| Author | Tokens | Token Proportion | Commits | Commit Proportion |
|---|---|---|---|---|
| Linus Torvalds (pre-git) | 1676 | 78.61% | 21 | 65.62% |
| Richard Henderson | 232 | 10.88% | 2 | 6.25% |
| Ivan Kokshaysky | 140 | 6.57% | 4 | 12.50% |
| Arnd Bergmann | 44 | 2.06% | 1 | 3.12% |
| Linus Torvalds | 22 | 1.03% | 2 | 6.25% |
| Jay Estabrook | 17 | 0.80% | 1 | 3.12% |
| Greg Kroah-Hartman | 1 | 0.05% | 1 | 3.12% |
| Total | 2132 | 32 |
/* SPDX-License-Identifier: GPL-2.0 */ #ifndef __ALPHA_T2__H__ #define __ALPHA_T2__H__ /* Fit everything into one 128MB HAE window. */ #define T2_ONE_HAE_WINDOW 1 #include <linux/types.h> #include <linux/spinlock.h> #include <asm/compiler.h> /* * T2 is the internal name for the core logic chipset which provides * memory controller and PCI access for the SABLE-based systems. * * This file is based on: * * SABLE I/O Specification * Revision/Update Information: 1.3 * * jestabro@amt.tay1.dec.com Initial Version. * */ #define T2_MEM_R1_MASK 0x07ffffff /* Mem sparse region 1 mask is 27 bits */ /* GAMMA-SABLE is a SABLE with EV5-based CPUs */ /* All LYNX machines, EV4 or EV5, use the GAMMA bias also */ #define _GAMMA_BIAS 0x8000000000UL #if defined(CONFIG_ALPHA_GENERIC) #define GAMMA_BIAS alpha_mv.sys.t2.gamma_bias #elif defined(CONFIG_ALPHA_GAMMA) #define GAMMA_BIAS _GAMMA_BIAS #else #define GAMMA_BIAS 0 #endif /* * Memory spaces: */ #define T2_CONF (IDENT_ADDR + GAMMA_BIAS + 0x390000000UL) #define T2_IO (IDENT_ADDR + GAMMA_BIAS + 0x3a0000000UL) #define T2_SPARSE_MEM (IDENT_ADDR + GAMMA_BIAS + 0x200000000UL) #define T2_DENSE_MEM (IDENT_ADDR + GAMMA_BIAS + 0x3c0000000UL) #define T2_IOCSR (IDENT_ADDR + GAMMA_BIAS + 0x38e000000UL) #define T2_CERR1 (IDENT_ADDR + GAMMA_BIAS + 0x38e000020UL) #define T2_CERR2 (IDENT_ADDR + GAMMA_BIAS + 0x38e000040UL) #define T2_CERR3 (IDENT_ADDR + GAMMA_BIAS + 0x38e000060UL) #define T2_PERR1 (IDENT_ADDR + GAMMA_BIAS + 0x38e000080UL) #define T2_PERR2 (IDENT_ADDR + GAMMA_BIAS + 0x38e0000a0UL) #define T2_PSCR (IDENT_ADDR + GAMMA_BIAS + 0x38e0000c0UL) #define T2_HAE_1 (IDENT_ADDR + GAMMA_BIAS + 0x38e0000e0UL) #define T2_HAE_2 (IDENT_ADDR + GAMMA_BIAS + 0x38e000100UL) #define T2_HBASE (IDENT_ADDR + GAMMA_BIAS + 0x38e000120UL) #define T2_WBASE1 (IDENT_ADDR + GAMMA_BIAS + 0x38e000140UL) #define T2_WMASK1 (IDENT_ADDR + GAMMA_BIAS + 0x38e000160UL) #define T2_TBASE1 (IDENT_ADDR + GAMMA_BIAS + 0x38e000180UL) #define T2_WBASE2 (IDENT_ADDR + GAMMA_BIAS + 0x38e0001a0UL) #define T2_WMASK2 (IDENT_ADDR + GAMMA_BIAS + 0x38e0001c0UL) #define T2_TBASE2 (IDENT_ADDR + GAMMA_BIAS + 0x38e0001e0UL) #define T2_TLBBR (IDENT_ADDR + GAMMA_BIAS + 0x38e000200UL) #define T2_IVR (IDENT_ADDR + GAMMA_BIAS + 0x38e000220UL) #define T2_HAE_3 (IDENT_ADDR + GAMMA_BIAS + 0x38e000240UL) #define T2_HAE_4 (IDENT_ADDR + GAMMA_BIAS + 0x38e000260UL) /* The CSRs below are T3/T4 only */ #define T2_WBASE3 (IDENT_ADDR + GAMMA_BIAS + 0x38e000280UL) #define T2_WMASK3 (IDENT_ADDR + GAMMA_BIAS + 0x38e0002a0UL) #define T2_TBASE3 (IDENT_ADDR + GAMMA_BIAS + 0x38e0002c0UL) #define T2_TDR0 (IDENT_ADDR + GAMMA_BIAS + 0x38e000300UL) #define T2_TDR1 (IDENT_ADDR + GAMMA_BIAS + 0x38e000320UL) #define T2_TDR2 (IDENT_ADDR + GAMMA_BIAS + 0x38e000340UL) #define T2_TDR3 (IDENT_ADDR + GAMMA_BIAS + 0x38e000360UL) #define T2_TDR4 (IDENT_ADDR + GAMMA_BIAS + 0x38e000380UL) #define T2_TDR5 (IDENT_ADDR + GAMMA_BIAS + 0x38e0003a0UL) #define T2_TDR6 (IDENT_ADDR + GAMMA_BIAS + 0x38e0003c0UL) #define T2_TDR7 (IDENT_ADDR + GAMMA_BIAS + 0x38e0003e0UL) #define T2_WBASE4 (IDENT_ADDR + GAMMA_BIAS + 0x38e000400UL) #define T2_WMASK4 (IDENT_ADDR + GAMMA_BIAS + 0x38e000420UL) #define T2_TBASE4 (IDENT_ADDR + GAMMA_BIAS + 0x38e000440UL) #define T2_AIR (IDENT_ADDR + GAMMA_BIAS + 0x38e000460UL) #define T2_VAR (IDENT_ADDR + GAMMA_BIAS + 0x38e000480UL) #define T2_DIR (IDENT_ADDR + GAMMA_BIAS + 0x38e0004a0UL) #define T2_ICE (IDENT_ADDR + GAMMA_BIAS + 0x38e0004c0UL) #ifndef T2_ONE_HAE_WINDOW #define T2_HAE_ADDRESS T2_HAE_1 #endif /* T2 CSRs are in the non-cachable primary IO space from 3.8000.0000 to 3.8fff.ffff * * +--------------+ 3 8000 0000 * | CPU 0 CSRs | * +--------------+ 3 8100 0000 * | CPU 1 CSRs | * +--------------+ 3 8200 0000 * | CPU 2 CSRs | * +--------------+ 3 8300 0000 * | CPU 3 CSRs | * +--------------+ 3 8400 0000 * | CPU Reserved | * +--------------+ 3 8700 0000 * | Mem Reserved | * +--------------+ 3 8800 0000 * | Mem 0 CSRs | * +--------------+ 3 8900 0000 * | Mem 1 CSRs | * +--------------+ 3 8a00 0000 * | Mem 2 CSRs | * +--------------+ 3 8b00 0000 * | Mem 3 CSRs | * +--------------+ 3 8c00 0000 * | Mem Reserved | * +--------------+ 3 8e00 0000 * | PCI Bridge | * +--------------+ 3 8f00 0000 * | Expansion IO | * +--------------+ 3 9000 0000 * * */ #define T2_CPU0_BASE (IDENT_ADDR + GAMMA_BIAS + 0x380000000L) #define T2_CPU1_BASE (IDENT_ADDR + GAMMA_BIAS + 0x381000000L) #define T2_CPU2_BASE (IDENT_ADDR + GAMMA_BIAS + 0x382000000L) #define T2_CPU3_BASE (IDENT_ADDR + GAMMA_BIAS + 0x383000000L) #define T2_CPUn_BASE(n) (T2_CPU0_BASE + (((n)&3) * 0x001000000L)) #define T2_MEM0_BASE (IDENT_ADDR + GAMMA_BIAS + 0x388000000L) #define T2_MEM1_BASE (IDENT_ADDR + GAMMA_BIAS + 0x389000000L) #define T2_MEM2_BASE (IDENT_ADDR + GAMMA_BIAS + 0x38a000000L) #define T2_MEM3_BASE (IDENT_ADDR + GAMMA_BIAS + 0x38b000000L) /* * Sable CPU Module CSRS * * These are CSRs for hardware other than the CPU chip on the CPU module. * The CPU module has Backup Cache control logic, Cbus control logic, and * interrupt control logic on it. There is a duplicate tag store to speed * up maintaining cache coherency. */ struct sable_cpu_csr { unsigned long bcc; long fill_00[3]; /* Backup Cache Control */ unsigned long bcce; long fill_01[3]; /* Backup Cache Correctable Error */ unsigned long bccea; long fill_02[3]; /* B-Cache Corr Err Address Latch */ unsigned long bcue; long fill_03[3]; /* B-Cache Uncorrectable Error */ unsigned long bcuea; long fill_04[3]; /* B-Cache Uncorr Err Addr Latch */ unsigned long dter; long fill_05[3]; /* Duplicate Tag Error */ unsigned long cbctl; long fill_06[3]; /* CBus Control */ unsigned long cbe; long fill_07[3]; /* CBus Error */ unsigned long cbeal; long fill_08[3]; /* CBus Error Addr Latch low */ unsigned long cbeah; long fill_09[3]; /* CBus Error Addr Latch high */ unsigned long pmbx; long fill_10[3]; /* Processor Mailbox */ unsigned long ipir; long fill_11[3]; /* Inter-Processor Int Request */ unsigned long sic; long fill_12[3]; /* System Interrupt Clear */ unsigned long adlk; long fill_13[3]; /* Address Lock (LDxL/STxC) */ unsigned long madrl; long fill_14[3]; /* CBus Miss Address */ unsigned long rev; long fill_15[3]; /* CMIC Revision */ }; /* * Data structure for handling T2 machine checks: */ struct el_t2_frame_header { unsigned int elcf_fid; /* Frame ID (from above) */ unsigned int elcf_size; /* Size of frame in bytes */ }; struct el_t2_procdata_mcheck { unsigned long elfmc_paltemp[32]; /* PAL TEMP REGS. */ /* EV4-specific fields */ unsigned long elfmc_exc_addr; /* Addr of excepting insn. */ unsigned long elfmc_exc_sum; /* Summary of arith traps. */ unsigned long elfmc_exc_mask; /* Exception mask (from exc_sum). */ unsigned long elfmc_iccsr; /* IBox hardware enables. */ unsigned long elfmc_pal_base; /* Base address for PALcode. */ unsigned long elfmc_hier; /* Hardware Interrupt Enable. */ unsigned long elfmc_hirr; /* Hardware Interrupt Request. */ unsigned long elfmc_mm_csr; /* D-stream fault info. */ unsigned long elfmc_dc_stat; /* D-cache status (ECC/Parity Err). */ unsigned long elfmc_dc_addr; /* EV3 Phys Addr for ECC/DPERR. */ unsigned long elfmc_abox_ctl; /* ABox Control Register. */ unsigned long elfmc_biu_stat; /* BIU Status. */ unsigned long elfmc_biu_addr; /* BUI Address. */ unsigned long elfmc_biu_ctl; /* BIU Control. */ unsigned long elfmc_fill_syndrome; /* For correcting ECC errors. */ unsigned long elfmc_fill_addr;/* Cache block which was being read. */ unsigned long elfmc_va; /* Effective VA of fault or miss. */ unsigned long elfmc_bc_tag; /* Backup Cache Tag Probe Results. */ }; /* * Sable processor specific Machine Check Data segment. */ struct el_t2_logout_header { unsigned int elfl_size; /* size in bytes of logout area. */ unsigned int elfl_sbz1:31; /* Should be zero. */ unsigned int elfl_retry:1; /* Retry flag. */ unsigned int elfl_procoffset; /* Processor-specific offset. */ unsigned int elfl_sysoffset; /* Offset of system-specific. */ unsigned int elfl_error_type; /* PAL error type code. */ unsigned int elfl_frame_rev; /* PAL Frame revision. */ }; struct el_t2_sysdata_mcheck { unsigned long elcmc_bcc; /* CSR 0 */ unsigned long elcmc_bcce; /* CSR 1 */ unsigned long elcmc_bccea; /* CSR 2 */ unsigned long elcmc_bcue; /* CSR 3 */ unsigned long elcmc_bcuea; /* CSR 4 */ unsigned long elcmc_dter; /* CSR 5 */ unsigned long elcmc_cbctl; /* CSR 6 */ unsigned long elcmc_cbe; /* CSR 7 */ unsigned long elcmc_cbeal; /* CSR 8 */ unsigned long elcmc_cbeah; /* CSR 9 */ unsigned long elcmc_pmbx; /* CSR 10 */ unsigned long elcmc_ipir; /* CSR 11 */ unsigned long elcmc_sic; /* CSR 12 */ unsigned long elcmc_adlk; /* CSR 13 */ unsigned long elcmc_madrl; /* CSR 14 */ unsigned long elcmc_crrev4; /* CSR 15 */ }; /* * Sable memory error frame - sable pfms section 3.42 */ struct el_t2_data_memory { struct el_t2_frame_header elcm_hdr; /* ID$MEM-FERR = 0x08 */ unsigned int elcm_module; /* Module id. */ unsigned int elcm_res04; /* Reserved. */ unsigned long elcm_merr; /* CSR0: Error Reg 1. */ unsigned long elcm_mcmd1; /* CSR1: Command Trap 1. */ unsigned long elcm_mcmd2; /* CSR2: Command Trap 2. */ unsigned long elcm_mconf; /* CSR3: Configuration. */ unsigned long elcm_medc1; /* CSR4: EDC Status 1. */ unsigned long elcm_medc2; /* CSR5: EDC Status 2. */ unsigned long elcm_medcc; /* CSR6: EDC Control. */ unsigned long elcm_msctl; /* CSR7: Stream Buffer Control. */ unsigned long elcm_mref; /* CSR8: Refresh Control. */ unsigned long elcm_filter; /* CSR9: CRD Filter Control. */ }; /* * Sable other CPU error frame - sable pfms section 3.43 */ struct el_t2_data_other_cpu { short elco_cpuid; /* CPU ID */ short elco_res02[3]; unsigned long elco_bcc; /* CSR 0 */ unsigned long elco_bcce; /* CSR 1 */ unsigned long elco_bccea; /* CSR 2 */ unsigned long elco_bcue; /* CSR 3 */ unsigned long elco_bcuea; /* CSR 4 */ unsigned long elco_dter; /* CSR 5 */ unsigned long elco_cbctl; /* CSR 6 */ unsigned long elco_cbe; /* CSR 7 */ unsigned long elco_cbeal; /* CSR 8 */ unsigned long elco_cbeah; /* CSR 9 */ unsigned long elco_pmbx; /* CSR 10 */ unsigned long elco_ipir; /* CSR 11 */ unsigned long elco_sic; /* CSR 12 */ unsigned long elco_adlk; /* CSR 13 */ unsigned long elco_madrl; /* CSR 14 */ unsigned long elco_crrev4; /* CSR 15 */ }; /* * Sable other CPU error frame - sable pfms section 3.44 */ struct el_t2_data_t2{ struct el_t2_frame_header elct_hdr; /* ID$T2-FRAME */ unsigned long elct_iocsr; /* IO Control and Status Register */ unsigned long elct_cerr1; /* Cbus Error Register 1 */ unsigned long elct_cerr2; /* Cbus Error Register 2 */ unsigned long elct_cerr3; /* Cbus Error Register 3 */ unsigned long elct_perr1; /* PCI Error Register 1 */ unsigned long elct_perr2; /* PCI Error Register 2 */ unsigned long elct_hae0_1; /* High Address Extension Register 1 */ unsigned long elct_hae0_2; /* High Address Extension Register 2 */ unsigned long elct_hbase; /* High Base Register */ unsigned long elct_wbase1; /* Window Base Register 1 */ unsigned long elct_wmask1; /* Window Mask Register 1 */ unsigned long elct_tbase1; /* Translated Base Register 1 */ unsigned long elct_wbase2; /* Window Base Register 2 */ unsigned long elct_wmask2; /* Window Mask Register 2 */ unsigned long elct_tbase2; /* Translated Base Register 2 */ unsigned long elct_tdr0; /* TLB Data Register 0 */ unsigned long elct_tdr1; /* TLB Data Register 1 */ unsigned long elct_tdr2; /* TLB Data Register 2 */ unsigned long elct_tdr3; /* TLB Data Register 3 */ unsigned long elct_tdr4; /* TLB Data Register 4 */ unsigned long elct_tdr5; /* TLB Data Register 5 */ unsigned long elct_tdr6; /* TLB Data Register 6 */ unsigned long elct_tdr7; /* TLB Data Register 7 */ }; /* * Sable error log data structure - sable pfms section 3.40 */ struct el_t2_data_corrected { unsigned long elcpb_biu_stat; unsigned long elcpb_biu_addr; unsigned long elcpb_biu_ctl; unsigned long elcpb_fill_syndrome; unsigned long elcpb_fill_addr; unsigned long elcpb_bc_tag; }; /* * Sable error log data structure * Note there are 4 memory slots on sable (see t2.h) */ struct el_t2_frame_mcheck { struct el_t2_frame_header elfmc_header; /* ID$P-FRAME_MCHECK */ struct el_t2_logout_header elfmc_hdr; struct el_t2_procdata_mcheck elfmc_procdata; struct el_t2_sysdata_mcheck elfmc_sysdata; struct el_t2_data_t2 elfmc_t2data; struct el_t2_data_memory elfmc_memdata[4]; struct el_t2_frame_header elfmc_footer; /* empty */ }; /* * Sable error log data structures on memory errors */ struct el_t2_frame_corrected { struct el_t2_frame_header elfcc_header; /* ID$P-BC-COR */ struct el_t2_logout_header elfcc_hdr; struct el_t2_data_corrected elfcc_procdata; /* struct el_t2_data_t2 elfcc_t2data; */ /* struct el_t2_data_memory elfcc_memdata[4]; */ struct el_t2_frame_header elfcc_footer; /* empty */ }; #ifdef __KERNEL__ #ifndef __EXTERN_INLINE #define __EXTERN_INLINE extern inline #define __IO_EXTERN_INLINE #endif /* * I/O functions: * * T2 (the core logic PCI/memory support chipset for the SABLE * series of processors uses a sparse address mapping scheme to * get at PCI memory and I/O. */ #define vip volatile int * #define vuip volatile unsigned int * #define vulp volatile unsigned long * extern inline u8 t2_inb(unsigned long addr) { long result = *(vip) ((addr << 5) + T2_IO + 0x00); return __kernel_extbl(result, addr & 3); } extern inline void t2_outb(u8 b, unsigned long addr) { unsigned long w; w = __kernel_insbl(b, addr & 3); *(vuip) ((addr << 5) + T2_IO + 0x00) = w; mb(); } extern inline u16 t2_inw(unsigned long addr) { long result = *(vip) ((addr << 5) + T2_IO + 0x08); return __kernel_extwl(result, addr & 3); } extern inline void t2_outw(u16 b, unsigned long addr) { unsigned long w; w = __kernel_inswl(b, addr & 3); *(vuip) ((addr << 5) + T2_IO + 0x08) = w; mb(); } extern inline u32 t2_inl(unsigned long addr) { return *(vuip) ((addr << 5) + T2_IO + 0x18); } extern inline void t2_outl(u32 b, unsigned long addr) { *(vuip) ((addr << 5) + T2_IO + 0x18) = b; mb(); } extern inline u64 t2_inq(unsigned long addr) { return *(vulp) ((addr << 5) + T2_IO + 0x18); } extern inline void t2_outq(u64 b, unsigned long addr) { *(vulp) ((addr << 5) + T2_IO + 0x18) = b; mb(); } /* * Memory functions. * * For reading and writing 8 and 16 bit quantities we need to * go through one of the three sparse address mapping regions * and use the HAE_MEM CSR to provide some bits of the address. * The following few routines use only sparse address region 1 * which gives 1Gbyte of accessible space which relates exactly * to the amount of PCI memory mapping *into* system address space. * See p 6-17 of the specification but it looks something like this: * * 21164 Address: * * 3 2 1 * 9876543210987654321098765432109876543210 * 1ZZZZ0.PCI.QW.Address............BBLL * * ZZ = SBZ * BB = Byte offset * LL = Transfer length * * PCI Address: * * 3 2 1 * 10987654321098765432109876543210 * HHH....PCI.QW.Address........ 00 * * HHH = 31:29 HAE_MEM CSR * */ #ifdef T2_ONE_HAE_WINDOW #define t2_set_hae #else #define t2_set_hae { \ unsigned long msb = addr >> 27; \ addr &= T2_MEM_R1_MASK; \ set_hae(msb); \ } #endif /* * NOTE: take T2_DENSE_MEM off in each readX/writeX routine, since * they may be called directly, rather than through the * ioreadNN/iowriteNN routines. */ __EXTERN_INLINE u8 t2_readb(const volatile void __iomem *xaddr) { unsigned long addr = (unsigned long) xaddr - T2_DENSE_MEM; unsigned long result; t2_set_hae; result = *(vip) ((addr << 5) + T2_SPARSE_MEM + 0x00); return __kernel_extbl(result, addr & 3); } __EXTERN_INLINE u16 t2_readw(const volatile void __iomem *xaddr) { unsigned long addr = (unsigned long) xaddr - T2_DENSE_MEM; unsigned long result; t2_set_hae; result = *(vuip) ((addr << 5) + T2_SPARSE_MEM + 0x08); return __kernel_extwl(result, addr & 3); } /* * On SABLE with T2, we must use SPARSE memory even for 32-bit access, * because we cannot access all of DENSE without changing its HAE. */ __EXTERN_INLINE u32 t2_readl(const volatile void __iomem *xaddr) { unsigned long addr = (unsigned long) xaddr - T2_DENSE_MEM; unsigned long result; t2_set_hae; result = *(vuip) ((addr << 5) + T2_SPARSE_MEM + 0x18); return result & 0xffffffffUL; } __EXTERN_INLINE u64 t2_readq(const volatile void __iomem *xaddr) { unsigned long addr = (unsigned long) xaddr - T2_DENSE_MEM; unsigned long r0, r1, work; t2_set_hae; work = (addr << 5) + T2_SPARSE_MEM + 0x18; r0 = *(vuip)(work); r1 = *(vuip)(work + (4 << 5)); return r1 << 32 | r0; } __EXTERN_INLINE void t2_writeb(u8 b, volatile void __iomem *xaddr) { unsigned long addr = (unsigned long) xaddr - T2_DENSE_MEM; unsigned long w; t2_set_hae; w = __kernel_insbl(b, addr & 3); *(vuip) ((addr << 5) + T2_SPARSE_MEM + 0x00) = w; } __EXTERN_INLINE void t2_writew(u16 b, volatile void __iomem *xaddr) { unsigned long addr = (unsigned long) xaddr - T2_DENSE_MEM; unsigned long w; t2_set_hae; w = __kernel_inswl(b, addr & 3); *(vuip) ((addr << 5) + T2_SPARSE_MEM + 0x08) = w; } /* * On SABLE with T2, we must use SPARSE memory even for 32-bit access, * because we cannot access all of DENSE without changing its HAE. */ __EXTERN_INLINE void t2_writel(u32 b, volatile void __iomem *xaddr) { unsigned long addr = (unsigned long) xaddr - T2_DENSE_MEM; t2_set_hae; *(vuip) ((addr << 5) + T2_SPARSE_MEM + 0x18) = b; } __EXTERN_INLINE void t2_writeq(u64 b, volatile void __iomem *xaddr) { unsigned long addr = (unsigned long) xaddr - T2_DENSE_MEM; unsigned long work; t2_set_hae; work = (addr << 5) + T2_SPARSE_MEM + 0x18; *(vuip)work = b; *(vuip)(work + (4 << 5)) = b >> 32; } __EXTERN_INLINE void __iomem *t2_ioportmap(unsigned long addr) { return (void __iomem *)(addr + T2_IO); } __EXTERN_INLINE void __iomem *t2_ioremap(unsigned long addr, unsigned long size) { return (void __iomem *)(addr + T2_DENSE_MEM); } __EXTERN_INLINE int t2_is_ioaddr(unsigned long addr) { return (long)addr >= 0; } __EXTERN_INLINE int t2_is_mmio(const volatile void __iomem *addr) { return (unsigned long)addr >= T2_DENSE_MEM; } /* New-style ioread interface. The mmio routines are so ugly for T2 that it doesn't make sense to merge the pio and mmio routines. */ #define IOPORT(OS, NS) \ __EXTERN_INLINE u##NS t2_ioread##NS(const void __iomem *xaddr) \ { \ if (t2_is_mmio(xaddr)) \ return t2_read##OS(xaddr); \ else \ return t2_in##OS((unsigned long)xaddr - T2_IO); \ } \ __EXTERN_INLINE void t2_iowrite##NS(u##NS b, void __iomem *xaddr) \ { \ if (t2_is_mmio(xaddr)) \ t2_write##OS(b, xaddr); \ else \ t2_out##OS(b, (unsigned long)xaddr - T2_IO); \ } IOPORT(b, 8) IOPORT(w, 16) IOPORT(l, 32) IOPORT(q, 64) #undef IOPORT #undef vip #undef vuip #undef vulp #undef __IO_PREFIX #define __IO_PREFIX t2 #define t2_trivial_rw_bw 0 #define t2_trivial_rw_lq 0 #define t2_trivial_io_bw 0 #define t2_trivial_io_lq 0 #define t2_trivial_iounmap 1 #include <asm/io_trivial.h> #ifdef __IO_EXTERN_INLINE #undef __EXTERN_INLINE #undef __IO_EXTERN_INLINE #endif #endif /* __KERNEL__ */ #endif /* __ALPHA_T2__H__ */
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