Intel Complete Guide to US15W PCI Express Slot Functionality

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Reference Board Summary

Figure 8. Crown Beach LEDs

4.8PCI Express* X1 Slots and Mini Card Connectors

4.8.1Mini Card A connector (J7H1) is enabled by default

To enable PCI Express* Slot 1 (J8C1) Mini Card A (J7H1) must be redirected to Slot 1.

Table 12. PCI Express* Slot 1 Board Rework to Enable Functionality

Rework

Impacted components

Comments

 

 

 

 

Remove – R6D1, R6D3, R6E2, R6E3,

Rework provides proper connectivity for PCI

 

R8F19, R8F21

Enable Slot 1

Populate 0 Ohms – R6D2, R6D4,

Express* Slot 1. Refer to the Mini Card A

sheet of the Crown Beach Schematics and

 

R6E1, R6E4

 

layout for details.

 

Populate 33 Ohms - R8F22, R8F20

 

 

 

 

 

User’s Manual

35

Document Number: 320264

Image 35
Contents July Document # Revision User’s ManualUser’s Manual Document Number Contents Power Up Tables FiguresRelease for public posting Revision HistoryDocument Revision Description Initial releaseAbout the Development Kit IntroductionTerm Definition TerminologyAdditional Technical Support Technical SupportRelated Documents Product LiteratureRelated Documents Intel Literature CentersCrown Beach Board Crown Beach Board Block DiagramCrown Beach Board Top View Getting StartedOverview Major FeaturesCrown Beach Feature Set Summary Feature Crown Beach Board Comments ImplementationSDIO/MMC SMC/KBC Processor SupportProcessor Voltage Regulators Display Subsystem DescriptionsIntel SCH Chipset System MemoryCrown Beach Supported Lvds Displays Manufacturer Size Resolution Back Aspect Part#PCI Express* Slots Soft Audio/Soft ModemSystem Management Controller SMC/Keyboard Controller KBC USB ConnectorsPata Storage LPC SlotClocks EFI Firmware Hub FWHTrusted Platform Module TPM Header 12 SD/SDIO/MMCBoard Technology Power Supply SolutionIn-Target Probe ITP and Debug Support Board SizeEquation Power ManagementPower Measurement Support Power Measurement ResistorSch Component Voltage Supply Rail Ref Des Resistor Crown Beach Voltage RailsAgilent 34401A 6½ digit Lvdsvdl DDR2VRLvdsddc LvdsbckltKeyboard +V12SCPU Vcore+V12S Reference Board Summary Crown Beach Board FeaturesConnectors Ref Des Description Back Panel ConnectorsConfiguration Jumpers/Switches Configuration SettingsBbprog Configuration Jumper/Switches SettingsPSON# Processor Bsel Jumper SettingsBsel Jumper Settings Manual VID Support for CPUCrown Beach Manual VID Power On and Reset Push ButtonsFunction Reference Designator LEDsCrown Beach LEDs Rework Impacted components Comments PCI Express* X1 Slots and Mini Card ConnectorsMini Card a connector J7H1 is enabled by default PCI Express* Slot 1 Board Rework to Enable Functionality1 H8 In-System Programming Mini Card B connector J2G1 is disabled by defaultMini Card B Board Rework to Enable Functionality H8S Jtag Programming HeadersReference Board Summary Jtag Uart ConnectorH8 Programming Jumpers Required Peripherals Quick StartSamsung 15 inch 381.00 mm Panel Graphics Assembly Lvds PanelCrown Beach Board Lvds Cable Connected to the Crown Beach Board Power Up Powering Up the Board EFI Firmware Updates Mott Canyon 4 Interposer Card Appendix a Daughter and Plug-In CardsMott Canyon 4 Interposer Card Jumper SettingsDescription Default Setting Optional Setting Reference Mott Canyon 4 Interposer Card Configuration Jumper/SwitchesFirmware Configuration Voltage Identification Definition Appendix B Intel MVP-6 VID CodesVID6 VID5 VID4 VID3 VID2 VID1 VID0 VCC 5625 External Feature Location Front of Chassis Appendix C External FeaturesRear Chassis View with Board Installed External Feature Location Rear of Chassis

US15W specifications

The Intel US15W is an embedded chipset designed to meet the demands of ultra-low power computing environments. Released in 2008, this chipset was aimed at small form-factor devices such as netbooks, thin clients, and embedded systems. With its unique blend of features, the US15W has played a crucial role in the evolution of low-power computing technologies.

One of the standout characteristics of the US15W chipset is its integration of a single-chip design, which significantly reduces the overall footprint of the system. This is particularly advantageous for manufacturers looking to create compact devices without compromising on performance. The chipset integrates the Intel Atom processor, which is known for its efficient power consumption and solid performance for lightweight applications. The combination provides a balance between energy efficiency and processing capability, making it suitable for various applications ranging from internet browsing to multimedia playback.

Another major feature of the Intel US15W is its support for Intel's Graphics Media Accelerator 500, which enhances visual performance by providing hardware acceleration for graphics rendering. This capability enables smoother video playback and improved graphical user interfaces, which are essential for user-centric devices.

The US15W chipset also supports various connectivity options, including USB 2.0 and Serial ATA (SATA) interfaces. This flexibility allows for ease in peripheral connectivity and storage solutions, accommodating the needs of embedded applications and consumer electronics alike. Moreover, the chipset supports Intel's Enhanced SpeedStep technology, a power management feature that adjusts processor voltage and frequency based on workload, helping to extend battery life in portable devices.

In terms of memory support, the Intel US15W can handle up to 2GB of DDR2 RAM, which is adequate for many embedded computing tasks. The chipset is designed to facilitate efficient thermal management, which is crucial in maintaining long-lasting performance in compact and thermally constrained environments.

Overall, the Intel US15W chipset exemplifies the shift towards energy-efficient, compact computing solutions. Its innovative integration of features, support for modern graphics, and robust connectivity options make it a significant player in the embedded chipset market. As technology continues to evolve, the US15W remains a testament to Intel's commitment to providing high-performance solutions that meet the demands of modern computing without sacrificing power efficiency.