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Functions
ExtensionFunctions.hpp File Reference
#include "../Shared/funcannotations.h"
#include <cstdint>
#include <cmath>
#include <cstdlib>
#include "heavydbTypes.h"
#include "ExtensionFunctionsArray.hpp"
#include "ExtensionFunctionsArrayTesting.hpp"
#include "ExtensionFunctionsGeo.hpp"
#include "ExtensionFunctionsTesting.hpp"
#include "ExtensionFunctionsText.hpp"
#include "ExtensionFunctionsTextTesting.hpp"
#include "QueryEngine/ExtensionFunctions/h3lib/include/h3Index.h"
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Functions

EXTENSION_NOINLINE double Acos (const double x)
 
EXTENSION_NOINLINE double Asin (const double x)
 
EXTENSION_NOINLINE double Atan (const double x)
 
EXTENSION_NOINLINE double Atanh (const double x)
 
EXTENSION_NOINLINE double Atan2 (const double y, const double x)
 
EXTENSION_NOINLINE double Ceil (double x)
 
EXTENSION_NOINLINE float Ceil__ (float x)
 
EXTENSION_NOINLINE int16_t Ceil__1 (int16_t x)
 
EXTENSION_NOINLINE int32_t Ceil__2 (int32_t x)
 
EXTENSION_NOINLINE int64_t Ceil__3 (int64_t x)
 
EXTENSION_NOINLINE double Cos (const double x)
 
EXTENSION_NOINLINE double Cosh (const double x)
 
EXTENSION_NOINLINE double Cot (const double x)
 
EXTENSION_NOINLINE double degrees (double x)
 
EXTENSION_NOINLINE double Exp (double x)
 
EXTENSION_NOINLINE double Floor (double x)
 
EXTENSION_NOINLINE float Floor__ (float x)
 
EXTENSION_NOINLINE int16_t Floor__1 (int16_t x)
 
EXTENSION_NOINLINE int32_t Floor__2 (int32_t x)
 
EXTENSION_NOINLINE int64_t Floor__3 (int64_t x)
 
EXTENSION_NOINLINE double ln (const double x)
 
EXTENSION_NOINLINE double ln__ (const float x)
 
EXTENSION_NOINLINE double Log (const double x)
 
EXTENSION_NOINLINE double Log__ (const float x)
 
EXTENSION_NOINLINE double Log10 (const double x)
 
EXTENSION_NOINLINE double Log10__ (const float x)
 
EXTENSION_NOINLINE double pi ()
 
EXTENSION_NOINLINE double power (const double x, const double y)
 
EXTENSION_NOINLINE double radians (const double x)
 
EXTENSION_NOINLINE double Round (const double x, const int32_t y)
 
EXTENSION_NOINLINE float Round__ (const float x, const int32_t y)
 
EXTENSION_NOINLINE int16_t Round__1 (const int16_t x, const int32_t y)
 
EXTENSION_NOINLINE int32_t Round__2 (const int32_t x, const int32_t y)
 
EXTENSION_NOINLINE int64_t Round__3 (const int64_t x, const int32_t y)
 
EXTENSION_NOINLINE int64_t Round__4 (const int64_t x, const int32_t y0, const int32_t scale)
 
EXTENSION_NOINLINE double Round2_to_digit (const double x, const int32_t y)
 
EXTENSION_NOINLINE double round_to_digit (const double x, const int32_t y)
 
EXTENSION_NOINLINE double Sin (const double x)
 
EXTENSION_NOINLINE double Sinh (const double x)
 
EXTENSION_NOINLINE double Sqrt (const double x)
 
EXTENSION_NOINLINE double Tan (const double x)
 
EXTENSION_NOINLINE double Tanh (const double x)
 
EXTENSION_NOINLINE double Tan__ (const float x)
 
EXTENSION_NOINLINE double Truncate (const double x, const int32_t y)
 
EXTENSION_NOINLINE float Truncate__ (const float x, const int32_t y)
 
EXTENSION_NOINLINE int16_t Truncate__1 (const int16_t x, const int32_t y)
 
EXTENSION_NOINLINE int32_t Truncate__2 (const int32_t x, const int32_t y)
 
EXTENSION_NOINLINE int64_t Truncate__3 (const int64_t x, const int32_t y)
 
EXTENSION_NOINLINE bool is_nan (const double x)
 
EXTENSION_NOINLINE bool is_nan__ (const float x)
 
EXTENSION_NOINLINE bool is_inf (const double x)
 
EXTENSION_NOINLINE bool is_inf__ (const float x)
 
EXTENSION_NOINLINE double conv_4326_900913_x (const double x)
 
EXTENSION_NOINLINE double conv_4326_900913_y (const double y)
 
EXTENSION_NOINLINE double distance_in_meters (const double fromlon, const double fromlat, const double tolon, const double tolat)
 Computes the distance, in meters, between two WGS-84 positions. More...
 
EXTENSION_NOINLINE double distance_in_meters__ (const float fromlon, const float fromlat, const float tolon, const float tolat)
 
EXTENSION_NOINLINE double approx_distance_in_meters (const float fromlon, const float fromlat, const float tolon, const float tolat)
 
EXTENSION_NOINLINE float rect_pixel_bin (const double val, const double min, const double max, const int32_t numbins, const int32_t dimensionsize)
 
EXTENSION_NOINLINE float rect_pixel_bin_x (const double valx, const double minx, const double maxx, const double rectwidth, const double offsetx, const int32_t imgwidth)
 
EXTENSION_NOINLINE float rect_pixel_bin_y (const double valy, const double miny, const double maxy, const double rectheight, const double offsety, const int32_t imgheight)
 
EXTENSION_NOINLINE int32_t rect_pixel_bin_packed (const double valx, const double minx, const double maxx, const double valy, const double miny, const double maxy, const double rectwidth, const double rectheight, const double offsetx, const double offsety, const int32_t imgwidth, const int32_t imgheight)
 
EXTENSION_NOINLINE float reg_hex_horiz_pixel_bin_x (const double valx, const double minx, const double maxx, const double valy, const double miny, const double maxy, const double hexwidth, const double hexheight, const double offsetx, const double offsety, const int32_t imgwidth, const int32_t imgheight)
 
EXTENSION_NOINLINE float reg_hex_horiz_pixel_bin_y (const double valx, const double minx, const double maxx, const double valy, const double miny, const double maxy, const double hexwidth, const double hexheight, const double offsetx, const double offsety, const int32_t imgwidth, const int32_t imgheight)
 
EXTENSION_NOINLINE int32_t reg_hex_horiz_pixel_bin_packed (const double valx, const double minx, const double maxx, const double valy, const double miny, const double maxy, const double hexwidth, const double hexheight, const double offsetx, const double offsety, const int32_t imgwidth, const int32_t imgheight)
 
EXTENSION_NOINLINE float reg_hex_vert_pixel_bin_x (const double valx, const double minx, const double maxx, const double valy, const double miny, const double maxy, const double hexwidth, const double hexheight, const double offsetx, const double offsety, const int32_t imgwidth, const int32_t imgheight)
 
EXTENSION_NOINLINE float reg_hex_vert_pixel_bin_y (const double valx, const double minx, const double maxx, const double valy, const double miny, const double maxy, const double hexwidth, const double hexheight, const double offsetx, const double offsety, const int32_t imgwidth, const int32_t imgheight)
 
EXTENSION_NOINLINE int32_t reg_hex_vert_pixel_bin_packed (const double valx, const double minx, const double maxx, const double valy, const double miny, const double maxy, const double hexwidth, const double hexheight, const double offsetx, const double offsety, const int32_t imgwidth, const int32_t imgheight)
 
EXTENSION_NOINLINE double convert_meters_to_merc_pixel_width (const double meters, const double lon, const double lat, const double min_lon, const double max_lon, const int32_t img_width, const double min_width)
 
EXTENSION_NOINLINE double convert_meters_to_merc_pixel_height (const double meters, const double lon, const double lat, const double min_lat, const double max_lat, const int32_t img_height, const double min_height)
 
EXTENSION_INLINE bool is_point_in_merc_view (const double lon, const double lat, const double min_lon, const double max_lon, const double min_lat, const double max_lat)
 
EXTENSION_NOINLINE bool is_point_size_in_merc_view (const double lon, const double lat, const double meters, const double min_lon, const double max_lon, const double min_lat, const double max_lat)
 

Function Documentation

EXTENSION_NOINLINE double Acos ( const double  x)

Definition at line 42 of file ExtensionFunctions.hpp.

42  {
43  return acos(x);
44 }
EXTENSION_NOINLINE double approx_distance_in_meters ( const float  fromlon,
const float  fromlat,
const float  tolon,
const float  tolat 
)

Definition at line 465 of file ExtensionFunctions.hpp.

References distance_in_meters__().

468  {
469 #ifdef __CUDACC__
470  float latitudeArc = (fromlat - tolat) * 0.017453292519943295769236907684886;
471  float longitudeArc = (fromlon - tolon) * 0.017453292519943295769236907684886;
472  float latitudeH = __sinf(latitudeArc * 0.5);
473  latitudeH *= latitudeH;
474  float lontitudeH = __sinf(longitudeArc * 0.5);
475  lontitudeH *= lontitudeH;
476  float tmp = __cosf(fromlat * 0.017453292519943295769236907684886) *
477  __cosf(tolat * 0.017453292519943295769236907684886);
478  return 6372797.560856 * (2.0 * asinf(__fsqrt_rd(latitudeH + tmp * lontitudeH)));
479 #else
480  return distance_in_meters__(fromlon, fromlat, tolon, tolat);
481 #endif
482 }
distance_in_meters__
EXTENSION_NOINLINE double distance_in_meters__(const float fromlon, const float fromlat, const float tolon, const float tolat)
Definition: ExtensionFunctions.hpp:449

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EXTENSION_NOINLINE double Asin ( const double  x)

Definition at line 47 of file ExtensionFunctions.hpp.

47  {
48  return asin(x);
49 }
EXTENSION_NOINLINE double Atan ( const double  x)

Definition at line 52 of file ExtensionFunctions.hpp.

52  {
53  return atan(x);
54 }
EXTENSION_NOINLINE double Atan2 ( const double  y,
const double  x 
)

Definition at line 62 of file ExtensionFunctions.hpp.

62  {
63  return atan2(y, x);
64 }
EXTENSION_NOINLINE double Atanh ( const double  x)

Definition at line 57 of file ExtensionFunctions.hpp.

57  {
58  return atanh(x);
59 }
EXTENSION_NOINLINE double Ceil ( double  x)

Definition at line 67 of file ExtensionFunctions.hpp.

67  {
68  return ceil(x);
69 }
EXTENSION_NOINLINE float Ceil__ ( float  x)

Definition at line 72 of file ExtensionFunctions.hpp.

72  {
73  return ceil(x);
74 }
EXTENSION_NOINLINE int16_t Ceil__1 ( int16_t  x)

Definition at line 77 of file ExtensionFunctions.hpp.

77  {
78  return x;
79 }
EXTENSION_NOINLINE int32_t Ceil__2 ( int32_t  x)

Definition at line 82 of file ExtensionFunctions.hpp.

82  {
83  return x;
84 }
EXTENSION_NOINLINE int64_t Ceil__3 ( int64_t  x)

Definition at line 87 of file ExtensionFunctions.hpp.

87  {
88  return x;
89 }
EXTENSION_NOINLINE double conv_4326_900913_x ( const double  x)

Definition at line 402 of file ExtensionFunctions.hpp.

Referenced by conv_4326_900913(), convert_meters_to_merc_pixel_width(), and import_export::RasterImporter::getProjectedPixelCoords().

402  {
403  return x * 111319.490778;
404 }

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EXTENSION_NOINLINE double conv_4326_900913_y ( const double  y)

Definition at line 407 of file ExtensionFunctions.hpp.

Referenced by conv_4326_900913(), convert_meters_to_merc_pixel_height(), and import_export::RasterImporter::getProjectedPixelCoords().

407  {
408  return 6378136.99911 * log(tan(.00872664626 * y + .785398163397));
409 }

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EXTENSION_NOINLINE double convert_meters_to_merc_pixel_height ( const double  meters,
const double  lon,
const double  lat,
const double  min_lat,
const double  max_lat,
const int32_t  img_height,
const double  min_height 
)

Definition at line 1086 of file ExtensionFunctions.hpp.

References conv_4326_900913_y().

1092  {
1093  const double const1 = 0.017453292519943295769236907684886;
1094  const double const2 = 6372797.560856;
1095  const double latdiff = meters / (const1 * const2);
1096  const double newlat =
1097  (lat < 0) ? lat + latdiff : lat - latdiff; // assumes a lat range of [-90, 90]
1098  double t1 = conv_4326_900913_y(lat);
1099  double t2 = conv_4326_900913_y(newlat);
1100  const double min_merc_y = conv_4326_900913_y(min_lat);
1101  const double max_merc_y = conv_4326_900913_y(max_lat);
1102  const double merc_diff = max_merc_y - min_merc_y;
1103  t1 = ((t1 - min_merc_y) / merc_diff) * static_cast<double>(img_height);
1104  t2 = ((t2 - min_merc_y) / merc_diff) * static_cast<double>(img_height);
1105 
1106  // TODO(croot): need to account for edge cases, such as getting close to the poles.
1107  const double sz = fabs(t1 - t2);
1108  return (sz < min_height ? min_height : sz);
1109 }
conv_4326_900913_y
EXTENSION_NOINLINE double conv_4326_900913_y(const double y)
Definition: ExtensionFunctions.hpp:407

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EXTENSION_NOINLINE double convert_meters_to_merc_pixel_width ( const double  meters,
const double  lon,
const double  lat,
const double  min_lon,
const double  max_lon,
const int32_t  img_width,
const double  min_width 
)

Definition at line 1060 of file ExtensionFunctions.hpp.

References conv_4326_900913_x().

1066  {
1067  const double const1 = 0.017453292519943295769236907684886;
1068  const double const2 = 6372797.560856;
1069  double t1 = sinf(meters / (2.0 * const2));
1070  double t2 = cosf(const1 * lat);
1071  const double newlon = lon - (2.0 * asinf(t1 / t2)) / const1;
1072  t1 = conv_4326_900913_x(lon);
1073  t2 = conv_4326_900913_x(newlon);
1074  const double min_merc_x = conv_4326_900913_x(min_lon);
1075  const double max_merc_x = conv_4326_900913_x(max_lon);
1076  const double merc_diff = max_merc_x - min_merc_x;
1077  t1 = ((t1 - min_merc_x) / merc_diff) * static_cast<double>(img_width);
1078  t2 = ((t2 - min_merc_x) / merc_diff) * static_cast<double>(img_width);
1079 
1080  // TODO(croot): need to account for edge cases, such as getting close to the poles.
1081  const double sz = fabs(t1 - t2);
1082  return (sz < min_width ? min_width : sz);
1083 }
conv_4326_900913_x
EXTENSION_NOINLINE double conv_4326_900913_x(const double x)
Definition: ExtensionFunctions.hpp:402

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EXTENSION_NOINLINE double Cos ( const double  x)

Definition at line 92 of file ExtensionFunctions.hpp.

92  {
93  return cos(x);
94 }
EXTENSION_NOINLINE double Cosh ( const double  x)

Definition at line 97 of file ExtensionFunctions.hpp.

97  {
98  return cosh(x);
99 }
EXTENSION_NOINLINE double Cot ( const double  x)

Definition at line 102 of file ExtensionFunctions.hpp.

102  {
103  return 1 / tan(x);
104 }
EXTENSION_NOINLINE double degrees ( double  x)

Definition at line 107 of file ExtensionFunctions.hpp.

References M_PI.

Referenced by degsToRads().

107  {
108  return x * (180.0 / M_PI);
109 }
M_PI
#define M_PI
Definition: constants.h:25

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EXTENSION_NOINLINE double distance_in_meters ( const double  fromlon,
const double  fromlat,
const double  tolon,
const double  tolat 
)

Computes the distance, in meters, between two WGS-84 positions.

The result is equal to EARTH_RADIUS_IN_METERS*ArcInRadians(from,to)

ArcInRadians is equal to Distance(from,to)/EARTH_RADIUS_IN_METERS = 2*asin(sqrt(h(d/EARTH_RADIUS_IN_METERS )))

where:

  • d is the distance in meters between 'from' and 'to' positions.
  • h is the haversine function: h(x)=sin²(x/2)

code attribution: http://blog.julien.cayzac.name/2008/10/arc-and-distance-between-two-points-on.html

The haversine formula gives: h(d/R) = h(from.lat-to.lat)+h(from.lon-to.lon)+cos(from.lat)*cos(to.lat)

See Also
http://en.wikipedia.org/wiki/Law_of_haversines

Definition at line 433 of file ExtensionFunctions.hpp.

Referenced by GeoRaster< T, Z >::calculate_bins_and_scales(), length_linestring(), ST_Distance_Point_LineString_Geodesic(), and ST_Distance_Point_Point_Geodesic().

436  {
437  double latitudeArc = (fromlat - tolat) * 0.017453292519943295769236907684886;
438  double longitudeArc = (fromlon - tolon) * 0.017453292519943295769236907684886;
439  double latitudeH = sin(latitudeArc * 0.5);
440  latitudeH *= latitudeH;
441  double lontitudeH = sin(longitudeArc * 0.5);
442  lontitudeH *= lontitudeH;
443  double tmp = cos(fromlat * 0.017453292519943295769236907684886) *
444  cos(tolat * 0.017453292519943295769236907684886);
445  return 6372797.560856 * (2.0 * asin(sqrt(latitudeH + tmp * lontitudeH)));
446 }

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EXTENSION_NOINLINE double distance_in_meters__ ( const float  fromlon,
const float  fromlat,
const float  tolon,
const float  tolat 
)

Definition at line 449 of file ExtensionFunctions.hpp.

Referenced by approx_distance_in_meters().

452  {
453  float latitudeArc = (fromlat - tolat) * 0.017453292519943295769236907684886;
454  float longitudeArc = (fromlon - tolon) * 0.017453292519943295769236907684886;
455  float latitudeH = sinf(latitudeArc * 0.5);
456  latitudeH *= latitudeH;
457  float lontitudeH = sinf(longitudeArc * 0.5);
458  lontitudeH *= lontitudeH;
459  float tmp = cosf(fromlat * 0.017453292519943295769236907684886) *
460  cosf(tolat * 0.017453292519943295769236907684886);
461  return 6372797.560856 * (2.0 * asinf(sqrtf(latitudeH + tmp * lontitudeH)));
462 }

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EXTENSION_NOINLINE double Exp ( double  x)

Definition at line 112 of file ExtensionFunctions.hpp.

112  {
113  return exp(x);
114 }
EXTENSION_NOINLINE double Floor ( double  x)

Definition at line 117 of file ExtensionFunctions.hpp.

117  {
118  return floor(x);
119 }
EXTENSION_NOINLINE float Floor__ ( float  x)

Definition at line 122 of file ExtensionFunctions.hpp.

122  {
123  return floor(x);
124 }
EXTENSION_NOINLINE int16_t Floor__1 ( int16_t  x)

Definition at line 127 of file ExtensionFunctions.hpp.

127  {
128  return x;
129 }
EXTENSION_NOINLINE int32_t Floor__2 ( int32_t  x)

Definition at line 132 of file ExtensionFunctions.hpp.

132  {
133  return x;
134 }
EXTENSION_NOINLINE int64_t Floor__3 ( int64_t  x)

Definition at line 137 of file ExtensionFunctions.hpp.

137  {
138  return x;
139 }
EXTENSION_NOINLINE bool is_inf ( const double  x)

Definition at line 392 of file ExtensionFunctions.hpp.

392  {
393  return std::isinf(x);
394 }
EXTENSION_NOINLINE bool is_inf__ ( const float  x)

Definition at line 397 of file ExtensionFunctions.hpp.

397  {
398  return std::isinf(x);
399 }
EXTENSION_NOINLINE bool is_nan ( const double  x)

Definition at line 382 of file ExtensionFunctions.hpp.

382  {
383  return std::isnan(x);
384 }
EXTENSION_NOINLINE bool is_nan__ ( const float  x)

Definition at line 387 of file ExtensionFunctions.hpp.

387  {
388  return std::isnan(x);
389 }
EXTENSION_INLINE bool is_point_in_merc_view ( const double  lon,
const double  lat,
const double  min_lon,
const double  max_lon,
const double  min_lat,
const double  max_lat 
)

Definition at line 1111 of file ExtensionFunctions.hpp.

1116  {
1117  return !(lon < min_lon || lon > max_lon || lat < min_lat || lat > max_lat);
1118 }
EXTENSION_NOINLINE bool is_point_size_in_merc_view ( const double  lon,
const double  lat,
const double  meters,
const double  min_lon,
const double  max_lon,
const double  min_lat,
const double  max_lat 
)

Definition at line 1120 of file ExtensionFunctions.hpp.

1126  {
1127  const double const1 = 0.017453292519943295769236907684886;
1128  const double const2 = 6372797.560856;
1129  const double latdiff = meters / (const1 * const2);
1130  const double t1 = sinf(meters / (2.0 * const2));
1131  const double t2 = cosf(const1 * lat);
1132  const double londiff = (2.0 * asinf(t1 / t2)) / const1;
1133  return !(lon + londiff < min_lon || lon - londiff > max_lon ||
1134  lat + latdiff < min_lat || lat - latdiff > max_lat);
1135 }
EXTENSION_NOINLINE double ln ( const double  x)

Definition at line 142 of file ExtensionFunctions.hpp.

142  {
143  return log(x);
144 }
EXTENSION_NOINLINE double ln__ ( const float  x)

Definition at line 147 of file ExtensionFunctions.hpp.

147  {
148  return logf(x);
149 }
EXTENSION_NOINLINE double Log ( const double  x)

Definition at line 152 of file ExtensionFunctions.hpp.

152  {
153  return log(x);
154 }
EXTENSION_NOINLINE double Log10 ( const double  x)

Definition at line 162 of file ExtensionFunctions.hpp.

162  {
163  return log10(x);
164 }
EXTENSION_NOINLINE double Log10__ ( const float  x)

Definition at line 167 of file ExtensionFunctions.hpp.

167  {
168  return log10f(x);
169 }
EXTENSION_NOINLINE double Log__ ( const float  x)

Definition at line 157 of file ExtensionFunctions.hpp.

157  {
158  return logf(x);
159 }
EXTENSION_NOINLINE double pi ( )

Definition at line 172 of file ExtensionFunctions.hpp.

References M_PI.

Referenced by geotransform_4326_to_900913().

172  {
173  return M_PI;
174 }
M_PI
#define M_PI
Definition: constants.h:25

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EXTENSION_NOINLINE double power ( const double  x,
const double  y 
)

Definition at line 177 of file ExtensionFunctions.hpp.

Referenced by anonymous_namespace{misc.h}::inversePowersOfImpl(), anonymous_namespace{misc.h}::power(), and anonymous_namespace{misc.h}::powersOfImpl().

177  {
178  return pow(x, y);
179 }

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EXTENSION_NOINLINE double radians ( const double  x)

Definition at line 182 of file ExtensionFunctions.hpp.

References M_PI.

Referenced by radsToDegs().

182  {
183  return x * (M_PI / 180.0);
184 }
M_PI
#define M_PI
Definition: constants.h:25

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EXTENSION_NOINLINE float rect_pixel_bin ( const double  val,
const double  min,
const double  max,
const int32_t  numbins,
const int32_t  dimensionsize 
)

deprecated

Definition at line 485 of file ExtensionFunctions.hpp.

489  {
491  float numbinsf = float(numbins);
492  return float(int32_t(float((val - min) / (max - min)) * numbinsf)) *
493  float(dimensionsize) / numbinsf;
494 }
EXTENSION_NOINLINE int32_t rect_pixel_bin_packed ( const double  valx,
const double  minx,
const double  maxx,
const double  valy,
const double  miny,
const double  maxy,
const double  rectwidth,
const double  rectheight,
const double  offsetx,
const double  offsety,
const int32_t  imgwidth,
const int32_t  imgheight 
)

Definition at line 545 of file ExtensionFunctions.hpp.

556  {
557  const float imgwidthf = float(imgwidth);
558  const float rectwidthf = float(rectwidth);
559  double min = minx;
560  float offset = offsetx;
561  if (offset != 0) {
562  offset = fmodf(offset, rectwidthf);
563  if (offset > 0) {
564  offset -= rectwidthf;
565  }
566  min += offset * (maxx - minx) / imgwidthf;
567  }
568  float rx = float(int32_t(float((valx - min) / (maxx - min)) * (imgwidthf - offset) /
569  rectwidthf)) *
570  rectwidthf +
571  offset + rectwidthf / 2.0f;
572 
573  const float imgheightf = float(imgheight);
574  const float rectheightf = rectheight;
575  min = miny;
576  offset = offsety;
577  if (offset != 0) {
578  offset = fmodf(offset, rectheightf);
579  if (offset > 0) {
580  offset -= rectheightf;
581  }
582  min += offset * (maxy - miny) / imgheightf;
583  }
584  float ry = float(int32_t(float((valy - min) / (maxy - min)) * (imgheightf - offset) /
585  rectheightf)) *
586  rectheightf +
587  offset + rectheightf / 2.0f;
588 
589  // and pack as two 14.2 fixed-point values into 32bits
590  int32_t ux = static_cast<int32_t>(rx * 4.0f);
591  int32_t uy = static_cast<int32_t>(ry * 4.0f);
592  return (ux & 0x7FFF) | ((uy & 0x7FFF) << 16);
593 }
EXTENSION_NOINLINE float rect_pixel_bin_x ( const double  valx,
const double  minx,
const double  maxx,
const double  rectwidth,
const double  offsetx,
const int32_t  imgwidth 
)

Definition at line 497 of file ExtensionFunctions.hpp.

502  {
503  const float imgwidthf = float(imgwidth);
504  const float rectwidthf = float(rectwidth);
505  double min = minx;
506  float offset = offsetx;
507  if (offset != 0) {
508  offset = fmodf(offset, rectwidthf);
509  if (offset > 0) {
510  offset -= rectwidthf;
511  }
512  min += offset * (maxx - minx) / imgwidthf;
513  }
514  return float(int32_t(float((valx - min) / (maxx - min)) * (imgwidthf - offset) /
515  rectwidthf)) *
516  rectwidthf +
517  offset + rectwidthf / 2.0f;
518 }
EXTENSION_NOINLINE float rect_pixel_bin_y ( const double  valy,
const double  miny,
const double  maxy,
const double  rectheight,
const double  offsety,
const int32_t  imgheight 
)

Definition at line 521 of file ExtensionFunctions.hpp.

526  {
527  const float imgheightf = float(imgheight);
528  const float rectheightf = rectheight;
529  double min = miny;
530  float offset = offsety;
531  if (offset != 0) {
532  offset = fmodf(offset, rectheightf);
533  if (offset > 0) {
534  offset -= rectheightf;
535  }
536  min += offset * (maxy - miny) / imgheightf;
537  }
538  return float(int32_t(float((valy - min) / (maxy - min)) * (imgheightf - offset) /
539  rectheightf)) *
540  rectheightf +
541  offset + rectheightf / 2.0f;
542 }
EXTENSION_NOINLINE int32_t reg_hex_horiz_pixel_bin_packed ( const double  valx,
const double  minx,
const double  maxx,
const double  valy,
const double  miny,
const double  maxy,
const double  hexwidth,
const double  hexheight,
const double  offsetx,
const double  offsety,
const int32_t  imgwidth,
const int32_t  imgheight 
)

Definition at line 748 of file ExtensionFunctions.hpp.

References f().

759  {
760  const float sqrt3 = 1.7320508075688772;
761  const float imgwidthf = float(imgwidth);
762  const float imgheightf = float(imgheight);
763  const float hexwidthf = float(hexwidth);
764  const float hexheightf = float(hexheight);
765 
766  // expand the bounds of the data according
767  // to the input offsets. This is done because
768  // we also expand the image size according to the
769  // offsets because this algorithm layers the hexagon
770  // bins starting at the bottom left corner
771  double xmin = minx;
772  float xoffset = offsetx;
773  if (xoffset != 0) {
774  xoffset = fmodf(xoffset, hexwidthf);
775  if (xoffset > 0) {
776  xoffset -= hexwidthf;
777  }
778  xmin += xoffset * (maxx - xmin) / imgwidthf;
779  }
780 
781  double ymin = miny;
782  float yoffset = offsety;
783  if (yoffset != 0) {
784  yoffset = fmodf(yoffset, 1.5f * hexheightf);
785  if (yoffset > 0) {
786  yoffset -= 1.5f * hexheightf;
787  }
788  ymin += yoffset * (maxy - ymin) / imgheightf;
789  }
790 
791  // get the pixel position of the point
792  // assumes a linear scale here
793  // Rounds to the nearest pixel.
794  const float pix_x =
795  roundf((imgwidthf - xoffset) * float((valx - xmin) / (maxx - xmin)));
796  const float pix_y =
797  roundf((imgheightf - yoffset) * float((valy - ymin) / (maxy - ymin)));
798 
799  // Now convert the pixel position into a
800  // cube-coordinate system representation
801  const float hexsize = hexheightf / 2.0f;
802  const float cube_x = ((pix_x / sqrt3) - (pix_y / 3.0f)) / hexsize;
803  const float cube_z = (pix_y * 2.0f / 3.0f) / hexsize;
804  const float cube_y = -cube_x - cube_z;
805 
806  // need to round the cube coordinates above
807  float rx = round(cube_x);
808  float ry = round(cube_y);
809  float rz = round(cube_z);
810  const float x_diff = fabs(rx - cube_x);
811  const float y_diff = fabs(ry - cube_y);
812  const float z_diff = fabs(rz - cube_z);
813  if (x_diff > y_diff && x_diff > z_diff) {
814  rx = -ry - rz;
815  } else if (y_diff <= z_diff) {
816  rz = -rx - ry;
817  }
818 
819  // now convert the cube/hex coord to pixel locations
820  float hx = hexsize * sqrt3 * (rx + rz / 2.0f) + xoffset;
821  float hy = hexsize * 3.0f / 2.0f * rz + yoffset;
822 
823  // and pack as two 14.2 fixed-point values into 32bits
824  int32_t ux = static_cast<int32_t>(hx * 4.0f);
825  int32_t uy = static_cast<int32_t>(hy * 4.0f);
826  return (ux & 0x7FFF) | ((uy & 0x7FFF) << 16);
827 }
f
torch::Tensor f(torch::Tensor x, torch::Tensor W_target, torch::Tensor b_target)
Definition: TestTorchTableFunctions.cpp:103

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EXTENSION_NOINLINE float reg_hex_horiz_pixel_bin_x ( const double  valx,
const double  minx,
const double  maxx,
const double  valy,
const double  miny,
const double  maxy,
const double  hexwidth,
const double  hexheight,
const double  offsetx,
const double  offsety,
const int32_t  imgwidth,
const int32_t  imgheight 
)

Definition at line 596 of file ExtensionFunctions.hpp.

References f().

607  {
608  const float sqrt3 = 1.7320508075688772;
609  const float imgwidthf = float(imgwidth);
610  const float imgheightf = float(imgheight);
611  const float hexwidthf = float(hexwidth);
612  const float hexheightf = float(hexheight);
613 
614  // expand the bounds of the data according
615  // to the input offsets. This is done because
616  // we also expand the image size according to the
617  // offsets because this algorithm layers the hexagon
618  // bins starting at the bottom left corner
619  double xmin = minx;
620  float xoffset = offsetx;
621  if (xoffset != 0) {
622  xoffset = fmodf(xoffset, hexwidthf);
623  if (xoffset > 0) {
624  xoffset -= hexwidthf;
625  }
626  xmin += xoffset * (maxx - xmin) / imgwidthf;
627  }
628 
629  double ymin = miny;
630  float yoffset = offsety;
631  if (yoffset != 0) {
632  yoffset = fmodf(yoffset, 1.5f * hexheightf);
633  if (yoffset > 0) {
634  yoffset -= 1.5f * hexheightf;
635  }
636  ymin += yoffset * (maxy - ymin) / imgheightf;
637  }
638 
639  // get the pixel position of the point
640  // assumes a linear scale here
641  // Rounds to the nearest pixel.
642  const float pix_x =
643  roundf((imgwidthf - xoffset) * float((valx - xmin) / (maxx - xmin)));
644  const float pix_y =
645  roundf((imgheightf - yoffset) * float((valy - ymin) / (maxy - ymin)));
646 
647  // Now convert the pixel position into a
648  // cube-coordinate system representation
649  const float hexsize = hexheightf / 2.0f;
650  const float cube_x = ((pix_x / sqrt3) - (pix_y / 3.0f)) / hexsize;
651  const float cube_z = (pix_y * 2.0f / 3.0f) / hexsize;
652  const float cube_y = -cube_x - cube_z;
653 
654  // need to round the cube coordinates above
655  float rx = round(cube_x);
656  float ry = round(cube_y);
657  float rz = round(cube_z);
658  const float x_diff = fabs(rx - cube_x);
659  const float y_diff = fabs(ry - cube_y);
660  const float z_diff = fabs(rz - cube_z);
661  if (x_diff > y_diff && x_diff > z_diff) {
662  rx = -ry - rz;
663  } else if (y_diff > z_diff) {
664  ry = -rx - rz;
665  } else {
666  rz = -rx - ry;
667  }
668 
669  // now convert the cube/hex coord to a pixel location
670  return hexsize * sqrt3 * (rx + rz / 2.0f) + xoffset;
671 }
f
torch::Tensor f(torch::Tensor x, torch::Tensor W_target, torch::Tensor b_target)
Definition: TestTorchTableFunctions.cpp:103

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EXTENSION_NOINLINE float reg_hex_horiz_pixel_bin_y ( const double  valx,
const double  minx,
const double  maxx,
const double  valy,
const double  miny,
const double  maxy,
const double  hexwidth,
const double  hexheight,
const double  offsetx,
const double  offsety,
const int32_t  imgwidth,
const int32_t  imgheight 
)

Definition at line 674 of file ExtensionFunctions.hpp.

References f().

685  {
686  const float sqrt3 = 1.7320508075688772;
687  const float imgwidthf = float(imgwidth);
688  const float imgheightf = float(imgheight);
689  const float hexwidthf = float(hexwidth);
690  const float hexheightf = float(hexheight);
691 
692  // expand the bounds of the data according
693  // to the input offsets. This is done because
694  // we also expand the image size according to the
695  // offsets because this algorithm layers the hexagon
696  // bins starting at the bottom left corner
697  double xmin = minx;
698  float xoffset = offsetx;
699  if (xoffset != 0) {
700  xoffset = fmodf(xoffset, hexwidthf);
701  if (xoffset > 0) {
702  xoffset -= hexwidthf;
703  }
704  xmin += xoffset * (maxx - xmin) / imgwidthf;
705  }
706 
707  double ymin = miny;
708  float yoffset = offsety;
709  if (yoffset != 0) {
710  yoffset = fmodf(yoffset, 1.5f * hexheightf);
711  if (yoffset > 0) {
712  yoffset -= 1.5f * hexheightf;
713  }
714  ymin += yoffset * (maxy - ymin) / imgheightf;
715  }
716 
717  // get the pixel position of the point
718  // assumes a linear scale here
719  // Rounds to the nearest pixel.
720  const float pix_x =
721  roundf((imgwidthf - xoffset) * float((valx - xmin) / (maxx - xmin)));
722  const float pix_y =
723  roundf((imgheightf - yoffset) * float((valy - ymin) / (maxy - ymin)));
724 
725  // Now convert the pixel position into a
726  // cube-coordinate system representation
727  const float hexsize = hexheightf / 2.0f;
728  const float cube_x = ((pix_x / sqrt3) - (pix_y / 3.0f)) / hexsize;
729  const float cube_z = (pix_y * 2.0f / 3.0f) / hexsize;
730  const float cube_y = -cube_x - cube_z;
731 
732  // need to round the cube coordinates above
733  float rx = round(cube_x);
734  float ry = round(cube_y);
735  float rz = round(cube_z);
736  const float x_diff = fabs(rx - cube_x);
737  const float y_diff = fabs(ry - cube_y);
738  const float z_diff = fabs(rz - cube_z);
739  if ((x_diff <= y_diff || x_diff <= z_diff) && y_diff <= z_diff) {
740  rz = -rx - ry;
741  }
742 
743  // now convert the cube/hex coord to a pixel location
744  return hexsize * 3.0f / 2.0f * rz + yoffset;
745 }
f
torch::Tensor f(torch::Tensor x, torch::Tensor W_target, torch::Tensor b_target)
Definition: TestTorchTableFunctions.cpp:103

+ Here is the call graph for this function:

EXTENSION_NOINLINE int32_t reg_hex_vert_pixel_bin_packed ( const double  valx,
const double  minx,
const double  maxx,
const double  valy,
const double  miny,
const double  maxy,
const double  hexwidth,
const double  hexheight,
const double  offsetx,
const double  offsety,
const int32_t  imgwidth,
const int32_t  imgheight 
)

Definition at line 980 of file ExtensionFunctions.hpp.

References f().

991  {
992  const float sqrt3 = 1.7320508075688772;
993  const float imgwidthf = float(imgwidth);
994  const float imgheightf = float(imgheight);
995  const float hexwidthf = float(hexwidth);
996  const float hexheightf = float(hexheight);
997 
998  // expand the bounds of the data according
999  // to the input offsets. This is done because
1000  // we also expand the image size according to the
1001  // offsets because this algorithm layers the hexagon
1002  // bins starting at the bottom left corner
1003  double xmin = minx;
1004  float xoffset = offsetx;
1005  if (xoffset != 0) {
1006  xoffset = fmodf(xoffset, 1.5f * hexwidthf);
1007  if (xoffset > 0) {
1008  xoffset -= 1.5f * hexwidthf;
1009  }
1010  xmin += xoffset * (maxx - xmin) / imgwidthf;
1011  }
1012 
1013  double ymin = miny;
1014  float yoffset = offsety;
1015  if (yoffset != 0) {
1016  yoffset = fmodf(yoffset, hexheightf);
1017  if (yoffset > 0) {
1018  yoffset -= hexheightf;
1019  }
1020  ymin += yoffset * (maxy - ymin) / imgheightf;
1021  }
1022 
1023  // get the pixel position of the point
1024  // assumes a linear scale here
1025  // Rounds to the nearest pixel.
1026  const float pix_x = roundf((imgwidthf - xoffset) * float(valx - xmin) / (maxx - xmin));
1027  const float pix_y = roundf((imgheightf - yoffset) * float(valy - ymin) / (maxy - ymin));
1028 
1029  // Now convert the pixel position into a
1030  // cube-coordinate system representation
1031  const float hexsize = hexwidthf / 2.0f;
1032  const float cube_x = (pix_x * 2.0f / 3.0f) / hexsize;
1033  const float cube_z = ((pix_y / sqrt3) - (pix_x / 3.0f)) / hexsize;
1034  const float cube_y = -cube_x - cube_z;
1035 
1036  // need to round the cube coordinates above
1037  float rx = round(cube_x);
1038  float ry = round(cube_y);
1039  float rz = round(cube_z);
1040  const float x_diff = fabs(rx - cube_x);
1041  const float y_diff = fabs(ry - cube_y);
1042  const float z_diff = fabs(rz - cube_z);
1043  if (x_diff > y_diff && x_diff > z_diff) {
1044  rx = -ry - rz;
1045  } else if (y_diff <= z_diff) {
1046  rz = -rx - ry;
1047  }
1048 
1049  // now convert the cube/hex coord to a pixel location
1050  float hx = hexsize * 3.0f / 2.0f * rx + xoffset;
1051  float hy = hexsize * sqrt3 * (rz + rx / 2.0f) + yoffset;
1052 
1053  // and pack as two 14.2 fixed-point values into 32bits
1054  int32_t ux = static_cast<int32_t>(hx * 4.0f);
1055  int32_t uy = static_cast<int32_t>(hy * 4.0f);
1056  return (ux & 0x7FFF) | ((uy & 0x7FFF) << 16);
1057 }
f
torch::Tensor f(torch::Tensor x, torch::Tensor W_target, torch::Tensor b_target)
Definition: TestTorchTableFunctions.cpp:103

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EXTENSION_NOINLINE float reg_hex_vert_pixel_bin_x ( const double  valx,
const double  minx,
const double  maxx,
const double  valy,
const double  miny,
const double  maxy,
const double  hexwidth,
const double  hexheight,
const double  offsetx,
const double  offsety,
const int32_t  imgwidth,
const int32_t  imgheight 
)

Definition at line 830 of file ExtensionFunctions.hpp.

References f().

841  {
842  const float sqrt3 = 1.7320508075688772;
843  const float imgwidthf = float(imgwidth);
844  const float imgheightf = float(imgheight);
845  const float hexwidthf = float(hexwidth);
846  const float hexheightf = float(hexheight);
847 
848  // expand the bounds of the data according
849  // to the input offsets. This is done because
850  // we also expand the image size according to the
851  // offsets because this algorithm layers the hexagon
852  // bins starting at the bottom left corner
853  double xmin = minx;
854  float xoffset = offsetx;
855  if (xoffset != 0) {
856  xoffset = fmodf(xoffset, 1.5f * hexwidthf);
857  if (xoffset > 0) {
858  xoffset -= 1.5f * hexwidthf;
859  }
860  xmin += xoffset * (maxx - xmin) / imgwidthf;
861  }
862 
863  double ymin = miny;
864  float yoffset = offsety;
865  if (yoffset != 0) {
866  yoffset = fmodf(yoffset, hexheightf);
867  if (yoffset > 0) {
868  yoffset -= hexheightf;
869  }
870  ymin += yoffset * (maxy - ymin) / imgheightf;
871  }
872 
873  // get the pixel position of the point
874  // assumes a linear scale here
875  // Rounds to the nearest pixel.
876  const float pix_x =
877  roundf((imgwidthf - xoffset) * float((valx - xmin) / (maxx - xmin)));
878  const float pix_y =
879  roundf((imgheightf - yoffset) * float((valy - ymin) / (maxy - ymin)));
880 
881  // Now convert the pixel position into a
882  // cube-coordinate system representation
883  const float hexsize = hexwidthf / 2.0f;
884  const float cube_x = (pix_x * 2.0f / 3.0f) / hexsize;
885  const float cube_z = ((pix_y / sqrt3) - (pix_x / 3.0f)) / hexsize;
886  const float cube_y = -cube_x - cube_z;
887 
888  // need to round the cube coordinates above
889  float rx = round(cube_x);
890  float ry = round(cube_y);
891  float rz = round(cube_z);
892  const float x_diff = fabs(rx - cube_x);
893  const float y_diff = fabs(ry - cube_y);
894  const float z_diff = fabs(rz - cube_z);
895  if (x_diff > y_diff && x_diff > z_diff) {
896  rx = -ry - rz;
897  }
898 
899  // now convert the cube/hex coord to a pixel location
900  return hexsize * 3.0f / 2.0f * rx + xoffset;
901 }
f
torch::Tensor f(torch::Tensor x, torch::Tensor W_target, torch::Tensor b_target)
Definition: TestTorchTableFunctions.cpp:103

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EXTENSION_NOINLINE float reg_hex_vert_pixel_bin_y ( const double  valx,
const double  minx,
const double  maxx,
const double  valy,
const double  miny,
const double  maxy,
const double  hexwidth,
const double  hexheight,
const double  offsetx,
const double  offsety,
const int32_t  imgwidth,
const int32_t  imgheight 
)

Definition at line 904 of file ExtensionFunctions.hpp.

References f().

915  {
916  const float sqrt3 = 1.7320508075688772;
917  const float imgwidthf = float(imgwidth);
918  const float imgheightf = float(imgheight);
919  const float hexwidthf = float(hexwidth);
920  const float hexheightf = float(hexheight);
921 
922  // expand the bounds of the data according
923  // to the input offsets. This is done because
924  // we also expand the image size according to the
925  // offsets because this algorithm layers the hexagon
926  // bins starting at the bottom left corner
927  float xmin = minx;
928  float xoffset = offsetx;
929  if (xoffset != 0) {
930  xoffset = fmodf(xoffset, 1.5f * hexwidthf);
931  if (xoffset > 0) {
932  xoffset -= 1.5f * hexwidthf;
933  }
934  xmin += xoffset * (maxx - xmin) / imgwidthf;
935  }
936 
937  float ymin = miny;
938  float yoffset = offsety;
939  if (yoffset != 0) {
940  yoffset = fmodf(yoffset, hexheightf);
941  if (yoffset > 0) {
942  yoffset -= hexheightf;
943  }
944  ymin += yoffset * (maxy - ymin) / imgheightf;
945  }
946 
947  // get the pixel position of the point
948  // assumes a linear scale here
949  // Rounds to the nearest pixel.
950  const float pix_x = roundf((imgwidthf - xoffset) * (valx - xmin) / (maxx - xmin));
951  const float pix_y = roundf((imgheightf - yoffset) * (valy - ymin) / (maxy - ymin));
952 
953  // Now convert the pixel position into a
954  // cube-coordinate system representation
955  const float hexsize = hexwidthf / 2.0f;
956  const float cube_x = (pix_x * 2.0f / 3.0f) / hexsize;
957  const float cube_z = ((pix_y / sqrt3) - (pix_x / 3.0f)) / hexsize;
958  const float cube_y = -cube_x - cube_z;
959 
960  // need to round the cube coordinates above
961  float rx = round(cube_x);
962  float ry = round(cube_y);
963  float rz = round(cube_z);
964  const float x_diff = fabs(rx - cube_x);
965  const float y_diff = fabs(ry - cube_y);
966  const float z_diff = fabs(rz - cube_z);
967  if (x_diff > y_diff && x_diff > z_diff) {
968  rx = -ry - rz;
969  } else if (y_diff > z_diff) {
970  ry = -rx - rz;
971  } else {
972  rz = -rx - ry;
973  }
974 
975  // now convert the cube/hex coord to a pixel location
976  return hexsize * sqrt3 * (rz + rx / 2.0f) + yoffset;
977 }
f
torch::Tensor f(torch::Tensor x, torch::Tensor W_target, torch::Tensor b_target)
Definition: TestTorchTableFunctions.cpp:103

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EXTENSION_NOINLINE double Round ( const double  x,
const int32_t  y 
)

Definition at line 187 of file ExtensionFunctions.hpp.

187  {
188  if (y == 0) {
189  return round(x) + 0.0;
190  }
191 
192  double exp = pow(10, y);
193 #if defined(__powerpc__) && !defined(__CUDACC__)
194  int32_t yy = y - 1;
195  exp = 10 * powf((float)10L, yy);
196 #endif
197  return (round(x * exp) / exp) + 0.0;
198 }
EXTENSION_NOINLINE double Round2_to_digit ( const double  x,
const int32_t  y 
)

Definition at line 289 of file ExtensionFunctions.hpp.

289  {
290  double exp = pow(10, y);
291  return round(x * exp) / exp;
292 }
EXTENSION_NOINLINE float Round__ ( const float  x,
const int32_t  y 
)

Definition at line 201 of file ExtensionFunctions.hpp.

201  {
202  if (y == 0) {
203  return roundf(x) + 0.0f;
204  }
205 
206  float exp = powf((float)10L, y);
207 #if defined(__powerpc__) && !defined(__CUDACC__)
208  int32_t yy = y - 1;
209  exp = 10 * powf((float)10L, yy);
210 #endif
211  return roundf(x * exp) / exp + 0.0f;
212 }
EXTENSION_NOINLINE int16_t Round__1 ( const int16_t  x,
const int32_t  y 
)

Definition at line 215 of file ExtensionFunctions.hpp.

215  {
216  if (y >= 0) {
217  return x;
218  }
219 
220  int32_t p = pow((float)10L, std::abs(y));
221  int32_t p_half = p >> 1;
222 
223  int64_t temp = x;
224 #if defined(__powerpc__) && !defined(__CUDACC__)
225  int16_t xx = x;
226  xx += 1;
227  temp = xx;
228  temp -= 1;
229 #endif
230  temp = temp >= 0 ? temp + p_half : temp - p_half;
231  temp = temp / p;
232  return temp * p;
233 }
EXTENSION_NOINLINE int32_t Round__2 ( const int32_t  x,
const int32_t  y 
)

Definition at line 236 of file ExtensionFunctions.hpp.

236  {
237  if (y >= 0) {
238  return x;
239  }
240 
241  int32_t p = pow((float)10L, std::abs(y));
242  int32_t p_half = p >> 1;
243 
244  int64_t temp = x;
245 #if defined(__powerpc__) && !defined(__CUDACC__)
246  int32_t xx = x;
247  xx += 1;
248  temp = xx;
249  temp -= 1;
250 #endif
251  temp = temp >= 0 ? temp + p_half : temp - p_half;
252  temp = temp / p;
253  return temp * p;
254 }
EXTENSION_NOINLINE int64_t Round__3 ( const int64_t  x,
const int32_t  y 
)

Definition at line 257 of file ExtensionFunctions.hpp.

257  {
258  if (y >= 0) {
259  return x;
260  }
261 
262  int64_t p = pow((double)10L, std::abs(y));
263  int64_t p_half = p >> 1;
264 
265  int64_t temp = x;
266  temp = temp >= 0 ? temp + p_half : temp - p_half;
267  temp = temp / p;
268  return temp * p;
269 }
EXTENSION_NOINLINE int64_t Round__4 ( const int64_t  x,
const int32_t  y0,
const int32_t  scale 
)

Definition at line 272 of file ExtensionFunctions.hpp.

272  {
273  int32_t y = y0 - scale;
274 
275  if (y >= 0) {
276  return x;
277  }
278 
279  int64_t p = pow((double)10L, std::abs(y));
280  int64_t p_half = p >> 1;
281 
282  int64_t temp = x;
283  temp = temp >= 0 ? temp + p_half : temp - p_half;
284  temp = temp / p;
285  return temp * p;
286 }
EXTENSION_NOINLINE double round_to_digit ( const double  x,
const int32_t  y 
)

Definition at line 295 of file ExtensionFunctions.hpp.

295  {
296  double exp = pow(10, y);
297  return round(x * exp) / exp;
298 }
EXTENSION_NOINLINE double Sin ( const double  x)

Definition at line 301 of file ExtensionFunctions.hpp.

301  {
302  return sin(x);
303 }
EXTENSION_NOINLINE double Sinh ( const double  x)

Definition at line 306 of file ExtensionFunctions.hpp.

306  {
307  return sinh(x);
308 }
EXTENSION_NOINLINE double Sqrt ( const double  x)

Definition at line 311 of file ExtensionFunctions.hpp.

311  {
312  return sqrt(x);
313 }
EXTENSION_NOINLINE double Tan ( const double  x)

Definition at line 316 of file ExtensionFunctions.hpp.

316  {
317  return tan(x);
318 }
EXTENSION_NOINLINE double Tan__ ( const float  x)

Definition at line 326 of file ExtensionFunctions.hpp.

326  {
327  return tanf(x);
328 }
EXTENSION_NOINLINE double Tanh ( const double  x)

Definition at line 321 of file ExtensionFunctions.hpp.

321  {
322  return tanh(x);
323 }
EXTENSION_NOINLINE double Truncate ( const double  x,
const int32_t  y 
)

Definition at line 331 of file ExtensionFunctions.hpp.

Referenced by com.mapd.calcite.parser.HeavyDBSqlOperatorTable::addUDF().

331  {
332  double p = pow((double)10L, y);
333  int64_t temp = x * p;
334  return temp / p;
335 }

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EXTENSION_NOINLINE float Truncate__ ( const float  x,
const int32_t  y 
)

Definition at line 338 of file ExtensionFunctions.hpp.

338  {
339  float p = powf((float)10L, y);
340  int64_t temp = x * p;
341  return temp / p;
342 }
EXTENSION_NOINLINE int16_t Truncate__1 ( const int16_t  x,
const int32_t  y 
)

Definition at line 345 of file ExtensionFunctions.hpp.

345  {
346  if (y >= 0) {
347  return x;
348  }
349  int32_t p = pow((float)10L, std::abs(y));
350  int64_t temp = x / p;
351 #if defined(__powerpc__) && !defined(__CUDACC__)
352  int16_t xx = x;
353  xx += 1;
354  temp = xx;
355  temp -= 1;
356  temp /= p;
357 #endif
358  return temp * p;
359 }
EXTENSION_NOINLINE int32_t Truncate__2 ( const int32_t  x,
const int32_t  y 
)

Definition at line 362 of file ExtensionFunctions.hpp.

362  {
363  if (y >= 0) {
364  return x;
365  }
366  int32_t p = pow((float)10L, std::abs(y));
367  int64_t temp = x / p;
368  return temp * p;
369 }
EXTENSION_NOINLINE int64_t Truncate__3 ( const int64_t  x,
const int32_t  y 
)

Definition at line 372 of file ExtensionFunctions.hpp.

372  {
373  if (y >= 0) {
374  return x;
375  }
376  int64_t p = pow((double)10L, std::abs(y));
377  int64_t temp = x / p;
378  return temp * p;
379 }