- Intel merges physical CPU -Kerner in a single virtual super core -design
- Fused kernels carry out instructions in parallel before re -ordering to improve performance
- The procedure is targeted at a single t-thread-efficiency without expanding the core size
Intel has filed a patent on what it calls software -defined super core, a technology that merges two or more physical CPU kernels into a single virtual “Super Core.”
For the operating system, the molten kernels are displayed as a device, but the instructions are divided and performed in parallel before being changed, with the aim of improving the single-thread performance at no high cost of building larger processors.
This approach is similar to older “Inverse Hyper-Threading” concepts from the Pentium 4 era, suggesting that Intel revises previous experiments with modern improvements.
Balancing efficiency and scale
The idea behind this approach is to improve nothing with a single urge by avoiding the higher energy needs associated with faster watches or wider cores.
Intel’s design, instead, distributes work load across multiple cores through shared memory and synchronization modules.
If the mechanism works, the company expects gains in the benefit per. Watts, allowing processors to switch between normal and super core modes.
Observers have compared Intel’s idea with AMD’s older overall multi-threading, although the methods are different.
AMD divides kernels into modules, while Intel’s proposal merges whole cores under software control.
Some also connect the patent to Intel’s canceled Royall Core Project, which reportedly chased high instructions per day. Clock, but became impractical to produce.
By reviving such strategies, Intel seems to search for alternatives to brute-force design extensions.
However, the lack of measured data makes it impossible to know if this could compete with the fastest CPU design on the market.
The patent describes a small synchronization module inside each core, supported by a reserved memory region called the wormhole address area.
These handle register transfers, ordering and data off to ensure instructional integrity.
On the software side, compilers or binary instrumentation code divide code into manageable blocks while inserting flow control commands.
Operating systems must then decide when a workload benefits from Super Core mode, a requirement that can complicate planning and compatibility.
Without broad support from both hardware and software, the design risks becoming an unused feature.
Intel’s documentation does not estimate clear performance gains, which only suggests that two narrower kernels can approach the possibility of a wider core under certain conditions.
Technology may interest researchers who explore specialized workloads, including scenarios where a mining CPU may be able to seek improved efficiency in single -wired tasks.
Nevertheless, for general computing, the lack of proven benchmark’s raised leaves uncertainly, and whether this actually creates the best CPU for demanding workload is still an open question.
Via Toms hardware
