In the laboratory, Chen Mo watched the bytes flickering across the holographic platform before him, deep in thought.
In truth, he was waiting for the experimental results.
They were currently using a quantum simulator built with Quantum Logic Gates to test the newly designed Quantum Chip. If the chip passed its test, it would mean the experiment had succeeded.
The Quantum Chip's design had reached a crucial moment.
After a long period of research, along with the vast amount of material in the Sci-Tech Library, he had found a feasible method for expanding the number of Qubits. If this experiment succeeded, it would be their greatest breakthrough yet.
When it came to expanding the number of Qubits, Quantum Chip design now had a stable and viable direction, much like the design of conventional chips.
"The results are out."
Mo Nv tapped the holographic platform, and an image appeared on it.
The glowing points on the image represented the result of their test: 103 Qubits had achieved controllable computation.
His method was correct.
By following this direction and continuously expanding the architecture for quantum manipulation and measurement, the number of controllable Qubits would keep increasing.
The infinite possibilities of computing lay just around the corner.
Chen Mo, still wearing rubber gloves, picked up the biscuit-sized chip from the lab bench.
This was the Quantum Processor, integrating both quantum manipulation and quantum measurement.
What made Quantum Computers so terrifying was that a laptop-sized machine could perform the work and calculations of Supercomputer servers occupying thousands of square meters.
The computational power of future computers would grow exponentially. The old Moore's Law would fail, and a new law would arrive.
Even if the number of controllable Qubits increased by only one each year, computer processing speed would double annually, growing without limit. Of