| /linux/include/trace/events/ |
| H A D | firewire.h | 40 …TP_PROTO(u64 transaction, unsigned int card_index, unsigned int generation, unsigned int scode, co… 41 TP_ARGS(transaction, card_index, generation, scode, header, data, data_count), 45 __field(u8, generation) 53 __entry->generation = generation; 60 …"transaction=0x%llx card_index=%u generation=%u scode=%u dst_id=0x%04x tlabel=%u tcode=%u src_id=0… 63 __entry->generation, 78 …TP_PROTO(u64 transaction, unsigned int card_index, unsigned int generation, unsigned int scode, un… 79 TP_ARGS(transaction, card_index, generation, scode, status, timestamp), 83 __field(u8, generation) 91 __entry->generation = generation; [all …]
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| /linux/net/sctp/ |
| H A D | Kconfig | |
| /linux/drivers/phy/renesas/ |
| H A D | Kconfig | 14 tristate "Renesas R-Car generation 2 USB PHY driver" 18 Support for USB PHY found on Renesas R-Car generation 2 SoCs. 21 tristate "Renesas R-Car generation 3 PCIe PHY driver" 25 Support for the PCIe PHY found on Renesas R-Car generation 3 SoCs. 28 tristate "Renesas R-Car generation 3 USB 2.0 PHY driver" 35 Support for USB 2.0 PHY found on Renesas R-Car generation 3 SoCs. 38 tristate "Renesas R-Car generation 3 USB 3.0 PHY driver" 42 Support for USB 3.0 PHY found on Renesas R-Car generation 3 SoCs.
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| /linux/include/linux/ |
| H A D | exportfs.h | 34 * 32bit inode number, 32 bit generation number. 39 * 32bit inode number, 32 bit generation number, 46 * 32 bit generation number. 52 * 32 bit generation number, 53 * 64 bit parent object ID, 32 bit parent generation. 59 * 32 bit generation number, 60 * 64 bit parent object ID, 32 bit parent generation, 67 * 16 bit unused, 32 bit generation number. 73 * 16 bit unused, 32 bit generation number, 74 * 32 bit parent block number, 32 bit parent generation number [all …]
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| /linux/sound/firewire/ |
| H A D | lib.c | 24 * @flags: use %FW_FIXED_GENERATION and add the generation value to attempt the 25 * request only in that generation; use %FW_QUIET to suppress error 29 * response. The node ID and the current generation are derived from @unit. 38 int generation, rcode, tries = 0; in snd_fw_transaction() local 40 generation = flags & FW_GENERATION_MASK; in snd_fw_transaction() 43 generation = device->generation; in snd_fw_transaction() 44 smp_rmb(); /* node_id vs. generation */ in snd_fw_transaction() 47 device->node_id, generation, in snd_fw_transaction()
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| H A D | iso-resources.c | 118 r->generation = card->generation; in fw_iso_resources_allocate() 128 fw_iso_resource_manage(card, r->generation, r->channels_mask, in fw_iso_resources_allocate() 171 r->generation = card->generation; in fw_iso_resources_update() 177 fw_iso_resource_manage(card, r->generation, 1uLL << r->channel, in fw_iso_resources_update() 181 * succeeded; we will try again for the new generation later. in fw_iso_resources_update() 217 fw_iso_resource_manage(card, r->generation, 1uLL << r->channel, in fw_iso_resources_free()
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| /linux/Documentation/driver-api/surface_aggregator/ |
| H A D | overview.rst | 9 introduced on 4th generation devices (Surface Pro 4, Surface Book 1), but 17 Not much is currently known about SAM on 4th generation devices (Surface Pro 20 Book 2, Surface Laptop 1) and later generation devices, SAM is responsible 28 restructured for 7th generation devices and on those, specifically Surface 33 generation, internal interfaces have undergone some rather large changes. On 34 5th and 6th generation devices, both battery and temperature information is 37 requests. On 7th generation devices, this additional layer is gone and these 49 generation of the Surface device. On 4th generation devices, host and EC 67 communication interface for SAM on 5th- and all later-generation Surface
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| /linux/arch/csky/mm/ |
| H A D | asid.c | 63 * (i.e. the same ASID in the current generation) but we can't in check_update_reserved_asid() 67 * generation. in check_update_reserved_asid() 84 u64 generation = atomic64_read(&info->generation); in new_context() local 87 u64 newasid = generation | (asid & ~ASID_MASK(info)); in new_context() 115 /* We're out of ASIDs, so increment the global generation count */ in new_context() 116 generation = atomic64_add_return_relaxed(ASID_FIRST_VERSION(info), in new_context() 117 &info->generation); in new_context() 127 return idx2asid(info, asid) | generation; in new_context() 144 /* Check that our ASID belongs to the current generation. */ in asid_new_context() 146 if ((asid ^ atomic64_read(&info->generation)) >> info->bits) { in asid_new_context() [all …]
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| /linux/drivers/firewire/ |
| H A D | sbp2.c | 130 * The generation is updated once we've logged in or reconnected 135 int generation; member 368 * iPod 2nd generation: needs 128k max transfer size workaround 369 * iPod 3rd generation: needs fix capacity workaround 377 /* iPod 4th generation */ { 408 int generation, unsigned long long offset, in sbp2_status_write() argument 491 int node_id, int generation, u64 offset) in sbp2_send_orb() argument 509 node_id, generation, device->max_speed, offset, in sbp2_send_orb() 550 int generation, int function, in sbp2_send_management_orb() argument 606 sbp2_send_orb(&orb->base, lu, node_id, generation, in sbp2_send_management_orb() [all …]
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| H A D | core-iso.c | 276 static int manage_bandwidth(struct fw_card *card, int irm_id, int generation, in manage_bandwidth() argument 295 irm_id, generation, SCODE_100, in manage_bandwidth() 299 /* A generation change frees all bandwidth. */ in manage_bandwidth() 314 static int manage_channel(struct fw_card *card, int irm_id, int generation, in manage_channel() argument 336 irm_id, generation, SCODE_100, in manage_channel() 339 /* A generation change frees all channels. */ in manage_channel() 367 int generation, int channel) in deallocate_channel() argument 376 manage_channel(card, irm_id, generation, mask, offset, false); in deallocate_channel() 382 * @generation: bus generation 388 * In parameters: card, generation, channels_mask, bandwidth, allocate [all …]
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| /linux/drivers/acpi/ |
| H A D | fan.h | 17 {"INTC1044", }, /* Fan for Tiger Lake generation */ \ 18 {"INTC1048", }, /* Fan for Alder Lake generation */ \ 19 {"INTC1063", }, /* Fan for Meteor Lake generation */ \ 20 {"INTC106A", }, /* Fan for Lunar Lake generation */ \ 21 {"INTC10A2", }, /* Fan for Raptor Lake generation */ \ 22 {"INTC10D6", }, /* Fan for Panther Lake generation */ \ 23 {"INTC10FE", }, /* Fan for Wildcat Lake generation */ \
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| /linux/arch/arm/mach-aspeed/ |
| H A D | Kconfig | 15 bool "Aspeed SoC 4th Generation" 22 fourth generation BMCs, such as those used by OpenPower Power8 26 bool "Aspeed SoC 5th Generation" 32 fifth generation Aspeed BMCs. 35 bool "Aspeed SoC 6th Generation" 43 sixth generation Aspeed BMCs.
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| /linux/sound/firewire/fireworks/ |
| H A D | fireworks_transaction.c | 163 handle_resp_for_user(struct fw_card *card, int generation, int source, 178 (device->generation != generation)) in handle_resp_for_user() 180 smp_rmb(); /* node id vs. generation */ in handle_resp_for_user() 193 handle_resp_for_kernel(struct fw_card *card, int generation, int source, in handle_resp_for_user() 203 (device->generation != generation)) in handle_resp_for_kernel() 205 smp_rmb(); /* node_id vs. generation */ in handle_resp_for_kernel() 222 int generation, unsigned long long offset, in handle_resp_for_kernel() 239 handle_resp_for_kernel(card, generation, sourc in efw_response() 165 handle_resp_for_user(struct fw_card * card,int generation,int source,void * data,size_t length,int * rcode) handle_resp_for_user() argument 197 handle_resp_for_kernel(struct fw_card * card,int generation,int source,void * data,size_t length,int * rcode,u32 seqnum) handle_resp_for_kernel() argument 228 efw_response(struct fw_card * card,struct fw_request * request,int tcode,int destination,int source,int generation,unsigned long long offset,void * data,size_t length,void * callback_data) efw_response() argument [all...] |
| /linux/fs/btrfs/ |
| H A D | export.c | 73 * @generation: optional, if not zero, verify that the found inode 74 * generation matches 77 * generation does not match return ESTALE. 80 u64 root_objectid, u64 generation) in btrfs_get_dentry() argument 98 if (generation != 0 && generation != inode->vfs_inode.i_generation) { in btrfs_get_dentry() 111 u32 generation; in btrfs_fh_to_parent() local 125 generation = fid->parent_gen; in btrfs_fh_to_parent() 127 return btrfs_get_dentry(sb, objectid, root_objectid, generation); in btrfs_fh_to_parent() 135 u32 generation; in btrfs_fh_to_dentry() local 147 generation = fid->gen; in btrfs_fh_to_dentry() [all …]
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| /linux/Documentation/mm/ |
| H A D | multigen_lru.rst | 23 implementations. In the multi-gen LRU, each generation represents a 45 attainable. Specifically, pages in the same generation can be 83 ``lruvec``. The youngest generation number is stored in 85 an equal footing. The oldest generation numbers are stored in 90 Generation numbers are truncated into ``order_base_2(MAX_NR_GENS+1)`` 92 truncated generation number is an index to ``lrugen->folios[]``. The 98 Each generation is divided into multiple tiers. A page accessed ``N`` 117 generation when it finds them accessed through page tables; the 139 moves a page to the next generation, i.e., ``min_seq+1``, if this page 147 Each generation is timestamped at birth. If ``lru_gen_min_ttl`` is [all …]
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| /linux/Documentation/devicetree/bindings/memory-controllers/ |
| H A D | mediatek,smi-common.yaml | 17 which generation the SoCs use: 18 generation 1: mt2701 and mt7623. 19 generation 2: mt2712, mt6779, mt8167, mt8173, mt8183, mt8186, mt8188, mt8192 and mt8195. 21 There's slight differences between the two SMI, for generation 2, the 23 for generation 1, the register is at smi ao base(smi always on register 25 SMI generation 1 to transform the smi clock into emi clock domain, but that is 26 not needed for SMI generation 2. 62 apb and smi are mandatory. the async is only for generation 1 smi HW.
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| /linux/drivers/md/dm-vdo/ |
| H A D | logical-zone.c | 220 * update_oldest_active_generation() - Update the oldest active generation. 223 * Return: true if the oldest active generation has changed. 241 * vdo_increment_logical_zone_flush_generation() - Increment the flush generation in a logical 244 * @expected_generation: The expected value of the flush generation before the increment. 251 "logical zone %u flush generation %llu should be %llu before increment", in vdo_increment_logical_zone_flush_generation() 261 * vdo_acquire_flush_generation_lock() - Acquire the shared lock on a flush generation by a write 280 * notify_flusher() - Notify the flush that at least one generation no longer has active VIOs. 296 * attempt_generation_complete_notification() - Notify the flusher if some generation no 318 * vdo_release_flush_generation_lock() - Release the shared lock on a flush generation held by a 322 * If there are pending flushes, and this data_vio completes the oldest generation active in this [all …]
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| /linux/drivers/thermal/ti-soc-thermal/ |
| H A D | Kconfig | 9 This includes alert interrupts generation and also the TSHUT 32 this generation are not accurate, nor they are very close to 48 This includes alert interrupts generation and also the TSHUT 60 This includes alert interrupts generation and also the TSHUT 72 This includes alert interrupts generation and also the TSHUT
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| /linux/Documentation/virt/kvm/x86/ |
| H A D | mmu.rst | 62 The mmu supports first-generation mmu hardware, which allows an atomic switch 212 The MMU generation of this page, used to fast zap of all MMU pages within a 214 valid MMU generation which causes the mismatch of mmu_valid_gen for each mmu 217 guest. The MMU generation is only ever '0' or '1'. Note, the TDP MMU doesn't 341 - check for valid generation number in the spte (see "Fast invalidation of 475 generation number. The global generation number is stored in 476 kvm_memslots(kvm)->generation, and increased whenever guest memory info 479 When KVM finds an MMIO spte, it checks the generation number of the spte. 480 If the generation number of the spte does not equal the global generation 484 Since only 18 bits are used to store generation-number on mmio spte, all [all …]
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| /linux/arch/arm64/kvm/ |
| H A D | vmid.c | 80 * generation). in check_update_reserved_vmid() 96 u64 generation = atomic64_read(&vmid_generation); in new_vmid() local 99 u64 newvmid = generation | (vmid & ~VMID_MASK); in new_vmid() 116 /* We're out of VMIDs, so increment the global generation count */ in new_vmid() 117 generation = atomic64_add_return_relaxed(VMID_FIRST_VERSION, in new_vmid() 127 vmid = idx2vmid(vmid) | generation; in new_vmid() 163 /* Check that our VMID belongs to the current generation. */ in kvm_arm_vmid_update()
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| /linux/arch/arm64/mm/ |
| H A D | context.c | 142 * (i.e. the same ASID in the current generation) but we can't in check_update_reserved_asid() 146 * generation. in check_update_reserved_asid() 162 u64 generation = atomic64_read(&asid_generation); in new_context() local 165 u64 newasid = asid2ctxid(ctxid2asid(asid), generation); in new_context() 177 * update the generation into the reserved_asids. in new_context() 201 /* We're out of ASIDs, so increment the global generation count */ in new_context() 202 generation = atomic64_add_return_relaxed(ASID_FIRST_VERSION, in new_context() 212 return asid2ctxid(asid, generation); in new_context() 229 * generation, then we update the active_asids entry with a relaxed in check_and_switch_context() 234 * we are forced to see the updated generation. in check_and_switch_context() [all …]
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| /linux/net/netfilter/ |
| H A D | nft_set_bitmap.c | 22 * the element state in the current and the future generation. 24 * An element can be in three states. The generation cursor is represented using 29 * 11 = this element is active in the current generation. In case of no updates, 30 * ^ it stays active in the next generation. 31 * 00 = this element is inactive in the current generation. In case of no 32 * ^ updates, it stays inactive in the next generation. 36 * 01 = this element is inactive in the current generation and it becomes active 40 * 10 = this element is active in the current generation and it becomes inactive 43 * transaction abortion, the next generation bit is reset to go back to 69 * on the generation mask.
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| /linux/Documentation/devicetree/bindings/clock/ |
| H A D | imx7ulp-scg-clock.yaml | 7 title: Freescale i.MX7ULP System Clock Generation (SCG) modules Clock Controller 14 Clock Generation (SCG) modules, Peripheral Clock Control (PCC) 28 The System Clock Generation (SCG) is responsible for clock generation 30 include: clock reference selection, generation of clock used to derive
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| /linux/fs/gfs2/ |
| H A D | lock_dlm.c | 411 * 9. dlm_recoverd notifies gfs2 when done (recover_done with new generation) 412 * 10. gfs2_control updates control_lock lvb with new generation and jid bits 427 * recover_done() provides a new lockspace generation number each time it 428 * is called (step 9). This generation number is saved as recover_start. 438 * 9. recover_done sets recover_start = new generation number 448 * All nodes attempt to update the control_lock lvb with the new generation 451 * generation number.) 475 * for the latest lockspace generation before ever unblocking locks 509 * control_lock EX->NL, write lvb generation 515 * read lvb generation [all …]
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| /linux/drivers/net/can/softing/ |
| H A D | softing_cs.c | 31 .generation = 1, 43 .generation = 1, 55 .generation = 1, 67 .generation = 2, 79 .generation = 1, 91 .generation = 1, 103 .generation = 2, 115 .generation = 1, 127 .generation = 2, 196 if (pdat->generation < 2) { in softingcs_probe_config()
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