United States
$130k–$200kMid–senior quantum engineering in major hubs, 2024–25.
Experiment deadlines and startups can extend hours.
Quantum Engineer · Builds, measures and controls devices that exploit quantum states for computing, sensing, communication and materials research.
Darker cells mean a higher score for this topic on that metric.
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Quantum engineers build and operate hardware that uses quantum states. Depending on the platform, they fabricate nanostructures, align lasers, design microwave electronics, cool devices to millikelvin temperatures, write calibration software and analyze measurement data. The goal is usually to improve fidelity, coherence time, yield or control rather than to write a consumer application.
A PhD is common for research and device-architecture roles, especially in quantum physics, but not universal. Bachelor’s and master’s graduates enter as electronics, software, cryogenic, photonics and test engineers. The closer a role is to inventing a qubit or interpreting fundamental experiments, the more likely advanced graduate training is expected.
It is useful as a research platform and for selected demonstrations, but broad, fault-tolerant commercial advantage remains unproven. Current devices are noisy and small compared with the error-corrected machines many algorithms require. Quantum sensing and communications may reach practical niches sooner because they can exploit a specific physical advantage without a universal computer.
Linear algebra, quantum mechanics, electromagnetism, statistical mechanics, programming and experimental methods are central. Electrical engineers need microwave, RF and control knowledge; photonics engineers need optics; materials engineers need fabrication and characterization. The field rewards people who can move between equations, instruments and code without treating any one as someone else’s problem.
AI can assist experiment scheduling, parameter optimization, literature search and data classification. It cannot independently establish that a noisy physical measurement is trustworthy, repair a cryogenic system, or take responsibility for a device design. The work is resistant because it joins novel science with hands-on experimental judgment, though routine analysis will accelerate.
In the United States, mid-career quantum hardware and software engineers commonly earn roughly $120,000–$200,000 in the mid-2020s, with higher packages at well-funded companies. University and public-lab roles pay less but offer research access. European and Asian salaries vary with national research systems and the scarcity of experienced cryogenic or photonics specialists.
Quantum engineering is a small, specialized market with high pay for scarce hardware and software experience. Public laboratories, universities and startups compete for many of the same people.
The market is sensitive to research funding and venture cycles, so transferable RF, photonics, cryogenic and semiconductor skills provide resilience.
Typical early quantum hardware and software band, mid-2020s.
Several years of specialized lab or device experience.
Experienced quantum, photonics and cryogenic talent.
Senior technical contributors at funded companies.
Rare technical leadership packages, mid-2020s.
Typical mid-to-senior packages, hours and leave — not entry stipends. Figures are rounded bands with a year and market in the notes.
Mid–senior quantum engineering in major hubs, 2024–25.
Experiment deadlines and startups can extend hours.
Mid–senior semiconductor and quantum-adjacent roles, 2024.
Research and corporate hierarchy can increase pressure.
Mid–senior advanced electronics and research roles, 2024.
Lab culture varies greatly by institution.
Mid–senior quantum and photonics engineering, 2024.
Strong leave norms; doctoral roles pay less.
Mid–senior quantum hubs and startups, 2024.
University and startup schedules differ sharply.
Mid–senior quantum and research engineering, 2024.
International research teams and deadlines shape hours.
Large company and startup quantum engineering, 2024–25.
Research and industrial quantum engineering range.
Quantum hubs around universities and startups.
Research and advanced-electronics engineering range.
Semiconductor and research-institute engineering range.
Research, university and regional technology roles.
Develops superconducting quantum systems and cloud access.
Researches superconducting processors and error correction.
Builds trapped-ion quantum computers.
Develops trapped-ion hardware and quantum software.
Dutch research center for quantum computing and networks.
Japanese national research institute with quantum programs.
Demand is real but narrow: laboratories need specialists, while product markets are still developing. Semiconductor, RF, photonics and scientific-software experience create the strongest adjacent options.
Governments fund quantum programs for science, communications and strategic capability, but hiring can be volatile when research budgets or startup financing change.
Closest neighbours on the six-score profile — not the same field only.
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AI-resistant 68