1

Junior Rtl Design Engineer Jobs in Springfield, VA

Design Engineer 5 - Tysons, VA

Tysons, VA · On-site

$101K - $138K/yr

We design, build, operate, and maintain cyber-physical solutions for the nation's most mission ... Directs more junior engineering team members through the project lifecycle to achieve engineering ...

Showing results 41-60

Junior Rtl Design Engineer information

See Springfield, VA salary details

$35K

$75K

$114.4K

How much do junior rtl design engineer jobs pay per year?

As of Aug 18, 2026, the average yearly pay for junior rtl design engineer in Springfield, VA is $74,996.00, according to ZipRecruiter salary data. Most workers in this role earn between $50,700.00 and $83,600.00 per year, depending on experience, location, and employer.

What is a junior RTL design engineer?

Junior RTL Design Engineers are entry-level professionals who work on designing and verifying the Register Transfer Level (RTL) logic for digital integrated circuits. They typically use hardware description languages like Verilog or VHDL to describe and simulate the functionality of hardware blocks according to specifications. Their responsibilities often include coding, simulation, debugging, and collaborating with senior engineers to ensure the design meets performance and functional requirements. This role is crucial in the process of creating chips and digital systems used in various electronic devices.

What are the key skills and qualifications needed to thrive as a junior RTL design engineer?

To thrive as a Junior RTL Design Engineer, a solid background in digital logic design, hardware description languages (such as Verilog or VHDL), and a relevant engineering degree are essential. Experience with simulation and synthesis tools (like ModelSim, Synopsys, or Xilinx Vivado) and a basic understanding of ASIC or FPGA flows are typically required. Strong analytical thinking, attention to detail, and effective teamwork skills help individuals excel in translating specifications into efficient hardware designs. These skills ensure accurate, reliable, and high-performance digital circuit development, which is crucial for meeting project goals and industry standards.

What are some common challenges faced by junior RTL design engineers when transitioning from academic projects to industry roles?

Junior RTL Design Engineers often find the transition from academic projects to industry roles challenging due to the increased complexity and scale of commercial designs. In industry, there is a strong emphasis on meeting strict timing, power, and area requirements, as well as adhering to rigorous verification and documentation standards. Collaboration with verification, physical design, and software teams is essential, and juniors may need to quickly adapt to using industry-standard EDA tools and workflows. Gaining proficiency in debugging and understanding legacy codebases are also typical hurdles. However, most teams provide mentorship and structured onboarding to help new engineers succeed.

What is the difference between Junior Rtl Design Engineer vs Digital Design Engineer?

AspectJunior Rtl Design EngineerDigital Design Engineer
Required CredentialsBachelor's in Electrical Engineering or related field; some certificationsBachelor's or higher in Electrical/Electronic Engineering; certifications vary
Work EnvironmentDesign teams in semiconductor or electronics companiesDesign and development teams in similar industries
Employer & Industry UsageCommonly employed in chip design, FPGA, ASIC developmentUsed in digital circuit and system design across industries

Both roles involve digital circuit design, but Junior Rtl Design Engineers focus more on RTL coding and verification, while Digital Design Engineers may handle broader digital system development. The roles often overlap in skills and work environment, with the main difference being scope and experience level.

What are popular job titles related to Junior Rtl Design Engineer jobs in Springfield, VA?

For Junior Rtl Design Engineer jobs in Springfield, VA, the most frequently searched job titles are:

What job categories do people searching Junior Rtl Design Engineer jobs in Springfield, VA look for?

The top searched job categories for Junior Rtl Design Engineer jobs in Springfield, VA are:

What cities near Springfield, VA are hiring for Junior Rtl Design Engineer jobs?

Cities near Springfield, VA with the most Junior Rtl Design Engineer job openings:

Infographic showing various Junior Rtl Design Engineer job openings in Springfield, VA as of August 2026, with employment types broken down into 87% Full Time, 8% Part Time, and 5% Contract. Highlights an 85% Physical, 4% Hybrid, and 11% Remote job distribution, with an average salary of $74,996 per year, or $36.1 per hour.

Electrical Systems Design Engineer - Defense Prototyping

KFORM Defense

Sterling, VA • On-site

$150K - $200K/yr

Other

Posted 4 days ago


Job description

Design systems that move from concept to the field—fast

Kform is a next‑generation defense manufacturer partnering with leading defense and dual‑use startups to transform advanced ideas into production‑ready hardware. We span design, engineering, prototyping, manufacturing, quality, and production readiness so critical products make it from whiteboard to real‑world use.

If you thrive on building, learning at speed, and delivering under demanding timelines, you’ll fit right in. Our customers can’t wait years—our work helps them win in weeks.

A day in this role

Morning: you sketch a concept, jump into CAD, translate it into an ECAD design in Altium, and align on interfaces with embedded teammates. Midday: you’re on the bench with a prototype—probing signals, iterating layouts, and capturing test notes. Afternoon: you walk the shop floor to gather manufacturability feedback, update documentation, and brief suppliers. Before you wrap: you push a design review, mentor a junior engineer through a debug plan, and log lessons learned so production can move cleanly.

What you’ll tackle
  • Own end‑to‑end development of multidisciplinary hardware: mechanical subassemblies, electronic architectures, embedded controls, fixtures, test assets, and production‑ready components.
  • Design electronics in ECAD (primarily Altium), collaborating tightly with mechanical and firmware teams.
  • Bridge decisions across mechanical, electrical, software, manufacturing, and quality to optimize the full system.
  • Rapidly prototype proof‑of‑concepts using hands‑on fabrication, electronics, test equipment, and iterative build‑measure‑learn loops.
  • Develop, integrate, or support embedded software to connect electromechanical systems into functioning prototypes and products.
  • Plan and execute verification for performance, reliability, durability, manufacturability, and safety—then analyze results, isolate failure modes, and drive evidence‑based design changes.
  • Create clear documentation of intent, revisions, test results, tradeoffs, and lessons so designs transfer smoothly into production.
  • Partner with manufacturing, quality, supply chain, and program teams to improve designs for manufacturability, assembly, inspection, cost, schedule, and reliability.
  • Model strong engineering practice while mentoring junior teammates in problem solving, documentation, and ownership.
  • Independently lead smaller projects from ambiguous requirements to delivered outcomes.
  • Continuously improve Kform’s engineering and manufacturing systems.
Who will excel

You bring deep technical strength in one core discipline—often electrical or mechanical—and genuine curiosity across the rest. You like to understand the entire machine, make smart tradeoffs with imperfect data, and turn ambiguity into momentum. You can:

  • Develop designs at a workstation and reason through schematics and system implications.
  • Debug prototypes methodically at the bench.
  • Walk the production floor to capture actionable feedback.
  • Inspect parts, run tests, and communicate your reasoning clearly.

Best fits are curious, practical, disciplined, and biased toward action.

Minimum qualifications
  • Bachelor’s in Electrical Engineering, Mechatronics, or related technical field.
  • 3–5 years in product design, hardware development, prototyping, test, or multidisciplinary engineering.
  • Strong capability in at least one core discipline (ideally electrical or mechanical).
  • Working knowledge spanning embedded software, electronics, mechanical design, manufacturing, quality, test, and systems integration.
  • Advanced proficiency in Altium or a comparable primary design tool.
  • Hands‑on experience with rapid prototyping, fabrication tools, electronics, test equipment, and physical hardware.
  • Clear documentation skills across design intent, revisions, results, and decisions.
  • Proven problem solving and the ability to operate independently within a multidisciplinary team.
Preferred qualifications
  • Early‑stage, founding, or high‑ownership startup experience.
  • Background in defense, aerospace, robotics, industrial automation, advanced manufacturing, or other regulated sectors.
  • Familiarity with AS9100, quality systems, configuration control, production documentation, and design release.
  • Experience with DFM/DFA/DFI, reliability, and cost optimization.
  • Track record of taking hardware from prototype to production readiness.
  • Ownership of small engineering projects from concept through build or release.
  • Demonstrated interest in manufacturing, American industry, defense technology, and tough technical problems.
  • Strong communication with engineers, operators, customers, suppliers, and leadership.
Skills that matter here
  • Deep strength in one discipline with range across the full product lifecycle.
  • Electrical design literacy and ECAD collaboration in Altium.
  • Embedded development, integration, or debug.
  • Prototype build, assembly, instrumentation, and test.
  • Design for manufacturability and production readiness.
  • Technical documentation and configuration discipline.
  • Analytical thinking, practical judgment, and attention to detail.
  • Urgency matched with engineering rigor.
  • Ownership, follow‑through, and a drive to build products that matter.
Working environment
  • Frequent hands‑on work with prototypes, electronics, tooling, machinery, test and inspection equipment, and production hardware.
  • Regular time on your feet assembling, testing, troubleshooting, and operating near active manufacturing and prototyping areas.
  • Use of PPE as appropriate for tasks, equipment, and workspace.
  • Occasional travel for customers, suppliers, testing, or program needs.
How we operate

We prize continuous improvement, aggressive value creation, and extreme ownership. We’re building the infrastructure and execution engine to bring advanced defense products to production faster—by caring about details, respecting the customer, and delivering, every time.

Tools and proficiencies
  • Electrical Schematics
  • CAD Software
  • Electrical / Electronic Systems
  • Engineering Degree
  • Electrical Engineering
  • IoT Engineering

Machines & technologies: Altium, ECAD