/Linux-v4.19/drivers/media/dvb-frontends/ |
D | as102_fe.c | 134 switch (c->hierarchy) { in as102_fe_set_frontend() 136 tune_args.hierarchy = HIER_NONE; in as102_fe_set_frontend() 139 tune_args.hierarchy = HIER_ALPHA_1; in as102_fe_set_frontend() 142 tune_args.hierarchy = HIER_ALPHA_2; in as102_fe_set_frontend() 145 tune_args.hierarchy = HIER_ALPHA_4; in as102_fe_set_frontend() 148 tune_args.hierarchy = HIER_UNKNOWN; in as102_fe_set_frontend() 161 if ((tune_args.hierarchy != HIER_NONE) && in as102_fe_set_frontend() 178 tune_args.hierarchy, in as102_fe_set_frontend() 219 switch (tps.hierarchy) { in as102_fe_get_frontend() 221 c->hierarchy = HIERARCHY_NONE; in as102_fe_get_frontend() [all …]
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D | l64781.c | 169 if (p->hierarchy != HIERARCHY_NONE && in apply_frontend_param() 187 if ((int)p->hierarchy < HIERARCHY_NONE || in apply_frontend_param() 188 p->hierarchy > HIERARCHY_4) in apply_frontend_param() 212 if (p->hierarchy != HIERARCHY_NONE) in apply_frontend_param() 215 val0x06 = (p->hierarchy << 2) | p->modulation; in apply_frontend_param() 335 p->hierarchy = HIERARCHY_NONE; in get_frontend() 338 p->hierarchy = HIERARCHY_1; in get_frontend() 341 p->hierarchy = HIERARCHY_2; in get_frontend() 344 p->hierarchy = HIERARCHY_4; in get_frontend()
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D | mt352.c | 211 if (op->hierarchy == HIERARCHY_AUTO || in mt352_set_parameters() 212 op->hierarchy == HIERARCHY_NONE) in mt352_set_parameters() 261 switch (op->hierarchy) { in mt352_set_parameters() 383 op->hierarchy = HIERARCHY_NONE; in mt352_get_parameters() 386 op->hierarchy = HIERARCHY_1; in mt352_get_parameters() 389 op->hierarchy = HIERARCHY_2; in mt352_get_parameters() 392 op->hierarchy = HIERARCHY_4; in mt352_get_parameters() 395 op->hierarchy = HIERARCHY_AUTO; in mt352_get_parameters()
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D | dib3000mb.c | 228 switch (c->hierarchy) { in dib3000mb_set_frontend() 251 if (c->hierarchy == HIERARCHY_NONE) { in dib3000mb_set_frontend() 255 } else if (c->hierarchy != HIERARCHY_AUTO) { in dib3000mb_set_frontend() 332 c->hierarchy == HIERARCHY_AUTO || in dib3000mb_set_frontend() 508 c->hierarchy = HIERARCHY_NONE; in dib3000mb_get_frontend() 512 c->hierarchy = HIERARCHY_1; in dib3000mb_get_frontend() 516 c->hierarchy = HIERARCHY_2; in dib3000mb_get_frontend() 520 c->hierarchy = HIERARCHY_4; in dib3000mb_get_frontend() 533 c->hierarchy = HIERARCHY_NONE; in dib3000mb_get_frontend()
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D | zl10353.c | 268 if (c->hierarchy == HIERARCHY_AUTO || in zl10353_set_parameters() 269 c->hierarchy == HIERARCHY_NONE) in zl10353_set_parameters() 318 switch (c->hierarchy) { in zl10353_set_parameters() 437 c->hierarchy = HIERARCHY_NONE; in zl10353_get_parameters() 440 c->hierarchy = HIERARCHY_1; in zl10353_get_parameters() 443 c->hierarchy = HIERARCHY_2; in zl10353_get_parameters() 446 c->hierarchy = HIERARCHY_4; in zl10353_get_parameters() 449 c->hierarchy = HIERARCHY_AUTO; in zl10353_get_parameters()
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D | cx22702.c | 171 p->hierarchy = HIERARCHY_NONE; in cx22702_get_tps() 174 p->hierarchy = HIERARCHY_1; in cx22702_get_tps() 177 p->hierarchy = HIERARCHY_2; in cx22702_get_tps() 180 p->hierarchy = HIERARCHY_4; in cx22702_get_tps() 298 if ((p->hierarchy == HIERARCHY_AUTO) || in cx22702_set_tps() 333 switch (p->hierarchy) { /* mask 0x07 */ in cx22702_set_tps()
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D | cx22700.c | 155 if ((int)p->hierarchy < HIERARCHY_NONE || in cx22700_set_tps() 156 p->hierarchy > HIERARCHY_4) in cx22700_set_tps() 168 val |= p->hierarchy - HIERARCHY_NONE; in cx22700_set_tps() 208 p->hierarchy = HIERARCHY_AUTO; in cx22700_get_tps() 210 p->hierarchy = HIERARCHY_NONE + (val & 0x7); in cx22700_get_tps()
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D | rtl2830.c | 336 c->hierarchy = HIERARCHY_NONE; in rtl2830_get_frontend() 339 c->hierarchy = HIERARCHY_1; in rtl2830_get_frontend() 342 c->hierarchy = HIERARCHY_2; in rtl2830_get_frontend() 345 c->hierarchy = HIERARCHY_4; in rtl2830_get_frontend() 441 unsigned int hierarchy, constellation; in rtl2830_read_status() local 458 hierarchy = (u8tmp >> 4) & 0x07; /* [6:4] */ in rtl2830_read_status() 459 if (hierarchy > HIERARCHY_NUM - 1) in rtl2830_read_status() 468 stmp = (constant[constellation][hierarchy] - in rtl2830_read_status()
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D | as102_fe_types.h | 110 uint8_t hierarchy; member 131 uint8_t hierarchy; member
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D | cxd2820r_t.c | 192 c->hierarchy = HIERARCHY_NONE; in cxd2820r_get_frontend_t() 195 c->hierarchy = HIERARCHY_1; in cxd2820r_get_frontend_t() 198 c->hierarchy = HIERARCHY_2; in cxd2820r_get_frontend_t() 201 c->hierarchy = HIERARCHY_4; in cxd2820r_get_frontend_t()
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D | rtl2832.c | 595 c->hierarchy = HIERARCHY_NONE; in rtl2832_get_frontend() 598 c->hierarchy = HIERARCHY_1; in rtl2832_get_frontend() 601 c->hierarchy = HIERARCHY_2; in rtl2832_get_frontend() 604 c->hierarchy = HIERARCHY_4; in rtl2832_get_frontend() 700 unsigned hierarchy, constellation; in rtl2832_read_status() local 717 hierarchy = (u8tmp >> 4) & 0x07; /* [6:4] */ in rtl2832_read_status() 718 if (hierarchy > HIERARCHY_NUM - 1) in rtl2832_read_status() 727 tmp = (constant[constellation][hierarchy] - in rtl2832_read_status()
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/Linux-v4.19/Documentation/cgroup-v1/ |
D | cgroups.txt | 56 A *hierarchy* is a set of cgroups arranged in a tree, such that 58 hierarchy, and a set of subsystems; each subsystem has system-specific 59 state attached to each cgroup in the hierarchy. Each hierarchy has 63 cgroups. Each hierarchy is a partition of all tasks in the system. 68 a cgroup. Those creations and assignments only affect the hierarchy 95 Multiple hierarchy support is provided to allow for situations where 98 hierarchy to be a natural division of tasks, without having to handle 104 separate hierarchy; at the other extreme, all subsystems 105 would be attached to the same hierarchy. 143 With only a single hierarchy, he now would potentially have to create [all …]
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D | pids.txt | 7 The process number controller is used to allow a cgroup hierarchy to stop any 12 preventable in the scope of a cgroup hierarchy by allowing resource limiting of 31 limit in the hierarchy is followed). 43 Then we create a hierarchy, set limits and attach processes to it: 61 not be able to overcome the most stringent limit in the hierarchy (in this case,
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/Linux-v4.19/drivers/net/ethernet/mellanox/mlx5/core/ |
D | rl.c | 40 int mlx5_create_scheduling_element_cmd(struct mlx5_core_dev *dev, u8 hierarchy, in mlx5_create_scheduling_element_cmd() argument 53 hierarchy); in mlx5_create_scheduling_element_cmd() 65 int mlx5_modify_scheduling_element_cmd(struct mlx5_core_dev *dev, u8 hierarchy, in mlx5_modify_scheduling_element_cmd() argument 82 hierarchy); in mlx5_modify_scheduling_element_cmd() 88 int mlx5_destroy_scheduling_element_cmd(struct mlx5_core_dev *dev, u8 hierarchy, in mlx5_destroy_scheduling_element_cmd() argument 99 hierarchy); in mlx5_destroy_scheduling_element_cmd()
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D | mlx5_core.h | 114 int mlx5_create_scheduling_element_cmd(struct mlx5_core_dev *dev, u8 hierarchy, 116 int mlx5_modify_scheduling_element_cmd(struct mlx5_core_dev *dev, u8 hierarchy, 119 int mlx5_destroy_scheduling_element_cmd(struct mlx5_core_dev *dev, u8 hierarchy,
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/Linux-v4.19/Documentation/ |
D | IRQ-domain.txt | 205 interrupt controller and those irq_domains are organized into hierarchy. 206 When building irq_domain hierarchy, the irq_domain near to the device is 207 child and the irq_domain near to CPU is parent. So a hierarchy structure 218 There are four major interfaces to use hierarchy irq_domain: 229 Following changes are needed to support hierarchy irq_domain: 232 maintain irq_domain hierarchy information. 234 build hierarchy irq_data to match hierarchy irq_domains. The irq_data 236 3) new callbacks are added to struct irq_domain_ops to support hierarchy 239 With support of hierarchy irq_domain and hierarchy irq_data ready, an 242 IRQ. Now we could go one step further to support stacked(hierarchy) [all …]
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/Linux-v4.19/drivers/media/usb/dvb-usb-v2/ |
D | mxl111sf-demod.c | 180 enum fe_hierarchy *hierarchy) in mxl1x1sf_demod_get_tps_hierarchy() argument 190 *hierarchy = HIERARCHY_NONE; in mxl1x1sf_demod_get_tps_hierarchy() 193 *hierarchy = HIERARCHY_1; in mxl1x1sf_demod_get_tps_hierarchy() 196 *hierarchy = HIERARCHY_2; in mxl1x1sf_demod_get_tps_hierarchy() 199 *hierarchy = HIERARCHY_4; in mxl1x1sf_demod_get_tps_hierarchy() 532 &p->hierarchy); in mxl111sf_demod_get_frontend()
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/Linux-v4.19/Documentation/devicetree/bindings/opp/ |
D | opp.txt | 147 It's a user defined array containing a hierarchy of hardware version numbers, 148 supported by the OPP. For example: a platform with hierarchy of three levels 150 corresponds to Version hierarchy A, Y corresponds to version hierarchy B and Z 151 corresponds to version hierarchy C. 153 Each level of hierarchy is represented by a 32 bit value, and so there can be 154 only 32 different supported version per hierarchy. i.e. 1 bit per version. A 155 value of 0xFFFFFFFF will enable the OPP for all versions for that hierarchy 159 If 32 values aren't sufficient for a version hierarchy, than that version 160 hierarchy can be contained in multiple 32 bit values. i.e. <X Y Z1 Z2> in the 161 above example, Z1 & Z2 refer to the version hierarchy Z. [all …]
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/Linux-v4.19/Documentation/devicetree/bindings/arm/omap/ |
D | prcm.txt | 4 a DT hierarchy. Each TI SoC can have multiple PRCM entities listed for it, 5 each describing one module and the clock hierarchy under it. see [1] for
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/Linux-v4.19/Documentation/admin-guide/ |
D | cgroup-v2.rst | 100 distribute system resources along the hierarchy in a controlled and 106 distributing a specific type of system resource along the hierarchy 121 sub-hierarchy of the cgroup. When a controller is enabled on a nested 123 restrictions set closer to the root in the hierarchy can not be 133 Unlike v1, cgroup v2 has only single hierarchy. The cgroup v2 134 hierarchy can be mounted with the following mount command:: 139 controllers which support v2 and are not bound to a v1 hierarchy are 140 automatically bound to the v2 hierarchy and show up at the root. 141 Controllers which are not in active use in the v2 hierarchy can be 142 bound to other hierarchies. This allows mixing v2 hierarchy with the [all …]
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/Linux-v4.19/Documentation/devicetree/bindings/arm/ |
D | topology.txt | 9 In an ARM system, the hierarchy of CPUs is defined through three entities that 17 correspond to physical CPUs and are to be mapped to the hierarchy levels. 19 The bottom hierarchy level sits at core or thread level depending on whether 23 threads existing in the system and map to the hierarchy level "thread" above. 25 in the system and map to the hierarchy level "core" above. 28 corresponding to the system hierarchy; syntactically they are defined as device 94 levels) since name uniqueness will be guaranteed by the device tree hierarchy.
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/Linux-v4.19/drivers/media/usb/as102/ |
D | as10x_cmd.c | 128 preq->body.set_tune.req.args.hierarchy = ptune->hierarchy; in as10x_cmd_set_tune() 254 ptps->hierarchy = prsp->body.get_tps.rsp.tps.hierarchy; in as10x_cmd_get_tps()
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/Linux-v4.19/Documentation/devicetree/bindings/arm/uniphier/ |
D | cache-uniphier.txt | 16 - cache-level: specifies the level in the cache hierarchy. The value should 23 The L2 cache must exist to use the L3 cache; the cache hierarchy must be
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/Linux-v4.19/arch/arc/plat-eznps/ |
D | Kconfig | 27 Here we add new hierarchy for CPUs topology. 32 At highest hierarchy each core contain 16 threads,
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/Linux-v4.19/drivers/media/dvb-frontends/cxd2880/ |
D | cxd2880_dvbt.h | 61 enum cxd2880_dvbt_hierarchy hierarchy; member
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