Long before the current focus on Malaysia, MIMOS was already exploring the foundations of digital security; the organization began formal work in Quantum Cryptography in 2005, the company says. This early investment in areas like cryptography, QRNG, and Quantum Key Distribution predates the 2025 establishment of the MIMOS Quantum Intelligence Centre by decades.
MIMOS recognized the need to not only adopt digital technologies, but also to control and understand the systems protecting national infrastructure, establishing this as a core tenet of its technological journey. “Hari ini dunia begitu rancak berbicara mengenai Artificial Intelligence,” notes the current President and Chief Executive of the group, but the groundwork for secure digital infrastructure was laid long before the AI boom.
Early Focus on National e-Sovereignty at MIMOS
MIMOS developed capability in cryptography at an early stage because a nation cannot rely on digital infrastructure without understanding how its security is built. In 2005, Professor Ridza was asked by MIMOS to lead a Quantum Cryptography project under RMK-9. MIMOS focused on national e-Sovereignty, recognizing that the nation needed knowledge, capability and control over technologies protecting its critical systems as it rapidly digitized its identity systems and government applications, according to the company.
The implementation of MyKad and Public Key Infrastructure served as foundational elements in this digital transformation. Researchers focused on Quantum Random Number Generators, or QRNG and Quantum Key Distribution, or QKD, alongside Trusted Computing, recognizing that cryptographic keys require true randomness for security. The team understood that predictable random number generators compromised security, and quantum phenomena offered a fundamentally different, and more secure, source of randomness.
This led to the development and patenting of technology related to QRNG, QKD, quantum information processing and integration with security protocols, signifying a move beyond theoretical exploration toward practical implementation. A key milestone in this early effort was the realization of a five-node Quantum Key Distribution network, a project led by Professor Ridza and his team. According to historical records within MIMOS, the team not only built the network but also developed homegrown quantum communication protocols and methods.
Cryptography Foundations Drive Quantum Exploration
Cryptography foundations drove quantum exploration at MIMOS well before the current surge in artificial intelligence discussions, with the organization recognizing the importance of securing digital infrastructure through advanced cryptographic methods. In 2005, Quantum Cryptography transitioned into a formal program within MIMOS, a move predicated on the understanding that national security hinged on controlling the systems underpinning digital life, the firm reports. This early focus wasn’t simply about adopting technology, but about cultivating the intellectual capability to adapt and refine it for local needs; understanding the architecture, protocols, and security assumptions was paramount.
MIMOS’s engagement extended beyond theoretical study, actively building technology capability in Quantum Key Distribution (QKD). The team recognized that conventional cryptography relied on mathematical difficulty, a vulnerability potentially overcome by the principles of quantum mechanics, where any attempt to observe quantum information leaves a detectable trace.
This led to involvement in international standardization efforts for Quantum Cryptography through the European Telecommunications Standards Institute (ETSI), positioning MIMOS as an early Asian representative in shaping global standards. Records suggest a significant, though currently unverified, achievement, and confirmation is pending from original archival documents. The potential for quantum computers to break some public-key cryptography used drove the need to explore quantum-safe alternatives, a concern that has only intensified with the recent advancements in quantum processing.
“Daripada makmal Malaysia ke standard antarabangsa,” reflects the ambition of the team to not only develop technology but also to contribute to its global standardization and application, MIMOS reports. This proactive approach meant that even when technologies were developed ahead of immediate market demand, the accumulated knowledge remained a valuable institutional asset.
MIMOS Builds Five-Node Quantum Key Distribution Network
This network, developed under the Ninth Malaysia Plan, demonstrated the organization’s ability to translate research into functional infrastructure years before quantum technologies gained widespread attention. Professor Ridza of MIMOS noted the team successfully built the network and developed locally-sourced quantum communication protocols and methods, signifying a commitment to not just adopting, but mastering, the underlying technology. The development of this network followed significant work in related fields, including Quantum Random Number Generators (QRNG) and Trusted Computing, all outputs of MIMOS’s research and development efforts.
QRNGs were prioritized because cryptographic keys require true randomness; compromised randomness undermines security. Quantum phenomena offered a source of randomness fundamentally different from classical pseudo-random generation, a critical advantage in securing communications.
Quantum IP Portfolio and International Standardization Efforts
Institutional memory suggests a significant breadth of filings, with records indicating more than 37 patent applications specifically in quantum technologies. While complete public validation of the 48-patent claim is ongoing, documented evidence confirms a large patent portfolio and a historically high ranking in overall Patent Cooperation Treaty listings. The organization’s work extended beyond patent filings to the development of practical applications, notably a five-node Quantum Key Distribution network.
MIMOS’s approach to standardization was also deliberate, aiming to move beyond simply adopting existing standards to actively shaping their development. The organization sought to position Malaysian entities as influential participants in establishing quantum standards, recognizing the importance of having a voice in defining the future of the technology. This strategy mirrors a broader ambition to not only build products based on standards, but to participate in the discussions that determine those standards.
The potential for quantum computing to disrupt public-key cryptography, a cornerstone of modern digital security, further highlighted the importance of this proactive stance. The foresight to invest in these areas, even when the market demand was not yet apparent, reflects a focus on building institutional capability.
See today’s quantum computing news on Quantum Zeitgeist for the latest breakthroughs in qubits, hardware, algorithms, and industry deals.
