August 18, 2025
The field of quantum technologies is growing, but not as many headlines suggest. It's not creating millions of jobs today. Instead, it's changing industries incrementally and building momentum carefully. Industries are starting to explore how quantum tools help solve complex problems, and they're asking what kind of people they'll need to implement advancements.
Currently, many quantum jobs are still located in research labs, academic institutions, and a growing number of companies focused on hardware and software development. But that landscape is beginning to broaden. In 2025 and the years that follow, more roles are expected to emerge where quantum meets real-world applications across a variety of industries.
Jobs That Build the Bridge
One clear sign of change is the rise of "bridge" roles. These are people who understand enough about quantum to work with technical teams but also add other skill sets. That includes project managers, policy analysts, technical writers, product designers, and professionals in regulatory or customer-facing positions.
In pharmaceuticals and materials science, for example, companies are exploring how quantum tools might support faster and more detailed simulations of complex molecular systems. Rather than hiring physicists en masse, organizations see the need for professionals who can span disciplines, ask good questions, and integrate quantum-based insights within broader workflows. A recent peer-reviewed article in ACS Chemical Reviews outlines how quantum neural networks on gate-based quantum computers are becoming central to early-stage drug discovery, particularly in molecular property prediction and generative modeling tasks (ACS Chemical Reviews). That sounds technical, but the teams who execute and see this work through to completion and application end up employing different skill sets. Quantum enhances the process, and people help harness this newfound power.
These themes are echoed in a recent white paper from qBraid and SC Quantum, which looks at how early quantum platforms are being tested for pharmaceutical discovery. The article points to South Carolina's emerging role in this landscape, and highlights how academic and research institutions are collaborating with tech partners like qBraid to translate complex scientific concepts into practical use cases (SC Quantum).
The same is happening in aerospace and finance. These industries are often cited as early adopters, and for good reason. A 2025 open-access review in Computational Economics highlights how quantum computing is beginning to influence finance workflows, especially in derivative pricing, risk management, and portfolio optimization. These shifts require professionals who can bridge traditional systems with emerging quantum capabilities (Computational Economics).
Technical Talent Still Matters, But It's Shifting
There is strong demand for technically skilled workers in quantum, particularly those with backgrounds in physics, engineering, math, and computer science. Even so, that demand is changing. Companies are seeking hybrid skill sets. They are looking for people who are literate in quantum development frameworks and who also understand cloud computing, AI, or specific industry needs.
This trend is part of a macro shift in the tech world. Quantum engineers rarely work in isolation. They are part of cross-functional teams where understanding hardware limits or software integration is just as important as writing quantum code. McKinsey's 2025 Quantum Technology Monitor shows how investment and innovation across quantum computing, sensing, and communication are scaling rapidly. They project a combined market value of up to 97 billion dollars by 2035, with quantum computing taking the lion's share. This momentum is driving demand not just for physicists or engineers but for adaptable professionals who can span domains and lead collaborative teams (McKinsey & Company).
Employers are also becoming more flexible about academic credentials. Microcredentials, certificates, and hands-on project experience are gaining weight, especially for early-career roles or technical support positions. Without an advanced degree, relevant experience becomes pivotal to joining and helping quantum-based teams. What often matters most is a person's ability to work on complex problems with others, not whether they followed a specific educational path.
Education and Awareness Are Still Catching Up
One of the biggest challenges in building a quantum workforce is simply getting the word out. Most students and many educators haven't had much exposure to quantum concepts. That gap makes it harder to prepare a wide talent pool, especially in regions where technical programs are limited or underfunded. Increasing quantum literacy is a fundamental goal for immediate and long-term regional prosperity.
Local and regional partnerships are stepping in to help fill the gap. South Carolina is one of several places where quantum is starting to show up in education and workforce planning. The focus isn't limited to researchers. These efforts are also reaching teachers, community college students, and working adults who are looking to build new skills for real-world applications.
A 2026 article in the Journal of Economy and Technology points to a growing role for quantum in applied research. The authors note that progress won’t just depend on researchers. It will also require educators, technicians, and systems thinkers who can help put new tools to use in real settings (Keaipublishing.com).
What to Watch Moving Forward
If you're a student, educator, or employer trying to understand where quantum careers are heading, here are a few areas to keep an eye on:
- Interdisciplinary learning: Whether you're in business, healthcare, engineering, or design, pairing your core expertise with some exposure to quantum concepts can open doors.
- Regional programs: Look for pilot projects, community partnerships, or state-level initiatives that bring quantum into schools, training programs, or industry conversations.
- Applied problem-solving: The most successful quantum careers may not start with quantum itself. They might begin with real-world challenges like supply chain efficiency, medical imaging, or encryption and grow from there.
Quantum careers are not about chasing trends. They are about noticing a quiet shift that is starting to affect industries across the board. The field doesn't need everyone to become a physicist. But it does need people who are curious, collaborative, and ready to build something new, even if the whole picture isn't visible just yet.
Dave Alsobrooks
Director of Communications, SC Quantum
dalsobrooks@scquantum.org