The Kingdom is aligning policy, research, energy systems and industrial partnerships to operationalise quantum technologies, positioning Saudi Aramco and national institutions at the centre of an emerging global paradigm

Saudi Arabia is systematically advancing a national quantum economy strategy aligned with Vision 2030 economic diversification and technology leadership goals, seeking to harness quantum technologies across research, industry and government infrastructure.

A quantum economy refers to an ecosystem in which quantum computing, sensing and communications form a foundational technological layer that generates measurable economic value, supported by workforce development, hardware innovation and commercialisation pathways.

A global framework outlined in the World Economic Forum’s (WEF) Quantum Economy Blueprint defines a quantum economy as an ecosystem in which quantum hardware, software, infrastructure and applications generate measurable economic value across multiple sectors.

These technologies exploit quantum mechanical phenomena, such as superposition and entanglement to perform tasks that either exceed the practical limits of classical computing or offer qualitatively new capabilities in secure communications and ultra-precise sensing .

Saudi Arabia’s initiative positions national institutions, universities and industry players to accelerate capability development and deploy quantum applications that can transform core sectors including energy, materials science, logistics and infrastructure.

Linked to the Kingdom’s broader technology and industrial policy objectives, the effort reflects an attempt to shape future high-impact economic clusters through coordinated investment, research infrastructure and international collaboration.

STRATEGIC FRAMEWORK FOR NATIONAL QUANTUM CAPABILITY

The Saudi quantum strategy emphasises five key pillars: Talent development, research capacity expansion, hardware innovation, commercialisation infrastructure and public engagement.

Universities such as the King Fahd University of Petroleum and Minerals (KFUPM) are expanding specialised curricula in quantum computing and related disciplines, and national training programmes including hackathons and workshops with technical institutes are designed to expand the domestic talent pool.

The overarching policy documents highlight workforce capacity as a foundational constraint in quantum technology uptake and thus frame education and certification as strategic infrastructure rather than peripheral initiatives.

To centralise and accelerate development, proposals include a dedicated quantum foundry capable of enabling fabrication, testing and prototyping of quantum processors and subsystems.

Such infrastructure is intended to reduce entry barriers for domestic researchers and small enterprises, consolidating highly specialised equipment and expertise in a shared facility.

The national coordination body for Fourth Industrial Revolution (4IR) technologies has been tasked with stakeholder mapping and governance frameworks that aim to align government, academic and private sector actors toward common performance metrics and commercial targets.

The Centre for the Fourth Industrial Revolution Saudi Arabia (C4IR Saudi Arabia) has led the national Quantum Economy project, coordinating stakeholders and mapping capabilities to establish baseline readiness metrics.

Public engagement forms a parallel track of strategy. Large-scale national events such as World Quantum Day, co-ordinated with educational campaigns and industry roundtables, are intended to build societal awareness and stimulate early adoption within the research and entrepreneurial communities.

Policymakers emphasise that a ‘quantum-literate’ workforce and society will be critical to sustaining long-term innovation output and integrating emerging technologies into everyday economic activity.

INDUSTRIAL DEPLOYMENT & ARAMCO’S INITIATIVES

Industrial partnerships are central to converting quantum research into operational capacity, particularly within energy and manufacturing domains.

Saudi Aramco is a key actor in this transition, signalling a strategic shift toward embedding quantum computing capabilities into its digital infrastructure.

In November 2025, Aramco and Pasqal announced the successful deployment of Saudi Arabia’s first quantum computer, and the Middle East’s first quantum system dedicated to industrial applications, at Aramco’s data centre in Dhahran, a pivotal milestone in the regional technology landscape.

The quantum computer, based on neutral-atom technology, was developed in partnership with Pasqal and represents a platform for advancing applications across energy, materials and industrial optimisation challenges.

This system can control 200 qubits in programmable two-dimensional arrays and is intended to support advanced quantum algorithms as well as training programmes and joint research opportunities for Saudi engineers and scientists, strengthening the Kingdom’s quantum ecosystem and high-tech talent pipeline.

The partnership builds on earlier strategic investment by Wa’ed Ventures, Aramco’s venture capital arm, which invested in Pasqal in January 2023 and has supported localisation of Pasqal’s technologies and operations in Saudi Arabia.

This development aligns with Aramco’s digital strategy to leverage advanced technologies to enhance operational efficiency, accelerate innovation and unlock value across its business portfolio.

The project not only represents a technological milestone but also illustrates the practical orientation of Saudi quantum deployment, focusing on near-term industrial impact rather than distant theoretical research alone.

Industrial quantum computing provides a framework for addressing complex optimisation problems that are pervasive in energy systems.

Legacy hydrocarbon extraction and upstream reservoir models involve extremely large parameter spaces that challenge classical supercomputers; quantum approaches can, in certain cases, explore these spaces simultaneously, offering potential acceleration of simulations and optimisation tasks.

In logistics and supply chain planning, quantum algorithms could enable faster route and resource allocation decisions, improving operational efficiency across sprawling energy infrastructure.

Furthermore, quantum-enhanced materials modelling can accelerate the discovery of catalysts and novel materials relevant to both hydrocarbon processing and emerging energy vectors such as hydrogen and advanced battery systems.

Beyond computing, quantum sensing technologies offer measurement precision that can exceed classical instrumentation.

For a resource-rich country with extensive geological exploration needs, quantum sensors could improve subsurface imaging and resource characterisation accuracy, potentially informing future critical minerals development, a sector of growing interest as global demand for battery and semiconductor materials increases.

The Kingdom’s approach also recognises the importance of secure communications in an era of accelerating digital exchange.

Quantum communication protocols offer theoretically unbreakable encryption, forming the backbone for future secure national infrastructure.

Pilot collaborations within flagship initiatives such as NEOM aim to integrate quantum encryption into smart city frameworks, reflecting an anticipatory stance toward cybersecurity challenges that could arise with quantum-capable adversaries.

DECISION DRIVERS, CHALLENGES & FORWARD IMPLICATIONS

Saudi Arabia’s quantum strategy is driven by multiple considerations: Economic competitiveness, technology sovereignty, workforce development and integration within global value chains for emerging technologies.

Early adoption and capability building may attract international research partnerships, enhance foreign investment appeal and position the Kingdom as a regional hub for quantum innovation.

A structured national programme reduces risks associated with fragmented development and enables coherent governance of cross-sectoral demand signals. However, there remain inherent challenges.

Quantum hardware development requires extreme environmental conditions, specialised fabrication and precise control systems, presenting barriers to rapid scaling.

Workforce shortages persist, as quantum engineering requires deep interdisciplinary expertise.

The proposed centralised infrastructure and talent pipelines aim to mitigate these constraints, yet sustaining momentum will require continuous investment and iterative policy calibration.

In the energy sector, quantum technology may initially contribute to efficiency improvements in established fossil fuel operations while driving innovation in new energy systems.

For example, simulations of hydrogen storage materials and renewable energy grid optimisation could benefit from quantum-enabled computation.

Similarly, quantum sensors may enhance environmental monitoring and emissions tracking, aligning with sustainability objectives.

Saudi Arabia’s integration of quantum technologies within its industrial digital transformation mirrors broader global trends but is distinguished by the emphasis on near-term industrial applications and ecosystem building rather than purely academic advancement.

The Kingdom’s efforts encompass talent development, infrastructure creation, international partnerships and pilot deployments, creating an integrated framework for future growth.

By embedding quantum technology within core economic sectors, Saudi Arabia seeks to ensure that emerging quantum capabilities contribute meaningfully to national competitiveness and technological resilience in the decades ahead.

By Abdulaziz Khattak