/openbmc/qemu/hw/net/rocker/ |
H A D | rocker_world.c | 23 struct world { struct 29 ssize_t world_ingress(World *world, uint32_t pport, in world_ingress() argument 32 if (world->ops->ig) { in world_ingress() 33 return world->ops->ig(world, pport, iov, iovcnt); in world_ingress() 39 int world_do_cmd(World *world, DescInfo *info, in world_do_cmd() argument 42 if (world->ops->cmd) { in world_do_cmd() 43 return world->ops->cmd(world, info, buf, cmd, cmd_info_tlv); in world_do_cmd() 49 World *world_alloc(Rocker *r, size_t sizeof_private, in world_alloc() 52 World *w = g_malloc0(sizeof(World) + sizeof_private); in world_alloc() 64 void world_free(World *world) in world_free() argument [all …]
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H A D | rocker_world.h | 27 typedef int (world_init)(World *world); 28 typedef void (world_uninit)(World *world); 29 typedef ssize_t (world_ig)(World *world, uint32_t pport, 31 typedef int (world_cmd)(World *world, DescInfo *info, 43 ssize_t world_ingress(World *world, uint32_t pport, 45 int world_do_cmd(World *world, DescInfo *info, 48 World *world_alloc(Rocker *r, size_t sizeof_private, 50 void world_free(World *world); 51 void world_reset(World *world); 53 void *world_private(World *world); [all …]
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H A D | rocker_fp.c | 31 World *world; member 146 return world_ingress(port->world, port->pport, iov, iovcnt); in fp_port_receive_iov() 180 World *fp_port_get_world(FpPort *port) in fp_port_get_world() 182 return port->world; in fp_port_get_world() 185 void fp_port_set_world(FpPort *port, World *world) in fp_port_set_world() argument 187 DPRINTF("port %d setting world \"%s\"\n", port->index, world_name(world)); in fp_port_set_world() 188 port->world = world; in fp_port_set_world() 191 bool fp_port_check_world(FpPort *port, World *world) in fp_port_check_world() argument 193 return port->world == world; in fp_port_check_world()
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H A D | rocker_fp.h | 41 World *fp_port_get_world(FpPort *port); 42 void fp_port_set_world(FpPort *port, World *world); 43 bool fp_port_check_world(FpPort *port, World *world);
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H A D | rocker.h | 65 typedef struct world World; typedef 78 int rx_produce(World *world, uint32_t pport,
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/openbmc/openbmc/meta-openembedded/meta-oe/recipes-graphics/directfb/directfb/ |
H A D | fusion.patch | 9 direct_mutex_lock( &world->event_dispatcher_mutex ); 12 - if (!world->event_dispatcher_buffers) 13 + if (!world->event_dispatcher_buffers){ 14 … direct_waitqueue_wait( &world->event_dispatcher_cond, &world->event_dispatcher_mutex ); 16 + if (world->dispatch_stop) { 18 + direct_mutex_unlock( &world->event_dispatcher_mutex ); 22 buf = (FusionEventDispatcherBuffer *)world->event_dispatcher_buffers; 28 … direct_waitqueue_wait( &world->event_dispatcher_cond, &world->event_dispatcher_mutex ); 29 + if (world->dispatch_stop) { 31 + direct_mutex_unlock( &world->event_dispatcher_mutex ); [all …]
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/openbmc/linux/lib/ |
H A D | test_objagg.c | 29 struct world { struct 46 static struct objagg_obj *world_obj_get(struct world *world, in world_obj_get() argument 60 if (!world->key_refs[key_id_index(key_id)]) { in world_obj_get() 61 world->objagg_objs[key_id_index(key_id)] = objagg_obj; in world_obj_get() 62 } else if (world->objagg_objs[key_id_index(key_id)] != objagg_obj) { in world_obj_get() 68 world->key_refs[key_id_index(key_id)]++; in world_obj_get() 76 static void world_obj_put(struct world *world, struct objagg *objagg, in world_obj_put() argument 81 if (!world->key_refs[key_id_index(key_id)]) in world_obj_put() 83 objagg_obj = world->objagg_objs[key_id_index(key_id)]; in world_obj_put() 85 world->key_refs[key_id_index(key_id)]--; in world_obj_put() [all …]
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/openbmc/linux/Documentation/devicetree/bindings/arm/ |
H A D | secure.txt | 1 * ARM Secure world bindings 6 world or the Secure world. However some devicetree consumers are 13 The general principle of the naming scheme for Secure world bindings 14 is that any property that needs a different value in the Secure world 19 world value is the same as specified for the Normal world by the 30 world consumers (like kernels that run entirely in Secure) to simply 31 describe the view of Secure world using the standard bindings. These 33 world views need to be described in a single device tree. 35 Valid Secure world properties 39 in the secure world. The combination of this with "status" allows [all …]
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/openbmc/linux/drivers/tee/optee/ |
H A D | optee_smc.h | 75 * Used by non-secure world to figure out which Trusted OS is installed. 88 * Used by non-secure world to figure out which version of the Trusted OS 140 * When calling these functions, normal world has a few responsibilities: 193 * world. 238 * Exchanges capabilities between normal world and secure world 242 * a1 bitfield of normal world capabilities OPTEE_SMC_NSEC_CAP_* 248 * a1 bitfield of secure world capabilities OPTEE_SMC_SEC_CAP_* 249 * a2 The maximum secure world notification number 257 * a0 OPTEE_SMC_RETURN_ENOTAVAIL, can't use the capabilities from normal world 258 * a1 bitfield of secure world capabilities OPTEE_SMC_SEC_CAP_* [all …]
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H A D | optee_ffa.h | 7 * This file is exported by OP-TEE and is kept in sync between secure world 8 * and normal world drivers. We're using ARM FF-A 1.0 specification. 17 * Normal world sends requests with FFA_MSG_SEND_DIRECT_REQ and 53 * Used by non-secure world to figure out which version of the Trusted OS 69 * Exchange capabilities between normal world and secure world. 84 * w5: Bitfield of secure world capabilities OPTEE_FFA_SEC_CAP_* below, 89 * Secure world supports giving an offset into the argument shared memory 136 * RPC interrupt return (RPC from secure world). Register usage:
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H A D | optee_msg.h | 13 * with an instance of OP-TEE running in secure world. 17 * 2. Requests from normal world 110 * Secure and normal world communicates pointers as physical address 111 * instead of the virtual address. This is because secure and normal world 112 * have completely independent memory mapping. Normal world can even have a 115 * structure to secure world. 155 * Value parameters are passed unchecked between normal and secure world. 235 * Part 2 - requests from normal world 275 * Used by non-secure world to figure out which Trusted OS is installed. 290 * Used by non-secure world to figure out which version of the Trusted OS [all …]
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H A D | optee_private.h | 32 * This value should be larger than the number threads in secure world to 33 * meet the need from secure world. The number of threads in secure world 109 * @sec_caps: secure world capabilities defined by 131 * OP-TEE in secure world 147 * @do_call_with_arg: enters OP-TEE in secure world 153 * secure world. 171 * world
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/openbmc/u-boot/drivers/tee/optee/ |
H A D | optee_smc.h | 82 * Used by non-secure world to figure out which Trusted OS is installed. 95 * Used by non-secure world to figure out which version of the Trusted OS 153 * world. 194 * Exchanges capabilities between normal world and secure world 198 * a1 bitfield of normal world capabilities OPTEE_SMC_NSEC_CAP_* 204 * a1 bitfield of secure world capabilities OPTEE_SMC_SEC_CAP_* 208 * a0 OPTEE_SMC_RETURN_ENOTAVAIL, can't use the capabilities from normal world 209 * a1 bitfield of secure world capabilities OPTEE_SMC_SEC_CAP_* 212 /* Normal world works as a uniprocessor system */ 214 /* Secure world has reserved shared memory for normal world to use */ [all …]
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H A D | optee_msg.h | 14 * an instance of OP-TEE running in secure world. This file is based on 20 * 2. Requests from normal world 21 * 3. Requests from secure world, Remote Procedure Call (RPC), handled by 110 * Secure and normal world communicates pointers as physical address 111 * instead of the virtual address. This is because secure and normal world 112 * have completely independent memory mapping. Normal world can even have a 115 * structure to secure world. 138 * Value parameters are passed unchecked between normal and secure world. 221 * Part 2 - requests from normal world 249 * Used by non-secure world to figure out which Trusted OS is installed. [all …]
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/openbmc/docs/development/ |
H A D | devtool-hello-world.md | 1 # OpenBMC Hello World using devtool 47 + std::cout<<"Hello World" <<std::endl; 65 4. Confirm your "Hello World" made it into the new image 70 journalctl | grep "Hello World" 76 <date> romulus phosphor-bmc-state-manager[1089]: Hello World 88 1. Modify your hello world 94 Change your cout to "Hello World Again" 100 phosphor-state-manager repo to pick up your new hello world change. 112 Now is time to load your Hello World application in to QEMU virtual hardware. 154 You'll see your "Hello World Again" message displayed. Ctrl^C to end that [all …]
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/openbmc/qemu/docs/devel/ |
H A D | writing-monitor-commands.rst | 97 Writing a simple command: hello-world 102 "Hello, world" to the standard output. 104 Our command will be called "hello-world". It takes no arguments, nor does it 112 # @hello-world: 116 { 'command': 'hello-world' } 122 The next step is to write the "hello-world" implementation. As explained 124 "hello-world" doesn't pertain to any, so we put its implementation in 129 printf("Hello, world!\n"); 147 { "execute": "hello-world" } 149 Then check the terminal running QEMU and look for the "Hello, world" string. If [all …]
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/openbmc/linux/Documentation/devicetree/bindings/iio/ |
H A D | mount-matrix.txt | 13 that produce three-dimensional data in relation to the world where it is 41 external world, the environment where the device is deployed. Usually the data 43 to this world. When using the mounting matrix, the sensor and device orientation 45 world. 47 Device-to-world examples for some three-dimensional sensor types: 49 - Accelerometers have their world frame of reference toward the center of 53 this point. Up and down in the world relative to the device frame of 93 - Magnetometers (compasses) have their world frame of reference relative to the 94 geomagnetic field. The system orientation vis-a-vis the world is defined with 160 space, relative to the device or world point of reference.
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/openbmc/openbmc/poky/bitbake/doc/bitbake-user-manual/ |
H A D | bitbake-user-manual-hello.rst | 4 Hello World Example 7 BitBake Hello World 12 World <http://en.wikipedia.org/wiki/Hello_world_program>`__" example. 13 This appendix demonstrates, in tutorial form, Hello World within the 82 The Hello World Example 85 The overall goal of this exercise is to build a complete "Hello World" 93 build to eventually conclude with a working, minimal "Hello World" 105 `Mailing List post - The BitBake equivalent of "Hello, World!" 109 "Hello World". However, it is unknown what BitBake needs and what you 119 Following is the complete "Hello World" example. [all …]
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/openbmc/u-boot/doc/ |
H A D | README.fsl-trustzone-components | 15 - Separates Secure World and Normal World on-chip RAM (OCRAM) spaces. 22 - Separates Secure World and Normal World external memory spaces for bus masters
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/openbmc/linux/scripts/kconfig/tests/preprocess/builtin_func/ |
H A D | expected_stderr | 1 Kconfig:8: hello world 1 2 Kconfig:18: hello world 3 3 Kconfig:22: hello world 4
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/openbmc/qemu/tests/tcg/s390x/ |
H A D | hello-s390x-asm.S | 2 * Hello, World! in assembly. 8 /* puts("Hello, World!"); */ 19 foo: .asciz "Hello, World!\n"
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/openbmc/linux/drivers/scsi/qla2xxx/ |
H A D | tcm_qla2xxx.h | 20 /* Binary World Wide unique Node Name for remote FC Initiator Nport */ 58 /* Binary World Wide unique Port Name for FC Target Lport */ 60 /* Binary World Wide unique Port Name for FC NPIV Target Lport */ 62 /* Binary World Wide unique Node Name for FC NPIV Target Lport */
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/openbmc/qemu/python/qemu/qmp/ |
H A D | message.py | 33 >>> msg = Message(b'{"hello": "world"}') 34 >>> assert msg['hello'] == 'world' 38 "hello": "world", 44 >>> msg = Message({"hello": "world"}) 46 b'{"hello":"world","id":"foobar"}' 51 {'hello': 'world'}
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/openbmc/openbmc/meta-openembedded/meta-oe/recipes-extended/duktape/files/ |
H A D | run-ptest | 4 out="Hello world!" 13 ./eval "print('Hello world!'); 123;" > out.log 18 if grep -w 'Hello world!\|123' eval.log 2>&1; then
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/openbmc/qemu/tests/qemu-iotests/tests/ |
H A D | vvfat | 52 f.write(f"Hello, world! {i}\n") 236 fat16.read_file(file), f"Hello, world! {i}\n".encode("ascii") 275 self.assertEqual(fat16.read_file(file), b"Hello, world! 0\n") 277 fat16.write_file(file, b"Hello, world! 0\n") 278 self.assertEqual(fat16.read_file(file), b"Hello, world! 0\n") 281 self.assertEqual(f.read(), b"Hello, world! 0\n") 293 new_content = b"Hello, world! Modified\n" 294 self.assertEqual(fat16.read_file(file), b"Hello, world! 0\n") 312 self.assertEqual(fat16.read_file(file), b"Hello, world! 0\n") 331 self.assertEqual(fat16.read_file(file), b"Hello, world! 0\n") [all …]
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