IN

$111.50K - $131.40K/yr

... design, software development, or computer networks, including responsibility for end-to-end ... or ASIC development, plus experience integrating COTS single-board computers and networking ...

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Showing results 1-20

Asic Design Engineer information

See Indiana salary details

$89.4K

$142.9K

$192.2K

How much do asic design engineer jobs pay per year?

As of May 29, 2026, the average yearly pay for asic design engineer in Indiana is $142,921.00, according to ZipRecruiter salary data. Most workers in this role earn between $125,100.00 and $171,300.00 per year, depending on experience, location, and employer.

What Does an ASIC Design Engineer Do?

An application specific integrated circuit (ASIC) is an electronic circuit created for a specific purpose, rather than for general use. ASIC design engineers create product design specification (PDS) statements for ASIC, optimize logic design, and create architectural design models. ASIC design engineers often work on a team to deliver ASIC design solutions for standard and complex computing. Knowledge of computer-aided design (CAD) tools, logic simulation, Verilog, and other hardware description languages (HDLs) is integral to career success.

What are the key skills and qualifications needed to thrive as an ASIC Design Engineer, and why are they important?

To thrive as an ASIC Design Engineer, you need a solid background in electrical engineering, digital logic design, and proficiency with hardware description languages like Verilog or VHDL, usually backed by a relevant degree. Familiarity with EDA tools such as Synopsys or Cadence and knowledge of simulation and verification methodologies are typically required. Strong problem-solving abilities, attention to detail, and effective teamwork set outstanding engineers apart in this role. These skills and qualities are vital for delivering complex, high-performance integrated circuits that meet strict specifications and project deadlines.

What are some common challenges faced by ASIC Design Engineers during the design and verification phases?

ASIC Design Engineers often encounter challenges such as meeting strict performance and power constraints while ensuring that the design remains within budget and time limits. Debugging complex logic errors during simulation and verification can be particularly demanding, as small mistakes can have significant downstream effects. Additionally, effective communication with cross-functional teams—including software, hardware, and validation engineers—is essential to resolve integration issues and meet project milestones. Adapting to rapidly evolving tools and technologies is also a key part of the role.

What are ASIC Design Engineers?

ASIC Design Engineers are professionals who design and develop Application-Specific Integrated Circuits (ASICs), which are custom-built semiconductor chips tailored for specific applications or products. They are responsible for the entire design process, including architecture definition, logic design, verification, synthesis, and sometimes physical layout. Their work is crucial in industries like consumer electronics, telecommunications, automotive, and more, ensuring that devices have optimized performance, power efficiency, and functionality for their intended uses.

What is the difference between Asic Design Engineer vs FPGA Design Engineer?

AspectAsic Design EngineerFPGA Design Engineer
CredentialsBachelor's/Master's in Electrical Engineering or Computer EngineeringBachelor's/Master's in Electrical Engineering or Computer Engineering
Work EnvironmentDesigning custom chips for manufacturingDeveloping programmable logic designs for prototyping and deployment
Industry UsageSemiconductor companies, consumer electronics, automotivePrototyping, testing, and specialized hardware applications

Both roles require similar educational backgrounds and often overlap in skills like HDL programming. However, Asic Design Engineers focus on creating chips for mass production, while FPGA Design Engineers work on flexible, reprogrammable hardware for testing and specific applications.

What are the most commonly searched types of Asic Design Engineer jobs in Indiana? The most popular types of Asic Design Engineer jobs in Indiana are:
What job categories do people searching Asic Design Engineer jobs in Indiana look for? The top searched job categories for Asic Design Engineer jobs in Indiana are:
Infographic showing various Asic Design Engineer job openings in Indiana as of May 2026, with employment types broken down into 100% Full Time. Highlights an 100% In-person job distribution, with an average salary of $142,921 per year, or $68.7 per hour.
Computer Engineer III/IV

Computer Engineer III/IV

Warrant Technologies

Crane, IN • On-site

$111.50K - $131.40K/yr

Full-time

Posted 17 days ago


Job description

Description:

The Computer Engineer III/IV architects, develops, integrates, and tests advanced hardware/software solutions for mission systems across NSWC Crane’s digital engineering portfolio. This senior engineer spans embedded processing, networked computing, and edge analytics, ensuring that designs meet requirements for performance, reliability, cybersecurity, and manufacturability from concept through production deployment. The role partners with systems engineering, manufacturing, logistics, and government IPT leads to mature prototypes, supervise build-and-install efforts, and drive continuous improvement across platforms and labs. This position is contingent upon award. Award is expected by the end of the year (2026).

Requirements:

- Master’s degree in Computer Engineering, Electrical/Electronics Engineering, or Mathematics with a concentration in computer science.
- 7+ years of professional experience in computer design, software development, or computer networks, including responsibility for end-to-end integration and verification.
- Deep knowledge of computer architecture, embedded processing, interface protocols, and operating systems relevant to Navy/DoD mission computing.
- Proven ability to translate system requirements into robust hardware/software implementations, conduct trade studies, and manage risk across performance, schedule, and cost constraints.
- Experience supervising manufacturing or installation of computer systems and conducting formal verification/validation with government stakeholders.
- Familiarity with secure development practices, cybersecurity compliance (RMF/DoD guidelines), and documentation required for Navy accreditation packages.
- Excellent communication skills for leading design reviews, writing technical documentation, and briefing senior government leadership.
- Active DoD Secret clearance (or clearable to that level) required due to access to classified programs and facilities.

- Demonstrated leadership designing and fielding complex computer hardware/software systems for DoD platforms, preferably within NSWC Crane mission areas (EW, sensors, weapons, or expeditionary systems).
- Strong background in full-lifecycle digital engineering, including model-based design, rapid prototyping, hardware-in-the-loop testing, and configuration management.
- Hands-on proficiency with modern programming languages (C/C++, Python, Java) and HDL/tool flows for FPGA or ASIC development, plus experience integrating COTS single-board computers and networking hardware.
- Prior success coordinating manufacturing, installation, and sustainment activities with multi-company teams, ensuring interface compliance and producibility.