| /linux/include/trace/events/ |
| H A D | 9p.h | 11 EM( P9_TLERROR, "P9_TLERROR" ) \ 12 EM( P9_RLERROR, "P9_RLERROR" ) \ 13 EM( P9_TSTATFS, "P9_TSTATFS" ) \ 14 EM( P9_RSTATFS, "P9_RSTATFS" ) \ 15 EM( P9_TLOPEN, "P9_TLOPEN" ) \ 16 EM( P9_RLOPEN, "P9_RLOPEN" ) \ 17 EM( P9_TLCREATE, "P9_TLCREATE" ) \ 18 EM( P9_RLCREATE, "P9_RLCREATE" ) \ 19 EM( P9_TSYMLINK, "P9_TSYMLINK" ) \ 20 EM( P9_RSYMLINK, "P9_RSYMLINK" ) \ [all …]
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| H A D | netfs.h | 19 EM(netfs_read_trace_dio_read, "DIO-READ ") \ 20 EM(netfs_read_trace_expanded, "EXPANDED ") \ 21 EM(netfs_read_trace_readahead, "READAHEAD") \ 22 EM(netfs_read_trace_readpage, "READPAGE ") \ 23 EM(netfs_read_trace_read_gaps, "READ-GAPS") \ 24 EM(netfs_read_trace_read_single, "READ-SNGL") \ 25 EM(netfs_read_trace_prefetch_for_write, "PREFETCHW") \ 29 EM(netfs_write_trace_copy_to_cache, "COPY2CACH") \ 30 EM(netfs_write_trace_dio_write, "DIO-WRITE") \ 31 EM(netfs_write_trace_unbuffered_write, "UNB-WRITE") \ [all …]
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| H A D | afs.h | 123 EM(afs_call_trace_alloc, "ALLOC") \ 124 EM(afs_call_trace_async_abort, "ASYAB") \ 125 EM(afs_call_trace_async_kill, "ASYKL") \ 126 EM(afs_call_trace_free, "FREE ") \ 127 EM(afs_call_trace_get, "GET ") \ 128 EM(afs_call_trace_put, "PUT ") \ 129 EM(afs_call_trace_wake, "WAKE ") \ 133 EM(afs_server_trace_callback, "CALLBACK ") \ 134 EM(afs_server_trace_destroy, "DESTROY ") \ 135 EM(afs_server_trace_free, "FREE ") \ [all …]
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| H A D | rxrpc.h | 21 EM(afs_abort_general_error, "afs-error") \ 22 EM(afs_abort_interrupted, "afs-intr") \ 23 EM(afs_abort_oom, "afs-oom") \ 24 EM(afs_abort_op_not_supported, "afs-op-notsupp") \ 25 EM(afs_abort_probeuuid_negative, "afs-probeuuid-neg") \ 26 EM(afs_abort_send_data_error, "afs-send-data") \ 27 EM(afs_abort_unmarshal_error, "afs-unmarshal") \ 28 EM(afs_abort_unsupported_sec_class, "afs-unsup-sec-class") \ 30 EM(rxperf_abort_general_error, "rxperf-error") \ 31 EM(rxperf_abort_oom, "rxperf-oom") \ [all …]
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| H A D | memory-failure.h | 21 EM ( MF_IGNORED, "Ignored" ) \ 22 EM ( MF_FAILED, "Failed" ) \ 23 EM ( MF_DELAYED, "Delayed" ) \ 27 EM ( MF_MSG_KERNEL, "reserved kernel page" ) \ 28 EM ( MF_MSG_KERNEL_HIGH_ORDER, "high-order kernel page" ) \ 29 EM ( MF_MSG_HUGE, "huge page" ) \ 30 EM ( MF_MSG_FREE_HUGE, "free huge page" ) \ 31 EM ( MF_MSG_GET_HWPOISON, "get hwpoison page" ) \ 32 EM ( MF_MSG_UNMAP_FAILED, "unmapping failed page" ) \ 33 EM ( MF_MSG_DIRTY_SWAPCACHE, "dirty swapcache page" ) \ [all …]
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| H A D | fscache.h | 111 EM(fscache_cache_collision, "*COLLIDE*") \ 112 EM(fscache_cache_get_acquire, "GET acq ") \ 113 EM(fscache_cache_new_acquire, "NEW acq ") \ 114 EM(fscache_cache_put_alloc_volume, "PUT alvol") \ 115 EM(fscache_cache_put_cache, "PUT cache") \ 116 EM(fscache_cache_put_prep_failed, "PUT pfail") \ 117 EM(fscache_cache_put_relinquish, "PUT relnq") \ 121 EM(fscache_volume_collision, "*COLLIDE*") \ 122 EM(fscache_volume_get_cookie, "GET cook ") \ 123 EM(fscache_volume_get_create_work, "GET creat") \ [all …]
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| H A D | huge_memory.h | 11 EM( SCAN_FAIL, "failed") \ 12 EM( SCAN_SUCCEED, "succeeded") \ 13 EM( SCAN_NO_PTE_TABLE, "no_pte_table") \ 14 EM( SCAN_PMD_MAPPED, "page_pmd_mapped") \ 15 EM( SCAN_EXCEED_NONE_PTE, "exceed_none_pte") \ 16 EM( SCAN_EXCEED_SWAP_PTE, "exceed_swap_pte") \ 17 EM( SCAN_EXCEED_SHARED_PTE, "exceed_shared_pte") \ 18 EM( SCAN_PTE_NON_PRESENT, "pte_non_present") \ 19 EM( SCAN_PTE_UFFD_WP, "pte_uffd_wp") \ 20 EM( SCAN_PTE_MAPPED_HUGEPAG 44 #define EM( global() macro 51 #define EM( global() macro [all...] |
| H A D | cachefiles.h | 112 EM(FSCACHE_OBJECT_IS_STALE, "stale") \ 113 EM(FSCACHE_OBJECT_IS_WEIRD, "weird") \ 114 EM(FSCACHE_OBJECT_INVALIDATED, "inval") \ 115 EM(FSCACHE_OBJECT_NO_SPACE, "no_space") \ 116 EM(FSCACHE_OBJECT_WAS_RETIRED, "was_retired") \ 117 EM(FSCACHE_OBJECT_WAS_CULLED, "was_culled") \ 121 EM(cachefiles_obj_get_ioreq, "GET ioreq") \ 122 EM(cachefiles_obj_new, "NEW obj") \ 123 EM(cachefiles_obj_put_alloc_fail, "PUT alloc_fail") \ 124 EM(cachefiles_obj_put_detach, "PUT detach") \ [all …]
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| H A D | mmflags.h | 246 EM( COMPACT_SKIPPED, "skipped") \ 247 EM( COMPACT_DEFERRED, "deferred") \ 248 EM( COMPACT_CONTINUE, "continue") \ 249 EM( COMPACT_SUCCESS, "success") \ 250 EM( COMPACT_PARTIAL_SKIPPED, "partial_skipped") \ 251 EM( COMPACT_COMPLETE, "complete") \ 252 EM( COMPACT_NO_SUITABLE_PAGE, "no_suitable_page") \ 253 EM( COMPACT_NOT_SUITABLE_ZONE, "not_suitable_zone") \ 269 EM(COMPACTION_FAILED, "failed") \ 270 EM(COMPACTION_WITHDRAWN, "withdrawn") \ [all …]
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| H A D | v4l2.h | 12 #undef EM 14 #define EM(a, b) TRACE_DEFINE_ENUM(a); macro 21 EM( V4L2_BUF_TYPE_VIDEO_CAPTURE, "VIDEO_CAPTURE" ) \ 22 EM( V4L2_BUF_TYPE_VIDEO_OUTPUT, "VIDEO_OUTPUT" ) \ 23 EM( V4L2_BUF_TYPE_VIDEO_OVERLAY, "VIDEO_OVERLAY" ) \ 24 EM( V4L2_BUF_TYPE_VBI_CAPTURE, "VBI_CAPTURE" ) \ 25 EM( V4L2_BUF_TYPE_VBI_OUTPUT, "VBI_OUTPUT" ) \ 26 EM( V4L2_BUF_TYPE_SLICED_VBI_CAPTURE, "SLICED_VBI_CAPTURE" ) \ 27 EM( V4L2_BUF_TYPE_SLICED_VBI_OUTPUT, "SLICED_VBI_OUTPUT" ) \ 28 EM( V4L2_BUF_TYPE_VIDEO_OUTPUT_OVERLAY, "VIDEO_OUTPUT_OVERLAY" ) \ [all …]
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| H A D | migrate.h | 11 EM( MIGRATE_ASYNC, "MIGRATE_ASYNC") \ 12 EM( MIGRATE_SYNC_LIGHT, "MIGRATE_SYNC_LIGHT") \ 17 EM( MR_COMPACTION, "compaction") \ 18 EM( MR_MEMORY_FAILURE, "memory_failure") \ 19 EM( MR_MEMORY_HOTPLUG, "memory_hotplug") \ 20 EM( MR_SYSCALL, "syscall_or_cpuset") \ 21 EM( MR_MEMPOLICY_MBIND, "mempolicy_mbind") \ 22 EM( MR_NUMA_MISPLACED, "numa_misplaced") \ 23 EM( MR_CONTIG_RANGE, "contig_range") \ 24 EM( MR_LONGTERM_PIN, "longterm_pin") \ [all …]
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| H A D | tlb.h | 12 EM( TLB_FLUSH_ON_TASK_SWITCH, "flush on task switch" ) \ 13 EM( TLB_REMOTE_SHOOTDOWN, "remote shootdown" ) \ 14 EM( TLB_LOCAL_SHOOTDOWN, "local shootdown" ) \ 15 EM( TLB_LOCAL_MM_SHOOTDOWN, "local MM shootdown" ) \ 16 EM( TLB_REMOTE_SEND_IPI, "remote IPI send" ) \ 23 #undef EM 25 #define EM(a,b) TRACE_DEFINE_ENUM(a); macro 34 #undef EM 36 #define EM(a,b) { a, b }, macro
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| H A D | sock.h | 16 EM(AF_INET) \ 21 EM(IPPROTO_TCP) \ 22 EM(IPPROTO_SCTP) \ 26 EM(TCP_ESTABLISHED) \ 27 EM(TCP_SYN_SENT) \ 28 EM(TCP_SYN_RECV) \ 29 EM(TCP_FIN_WAIT1) \ 30 EM(TCP_FIN_WAIT2) \ 31 EM(TCP_TIME_WAIT) \ 32 EM(TCP_CLOS 47 #define EM( global() macro 57 #define EM( global() macro [all...] |
| H A D | error_report.h | 27 EM(ERROR_DETECTOR_KFENCE, "kfence") \ 28 EM(ERROR_DETECTOR_KASAN, "kasan") \ 32 #undef EM 35 #define EM(a, b) TRACE_DEFINE_ENUM(a); macro 40 #undef EM 43 #define EM(a, b) { a, b }, macro
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| H A D | rpm.h | 105 EM(RPM_INVALID, "RPM_INVALID") \ 106 EM(RPM_ACTIVE, "RPM_ACTIVE") \ 107 EM(RPM_RESUMING, "RPM_RESUMING") \ 108 EM(RPM_SUSPENDED, "RPM_SUSPENDED") \ 112 #undef EM 114 #define EM(a, b) TRACE_DEFINE_ENUM(a); macro 120 * Now redefine the EM() and EMe() macros to map the enums to the strings that 123 #undef EM 125 #define EM(a, b) { a, b }, macro
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| H A D | ceph.h | 16 EM(ceph_mdsc_suspend_reason_no_mdsmap, "no-mdsmap") \ 17 EM(ceph_mdsc_suspend_reason_no_active_mds, "no-active-mds") \ 18 EM(ceph_mdsc_suspend_reason_rejected, "rejected") \ 24 #undef EM 26 #define EM(a, b) a, macro 36 #undef EM 38 #define EM(a, b) TRACE_DEFINE_ENUM(a); macro 47 #undef EM 49 #define EM(a, b) { a, b }, macro 229 #undef EM
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| H A D | kmem.h | 408 EM(MM_FILEPAGES) \ 409 EM(MM_ANONPAGES) \ 410 EM(MM_SWAPENTS) \ 413 #undef EM 416 #define EM(a) TRACE_DEFINE_ENUM(a); macro 421 #undef EM 424 #define EM(a) { a, #a }, macro
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| H A D | sched.h | 725 EM( NUMAB_SKIP_UNSUITABLE, "unsuitable" ) \ 726 EM( NUMAB_SKIP_SHARED_RO, "shared_ro" ) \ 727 EM( NUMAB_SKIP_INACCESSIBLE, "inaccessible" ) \ 728 EM( NUMAB_SKIP_SCAN_DELAY, "scan_delay" ) \ 729 EM( NUMAB_SKIP_PID_INACTIVE, "pid_inactive" ) \ 730 EM( NUMAB_SKIP_IGNORE_PID, "ignore_pid_inactive" ) \ 734 #undef EM 736 #define EM(a, b) TRACE_DEFINE_ENUM(a); macro 742 #undef EM 744 #define EM(a, b) { a, b }, macro
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| H A D | btrfs.h | 65 EM( BTRFS_RESERVE_NO_FLUSH, "BTRFS_RESERVE_NO_FLUSH") \ 66 EM( BTRFS_RESERVE_FLUSH_LIMIT, "BTRFS_RESERVE_FLUSH_LIMIT") \ 67 EM( BTRFS_RESERVE_FLUSH_ALL, "BTRFS_RESERVE_FLUSH_ALL") \ 71 EM( BTRFS_FILE_EXTENT_INLINE, "INLINE") \ 72 EM( BTRFS_FILE_EXTENT_REG, "REG") \ 76 EM( BTRFS_QGROUP_RSV_DATA, "DATA") \ 77 EM( BTRFS_QGROUP_RSV_META_PERTRANS, "META_PERTRANS") \ 81 EM( IO_TREE_FS_PINNED_EXTENTS, "PINNED_EXTENTS") \ 82 EM( IO_TREE_FS_EXCLUDED_EXTENTS, "EXCLUDED_EXTENTS") \ 83 EM( IO_TREE_BTREE_INODE_IO, "BTREE_INODE_IO") \ [all …]
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| /linux/fs/fuse/ |
| H A D | fuse_trace.h | 11 EM( FUSE_LOOKUP, "FUSE_LOOKUP") \ 12 EM( FUSE_FORGET, "FUSE_FORGET") \ 13 EM( FUSE_GETATTR, "FUSE_GETATTR") \ 14 EM( FUSE_SETATTR, "FUSE_SETATTR") \ 15 EM( FUSE_READLINK, "FUSE_READLINK") \ 16 EM( FUSE_SYMLINK, "FUSE_SYMLINK") \ 17 EM( FUSE_MKNOD, "FUSE_MKNOD") \ 18 EM( FUSE_MKDIR, "FUSE_MKDIR") \ 19 EM( FUSE_UNLINK, "FUSE_UNLINK") \ 20 EM( FUSE_RMDIR, "FUSE_RMDIR") \ [all …]
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| /linux/Documentation/translations/zh_CN/power/ |
| H A D | energy-model.rst | 17 能量模型(EM)框架是一种驱动程序与内核子系统之间的接口。其中驱动程序了解不同 23 实现支持,EM框架作为一个抽象层介入,它在内核中对功率成本表的格式进行标准化, 26 功率值可以用微瓦或“抽象刻度”表示。多个子系统可能使用EM,由系统集成商来检查 33 内核子系统可能(基于EM内部标志位)实现了对EM注册设备是否具有不一致刻度的自动 38 向EM框架提供了功率成本,感兴趣的客户端可从中读取数据:: 65 对于CPU设备,EM框架管理着系统中每个“性能域”的功率成本表。一个性能域是一组 76 必须使能CONFIG_ENERGY_MODEL才能使用EM框架。 82 “高级”EM的注册 85 “高级”EM因它允许驱动提供更精确的功率模型而得名。它并不受限于框架中的一些已 86 实现的数学公式(就像“简单”EM那样)。它可以更好地反映每个性能状态的实际功率 [all …]
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| /linux/fs/smb/client/ |
| H A D | trace.h | 24 EM(smb_eio_trace_compress_copy, "compress_copy") \ 25 EM(smb_eio_trace_copychunk_inv_rsp, "copychunk_inv_rsp") \ 26 EM(smb_eio_trace_copychunk_overcopy_b, "copychunk_overcopy_b") \ 27 EM(smb_eio_trace_copychunk_overcopy_c, "copychunk_overcopy_c") \ 28 EM(smb_eio_trace_create_rsp_too_small, "create_rsp_too_small") \ 29 EM(smb_eio_trace_dfsref_no_rsp, "dfsref_no_rsp") \ 30 EM(smb_eio_trace_ea_overrun, "ea_overrun") \ 31 EM(smb_eio_trace_extract_will_pin, "extract_will_pin") \ 32 EM(smb_eio_trace_forced_shutdown, "forced_shutdown") \ 33 EM(smb_eio_trace_getacl_bcc_too_small, "getacl_bcc_too_small") \ [all …]
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| /linux/Documentation/translations/zh_CN/scheduler/ |
| H A D | sched-energy.rst | 18 一个能量模型(EM)来为每个任务选择一个节能的CPU,同时最小化对吞吐率的影响。 29 EAS实际使用的EM不是由调度器维护的,而是一个专门的框架。关于这个框架的细节和 55 引入EM的想法是为了让调度器评估其决策的影响,而不是盲目地应用可能仅在部分 56 平台有正面效果的节能技术。同时,EM必须尽可能的简单,以最小化调度器的时延 60 运行时(在唤醒期间),EM被用来在不损害系统吞吐率的情况下,从几个较好的候选 75 EAS使用的其余平台信息是直接从能量模型(EM)框架中读取的。一个平台的EM是一张 79 当调度域被建立或重新建立时,调度器管理对拓扑代码中EM对象的引用。对于每个根域 81 节点都包含一个指向EM框架所提供的结构体em_perf_domain的指针。 102 两个节点持有指向同一个EM框架的共享数据结构的指针。 114 EAS覆盖了CFS的任务唤醒平衡代码。在唤醒平衡时,它使用平台的EM和PELT信号来选择节能 [all …]
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| /linux/drivers/ufs/core/ |
| H A D | ufs_trace.h | 26 EM(UIC_LINK_OFF_STATE, "UIC_LINK_OFF_STATE") \ 27 EM(UIC_LINK_ACTIVE_STATE, "UIC_LINK_ACTIVE_STATE") \ 31 EM(UFS_ACTIVE_PWR_MODE, "UFS_ACTIVE_PWR_MODE") \ 32 EM(UFS_SLEEP_PWR_MODE, "UFS_SLEEP_PWR_MODE") \ 33 EM(UFS_POWERDOWN_PWR_MODE, "UFS_POWERDOWN_PWR_MODE") \ 37 EM(CLKS_OFF, "CLKS_OFF") \ 38 EM(CLKS_ON, "CLKS_ON") \ 39 EM(REQ_CLKS_OFF, "REQ_CLKS_OFF") \ 43 EM(UFS_CMD_SEND, "send_req") \ 44 EM(UFS_CMD_COMP, "complete_rsp") \ [all …]
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| /linux/Documentation/translations/zh_CN/infiniband/ |
| H A D | opa_vnic.rst | 31 实际上是一个独立的以太网网络。该配置由以太网管理器(EM)执行,它是可信的结 125 管理器(EM)和VNIC netdev交换管理信息。VNIC netdev部分分配和释放OPA_VNIC 128 对于每个VNIC接口,封装所需的信息是由EM通过VEMA MAD接口配置的。它还通过调用
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