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/linux/arch/parisc/lib/
H A Dlusercopy.S41 1: stbs,ma %r0,1(%sr3,%r26)
131 20: ldb,ma 1(srcspc,src),t1
132 21: stb,ma t1,1(dstspc,dst)
147 12: std,ma t1,8(dstspc,dst)
148 13: std,ma t2,8(dstspc,dst)
152 16: std,ma t1,8(dstspc,dst)
153 17: std,ma t2,8(dstspc,dst)
169 20: ldw,ma 4(srcspc,src),t1
170 21: stw,ma t1,4(dstspc,dst)
183 20: ldb,ma 1(srcspc,src),t1
[all …]
/linux/Documentation/devicetree/bindings/sound/
H A Dfsl,sgtl5000.yaml63 1 = 1.66 mA 2.87 mA 4.02 mA
64 2 = 3.33 mA 5.74 mA 8.03 mA
65 3 = 4.99 mA 8.61 mA 12.05 mA
76 1 = 1.66 mA 2.87 mA 4.02 mA
77 2 = 3.33 mA 5.74 mA 8.03 mA
78 3 = 4.99 mA 8.61 mA 12.05 mA
/linux/Documentation/devicetree/bindings/power/supply/
H A Drichtek,rt5033-charger.yaml26 Current of pre-charge mode. The pre-charge current levels are 350 mA
27 to 650 mA programmed by I2C per 100 mA.
30 Current of fast-charge mode. The fast-charge current levels are 700 mA
31 to 2000 mA programmed by I2C per 100 mA.
34 This property is end of charge current. Its level ranges from 150 mA
35 to 600 mA. Between 150 mA and 300 mA in 50 mA steps, between 300 mA and
36 600 mA in 100 mA steps.
H A Dti,lp8727.yaml53 0 = 90mA, 1 = 100mA, 2 = 400mA, 3 = 450mA, 4 = 500mA, 5 = 600mA,
54 6 = 700mA, 7 = 800mA, 8 = 900mA, 9 = 1000mA
76 /* AC charger: 5% EOC and 500mA charging current */
83 /* USB charger: 10% EOC and 400mA charging current */
H A Dbq24735.yaml39 This value must be between 128mA and 8.128A with a 64mA step resolution.
40 The POR value is 0x0000h. This number is in mA (e.g. 8192).
55 This value must be between 128mA and 8.064A with a 128mA step resolution.
56 The POR value is 0x1000h. This number is in mA (e.g. 8064).
/linux/kernel/bpf/
H A Dmemalloc.c539 int bpf_mem_alloc_init(struct bpf_mem_alloc *ma, int size, bool percpu) in bpf_mem_alloc_init()
552 ma->percpu = percpu; in bpf_mem_alloc_init()
567 ma->objcg = objcg; in bpf_mem_alloc_init()
579 ma->cache = pc; in bpf_mem_alloc_percpu_init()
589 ma->objcg = objcg;
604 ma->caches = pcc; in bpf_mem_alloc_percpu_unit_init()
608 int bpf_mem_alloc_percpu_init(struct bpf_mem_alloc *ma, struct obj_cgroup *objcg) in bpf_mem_alloc_percpu_unit_init()
616 ma->caches = pcc; in bpf_mem_alloc_percpu_unit_init()
617 ma->objcg = objcg; in bpf_mem_alloc_percpu_unit_init()
618 ma in bpf_mem_alloc_percpu_unit_init()
507 bpf_mem_alloc_init(struct bpf_mem_alloc * ma,int size,bool percpu) bpf_mem_alloc_init() argument
576 bpf_mem_alloc_percpu_init(struct bpf_mem_alloc * ma,struct obj_cgroup * objcg) bpf_mem_alloc_percpu_init() argument
590 bpf_mem_alloc_percpu_unit_init(struct bpf_mem_alloc * ma,int size) bpf_mem_alloc_percpu_unit_init() argument
657 check_leaked_objs(struct bpf_mem_alloc * ma) check_leaked_objs() argument
680 free_mem_alloc_no_barrier(struct bpf_mem_alloc * ma) free_mem_alloc_no_barrier() argument
692 free_mem_alloc(struct bpf_mem_alloc * ma) free_mem_alloc() argument
711 struct bpf_mem_alloc *ma = container_of(work, struct bpf_mem_alloc, work); free_mem_alloc_deferred() local
717 destroy_mem_alloc(struct bpf_mem_alloc * ma,int rcu_in_progress) destroy_mem_alloc() argument
742 bpf_mem_alloc_destroy(struct bpf_mem_alloc * ma) bpf_mem_alloc_destroy() argument
889 bpf_mem_alloc(struct bpf_mem_alloc * ma,size_t size) bpf_mem_alloc() argument
907 bpf_mem_free(struct bpf_mem_alloc * ma,void * ptr) bpf_mem_free() argument
923 bpf_mem_free_rcu(struct bpf_mem_alloc * ma,void * ptr) bpf_mem_free_rcu() argument
939 bpf_mem_cache_alloc(struct bpf_mem_alloc * ma) bpf_mem_cache_alloc() argument
947 bpf_mem_cache_free(struct bpf_mem_alloc * ma,void * ptr) bpf_mem_cache_free() argument
955 bpf_mem_cache_free_rcu(struct bpf_mem_alloc * ma,void * ptr) bpf_mem_cache_free_rcu() argument
985 bpf_mem_cache_alloc_flags(struct bpf_mem_alloc * ma,gfp_t flags) bpf_mem_cache_alloc_flags() argument
1018 bpf_mem_alloc_set_dtor(struct bpf_mem_alloc * ma,void (* dtor)(void * obj,void * ctx),void (* dtor_ctx_free)(void * ctx),void * ctx) bpf_mem_alloc_set_dtor() argument
[all...]
/linux/arch/parisc/kernel/
H A Drelocate_kernel.S79 LDREG,ma REG_SZ(%arg0), %r3
107 LDREG,ma REG_SZ(%r21), %r8
108 LDREG,ma REG_SZ(%r21), %r9
109 LDREG,ma REG_SZ(%r21), %r10
110 LDREG,ma REG_SZ(%r21), %r11
111 STREG,ma %r8, REG_SZ(%r20)
112 STREG,ma %r9, REG_SZ(%r20)
113 STREG,ma %r10, REG_SZ(%r20)
114 STREG,ma %r11, REG_SZ(%r20)
117 LDREG,ma REG_SZ(%r21), %r8
[all …]
/linux/net/openvswitch/
H A Dflow_table.c175 static void __mask_array_destroy(struct mask_array *ma) in __mask_array_destroy() argument
177 free_percpu(ma->masks_usage_stats); in __mask_array_destroy()
178 kfree(ma); in __mask_array_destroy()
183 struct mask_array *ma = container_of(rcu, struct mask_array, rcu); in mask_array_rcu_cb() local
185 __mask_array_destroy(ma); in mask_array_rcu_cb()
188 static void tbl_mask_array_reset_counters(struct mask_array *ma) in tbl_mask_array_reset_counters() argument
197 for (i = 0; i < ma->max; i++) { in tbl_mask_array_reset_counters()
198 ma->masks_usage_zero_cntr[i] = 0; in tbl_mask_array_reset_counters()
205 stats = per_cpu_ptr(ma->masks_usage_stats, cpu); in tbl_mask_array_reset_counters()
211 ma->masks_usage_zero_cntr[i] += counter; in tbl_mask_array_reset_counters()
[all …]
/linux/arch/parisc/include/asm/
H A Dassembly.h63 #define STREGM std,ma
278 fstd,ma %fr0, 8(\regs)
279 fstd,ma %fr1, 8(\regs)
280 fstd,ma %fr2, 8(\regs)
281 fstd,ma %fr3, 8(\regs)
282 fstd,ma %fr4, 8(\regs)
283 fstd,ma %fr5, 8(\regs)
284 fstd,ma %fr6, 8(\regs)
285 fstd,ma %fr7, 8(\regs)
286 fstd,ma %fr8, 8(\regs)
[all …]
H A Dbarrier.h41 asm volatile("stb,ma %0,0(%1)" \
46 asm volatile("sth,ma %0,0(%1)" \
51 asm volatile("stw,ma %0,0(%1)" \
57 asm volatile("std,ma %0,0(%1)" \
71 asm volatile("ldb,ma 0(%1),%0" \
76 asm volatile("ldh,ma 0(%1),%0" \
81 asm volatile("ldw,ma 0(%1),%0" \
87 asm volatile("ldd,ma 0(%1),%0" \
/linux/include/linux/
H A Dbpf_mem_alloc.h31 int bpf_mem_alloc_init(struct bpf_mem_alloc *ma, int size, bool percpu);
33 int bpf_mem_alloc_percpu_init(struct bpf_mem_alloc *ma, struct obj_cgroup *objcg);
35 int bpf_mem_alloc_percpu_unit_init(struct bpf_mem_alloc *ma, int size);
36 void bpf_mem_alloc_destroy(struct bpf_mem_alloc *ma);
37 void bpf_mem_alloc_set_dtor(struct bpf_mem_alloc *ma,
46 void *bpf_mem_alloc(struct bpf_mem_alloc *ma, size_t size);
47 void bpf_mem_free(struct bpf_mem_alloc *ma, void *ptr);
48 void bpf_mem_free_rcu(struct bpf_mem_alloc *ma, void *ptr);
51 void *bpf_mem_cache_alloc(struct bpf_mem_alloc *ma);
52 void bpf_mem_cache_free(struct bpf_mem_alloc *ma, void *ptr);
[all …]
/linux/io_uring/
H A Dadvise.c34 struct io_madvise *ma = io_kiocb_to_cmd(req, struct io_madvise); in io_madvise_prep() local
39 ma->addr = READ_ONCE(sqe->addr); in io_madvise_prep()
40 ma->len = READ_ONCE(sqe->off); in io_madvise_prep()
41 if (!ma->len) in io_madvise_prep()
42 ma->len = READ_ONCE(sqe->len); in io_madvise_prep()
43 ma->advice = READ_ONCE(sqe->fadvise_advice); in io_madvise_prep()
54 struct io_madvise *ma = io_kiocb_to_cmd(req, struct io_madvise); in io_madvise() local
59 ret = do_madvise(current->mm, ma->addr, ma->len, ma in io_madvise()
[all...]
/linux/Documentation/devicetree/bindings/phy/
H A Dphy-stm32-usbphyc.yaml129 - <0> = 18.87 mA target current / nominal + 0%
130 - <1> = 19.165 mA target current / nominal + 1.56%
131 - <2> = 19.46 mA target current / nominal + 3.12%
132 - <3> = 19.755 mA target current / nominal + 4.68%
133 - <4> = 20.05 mA target current / nominal + 6.24%
134 - <5> = 20.345 mA target current / nominal + 7.8%
135 - <6> = 20.64 mA target current / nominal + 9.36%
136 - <7> = 20.935 mA target current / nominal + 10.92%
137 - <8> = 21.23 mA target current / nominal + 12.48%
138 - <9> = 21.525 mA target current / nominal + 14.04%
[all …]
/linux/include/linux/platform_data/
H A Dadp8870.h83 * Blacklight current 0..30mA
118 u8 l1_daylight_max; /* use BL_CUR_mA(I) 0 <= I <= 30 mA */
119 u8 l1_daylight_dim; /* typ = 0, use BL_CUR_mA(I) 0 <= I <= 30 mA */
120 u8 l2_bright_max; /* use BL_CUR_mA(I) 0 <= I <= 30 mA */
121 u8 l2_bright_dim; /* typ = 0, use BL_CUR_mA(I) 0 <= I <= 30 mA */
122 u8 l3_office_max; /* use BL_CUR_mA(I) 0 <= I <= 30 mA */
123 u8 l3_office_dim; /* typ = 0, use BL_CUR_mA(I) 0 <= I <= 30 mA */
124 u8 l4_indoor_max; /* use BL_CUR_mA(I) 0 <= I <= 30 mA */
125 u8 l4_indor_dim; /* typ = 0, use BL_CUR_mA(I) 0 <= I <= 30 mA */
126 u8 l5_dark_max; /* use BL_CUR_mA(I) 0 <= I <= 30 mA */
[all …]
H A Dadp8860.h86 * Blacklight current 0..30mA
110 u8 l1_daylight_max; /* use BL_CUR_mA(I) 0 <= I <= 30 mA */
111 u8 l1_daylight_dim; /* typ = 0, use BL_CUR_mA(I) 0 <= I <= 30 mA */
112 u8 l2_office_max; /* use BL_CUR_mA(I) 0 <= I <= 30 mA */
113 u8 l2_office_dim; /* typ = 0, use BL_CUR_mA(I) 0 <= I <= 30 mA */
114 u8 l3_dark_max; /* use BL_CUR_mA(I) 0 <= I <= 30 mA */
115 u8 l3_dark_dim; /* typ = 0, use BL_CUR_mA(I) 0 <= I <= 30 mA */
/linux/include/linux/iio/dac/
H A Dad5421.h7 * @AD5421_CURRENT_RANGE_4mA_20mA: 4 mA to 20 mA (RANGE1,0 pins = 00)
8 * @AD5421_CURRENT_RANGE_3mA8_21mA: 3.8 mA to 21 mA (RANGE1,0 pins = x1)
9 * @AD5421_CURRENT_RANGE_3mA2_24mA: 3.2 mA to 24 mA (RANGE1,0 pins = 10)
/linux/arch/riscv/crypto/
H A Daes-riscv64-zvkned-zvbb-zvkg.S92 vsetivli zero, 4, e32, m1, ta, ma
109 vsetvli VL, LEN32, e32, m4, ta, ma
113 vsetvli zero, t0, e32, m1, ta, ma
119 vsetvli zero, t0, e64, m2, ta, ma
123 vsetvli zero, t1, e32, m2, ta, ma
131 vsetvli zero, LEN32, e32, m4, ta, ma
143 vsetivli zero, 2, e64, m1, ta, ma
145 vsetivli zero, 1, e64, m1, tu, ma
148 vsetvli zero, LEN32, e32, m4, ta, ma
163 vsetivli zero, 4, e32, m1, ta, ma
[all …]
/linux/drivers/gpu/drm/vc4/
H A Dvc4_hdmi_phy.c662 /* 200mA */
671 /* 200mA */
674 /* 17.6 mA */
678 /* 200mA */
687 /* 200mA */
690 /* 17.6 mA */
694 /* 200mA */
703 /* 200mA */
706 /* 17.6 mA */
711 /* 200mA */
[all …]
/linux/Documentation/devicetree/bindings/leds/
H A Dti,tps61310.yaml14 Its power stage is capable of supplying a maximum total current of roughly 1500mA.
16 up to 2 x 400mA (LED1 and LED3) and 800mA (LED2) in flash mode.
17 In torch mode, each sink (LED1, LED2, LED3) supports currents up to 175mA.
46 Reduce the valley peak current limit from 1750mA to 1250mA (TPS61310) or
47 from 2480mA to 1800mA (TPS61311).
/linux/Documentation/leds/
H A Dleds-lm3556.rst22 from 93.75 mA to 1500 mA.The Flash currents are adjusted via the CURRENT
37 93.75 mA::
43 1500 mA::
64 46.88 mA::
70 375 mA::
107 5.86 mA::
113 46.875mA::
/linux/arch/sh/kernel/
H A Dtraps_32.c104 struct mem_access *ma) in handle_unaligned_ins() argument
139 if (ma->from(dst, srcu, count)) in handle_unaligned_ins()
152 if (ma->to(dstu, src, count)) in handle_unaligned_ins()
163 if (ma->to(dstu, src, 4)) in handle_unaligned_ins()
176 if (ma->to(dstu, src, count)) in handle_unaligned_ins()
187 if (ma->from(dst, srcu, 4)) in handle_unaligned_ins()
202 if (ma->from(dst, srcu, count)) in handle_unaligned_ins()
218 if (ma->to(dstu, src, 2)) in handle_unaligned_ins()
232 if (ma->from(dst, srcu, 2)) in handle_unaligned_ins()
251 if (ma->from(dst, srcu, 2)) in handle_unaligned_ins()
[all …]
/linux/net/ipv6/
H A Dmcast.c76 static void igmp6_join_group(struct ifmcaddr6 *ma);
77 static void igmp6_leave_group(struct ifmcaddr6 *ma);
1010 struct ifmcaddr6 *ma, __rcu **map; in __ipv6_dev_mc_dec() local
1015 (ma = mc_dereference(*map, idev)); in __ipv6_dev_mc_dec()
1016 map = &ma->next) { in __ipv6_dev_mc_dec()
1017 if (ipv6_addr_equal(&ma->mca_addr, addr)) { in __ipv6_dev_mc_dec()
1018 int new_users = ma->mca_users - 1; in __ipv6_dev_mc_dec()
1020 WRITE_ONCE(ma->mca_users, new_users); in __ipv6_dev_mc_dec()
1023 mc_dereference(ma->next, idev)); in __ipv6_dev_mc_dec()
1025 igmp6_group_dropped(ma); in __ipv6_dev_mc_dec()
[all …]
/linux/Documentation/translations/it_IT/process/
H A Dbotching-up-ioctls.rst18 sistema che finge di essere generico, ma al suo posto ci sono interfacce
19 dedicate. Ma al tempo stesso è più facile incasinare le cose.
41 i valori a 64-bit rispettandone l'allineamento, ma le piattaforme a 64-bit lo
78 Questo aiuta, ma non è una soluzione completa dato che uno spazio utente nuovo
157 parte. Gli orologi divergeranno, ma con questa informazione gli strumenti di
163 nanosecondi. Non è il modo migliore per specificare il tempo, ma è
177 scadenze potrebbero essere estese - ma sicuramente gli utenti vi odieranno
210 dei nomi con oggetti per il *framebuffer*, ma questi non sono per niente
216 sottomissione di un oggetto allo stesso comando ioctl. Ma per evitarlo, se
219 ma considerate l'idea di usare il numero di inode come identificatore per i
[all …]
H A Dvolatile-considered-harmful.rst15 *volatile* come una variabile atomica di facile utilizzo, ma non è così.
48 potrebbe pensare di sapere cosa ci sarà nel dato condiviso ma la chiamata
53 sincronizzazione rimarrebbe comunque necessaria. Ma verrà impedito al
62 essere protetto dai lock, ma si potrebbe anche desiderare che il compilatore
64 Ma, all'interno del kernel, l'accesso alla memoria di I/O viene sempre fatto
92 - I codice *inline assembly* che fa cambiamenti nella memoria, ma che non
97 volta che viene letta ma può essere lette senza alcuna sincronizzazione.
98 Quindi jiffies può essere *volatile*, ma l'aggiunta ad altre variabili di
/linux/include/linux/power/
H A Dbq2415x_charger.h29 BQ2415X_MODE_NONE, /* unknown charger (100mA) */
30 BQ2415X_MODE_HOST_CHARGER, /* usb host/hub charger (500mA) */
36 int current_limit; /* mA */
39 int charge_current; /* mA */
40 int termination_current; /* mA */

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