Reconfigurable cores boost processor power
Clive Maxfield, EE Times
(02/20/2006 10:00 AM EST)
The first commercial microprocessor, Intel's 4004, debuted in 1971 with 2,300 transistors, a 108-kHz system clock and a 4-bit bus. Since then, chip architects have increased the computational performance and throughput of the 4004's successors by increasing the transistor count, the data bus width or the clock speed, and by introducing such execution-related tweaks as pipelining and speculative execution.
But as those traditional techniques run out of steam, microprocessor and system designers are breaking out of the mold and crafting architectures that combine multiple processing cores combined with reconfigurable computing techniques.
Applications often drive the type of solution. For example, an FPGA may perform certain DSP tasks very efficiently, but one typically wouldn't use one as the main processing element in a desktop computer. Similarly, Intel and AMD processors are applicable to a wide variety of computing applications, but you wouldn't expect to find one powering a cell phone.
(02/20/2006 10:00 AM EST)
The first commercial microprocessor, Intel's 4004, debuted in 1971 with 2,300 transistors, a 108-kHz system clock and a 4-bit bus. Since then, chip architects have increased the computational performance and throughput of the 4004's successors by increasing the transistor count, the data bus width or the clock speed, and by introducing such execution-related tweaks as pipelining and speculative execution.
But as those traditional techniques run out of steam, microprocessor and system designers are breaking out of the mold and crafting architectures that combine multiple processing cores combined with reconfigurable computing techniques.
Applications often drive the type of solution. For example, an FPGA may perform certain DSP tasks very efficiently, but one typically wouldn't use one as the main processing element in a desktop computer. Similarly, Intel and AMD processors are applicable to a wide variety of computing applications, but you wouldn't expect to find one powering a cell phone.
To read the full article, click here
Related Semiconductor IP
- 5G-NTN Modem IP for Satellite User Terminals
- AXI-S Protocol Layer for UCIe
- HBM4E Controller IP
- 14-bit 12.5MSPS SAR ADC - Tower 65nm
- 5G-Advanced Modem IP for Edge and IoT Applications
Related News
- Andes Technology's N25F RISC-V Processor Enables Superior Performance And Low Power For Phison's X1 Enterprise SSD Controller
- USB 4.0 Host and Device Controller IP Cores unleashing the Power of High-Speed Connectivity with tunnelling of Display Port and PCIe is now available for Licensing
- Synopsys and Samsung Foundry Boost Power, Performance and Area for Modern SoCs on Samsung's SF2 Process
- Unlock the Power of DisplayPort v1.4 Tx/Rx PHY and Controller IP Cores: Maximize the Potential of Your Next-Generation Products
Latest News
- OpenTitan Ships in Chromebooks: First Production Deployment
- Breker Verification Systems Adds RISC‑V Industry Expert Larry Lapides to its Advisory Board
- Weebit Nano’s ReRAM Selected for Korean National Compute-in-Memory Program
- Marvell Extends ZR/ZR+ Leadership with Industry-first 1.6T ZR/ZR+ Pluggable and 2nm Coherent DSPs for Secure AI Scale-across Interconnects
- BrainChip Announces Neuromorphyx as Strategic Customer and Go-to-Market Partner for AKD1500 Neuromorphic Processor