Think Quantum
Ready to think quantum?
Let us know what you want to decide, verify, develop, or learn. We’ll suggest the smallest meaningful next step—from a workshop and use-case discovery to a prototype or your own quantum lab.
For companies, schools, universities and research teams. From the initial decision, through writing your own code and running practical experiments, to a real-world use case validated on a quantum or hybrid system.
Quantum Strategy, Quantum Software and Quantum Education are delivered either as standalone services or as a single programme. This programme covers everything from identifying opportunities to a pilot, a real-world use case and the internal capability to continue.
Readiness assessment. Selection of relevant use cases. Technology scouting. A roadmap for organisations that want to make informed decisions about quantum.
Quantum circuits, hybrid algorithms, simulations, and integrations across classical environments, the cloud, and physical QPUs. All with comparable benchmarking and reproducible code.
Programmes for managers, developers, researchers, schools and universities are offered. We tailor the content, level of difficulty, and labs to participant roles and the specific objective.
We provide SpinQ desktop NMR quantum computers with 2–3 qubits for schools, universities, laboratories, science centres and corporate academies. Local systems are used by users to run physical experiments immediately, work with real measurements, noise, and calibration, and quantum physics is connected with programming. No cryogenic laboratory or cloud queue is required.
We connect technology platforms, industry networks, European initiatives, and universities. This allows us to bring software, QPU access, quantum-safe communications and education together in a single programme.
IQM
IQM: A European ecosystem of super-conducting quantum computers, research and quantum systems integration.
IBM Quantum
IBM Quantum Qiskit is a cloud-based service that provides access to quantum processors for testing, experimenting and benchmarking. For more information, visit
SpinQ
Desktop NMR quantum computers and experimental solutions for schools.
EuroQCI
A pan-European initiative to build a quantum communication infrastructure combining terrestrial fibre-optic networks with a space segment to protect sensitive data.
QUTE.sk
QUTE.sk is the Slovak National Center for Quantum Technologies. It supports research, development and practical applications of quantum technologies.
NATO TQC Industry Network
A transatlantic industry network that strengthens collaboration and helps bring quantum technologies into practical use.
QURECA
Specialised quantum education and training, as well as talent development programmes for companies, academic institutions and technology teams.
FIIT STU
Academic collaboration in computer science, quantum programming, algorithms and technical skills development.
FRI UNIZA
Technology collaboration focused on advancing quantum technologies and hands-on teaching using a physical desktop QPU.
Quantum technology is no longer just a research topic. The European strategy brings together science, infrastructure, industry, security and skills. A separate EU roadmap sets specific milestones for the transition to post-quantum cryptography.
The European Commission has adopted a strategy that aims to position Europe as a global leader in quantum technologies by 2030. It focuses on research, infrastructure, industrialisation, space and dual-use technologies, and skills development.
PQC replaces quantum-vulnerable public-key cryptography with algorithms designed to withstand attacks from a sufficiently powerful quantum computer. For companies, 2030 is a deadline for migration — not the date to start preparing.
Our focus is on problems where quantum computing could lead to completely new possibilities for computation and discovery. From optimization and simulation to AI, we are looking for use cases that could change the way we solve complex problems.
Optimisation problems arise whenever the goal is to choose the best solution from a large set of possibilities. Typical examples include production planning, logistics, scheduling and resource allocation. We explore quantum and hybrid algorithms as a complement to classical methods.
One of the natural application areas for quantum computing is the simulation of molecules and materials. The aim is to create more accurate models of electronic structure, reactions, catalysts and the properties of new materials.
In finance, we focus on problems involving many scenarios, constraints and uncertainties. These include portfolio optimisation, risk modelling, and the evaluation of complex financial scenarios.
The most practical value of quantum technologies today is the ability to learn how to work with them on real-world problems. Teams can build their own experiments, test algorithms on simulators and quantum processors, and create reproducible prototypes.
Quantum machine learning explores new ways to represent and process data using quantum circuits. Areas of particular interest include problems involving complex data structures, classification tasks and hybrid models that combine classical and quantum computation.
Ready to think quantum?
Let us know what you want to decide, verify, develop, or learn. We’ll suggest the smallest meaningful next step—from a workshop and use-case discovery to a prototype or your own quantum lab.
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