| /trusted-firmware-a/lib/compiler-rt/builtins/ |
| A D | udivmoddi4.c | 45 *rem = n.s.low % d.s.low; in __udivmoddi4()
46 return n.s.low / d.s.low; in __udivmoddi4()
57 if (d.s.low == 0) in __udivmoddi4()
70 if (n.s.low == 0) in __udivmoddi4()
92 r.s.low = n.s.low; in __udivmoddi4()
113 q.s.low = 0; in __udivmoddi4()
117 r.s.low = (n.s.high << (n_uword_bits - sr)) | (n.s.low >> sr); in __udivmoddi4()
130 *rem = n.s.low & (d.s.low - 1); in __udivmoddi4()
163 q.s.low = n.s.low << (n_udword_bits - sr); in __udivmoddi4()
213 r.s.low = (r.s.low << 1) | (q.s.high >> (n_uword_bits - 1)); in __udivmoddi4()
[all …]
|
| A D | int_types.h | 39 su_int low; member
43 su_int low;
54 su_int low; member
58 su_int low;
79 du_int low; member
83 du_int low;
94 du_int low; member
106 r.s.low = l; in make_ti()
113 r.s.low = l; in make_tu()
134 udwords low; member
[all …]
|
| A D | lshrdi3.c | 31 result.s.low = input.s.high >> (b - bits_in_word); in __lshrdi3()
38 result.s.low = (input.s.high << (bits_in_word - b)) | (input.s.low >> b); in __lshrdi3()
|
| A D | ctzdi2.c | 26 const si_int f = -(x.s.low == 0); in __ctzdi2()
27 return __builtin_ctz((x.s.high & f) | (x.s.low & ~f)) + in __ctzdi2()
|
| /trusted-firmware-a/lib/zlib/ |
| A D | inftrees.c | 51 unsigned low; /* low bits for current root entry */ local
204 low = (unsigned)(-1); /* trigger new sub-table when len > root */
258 if (len > root && (huff & mask) != low) {
283 low = huff & mask;
284 (*table)[low].op = (unsigned char)curr;
285 (*table)[low].bits = (unsigned char)root;
286 (*table)[low].val = (unsigned short)(next - *table);
|
| A D | inflate.c | 344 unsigned low, size; in makefixed() local
359 low = 0; in makefixed()
361 if ((low % 7) == 0) printf("\n "); in makefixed()
362 printf("{%u,%u,%d}", (low & 127) == 99 ? 64 : state.lencode[low].op, in makefixed()
363 state.lencode[low].bits, state.lencode[low].val); in makefixed()
364 if (++low == size) break; in makefixed()
370 low = 0; in makefixed()
372 if ((low % 6) == 0) printf("\n "); in makefixed()
373 printf("{%u,%u,%d}", state.distcode[low].op, state.distcode[low].bits, in makefixed()
374 state.distcode[low].val); in makefixed()
[all …]
|
| /trusted-firmware-a/lib/pmf/ |
| A D | pmf_main.c | 120 int low = 0; in get_service() local
133 mid = (low + high) / 2; in get_service()
140 low = mid + 1; in get_service()
141 } while ((svc_id != desc_svc_id) && (low <= high)); in get_service()
|
| /trusted-firmware-a/drivers/scmi-msg/ |
| A D | clock.h | 135 uint32_t low; member
|
| /trusted-firmware-a/include/drivers/nxp/crypto/caam/ |
| A D | sec_hw_specific.h | 195 uint32_t low; member
197 uint32_t low;
|
| /trusted-firmware-a/docs/security_advisories/ |
| A D | security-advisory-tfv-7.rst | 47 for platforms that are unaffected or where the risk is deemed low enough.
79 context, where the risk is deemed low enough. This approach enables mitigation
|
| /trusted-firmware-a/docs/build/TF-A_2.5/_sources/security_advisories/ |
| A D | security-advisory-tfv-7.rst.txt | 47 for platforms that are unaffected or where the risk is deemed low enough.
79 context, where the risk is deemed low enough. This approach enables mitigation
|
| /trusted-firmware-a/drivers/nxp/crypto/caam/src/ |
| A D | jobdesc.c | 64 ptr_addr->m_halves.low = PHYS_ADDR_LO(ptr); in desc_add_ptr()
|
| /trusted-firmware-a/docs/build/TF-A_2.5/_sources/perf/ |
| A D | psci-performance-juno.rst.txt | 62 to the point the hardware enters the low power state (WFI). Referring to the TF
66 ``PSCI_EXIT`` refers to the time taken from the point the hardware exits the low
180 The ``PSCI_ENTRY`` and ``CFLUSH_OVERHEAD`` times for CPU 5 are low because lead
|
| /trusted-firmware-a/docs/perf/ |
| A D | psci-performance-juno.rst | 62 to the point the hardware enters the low power state (WFI). Referring to the TF
66 ``PSCI_EXIT`` refers to the time taken from the point the hardware exits the low
180 The ``PSCI_ENTRY`` and ``CFLUSH_OVERHEAD`` times for CPU 5 are low because lead
|
| /trusted-firmware-a/docs/build/TF-A_2.5/_sources/plat/ |
| A D | ls1043a.rst.txt | 9 applications with BOM optimizations for economic low layer PCB, lower cost
|
| A D | nvidia-tegra.rst.txt | 53 Denver also features new low latency power-state transitions, in addition
|
| /trusted-firmware-a/docs/plat/ |
| A D | ls1043a.rst | 9 applications with BOM optimizations for economic low layer PCB, lower cost
|
| A D | nvidia-tegra.rst | 53 Denver also features new low latency power-state transitions, in addition
|
| /trusted-firmware-a/docs/plat/nxp/ |
| A D | nxp-layerscape.rst | 13 Layerscape family, combines FinFET process technology's low power and
122 low +---------------------------------------------+
|
| /trusted-firmware-a/docs/build/TF-A_2.5/_sources/plat/nxp/ |
| A D | nxp-layerscape.rst.txt | 13 Layerscape family, combines FinFET process technology's low power and
122 low +---------------------------------------------+
|
| /trusted-firmware-a/docs/build/TF-A_2.5/_static/ |
| A D | underscore-1.13.1.js | 1265 var low = 0, high = getLength(array);
1266 while (low < high) {
1267 var mid = Math.floor((low + high) / 2);
1268 if (iteratee(array[mid]) < value) low = mid + 1; else high = mid;
1270 return low;
|
| /trusted-firmware-a/docs/build/TF-A_2.5/_sources/threat_model/ |
| A D | threat_model.rst.txt | 208 For example, a threat with high likelihood and low impact would have an
210 multiplied by two (2) for low impact. The aggregate risk score determines
|
| /trusted-firmware-a/docs/threat_model/ |
| A D | threat_model.rst | 208 For example, a threat with high likelihood and low impact would have an
210 multiplied by two (2) for low impact. The aggregate risk score determines
|
| /trusted-firmware-a/docs/getting_started/ |
| A D | porting-guide.rst | 2233 accounting before entering a low power state. The ``pwr_domain_state`` field of
2251 accounting after exiting from a low power state. The ``pwr_domain_state`` field
2268 This is an optional interface that is is invoked after resuming from a low power
2269 state and provides the time spent resident in that low power state by the power
2274 argument) describes the low power state that the power domain has resumed from.
2275 The current CPU is the first CPU in the power domain to resume from the low
2359 handler should put the CPU into a low power retention state (usually by
2474 low power states. The generic code expects the handler to succeed.
|
| /trusted-firmware-a/docs/build/TF-A_2.5/_sources/getting_started/ |
| A D | porting-guide.rst.txt | 2233 accounting before entering a low power state. The ``pwr_domain_state`` field of
2251 accounting after exiting from a low power state. The ``pwr_domain_state`` field
2268 This is an optional interface that is is invoked after resuming from a low power
2269 state and provides the time spent resident in that low power state by the power
2274 argument) describes the low power state that the power domain has resumed from.
2275 The current CPU is the first CPU in the power domain to resume from the low
2359 handler should put the CPU into a low power retention state (usually by
2474 low power states. The generic code expects the handler to succeed.
|