Backside Power Delivery Networks (BSPDN) completely redesign microchips by moving all electrical power wiring to the bottom of the silicon wafer, freeing up the top side exclusively for data signals to prevent bottlenecks in next-generation AI processors.
Microfluidic in-chip cooling is an advanced thermal management technology that etches microscopic channels directly inside a semiconductor, pumping liquid coolant just microns away from the transistors to prevent next-generation AI chips from melting.
Complementary FET (CFET) is a next-generation semiconductor architecture that folds a computer chip's basic logic gate in half by stacking the positive and negative transistors directly on top of each other, bypassing physical 2D scaling limits to push Moore's Law into the 0.7-nanometer era.
Hybrid bonding is an advanced semiconductor packaging technology that eliminates traditional solder by using molecular forces and heat to directly weld the copper wires and glass surfaces of two separate microchips together, enabling the massive, ultra-fast 3D memory stacks required to run modern artificial intelligence.
High Bandwidth Memory 4 (HBM4) breaks the physical data-transfer bottleneck of modern artificial intelligence by vertically stacking memory chips like microscopic skyscrapers and doubling the hardware interface to 2,048 bits, delivering unprecedented bandwidth to starving GPUs.
Co-Packaged Optics (CPO) eliminates the physical distance between a computer chip and its network connection by integrating microscopic silicon photonics directly onto the processor's packaging, replacing heat-generating copper wires with light to prevent hyperscale AI data centers from hitting a thermal and power wall.
A Neural Processing Unit (NPU) is a highly specialized silicon chip designed specifically to perform the massive matrix math required by artificial intelligence, allowing laptops and phones to run AI models locally with zero internet connection and minimal battery drain.
SiFive is a fabless semiconductor company that translates the free, open-source RISC-V instruction set into physical, commercially licensed microchip designs, allowing hyperscalers and tech giants to build highly customized, hyper-efficient processors for the AI era without paying exorbitant royalties to ARM or relying on Intel's roadmap.
RISC-V is a free, open-source Instruction Set Architecture (ISA) that allows anyone to design, manufacture, and sell custom microchips without paying expensive licensing fees to technology monopolies.
At a Glance In Simple Words Inside every computer, data travels as electrical pulses through microscopic copper wires. For decades, this system worked perfectly. But today, computers are processing massive amounts of data for artificial intelligence, and copper is hitting…