linux/arch/blackfin/mach-bf537/include/mach/irq.h

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blackfin architecture This adds support for the Analog Devices Blackfin processor architecture, and currently supports the BF533, BF532, BF531, BF537, BF536, BF534, and BF561 (Dual Core) devices, with a variety of development platforms including those avaliable from Analog Devices (BF533-EZKit, BF533-STAMP, BF537-STAMP, BF561-EZKIT), and Bluetechnix! Tinyboards. The Blackfin architecture was jointly developed by Intel and Analog Devices Inc. (ADI) as the Micro Signal Architecture (MSA) core and introduced it in December of 2000. Since then ADI has put this core into its Blackfin processor family of devices. The Blackfin core has the advantages of a clean, orthogonal,RISC-like microprocessor instruction set. It combines a dual-MAC (Multiply/Accumulate), state-of-the-art signal processing engine and single-instruction, multiple-data (SIMD) multimedia capabilities into a single instruction-set architecture. The Blackfin architecture, including the instruction set, is described by the ADSP-BF53x/BF56x Blackfin Processor Programming Reference http://blackfin.uclinux.org/gf/download/frsrelease/29/2549/Blackfin_PRM.pdf The Blackfin processor is already supported by major releases of gcc, and there are binary and source rpms/tarballs for many architectures at: http://blackfin.uclinux.org/gf/project/toolchain/frs There is complete documentation, including "getting started" guides available at: http://docs.blackfin.uclinux.org/ which provides links to the sources and patches you will need in order to set up a cross-compiling environment for bfin-linux-uclibc This patch, as well as the other patches (toolchain, distribution, uClibc) are actively supported by Analog Devices Inc, at: http://blackfin.uclinux.org/ We have tested this on LTP, and our test plan (including pass/fails) can be found at: http://docs.blackfin.uclinux.org/doku.php?id=testing_the_linux_kernel [m.kozlowski@tuxland.pl: balance parenthesis in blackfin header files] Signed-off-by: Bryan Wu <bryan.wu@analog.com> Signed-off-by: Mariusz Kozlowski <m.kozlowski@tuxland.pl> Signed-off-by: Aubrey Li <aubrey.li@analog.com> Signed-off-by: Jie Zhang <jie.zhang@analog.com> Signed-off-by: Andrew Morton <akpm@linux-foundation.org> Signed-off-by: Linus Torvalds <torvalds@linux-foundation.org>
2007-05-07 05:50:22 +08:00
/*
* Copyright 2005-2008 Analog Devices Inc.
blackfin architecture This adds support for the Analog Devices Blackfin processor architecture, and currently supports the BF533, BF532, BF531, BF537, BF536, BF534, and BF561 (Dual Core) devices, with a variety of development platforms including those avaliable from Analog Devices (BF533-EZKit, BF533-STAMP, BF537-STAMP, BF561-EZKIT), and Bluetechnix! Tinyboards. The Blackfin architecture was jointly developed by Intel and Analog Devices Inc. (ADI) as the Micro Signal Architecture (MSA) core and introduced it in December of 2000. Since then ADI has put this core into its Blackfin processor family of devices. The Blackfin core has the advantages of a clean, orthogonal,RISC-like microprocessor instruction set. It combines a dual-MAC (Multiply/Accumulate), state-of-the-art signal processing engine and single-instruction, multiple-data (SIMD) multimedia capabilities into a single instruction-set architecture. The Blackfin architecture, including the instruction set, is described by the ADSP-BF53x/BF56x Blackfin Processor Programming Reference http://blackfin.uclinux.org/gf/download/frsrelease/29/2549/Blackfin_PRM.pdf The Blackfin processor is already supported by major releases of gcc, and there are binary and source rpms/tarballs for many architectures at: http://blackfin.uclinux.org/gf/project/toolchain/frs There is complete documentation, including "getting started" guides available at: http://docs.blackfin.uclinux.org/ which provides links to the sources and patches you will need in order to set up a cross-compiling environment for bfin-linux-uclibc This patch, as well as the other patches (toolchain, distribution, uClibc) are actively supported by Analog Devices Inc, at: http://blackfin.uclinux.org/ We have tested this on LTP, and our test plan (including pass/fails) can be found at: http://docs.blackfin.uclinux.org/doku.php?id=testing_the_linux_kernel [m.kozlowski@tuxland.pl: balance parenthesis in blackfin header files] Signed-off-by: Bryan Wu <bryan.wu@analog.com> Signed-off-by: Mariusz Kozlowski <m.kozlowski@tuxland.pl> Signed-off-by: Aubrey Li <aubrey.li@analog.com> Signed-off-by: Jie Zhang <jie.zhang@analog.com> Signed-off-by: Andrew Morton <akpm@linux-foundation.org> Signed-off-by: Linus Torvalds <torvalds@linux-foundation.org>
2007-05-07 05:50:22 +08:00
*
* Licensed under the GPL-2 or later
blackfin architecture This adds support for the Analog Devices Blackfin processor architecture, and currently supports the BF533, BF532, BF531, BF537, BF536, BF534, and BF561 (Dual Core) devices, with a variety of development platforms including those avaliable from Analog Devices (BF533-EZKit, BF533-STAMP, BF537-STAMP, BF561-EZKIT), and Bluetechnix! Tinyboards. The Blackfin architecture was jointly developed by Intel and Analog Devices Inc. (ADI) as the Micro Signal Architecture (MSA) core and introduced it in December of 2000. Since then ADI has put this core into its Blackfin processor family of devices. The Blackfin core has the advantages of a clean, orthogonal,RISC-like microprocessor instruction set. It combines a dual-MAC (Multiply/Accumulate), state-of-the-art signal processing engine and single-instruction, multiple-data (SIMD) multimedia capabilities into a single instruction-set architecture. The Blackfin architecture, including the instruction set, is described by the ADSP-BF53x/BF56x Blackfin Processor Programming Reference http://blackfin.uclinux.org/gf/download/frsrelease/29/2549/Blackfin_PRM.pdf The Blackfin processor is already supported by major releases of gcc, and there are binary and source rpms/tarballs for many architectures at: http://blackfin.uclinux.org/gf/project/toolchain/frs There is complete documentation, including "getting started" guides available at: http://docs.blackfin.uclinux.org/ which provides links to the sources and patches you will need in order to set up a cross-compiling environment for bfin-linux-uclibc This patch, as well as the other patches (toolchain, distribution, uClibc) are actively supported by Analog Devices Inc, at: http://blackfin.uclinux.org/ We have tested this on LTP, and our test plan (including pass/fails) can be found at: http://docs.blackfin.uclinux.org/doku.php?id=testing_the_linux_kernel [m.kozlowski@tuxland.pl: balance parenthesis in blackfin header files] Signed-off-by: Bryan Wu <bryan.wu@analog.com> Signed-off-by: Mariusz Kozlowski <m.kozlowski@tuxland.pl> Signed-off-by: Aubrey Li <aubrey.li@analog.com> Signed-off-by: Jie Zhang <jie.zhang@analog.com> Signed-off-by: Andrew Morton <akpm@linux-foundation.org> Signed-off-by: Linus Torvalds <torvalds@linux-foundation.org>
2007-05-07 05:50:22 +08:00
*/
#ifndef _BF537_IRQ_H_
#define _BF537_IRQ_H_
#include <mach-common/irq.h>
blackfin architecture This adds support for the Analog Devices Blackfin processor architecture, and currently supports the BF533, BF532, BF531, BF537, BF536, BF534, and BF561 (Dual Core) devices, with a variety of development platforms including those avaliable from Analog Devices (BF533-EZKit, BF533-STAMP, BF537-STAMP, BF561-EZKIT), and Bluetechnix! Tinyboards. The Blackfin architecture was jointly developed by Intel and Analog Devices Inc. (ADI) as the Micro Signal Architecture (MSA) core and introduced it in December of 2000. Since then ADI has put this core into its Blackfin processor family of devices. The Blackfin core has the advantages of a clean, orthogonal,RISC-like microprocessor instruction set. It combines a dual-MAC (Multiply/Accumulate), state-of-the-art signal processing engine and single-instruction, multiple-data (SIMD) multimedia capabilities into a single instruction-set architecture. The Blackfin architecture, including the instruction set, is described by the ADSP-BF53x/BF56x Blackfin Processor Programming Reference http://blackfin.uclinux.org/gf/download/frsrelease/29/2549/Blackfin_PRM.pdf The Blackfin processor is already supported by major releases of gcc, and there are binary and source rpms/tarballs for many architectures at: http://blackfin.uclinux.org/gf/project/toolchain/frs There is complete documentation, including "getting started" guides available at: http://docs.blackfin.uclinux.org/ which provides links to the sources and patches you will need in order to set up a cross-compiling environment for bfin-linux-uclibc This patch, as well as the other patches (toolchain, distribution, uClibc) are actively supported by Analog Devices Inc, at: http://blackfin.uclinux.org/ We have tested this on LTP, and our test plan (including pass/fails) can be found at: http://docs.blackfin.uclinux.org/doku.php?id=testing_the_linux_kernel [m.kozlowski@tuxland.pl: balance parenthesis in blackfin header files] Signed-off-by: Bryan Wu <bryan.wu@analog.com> Signed-off-by: Mariusz Kozlowski <m.kozlowski@tuxland.pl> Signed-off-by: Aubrey Li <aubrey.li@analog.com> Signed-off-by: Jie Zhang <jie.zhang@analog.com> Signed-off-by: Andrew Morton <akpm@linux-foundation.org> Signed-off-by: Linus Torvalds <torvalds@linux-foundation.org>
2007-05-07 05:50:22 +08:00
#define NR_PERI_INTS 32
#define IRQ_PLL_WAKEUP BFIN_IRQ(0) /* PLL Wakeup Interrupt */
#define IRQ_DMA_ERROR BFIN_IRQ(1) /* DMA Error (general) */
#define IRQ_GENERIC_ERROR BFIN_IRQ(2) /* GENERIC Error Interrupt */
#define IRQ_RTC BFIN_IRQ(3) /* RTC Interrupt */
#define IRQ_PPI BFIN_IRQ(4) /* DMA0 Interrupt (PPI) */
#define IRQ_SPORT0_RX BFIN_IRQ(5) /* DMA3 Interrupt (SPORT0 RX) */
#define IRQ_SPORT0_TX BFIN_IRQ(6) /* DMA4 Interrupt (SPORT0 TX) */
#define IRQ_SPORT1_RX BFIN_IRQ(7) /* DMA5 Interrupt (SPORT1 RX) */
#define IRQ_SPORT1_TX BFIN_IRQ(8) /* DMA6 Interrupt (SPORT1 TX) */
#define IRQ_TWI BFIN_IRQ(9) /* TWI Interrupt */
#define IRQ_SPI BFIN_IRQ(10) /* DMA7 Interrupt (SPI) */
#define IRQ_UART0_RX BFIN_IRQ(11) /* DMA8 Interrupt (UART0 RX) */
#define IRQ_UART0_TX BFIN_IRQ(12) /* DMA9 Interrupt (UART0 TX) */
#define IRQ_UART1_RX BFIN_IRQ(13) /* DMA10 Interrupt (UART1 RX) */
#define IRQ_UART1_TX BFIN_IRQ(14) /* DMA11 Interrupt (UART1 TX) */
#define IRQ_CAN_RX BFIN_IRQ(15) /* CAN Receive Interrupt */
#define IRQ_CAN_TX BFIN_IRQ(16) /* CAN Transmit Interrupt */
#define IRQ_MAC_RX BFIN_IRQ(17) /* DMA1 (Ethernet RX) Interrupt */
#define IRQ_MAC_TX BFIN_IRQ(18) /* DMA2 (Ethernet TX) Interrupt */
#define IRQ_TIMER0 BFIN_IRQ(19) /* Timer 0 */
#define IRQ_TIMER1 BFIN_IRQ(20) /* Timer 1 */
#define IRQ_TIMER2 BFIN_IRQ(21) /* Timer 2 */
#define IRQ_TIMER3 BFIN_IRQ(22) /* Timer 3 */
#define IRQ_TIMER4 BFIN_IRQ(23) /* Timer 4 */
#define IRQ_TIMER5 BFIN_IRQ(24) /* Timer 5 */
#define IRQ_TIMER6 BFIN_IRQ(25) /* Timer 6 */
#define IRQ_TIMER7 BFIN_IRQ(26) /* Timer 7 */
#define IRQ_PROG_INTA BFIN_IRQ(27) /* PF Ports F&G (PF15:0) Interrupt A */
#define IRQ_PORTG_INTB BFIN_IRQ(28) /* PF Port G (PF15:0) Interrupt B */
#define IRQ_MEM_DMA0 BFIN_IRQ(29) /* (Memory DMA Stream 0) */
#define IRQ_MEM_DMA1 BFIN_IRQ(30) /* (Memory DMA Stream 1) */
#define IRQ_PROG_INTB BFIN_IRQ(31) /* PF Ports F (PF15:0) Interrupt B */
#define IRQ_WATCH BFIN_IRQ(32) /* Watch Dog Timer */
#define SYS_IRQS 39
#define IRQ_PPI_ERROR 42 /* PPI Error Interrupt */
#define IRQ_CAN_ERROR 43 /* CAN Error Interrupt */
#define IRQ_MAC_ERROR 44 /* MAC Status/Error Interrupt */
#define IRQ_SPORT0_ERROR 45 /* SPORT0 Error Interrupt */
#define IRQ_SPORT1_ERROR 46 /* SPORT1 Error Interrupt */
#define IRQ_SPI_ERROR 47 /* SPI Error Interrupt */
#define IRQ_UART0_ERROR 48 /* UART Error Interrupt */
#define IRQ_UART1_ERROR 49 /* UART Error Interrupt */
#define IRQ_PF0 50
#define IRQ_PF1 51
#define IRQ_PF2 52
#define IRQ_PF3 53
#define IRQ_PF4 54
#define IRQ_PF5 55
#define IRQ_PF6 56
#define IRQ_PF7 57
#define IRQ_PF8 58
#define IRQ_PF9 59
#define IRQ_PF10 60
#define IRQ_PF11 61
#define IRQ_PF12 62
#define IRQ_PF13 63
#define IRQ_PF14 64
#define IRQ_PF15 65
#define IRQ_PG0 66
#define IRQ_PG1 67
#define IRQ_PG2 68
#define IRQ_PG3 69
#define IRQ_PG4 70
#define IRQ_PG5 71
#define IRQ_PG6 72
#define IRQ_PG7 73
#define IRQ_PG8 74
#define IRQ_PG9 75
#define IRQ_PG10 76
#define IRQ_PG11 77
#define IRQ_PG12 78
#define IRQ_PG13 79
#define IRQ_PG14 80
#define IRQ_PG15 81
#define IRQ_PH0 82
#define IRQ_PH1 83
#define IRQ_PH2 84
#define IRQ_PH3 85
#define IRQ_PH4 86
#define IRQ_PH5 87
#define IRQ_PH6 88
#define IRQ_PH7 89
#define IRQ_PH8 90
#define IRQ_PH9 91
#define IRQ_PH10 92
#define IRQ_PH11 93
#define IRQ_PH12 94
#define IRQ_PH13 95
#define IRQ_PH14 96
#define IRQ_PH15 97
#define GPIO_IRQ_BASE IRQ_PF0
#define IRQ_MAC_PHYINT 98 /* PHY_INT Interrupt */
#define IRQ_MAC_MMCINT 99 /* MMC Counter Interrupt */
#define IRQ_MAC_RXFSINT 100 /* RX Frame-Status Interrupt */
#define IRQ_MAC_TXFSINT 101 /* TX Frame-Status Interrupt */
#define IRQ_MAC_WAKEDET 102 /* Wake-Up Interrupt */
#define IRQ_MAC_RXDMAERR 103 /* RX DMA Direction Error Interrupt */
#define IRQ_MAC_TXDMAERR 104 /* TX DMA Direction Error Interrupt */
#define IRQ_MAC_STMDONE 105 /* Station Mgt. Transfer Done Interrupt */
#define NR_MACH_IRQS (IRQ_MAC_STMDONE + 1)
/* IAR0 BIT FIELDS */
#define IRQ_PLL_WAKEUP_POS 0
#define IRQ_DMA_ERROR_POS 4
#define IRQ_ERROR_POS 8
#define IRQ_RTC_POS 12
#define IRQ_PPI_POS 16
#define IRQ_SPORT0_RX_POS 20
#define IRQ_SPORT0_TX_POS 24
#define IRQ_SPORT1_RX_POS 28
/* IAR1 BIT FIELDS */
#define IRQ_SPORT1_TX_POS 0
#define IRQ_TWI_POS 4
#define IRQ_SPI_POS 8
#define IRQ_UART0_RX_POS 12
#define IRQ_UART0_TX_POS 16
#define IRQ_UART1_RX_POS 20
#define IRQ_UART1_TX_POS 24
#define IRQ_CAN_RX_POS 28
/* IAR2 BIT FIELDS */
#define IRQ_CAN_TX_POS 0
#define IRQ_MAC_RX_POS 4
#define IRQ_MAC_TX_POS 8
#define IRQ_TIMER0_POS 12
#define IRQ_TIMER1_POS 16
#define IRQ_TIMER2_POS 20
#define IRQ_TIMER3_POS 24
#define IRQ_TIMER4_POS 28
/* IAR3 BIT FIELDS */
#define IRQ_TIMER5_POS 0
#define IRQ_TIMER6_POS 4
#define IRQ_TIMER7_POS 8
#define IRQ_PROG_INTA_POS 12
#define IRQ_PORTG_INTB_POS 16
#define IRQ_MEM_DMA0_POS 20
#define IRQ_MEM_DMA1_POS 24
#define IRQ_WATCH_POS 28
#define init_mach_irq init_mach_irq
#endif