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/kernel/linux/linux-6.6/lib/
Dtest_objagg.c29 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 …]
/kernel/linux/linux-5.10/lib/
Dtest_objagg.c29 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 …]
/kernel/linux/linux-5.10/Documentation/devicetree/bindings/arm/
Dsecure.txt1 * 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 …]
/kernel/linux/linux-6.6/Documentation/devicetree/bindings/arm/
Dsecure.txt1 * 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 …]
/kernel/linux/linux-6.6/drivers/tee/optee/
Doptee_smc.h75 * 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 …]
Doptee_ffa.h7 * 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:
Doptee_msg.h13 * 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 …]
Doptee_private.h32 * 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
/kernel/linux/linux-5.10/drivers/tee/optee/
Doptee_smc.h75 * 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
146 * world.
187 * Exchanges capabilities between normal world and secure world
191 * a1 bitfield of normal world capabilities OPTEE_SMC_NSEC_CAP_*
197 * a1 bitfield of secure world capabilities OPTEE_SMC_SEC_CAP_*
201 * a0 OPTEE_SMC_RETURN_ENOTAVAIL, can't use the capabilities from normal world
202 * a1 bitfield of secure world capabilities OPTEE_SMC_SEC_CAP_*
205 /* Normal world works as a uniprocessor system */
207 /* Secure world has reserved shared memory for normal world to use */
[all …]
Doptee_msg.h13 * with an instance of OP-TEE running in secure world.
17 * 2. Requests from normal world
18 * 3. Requests from secure world, Remote Procedure Call (RPC), handled by
107 * Secure and normal world communicates pointers as physical address
108 * instead of the virtual address. This is because secure and normal world
109 * have completely independent memory mapping. Normal world can even have a
112 * structure to secure world.
135 * Value parameters are passed unchecked between normal and secure world.
220 * Part 2 - requests from normal world
248 * Used by non-secure world to figure out which Trusted OS is installed.
[all …]
Dcall.c27 * We're preparing to make a call to secure world. In case we can't in optee_cq_wait_init()
28 * allocate a thread in secure world we'll end up waiting in in optee_cq_wait_init()
31 * Normally if there's no contention in secure world the call will in optee_cq_wait_init()
38 * guarantees that we don't lose a completion if secure world in optee_cq_wait_init()
79 * We're done with the call to secure world. The thread in secure in optee_cq_wait_final()
80 * world that was used for this call is now available for some in optee_cq_wait_final()
93 * was just done with its call to secure world. Since yet another in optee_cq_wait_final()
94 * thread now is available in secure world wake up another eventual in optee_cq_wait_final()
117 * optee_do_call_with_arg() - Do an SMC to OP-TEE in secure world
119 * @parg: physical address of message to pass to secure world
[all …]
/kernel/liteos_m/testsuites/unittest/xts/io/
Dxts_io_string_test.c90 const char *src = "hello world !";
111 char src[] = "hello world !";
132 char src[] = "hello world !";
151 char src[] = "hello world !";
157 ret = strncpy_s(destT, sizeof(destT), "hello world", 0);
170 int ret = strcat_s(dest, sizeof(dest), "hello world !");
173 char destT[50] = "hello world ! || "; /* 50 common data for test, no special meaning */
186 char dest[50] = "hello world || "; /* 50 common data for test, no special meaning */
203 char src[] = "hello !! world";
205 ICUNIT_ASSERT_STRING_EQUAL(ret, "!! world", ret);
[all …]
/kernel/liteos_a/testsuites/unittest/libc/io/full/
DIO_test_dngettext_002.cpp45 s = dngettext("", "TestString1:Hello world!\n", "TestString2\n", 1); in testcase1()
48 ICUNIT_ASSERT_STRING_EQUAL(s, "TestString1:Hello world!\n", s); in testcase1()
52 s = dngettext("", "TestString1\n", "TestString2:Hello world!\n", 2); in testcase1()
55 ICUNIT_ASSERT_STRING_EQUAL(s, "TestString2:Hello world!\n", s); in testcase1()
73 s = dngettext("en_US.UTF-8", "TestString1:Hello world!\n", "TestString2\n", 1); in testcase2()
76 ICUNIT_ASSERT_STRING_EQUAL(s, "TestString1:Hello world!\n", s); in testcase2()
80 s = dngettext("en_US.UTF-8", "TestString1\n", "TestString2:Hello world!\n", 2); in testcase2()
83 ICUNIT_ASSERT_STRING_EQUAL(s, "TestString2:Hello world!\n", s); in testcase2()
101 s = dngettext("en_US.UTF-8", "TestString1:Hello world!\n", "TestString2!\n", 5); in testcase3()
108 s = dngettext("en_US.UTF-8", "TestString1\n", "TestString2:Hello world!\n", 3); in testcase3()
[all …]
DIO_test_dcngettext_002.cpp45 s = dcngettext("", "TestString1:Hello world!\n", "TestString2\n", 1, LC_MESSAGES); in testcase1()
48 ICUNIT_ASSERT_STRING_EQUAL(s, "TestString1:Hello world!\n", s); in testcase1()
52 s = dcngettext("", "TestString1\n", "TestString2:Hello world!\n", 2, LC_MESSAGES); in testcase1()
55 ICUNIT_ASSERT_STRING_EQUAL(s, "TestString2:Hello world!\n", s); in testcase1()
73 …s = dcngettext("en_US.UTF-8", "TestString1:Hello world!\n", "TestString2:Hello world!\n", 1, LC_ME… in testcase2()
76 ICUNIT_ASSERT_STRING_EQUAL(s, "TestString1:Hello world!\n", s); in testcase2()
80 s = dcngettext("en_US.UTF-8", "TestString1\n", "TestString2:Hello world!\n", 2, LC_MESSAGES); in testcase2()
83 ICUNIT_ASSERT_STRING_EQUAL(s, "TestString2:Hello world!\n", s); in testcase2()
DIt_stdlib_poll_002.cpp61 ret = read(fds[i].fd, buffer, 12); // 12, "hello world" length and '\0' in Pthread01()
62 ICUNIT_GOTO_EQUAL(ret, 12, ret, EXIT); // 12, "hello world" length and '\0' in Pthread01()
63 ret = strcmp(buffer, "hello world"); in Pthread01()
93 ret = write(g_pipeFd[i][1], "hello world", 12); // 12, "hello world" length and '\0' in Testcase()
94 ICUNIT_GOTO_EQUAL(ret, 12, ret, EXIT); // 12, "hello world" length and '\0' in Testcase()
/kernel/liteos_m/testsuites/unittest/posix/src/string/
Dstrchr_test.c75 char src[] = "hello !! world";
77 if (strcmp(ret, "!! world") == 0) {
82 ICUNIT_ASSERT_STRING_EQUAL(ret, "!! world", 0);
93 char src[] = "hello !! world";
95 if (strcmp(ret, "llo !! world") == 0) {
100 ICUNIT_ASSERT_STRING_EQUAL(ret, "llo !! world", 0);
111 char src[] = "hello !! world";
129 char src[] = "hello !! world";
147 char src[] = "hello !! world";
165 char src[] = "hello !! world";
Dstring_func_test_01.c90 char src[] = "hello world";
115 char src[] = "hello\0world";
181 char *src[] = {"helloworld", "hello World"};
246 char *src[] = {"helloworld", "hello World"};
273 char src[] = "hello world";
286 char src[] = "hello world";
300 char src[] = "hello\0world";
314 char src[] = "hello world";
328 char src[] = "hello\0world";
/kernel/linux/linux-5.10/Documentation/devicetree/bindings/iio/
Dmount-matrix.txt13 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.
/kernel/linux/linux-6.6/Documentation/devicetree/bindings/iio/
Dmount-matrix.txt13 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.
/kernel/liteos_a/testsuites/unittest/extended/signal/full/
DIt_ipc_pipe_002.cpp53 ret = write(pipeFd[1], "hello world", 12); // 12, "hello world" length and '\0' in Testcase()
55 if (ret != 12) { // 12, "hello world" length and '\0' in Testcase()
67 ret = read(pipeFd[0], buffer, 12); // 12, "hello world" length and '\0' in Testcase()
68 ICUNIT_GOTO_EQUAL(ret, 12, ret, EXIT); // 12, "hello world" length and '\0' in Testcase()
69 ret = strcmp(buffer, "hello world"); in Testcase()
/kernel/uniproton/doc/
Dgetting_started.md1 ## 快速入门：开发Hello World
2 快速入门通过完成经典的“Hello World”把搭建UniProton开发环境的各步骤进行实例说明，让用户更直观地初步了解如何基于UniProton进行开发。
27 ### Hello World 示例程序
43 printf("hello world!\n");
130 hello world!
/kernel/linux/linux-5.10/scripts/kconfig/tests/preprocess/builtin_func/
Dexpected_stderr1 Kconfig:8: hello world 1
2 Kconfig:18: hello world 3
3 Kconfig:22: hello world 4
/kernel/linux/linux-6.6/scripts/kconfig/tests/preprocess/builtin_func/
Dexpected_stderr1 Kconfig:8: hello world 1
2 Kconfig:18: hello world 3
3 Kconfig:22: hello world 4
/kernel/linux/linux-6.6/drivers/scsi/qla2xxx/
Dtcm_qla2xxx.h20 /* 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 */
/kernel/linux/linux-5.10/drivers/scsi/qla2xxx/
Dtcm_qla2xxx.h20 /* 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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