Cmos Clear, Keyboard Wake-Up | SUPER MICRO Computer SUPER, P3TDDR

Chapter 2: Installation

CMOS Clear

Refer to the table on the right for instructions on how to clear CMOS. Always remove the AC power cord from the system be- fore clearing CMOS.

Note: For an ATX power supply, you must completely shut down the sys- tem, remove the AC power cord, then use JBAT1 to clear CMOS. Replace JBT1 back to the pin 1-2 position be- fore powering up the system again. Do not use the Power Button con- nector to clear CMOS.

C M O S C le a r J um p e r S e tting s
	(J B T 1 )
Jumper
P osition	D efinition
1-2	N ormal
2-3	CMO S Clear
Position	Position
1-2	2-3
r m a l	Clear
N o	CMOS

Keyboard Wake-Up

The JPWAKE jumper is used to- gether with the Keyboard Wake-Up function in BIOS. Enable both the jumper and the BIOS setting to al- low the system to be woken up by depressing a key on the keyboard. See the table on the right for pin definitions.

Note: Your power supply must meet ATX specification 2.01 or higher and supply 720 mA of standby power to use this feature.

SCSI Ch A/B Termination

The SCSI Channel A/B termination jumpers (JPA1/JPA2) are used to enable operation of the onboard SCSI. See the table on the right for jumper settings.

K e yb o a rd W a k e -U p J um p e r S e tting s

(J P W A K E )

Jumper
Position	Definition
1-2	Disabled
2-3	Enabled

S C S I C ha nne l A /B

T e rm ina tio n J um p e r

S e tting s (J P A 1 /J P A 2 )

Jumper
Position	Definition
O pen	Enabled
Closed	Disabled

2-13

SUPER, P3TDDR specifications

Super Micro Computer has established a prominent position in the realm of high-performance computing solutions, and one of its remarkable offerings is the P3TDDR motherboard. Designed for advanced workstations and servers, the P3TDDR marries powerful performance with flexibility and scalability, making it an ideal choice for demanding applications.

At the heart of the P3TDDR is its capacity to support Intel Pentium 4 processors, leveraging the rich features of the P4 architecture to deliver exceptional computing performance. The motherboard supports a substantial amount of DDR SDRAM, enabling faster data access and improved overall system performance. The incorporation of multiple DIMM slots allows users to configure the system with varying memory sizes, tailoring the setup to specific workload requirements.

One of the standout features of the P3TDDR is its support for RAID (Redundant Array of Independent Disks) configurations, which enhances data redundancy and performance. This makes the P3TDDR an excellent choice for applications that require continuous data availability, such as database management and large-scale data processing.

Additionally, the motherboard is equipped with multiple PCI slots, providing increased connectivity options for expansion cards, such as graphics, sound, and network cards. This versatility allows users to customize their systems to meet their unique needs, whether for gaming, graphic design, or enterprise-level applications.

From a technological perspective, the P3TDDR embraces an array of integrated features. The board includes onboard Ethernet capabilities that facilitate seamless network connectivity, which is crucial for server environments and enterprise applications. Furthermore, the use of high-quality capacitors and components ensures reliability and longevity in demanding operations.

Thermal management is another critical aspect, as the design includes strategically placed heatsinks and spaces for additional cooling solutions, ensuring that the system remains stable under heavy workloads. This attention to thermal efficiency enhances the overall performance and lifespan of the components.

In summary, the Super Micro P3TDDR motherboard stands out due to its robust features, advanced technologies, and adaptability. It caters to a wide range of applications, whether for professional use in data centers or for performance-oriented tasks in personal and gaming workstations. With its powerful chipset and thoughtful engineering, the P3TDDR is a reliable foundation for building high-performance computing systems.