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kernel_optimize_test/arch/m68k/include/asm/m525xsim.h

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m68knommu: Add support for the Coldfire 5251/5253 Basic support for the Coldfire 5251/5253. Signed-off-by: Steven king <sfking@fdwdc.com> Signed-off-by: Greg Ungerer <gerg@uclinux.org>
2012-06-05 23:23:08 +08:00
/****************************************************************************/
/*
* m525xsim.h -- ColdFire 525x System Integration Module support.
*
* (C) Copyright 2012, Steven king <sfking@fdwdc.com>
* (C) Copyright 2002, Greg Ungerer (gerg@snapgear.com)
*/
/****************************************************************************/
#ifndef m525xsim_h
#define m525xsim_h
/****************************************************************************/
#define CPU_NAME "COLDFIRE(m525x)"
#define CPU_INSTR_PER_JIFFY 3
#define MCF_BUSCLK (MCF_CLK / 2)
#include <asm/m52xxacr.h>
/*
* The 525x has a second MBAR region, define its address.
*/
#define MCF_MBAR2 0x80000000
/*
* Define the 525x SIM register set addresses.
*/
m68knommu: make ColdFire SYPCR and RSR register definitions absolute addresses Make all definitions of the ColdFire Reset and System registers absolute addresses. Currently some are relative to the MBAR peripheral region. The various ColdFire parts use different methods to address the internal registers, some are absolute, some are relative to peripheral regions which can be mapped at different address ranges (such as the MBAR and IPSBAR registers). We don't want to deal with this in the code when we are accessing these registers, so make all register definitions the abolsute address - factoring out whether it is an offset into a peripheral region. This makes them all consistently defined, and reduces the occasional bugs caused by inconsistent definition of the register addresses. Signed-off-by: Greg Ungerer <gerg@uclinux.org>
2012-07-15 19:55:01 +08:00
#define MCFSIM_RSR (MCF_MBAR + 0x00) /* Reset Status */
#define MCFSIM_SYPCR (MCF_MBAR + 0x01) /* System Protection */
m68knommu: make ColdFire watchdog register definitions absolute addresses Make all definitions of the ColdFire Software watchdog registers absolute addresses. Currently some are relative to the MBAR peripheral region. The various ColdFire parts use different methods to address the internal registers, some are absolute, some are relative to peripheral regions which can be mapped at different address ranges (such as the MBAR and IPSBAR registers). We don't want to deal with this in the code when we are accessing these registers, so make all register definitions the absolute address - factoring out whether it is an offset into a peripheral region. This makes them all consistently defined, and reduces the occasional bugs caused by inconsistent definition of the register addresses. Signed-off-by: Greg Ungerer <gerg@uclinux.org>
2012-07-15 20:01:08 +08:00
#define MCFSIM_SWIVR (MCF_MBAR + 0x02) /* SW Watchdog intr */
#define MCFSIM_SWSR (MCF_MBAR + 0x03) /* SW Watchdog srv */
m68knommu: make ColdFire Park and Assignment register definitions absolute addresses Make all definitions of the ColdFire MPARK and IRQ Assignment registers absolute addresses. Currently some are relative to the MBAR peripheral region. The various ColdFire parts use different methods to address the internal registers, some are absolute, some are relative to peripheral regions which can be mapped at different address ranges (such as the MBAR and IPSBAR registers). We don't want to deal with this in the code when we are accessing these registers, so make all register definitions the absolute address - factoring out whether it is an offset into a peripheral region. This makes them all consistently defined, and reduces the occasional bugs caused by inconsistent definition of the register addresses. Signed-off-by: Greg Ungerer <gerg@uclinux.org>
2012-09-14 14:09:59 +08:00
#define MCFSIM_MPARK (MCF_MBAR + 0x0C) /* BUS Master Ctrl */
m68knommu: make ColdFire IMR and IPR register definitions absolute addresses Make all definitions of the ColdFire Interrupt Mask and Pending registers absolute addresses. Currently some are relative to the MBAR peripheral region. The various ColdFire parts use different methods to address the internal registers, some are absolute, some are relative to peripheral regions which can be mapped at different address ranges (such as the MBAR and IPSBAR registers). We don't want to deal with this in the code when we are accessing these registers, so make all register definitions the absolute address - factoring out whether it is an offset into a peripheral region. This makes them all consistently defined, and reduces the occasional bugs caused by inconsistent definition of the register addresses. Signed-off-by: Greg Ungerer <gerg@uclinux.org>
2012-07-15 19:42:47 +08:00
#define MCFSIM_IPR (MCF_MBAR + 0x40) /* Interrupt Pending */
#define MCFSIM_IMR (MCF_MBAR + 0x44) /* Interrupt Mask */
m68knommu: make ColdFire Interrupt Source register definitions absolute addresses Make all definitions of the ColdFire Interrupt Source registers absolute addresses. Currently some are relative to the MBAR peripheral region. The various ColdFire parts use different methods to address the internal registers, some are absolute, some are relative to peripheral regions which can be mapped at different address ranges (such as the MBAR and IPSBAR registers). We don't want to deal with this in the code when we are accessing these registers, so make all register definitions the absolute address - factoring out whether it is an offset into a peripheral region. This makes them all consistently defined, and reduces the occasional bugs caused by inconsistent definition of the register addresses. Signed-off-by: Greg Ungerer <gerg@uclinux.org>
2012-08-17 14:48:16 +08:00
#define MCFSIM_ICR0 (MCF_MBAR + 0x4c) /* Intr Ctrl reg 0 */
#define MCFSIM_ICR1 (MCF_MBAR + 0x4d) /* Intr Ctrl reg 1 */
#define MCFSIM_ICR2 (MCF_MBAR + 0x4e) /* Intr Ctrl reg 2 */
#define MCFSIM_ICR3 (MCF_MBAR + 0x4f) /* Intr Ctrl reg 3 */
#define MCFSIM_ICR4 (MCF_MBAR + 0x50) /* Intr Ctrl reg 4 */
#define MCFSIM_ICR5 (MCF_MBAR + 0x51) /* Intr Ctrl reg 5 */
#define MCFSIM_ICR6 (MCF_MBAR + 0x52) /* Intr Ctrl reg 6 */
#define MCFSIM_ICR7 (MCF_MBAR + 0x53) /* Intr Ctrl reg 7 */
#define MCFSIM_ICR8 (MCF_MBAR + 0x54) /* Intr Ctrl reg 8 */
#define MCFSIM_ICR9 (MCF_MBAR + 0x55) /* Intr Ctrl reg 9 */
#define MCFSIM_ICR10 (MCF_MBAR + 0x56) /* Intr Ctrl reg 10 */
#define MCFSIM_ICR11 (MCF_MBAR + 0x57) /* Intr Ctrl reg 11 */
m68knommu: Add support for the Coldfire 5251/5253 Basic support for the Coldfire 5251/5253. Signed-off-by: Steven king <sfking@fdwdc.com> Signed-off-by: Greg Ungerer <gerg@uclinux.org>
2012-06-05 23:23:08 +08:00
m68knommu: make ColdFire Chip Select register definitions absolute addresses Make all definitions of the ColdFire Chip Select registers absolute addresses. Currently some are relative to the MBAR peripheral region. The various ColdFire parts use different methods to address the internal registers, some are absolute, some are relative to peripheral regions which can be mapped at different address ranges (such as the MBAR and IPSBAR registers). We don't want to deal with this in the code when we are accessing these registers, so make all register definitions the absolute address - factoring out whether it is an offset into a peripheral region. This makes them all consistently defined, and reduces the occasional bugs caused by inconsistent definition of the register addresses. Signed-off-by: Greg Ungerer <gerg@uclinux.org>
2012-09-14 13:36:02 +08:00
#define MCFSIM_CSAR0 (MCF_MBAR + 0x80) /* CS 0 Address reg */
#define MCFSIM_CSMR0 (MCF_MBAR + 0x84) /* CS 0 Mask reg */
#define MCFSIM_CSCR0 (MCF_MBAR + 0x8a) /* CS 0 Control reg */
#define MCFSIM_CSAR1 (MCF_MBAR + 0x8c) /* CS 1 Address reg */
#define MCFSIM_CSMR1 (MCF_MBAR + 0x90) /* CS 1 Mask reg */
#define MCFSIM_CSCR1 (MCF_MBAR + 0x96) /* CS 1 Control reg */
#define MCFSIM_CSAR2 (MCF_MBAR + 0x98) /* CS 2 Address reg */
#define MCFSIM_CSMR2 (MCF_MBAR + 0x9c) /* CS 2 Mask reg */
#define MCFSIM_CSCR2 (MCF_MBAR + 0xa2) /* CS 2 Control reg */
#define MCFSIM_CSAR3 (MCF_MBAR + 0xa4) /* CS 3 Address reg */
#define MCFSIM_CSMR3 (MCF_MBAR + 0xa8) /* CS 3 Mask reg */
#define MCFSIM_CSCR3 (MCF_MBAR + 0xae) /* CS 3 Control reg */
#define MCFSIM_CSAR4 (MCF_MBAR + 0xb0) /* CS 4 Address reg */
#define MCFSIM_CSMR4 (MCF_MBAR + 0xb4) /* CS 4 Mask reg */
#define MCFSIM_CSCR4 (MCF_MBAR + 0xba) /* CS 4 Control reg */
m68knommu: Add support for the Coldfire 5251/5253 Basic support for the Coldfire 5251/5253. Signed-off-by: Steven king <sfking@fdwdc.com> Signed-off-by: Greg Ungerer <gerg@uclinux.org>
2012-06-05 23:23:08 +08:00
#define MCFSIM_DCR (MCF_MBAR + 0x100) /* DRAM Control */
#define MCFSIM_DACR0 (MCF_MBAR + 0x108) /* DRAM 0 Addr/Ctrl */
#define MCFSIM_DMR0 (MCF_MBAR + 0x10c) /* DRAM 0 Mask */
/*
* Secondary Interrupt Controller (in MBAR2)
*/
#define MCFINTC2_INTBASE (MCF_MBAR2 + 0x168) /* Base Vector Reg */
#define MCFINTC2_INTPRI1 (MCF_MBAR2 + 0x140) /* 0-7 priority */
#define MCFINTC2_INTPRI2 (MCF_MBAR2 + 0x144) /* 8-15 priority */
#define MCFINTC2_INTPRI3 (MCF_MBAR2 + 0x148) /* 16-23 priority */
#define MCFINTC2_INTPRI4 (MCF_MBAR2 + 0x14c) /* 24-31 priority */
#define MCFINTC2_INTPRI5 (MCF_MBAR2 + 0x150) /* 32-39 priority */
#define MCFINTC2_INTPRI6 (MCF_MBAR2 + 0x154) /* 40-47 priority */
#define MCFINTC2_INTPRI7 (MCF_MBAR2 + 0x158) /* 48-55 priority */
#define MCFINTC2_INTPRI8 (MCF_MBAR2 + 0x15c) /* 56-63 priority */
#define MCFINTC2_INTPRI_REG(i) (MCFINTC2_INTPRI1 + \
((((i) - MCFINTC2_VECBASE) / 8) * 4))
#define MCFINTC2_INTPRI_BITS(b, i) ((b) << (((i) % 8) * 4))
/*
* Timer module.
*/
#define MCFTIMER_BASE1 (MCF_MBAR + 0x140) /* Base of TIMER1 */
#define MCFTIMER_BASE2 (MCF_MBAR + 0x180) /* Base of TIMER2 */
/*
* UART module.
*/
#define MCFUART_BASE0 (MCF_MBAR + 0x1c0) /* Base address UART0 */
#define MCFUART_BASE1 (MCF_MBAR + 0x200) /* Base address UART1 */
/*
* QSPI module.
*/
#define MCFQSPI_BASE (MCF_MBAR + 0x300) /* Base address QSPI */
#define MCFQSPI_SIZE 0x40 /* Register set size */
#define MCFQSPI_CS0 15
#define MCFQSPI_CS1 16
#define MCFQSPI_CS2 24
#define MCFQSPI_CS3 28
/*
* I2C module.
*/
#define MCFI2C_BASE0 (MCF_MBAR + 0x280) /* Base addreess I2C0 */
#define MCFI2C_SIZE0 0x20 /* Register set size */
#define MCFI2C_BASE1 (MCF_MBAR2 + 0x440) /* Base addreess I2C1 */
#define MCFI2C_SIZE1 0x20 /* Register set size */
/*
* DMA unit base addresses.
*/
#define MCFDMA_BASE0 (MCF_MBAR + 0x300) /* Base address DMA 0 */
#define MCFDMA_BASE1 (MCF_MBAR + 0x340) /* Base address DMA 1 */
#define MCFDMA_BASE2 (MCF_MBAR + 0x380) /* Base address DMA 2 */
#define MCFDMA_BASE3 (MCF_MBAR + 0x3C0) /* Base address DMA 3 */
/*
* Some symbol defines for the above...
*/
#define MCFSIM_SWDICR MCFSIM_ICR0 /* Watchdog timer ICR */
#define MCFSIM_TIMER1ICR MCFSIM_ICR1 /* Timer 1 ICR */
#define MCFSIM_TIMER2ICR MCFSIM_ICR2 /* Timer 2 ICR */
#define MCFSIM_I2CICR MCFSIM_ICR3 /* I2C ICR */
#define MCFSIM_UART1ICR MCFSIM_ICR4 /* UART 1 ICR */
#define MCFSIM_UART2ICR MCFSIM_ICR5 /* UART 2 ICR */
#define MCFSIM_DMA0ICR MCFSIM_ICR6 /* DMA 0 ICR */
#define MCFSIM_DMA1ICR MCFSIM_ICR7 /* DMA 1 ICR */
#define MCFSIM_DMA2ICR MCFSIM_ICR8 /* DMA 2 ICR */
#define MCFSIM_DMA3ICR MCFSIM_ICR9 /* DMA 3 ICR */
#define MCFSIM_QSPIICR MCFSIM_ICR10 /* QSPI ICR */
/*
* Define system peripheral IRQ usage.
*/
#define MCF_IRQ_QSPI 28 /* QSPI, Level 4 */
#define MCF_IRQ_I2C0 29
#define MCF_IRQ_TIMER 30 /* Timer0, Level 6 */
#define MCF_IRQ_PROFILER 31 /* Timer1, Level 7 */
#define MCF_IRQ_UART0 73 /* UART0 */
#define MCF_IRQ_UART1 74 /* UART1 */
/*
* Define the base interrupt for the second interrupt controller.
* We set it to 128, out of the way of the base interrupts, and plenty
* of room for its 64 interrupts.
*/
#define MCFINTC2_VECBASE 128
#define MCF_IRQ_GPIO0 (MCFINTC2_VECBASE + 32)
#define MCF_IRQ_GPIO1 (MCFINTC2_VECBASE + 33)
#define MCF_IRQ_GPIO2 (MCFINTC2_VECBASE + 34)
#define MCF_IRQ_GPIO3 (MCFINTC2_VECBASE + 35)
#define MCF_IRQ_GPIO4 (MCFINTC2_VECBASE + 36)
#define MCF_IRQ_GPIO5 (MCFINTC2_VECBASE + 37)
#define MCF_IRQ_GPIO6 (MCFINTC2_VECBASE + 38)
#define MCF_IRQ_USBWUP (MCFINTC2_VECBASE + 40)
#define MCF_IRQ_I2C1 (MCFINTC2_VECBASE + 62)
/*
* General purpose IO registers (in MBAR2).
*/
#define MCFSIM2_GPIOREAD (MCF_MBAR2 + 0x000) /* GPIO read values */
#define MCFSIM2_GPIOWRITE (MCF_MBAR2 + 0x004) /* GPIO write values */
#define MCFSIM2_GPIOENABLE (MCF_MBAR2 + 0x008) /* GPIO enabled */
#define MCFSIM2_GPIOFUNC (MCF_MBAR2 + 0x00C) /* GPIO function */
#define MCFSIM2_GPIO1READ (MCF_MBAR2 + 0x0B0) /* GPIO1 read values */
#define MCFSIM2_GPIO1WRITE (MCF_MBAR2 + 0x0B4) /* GPIO1 write values */
#define MCFSIM2_GPIO1ENABLE (MCF_MBAR2 + 0x0B8) /* GPIO1 enabled */
#define MCFSIM2_GPIO1FUNC (MCF_MBAR2 + 0x0BC) /* GPIO1 function */
#define MCFSIM2_GPIOINTSTAT (MCF_MBAR2 + 0xc0) /* GPIO intr status */
#define MCFSIM2_GPIOINTCLEAR (MCF_MBAR2 + 0xc0) /* GPIO intr clear */
#define MCFSIM2_GPIOINTENABLE (MCF_MBAR2 + 0xc4) /* GPIO intr enable */
/*
* Generic GPIO support
*/
#define MCFGPIO_PIN_MAX 64
#define MCFGPIO_IRQ_MAX 7
#define MCFGPIO_IRQ_VECBASE MCF_IRQ_GPIO0
/****************************************************************************/
#endif /* m525xsim_h */
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