?? hwdrv_apci3200.c
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/**@verbatimCopyright (C) 2004,2005 ADDI-DATA GmbH for the source code of this module. ADDI-DATA GmbH Dieselstrasse 3 D-77833 Ottersweier Tel: +19(0)7223/9493-0 Fax: +49(0)7223/9493-92 http://www.addi-data-com info@addi-data.com This program is free software; you can redistribute it and/or modify it under the terms of the GNU General Public License as published by the Free Software Foundation; either version 2 of the License, or (at your option) any later version.This program is distributed in the hope that it will be useful, but WITHOUT ANY WARRANTY; without even the implied warranty of MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the GNU General Public License for more details.You should have received a copy of the GNU General Public License along with this program; if not, write to the Free Software Foundation, Inc., 59 Temple Place, Suite 330, Boston, MA 02111-1307 USAYou shoud also find the complete GPL in the COPYING file accompanying this source code.@endverbatim*//* +-----------------------------------------------------------------------+ | (C) ADDI-DATA GmbH Dieselstra?e 3 D-77833 Ottersweier | +-----------------------------------------------------------------------+ | Tel : +49 (0) 7223/9493-0 | email : info@addi-data.com | | Fax : +49 (0) 7223/9493-92 | Internet : http://www.addi-data.com | +-------------------------------+---------------------------------------+ | Project : APCI-3200 | Compiler : GCC | | Module name : hwdrv_apci3200.c| Version : 2.96 | +-------------------------------+---------------------------------------+ | Project manager: Eric Stolz | Date : 02/12/2002 | +-------------------------------+---------------------------------------+ | Description : Hardware Layer Acces For APCI-3200 | +-----------------------------------------------------------------------+ | UPDATES | +----------+-----------+------------------------------------------------+ | Date | Author | Description of updates | +----------+-----------+------------------------------------------------+ | 02.07.04 | J. Krauth | Modification from the driver in order to | | | | correct some errors when using several boards. | | | | | | | | | +----------+-----------+------------------------------------------------+ | 26.10.04 | J. Krauth | - Update for COMEDI 0.7.68 | | | | - Read eeprom value | | | | - Append APCI-3300 | +----------+-----------+------------------------------------------------+ *//* +----------------------------------------------------------------------------+ | Included files | +----------------------------------------------------------------------------+*/#include "hwdrv_apci3200.h"//Begin JK 21.10.2004: APCI-3200 / APCI-3300 Reading of EEPROM values#include "addi_amcc_S5920.h"//#define PRINT_INFO//End JK 21.10.2004: APCI-3200 / APCI-3300 Reading of EEPROM values//BEGIN JK 06.07.04: Management of sevrals boards/* INT i_CJCAvailable=1; INT i_CJCPolarity=0; INT i_CJCGain=2;//changed from 0 to 2 INT i_InterruptFlag=0; INT i_ADDIDATAPolarity; INT i_ADDIDATAGain; INT i_AutoCalibration=0; //: auto calibration INT i_ADDIDATAConversionTime; INT i_ADDIDATAConversionTimeUnit; INT i_ADDIDATAType; INT i_ChannelNo; INT i_ChannelCount=0; INT i_ScanType; INT i_FirstChannel; INT i_LastChannel; INT i_Sum=0; INT i_Offset; UINT ui_Channel_num=0; static int i_Count=0; INT i_Initialised=0; UINT ui_InterruptChannelValue[96]; //Buffer*/str_BoardInfos s_BoardInfos [100]; // 100 will be the max number of boards to be used//END JK 06.07.04: Management of sevrals boards//Begin JK 21.10.2004: APCI-3200 / APCI-3300 Reading of EEPROM values/*+----------------------------------------------------------------------------+*//*| Function Name : INT i_AddiHeaderRW_ReadEeprom |*//*| (INT i_NbOfWordsToRead, |*/ /*| DWORD dw_PCIBoardEepromAddress, |*//*| WORD w_EepromStartAddress, |*//*| PWORD pw_DataRead) |*//*+----------------------------------------------------------------------------+*//*| Task : Read word from the 5920 eeprom. |*//*+----------------------------------------------------------------------------+*//*| Input Parameters : INT i_NbOfWordsToRead : Nbr. of word to read |*/ /*| DWORD dw_PCIBoardEepromAddress : Address of the eeprom |*//*| WORD w_EepromStartAddress : Eeprom strat address |*//*+----------------------------------------------------------------------------+*//*| Output Parameters : PWORD pw_DataRead : Read data |*/ /*+----------------------------------------------------------------------------+*//*| Return Value : - |*//*+----------------------------------------------------------------------------+*/INT i_AddiHeaderRW_ReadEeprom (INT i_NbOfWordsToRead, DWORD dw_PCIBoardEepromAddress, WORD w_EepromStartAddress, PWORD pw_DataRead){ DWORD dw_eeprom_busy=0; INT i_Counter=0; INT i_WordCounter; INT i; BYTE pb_ReadByte[1]; BYTE b_ReadLowByte = 0; BYTE b_ReadHighByte = 0; BYTE b_SelectedAddressLow = 0; BYTE b_SelectedAddressHigh = 0; WORD w_ReadWord = 0; for (i_WordCounter = 0;i_WordCounter<i_NbOfWordsToRead;i_WordCounter++) { do { dw_eeprom_busy = inl (dw_PCIBoardEepromAddress + AMCC_OP_REG_MCSR); dw_eeprom_busy=dw_eeprom_busy & EEPROM_BUSY; } while (dw_eeprom_busy==EEPROM_BUSY); for(i_Counter=0;i_Counter<2;i_Counter++) { b_SelectedAddressLow=(w_EepromStartAddress+i_Counter) % 256; //Read the low 8 bit part b_SelectedAddressHigh=(w_EepromStartAddress+i_Counter)/256; //Read the high 8 bit part //Select the load low address mode outb (NVCMD_LOAD_LOW, dw_PCIBoardEepromAddress+AMCC_OP_REG_MCSR+3); //Wait on busy do { dw_eeprom_busy = inl (dw_PCIBoardEepromAddress + AMCC_OP_REG_MCSR); dw_eeprom_busy=dw_eeprom_busy & EEPROM_BUSY; } while(dw_eeprom_busy==EEPROM_BUSY); //Load the low address outb(b_SelectedAddressLow, dw_PCIBoardEepromAddress+AMCC_OP_REG_MCSR+2); //Wait on busy do { dw_eeprom_busy = inl (dw_PCIBoardEepromAddress + AMCC_OP_REG_MCSR); dw_eeprom_busy=dw_eeprom_busy & EEPROM_BUSY; } while(dw_eeprom_busy== EEPROM_BUSY); //Select the load high address mode outb(NVCMD_LOAD_HIGH, dw_PCIBoardEepromAddress+AMCC_OP_REG_MCSR+3); //Wait on busy do { dw_eeprom_busy = inl (dw_PCIBoardEepromAddress + AMCC_OP_REG_MCSR); dw_eeprom_busy=dw_eeprom_busy & EEPROM_BUSY; } while(dw_eeprom_busy== EEPROM_BUSY); //Load the high address outb (b_SelectedAddressHigh, dw_PCIBoardEepromAddress+AMCC_OP_REG_MCSR+2); //Wait on busy do { dw_eeprom_busy = inl (dw_PCIBoardEepromAddress + AMCC_OP_REG_MCSR); dw_eeprom_busy=dw_eeprom_busy & EEPROM_BUSY; } while(dw_eeprom_busy== EEPROM_BUSY); //Select the READ mode outb (NVCMD_BEGIN_READ, dw_PCIBoardEepromAddress+AMCC_OP_REG_MCSR+3); //Wait on busy do { dw_eeprom_busy = inl (dw_PCIBoardEepromAddress + AMCC_OP_REG_MCSR); dw_eeprom_busy=dw_eeprom_busy & EEPROM_BUSY; } while(dw_eeprom_busy== EEPROM_BUSY); //Read data into the EEPROM *pb_ReadByte = inb (dw_PCIBoardEepromAddress+AMCC_OP_REG_MCSR+2); //Wait on busy do { dw_eeprom_busy = inl (dw_PCIBoardEepromAddress + AMCC_OP_REG_MCSR); dw_eeprom_busy=dw_eeprom_busy & EEPROM_BUSY; } while(dw_eeprom_busy== EEPROM_BUSY); //Select the upper address part if(i_Counter==0) { b_ReadLowByte=pb_ReadByte[0]; }else { b_ReadHighByte=pb_ReadByte[0]; } //Sleep for (i=0; i < 10000; i++); } w_ReadWord=(b_ReadLowByte|( ( (unsigned short) b_ReadHighByte) *256) ); pw_DataRead[i_WordCounter]=w_ReadWord; w_EepromStartAddress +=2; // to read the next word } // for (...) i_NbOfWordsToRead return (0);}/*+----------------------------------------------------------------------------+*//*| Function Name : VOID v_GetAPCI3200EepromCalibrationValue (VOID) |*//*+----------------------------------------------------------------------------+*//*| Task : Read calibration value from the APCI-3200 eeprom. |*//*+----------------------------------------------------------------------------+*//*| Input Parameters : - |*//*+----------------------------------------------------------------------------+*//*| Output Parameters : - |*//*+----------------------------------------------------------------------------+*//*| Return Value : - |*//*+----------------------------------------------------------------------------+*/VOID v_GetAPCI3200EepromCalibrationValue (DWORD dw_PCIBoardEepromAddress, str_BoardInfos *BoardInformations){ WORD w_AnalogInputMainHeaderAddress; WORD w_AnalogInputComponentAddress; WORD w_NumberOfModuls = 0; WORD w_CurrentSources [2]; WORD w_ModulCounter = 0; WORD w_FirstHeaderSize = 0; WORD w_NumberOfInputs = 0; WORD w_CJCFlag = 0; WORD w_NumberOfGainValue = 0; WORD w_SingleHeaderAddress = 0; WORD w_SingleHeaderSize = 0; WORD w_Input = 0; WORD w_GainFactorAddress = 0; WORD w_GainFactorValue [2]; WORD w_GainIndex = 0; WORD w_GainValue = 0; /*****************************************/ /** Get the Analog input header address **/ /*****************************************/ i_AddiHeaderRW_ReadEeprom (1, //i_NbOfWordsToRead dw_PCIBoardEepromAddress, 0x116,//w_EepromStartAddress: Analog input header address &w_AnalogInputMainHeaderAddress); /*******************************************/ /** Compute the real analog input address **/ /*******************************************/ w_AnalogInputMainHeaderAddress = w_AnalogInputMainHeaderAddress + 0x100; /******************************/ /** Get the number of moduls **/ /******************************/ i_AddiHeaderRW_ReadEeprom (1, //i_NbOfWordsToRead dw_PCIBoardEepromAddress, w_AnalogInputMainHeaderAddress + 0x02,//w_EepromStartAddress: Number of conponment &w_NumberOfModuls); for (w_ModulCounter = 0; w_ModulCounter < w_NumberOfModuls; w_ModulCounter ++) { /***********************************/ /** Compute the component address **/ /***********************************/ w_AnalogInputComponentAddress = w_AnalogInputMainHeaderAddress + (w_FirstHeaderSize * w_ModulCounter) + 0x04; /****************************/ /** Read first header size **/ /****************************/ i_AddiHeaderRW_ReadEeprom (1, //i_NbOfWordsToRead dw_PCIBoardEepromAddress, w_AnalogInputComponentAddress, // Address of the first header &w_FirstHeaderSize); w_FirstHeaderSize = w_FirstHeaderSize >> 4; /***************************/ /** Read number of inputs **/ /***************************/ i_AddiHeaderRW_ReadEeprom (1, //i_NbOfWordsToRead dw_PCIBoardEepromAddress, w_AnalogInputComponentAddress + 0x06, // Number of inputs for the first modul &w_NumberOfInputs); w_NumberOfInputs = w_NumberOfInputs >> 4; /***********************/ /** Read the CJC flag **/ /***********************/ i_AddiHeaderRW_ReadEeprom (1, //i_NbOfWordsToRead dw_PCIBoardEepromAddress, w_AnalogInputComponentAddress + 0x08, // CJC flag &w_CJCFlag); w_CJCFlag = (w_CJCFlag >> 3) & 0x1; // Get only the CJC flag
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