The concept of the Quantum Node Economy proposes a future in which quantum computers are interconnected using secure quantum networks, similar to how the cloud currently allows disparate systems to communicate. Individual quantum nodes will not exist in silos, but rather will interoperate with artificial intelligence, high-performance computing, and the cloud in order to facilitate solutions for challenges across the health sciences, financial services, cybersecurity, logistics, energy, and the physical sciences.
Creating this type of ecosystem will necessitate three pillars. Infrastructure will be characterized by quantum processors, quantum networking and communication, cloud integration, and data security and transfer. Work force will require expertise in quantum computing, AI, cybersecurity, software development, photonics and systems engineering supported by institutions of higher education and industrial partnerships. Policy and governance will need to include standards and specifications for quantum technology, cyber security standards for quantum-safe communications, data protection, research and development incentives, international cooperation and ethical considerations for all of the aforementioned to spur development and protect national infrastructure.
The Quantum Node Economy is not meant to substitute classical computing, but to build upon it, uniting quantum computing, AI, and HPC as an intelligent, secure and an interconnected network to fuel future technological and economic advances.
appreciate the perspective. This article is about what banks are actually doing with quantum and PQC today. If you’ve got thoughts on those specific bank plans or timelines, would love to hear them.
Your article and Suman’s comment together raise a specific question about the bank plans: as a single transaction moves across classical systems, AI, HPC, cloud services and eventually QPUs, each operating under separate credentials and trust domains, what runtime mechanism preserves one governing authority across the entire interaction? PQC or quantum-secure networking can protect each exchange, and tracing can reconstruct the path, but what prevents a handoff from creating an independent authority, and what record proves the final banking action remained subordinate to the authority that initiated it?
I like your question Thomas, one idea could be to treat “who is in charge” as something systems track explicitly rather than assume, in a similar fashion as APIs for example. it definitely feels like an area that needs more digging in to. thank you.
Thank you, Poonam. That “one idea” is actually the body of work I have been developing and patenting. The critical step is not merely tracking “who is in charge” as another field, but making authority continuity a runtime rule.
Modern systems can already move data securely across APIs, models, clouds, vendors, and eventually quantum nodes. What they do not natively preserve and prove is whether each participant remained admitted under the authority that opened the interaction, and whether the final state change was still authorized by it.
That distinction becomes even more important in the Internet of Everything and a future quantum internet, where machines, agents, sensors, processors, and networks will act across many trust domains inside one interaction.
Thats really interesting to hear. keep me posted on how it goes. I am working around quantum sensors arrays and clock sync at the moment so so control is a tad bit ahead. look forward to your research.
Thank you, Poonam. Quantum sensor arrays and clock synchronization are a useful example of the distinction. My work is not an implementation roadmap for those systems, but the underlying authority architecture needed when sensors, agents, processors, and networks act across multiple trust domains. Quantum networks and the Internet of Everything are already accounted for in that architecture, while the patent claims will continue to evolve through prosecution. The research itself is largely complete. What is changing now is the field, which is converging on the problem more clearly by the day. I will continue to write occasional essays and engage as that evidence develops.
The concept of the Quantum Node Economy proposes a future in which quantum computers are interconnected using secure quantum networks, similar to how the cloud currently allows disparate systems to communicate. Individual quantum nodes will not exist in silos, but rather will interoperate with artificial intelligence, high-performance computing, and the cloud in order to facilitate solutions for challenges across the health sciences, financial services, cybersecurity, logistics, energy, and the physical sciences.
Creating this type of ecosystem will necessitate three pillars. Infrastructure will be characterized by quantum processors, quantum networking and communication, cloud integration, and data security and transfer. Work force will require expertise in quantum computing, AI, cybersecurity, software development, photonics and systems engineering supported by institutions of higher education and industrial partnerships. Policy and governance will need to include standards and specifications for quantum technology, cyber security standards for quantum-safe communications, data protection, research and development incentives, international cooperation and ethical considerations for all of the aforementioned to spur development and protect national infrastructure.
The Quantum Node Economy is not meant to substitute classical computing, but to build upon it, uniting quantum computing, AI, and HPC as an intelligent, secure and an interconnected network to fuel future technological and economic advances.
appreciate the perspective. This article is about what banks are actually doing with quantum and PQC today. If you’ve got thoughts on those specific bank plans or timelines, would love to hear them.
Your article and Suman’s comment together raise a specific question about the bank plans: as a single transaction moves across classical systems, AI, HPC, cloud services and eventually QPUs, each operating under separate credentials and trust domains, what runtime mechanism preserves one governing authority across the entire interaction? PQC or quantum-secure networking can protect each exchange, and tracing can reconstruct the path, but what prevents a handoff from creating an independent authority, and what record proves the final banking action remained subordinate to the authority that initiated it?
I like your question Thomas, one idea could be to treat “who is in charge” as something systems track explicitly rather than assume, in a similar fashion as APIs for example. it definitely feels like an area that needs more digging in to. thank you.
Thank you, Poonam. That “one idea” is actually the body of work I have been developing and patenting. The critical step is not merely tracking “who is in charge” as another field, but making authority continuity a runtime rule.
Modern systems can already move data securely across APIs, models, clouds, vendors, and eventually quantum nodes. What they do not natively preserve and prove is whether each participant remained admitted under the authority that opened the interaction, and whether the final state change was still authorized by it.
That distinction becomes even more important in the Internet of Everything and a future quantum internet, where machines, agents, sensors, processors, and networks will act across many trust domains inside one interaction.
Thats really interesting to hear. keep me posted on how it goes. I am working around quantum sensors arrays and clock sync at the moment so so control is a tad bit ahead. look forward to your research.
Thank you, Poonam. Quantum sensor arrays and clock synchronization are a useful example of the distinction. My work is not an implementation roadmap for those systems, but the underlying authority architecture needed when sensors, agents, processors, and networks act across multiple trust domains. Quantum networks and the Internet of Everything are already accounted for in that architecture, while the patent claims will continue to evolve through prosecution. The research itself is largely complete. What is changing now is the field, which is converging on the problem more clearly by the day. I will continue to write occasional essays and engage as that evidence develops.