| /linux/include/linux/ |
| H A D | fixp-arith.h | 43 * __fixp_sin32() returns the sin of an angle in degrees 45 * @degrees: angle, in degrees, from 0 to 360. 49 static inline s32 __fixp_sin32(int degrees) in __fixp_sin32() argument 54 if (degrees > 180) { in __fixp_sin32() 56 degrees -= 180; in __fixp_sin32() 58 if (degrees > 90) in __fixp_sin32() 59 degrees = 180 - degrees; in __fixp_sin32() 61 ret = sin_table[degrees]; in __fixp_sin32() 67 * fixp_sin32() returns the sin of an angle in degrees 69 * @degrees: angle, in degrees. The angle can be positive or negative [all …]
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| H A D | cordic.h | 44 * @theta: angle in degrees for which i/q coordinate is to be calculated. 52 * for -180 degrees to +180 degrees. Passed values outside this range are
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| /linux/Documentation/hwmon/ |
| H A D | ds1621.rst | 68 Fahrenheit range of -67 to +257 degrees with 0.9 steps. If polarity 81 of up to +/- 0.5 degrees even when compared against precise temperature 107 and 80 degrees respectively). 125 - DS1621: +/- 0.5 degree Celsius (from 0 to +70 degrees) 126 - DS1625: +/- 0.5 degree Celsius (from 0 to +70 degrees) 127 - DS1631: +/- 0.5 degree Celsius (from 0 to +70 degrees) 128 - DS1721: +/- 1.0 degree Celsius (from -10 to +85 degrees) 129 - DS1731: +/- 1.0 degree Celsius (from -10 to +85 degrees) 146 0 0 9 bits, 0.5 degrees Celsius 147 1 0 10 bits, 0.25 degrees Celsius [all …]
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| H A D | lm77.rst | 37 was 80 degrees C, and the hysteresis was 75 degrees C, and you change 38 the critical limit to 90 degrees C, then the hysteresis will 39 automatically change to 85 degrees C.
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| H A D | k8temp.rst | 42 Temperatures are measured in degrees Celsius and measurement resolution is 45 206 degrees C. 61 70 degrees C. The rule of the thumb -> CPU temperature should not cross 62 60 degrees C too much.
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| H A D | emc1403.rst | 83 was 80 degrees C, and the hysteresis was 75 degrees C, and you change 84 the critical limit to 90 degrees C, then the hysteresis will 85 automatically change to 85 degrees C.
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| H A D | tmp513.rst | 34 The temperatures are measured in degrees Celsius with a range of 35 -40 to + 125 degrees with a resolution of 0.0625 degree C. 39 hysteresis value. The hysteresis is in degrees Celsius with a range of 40 0 to 127.5 degrees with a resolution of 0.5 degree.
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| H A D | gl518sm.rst | 43 Temperatures are measured in degrees Celsius. An alarm goes off while the 46 situation. Measurements are guaranteed between -10 degrees and +110 47 degrees, with a accuracy of +/-3 degrees.
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| H A D | w83773g.rst | 26 Temperature is measured in degrees Celsius. 28 range of -40 to +125 degrees Celsius (for local sensor) and -40 to +127 29 degrees Celsius (for remote sensors).
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| H A D | w83l785ts.rst | 24 theoretically defined as 85 or 100 degrees C through a combination 27 degrees C. The datasheet is rather poor and obviously inaccurate 30 All temperature values are given in degrees Celsius. Resolution
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| H A D | lm83.rst | 85 All temperature values are given in degrees Celsius. Local temperature 86 is given within a range of 0 to +85 degrees. Remote temperatures are 87 given within a range of 0 to +125 degrees. Resolution is 1.0 degree, 88 accuracy is guaranteed to 3.0 degrees (see the datasheet for more
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| H A D | adc128d818.rst | 24 Temperatures are measured in degrees Celsius. There is one set of limits. 27 Measurements are guaranteed between -55 and +125 degrees. The temperature 28 measurement has a resolution of 0.5 degrees; the limits have a resolution
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| H A D | lm70.rst | 56 13-bit temperature data (0.0625 degrees celsius resolution). 61 with 0.25 degrees Celsius resolution. 64 data (0.03125 degrees celsius resolution).
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| H A D | lm80.rst | 43 Temperatures are measured in degrees Celsius. There are two sets of limits 49 +125 degrees. The current temperature measurement has a resolution of 50 0.0625 degrees; the limits have a resolution of 1 degree.
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| H A D | lm73.rst | 26 given in degrees Celsius. 31 The LM73 supports four resolutions, defined in terms of degrees C per 87 resolution in degrees C per LSB.
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| /linux/Documentation/devicetree/bindings/iio/afe/ |
| H A D | temperature-sense-rtd.yaml | 15 (usually 0 to 100 degrees Celsius). 66 between 0 and 100 degrees Celsius. 70 Where, R_100 is the resistance of the sensor at 100 degrees Celsius, and 71 R_0 (or r-naught-ohms) is the resistance of the sensor at 0 degrees 79 Resistance of the sensor at 0 degrees Celsius.
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| H A D | temperature-transducer.yaml | 67 This offset is commonly used to convert from Kelvins to degrees Celsius. 83 degrees Celsius or micro-volts per degrees Celsius. The is the main 101 sense-offset-millicelsius = <(-273150)>; /* Kelvin to degrees Celsius */ 111 sense-offset-millicelsius = <(-273150)>; /* Kelvin to degrees Celsius */
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| /linux/drivers/mmc/host/ |
| H A D | dw_mmc-rockchip.c | 47 u16 degrees; in rockchip_mmc_get_internal_phase() local 60 degrees = (raw_value & ROCKCHIP_MMC_DEGREE_MASK) * 90; in rockchip_mmc_get_internal_phase() 63 /* degrees/delaynum * 1000000 */ in rockchip_mmc_get_internal_phase() 69 degrees += DIV_ROUND_CLOSEST(delay_num * factor, 1000000); in rockchip_mmc_get_internal_phase() 72 return degrees % 360; in rockchip_mmc_get_internal_phase() 86 static int rockchip_mmc_set_internal_phase(struct dw_mci *host, bool sample, int degrees) in rockchip_mmc_set_internal_phase() argument 111 nineties = degrees / 90; in rockchip_mmc_set_internal_phase() 112 remainder = (degrees % 90); in rockchip_mmc_set_internal_phase() 129 * degrees off from what we think we're making. That's OK in rockchip_mmc_set_internal_phase() 157 sample ? "sample" : "drv", degrees, delay_num, in rockchip_mmc_set_internal_phase() [all …]
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| /linux/Documentation/devicetree/bindings/iio/temperature/ |
| H A D | melexis,mlx90632.yaml | 17 measured object temperature is in range between -20 to 200 degrees 20 operate and measure ambient temperature in range of -20 to 85 degrees 33 measured object temperature is in range between -20 to 100 degrees 37 operate and measure ambient temperature in range of -20 to 85 degrees
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| /linux/drivers/clk/rockchip/ |
| H A D | clk-inverter.c | 35 static int rockchip_inv_set_phase(struct clk_hw *hw, int degrees) in rockchip_inv_set_phase() argument 40 if (degrees % 180 == 0) { in rockchip_inv_set_phase() 41 val = !!degrees; in rockchip_inv_set_phase() 44 __func__, degrees, clk_hw_get_name(hw)); in rockchip_inv_set_phase()
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| /linux/drivers/clk/hisilicon/ |
| H A D | clk-hisi-phase.c | 54 int degrees) in hisi_phase_degrees_to_regval() argument 59 if (phase->phase_degrees[i] == degrees) in hisi_phase_degrees_to_regval() 65 static int hisi_clk_set_phase(struct clk_hw *hw, int degrees) in hisi_clk_set_phase() argument 72 regval = hisi_phase_degrees_to_regval(phase, degrees); in hisi_clk_set_phase()
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| /linux/drivers/gpu/drm/nouveau/dispnv04/ |
| H A D | overlay.c | 70 * sin(x degrees) ~= 4 x (180 - x) / (40500 - x (180 - x) ) 75 sin_mul(int degrees, int factor) in sin_mul() argument 77 if (degrees > 180) { in sin_mul() 78 degrees -= 180; in sin_mul() 81 return factor * 4 * degrees * (180 - degrees) / in sin_mul() 82 (40500 - degrees * (180 - degrees)); in sin_mul() 87 cos_mul(int degrees, int factor) in cos_mul() argument 89 return sin_mul((degrees + 90) % 360, factor); in cos_mul()
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| /linux/drivers/clk/sunxi-ng/ |
| H A D | ccu_phase.c | 56 static int ccu_phase_set_phase(struct clk_hw *hw, int degrees) in ccu_phase_set_phase() argument 85 if (degrees != 180) { in ccu_phase_set_phase() 96 * formula to get the outphasing in degrees is deg = in ccu_phase_set_phase() 105 delay = DIV_ROUND_CLOSEST(degrees, step); in ccu_phase_set_phase()
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| /linux/Documentation/devicetree/bindings/iio/ |
| H A D | mount-matrix.txt | 189 The sensor is mounted 30 degrees (Pi/6 radians) tilted along the X axis, so we 190 compensate by performing a -30 degrees rotation around the X axis: 196 The sensor is flipped 180 degrees (Pi radians) around the Z axis, i.e. mounted 203 ???: this does not match "180 degrees" - factors indicate ca. 3 degrees compensation
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| /linux/Documentation/userspace-api/media/v4l/ |
| H A D | colorspaces-defs.rst | 26 degrees, i.e. 0-360. When we map this angle value into 8 bits, there are 145 - For the Hue, each LSB is two degrees. 147 - For the Hue, the 360 degrees are mapped into 8 bits, i.e. each 148 LSB is roughly 1.41 degrees.
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