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ICP-PIII High-Performance CPU Boards USER’S MANUAL Publication Number: PD00581013.004 AB MAN-ICP-PIII...
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The content of this user’s manual is furnished for informational use only, is subject to change without notice, and should not be constructed as a commitment by Inova Computers GmbH. Inova Computers GmbH assumes no responsibility or liability for any errors or inaccuracies that may appear in this user’s manual.
Inova Computers (‘Inova’) grant the original purchaser of Inova products the following hardware warranty. No other warranties that may be granted or implied by anyone on behalf of Inova are valid unless the consumer has the expressed written consent of Inova.
Fast Ethernet, FireWire and USB. To enable so much functionality to exist in such a small footprint, the ICP-PIII is able to host the I/O on either the front-panel or in the form of rear I/O or even both. Implementing the latest Intel chipsets and processors available for the embedded market the ICP-PIII is adequately equipped to provide support for all major operat- ing systems and off-the-shelf application software.
& hardware MPEG-2 support, enables screen resolutions up to 2048 x 1536 pixels to be driven. Dual video and TFT dual-scan/single-scan colour panels are supported with configurable colour depths. In addition, Inova’s ICP-PIII caters for the needs of the GigaST R, PanelLink™ and LVDS user.
ICP-PIII 1.2 Configuration Inova’s high-performance, high-density 3U PIII board supports functionality and connectivity on all three major serial networking levels like Fast Ethernet, FireWire and USB as well as most state-of- the-art fieldbus standards such as PROFIBUS, CAN, Interbus, and LON.
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In order to take full advantage of the rear I/O features, the CompactPCI back- plane needs to support them. Inova provides two standard versions; one has the J2 connector at the CPU location extended to the rear of the backplane while the other version has all slots fitted with the J2 connector on both the front and rear.
Disk-On-Chip™ FLASH (BIOS) This block diagram is applicable to all Inova’s PIII-based CPUs. Components and/or functionality may change without notice. An extra PCI load can be attached to the on-board 80-pin header. An open specification is available allowing developers to manufacture their own PCI device.
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8TE front-panel is selected. Both COM ports are installed on Inova’s HD or IDE FLASH carrier board. A piggyback with COM1, mouse and keyboard is also available allowing the lower 9-pin D-Sub connector position to be used for a PCI- based piggyback.
CompactPCI systems permit the full 16-bit addressing capability of the Intel 80x86 ‘processors, from 0h to 0FFFFh. All Inova CPU boards include peripheral devices requiring I/O address space on board and hence the BIOS automatically assigns the I/O address required by peripheral boards and PCI devices at boot time based on the requirements of each device.
Intel 80x86 memory map from 0h to 0FFFFFFh. Inova’s CompactPCI systems allow the full 32-bit addressing capability of the Intel Pentium/Celeron range of ‘processors so that memory mapped peripheral devices may be mapped locally to the ‘processor board at any location in the memory map not being used by other devices (e.g.
2.4 Inova PIII Device List Table 2.40 shows the available PCI devices both on-board and off-board (CompactPCI backplane). It should be noted that the interrupt routing assumes a standard Inova backplane configuration with a right-hand system slot. Table 2.40 Legacy I/O Map (ISA Compatible)
The BIOS featured in Inova’s CPUs programs the system timer tick for PC compatibility. The inter- rupt generated by the timer creates an interrupt request on IRQ0 of the programmable interrupt controller (PIC) which is serviced by the CPU as interrupt vector 08h.
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3.29 J14 FLASH Interface ................3-19 3.30 J18 Floppy Disk Interface ................ 3-19 3.31 Connecting the PIII to the Inova IPB-FPE8 ..........3-20 Figure 3.31 CPU to IPB-FPE8 Connection .................. 3-20 3.32 Connecting the PIII to the Inova ICP-HD-1 ..........3-21 Figure 3.32 CPU to ICP-HD-1 Connection.................
Figure 3.01 The 32-Bit CompactPCI Bus Interface Connector 3.02 ICP-PIII Connector J1 and J2 Inova’s ICP-PIII CPU board has been designed as a 32-bit system slot device able to operate in either +5V or +3.3V (I/O) systems. The CompactPCI backplane connector is keyed accordingly (yellow for +3.3V and blue for +5V.)
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Interfaces ICP-PIII Table 3.02 Inova’s ICP-PIII 32-Bit CompactPCI J1 Pin Assignment Pin Nr Row A Row B Row C Row D Row E REQ64# Pull- J1-25 ENUM# +3.3V Up V( I / O ) ACK64# Pull- J1-24 AD[1] V( I / O )
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ICP-PIII Interfaces Table 3.03 Inova’s ICP-PIII 32-Bit CompactPCI J2 Pin Assignment (Standard) Pin Nr Row A Row B Row C Row D Row E J2-22 J2-21 CLK6 J2-20 CLK5 J2-19 J2-18 J2-17 PRST# REQ6# GNT6# J2-16 (UBAT) J2-15 REQ5# GNT5#...
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Interfaces ICP-PIII Table 3.04 Inova’s ICP-PIII 32-Bit CompactPCI J2 Pin Assignment for Rear I/O (A) Pin Nr Row A Row B Row C Row D Row E J2-22 J2-21 CLK6 ETH_TxF+ ETH_TxF- ETH_R45 J2-20 CLK5 COM 2- ETH_R78 J2-19 COM 2+...
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ICP-PIII Interfaces Table 3.05 Inova’s ICP-PIII 32-Bit CompactPCI J2 Pin Assignment for Rear I/O (B) Pin Nr Row A Row B Row C Row D Row E J2-22 J2-21 CLK6 ETH_TxF+ ETH_TxF- ETH_R45 J2-20 CLK5 ETH_R78 J2-19 ETH_RxF+ ETH_RxF- J2-18...
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Interfaces ICP-PIII Table 3.06 Inova’s ICP-PIII 32-Bit CompactPCI J2 Pin Assignment for Rear I/O (C) Pin Nr Row A Row B Row C Row D Row E J2-22 J2-21 CLK6 FW_TPA+ FW_TPA- HCS0# J2-20 CLK5 HADR0 HRST# J2-19 HADR1 FW_TPB+...
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ICP-PIII Interfaces Table 3.07 Inova’s ICP-PIII Rear I/O J2 (CPU) Integration REAR I/O Rear I/O OPTION STANDARD ETHERNET Both COM 1/2 Both (TTL) (RS485) USB 1/2 Both USB 2 FireWire 2 LPT 1 SPEAKER BATTERY EIDE Currently three forms of rear I/O are available and, depending on the version currently in use, decides which (if any) of the J2 signals are available to the rear J2 connector.
The System Slot is responsible for performing system initialization by managing each local board’s IDSEL signal. Physically, the System Slot may be located at either end of the backplane but Inova have placed theirs on the right to cater for physical expansion due to heat-sink, hard disk, extended function- ality etc.
PCI, PanelLink or GigaST R piggyback. The 15-pin high-density D-Sub connector forms the physical interface for the video on the ICP-PIII which is based on either the Silicon Motion Lynx3DM graphic accelerator equipped with 8MByte RAM or the Radeon VE controller with 16MByte RAM.
Interfaces ICP-PIII 3.31 Connecting the PIII to the Inova IPB-FPE8 Appendix A provides more information on the IPB-FPE8 and its derivatives. Figure 3.31 shows how the CPU connects to the piggyback by a length of flex-cable. Figure 3.31 CPU to IPB-FPE8 Connection...
ICP-PIII Interfaces 3.32 Connecting the PIII to the Inova ICP-HD-1 Appendix B provides more information on the ICP-HD-1 and its derivatives. Figure 3.32 shows how the CPU connects to the piggyback by lengths of flex-cable. Figure 3.32 CPU to ICP-HD-1 Connection...
Interfaces ICP-PIII 3.33 Connecting the PIII to the Inova IPB-FPE12 Appendix C provides more information on the IPB-FPE12 and its derivatives. Figure 3.33 shows how the CPU connects to the piggyback by a length of flex-cable. The illustration also shows the IPB-FPE8 connection (Appendix A) Figure 3.33 CPU to IPB-FPE12 Connection...
ICP-PIII Interfaces 3.34 Connecting the PIII to the Inova IPB-FPE12 Appendix C provides more information on the IPB-FPE12 and its derivatives. Figure 3.34 shows how the CPU connects to the piggyback by a length of flex-cable. The illustration also shows the ICP-HD-1 connection (Appendix B) Figure 3.34 CPU to IPB-FPE12 Connection...
- all of which are discussed in this section. A1.2 IPB-FPE8 & Front-panel (4HP or 8HP) The Inova IPB-FPE8 interface is a small piggyback either as stand-alone with its own 4HP front- panel or integrated with the CPU as in figure A1.2.
Also, pin 1 has been highlighted by a red triangle. Note: Damage to the CPU board or the piggyback may result if the flex cable is positioned incorrectly. Inova will not accept responsibility for negligent actions! Figure A1.3 Stand-Alone Piggyback Interface IPB-FPE8 Pin 1...
As mentioned previously, the IPB-FPE8MS has a number of additional features compared to the standard IPB-FPE8 module. These extra features include HD and FD connection with both standard connectors and the Inova flex cables. This provides the user with system flexibility. Figure A1.5 Top & Bottom Views of the IPB-FPE8MS...
J11 and J13 connects to the interface boards discussed in this section. B1.2 ICP-HD-1 & Front-panel (4HP or 8HP) The Inova ICP-HD-1 interface is an IDE device carrier board available as a stand-alone device with its own 4HP front-panel or integrated with the CPU as in figure B1.2.
Also, pin 1 has been highlighted by a red triangle. Note: Damage to the CPU board or the piggyback may result if the flex cable is positioned incorrectly. Inova will not accept responsibility for negligent actions! Figure B1.3 IDE Carrier Board ICP-HD1...
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LPT1. Both the ICP-HD-1 and ICP- HDE8 possess COM2 which is accessed through J13 connected to the CPU board. If the Inova IPB-FPE12 piggy- back is used and connected to J13a then the COM2 on the IDE carriers ICP-HD-1 and ICP-HDE8MS will be disabled.
As mentioned previously, the ICP-HDE8MS has a number of additional features compared to the standard ICP-HD-1 module. These extra features include HD and FD connection with both stand- ard connectors and the Inova flex cables. This provides the user with additional system flexibility. Figure B1.5 Top & Bottom Views of the ICP-HDE8MS...
Appendix B B1 IPM-ATA CPU Extension Inova Plug-In Module (IPM-) offers the user the ability to exchange a hard-disk for example with- out having to remove the CPU from the CompactPCI enclosure and then dismantle it etc. Cur- rently, three units exist that provide industry with hard-disk, Compact FLASH, MicroDrive or ATA PCMCIA mass storage capability.
Master / Slave combinations will fail to be recognised by the BIOS. To help highlight the problem, Inova have provided the test report shown in Table B1.5 which should be regarded as a guide when choosing to pick-and-mix de- vices.
Appendix C C1 IPB-FPE12 CPU Extension The Inova IPB-FPE12 adds LPT and COM2 functionality to any Inova CPU. The piggyback is avail- able as a stand-alone device with its own 4HP front-panel or integrated within a 12HP K6 or PPC front-panel.
Also, pin 1 has been highlighted by a red triangle. Note: Damage to the CPU board or the piggyback may result if the flex cable is positioned incorrectly. Inova will not accept responsibility for negligent actions! Figure C1.3 LPT1 & COM2 Piggyback Board IPB-FPE12...
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Connector Description LPT1 & COM2 Note: Other Inova piggybacks (ICP-HD-1 & ICP- HDE8) provide J13a to “daisy-chain” the LPT1 / COM2 interfaces. If these connec- tors are used for the integration of the IPB-FPE12 then the COM2 port on these piggybacks is disabled.
CompactPCI connector on the rear of the Master Slot on the backplane. All standard Inova backplanes are equipped with this R2 connector so that even if the rear I/O functionality is not requested at time of order, it can be implemented at a later stage.
CompactPCI backplane and presents them in a form ready for device connection. This time, instead of a standard IDE header, the IDE device is connected using the familiar Inova flex cables. Also, a slim-line floppy disk may be attached using a suitable cable to the LPT connector (J13).
Appendix D D1.3 IPB-RIO-C-SHORT All Inova -RIO(C) compatible CPUs can take advantage of this transition module as it allows the signals shown in table D1.3 to be recovered (used). Figure D1.3 illustrates this piggyback and points to the available interfaces.
Naturally, not all enclosures are suitable for this type of connection and the following must be considered. Inova Desktop systems have an integrated fan - will the transition module interfere with it? 84HP Inova CoolBreeze systems are too short to accept an 80mm transition module.