#qilimanjaro

[govindhtech]

Qilimanjaro’s EduQit for Quantum Education in Barcelona

Barcelona introduces Qilimanjaro's modular “build-your-own” quantum computer for quantum education.

Qilimanjaro Quantum Tech launched EduQit to transform quantum physics education. This innovative modular quantum computing kit supports early-stage research, experiential learning, and practical training at academic and research organizations. By delivering an on-site superconducting quantum computing device, the business intends to give students some real-world experience with quantum hardware.

Addressing Quantum Science's "Theory Gap"

Quantum education has struggled with abstraction for years. Most current academic courses require theoretical models, software simulators, or cloud-based quantum computer access. These tools help students grasp algorithms, but they often disconnect them from the technology.

EduQit seeks to solve this ongoing issue. Most students never see the “guts” of the machines they build, so they miss out on vital knowledge about how quantum systems are built, run, and maintained. Hardware, software, and Qilimanjaro's skilled instructors make up the EduQit bundle. Due of its open architecture, academics and students can study a quantum computer's design and hardware tuning for research.

Tech Depth: Beyond Simulator

EduQit's modular design exposes hardware systems that simulators cannot. Students using the kit will learn cryogenics, qubit control circuits, and complex calibration methods to ensure system performance.

This practical experience includes:

Hardware and Control Systems: Understanding their electrical and mechanical components. Operations: Learning daily quantum system maintenance.

Application development involves writing and testing code on a physical system including environmental and noise variables.

Success at Barcelona University

Strategic applicability is already evident. At the University of Barcelona, Professor Bruno Julià Díaz coordinates the interuniversity master's degree in Quantum Science and Technology, collaborating with Qilimanjaro's hardware. He says these modular systems have given his students, notably master's theses students, a “system-level understanding” that is rare in academia.

Professor Julià Díaz emphasizes the importance of practical experience for students transitioning from academic study to managing and advancing quantum technologies. EduQit also allows adjustable qubit modality comparison and technology development.

Research in Multiple Modes

EduQit's integration with Qilimanjaro's ecosystem has progressed. Even though the kit has an on-site infrastructure, institutions can use SpeQtrum over the cloud. Remote operations and performance assessments can supplement local, on-site studies.

Its “multi-modal” architecture is key to Qilimanjaro's technology. It enables digital, analog, and hybrid quantum computing. Researchers can choose the analog or digital computation platform that best suits their use case due to this versatility. Qilimanjaro focuses on fluxonium-based analog circuits for faster and more scalable solutions than digital methods.

Strategic Goals and Global Impact

Qilimanjaro Quantum Tech, created in 2019, democratizes quantum access in Barcelona in two ways. SpeQtrum and EduQit provide QaaS for supercomputing and research hubs.

The launch of EduQit represents a commitment to ecosystem growth as well as business. By supporting workforce development and academic, industry, and public stakeholder interaction, Qilimanjaro supports national and international technical sovereignty and sustainable skill-building.

Sustainable computing resources for everyone are the company's main goal to meet the demands of a digital society. Qilimanjaro is becoming a prominent player in “computing of the future” after opening the world's first multimodal quantum data center in late 2025 and partnering with CERN's Open Quantum Institute.

In conclusion,

A workforce that knows hardware and software will grow as the quantum sector expands. Qilimanjaro's EduQit offers “build-your-own” materials to prepare the next generation of engineers and scientists for this technological frontier. Quantum training institutes may need to go from simulations to physical, modular hardware to stay ahead.

[govindhtech]

Qilimanjaro 2025: Advances in Multimodal Quantum Computing

In 2025, quantum technology company Qilimanjaro achieved several milestones related to its fluxonium qubit design, which is stable and error-reducing. The first multimodal Quantum Data Center in Europe, in Barcelona, combined high-performance classical resources with digital and analog processors to boost hardware capabilities. To provide this infrastructure, they launched QiliSDK, an open-source software toolkit for hybrid quantum workflow researchers and developers.

Strategic partnerships with CERN and Hospital del Mar have proved their technology' versatility in medical surgical scheduling and particle physics. The successful deployment of quantum systems through massive European innovation efforts and team expansion enabled these technological advances. Qilimanjaro's proprietary software, cutting-edge chip architecture, and cloud-based access made it a hybrid quantum computing pioneer.

European Innovation’s New Home

Qilimanjaro opened its multimodal Quantum Data Center in Barcelona's 22@ innovation zone, the year's biggest milestone. Additionally, this lab has a strong infrastructure that can house ten quantum computers. The center's fusion of analog and digital superconducting processors with HPC resources lets users match computing workloads with the most efficient gear.

This strengthens European technical sovereignty and makes Catalonia a quantum research hub. SpeQtrum Quantum-as-a-Service (QaaS) allows chemistry, AI, and materials science universities, research facilities, and businesses to access the facility.

Machine Heart: Fluxonium

The fluxonium qubit drove Qilimanjaro's hardware success. The more popular transmon qubit is used by competitors, but Qilimanjaro's architectural choice has improved accuracy and stability. Fluxonium gives more stability and cleaner control, resulting in quieter, more accurate calculations, according to the company's 2025 study.

The millisecond coherence proof was a technical achievement this year. This lifetime is one of the longest for superconducting qubits and provides a solid foundation for hybrid (digital-analog) and scalable analog systems. The company released QiliSDK, an open-source Python framework, alongside this hardware. As a "unified software stack," this toolkit lets developers handle circuits and Hamiltonians in one place and swap between CPU, GPU, and QPU backends.

National Initiatives and Strategic Infrastructure

The Barcelona Supercomputing Center boosted Qilimanjaro's public-private partnerships in 2025. EuroQCS installed an analog quantum computer at the BSC and improved cryogenic equipment and shielding.

In the meantime, Quantum Spain began its last delivery. This project will establish two 20–30 qubit digital quantum computers at the BSC. The BSC plans to run three quantum machines—two digital and one analog—to demonstrate that quantum computing may be utilized as a supercomputing accelerator.

Measureable Effects: Public Health to High-Energy Physics

Qilimanjaro worked with top colleges to demonstrate the technology's practicality.

Qilimanjaro helped CERN and the Open Quantum Institute rebuild ATLAS detector tracks using "Quantum Reservoirs," an analog technique. This cooperation used Quantum Extreme Learning Machines for image categorization to show that analog systems can handle particle physics' severe inference problems.

Healthcare with Hospital del Mar: The company solved Barcelona public health issues. The partnership optimized medicinal materials, drug-design procedures, and operation scheduling with quantum optimization to boost surgical capacity by 30%. Two patents increased efficiency and reduced saturation in patient recovery units. Also see Scialog QMI Awards $1.1M to Quantum Innovation Researchers.

Globalization and Ecosystem Development

Internally, the company has grown rapidly. The team swelled to 74 professionals this year, providing the scientific depth for its “full-stack” strategy. This information was presented globally by Qilimanjaro personnel at 78 international events like MWC Barcelona, the APS March Meeting, and the International Year of Quantum.

Strategic relationships have expanded the company. Qilimanjaro, a European ecosystem staple, collaborated with Qblox on control systems and joined IMPAQT in Delft as its lone hybrid full-stack integrator. It also worked with the GSMA Quantum Network Services working group to shape quantum infrastructure.

Considering 2026

As 2025 winds down, Qilimanjaro prepares to expand its SpeQtrum platform, which will enable digital, analog, and hybrid processing worldwide. The company's successful transition from theoretical conceptions to supercomputing center multi-qubit systems lays the groundwork for the “next stage of our journey” in 2026.

[govindhtech]

Oxigen Data Center With Qilimanjaro For Quantum Data Center

Qilimanjaro and Oxigen Data Centre Build Europe's Quantum-Ready Data Centre Infrastructure

Oxigen and Qilimanjaro

Oxigen Data Centre and Qilimanjaro Quantum Tech are exploring multimodal quantum computers for commercial data centres in a new strategic relationship. This partnership lays the groundwork for hybrid quantum infrastructure.

Focus on Hybrid Infrastructure:

The alliance integrates multimodal quantum computers into commercial data centre infrastructure. They use analogue quantum systems with digital and conventional resources to support hybrid quantum–classical computing environments. Both Barcelona-based companies want to construct the future European quantum cloud.

As the computer landscape transforms to a hybrid classical–quantum paradigm, industrial integration of classical and quantum technologies must be clearly defined. Despite their scaling stage, quantum computers must be integrated, built, and run in practical infrastructures now.

Focus on Hybrid and Analogue Systems

The integration study will focus on Qilimanjaro's analogue quantum computers, which require less error correction than digital ones. Analogue and digital quantum computers will be in the new system under investigation.

Analogue quantum computing excels at simulating physical systems, materials, and molecules, a continuous and complex task. It also offers powerful new methods for training AI models and addressing large-scale optimisation challenges, enabling faster, more energy-efficient computing. Qilimanjaro's analogue systems offer immediate benefits in artificial intelligence, optimisation, and simulation, where digital quantum processors (QPUs) suffer with scalability and fault tolerance.

Goals and Method:

Partners will collaborate on education. This strategy involves determining the characteristics quantum systems must meet to perform successfully in modern commercial data centres and investigating the operational frameworks, interfaces, policies, and standards data centres required to support quantum technology. The ultimate goal is to develop a centralised, hybrid system with digital and analogue quantum computers for all industries.

Future Hybrid Backbone Definition

The partnership's immediate goal is to determine Europe's quantum-ready data centre infrastructure, operational, and technical needs.

“The future of computation will be hybrid,” said Marta P. Estarellas, CEO of Qilimanjaro Quantum Tech, emphasising the need to define how quantum processors and classical machines interact, scale, and function in data centre architecture.

“Quantum computing will soon be part of the digital backbone,” stated Oxigen Data Centre CEO Benjamín Rovira Guasch, highlighting the strategic importance of anticipating future technology. He added that knowing how to integrate these devices into infrastructures provides the future cloud ecosystem an edge.

The partners will cooperate to learn the operational frameworks, policies, interfaces, and standards data centres need to support quantum technologies. In addition, they will define the conditions quantum systems must meet to work in modern commercial data centres. The ultimate goal is a hybrid, centralised system that every industry can use.

Qilimanjaro and Oxigen Data Centre are making Barcelona and Europe a quantum cloud innovation hub through their alliance. This will enable future consumers to access classical and quantum computation via a single, scalable infrastructure.

[govindhtech]

CERN Quantum Computing Partnership With Qilimanjaro

Qilimanjaro Joins CERN OQI to Democratise Quantum Utility

CERN Quantum Computing

In a historic step, Qilimanjaro Quantum Tech joined the Open Quantum Institute (OQI), a CERN project, to accelerate quantum technology adoption. This collaboration seeks to dramatically improve quantum resource access, especially Qilimanjaro's multimodal analogue digital computing platform. The partnership positions Qilimanjaro to democratise and properly manage the quantum era globally.

The decision is crucial to quantum computing development. Even though the technology has great potential to promote drug development, material science, optimisation, and machine learning, the highly specialised and expensive hardware risks creating a technological gap. By joining the OQI, Qilimanjaro is directly devoting resources to address the resource gap for researchers, institutions, and emerging economies to co-design and implement the next generation of quantum applications.

SpeQtrum QaaS: Promotes ‘Access for All’

The partnership strengthens the OQI's mission, based on the "4 A's." Qilimanjaro directly supports the second pillar, Access for All. This pillar aims to enable global cloud access to quantum computers.

SpeQtrum, a proprietary QaaS platform, is being contributed by Qilimanjaro. SpeQtrum's remote access to an advanced, on-premise multimodal quantum data centre overcomes institutional and geographic barriers. This ensures high-performance environments for all continents.

Kilimanjaro's accessibility is powered by SpeQtrum. SpeQtrum's simple interface breaks down technical barriers to exploration. It targeted universities, government labs, and industrial research teams. The multimodal data centre lets customers remotely test and prototype hybrid algorithms. These applications use traditional supercomputers for control and data processing but assign the most computationally demanding steps to the quantum processor. The platform also lets researchers assess performance across analogue, digital, and classical computing modalities for a task to help define the “quantum advantage” for certain use cases.

Quantum computing becomes a global utility with cloud-based platforms, instead of a proprietary asset that costs millions to buy and maintain. This accelerated discovery phase benefits many UN Sustainable Development Goals (SDG) programs, including climate modelling, which requires faster and more detailed molecular interaction simulations.

The Power of Multimodal Architecture: Analog-Digital

Qilimanjaro's unconventional quantum hardware approach supports a multimodal analogue digital computing platform over a single-focus digital method. This technological duality makes the company's solution appealing for quick application.

Standard digital quantum computers use programmable qubits and quantum gates to form a universal quantum circuit. Quantum error correction (QEC), which involves massive processing cost to overcome qubit instability, is preventing this innovative technology from being implemented.

Analogue quantum computers contain complex challenges into its mechanics. Barcelona-based Qilimanjaro uses fluxonium superconducting devices for this analogue approach. Xtronium qubits' exceptionally stable design reduces circuit-level error rates. By avoiding digital systems' high QEC, this method can lead to major applications years before digital-only roadmaps. Analogue quantum systems have short-term advantages in simulation, optimisation, and artificial intelligence where digital QPUs are inadequate or need large overhead.

Qilimanjaro's architecture optimises each computer modality by cleverly combining various resources inside a single environment:

Analogue QPUs (Fluxonium): They solve specific issues with great fidelity to give AI, simulation, and optimisation applications a short-term edge.

We use commercial digital QPUs for general-purpose quantum activities.

Classic HPC Resources: The classical elements of hybrid quantum-classical algorithms, which are expected to power future quantum computers, require these.

OQI Global Blueprint reinforcement

Qilimanjaro's participation strengthens the other three OQI pillars beyond Access for All.

Accelerating Humanity Applications comes first. This promises to leverage quantum innovation to address UN Sustainable Development Goals (SDGs) challenges. Qilimanjaro's near-term applicable technology can solve real-world optimisation and simulation problems such generating carbon capture materials, optimising global supply networks, and developing sophisticated diagnostics.

Development of training programs and instructional materials for worldwide participation is the third pillar, Advancing Capacity Building. Qilimanjaro will support OQI's outreach and dissemination activities as part of the cooperation, helping to train future quantum scientists and engineers, especially in under-represented fields. Programming and using quantum computers require talent.

The Activating Multilateral Governance pillar makes the OQI a vital, impartial platform for global conversation on responsible quantum expansion. Due to quantum technology's ethical implications and potential dual-use, a global framework is needed. This partnership provides technological expertise to shape these crucial talks.

"They are dedicated to making quantum technologies accessible, responsible, and impactful," said Eva Martín, Head of Innovation at Qilimanjaro. Qilimanjaro offers a multimodal analogue digital approach to support the OQI's global mission and lead to significant applications Marta P. Estarellas, Qilimanjaro's CEO, stressed impact, responsibility, and accessibility.

This collaboration makes access, a major impediment, a key part of quantum technology's roadmap. The relationship between a multilateral, science-driven organization like the OQI at CERN and a deep-tech quantum hardware firm like Qilimanjaro shows a growing awareness that transparency and accountability are necessary for a practical quantum future. It is a calibrated mix of modern hardware and global public health. The global scientific community can now use multimodal quantum computing.

[govindhtech]

Qilimanjaro Opens New Quantum Data Centre In Barcelona

Barcelona Opens Multimodal Quantum Data Centre: Qilimanjaro Opens First Hybrid Data Centre

Qilimanjaro Quantum Tech reached a milestone in the global battle for quantum dominance this week by opening the first multimodal Quantum Data Centre. This facility is the first multimodal quantum infrastructure in Europe and located in Barcelona's fast-growing technological district. The center's hybrid computing ecosystem aims to accelerate quantum application development.

With space for ten quantum computers, the ambitious facility will serve thousands of consumers across the continent. Its "multimodal" nature combines strong classical HPC with simultaneous, integrated access to digital and analogue quantum computers. By matching the specific computing requirements of each use case from basic research to sophisticated industrial optimisation with the greatest hardware, this synergistic combination lets users avoid the drawbacks of single-modality systems.

According to Qilimanjaro Quantum Tech CEO Dr. Marta P. Estarellas, the debut changed the industry. She added the centre is more than a technology facility and acts as an open ecosystem for industry, science, and governmental institutions to prepare for the future. Dr. Estarellas said quantum computing is already influencing innovation. The facility provides a hybrid quantum-classical environment to help organisations bridge theoretical research and practical applications.

Analogue Advantage: Today's Issues Advanced analogue quantum computing platforms are Qilimanjaro's main differentiator. These systems use error-resistant fluxonium-based analogue chips. Since scalability, decoherence, and error tolerance limit the practicality of the current generation of universal digital Quantum Processing Units (QPUs), this focus is crucial.

Analogue quantum systems offer a complementary path ahead. Modelling and solving complex physical difficulties is ideal for these platforms. Their ability to simulate molecules, innovative materials, and complex physical systems speeds up discovery cycles in materials science and medicine. Analogue quantum computing offers fascinating new ways to swiftly and effectively train complicated Artificial Intelligence (AI) models, as even the most powerful conventional supercomputers cannot tackle large-scale optimisation problems. This specialisation leads to faster, more energy-efficient, and cheaper computer systems in the future.

In particular, 2019-founded Qilimanjaro builds integrated, error-resistant quantum computers for faster and more scalable solutions than digital quantum approaches.

Democratic Access Through Dual Strategy

The Qilimanjaro strategy emphasises accessibility. Through SpeQtrum, its QaaS platform, the company aims to democratise quantum capabilities. With SpeQtrum's safe, cloud-based access to the multimodal Quantum Data Centre in the new data centre, European businesses, research institutes, and academic institutions can easily utilise digital, analogue, and hybrid quantum computing.

Qilimanjaro now uses two techniques in addition to QaaS. This technique also includes on-premise system development. National research organisations and major supercomputing facilities can modularly integrate analogue and digital QPUs with these systems. This means that massive public facilities requiring specialised hardware and agile startups using remote access can use quantum technology tailored to their needs. By providing industry and academics with sustainable computational resources and meeting the needs of a digital society, this plan intends to make quantum computing more accessible.

European sovereignty's foundation

This modern facility enhances European technical sovereignty beyond Qilimanjaro's business ambitions. Quantum technologies improve Catalonia's status as a deep-tech investment and research hotspot.

Initiative receives significant institutional support. The Department of Business and Labour under Avançsa and ACCIÓ (Agency for Business Competitiveness) offered vital support to Qilimanjaro. Spanish Society for Technological Transformation is a key ally.

SETT's Business Development Officer, José María García Orois, underlined the commitment, identifying Qilimanjaro's growth as a future-focused company and technical innovator since its foundation in 2019. Orois stated that “SETT has not only invested in Qilimanjaro, but is steadfastly committed to supporting the company through its next stages of growth, which already position it as one of Europe’s leading references in quantum technologies.”

Catalan Minister for Business and Labour Miquel Sàmper praised the company's achievements as regional growth. Sàmper calls Qilimanjaro “a clear example of what we are capable of achieving when the country's scientific and technological talent finds support, trust and opportunities for growth.” He noted that the Catalan government supports this goal and wants to build a strong digital and technical environment to attract investment, retain talent, and create high-quality opportunities.

Building Future

The Quantum Data Centre symbolizes a new era of government-business-science partnership for a sustainable and responsible future. The development of next-generation materials, precise optimisation of energy networks and logistics processes, dramatic reduction of AI development resources, and other practical applications of quantum technology are laying the groundwork for future computing.

With the launch, Europe reaffirms its commitment to leading science and innovation, ensuring that the quantum revolution's benefits are seen soon and sustainably. The centre heralds a new era of cooperation and social advancement in European technology.

[govindhtech]

DAQC Solve NISQ Limits with Continuous Analog Entanglement

The digital-analog quantum computing technology from Qilimanjaro promises an expedited practical advantage.

DAQC stands for Digital-Analog Quantum Computing.

Digital-analog quantum computing, or DAQC, is a hybrid approach in quantum technology that deliberately combines the benefits of digital and analogue quantum computation. Years before entirely digital roadmaps, DAQC seeks to develop more efficient, scalable quantum algorithms and offer a practical computing advantage over current noisy devices.

DAQC is achieved by fusing the precision of digital logic with the power and realism of analogue physics.

The mechanism of hybridisation

The fundamental DAQC model makes use of specific roles played by each computing paradigm:

Analogue Subsystems: These subsystems manage intricate multi-qubit interactions. Instead of using time-consuming gate sequences, analogue quantum computing continuously modifies the physical properties of the system to replicate actual quantum dynamics. This enables complex, many-body problems to be natively encoded into the device.

Digital Control: This is used for precise single-qubit local operations.

By combining digital control and analogue dynamics, DAQC conducts multi-qubit entangling operations as continuous analogue evolutions, replacing lengthy chains of discrete gates.

Getting Past NISQ Limitations

Near-Intermediate Scale Quantum (NISQ) technology failures are mostly caused by two-qubit gate errors, restricted coherence periods, and calibration overheads.

DAQC promptly addresses these challenges:

Reduced Error Rates: By replacing long chains of discrete gates with continuous analogue evolutions that carry out multi-qubit entangling operations, DAQC significantly lowers the overall error.

Faster Computation: Due to a reduced wall-clock period, calculations can be completed within the device's important coherence windows.

Cost Efficiency: By improving noise resilience and reducing circuit depth, calibration and runtime overheads are decreased. Because fewer repetitions are needed to achieve target accuracy, consumers ultimately pay less for cloud execution.

Before fully error-corrected quantum computers are widely used, Qilimanjaro says this hybrid architecture offers a feasible path to useful quantum computing.

Investigation and Use

The concept of DAQC has strong underlying support. In 2020, fundamental research developed universal DAQC techniques that demonstrated the use of a fixed, Ising-type analogue resource to interleave single-qubit rotations. Simulations showed that these DAQC circuits outperformed equally expressive all-digital circuits by a significant margin under comparable issue sizes and realistic noise settings.

Significantly, a digital–analog implementation of the Quantum Fourier Transform (QFT), the basis of Shor's prime factorisation approach, demonstrated better fidelity under actual noise in 2020 as opposed to a fully digital QFT. As the number of qubits increased, accuracy really increased as well. This finding implies improved scaling for techniques based on phase estimation.

In 2024, hardware-level comparisons on superconducting prototypes confirmed these findings. In terms of fidelities across representative single- and two-qubit noise channels, digital–analog realisations of QFT and phase estimation generally performed better than their digital-only equivalents. When researchers successfully paired a universal set of gates with a calibrated, chip-wide analogue evolution in superconducting devices in 2025, they further highlighted the scale and breadth that digital-analog computation offers, reaching beyond-classical regimes even with minimal analogue control.

Significant Progress in Quantum Machine Learning (QML) Techniques

DAQC is predicted to be advantageous for Quantum Machine Learning (QML) methods. This synergy arises because the digital layer allows for the rapid production of data-encoding states, while the initial analogue Hamiltonians can act as rich reservoirs or continuous-time feature maps.

This provides a substantial effective depth at a fixed gate count. Furthermore, by treating the evolution periods and qubit couplings as trainable parameters, the system may generate expressive machine learning models with fewer parameters and lower compilation overhead than fully digital QML approaches. In structured analogue dynamics, device noise may serve as implicit regularisation, improving trainability and reducing the issue of barren plateaus. Together, these features suggest improved learning capabilities and increased cost-efficiency for short-term quantum machine learning (QML) applications.

(Qilimanjaro's SpeQtrum) Implementation

Qilimanjaro's SpeQtrum integrated platform instantly incorporates the DAQC paradigm. This unified framework gives customers a single point of access through the usage of digital QPUs, CPUs, and GPUs as well as Qilimanjaro's differential analogue quantum architecture.

SpeQtrum allows users to easily switch between native analogue evolutions and gate-based operations while developing and executing digital-analog algorithms on the same superconducting quantum substrate. This unified architecture makes it possible to explore a wide range of application cases, such as machine learning, optimisation, and quantum simulation (especially for materials and chemistry), without the need for separate hardware or complex workflows.

Flexibility is maintained by DAQC's multimodal control technique; for instance, analogue blocks can be co-designed or exchanged as necessary. Since the same computational stack can be utilised for both error-mitigation now and future error-corrected modes later, migration becomes simpler as hardware technology develops. Qilimanjaro believes that by combining digital flexibility and analogue efficiency under one roof, DAQC brings the power of this hybrid approach to actual, useful experimentation today.

[govindhtech]

Qilimanjaro Debuts QiliSDK Toolkit for Hybrid Quantum System

QiliSDK, an open-source toolkit that unifies hybrid digital-analog quantum workflows, is released by Qilimanjaro.

Qilimanjaro Quantum has announced a significant expansion of its product line with the release of QiliSDK, an open-source Python framework designed specifically to integrate digital, analogue, and hybrid quantum algorithm generation. An important step that shows Qilimanjaro's commitment to providing adaptable, full-stack tools required to achieve practical quantum computing is this modular software development kit (SDK). Accelerating algorithm development and moving from theoretical concepts to simulation and, ultimately, real hardware implementation are the objectives of the QiliSDK launch.

The QiliSDK is the primary entry point to Qilimanjaro's cutting-edge multimodal quantum data centre. The distinctive feature of this data centre is that it is the first in the world to combine analogue QPUs, superconducting digital QPUs, and traditional High-Performance Computing (HPC) accelerators into a single, integrated system. The SDK gives users direct access to the heart of Qilimanjaro's infrastructure.

A Single Platform for Streamlining Workflow

With the integration enabled by QiliSDK, researchers and developers may effectively prototype, implement, and optimise quantum workflows on both simulation environments and real hardware. In addition to more conventional systems like CPUs and GPUs, the SpeQtrum platform offers access to a range of supported execution environments, including Qilimanjaro's own superconducting QPUs.

One of QiliSDK's primary benefits is its modular architecture. The SDK is easily integrated with a variety of quantum platforms due to its fully backend-agnostic design. This adaptability is further increased by high-level abstractions for crucial quantum elements including gates, circuits, Hamiltonians, and optimisers. Additionally, by supporting complex concepts like Pauli algebra, variational programs, and integrated visualisation tools, the SDK's expressive syntax makes the entire quantum development cycle easier.

David Arcos, Director of Software at Qilimanjaro Quantum Tech, highlighted the main goal of the new toolkit. He stated that the company's goal with QiliSDK is to make it easier to design quantum algorithms in all paradigms, including hybrid, circuit-based, and Hamiltonian-based ones. Customers can "move effortlessly from simulation to real hardware with complete transparency and control" using the tools, Mr. Arcos emphasised.

Among the main features included in QiliSDK are:

A single quantum workflow API that manages digital, analogue, and hybrid processing.

Coherent backend switching capabilities allow switching between CPU, GPU, and QPU devices using integrated backends such as the CudaBackend and Qilimanjaro SpeQtrum devices.

A variational program's interface designed specifically for hybrid quantum–classical optimisation.

A model toolbox for complex mathematical models and optimisation.

Integrating visualization tools for scheduling and integrated circuits.

Innovative Co-Design of Analogue

Qilimanjaro keeps moving forward with the objective of developing a practical quantum advantage with its own analogue co-design approach. The QiliSDK is in a position to greatly aid in this mission.

Qilimanjaro employs fluxonium analogue qubits in full-stack quantum computers using a dual technology approach. This technique was developed specifically to eliminate the need for extensive error correction. Analogue quantum computers can generate more stable qubits and fewer circuit-level errors by inherently encoding complex challenges into the physical system itself. This architecture is believed to offer instant advantages in crucial fields including simulation, optimisation, and artificial intelligence (AI), where ordinary digital QPUs could normally require a large overhead due to error correction requirements.

By employing a multimodal approach that blends analogue QPUs, digital QPUs, and conventional supercomputers, the Qilimanjaro platform is made to maximise the utility of any system. Finding real computational value years ahead of roadmaps that solely target digital systems is the aim of this combined approach. The QiliSDK is the tool that makes it easy for developers of quantum applications to access this computational value because of its high-level abstraction and Python syntax.

Interoperability and Upcoming Versions

Qilimanjaro has already set lofty goals for the future development of QiliSDK. The functionality of the toolkit will be significantly increased in future iterations.

Among these expected advancements are pulse programming and enhanced support for digital-analog hybrid processes. Additionally, future versions will have noise-aware modelling. Industry standards such as OpenQASM 3.0 and QIR will be supported to guarantee robust, cross-stack compatibility. One of the main goals is to guarantee seamless integration and compatibility across different quantum stacks.

The advent of QiliSDK accelerates the development of quantum algorithms across all paradigms, including circuit-based, hybrid, and Hamiltonian. By enabling unified workflows, coherent backend switching, and variational hybrid programming, the toolkit is anticipated to expand access to Qilimanjaro's unique analogue co-design technique and accelerate the shift to practical quantum computing.

[govindhtech]

Qilimanjaro Quantum Tech & Qureca Quantum Effort Worldwide

In Glasgow and Barcelona, Qilimanjaro Quantum Tech and QURECA Ltd. forged a major partnership. This strategic cooperation aims to accelerate quantum training, education, and talent development worldwide. Partners and Specialties

Integrating the two organizations' respective strengths underpins the collaboration:

Qilitech Quantum

Barcelona-based Qilimanjaro Quantum Tech does full-stack quantum computing. The company develops hybrid and analog quantum computing devices. Qilimanjaro Quantum Tech, founded in 2019, develops fluxonium analogue qubit full-stack quantum computers and its famous chips. The company provides on-premise full-stack and adaptable quantum integration solutions for HPC centers and research institutes as part of its dual technology approach. SpeQtrum QaaS also allows remote hybrid quantum data center access.

Qrecica Ltd.

Spanish and UK-based QURECA provides career assistance and quantum resources worldwide. To grow the quantum technology ecosystem, the company provides expert services, resources, and training. QURECA creates specialized workshops, events, and educational and training opportunities to bridge government, academia, and industry.

Partnership information

In response to global need for quantum workers, the alliance brings together industry, academia, and the next generation of quantum professionals.

Main contributions and activities:

For its hybrid platform SpeQtrum QaaS, Qilimanjaro Quantum Tech will offer hands-on hardware. Thanks to this platform, students and professionals can immediately interact with cutting-edge quantum computing systems that integrate analog, digital, and classical supercomputers. Real hardware, not simulations, is needed for students to understand quantum system constraints, noise, and problems. QURECA will offer educational content and courses and its global expertise in professional certification, skills development, and quantum training. Based on their experience, they will create organized, accessible, and effective training programs.

Collaboration includes material development, workshops, and instructional endeavors. Educational endeavors will focus on analog and hybrid quantum computing.

Strategic Justification and Tech Priority

Promoting the cooperation is vital to reducing the quantum research-real-world application gap. Qilimanjaro Quantum Tech's focus on analog and hybrid technology underpins the partnership's teaching. Analogue quantum computing has many technological advantages, which the presentation will highlight:

Analogue quantum computers naturally encode complex issues, resulting in more stable qubits and smaller circuit faults.

Error Correction Ignored: This approach avoids the complex error correction needed by ubiquitous digital systems like quantum gates and programmable qubits. Analogue quantum systems offer short-term advantages in modeling, optimization, and artificial intelligence where digital Quantum Processing Units (QPUs) may not satisfy needs or incur significant overhead. Qilimanjaro Quantum Tech uses digital, analog, and classical supercomputers in their hybrid strategy. This aims to maximize system usability and unlock computational value years ahead of digital-only roadmaps.

CEO Views:

“By partnering with QURECA, they can help shape a stronger, better-prepared quantum workforce equipped to make meaningful contributions,” said Qilimanjaro Quantum Tech CEO Marta P. Estarellas. QURECA's CEO and creator, Araceli Venegas-Gomez, said the relationship is driven by empowering people and establishing impactful training pathways that connect research to industry needs. Effects are greater In banking, medicine, materials research, and logistics, the alliance should expedite quantum knowledge transfer from lab to practice. The connection exposes students to cutting-edge designs to prepare the quantum ecosystem for the quantum revolution and broaden their perspectives and talents. QURECA's broad network trains new quantum communities well, democratizing quantum knowledge worldwide.