*IBM just published a roadmap of what they expect to accomplish in the next
few years in the field of quantum computers, and it's pretty damn
ambitious: *

How IBM will build the world's first large-scale, fault-tolerant quantum
computer <https://www.ibm.com/quantum/blog/large-scale-ftqc>

*After reading the above I decided to ask Claude the following question: *

*"IBM recently predicted that by 2029 they should have a quantum computer
that has 200 error corrected logical Qubits, and by 2033 they will have
2000. What sort of things could something like that do, could it break RSA
encryption?"*

*Claude responded with the following: *

*"IBM's quantum computing roadmap is indeed ambitious. Starling is expected
to be capable of 100 million quantum operations using 200 logical qubits
'The science is solved': IBM to build monster 10,000-qubit quantum computer
by 2029 | Live Science
<https://www.livescience.com/technology/computing/ibm-will-build-monster-10-000-qubit-quantum-computer-by-2029-after-solving-science-behind-fault-tolerance>,
with the larger Blue Jay system planned for 2033 featuring 2,000 logical
qubits capable of 1 billion quantum operations.*

*These systems could potentially tackle several important computational
problems:*

*What 200-2000 logical qubits could accomplish:*

*Chemistry and Materials Science: Simulating molecular interactions for
drug discovery, catalyst design, and materials development. This could
accelerate pharmaceutical research and help design better batteries, solar
cells, and superconductors.*

*Optimization Problems: Solving complex logistics, supply chain
optimization, financial portfolio management, and traffic routing problems
that are computationally intensive for classical computers.*

*Machine Learning: Quantum machine learning algorithms could potentially
offer advantages for certain pattern recognition and data analysis tasks.*

*Cryptanalysis: This brings us to your RSA question - and it's a crucial
one.*

*Regarding RSA Encryption:*

*The threat to RSA depends on successfully implementing Shor's algorithm at
scale. Current estimates suggest that breaking RSA-2048 (the current
standard) would require approximately 2,000-4,000 logical qubits with
millions of quantum operations.*

*IBM's 2029 system with 200 logical qubits would likely be insufficient to
break current RSA encryption. However, their 2033 system with 2,000 logical
qubits could potentially approach the threshold needed for RSA-2048,
depending on error rates and algorithm efficiency improvements.*

*This timeline aligns with why cryptographers are already developing
"post-quantum" encryption methods that would resist quantum attacks. The
transition needs to happen before quantum computers become capable enough,
not after.*

*It's worth noting that these are IBM's projections, and quantum computing
development faces significant technical challenges in error correction and
maintaining quantum coherence at scale."*

*===*

*2025 IBM Quantum Roadmap update
<https://www.youtube.com/watch?v=_y43boNNoVo>*



*Realizing large-scale, fault-tolerant quantum computing
<https://www.youtube.com/watch?v=zrZHPil0BTA>*

* John K Clark    See what's on my new list at  Extropolis
<https://groups.google.com/g/extropolis>*
3a9

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