/openbmc/linux/tools/testing/selftests/timers/ |
H A D | adjtick.c | 33 #define MILLION 1000000 macro 110 eppm = (delta1*MILLION)/delta2 - MILLION; in get_ppm_drift() 134 ppm = ((long long)tickval * MILLION)/systick - MILLION; in check_tick_adj() 138 printf("%lld usec, %lld ppm", systick + (systick * eppm / MILLION), eppm); in check_tick_adj()
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/openbmc/linux/Documentation/userspace-api/media/drivers/ |
H A D | max2175.rst | 52 - This configures FM band with a sample rate of 0.512 million 55 - This configures VHF band with a sample rate of 2.048 million 60 - This configures FM band with a sample rate of 0.7441875 million 63 - This configures FM band with a sample rate of 0.372 million
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/openbmc/linux/include/linux/ |
H A D | ptp_clock_kernel.h | 77 * nominal frequency in parts per million, but with a 228 * @ppm: Parts per million, but with a 16 bit binary fractional field 234 * million, but with a 16 bit binary fractional field. in scaled_ppm_to_ppb() 254 * @scaled_ppm: scaled parts per million to adjust by 258 * per million. 280 * adjust_by_scaled_ppm - Adjust a base increment by scaled parts per million 282 * @scaled_ppm: scaled parts per million frequency adjustment 285 * requested scaled parts per million adjustment.
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H A D | threads.h | 31 * A maximum of 4 million PIDs should be enough for a while.
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/openbmc/linux/drivers/net/ethernet/pensando/ionic/ |
H A D | ionic.h | 26 #define SCALED_PPM (1000000ull << 16) /* 2^16 million parts per 2^16 million */
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/openbmc/u-boot/drivers/adc/ |
H A D | meson-saradc.c | 163 #define MILLION 1000000 macro 239 tmp = div_s64((s64)val * priv->calibscale, MILLION) + priv->calibbias; in meson_saradc_calib_val() 483 priv->calibscale = div_s64((nominal1 - nominal0) * (s64)MILLION, in meson_saradc_calib() 486 MILLION); in meson_saradc_calib() 499 priv->calibscale = MILLION; in meson_saradc_init()
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/openbmc/linux/Documentation/ABI/testing/ |
H A D | sysfs-class-bdi | 57 expressed as part of 1 million. For example, this is useful for 81 of 1 million. This is useful in situations where we want to avoid
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H A D | sysfs-class-rtc-rtc0-device-rtc_calibration | 12 30.5 micro-seconds (half-parts-per-million of the 32KHz clock)
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/openbmc/linux/include/uapi/linux/nfsd/ |
H A D | stats.h | 15 /* thread usage wraps very million seconds (approx one fortnight) */
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/openbmc/linux/Documentation/locking/ |
H A D | robust-futexes.rst | 152 million (!) held locks, using the new method [on a 2GHz CPU]: 159 msecs - clearly slower, due to the 1 million FUTEX_WAKE syscalls 162 (1 million held locks are unheard of - we expect at most a handful of
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/openbmc/openbmc/meta-openembedded/meta-oe/recipes-devtools/cscope/ |
H A D | cscope_15.9.bb | 10 million lines of code!"
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/openbmc/linux/arch/x86/math-emu/ |
H A D | README | 312 million. The group of three columns gives the frequency of the given 313 accuracy in number of times per million, thus the second of these 315 found at a rate of 133 times per one million measurements for fsin. 351 was obtained per one million arguments. For three of the instructions,
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/openbmc/linux/drivers/iio/adc/ |
H A D | meson_saradc.c | 181 #define MILLION 1000000 macro 402 tmp = div_s64((s64)val * priv->calibscale, MILLION) + priv->calibbias; in meson_sar_adc_calib_val() 722 *val = priv->calibscale / MILLION; in meson_sar_adc_iio_info_read_raw() 723 *val2 = priv->calibscale % MILLION; in meson_sar_adc_iio_info_read_raw() 1167 priv->calibscale = div_s64((nominal1 - nominal0) * (s64)MILLION, in meson_sar_adc_calib() 1170 MILLION); in meson_sar_adc_calib() 1408 priv->calibscale = MILLION; in meson_sar_adc_probe()
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/openbmc/linux/drivers/net/ethernet/mellanox/mlx4/ |
H A D | en_clock.c | 121 * @scaled_ppm: Desired frequency change in scaled parts per million 126 * Scaled parts per million is ppm with a 16-bit binary fractional field.
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/openbmc/linux/tools/perf/Documentation/ |
H A D | itrace.txt | 56 skips the first million instructions.
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/openbmc/linux/drivers/net/ethernet/intel/e1000e/ |
H A D | ptp.c | 20 * @delta: Desired frequency chance in scaled parts per million 25 * Scaled parts per million is ppm but with a 16 bit binary fractional field.
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/openbmc/linux/drivers/net/ethernet/stmicro/stmmac/ |
H A D | stmmac_ptp.c | 18 * @scaled_ppm: desired period change in scaled parts per million 22 * Scaled parts per million is ppm with a 16-bit binary fractional field.
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/openbmc/linux/Documentation/devicetree/bindings/iio/afe/ |
H A D | temperature-transducer.yaml | 82 alpha is expressed in parts per million which can be micro-amps per
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/openbmc/openbmc/poky/meta/recipes-extended/pbzip2/pbzip2/ |
H A D | 0001-pbzip2-Fix-invalid-suffix-on-literal-C-11-warning.patch | 21 // give warning to user if block is larger than 250 million bytes
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/openbmc/linux/arch/powerpc/mm/book3s32/ |
H A D | mmu_context.c | 35 * hardware supports 24-bit VSIDs, and thus >1 million contexts,
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/openbmc/linux/kernel/time/ |
H A D | Kconfig | 209 per million. If the clocksource is good enough for NTP,
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/openbmc/linux/drivers/net/ethernet/qlogic/qede/ |
H A D | qede_ptp.c | 34 * @scaled_ppm: Scaled parts per million adjustment from base. 36 * Scaled parts per million is ppm with a 16-bit binary fractional field.
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/openbmc/linux/Documentation/devicetree/bindings/sound/ |
H A D | st,sta350.txt | 96 million clock cycles to pass before shutting down.
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/openbmc/linux/Documentation/driver-api/mtd/ |
H A D | nand_ecc.rst | 594 linux code 1 million times, this took about 1 second on my system. 597 million iterations in order not to lose too much accuracy. This one 713 Ah well, pity this does not deliver more. Then again 10 million 716 million iterations. So basically I've improved the performance by a
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/openbmc/linux/Documentation/admin-guide/device-mapper/ |
H A D | switch.rst | 45 means the resulting table could have more than a million entries and
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