Physics
for quantum theory and experimentsBuilds the mathematical and experimental base for qubits, atoms and photonics.
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.
LessMore
Last reviewed Sources & creditsMedia creditsMethodology
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 has a high academic barrier because it combines advanced physics with practical engineering. Most people specialize through a physics, electrical-engineering or materials-science degree and laboratory work.
The decisive gate is evidence of experimental or technical depth: a research placement, fabrication experience, software contribution or graduate project that shows more than familiarity with buzzwords.
Build calculus, linear algebra, programming and electromagnetism foundations.
The filterStrong university admission in mathematics and physics.
Study physics, electrical engineering, materials or computer engineering.
The filterAdvanced laboratory and quantum-mechanics coursework.
Join a university or industrial lab to learn instruments, data and reproducibility.
The filterSupervisor selection and safety training.
Specialize in a platform, control system, device or algorithm.
The filterResearch proposal, qualifying exams and thesis work.
Own subsystem design, measurements and technical decisions under senior review.
The filterReproducible results and design reviews.
Sets platform strategy and coordinates physics, fabrication and software teams.
The filterSustained technical leadership and peer credibility.
Costs range from publicly funded graduate stipends to expensive US undergraduate degrees. Research assistantships often fund doctoral study, but the opportunity cost is substantial.
Builds the mathematical and experimental base for qubits, atoms and photonics.
Covers RF, circuits, signal processing and embedded control.
Studies defects, thin films and nanostructures that determine device performance.
Supports compilers, simulation, error correction and control software.
Provides linear algebra, optimization and numerical methods.
Major quantum-information and engineering research programs.
Home to the Institute for Quantum Computing.
Strong quantum-device and information research.
Leading trapped-ion and quantum-network research.
Known for quantum nanoscience and hardware.
Major quantum physics and technology research.
Strong physics and semiconductor research.
Connects quantum research with German industry.
The standard research credential for many hardware and architecture roles.
Required locally before working independently in microfabrication facilities.
Required training for laboratories using hazardous optical systems.
Professional education that supplements, rather than replaces, laboratory experience.
RF, nanofabrication and test engineers can move into quantum-device teams through platform training.
Experienced simulation or control developers can enter quantum software and instrumentation roles.
Closest neighbours on the six-score profile — not the same field only.
Designs, analyzes and certifies the aircraft, rockets and spacecraft that leave the ground, working to safety margins that leave no room for guessing.
AI-resistant 74 🧠Diagnoses and treats mental illness through medication and therapy, one of medicine's only specialties with legal authority to detain a patient in crisis.
AI-resistant 73 👔Advises clients, drafts the documents that bind them, and argues their case when it reaches court — carrying personal legal liability if the advice is wrong.
AI-resistant 58 💱The scholar of scarcity — from Adam Smith's pin factory to the central-bank decision room, still asked to predict what no model fully captures.
AI-resistant 62 🧫Uses clinical, trial and health-system data to generate reliable evidence for safer care, research and operational decisions.
AI-resistant 68 🩺Diagnoses illness and manages health for years afterward through examination and evidence, not a single operation — medicine's generalist and long-term guide.
AI-resistant 67Derives and tests the mathematical laws governing matter, energy, space and time, from a lone chalkboard to a 3,000-author particle-collider paper.
AI-resistant 65 🧬The scientist who studies life itself, from Linnaeus naming species by hand to editing genomes with CRISPR, still testing every idea against a living organism.
AI-resistant 64 🧪The scientist who makes and measures matter itself — from Tapputi's Babylonian perfume still to today's robot laboratories, still the one who decides what the spectrum means.
AI-resistant 70 📊Finds patterns and builds predictive models from data — a 2008 job title built on three centuries of counting, testing and visualizing evidence.
AI-resistant 38 🔭The scientist who measures the universe, from Babylonian clay tablets to space telescopes, still deciding which flicker in the data is a discovery.
AI-resistant 70 🧮From Babylonian scribes to Fields medalists and AI-assisted proof: the profession that turns hard questions into permanent certainty, one theorem at a time.
AI-resistant 70 🧫Uses clinical, trial and health-system data to generate reliable evidence for safer care, research and operational decisions.
AI-resistant 68