P4D-Q9400-266-6M1333 - SuperMicro 2.66GHz 1333MHz FSB 6MB L2 Cache Socket LGA775 Intel Core 2 Quad Q9400 Quad Core Processor

P4D-Q9400-266-6M1333 - SuperMicro 2.66GHz 1333MHz FSB 6MB L2 Cache Socket LGA775 Intel Core 2 Quad Q9400 Quad Core ProcessorThe SuperMicro P4D-Q9400-266-6M1333 represents a 2nd Gen Dual-core (2 Core) processor designed for maintaining and repairing older computer systems. Operating at 2.66 GHz with a 1333 MHz Front Side Bus this 64-bit processor delivers basic computing power through its 6 MB L2 cache architecture. Manufactured using 65 nm lithography technology it fits standard Socket T LGA-775 motherboards and operates within a 65 Watts thermal design power (TDP) cover. With a maximum current specification of 73.3 °C, this eco-friendly component provides a reliable solution for keeping legacy systems operational. Key Features Dual-core (2 Core) processor for basic computing tasks Socket T LGA-775 compatibility for legacy motherboards Energy-conscious design with eco-friendly materials Reliable thermal performance 73.3 °C SuperMicro-quality component for system repairs Compatibility and Use Cases The SuperMicro P4D-Q9400-266-6M1333 processor is exactly designed for systems using Socket T LGA-775 motherboards. This component serves mainly as a maintenance or repair solution for older SuperMicro desktop systems still in service. Typical applications include protective business systems where upgrades are unreasonable, maintaining specialized equipment with branded crossing point, educational demonstrations of historical computing architecture or completing correct system repairs. Its capabilities are best suited for basic output tasks, simple data entry operations or as part of a complete system safety effort. Why Choose This Processor For experts and system upholders working with older SuperMicro equipment, the P4D-Q9400-266-6M1333 offers some different advantages. As a reliable SuperMicro component, it guarantees compatibility that aftermarket replacements cannot match. The processor provides reliable performance within its specified limits, confirming continued operation of older systems where upgrading is not possible. Its availability helps extend the service life of specialized equipment that would otherwise become outdated. For educational institutions or technology historians, it serves as an authentic representation of early 2000s computing technology. While not suitable for modern computing demands it remains a valuable solution for exact maintenance setups.