How to Hire FPGA Engineers in 2026

Last updated: May 19, 2026 | By Tom Kenaley

FPGA engineers in 2026 cost $135K to $190K mid-level and $190K to $260K senior in the United States, with cleared defense seats running 12 to 25 percent above the band and most well-scoped searches closing in 6 to 12 weeks. The job title hides a five-track career split that almost no hiring manager names out loud, and the clearance question reshapes the candidate pool faster than any other variable on the req.

A new FPGA intake call this year almost always opens with “we need someone strong in Verilog who can hit the ground running on a Versal program.” That sentence describes three different humans. One is an RTL designer who closes timing on a clean SystemVerilog block at 500 MHz and writes the constraint file in her sleep. One is a verification engineer who lives in UVM, formal, and SystemVerilog assertions, and who has not pushed a synthesizable design in two years. One is an embedded systems engineer who runs Linux on the ARM cores of a Zynq UltraScale+ MPSoC and treats the programmable logic as a peripheral. All three are real, all three are expensive, and the JD has to pick one as the primary scope before sourcing starts.

Tom Kenaley at KORE1. We have placed hardware design, FPGA, and ASIC talent into defense primes, AI infrastructure teams, high-frequency trading shops, and aerospace programs across thirty-plus U.S. metros for the better part of two decades. Our 92% twelve-month retention rate on direct hires is something we earn by scoping the role honestly before the first resume hits the inbox. We place this work through our engineering staffing agency and our IT staffing services practice, including the cleared and ITAR-restricted seats that the largest job boards simply do not surface. Fee on a close. No charge to scope the search. What follows is the conversation I run with hiring managers on the first or second intake call.

“FPGA Engineer” Hides Five Career Tracks That Rarely Overlap

FPGA has been a recognizable career for thirty years and the talent pool has fragmented along five reasonably clean lines. Most of the hiring pain in this category comes from job descriptions that pretend the lines are not there. The designer, the verification engineer, the DSP/algorithm engineer, the SoC software engineer, and the application engineer share a working vocabulary. They do not share a daily reality, and they do not share a comp band.

Here is how we sort the req before any sourcing call. Lock one track as the primary scope. A secondary lane is fine. The screening loop has to reflect the mix.

A senior RTL designer can read a UVM testbench. He has probably never written one with sequence libraries, scoreboards, and constrained-random coverage closure that ran for forty-eight hours on a verification farm without a hang. A senior verification engineer can describe what timing closure looks like in theory. She has probably never spent the last week of a program fighting hold violations on a clock-domain crossing that synthesized cleanly but met no constraint that the static timing analyzer recognized as plausible. Both candidates are real, both are valuable, and the JD has to commit to which one the team is actually trying to hire.

One pattern I see often. The hiring manager wants the verification lead. The JD reads like a designer with a verification afterthought tacked on at the end. The recruiter screens for designers. The technical interview tests verification depth. Three weeks in, no offers, everyone is confused. The fix is one paragraph at the top of the JD that names the primary track in writing. Honest scoping beats clever sourcing.

The Clearance Variable Reshapes the Pool Before Anything Else

FPGA is one of the few tech disciplines where the United States government is a primary buyer of the talent. Roughly half the FPGA roles we work in 2026 sit inside defense primes, intelligence community contractors, or the radiation-hardened aerospace supply chain. That changes the math on every other variable.

The cleared FPGA candidate pool is small. Tiny, by the standards of any commercial software discipline. A senior FPGA designer with active Secret clearance is rare. With active Top Secret, rarer. With TS/SCI and a current full-scope or counterintelligence polygraph, the pool in any given month is measured in low hundreds nationally. Companies competing on those roles do not compete on title or perks. They compete on schedule alignment, classified program reputation, and on whether the candidate’s spouse wants to move to Huntsville or Melbourne or the I-95 corridor between Baltimore and DC. The recruiter who treats a cleared search the way she would treat a commercial cloud search will lose every time.

A few practical realities that I walk through with hiring managers on the first call.

• Clearance is not transferable on a timeline that helps you. A candidate with an inactive Secret from a program that ended four years ago will need a reinvestigation. That is six to fourteen months on the DCSA queue today, and the hiring company is paying for the seat to sit empty while the paperwork moves. If your program needs cleared bodies in week six, the candidate must have an active clearance now.
• US citizen does not mean cleared. Plenty of strong FPGA engineers are US persons in the ITAR sense and have never been through an SF-86. They are useful for unclassified work and ITAR-controlled work, but they are not eligible to walk into a SCIF on day one. Name the actual access requirement on the JD, not just “US citizen.”
• The polygraph stacks the deck differently. A TS/SCI engineer with no polygraph cannot work in a polygraphed SCI environment until the polygraph clears. That is another twelve to thirty months on the IC side. If the role needs a poly, the candidate needs the poly now.
• Cleared candidates do not browse LinkedIn the way commercial engineers do. The strongest cleared sourcing channels are referrals from current cleared employees, alumni groups from the major primes, and a handful of cleared-only job boards that the candidate population actually trusts. Cold outbound on LinkedIn is the slowest channel by an order of magnitude on a cleared search.
• The cleared premium is real and rising. We are running 12% to 25% above the commercial band on senior cleared FPGA seats in 2026, with the upper end on full-scope polygraph and rad-hard programs. The premium has grown in each of the last three years because the prime contractors and the hyperscaler defense subsidiaries are bidding against the same constrained pool.

If the work can be done on the unclassified side, say so on the JD. That decision alone widens the candidate pool by roughly an order of magnitude and shortens the search by months. If the work genuinely must run in a SCIF, scope the seat for someone already cleared and price the band accordingly. The middle ground, where the JD says “clearable” and the program treats clearance as a nice-to-have, is the configuration that drags searches past ninety days for reasons no one writes down.

What Five Salary Sources Report an FPGA Engineer Earns

No salary aggregator tracks “FPGA engineer” as a clean discrete title. Some bucket the role under computer hardware engineer. Some under electrical engineer. Some pull from job-post headlines that conflate the designer and verification tracks. The result is five sources, five different population samples, and a roughly $75,000 spread on the same title.

The KORE1 placed-base median on senior-tier FPGA engineers across the last twelve months sits at roughly $208K base on the commercial side and $235K base on the cleared side. That excludes equity. It excludes the recompete bonuses some primes are paying to retain TS/SCI talent. It reflects what midmarket and enterprise clients actually signed on a confirmed acceptance for a senior FPGA design or verification hire. For a hiring manager building a 2026 offer, the placed-base number is the cleanest apples-to-apples reference on the table. Use the salary benchmark assistant if you want a faster cross-check by metro.

The federal anchor is the Bureau of Labor Statistics Computer Hardware Engineers occupational code 17-2061, where the May 2024 median annual wage sits at $155,830 and 2023-to-2033 employment growth projects at 7%, about as fast as average. The 90th percentile clears $217,840. The federal number understates senior FPGA on the cleared side and on the AI infrastructure side because the BLS occupational survey samples broadly across all hardware engineering, and FPGA seats currently sit at the high-skill end of that distribution.

Salary by Track and Experience Level

Years on FPGA count for more than years in hardware generally. A board-design engineer with eight years on PCB layout and one year on Vivado is mid-level for an FPGA-specific seat. Senior comes from the harder things. Timing closure on a multi-clock design that crosses three asynchronous boundaries. UVM coverage closure on a deeply pipelined accelerator with a constrained-random regression that pulled three hundred test failures the first week. DSP pipelines that survived fixed-point quantization on real RF input. Hardware bring-up at four in the morning with a chipscope trace that does not match anything the simulator predicted. Those are the years that price a candidate at the top of the band.

Four factors swing the offer number more than anything else.

Clearance adds 12% to 25% as noted above. Active Secret moves the band by roughly 12%. Active TS or TS/SCI by closer to 18%. TS/SCI with full-scope polygraph by 22% to 25% on senior reqs. Inactive clearance does not move the number meaningfully until the candidate is reinvestigated and active again.

HFT and adjacent low-latency networking work moves the senior number up materially. A senior FPGA designer who has shipped a sub-microsecond market-data parser on an FPGA NIC at a trading shop will price ten to thirty percent above a senior designer on the same chip family at a defense prime. The HFT firms (Jane Street, Citadel, Jump Trading, IMC, Hudson River Trading, DRW, Tower Research) are bidding against a pool of maybe a few hundred engineers nationally and they have shown they will pay to win the bid.

AI infrastructure and inference-on-FPGA work is the newer premium. Senior FPGA engineers who can ship a quantized transformer inference pipeline on AMD Versal AI Engines or on an Achronix Speedster7t are pricing fifteen to twenty percent above the band, with cleared variants of that profile pricing further still. Customer-facing applications engineers at AMD Adaptive Computing or Intel Programmable Solutions Group anchor a different track entirely, mid $180s to mid $230s base with travel and commission on top.

Contract-to-hire conversions compress in this market. A senior FPGA engineer on a 1099 day rate of $170/hr will not convert to a W-2 base of $260K. The conversion math sits closer to $200K to $220K plus benefits. Write the conversion expectation into the engagement letter in week one. We have watched several C2H conversions stall in the last year because the math was not set at the start, and two of those candidates walked rather than accept what they read as a downgrade.

The Vendor Landscape Shifted in 2024 and It Matters for Sourcing

Two changes from the last eighteen months reshaped the senior FPGA profile in ways the aggregators have not caught up to. I screen against both on every senior intake in 2026.

AMD owns Xilinx, Intel spun out Altera, and Lattice owns the low-power middle

AMD closed the Xilinx acquisition in early 2022 and the brand is now AMD Adaptive Computing. The Versal Premium and Versal AI Edge product lines are where AMD is pushing its 2026 roadmap, with Versal AI Engines targeted at inference workloads that used to be GPU-only. Intel formally separated Altera back into a standalone company in 2024, and the Agilex family has carried that re-spun company’s investment since. Lattice has owned the small, low-power, instant-on segment for several years and continues to win design-ins where mWatts and millimeters matter more than peak FLOPS. Microchip’s PolarFire and SmartFusion live on the radiation-hardened and security-sensitive end, and the Microchip RTG4 still anchors a meaningful share of cleared aerospace programs.

What we screen for. The senior candidates who matter in 2026 have hands-on Versal experience, not just UltraScale+ familiarity. Agilex 7 and Agilex 9 candidates are real and growing but the bench is still thinner than AMD-side. Cross-vendor fluency is rare. A senior Vivado designer who has done a real Quartus port understands the constraint-syntax differences, the IP-block portability tradeoffs, and what the synthesis tools actually do differently under the hood. The bilingual engineers are valuable and underpriced relative to single-vendor seniors.

HLS finally went mainstream and the algorithm-to-RTL track came with it

High-Level Synthesis has been a vendor talking point for fifteen years. In 2026 it is a real production track for AI/ML inference pipelines and for parts of the DSP world that used to be hand-coded in Verilog. Vitis HLS, Catapult HLS, and Stratus HLS are the three tools that show up on most senior resumes, and there is a clear gap between engineers who have written C/C++ that successfully closed timing as HLS output and engineers who claim HLS experience on the strength of a vendor tutorial. The first cohort is small and well-paid. The second cohort is everywhere and the resume keyword does not distinguish them.

The senior signal is whether the candidate can articulate when HLS is the right tool. Real-time floating-point pipelines, complex algorithmic IP with limited resource sharing constraints, and neural network inference are the strongest cases. Bit-exact protocol implementations, ultra-low-latency networking, and any path where every cycle has to be defended against simulator drift are usually wrong cases. The candidate who recommends HLS for everything is in the same bucket as the candidate who refuses to consider it for anything. Both are wrong in the same way.

A Five-Step Process for Hiring FPGA Engineers

Five steps, in order. Each is something we walk through with hiring managers on the first or second intake call.

Step 1: Decide the track, the clearance posture, and the silicon family

Pick the primary track from the table at the top of this guide. RTL designer. Verification engineer. DSP/algorithm engineer. SoC software engineer. Applications engineer. Name the secondary in writing if there is one. Decide the clearance posture. Active required, inactive acceptable with reinvestigation budget, US person sufficient, or none required. Decide the silicon family. AMD Versal, AMD UltraScale+, Intel Agilex, Intel Stratix 10, Lattice CertusPro or Avant, Microchip PolarFire, or rad-hard like Microchip RTG4. Three decisions, in that order. They feed sourcing keywords, comp band, and the interview loop. Skip any one and the search drags.

The deliverable for this step is a three-sentence role summary. Track, clearance posture, silicon. Senior candidates self-qualify off that in thirty seconds and the wrong ones never apply.

Step 2: Set the comp band against the actual scope

Start with the salary table above. Adjust for clearance per the rules in the clearance section. Adjust for industry premium where HFT, AI infrastructure, or rad-hard aerospace command extra. Adjust for region. The Bay Area, Boston Route 128, and the Huntsville-Melbourne defense corridor each carry their own premium for senior FPGA, and they are not the same premium. Write the number down. Get engineering and finance to sign off on the band before the role gets posted.

Roughly half the stalled FPGA searches we get pulled into involve a salary band drafted nine months earlier against an aspirational JD that no longer matches the role the team actually needs. The first competing offer surfaces, the candidate counters, and the hiring manager learns in real time how far underwater the band was.

Step 3: Source against the scoped role, not the title

A Boolean string for “FPGA engineer” returns a noisy pile. A scoped Boolean returns a fraction with substantially better fit. For senior RTL designers, combine the silicon family, “timing closure,” “constraint” or “XDC,” and the protocol that matters for the role like “AXI” or “PCIe” or “Aurora.” For senior verification engineers, combine “UVM,” “coverage closure,” and the simulator the team uses. For HLS roles, combine “Vitis HLS” or “Catapult,” a real customer-domain keyword, and the algorithm class. For cleared roles, the keyword set narrows hard and the channel matters more than the keyword.

Channels matter as much as keywords. The senior commercial crowd surfaces in three places: GitHub repos for open-source HDL or Verilator commits, the FPGA subreddit and the Verification Academy forums, and conference speaker lists for DAC, DVCon, the FPGA Conference, and Hot Chips. Alumni networks at AMD Adaptive Computing (formerly Xilinx), Intel Programmable Solutions Group (now Altera again), Achronix, Lattice, and Microchip are reliable. On the cleared side, the strongest channels are referrals from current cleared employees, ClearanceJobs-style cleared-only boards, IEEE chapter networks in the defense corridors, and the alumni networks of the major primes: Lockheed Martin, RTX Raytheon, Northrop Grumman, L3Harris, BAE Systems, General Dynamics, and the cleared engineering subsidiaries of the hyperscalers. Mid-level candidates surface through LinkedIn, the FPGA-focused job boards, and on referral from senior engineers your team already worked with. Juniors come from electrical and computer engineering programs at schools with strong digital design tracks (Michigan, Illinois, CMU, Georgia Tech, Cal Poly San Luis Obispo, RIT, RPI, Texas A&M, Cal State Northridge, San Jose State) and from intern conversions at the same primes and semis the seniors graduated from.

Step 4: Interview structure that surfaces real signal

Build a four-round loop. Three is too thin for the senior reqs that touch timing closure, verification depth, or DSP intuition. Five is the wall. Past five, the candidates you actually wanted ghost for a competing offer that closed faster.

1. Recruiter screen. Twenty to thirty minutes. Confirm the track, the silicon, the clearance status, the seniority, the comp band, the location and remote posture, the staffing model. No technical interviewing here. Disqualify only on hard misalignment.
2. Technical conversation. Seventy-five to ninety minutes with the hiring manager and a senior engineer from the team. Skip the whiteboard for senior candidates. Pick one of the candidate’s real production FPGA programs and stay there for the hour. Timing closure incidents. The worst hardware bring-up bug she shipped a fix for. What the constraint file looked like for a multi-clock design she actually delivered. A few smart follow-ups will tell you more than any reductive design puzzle.
3. Practical exercise. Optional and tight. Sixty to ninety minutes, capped, with the prompt sent ahead. The version I like best for designers: a small SystemVerilog module with a subtle clock-domain bug the candidate is asked to find on a printout and explain how she would write the constraint for. For verification engineers: a small UVM testbench fragment with a coverage hole the candidate is asked to identify and propose closing. For DSP engineers: a fixed-point quantization scenario with a known SNR collapse the candidate is asked to debug. Compensate senior candidates for the hour. The pool talks to each other and a take-home that goes unpaid spreads in a way you do not want.
4. Cross-functional round. One hour. A board-level systems engineer, a software lead who consumes the FPGA’s interface, and a hiring manager from an adjacent team. Blast-radius thinking. Cultural fit. Comfort being on the FPGA team’s side of a contentious interface change.
5. Offer alignment. Optional fifth round. Short call between the candidate and a senior leader if comp will be tight. Faster than running every back-and-forth through the recruiter.

Step 5: Close on the candidate’s clock, not yours

Senior FPGA engineers are interviewing at three to five companies at once in this market, and on the cleared side the active-clearance candidates know exactly how thin the pool is. The window between final round and a competing offer is often a week. Sometimes less, on cleared. If you cannot move from final-round close to written offer inside three business days, you will lose candidates you wanted to hire.

A note that lands with hiring managers more often than not. When a candidate picks your offer over one with bigger cash, the deciding factor in the post-offer call is almost always the engineer she spoke to in the technical round. Not the brand. Not the perks. Build a technical hour that a strong candidate would walk away from energized about.

Interview Questions That Predict Production Readiness

A question like “what is a flip-flop” pulls answers off the textbook page. The candidate who memorized that page is not the one you want. Ask scenarios. Senior FPGA engineers earned their seniority by walking back something painful on a hardware bench at one in the morning, and the scar tissue from those nights is what you are really hiring for.

• “Walk me through your worst timing closure escape.” Listening for: pipeline depth awareness, clock-domain crossing instincts, constraint-file literacy, and whether the candidate can name the time her own change was the cause. The answer that begins “the constraint was wrong because” is the answer that tells you the most.
• “How did your team handle clock-domain crossings on the last design? Which ones did you not trust?” Filtering for: whether the candidate has owned the CDC strategy on a real design, whether she understands the difference between a two-flop synchronizer and an asynchronous FIFO at the level of bus widths and burst behavior, and whether she has been bitten by metastability in hardware rather than just on paper.
• “Tell me about a UVM coverage hole you found in regression.” Filtering for: hands-on functional coverage experience versus testbench skeleton familiarity. The candidates who shipped this work talk fluently about constrained-random generators that hit the corner the directed tests missed. The ones who have only read about it do not.
• “What is your read on HLS versus hand-coded RTL for this team in 2026?” Filtering for: ability to talk synthesis without slipping into vendor religion. Either direction is fine. The reasoning matters. Listen for whether the candidate names the application class where HLS is the right call and where it is a trap.
• “Describe a bring-up problem that the simulator did not predict.” Filtering for: hardware-in-the-loop intuition, comfort with ChipScope or ILA or SignalTap traces, and the candidate’s first instinct when the silicon disagrees with the simulator. Sometimes the answer involves a parasitic on the PCB. Sometimes it is a synthesis directive that the engineer learned the hard way to never trust.
• “How do you handle bitstream encryption and supply-chain integrity on this program?” Filtering for: whether the candidate has worked under DO-254 or ITAR or anti-tamper requirements and can talk about it without reading off a slide. Anyone who says “we just put the bitstream in flash and called it secure” is out for a defense or finance-critical role.
• “Tell me about an algorithm you ported from MATLAB to fixed-point RTL that did not survive the port.” Filtering for: quantization intuition, SNR awareness, and whether the candidate has watched a clean floating-point algorithm collapse on real input. The senior DSP engineers have a story here. The ones who only worked on the floating-point side rarely do.

Senior and staff candidates filter well off an eighty-minute technical conversation built around any three of those questions. Junior candidates need a hands-on exercise because their hardware-debug bench is too thin to read against. The mid-level tier is where I ask for both. The cost of getting it wrong is a six-month learning tax on the team that took the bad signal.

Where Most FPGA Hires Go Sideways

Four mistakes account for the searches that drag past ninety days in this category, and the same four show up in the post-mortems we run after a stalled req gets unstuck.

Filtering on Verilog syntax instead of design intuition. A senior FPGA engineer who has never wrestled with timing closure on a real multi-clock design will sink the search even if her Verilog is immaculate. The opposite is also true. We placed a senior verification engineer last year with only four years of full-time SystemVerilog but eight years of hardware bench debug on signal processing systems at a defense supplier in Huntsville. Her hiring manager understood that SystemVerilog idioms compound inside a sprint while the instinct for coverage modeling, hardware-software boundary debugging, and corner-case generation takes years to form. The seat closed in seven weeks. The reqs that flip those filters do not close.

Hiring “an FPGA engineer” without naming the silicon family. AMD Versal, UltraScale+, Intel Agilex, Intel Stratix 10, Lattice Avant, Microchip PolarFire, and Microchip RTG4 share a working vocabulary, then diverge sharply on tool flow, IP catalog, and what the synthesis tools actually do under the hood. The engineer who has only ever shipped on Vivado will surface that gap in week three on the job if the team is mid-program on Quartus. Name the silicon at the JD stage. Screen for production hands-on hours on the part family, not just tool familiarity.

Leaving the clearance decision for week three. The cleared and uncleared pools are different pools. A senior candidate with active TS/SCI will not appear in a normal LinkedIn search. A senior commercial candidate without a clearance will not pass the program’s security gate on day one. Pick the clearance posture at the JD stage and write it into the role summary. Otherwise the first three weeks of sourcing burn on the wrong pool, and the manager learns in week four that the candidate she liked best is uncleared and her program cannot wait fourteen months for an investigation.

Skipping the systems and software round. The FPGA engineer’s customer is usually a board-level systems engineer or a software lead who reads off the chip’s interface. The interview loop should include at least one of those people, asking the candidate what her interface handoff looks like and what she wishes the consumer side did differently. We added that round formally a few years ago and the false-positive rate on senior FPGA hires dropped enough that hiring managers stopped pushing back on the extra hour of load.

A second pair of eyes on a stuck FPGA req is worth the half hour. If your search has crossed sixty days without a final-round, or the JD reads like two roles got stapled together in a hurry, send us the role and a recruiter will walk through it on a call. The scope conversation does not cost anything. The placement fee only matters if you hire someone we introduced.

Things Hiring Managers Ask Us About FPGA Roles

How long does a senior FPGA engineer search take in 2026?

Six to twelve weeks for a well-scoped commercial req on AMD UltraScale+ or Intel Agilex. Add three to six weeks for cleared roles, longer for TS/SCI with polygraph. Add another two to four weeks if the role mixes the design and verification tracks without naming a primary.

The slow end is almost always something the company is doing to itself rather than something the candidate pool is failing at. A JD blending RTL design, UVM verification, and Zynq embedded software into a single paragraph that pretends they are one role. A pay band drafted by HR against a 2023 spreadsheet that no longer reflects what cleared programs are actually paying senior FPGA engineers in 2026. An interview loop that grew a fifth round because two adjacent stakeholders both wanted a vote. We have closed FPGA searches in five weeks and we have watched others stretch into a fourth month on roles that should have closed in eight. The fast ones share the same shape every time: one named track, a written comp band that the finance partner already initialed before sourcing began, a clearance decision made in week zero, four rounds run with respect for the candidate’s calendar, and someone in the room on the final call who can say yes without a follow-up.

Cleared or uncleared, which is harder to hire right now?

Cleared, by a wide margin. Active TS/SCI senior FPGA designers are scarce. Active TS/SCI with a current polygraph and recent hands-on Versal or rad-hard PolarFire experience is the hardest profile we work on, full stop.

The commercial pool is materially healthier than the cleared pool because the cleared population shrinks every year that programs run hot and graduates do not enter the prime contractor pipeline in proportion. If your program runs in a SCIF, plan for a longer search and a higher rate, and screen hard on real cleared program experience rather than the “interim Secret possible” candidates the keyword search will surface. If the work can be done on the unclassified side, say so. That decision alone widens the pool by roughly ten times and shortens the search by months.

Do I need a cleared engineer or can the work be done on the unclassified side?

Most FPGA work in defense and aerospace divides into a classified core and an unclassified periphery. The classified core has to be done in a SCIF by cleared bodies. The periphery, including a meaningful share of IP development, tool flow work, and pre-silicon verification, often does not.

If the program lead has not formally written down which deliverables require classified access, that conversation is worth a week of program-level effort before the JD goes out. Companies that scope the unclassified periphery as a separate role usually close it three to six weeks faster than the cleared seat and at a roughly fifteen percent lower comp band. The cleared headcount that remains becomes a focused, smaller search rather than a JD that fails to find a single qualified candidate in eight weeks.

AMD Versal, Intel Agilex, or Lattice, which closes the search faster?

AMD UltraScale+ has the deepest senior bench and closes fastest on commercial roles. Versal closes more slowly because the AI Engines piece is newer and the senior bench with shipped Versal designs is still building. Agilex is closing faster every quarter as Altera’s standalone investment shows up on senior resumes. Lattice closes on niche low-power roles where the candidate has shipped a real product.

If the company is pre-decided on silicon the answer follows that decision and the salary band, sourcing keywords, and interview loop bend to match. If the company is still choosing, the staffing math tilts toward AMD UltraScale+ for general-purpose programs because the candidate pool is deepest. Pick Versal if the AI Engines or DSP54 features are load-bearing for the design. Pick Agilex if a power or transceiver target is decisive. Pick Lattice if the form factor and standby power constraints are decisive. Pick Microchip PolarFire or RTG4 if rad-hard or anti-tamper is required.

What is the most common scoping mistake on an FPGA req?

Treating the RTL design and verification tracks as one role. The JD that mixes timing closure ownership with UVM testbench ownership almost always closes badly because the comp band, the screening loop, and the candidate sourcing channels only fit one of the two tracks.

The fix is the table at the top of this guide. Pick one track as primary. Name the secondary explicitly in writing. The candidates who actually live at the intersection know they are rare and price themselves there. The job description has to acknowledge the gap before sourcing starts.

Where do the strongest FPGA candidates come from in 2026?

For commercial roles, internal promotion off board-design, ASIC verification, and embedded software teams who have been writing RTL or testbenches in production for five or more years. For cleared roles, alumni networks at Lockheed Martin, RTX, Northrop Grumman, L3Harris, BAE Systems, and General Dynamics, plus referrals from active program staff.

University pipelines from Michigan, Illinois, Carnegie Mellon, Georgia Tech, Cal Poly San Luis Obispo, RIT, and the cleared-friendly programs at Texas A&M and Cal Poly Pomona produce capable juniors but rarely seniors. LinkedIn search is fine for mid-level on the commercial side. On the cleared side, LinkedIn is the slowest channel by an order of magnitude. The best senior cleared candidates surface through quiet referrals from engineers your team already worked with, cleared-friendly IEEE chapter networks in the defense corridors, and the cleared-only job boards that the population actually checks.

How does FPGA talent compare to ASIC design talent?

There is significant overlap on RTL design and verification skills. ASIC engineers can write Verilog and UVM at parity with FPGA engineers, sometimes better. The divergence is on the post-RTL flow. ASIC engineers know synthesis, place-and-route, and signoff for a fabrication target. FPGA engineers know the same flow against a target architecture that is already fabbed.

The right answer depends on the role. For a pure RTL design seat, ASIC-to-FPGA transitions are common and usually successful if the candidate is honest about the learning tax on vendor IP and constraint syntax. For a senior FPGA seat that owns the full bitstream-and-bring-up flow, ASIC candidates without FPGA-specific time will need a quarter to ramp. For a verification seat, the overlap is high enough that the question rarely matters. The shorthand I use on intake calls is that the further from RTL the role sits, the more meaningful the FPGA-versus-ASIC distinction becomes.

Most hiring managers reach out to us a week or two later than they should have. The signs are usually visible by week three of a stuck search and ignored until week seven. Our engineering staffing agency places FPGA, ASIC, embedded, and cleared hardware engineers across more than thirty U.S. metros, and the first call costs nothing. Bring the JD. We will tell you, candidly, what is wrong with it.