A microbump-linked parallel interface speeds programmable logic configuration by moving data across stacked die with NOC, sector parallelism, and pipelining.
Common DSP functions move into hardened circuits while programmable logic handles custom tasks, reducing power, die pressure, and heat.
Output voltage clamping and current suppression let a logic circuit run without a separate power source circuit, cutting chip area and power use.
Hardwired logic parses network frames and writes only payload data, enabling direct FPGA booting without JTAG delays or auxiliary processors.
Segmented IC routing and pass-gate isolation keep configuration data and clock access available when neighboring regions are powered down.
Hybrid 27×18 and 12×12 multipliers make FPGA DSP blocks more flexible for varied digital computations without losing processing capability.
A wireless communication block delivers FPGA configuration bitstreams remotely, eliminating host cable dependence for reprogramming and debugging.
A checkerboard switch box layout cuts FPGA interconnect area and complexity while preserving routeability and CLB access.
A crossover TFT topology switches between diode-load and zero-VGS modes to cut static power while preserving logic speed.
An FPGA bridge decodes instructions and handles I/O so a swappable ASIC can focus on deterministic execution with lower redesign cost and latency.
Adjacent FPGA logic blocks pass lookup table configurations on a shared clock, enabling rapid reconfiguration without power cycling.
Sequential FPGA tile routing across logic-tile subsets resolves interconnect conflicts and congestion while preserving end-to-end signal paths.
Selective via sites and jumpers let one IC architecture switch between FIFO and deserializer functions while cutting photomask count and silicon area.
Low-precision high-dynamic-range arithmetic raises parallel throughput, then adds limited high-precision computing to improve search quality.
Common DSP functions move into hardened circuits while programmable logic handles custom tasks, cutting resource use, die area, and power.
Low-precision high-dynamic-range arithmetic increases parallel search throughput, while limited high-precision steps improve result quality.
A mesh clock fabric with per-tile clock generation and mux selection aligns FPGA tile clocks despite phase and frequency variation.
Cascade frame incrementers and a row controller speed frame allocation in programmable circuits while removing flag circuitry overhead.
Low-precision high-dynamic-range arithmetic increases operations per transistor by shrinking arithmetic elements for dense parallel computing.
A crossover TFT topology uses zero-VGS load operation to cut unipolar logic power draw while preserving speed and simpler circuit structure.
Common-mode voltage modulation adds bidirectional data over differential video links while limiting interference and reflections.