In recent years, Jordan has taken preliminary yet meaningful steps toward embracing quantum intelligence alongside the rapidly advancing field of artificial intelligence (AI). Institutions like Petra School of Physics, in collaboration with the Higher Council for Science and Technology, the University of Jordan, and Yarmouk University, have held events focused on “Quantum Computing: Theory and Applications”, raising awareness among students of the theory and potential uses of quantum technologies. At the same time, Orange Jordan has conducted interactive sessions in several universities (Yarmouk, Middle East, Al-Zaytoonah) to educate youth not only about AI but also about quantum computing, emphasizing its future importance in fields such as drug discovery, logistics, and data analysis.
To understand why quantum intelligence represents a leap beyond AI, it helps to define what quantum computing is and how it differs from classical AI. While AI depends largely on classical computers that process bits (0s and 1s) to analyze data, identify patterns, make predictions, and automate tasks, quantum computing uses quantum bits or qubits, which thanks to properties like superposition and entanglement can represent many possible states simultaneously. This theoretically allows quantum systems to explore large solution spaces in parallel in ways classical systems can’t.
Globally, quantum computing holds promise for transforming sectors where classical AI is limited either by scale, complexity, or resource constraints. In medicine, for example, quantum simulations could allow more accurate modeling of molecular interactions to speed up drug discovery. In cybersecurity, quantum algorithms (such as Shor’s algorithm) pose both opportunities and threats: they may enable breaking some existing encryption schemes, while simultaneously pushing development of post-quantum cryptography to secure digital communications. In finance, quantum techniques can improve portfolio optimization, risk analysis, and derivative pricing—all domains where classical AI and statistical methods already help, but where quantum capabilities could significantly outperform them.
Despite the promise, several challenges remain before Jordan (or any country) can fully leverage quantum intelligence. On the technical side, quantum hardware is still in early stages: qubits are fragile, error rates are high, coherence times short, and environments (such as near-zero temperatures) needed for stable quantum operations are difficult to maintain. Also, programming quantum algorithms requires specialized knowledge and new tools, which are not yet widely available. Ethically and economically, there are concerns about who controls access, how to ensure that quantum intelligence does not widen existing inequalities, and how to mitigate risks (for example in cybersecurity) that quantum capabilities may introduce. These issues are well-documented in recent academic reviews.
So where does Jordan stand, and what steps should be taken if the country wants not just to observe, but to compete in the quantum intelligence revolution? First, strengthening academic research infrastructure is essential more funding for quantum computing labs, partnerships with international research institutions, and encouraging graduate programs focused on quantum algorithms, quantum hardware, and quantum machine learning. Second, integrating awareness and foundational quantum science into secondary and higher education curricula to prepare a generation familiar with probabilistic thinking and quantum phenomena. Third, promoting public-private collaborations: telecommunications companies, financial institutions, health sector, and government bodies can pilot quantum-related projects (for example in encryption, simulation, optimization) to build local expertise. Fourth, developing a national strategy for quantum readiness, including legal and ethical frameworks, investment incentives, and ensuring cybersecurity in a post-quantum world.
In conclusion, quantum intelligence is not merely the next buzzword after AI it represents a fundamental shift in how computation can solve problems. Jordan has begun to show interest and potential in this domain, but the journey ahead is long and requires concerted effort. If Jordan moves from theory to implementation, the nation could gain a strong competitive advantage in the global race beyond artificial intelligence. The question is no longer if but when and how Jordan will join the front lines of the quantum intelligence revolution.
Lubna Hanna Ammari is a specialist in educational technology
In recent years, Jordan has taken preliminary yet meaningful steps toward embracing quantum intelligence alongside the rapidly advancing field of artificial intelligence (AI). Institutions like Petra School of Physics, in collaboration with the Higher Council for Science and Technology, the University of Jordan, and Yarmouk University, have held events focused on “Quantum Computing: Theory and Applications”, raising awareness among students of the theory and potential uses of quantum technologies. At the same time, Orange Jordan has conducted interactive sessions in several universities (Yarmouk, Middle East, Al-Zaytoonah) to educate youth not only about AI but also about quantum computing, emphasizing its future importance in fields such as drug discovery, logistics, and data analysis.
To understand why quantum intelligence represents a leap beyond AI, it helps to define what quantum computing is and how it differs from classical AI. While AI depends largely on classical computers that process bits (0s and 1s) to analyze data, identify patterns, make predictions, and automate tasks, quantum computing uses quantum bits or qubits, which thanks to properties like superposition and entanglement can represent many possible states simultaneously. This theoretically allows quantum systems to explore large solution spaces in parallel in ways classical systems can’t.
Globally, quantum computing holds promise for transforming sectors where classical AI is limited either by scale, complexity, or resource constraints. In medicine, for example, quantum simulations could allow more accurate modeling of molecular interactions to speed up drug discovery. In cybersecurity, quantum algorithms (such as Shor’s algorithm) pose both opportunities and threats: they may enable breaking some existing encryption schemes, while simultaneously pushing development of post-quantum cryptography to secure digital communications. In finance, quantum techniques can improve portfolio optimization, risk analysis, and derivative pricing—all domains where classical AI and statistical methods already help, but where quantum capabilities could significantly outperform them.
Despite the promise, several challenges remain before Jordan (or any country) can fully leverage quantum intelligence. On the technical side, quantum hardware is still in early stages: qubits are fragile, error rates are high, coherence times short, and environments (such as near-zero temperatures) needed for stable quantum operations are difficult to maintain. Also, programming quantum algorithms requires specialized knowledge and new tools, which are not yet widely available. Ethically and economically, there are concerns about who controls access, how to ensure that quantum intelligence does not widen existing inequalities, and how to mitigate risks (for example in cybersecurity) that quantum capabilities may introduce. These issues are well-documented in recent academic reviews.
So where does Jordan stand, and what steps should be taken if the country wants not just to observe, but to compete in the quantum intelligence revolution? First, strengthening academic research infrastructure is essential more funding for quantum computing labs, partnerships with international research institutions, and encouraging graduate programs focused on quantum algorithms, quantum hardware, and quantum machine learning. Second, integrating awareness and foundational quantum science into secondary and higher education curricula to prepare a generation familiar with probabilistic thinking and quantum phenomena. Third, promoting public-private collaborations: telecommunications companies, financial institutions, health sector, and government bodies can pilot quantum-related projects (for example in encryption, simulation, optimization) to build local expertise. Fourth, developing a national strategy for quantum readiness, including legal and ethical frameworks, investment incentives, and ensuring cybersecurity in a post-quantum world.
In conclusion, quantum intelligence is not merely the next buzzword after AI it represents a fundamental shift in how computation can solve problems. Jordan has begun to show interest and potential in this domain, but the journey ahead is long and requires concerted effort. If Jordan moves from theory to implementation, the nation could gain a strong competitive advantage in the global race beyond artificial intelligence. The question is no longer if but when and how Jordan will join the front lines of the quantum intelligence revolution.
Lubna Hanna Ammari is a specialist in educational technology
In recent years, Jordan has taken preliminary yet meaningful steps toward embracing quantum intelligence alongside the rapidly advancing field of artificial intelligence (AI). Institutions like Petra School of Physics, in collaboration with the Higher Council for Science and Technology, the University of Jordan, and Yarmouk University, have held events focused on “Quantum Computing: Theory and Applications”, raising awareness among students of the theory and potential uses of quantum technologies. At the same time, Orange Jordan has conducted interactive sessions in several universities (Yarmouk, Middle East, Al-Zaytoonah) to educate youth not only about AI but also about quantum computing, emphasizing its future importance in fields such as drug discovery, logistics, and data analysis.
To understand why quantum intelligence represents a leap beyond AI, it helps to define what quantum computing is and how it differs from classical AI. While AI depends largely on classical computers that process bits (0s and 1s) to analyze data, identify patterns, make predictions, and automate tasks, quantum computing uses quantum bits or qubits, which thanks to properties like superposition and entanglement can represent many possible states simultaneously. This theoretically allows quantum systems to explore large solution spaces in parallel in ways classical systems can’t.
Globally, quantum computing holds promise for transforming sectors where classical AI is limited either by scale, complexity, or resource constraints. In medicine, for example, quantum simulations could allow more accurate modeling of molecular interactions to speed up drug discovery. In cybersecurity, quantum algorithms (such as Shor’s algorithm) pose both opportunities and threats: they may enable breaking some existing encryption schemes, while simultaneously pushing development of post-quantum cryptography to secure digital communications. In finance, quantum techniques can improve portfolio optimization, risk analysis, and derivative pricing—all domains where classical AI and statistical methods already help, but where quantum capabilities could significantly outperform them.
Despite the promise, several challenges remain before Jordan (or any country) can fully leverage quantum intelligence. On the technical side, quantum hardware is still in early stages: qubits are fragile, error rates are high, coherence times short, and environments (such as near-zero temperatures) needed for stable quantum operations are difficult to maintain. Also, programming quantum algorithms requires specialized knowledge and new tools, which are not yet widely available. Ethically and economically, there are concerns about who controls access, how to ensure that quantum intelligence does not widen existing inequalities, and how to mitigate risks (for example in cybersecurity) that quantum capabilities may introduce. These issues are well-documented in recent academic reviews.
So where does Jordan stand, and what steps should be taken if the country wants not just to observe, but to compete in the quantum intelligence revolution? First, strengthening academic research infrastructure is essential more funding for quantum computing labs, partnerships with international research institutions, and encouraging graduate programs focused on quantum algorithms, quantum hardware, and quantum machine learning. Second, integrating awareness and foundational quantum science into secondary and higher education curricula to prepare a generation familiar with probabilistic thinking and quantum phenomena. Third, promoting public-private collaborations: telecommunications companies, financial institutions, health sector, and government bodies can pilot quantum-related projects (for example in encryption, simulation, optimization) to build local expertise. Fourth, developing a national strategy for quantum readiness, including legal and ethical frameworks, investment incentives, and ensuring cybersecurity in a post-quantum world.
In conclusion, quantum intelligence is not merely the next buzzword after AI it represents a fundamental shift in how computation can solve problems. Jordan has begun to show interest and potential in this domain, but the journey ahead is long and requires concerted effort. If Jordan moves from theory to implementation, the nation could gain a strong competitive advantage in the global race beyond artificial intelligence. The question is no longer if but when and how Jordan will join the front lines of the quantum intelligence revolution.
Lubna Hanna Ammari is a specialist in educational technology
comments