Quantum Leap: How Emerging Markets Are Shaping the Future of Quantum Computing

Emerging markets are establishing themselves as significant players in quantum technology development, with countries like Brazil, South Africa, and India making substantial investments in research infrastructure that promises to transform everything from medicine to finance.

What Is Quantum Computing: The Technology Transforming Global Development

Quantum computing represents a fundamental shift from classical computing principles, using quantum bits or "qubits" that can exist in multiple states simultaneously thanks to the quantum phenomena of superposition and entanglement. This enables quantum computers to solve certain complex problems exponentially faster than classical computers.

Unlike conventional computing, which uses binary digits (bits) that represent either 0 or 1, quantum computing leverages quantum mechanics to create qubits that can exist in multiple states at once. This allows quantum computers to process vast amounts of information simultaneously, making them potentially revolutionary for problems involving complex simulations, optimization challenges, and data analysis.

While still in its developmental stages, quantum computing has already demonstrated promising capabilities in specific areas. The technology is expected to transform fields ranging from drug discovery to financial modeling and climate science - areas of critical importance to developing economies seeking sustainable growth paths.

The Global South's Quantum Landscape: Historical Context

Contrary to common perception, the Global South has a long and significant history in quantum research. "From Satyendra Nath Bose co-discovering bosons with Einstein to Abdus Salam sharing the 1979 Nobel Prize for Physics for work on electroweak unification theory, scientists from developing nations have made fundamental contributions to quantum physics," notes Dr. Filippus Roux of South Africa's National Metrology Institute.

Despite these historical achievements, recent technological advancement has shifted unevenly toward the North. This has created what experts call the "quantum gap" - an uneven distribution of quantum research capabilities, infrastructure, and expertise between developed and developing countries.

In response, emerging markets are establishing ambitious national quantum strategies aimed at ensuring they aren't left behind in this critical technological transformation. Rather than attempting to compete directly with the massive hardware investments of nations like China or the United States, many developing countries are focusing on their specific competitive advantages.

Brazil's Quantum Ambitions: Building Regional Leadership

Brazil stands out among Latin American countries for its strategic approach to quantum technologies. In December 2022, the Brazilian government announced a R$60 million (approximately $11 million) investment in EMBRAPII, its industrial research and innovation company, to create a dedicated Competence Center in Quantum Technologies.

"Senai Cimatec will focus on Quantum Communication, improving data security processes. But it will also work in Quantum Computing, whose benefits are based on carrying out high-load data processing," explained Chico Saboya, president of Embrapii, when announcing that Senai Cimatec in Salvador would host the center.

The initiative aims not only to advance Brazil's domestic capabilities but also to position the country as a regional leader in quantum research and development. The contract with Senai Cimatec will be valid for 42 months and covers research activities, human resource training, and the creation of an open innovation environment to attract startups, involving both national and international partnerships.

South Africa's Strategic Approach: Software Over Hardware

South Africa has taken a differentiated approach to quantum computing, focusing on software development rather than competing in hardware manufacturing. The South African Quantum Technology Initiative (SA QuTI), launched in March 2021 by the Department of Science and Innovation, aims to create conditions for globally competitive research and grow a local quantum technology industry.

In 2019, the University of the Witwatersrand became IBM's first African academic partner in its Q Network, giving students access to IBM's quantum computers via the cloud to run experiments related to optimization problems. This membership also provides collaboration avenues with other South African universities through the African Research Universities Alliance (ARUA), which includes 16 of the region's leading universities.

South Africa's position is enhanced by its existing expertise in quantum metrology, with six national research centers participating in academic projects on quantum metrology standards, collaborating with international partners such as the U.S. National Institute for Standards and Technology.

India's Quantum Mission: Bridging Traditional Knowledge and Future Technology

In April 2023, India approved a $730 million funding package for its National Mission on Quantum Technologies & Applications, running from 2023 to 2031. This substantial investment positions India second only to China in quantum funding among developing nations.

India's approach focuses on four application areas: Quantum Computing and Simulations, Quantum Communications, Quantum Sensing and Metrology, and Quantum Material and Devices. Each vertical is coordinated by a hub that fosters international cooperation, industry connections, and workforce development.

India's strategy is particularly notable for its potential to leverage the country's established pharmaceutical industry. As a major supplier of generic medications globally—often called the "pharmacy of the world" and the biggest provider of pharmaceuticals in Africa—India could apply quantum computing to drug discovery in ways that benefit developing nations worldwide.

The Quantum Development Framework: A New Approach

Recognizing the growing quantum gap, researchers have proposed a Quantum Technology for Development (QT4D) framework to help close the divide between Global North and South. This framework, proposed by Professor Mafu and other researchers, aims to leverage quantum technologies to address pressing development challenges while fostering greater collaboration between developed and developing nations.

The QT4D framework offers a unique platform to enhance access to quantum technologies in developing countries by creating opportunities for knowledge sharing and international collaboration. This leads to alignment of research interests, identification of common goals, increased capacity building, and implementation of innovative quantum-based solutions.

Academic Centers Leading the Charge

Across the developing world, universities are emerging as crucial hubs for quantum research and education. In South Africa, the University of KwaZulu-Natal has established a quantum center focused on quantum information processing and communications, while the University of the Witwatersrand has leveraged its IBM partnership to become a continental leader.

In Brazil, Senai Cimatec will support research and development in quantum technologies, offering training programs and degrees while supporting quantum activities throughout Latin America. The institution aims to foster an open innovation environment for startups through national and international partnerships.

Pakistan has established its National Centre for Quantum Computing (NCQC) as part of a wider digital policy agenda, intended to connect academic research with industry applications. This approach mirrors strategies in China and India, where activity in quantum technologies is coordinated through government initiatives hosted across multiple universities and research institutes.

Cloud Access: Democratizing Quantum Computing

For many developing nations, access to quantum computing via cloud services represents the most practical path toward engagement with this emerging technology. Commercial cloud services can supplement sovereign quantum computer activity and help engage a wider range of academic and commercial entities.

IBM has established a particularly large footprint within developing nations through its Quantum Network (Q Network), a global community of stakeholders who can utilize IBM's quantum cloud services, educational materials, and training. The Q-Network is active across at least 12 countries in the Global South, with members including Uruguayan fintech companies, Brazilian banks, and institutions from Mexico, Chile, and Colombia.

Future Implications: Addressing Global Challenges

Quantum computing offers potential solutions to some of the most pressing challenges facing developing nations. Researchers are already exploring applications in sustainable energy, healthcare, and food security.

In healthcare, quantum sensors can detect and diagnose diseases with unprecedented sensitivity, enabling early detection. Quantum computing can simulate complex biological systems, potentially accelerating drug development in regions with limited pharmaceutical research infrastructure.

For agriculture, quantum computers could optimize crop management and weather forecasting, potentially increasing food security in vulnerable regions. Quantum machine learning algorithms might analyze vast amounts of agricultural data to identify patterns and make predictions that could help farmers adapt to changing climate conditions.