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\c\This file was generated using a tool\c\
\h1\func_common methods\h1\
The following methods are all part of the \b\func_common methods\b\.
It contains common GLSL functions.
\h2\Table of contents\h2\
\ul\
\-\\url #abs-function\\b\abs\b\ function\url\
\-\\url #ceil-function\\b\ceil\b\ function\url\
\-\\url #clamp-function\\b\clamp\b\ function\url\
\-\\url #floatbitstoint-function\\b\floatBitsToInt\b\ function\url\
\-\\url #floatbitstouint-function\\b\floatBitsToUint\b\ function\url\
\-\\url #floor-function\\b\floor\b\ function\url\
\-\\url #fma-function\\b\fma\b\ function\url\
\-\\url #fmax-function\\b\fmax\b\ function\url\
\-\\url #fmin-function\\b\fmin\b\ function\url\
\-\\url #fract-function\\b\fract\b\ function\url\
\-\\url #frexp-function\\b\frexp\b\ function\url\
\-\\url #intbitstofloat-function\\b\intBitsToFloat\b\ function\url\
\-\\url #isinf-function\\b\isinf\b\ function\url\
\-\\url #isnan-function\\b\isnan\b\ function\url\
\-\\url #ldexp-function\\b\ldexp\b\ function\url\
\-\\url #max-function\\b\max\b\ function\url\
\-\\url #min-function\\b\min\b\ function\url\
\-\\url #mix-function\\b\mix\b\ function\url\
\-\\url #mod-function\\b\mod\b\ function\url\
\-\\url #modf-function\\b\modf\b\ function\url\
\-\\url #round-function\\b\round\b\ function\url\
\-\\url #roundeven-function\\b\roundEven\b\ function\url\
\-\\url #sign-function\\b\sign\b\ function\url\
\-\\url #smoothstep-function\\b\smoothstep\b\ function\url\
\-\\url #step-function\\b\step\b\ function\url\
\-\\url #trunc-function\\b\trunc\b\ function\url\
\-\\url #uintbitstofloat-function\\b\uintBitsToFloat\b\ function\url\
\ul\
\h3\abs() function\h3\
\raw\#### <code>glm.<code>**abs**(**x**: *float*) -\\> *float*</code></code>\raw\
\raw\  \raw\Returns \code\x\code\ if \code\x >= 0\code\; otherwise it returns \code\-x\code\.
\raw\#### <code>glm.<code>**abs**(**x**: *vecN*) -\\> *vecN*</code></code>\raw\
\raw\  \raw\For each component \code\c\code\ of \code\x\code\,
\raw\  \raw\Returns \code\c\code\ if \code\c >= 0\code\; otherwise it returns \code\-c\code\.
\h3\ceil() function\h3\
\raw\#### <code>glm.<code>**ceil**(**x**: *float*) -\\> *float*</code></code>\raw\
\raw\  \raw\Returns a value equal to the nearest integer that is greater than or equal to \code\x\code\.
\raw\#### <code>glm.<code>**ceil**(**x**: *vecN*) -\\> *vecN*</code></code>\raw\
\raw\  \raw\For each component \code\c\code\ of \code\x\code\,
\raw\  \raw\Returns a value equal to the nearest integer that is greater than or equal to \code\c\code\.
\h3\clamp() function\h3\
\raw\#### <code>glm.<code>**clamp**(**x**: *number*, **minVal**: *number*, **maxVal**: *number*) -\\> *number*</code></code>\raw\
\raw\  \raw\Returns \code\min(max(x, minVal), maxVal)\code\.
\raw\#### <code>glm.<code>**clamp**(**x**: *vecN*, **minVal**: *number*, **maxVal**: *number*) -\\> *vecN*</code></code>\raw\
\raw\  \raw\Returns \code\min(max(x, minVal), maxVal)\code\ for each component in \code\x\code\ using the floating-point values
\raw\  \raw\\code\minVal\code\ and \code\maxVal\code\.
\raw\#### <code>glm.<code>**clamp**(**x**: *vecN*, **minVal**: *vecN*, **maxVal**: *vecN*) -\\> *vecN*</code></code>\raw\
\raw\  \raw\Returns \code\min(max(x, minVal), maxVal)\code\ for each component in \code\x\code\ using the floating-point values
\raw\  \raw\\code\minVal\code\ and \code\maxVal\code\.
\h3\floatBitsToInt() function\h3\
\raw\#### <code>glm.<code>**floatBitsToInt**(**v**: *float*) -\\> *int*</code></code>\raw\
\raw\  \raw\Returns a signed integer value representing the encoding of a floating-point value.
\raw\  \raw\The floating-point value's bit-level representation is preserved.
\raw\#### <code>glm.<code>**floatBitsToInt**(**v**: *fvecN*) -\\> *ivecN*</code></code>\raw\
\raw\  \raw\Returns a signed integer value representing the encoding of a floating-point value.
\raw\  \raw\The floating-point value's bit-level representation is preserved.
\h3\floatBitsToUint() function\h3\
\raw\#### <code>glm.<code>**floatBitsToUint**(**v**: *float*) -\\> *int*</code></code>\raw\
\raw\  \raw\Returns an unsigned integer value representing the encoding of a floating-point value.
\raw\  \raw\The floating-point value's bit-level representation is preserved.
\raw\#### <code>glm.<code>**floatBitsToUint**(**v**: *fvecN*) -\\> *uvecN*</code></code>\raw\
\raw\  \raw\Returns an unsigned integer value representing the encoding of a floating-point value.
\raw\  \raw\The floating-point value's bit-level representation is preserved.
\h3\floor() function\h3\
\raw\#### <code>glm.<code>**floor**(**x**: *float*) -\\> *float*</code></code>\raw\
\raw\  \raw\Returns a value equal to the nearest integer that is less then or equal to \code\x\code\.
\raw\#### <code>glm.<code>**floor**(**v**: *vecN*) -\\> *vecN*</code></code>\raw\
\raw\  \raw\For each component \code\c\code\ of \code\v\code\:
\raw\  \raw\Returns a value equal to the nearest integer that is less then or equal to \code\c\code\.
\h3\fma() function\h3\
\raw\#### <code>glm.<code>**fma**(**a**: *float*, **b**: *float*, **c**: *float*) -\\> *float*</code></code>\raw\
\raw\  \raw\Computes and returns \code\a * b + c\code\.
\h3\fmax() function\h3\
\raw\#### <code>glm.<code>**fmax**(**x**: *number*, **y**: *number*) -\\> *float*</code></code>\raw\
\raw\  \raw\Returns \code\y\code\ if \code\x < y\code\; otherwise, it returns \code\x\code\. If one of the two arguments is \code\NaN\code\, the value
\raw\  \raw\of the other argument is returned.
\raw\#### <code>glm.<code>**fmax**(**x**: *vecN*, **y**: *number*) -\\> *vecN*</code></code>\raw\
\raw\  \raw\For each component \code\c\code\ of \code\x\code\:
\raw\  \raw\Returns \code\y\code\ if \code\c < y\code\; otherwise, it returns \code\c\code\. If one of the two arguments is \code\NaN\code\, the value
\raw\  \raw\of the other argument is returned.
\raw\#### <code>glm.<code>**fmax**(**x**: *vecN*, **y**: *vecN*) -\\> *vecN*</code></code>\raw\
\raw\  \raw\For every index \code\i\code\:
\raw\  \raw\Returns \code\y[i]\code\ if \code\x[i] < y[i]\code\; otherwise, it returns \code\x[i]\code\. If one of the two arguments is
\raw\  \raw\\code\NaN\code\, the value of the other argument is returned.
\raw\#### <code>glm.<code>**fmax**(**a**: *vecN*, **b**: *vecN*, **c**: *vecN*) -\\> *vecN*</code></code>\raw\
\raw\  \raw\Returns \code\fmax(fmax(a, b), c)\code\.
\raw\#### <code>glm.<code>**fmax**(**a**: *vecN*, **b**: *vecN*, **c**: *vecN*, **d**: *vecN*) -\\> *vecN*</code></code>\raw\
\raw\  \raw\Returns \code\fmax(fmax(a, b), fmax(c, d))\code\.
\h3\fmin() function\h3\
\raw\#### <code>glm.<code>**fmin**(**x**: *number*, **y**: *number*) -\\> *float*</code></code>\raw\
\raw\  \raw\Returns \code\y\code\ if \code\y < x\code\; otherwise, it returns \code\x\code\. If one of the two arguments is \code\NaN\code\, the value
\raw\  \raw\of the other argument is returned.
\raw\#### <code>glm.<code>**fmin**(**x**: *vecN*, **y**: *number*) -\\> *vecN*</code></code>\raw\
\raw\  \raw\For each component \code\c\code\ of \code\x\code\:
\raw\  \raw\Returns \code\y\code\ if \code\y < c\code\; otherwise, it returns \code\c\code\. If one of the two arguments is \code\NaN\code\, the value
\raw\  \raw\of the other argument is returned.
\raw\#### <code>glm.<code>**fmin**(**x**: *vecN*, **y**: *vecN*) -\\> *vecN*</code></code>\raw\
\raw\  \raw\For every index \code\i\code\:
\raw\  \raw\Returns \code\y[i]\code\ if \code\y[i] < x[i]\code\; otherwise, it returns \code\x[i]\code\. If one of the two arguments is
\raw\  \raw\\code\NaN\code\, the value of the other argument is returned.
\raw\#### <code>glm.<code>**fmin**(**a**: *vecN*, **b**: *vecN*, **c **: *vecN*) -\\> *vecN*</code></code>\raw\
\raw\  \raw\Returns \code\fmin(fmin(a, b), c)\code\.
\raw\#### <code>glm.<code>**fmin**(**a**: *vecN*, **b**: *vecN*, **c **: *vecN*, **d**: *vecN*) -\\> *vecN*</code></code>\raw\
\raw\  \raw\Returns \code\fmin(fmin(a, b), fmin(c, d))\code\.
\h3\fract() function\h3\
\raw\#### <code>glm.<code>**fract**(**x**: *float*) -\\> *float*</code></code>\raw\
\raw\  \raw\Returns \code\x - floor(x)\code\.
\raw\#### <code>glm.<code>**fract**(**c**: *vecN*) -\\> *vecN*</code></code>\raw\
\raw\  \raw\Returns \code\x - floor(x)\code\.
\h3\frexp() function\h3\
\raw\#### <code>glm.<code>**frexp**(**x**: *float*) -\\> *(significant: float, exponent: int)*</code></code>\raw\
\raw\  \raw\Splits \code\x\code\ into a floating-point significand in the range \code\[0.5, 1.0)\code\ and an integral exponent
\raw\  \raw\of two, such that: \code\x = significand * exp(2, exponent)\code\
\raw\#### <code>glm.<code>**frexp**(**x**: *vecN*, **exp**: *ivecN*) -\\> *vecN*</code></code>\raw\
\raw\  \raw\Splits \code\x\code\ into a floating-point significand in the range \code\[0.5, 1.0)\code\ and an integral exponent
\raw\  \raw\of two, such that: \code\x = significand * exp(2, exponent)\code\
\raw\  \raw\The significand is returned by the function and the exponent is returned in the parameter
\raw\  \raw\\code\exp\code\. For a floating-point value of zero, the significantand exponent are both zero. For a
\raw\  \raw\floating-point value that is an infinity or is not a number, the results are undefined.
\h3\intBitsToFloat() function\h3\
\raw\#### <code>glm.<code>**intBitsToFloat**(**v**: *int*) -\\> *float*</code></code>\raw\
\raw\  \raw\Returns a floating-point value corresponding to a signed integer encoding of a floating-point
\raw\  \raw\value. If an \code\inf\code\ or \code\NaN\code\ is passed in, it will not signal, and the resulting floating point
\raw\  \raw\value is unspecified. Otherwise, the bit-level representation is preserved.
\raw\#### <code>glm.<code>**intBitsToFloat**(**v**: *ivecN*) -\\> *fvecN*</code></code>\raw\
\raw\  \raw\Returns a floating-point value corresponding to a signed integer encoding of a floating-point
\raw\  \raw\value. If an \code\inf\code\ or \code\NaN\code\ is passed in, it will not signal, and the resulting floating point
\raw\  \raw\value is unspecified. Otherwise, the bit-level representation is preserved.
\h3\isinf() function\h3\
\raw\#### <code>glm.<code>**isinf**(**x**: *float*) -\\> *bool*</code></code>\raw\
\raw\  \raw\Returns \code\True\code\ if \code\x\code\ holds a positive infinity or negative infinity representation in the
\raw\  \raw\underlying implementation's set of floating point representations.
\raw\  \raw\Returns \code\False\code\ otherwise, including for implementations with no infinity representations.
\raw\#### <code>glm.<code>**isinf**(**x**: *vecN*) -\\> *bvecN*</code></code>\raw\
\raw\  \raw\Returns \code\True\code\ if \code\x\code\ holds a positive infinity or negative infinity representation in the
\raw\  \raw\underlying implementation's set of floating point representations.
\raw\  \raw\Returns \code\False\code\ otherwise, including for implementations with no infinity representations.
\raw\#### <code>glm.<code>**isinf**(**x**: *quat*) -\\> *bvecN*</code></code>\raw\
\raw\  \raw\Returns \code\True\code\ if \code\x\code\ holds a positive infinity or negative infinity representation in the
\raw\  \raw\underlying implementation's set of floating point representations.
\raw\  \raw\Returns \code\False\code\ otherwise, including for implementations with no infinity representations.
\h3\isnan() function\h3\
\raw\#### <code>glm.<code>**isnan**(**x**: *float*) -\\> *bool*</code></code>\raw\
\raw\  \raw\Returns \code\True\code\ if \code\x\code\ holds a \code\NaN\code\ (not a number) representation in the underlying
\raw\  \raw\implementation's set of floating point representations.
\raw\  \raw\Returns \code\False\code\ otherwise, including for implementations with no \code\NaN\code\ representations.
\raw\#### <code>glm.<code>**isnan**(**x**: *vecN*) -\\> *bvecN*</code></code>\raw\
\raw\  \raw\Returns \code\True\code\ if \code\x\code\ holds a \code\NaN\code\ (not a number) representation in the underlying
\raw\  \raw\implementation's set of floating point representations.
\raw\  \raw\Returns \code\False\code\ otherwise, including for implementations with no \code\NaN\code\ representations.
\raw\#### <code>glm.<code>**isnan**(**x**: *quat*) -\\> *bvecN*</code></code>\raw\
\raw\  \raw\Returns \code\True\code\ if \code\x\code\ holds a \code\NaN\code\ (not a number) representation in the underlying
\raw\  \raw\implementation's set of floating point representations.
\raw\  \raw\Returns \code\False\code\ otherwise, including for implementations with no \code\NaN\code\ representations.
\h3\ldexp() function\h3\
\raw\#### <code>glm.<code>**ldexp**(**x**: *number*, **exp**: *int*) -\\> *float*</code></code>\raw\
\raw\  \raw\Builds a floating-point number from \code\x\code\ and the corresponding integral exponent of two in
\raw\  \raw\\code\exp\code\, returning: \code\significand * exp(2, exponent)\code\. If this product is too large to be
\raw\  \raw\represented in the floating-point type, the result is undefined.
\raw\#### <code>glm.<code>**ldexp**(**x**: *vecN*, **exp**: *ivecN*) -\\> *vecN*</code></code>\raw\
\raw\  \raw\Builds a floating-point number from \code\x\code\ and the corresponding integral exponent of two in
\raw\  \raw\\code\exp\code\, returning: \code\significand * exp(2, exponent)\code\. If this product is too large to be
\raw\  \raw\represented in the floating-point type, the result is undefined.
\h3\max() function\h3\
\raw\#### <code>glm.<code>**max**(**x**: *number*, **y**: *number*) -\\> *float*</code></code>\raw\
\raw\  \raw\Returns \code\y\code\ if \code\x < y\code\; otherwise, it returns \code\x\code\.
\raw\#### <code>glm.<code>**max**(**x**: *vecN*, **y**: *number*) -\\> *vecN*</code></code>\raw\
\raw\  \raw\Returns \code\y\code\ if \code\x < y\code\; otherwise, it returns \code\x\code\.
\raw\#### <code>glm.<code>**max**(**x**: *vecN*, **y**: *vecN*) -\\> *vecN*</code></code>\raw\
\raw\  \raw\Returns \code\y\code\ if \code\x < y\code\; otherwise, it returns \code\x\code\.
\raw\#### <code>glm.<code>**max**(**a**: *number*, **b**: *number*, **c**: *number*) -\\> *float*</code></code>\raw\
\raw\  \raw\Returns the maximum value of 3 inputs.
\raw\#### <code>glm.<code>**max**(**a**: *vecN*, **b**: *vecN*, **c**: *vecN*) -\\> *vecN*</code></code>\raw\
\raw\  \raw\Returns the maximum component wise value of 3 inputs.
\raw\#### <code>glm.<code>**max**(**a**: *number*, **b**: *number*, **c**: *number*, **d**: *number*) -\\> *float*</code></code>\raw\
\raw\  \raw\Returns the maximum value of 4 inputs.
\raw\#### <code>glm.<code>**max**(**a**: *vecN*, **b**: *vecN*, **c**: *vecN*, **d**: *vecN*) -\\> *vecN*</code></code>\raw\
\raw\  \raw\Returns the maximum component wise value of 4 inputs.
\raw\#### <code>glm.<code>**max**(**iterable**) -\\> *any*</code></code>\raw\
\raw\  \raw\Returns the greatest number or the maximum component wise value respectively.
\h3\min() function\h3\
\raw\#### <code>glm.<code>**min**(**x**: *number*, **y**: *number*) -\\> *float*</code></code>\raw\
\raw\  \raw\Returns \code\y\code\ if \code\y < x\code\; otherwise, it returns \code\x\code\.
\raw\#### <code>glm.<code>**min**(**x**: *vecN*, **y**: *number*) -\\> *vecN*</code></code>\raw\
\raw\  \raw\Returns \code\y\code\ if \code\y < x\code\; otherwise, it returns \code\x\code\.
\raw\#### <code>glm.<code>**min**(**x**: *vecN*, **y**: *vecN*) -\\> *vecN*</code></code>\raw\
\raw\  \raw\Returns \code\y\code\ if \code\y < x\code\; otherwise, it returns \code\x\code\.
\raw\#### <code>glm.<code>**min**(**a**: *number*, **b**: *number*, **c**: *number*) -\\> *float*</code></code>\raw\
\raw\  \raw\Returns the minimum value of 3 inputs.
\raw\#### <code>glm.<code>**min**(**a**: *vecN*, **b**: *vecN*, **c**: *vecN*) -\\> *vecN*</code></code>\raw\
\raw\  \raw\Returns the minimum component wise value of 3 inputs.
\raw\#### <code>glm.<code>**min**(**a**: *number*, **b**: *number*, **c**: *number*, **d**: *number*) -\\> *float*</code></code>\raw\
\raw\  \raw\Returns the minimum value of 4 inputs.
\raw\#### <code>glm.<code>**min**(**a**: *vecN*, **b**: *vecN*, **c**: *vecN*, **d**: *vecN*) -\\> *vecN*</code></code>\raw\
\raw\  \raw\Returns the minimum component wise value of 4 inputs.
\raw\#### <code>glm.<code>**min**(**iterable**) -\\> *any*</code></code>\raw\
\raw\  \raw\Returns the smallest number or the minimum component wise value respectively.
\h3\mix() function\h3\
\raw\#### <code>glm.<code>**mix**(**x**: *number*, **y**: *number*, **a**: *float*) -\\> *number*</code></code>\raw\
\raw\  \raw\Returns \code\x * (1.0 - a) + y * a\code\, i.e., the linear blend of \code\x\code\ and \code\y\code\ using the floating-point
\raw\  \raw\value \code\a\code\. The value for \code\a\code\ is not restricted to the range \code\[0, 1]\code\.
\raw\#### <code>glm.<code>**mix**(**x**: *number*, **y**: *number*, **a**: *bool*) -\\> *number*</code></code>\raw\
\raw\  \raw\Returns \code\y\code\ if \code\a\code\ is \code\True\code\ and \code\x\code\ otherwise.
\raw\#### <code>glm.<code>**mix**(**x**: *vecN*, **y**: *vecN*, **a**: *fvecN*) -\\> *vecN*</code></code>\raw\
\raw\  \raw\Returns \code\x * (1.0 - a) + y * a\code\, i.e., the linear blend of \code\x\code\ and \code\y\code\ using the floating-point
\raw\  \raw\value \code\a\code\. The value for \code\a\code\ is not restricted to the range \code\[0, 1]\code\.
\raw\#### <code>glm.<code>**mix**(**x**: *vecN*, **y**: *vecN*, **a**: *bvecN*) -\\> *vecN*</code></code>\raw\
\raw\  \raw\For each component index \code\i\code\:
\raw\  \raw\Returns \code\y[i]\code\ if \code\a[i]\code\ is \code\True\code\ and \code\x[i]\code\ otherwise.
\raw\#### <code>glm.<code>**mix**(**x**: *matNxM*, **y**: *matNxM*, **a**: *fmatNxM*) -\\> *matNxM*</code></code>\raw\
\raw\  \raw\Returns \code\x * (1.0 - a) + y * a\code\, i.e., the linear blend of \code\x\code\ and \code\y\code\ using the floating-point
\raw\  \raw\value \code\a\code\ for each component. The value for \code\a\code\ is not restricted to the range \code\[0, 1]\code\.
\raw\#### <code>glm.<code>**mix**(**x**: *matNxM*, **y**: *matNxM*, **a**: *float*) -\\> *matNxM*</code></code>\raw\
\raw\  \raw\Returns \code\x * (1.0 - a) + y * a\code\, i.e., the linear blend of \code\x\code\ and \code\y\code\ using the floating-point
\raw\  \raw\value \code\a\code\ for each component. The value for \code\a\code\ is not restricted to the range \code\[0, 1]\code\.
\raw\#### <code>glm.<code>**mix**(**x**: *quat*, **y**: *quat*, **a**: *float*) -\\> *quat*</code></code>\raw\
\raw\  \raw\Spherical linear interpolation of two quaternions. The interpolation is oriented and the
\raw\  \raw\rotation is performed at constant speed. For short path spherical linear interpolation, use
\raw\  \raw\the \code\slerp\code\ function.
\h3\mod() function\h3\
\raw\#### <code>glm.<code>**mod**(**a**, **b**) -\\> *Any*</code></code>\raw\
\raw\  \raw\Equivalent to \code\a % b\code\.
\h3\modf() function\h3\
\raw\#### <code>glm.<code>**modf**(**x**: *float*) -\\> *(fraction, integer)*</code></code>\raw\
\raw\  \raw\Returns the fractional part of \code\x\code\ and the integer part (as a whole number floating point value).
\raw\#### <code>glm.<code>**modf**(**x**: *vecN*, **i**: *vecN*) -\\> *vecN*</code></code>\raw\
\raw\  \raw\Returns the fractional part of \code\x\code\ and sets \code\i\code\ to the integer part (as a whole number floating
\raw\  \raw\point value).
\h3\round() function\h3\
\raw\#### <code>glm.<code>**round**(**x**: *number*) -\\> *float*</code></code>\raw\
\raw\  \raw\Returns a value equal to the nearest integer to \code\x\code\. The fraction \code\0.5\code\ will round in a
\raw\  \raw\direction chosen by the implementation, presumably the direction that is fastest. This
\raw\  \raw\includes the possibility that \code\round(x)\code\ returns the same value as \code\roundEven(x)\code\
\raw\#### <code>glm.<code>**round**(**x**: *vecN*) -\\> *vecN*</code></code>\raw\
\raw\  \raw\Returns a value equal to the nearest integer to \code\x\code\. The fraction \code\0.5\code\ will round in a
\raw\  \raw\direction chosen by the implementation, presumably the direction that is fastest. This
\raw\  \raw\includes the possibility that \code\round(x)\code\ returns the same value as \code\roundEven(x)\code\ for all
\raw\  \raw\values of \code\x\code\.
\h3\roundEven() function\h3\
\raw\#### <code>glm.<code>**roundEven**(**x**: *number*) -\\> *float*</code></code>\raw\
\raw\  \raw\Returns a value equal to the nearest integer to \code\x\code\. A fractional part of \code\0.5\code\ will round
\raw\  \raw\toward the nearest even integer. (Both \code\3.5\code\ and \code\4.5\code\ for \code\x\code\ will return \code\4.0\code\.)
\raw\#### <code>glm.<code>**roundEven**(**x**: *vecN*) -\\> *vecN*</code></code>\raw\
\raw\  \raw\Returns a value equal to the nearest integer to \code\x\code\. A fractional part of \code\0.5\code\ will round
\raw\  \raw\toward the nearest even integer. (Both \code\3.5\code\ and \code\4.5\code\ for \code\x\code\ will return \code\4.0\code\.)
\h3\sign() function\h3\
\raw\#### <code>glm.<code>**sign**(**x**: *number*) -\\> *float*</code></code>\raw\
\raw\  \raw\Returns \code\1.0\code\ if \code\x > 0\code\, \code\0.0\code\ if \code\x == 0\code\, or \code\-1.0\code\ if \code\x < 0\code\.
\raw\#### <code>glm.<code>**sign**(**x**: *vecN*) -\\> *vecN*</code></code>\raw\
\raw\  \raw\For every component \code\c\code\ of \code\x\code\:
\raw\  \raw\Returns \code\1.0\code\ if \code\x > 0\code\, \code\0.0\code\ if \code\x == 0\code\, or \code\-1.0\code\ if \code\x < 0\code\.
\h3\smoothstep() function\h3\
\raw\#### <code>glm.<code>**smoothstep**(**edge0**: *number*, **edge1**: *number*, **x**: *number*) -\\> *float*</code></code>\raw\
\raw\  \raw\Returns \code\0.0\code\ if \code\x <= edge0\code\ and \code\1.0\code\ if \code\x >= edge1\code\ and performs smooth Hermite interpolation
\raw\  \raw\between \code\0\code\ and \code\1\code\ when \code\edge0 < x < edge1\code\. This is useful in cases where you would want a
\raw\  \raw\threshold function with a smooth transition. This is equivalent to :
\raw\  \raw\\code\t = clamp((x - edge0) / (edge1 - edge0), 0, 1)\code\
\raw\  \raw\\code\return t * t * (3 - 2 * t)\code\
\raw\  \raw\Results are undefined if \code\edge0 >= edge1\code\.
\raw\#### <code>glm.<code>**smoothstep**(**edge0**: *number*, **edge1**: *number*, **x**: *vecN*) -\\> *vecN*</code></code>\raw\
\raw\  \raw\Returns \code\0.0\code\ if \code\x <= edge0\code\ and \code\1.0\code\ if \code\x >= edge1\code\ and performs smooth Hermite interpolation
\raw\  \raw\between \code\0\code\ and \code\1\code\ when \code\edge0 < x < edge1\code\. This is useful in cases where you would want a
\raw\  \raw\threshold function with a smooth transition. This is equivalent to :
\raw\  \raw\\code\t = clamp((x - edge0) / (edge1 - edge0), 0, 1)\code\
\raw\  \raw\\code\return t * t * (3 - 2 * t)\code\
\raw\  \raw\Results are undefined if \code\edge0 >= edge1\code\.
\raw\#### <code>glm.<code>**smoothstep**(**edge0**: *vecN*, **edge1**: *vecN*, **x**: *vecN*) -\\> *vecN*</code></code>\raw\
\raw\  \raw\Returns \code\0.0\code\ if \code\x <= edge0\code\ and \code\1.0\code\ if \code\x >= edge1\code\ and performs smooth Hermite interpolation
\raw\  \raw\between \code\0\code\ and \code\1\code\ when \code\edge0 < x < edge1\code\. This is useful in cases where you would want a
\raw\  \raw\threshold function with a smooth transition. This is equivalent to :
\raw\  \raw\\code\t = clamp((x - edge0) / (edge1 - edge0), 0, 1)\code\
\raw\  \raw\\code\return t * t * (3 - 2 * t)\code\
\raw\  \raw\Results are undefined if \code\edge0 >= edge1\code\.
\h3\step() function\h3\
\raw\#### <code>glm.<code>**step**(**edge**: *number*, **x**: *number*) -\\> *float*</code></code>\raw\
\raw\  \raw\Returns \code\0.0\code\ if \code\x < edge\code\, otherwise it returns \code\1.0\code\.
\raw\#### <code>glm.<code>**step**(**edge**: *number*, **x**: *vecN*) -\\> *vecN*</code></code>\raw\
\raw\  \raw\For every component \code\c\code\ of \code\x\code\:
\raw\  \raw\Returns \code\0.0\code\ if \code\c < edge\code\, otherwise it returns \code\1.0\code\.
\raw\#### <code>glm.<code>**step**(**edge**: *vecN*, **x**: *vecN*) -\\> *vecN*</code></code>\raw\
\raw\  \raw\For every index \code\i\code\:
\raw\  \raw\Returns \code\0.0\code\ if \code\x[i] < edge[i]\code\, otherwise it returns \code\1.0\code\.
\h3\trunc() function\h3\
\raw\#### <code>glm.<code>**trunc**(**x**: *number*) -\\> *float*</code></code>\raw\
\raw\  \raw\Returns a value equal to the nearest integer to \code\x\code\ whose absolute value is not larger than
\raw\  \raw\the absolute value of \code\x\code\.
\raw\#### <code>glm.<code>**trunc**(**x**: *vecN*) -\\> *vecN*</code></code>\raw\
\raw\  \raw\For every component \code\c\code\ of \code\x\code\:
\raw\  \raw\Returns a value equal to the nearest integer to \code\c\code\ whose absolute value is not larger than
\raw\  \raw\the absolute value of \code\c\code\.
\h3\uintBitsToFloat() function\h3\
\raw\#### <code>glm.<code>**uintBitsToFloat**(**v**: *int*) -\\> *float*</code></code>\raw\
\raw\  \raw\Returns a floating-point value corresponding to an unsigned integer encoding of a floating-point
\raw\  \raw\value. If an \code\inf\code\ or \code\NaN\code\ is passed in, it will not signal, and the resulting floating point
\raw\  \raw\value is unspecified. Otherwise, the bit-level representation is preserved.
\raw\#### <code>glm.<code>**uintBitsToFloat**(**v**: *ivecN*) -\\> *fvecN*</code></code>\raw\
\raw\  \raw\Returns a floating-point value corresponding to an unsigned integer encoding of a floating-point
\raw\  \raw\value. If an \code\inf\code\ or \code\NaN\code\ is passed in, it will not signal, and the resulting floating point
\raw\  \raw\value is unspecified. Otherwise, the bit-level representation is preserved.
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