| Modifier and Type | Method and Description |
|---|---|
<T extends Number> |
abs(Operand<T> x)
Builds an
Abs operation |
<T> AccumulateN<T> |
accumulateN(Iterable<Operand<T>> inputs,
Shape shape)
Builds an
AccumulateN operation |
<T> Acos<T> |
acos(Operand<T> x)
Builds an
Acos operation |
<T> Acosh<T> |
acosh(Operand<T> x)
Builds an
Acosh operation |
<T> Add<T> |
add(Operand<T> x,
Operand<T> y)
Builds an
Add operation |
<T> AddN<T> |
addN(Iterable<Operand<T>> inputs)
Builds an
AddN operation |
<T> Angle<Float> |
angle(Operand<T> input)
Builds an
Angle operation |
<U extends Number,T> |
angle(Operand<T> input,
Class<U> Tout)
Builds an
Angle operation |
<T> ApproximateEqual |
approximateEqual(Operand<T> x,
Operand<T> y,
ApproximateEqual.Options... options)
Builds an
ApproximateEqual operation |
<T,U extends Number> |
argMax(Operand<T> input,
Operand<U> dimension)
Builds an
ArgMax operation |
<V extends Number,T,U extends Number> |
argMax(Operand<T> input,
Operand<U> dimension,
Class<V> outputType)
Builds an
ArgMax operation |
<T,U extends Number> |
argMin(Operand<T> input,
Operand<U> dimension)
Builds an
ArgMin operation |
<V extends Number,T,U extends Number> |
argMin(Operand<T> input,
Operand<U> dimension,
Class<V> outputType)
Builds an
ArgMin operation |
<T> Asin<T> |
asin(Operand<T> x)
Builds an
Asin operation |
<T> Asinh<T> |
asinh(Operand<T> x)
Builds an
Asinh operation |
<T> Atan<T> |
atan(Operand<T> x)
Builds an
Atan operation |
<T extends Number> |
atan2(Operand<T> y,
Operand<T> x)
Builds an
Atan2 operation |
<T> Atanh<T> |
atanh(Operand<T> x)
Builds an
Atanh operation |
<T extends Number> |
besselI0e(Operand<T> x)
Builds an
BesselI0e operation |
<T extends Number> |
besselI1e(Operand<T> x)
Builds an
BesselI1e operation |
<T extends Number> |
betainc(Operand<T> a,
Operand<T> b,
Operand<T> x)
Builds an
Betainc operation |
<T extends Number> |
bincount(Operand<Integer> arr,
Operand<Integer> size,
Operand<T> weights)
Builds an
Bincount operation |
<T extends Number> |
ceil(Operand<T> x)
Builds an
Ceil operation |
<T extends Number> |
checkNumerics(Operand<T> tensor,
String message)
Builds an
CheckNumerics operation |
<T> CompareAndBitpack |
compareAndBitpack(Operand<T> input,
Operand<T> threshold)
Builds an
CompareAndBitpack operation |
<T> ComplexAbs<Float> |
complexAbs(Operand<T> x)
Builds an
ComplexAbs operation |
<U extends Number,T> |
complexAbs(Operand<T> x,
Class<U> Tout)
Builds an
ComplexAbs operation |
<T> Conj<T> |
conj(Operand<T> input)
Builds an
Conj operation |
<T> Cos<T> |
cos(Operand<T> x)
Builds an
Cos operation |
<T> Cosh<T> |
cosh(Operand<T> x)
Builds an
Cosh operation |
<T,U extends Number> |
cumprod(Operand<T> x,
Operand<U> axis,
Cumprod.Options... options)
Builds an
Cumprod operation |
<T,U extends Number> |
cumsum(Operand<T> x,
Operand<U> axis,
Cumsum.Options... options)
Builds an
Cumsum operation |
<T extends Number> |
digamma(Operand<T> x)
Builds an
Digamma operation |
<T> Div<T> |
div(Operand<T> x,
Operand<T> y)
Builds an
Div operation |
<T> DivNoNan<T> |
divNoNan(Operand<T> x,
Operand<T> y)
Builds an
DivNoNan operation |
<T> Equal |
equal(Operand<T> x,
Operand<T> y,
Equal.Options... options)
Builds an
Equal operation |
<T extends Number> |
erf(Operand<T> x)
Builds an
Erf operation |
<T extends Number> |
erfc(Operand<T> x)
Builds an
Erfc operation |
<T> Exp<T> |
exp(Operand<T> x)
Builds an
Exp operation |
<T> Expm1<T> |
expm1(Operand<T> x)
Builds an
Expm1 operation |
Fact |
fact()
Builds an
Fact operation |
<T extends Number> |
floor(Operand<T> x)
Builds an
Floor operation |
<T> FloorDiv<T> |
floorDiv(Operand<T> x,
Operand<T> y)
Builds an
FloorDiv operation |
<T extends Number> |
floorMod(Operand<T> x,
Operand<T> y)
Builds an
FloorMod operation |
<T extends Number> |
greater(Operand<T> x,
Operand<T> y)
Builds an
Greater operation |
<T extends Number> |
greaterEqual(Operand<T> x,
Operand<T> y)
Builds an
GreaterEqual operation |
<T extends Number> |
igamma(Operand<T> a,
Operand<T> x)
Builds an
Igamma operation |
<T extends Number> |
igammac(Operand<T> a,
Operand<T> x)
Builds an
Igammac operation |
<T> Imag<Float> |
imag(Operand<T> input)
Builds an
Imag operation |
<U extends Number,T> |
imag(Operand<T> input,
Class<U> Tout)
Builds an
Imag operation |
<T extends Number> |
invertPermutation(Operand<T> x)
Builds an
InvertPermutation operation |
<T extends Number> |
isFinite(Operand<T> x)
Builds an
IsFinite operation |
<T extends Number> |
isInf(Operand<T> x)
Builds an
IsInf operation |
<T extends Number> |
isNan(Operand<T> x)
Builds an
IsNan operation |
<T extends Number> |
less(Operand<T> x,
Operand<T> y)
Builds an
Less operation |
<T extends Number> |
lessEqual(Operand<T> x,
Operand<T> y)
Builds an
LessEqual operation |
<T extends Number> |
lgamma(Operand<T> x)
Builds an
Lgamma operation |
<T> Log<T> |
log(Operand<T> x)
Builds an
Log operation |
<T> Log1p<T> |
log1p(Operand<T> x)
Builds an
Log1p operation |
LogicalAnd |
logicalAnd(Operand<Boolean> x,
Operand<Boolean> y)
Builds an
LogicalAnd operation |
LogicalNot |
logicalNot(Operand<Boolean> x)
Builds an
LogicalNot operation |
LogicalOr |
logicalOr(Operand<Boolean> x,
Operand<Boolean> y)
Builds an
LogicalOr operation |
<T extends Number> |
maximum(Operand<T> x,
Operand<T> y)
Builds an
Maximum operation |
<T,U extends Number> |
mean(Operand<T> input,
Operand<U> axis,
Mean.Options... options)
Builds an
Mean operation |
<T extends Number> |
minimum(Operand<T> x,
Operand<T> y)
Builds an
Minimum operation |
<T extends Number> |
mod(Operand<T> x,
Operand<T> y)
Builds an
Mod operation |
<T> Mul<T> |
mul(Operand<T> x,
Operand<T> y)
Builds an
Mul operation |
<T> Neg<T> |
neg(Operand<T> x)
Builds an
Neg operation |
<T> NotEqual |
notEqual(Operand<T> x,
Operand<T> y,
NotEqual.Options... options)
Builds an
NotEqual operation |
<T extends Number> |
polygamma(Operand<T> a,
Operand<T> x)
Builds an
Polygamma operation |
<T extends Number> |
populationCount(Operand<T> x)
Builds an
PopulationCount operation |
<T> Pow<T> |
pow(Operand<T> x,
Operand<T> y)
Builds an
Pow operation |
<V,T,U> QuantizedAdd<V> |
quantizedAdd(Operand<T> x,
Operand<U> y,
Operand<Float> minX,
Operand<Float> maxX,
Operand<Float> minY,
Operand<Float> maxY,
Class<V> Toutput)
Builds an
QuantizedAdd operation |
<V,T,U> QuantizedMul<V> |
quantizedMul(Operand<T> x,
Operand<U> y,
Operand<Float> minX,
Operand<Float> maxX,
Operand<Float> minY,
Operand<Float> maxY,
Class<V> Toutput)
Builds an
QuantizedMul operation |
<T> Real<Float> |
real(Operand<T> input)
Builds an
Real operation |
<U extends Number,T> |
real(Operand<T> input,
Class<U> Tout)
Builds an
Real operation |
<T> RealDiv<T> |
realDiv(Operand<T> x,
Operand<T> y)
Builds an
RealDiv operation |
<T> Reciprocal<T> |
reciprocal(Operand<T> x)
Builds an
Reciprocal operation |
<T extends Number> |
rint(Operand<T> x)
Builds an
Rint operation |
<T> Round<T> |
round(Operand<T> x)
Builds an
Round operation |
<T> Rsqrt<T> |
rsqrt(Operand<T> x)
Builds an
Rsqrt operation |
<T extends Number,U extends Number> |
segmentMax(Operand<T> data,
Operand<U> segmentIds)
Builds an
SegmentMax operation |
<T,U extends Number> |
segmentMean(Operand<T> data,
Operand<U> segmentIds)
Builds an
SegmentMean operation |
<T extends Number,U extends Number> |
segmentMin(Operand<T> data,
Operand<U> segmentIds)
Builds an
SegmentMin operation |
<T,U extends Number> |
segmentProd(Operand<T> data,
Operand<U> segmentIds)
Builds an
SegmentProd operation |
<T,U extends Number> |
segmentSum(Operand<T> data,
Operand<U> segmentIds)
Builds an
SegmentSum operation |
<T> Sigmoid<T> |
sigmoid(Operand<T> x)
Builds an
Sigmoid operation |
<T> Sign<T> |
sign(Operand<T> x)
Builds an
Sign operation |
<T> Sin<T> |
sin(Operand<T> x)
Builds an
Sin operation |
<T> Sinh<T> |
sinh(Operand<T> x)
Builds an
Sinh operation |
<T extends Number> |
softplus(Operand<T> features)
Builds an
Softplus operation |
<T> Sqrt<T> |
sqrt(Operand<T> x)
Builds an
Sqrt operation |
<T> Square<T> |
square(Operand<T> x)
Builds an
Square operation |
<T> SquaredDifference<T> |
squaredDifference(Operand<T> x,
Operand<T> y)
Builds an
SquaredDifference operation |
<T> Sub<T> |
sub(Operand<T> x,
Operand<T> y)
Builds an
Sub operation |
<T> Tan<T> |
tan(Operand<T> x)
Builds an
Tan operation |
<T> Tanh<T> |
tanh(Operand<T> x)
Builds an
Tanh operation |
<T> TruncateDiv<T> |
truncateDiv(Operand<T> x,
Operand<T> y)
Builds an
TruncateDiv operation |
<T extends Number> |
truncateMod(Operand<T> x,
Operand<T> y)
Builds an
TruncateMod operation |
<T extends Number,U extends Number,V extends Number> |
unsortedSegmentMax(Operand<T> data,
Operand<U> segmentIds,
Operand<V> numSegments)
Builds an
UnsortedSegmentMax operation |
<T extends Number,U extends Number,V extends Number> |
unsortedSegmentMin(Operand<T> data,
Operand<U> segmentIds,
Operand<V> numSegments)
Builds an
UnsortedSegmentMin operation |
<T,U extends Number,V extends Number> |
unsortedSegmentProd(Operand<T> data,
Operand<U> segmentIds,
Operand<V> numSegments)
Builds an
UnsortedSegmentProd operation |
<T,U extends Number,V extends Number> |
unsortedSegmentSum(Operand<T> data,
Operand<U> segmentIds,
Operand<V> numSegments)
Builds an
UnsortedSegmentSum operation |
<T> Xdivy<T> |
xdivy(Operand<T> x,
Operand<T> y)
Builds an
Xdivy operation |
<T> Xlogy<T> |
xlogy(Operand<T> x,
Operand<T> y)
Builds an
Xlogy operation |
<T extends Number> |
zeta(Operand<T> x,
Operand<T> q)
Builds an
Zeta operation |
public <T extends Number,U extends Number,V extends Number> UnsortedSegmentMax<T> unsortedSegmentMax(Operand<T> data, Operand<U> segmentIds, Operand<V> numSegments)
UnsortedSegmentMax operationdata - segmentIds - A tensor whose shape is a prefix of `data.shape`.numSegments - UnsortedSegmentMaxpublic LogicalOr logicalOr(Operand<Boolean> x, Operand<Boolean> y)
LogicalOr operationx - y - LogicalOrpublic <T,U extends Number> SegmentMean<T> segmentMean(Operand<T> data, Operand<U> segmentIds)
SegmentMean operationdata - segmentIds - A 1-D tensor whose size is equal to the size of `data`'sSegmentMeanpublic <T> TruncateDiv<T> truncateDiv(Operand<T> x, Operand<T> y)
TruncateDiv operationx - y - TruncateDivpublic <T extends Number> BesselI0e<T> besselI0e(Operand<T> x)
BesselI0e operationx - BesselI0epublic <T> Square<T> square(Operand<T> x)
Square operationx - Squarepublic LogicalNot logicalNot(Operand<Boolean> x)
LogicalNot operationx - LogicalNotpublic <V extends Number,T,U extends Number> ArgMin<V> argMin(Operand<T> input, Operand<U> dimension, Class<V> outputType)
ArgMin operationinput - dimension - int32 or int64, must be in the range `[-rank(input), rank(input))`.outputType - ArgMinpublic <T> Equal equal(Operand<T> x, Operand<T> y, Equal.Options... options)
Equal operationx - y - options - carries optional attributes valuesEqualpublic <T extends Number> PopulationCount populationCount(Operand<T> x)
PopulationCount operationx - PopulationCountpublic <T extends Number> Greater greater(Operand<T> x, Operand<T> y)
Greater operationx - y - Greaterpublic <T,U extends Number> Mean<T> mean(Operand<T> input, Operand<U> axis, Mean.Options... options)
Mean operationinput - The tensor to reduce.axis - The dimensions to reduce. Must be in the rangeoptions - carries optional attributes valuesMeanpublic <T> Mul<T> mul(Operand<T> x, Operand<T> y)
Mul operationx - y - Mulpublic <T extends Number> CheckNumerics<T> checkNumerics(Operand<T> tensor, String message)
CheckNumerics operationtensor - message - Prefix of the error message.CheckNumericspublic <T> Neg<T> neg(Operand<T> x)
Neg operationx - Negpublic <T extends Number> Betainc<T> betainc(Operand<T> a, Operand<T> b, Operand<T> x)
Betainc operationa - b - x - Betaincpublic <T extends Number> Bincount<T> bincount(Operand<Integer> arr, Operand<Integer> size, Operand<T> weights)
Bincount operationarr - int32 `Tensor`.size - non-negative int32 scalar `Tensor`.weights - is an int32, int64, float32, or float64 `Tensor` with the sameBincountpublic <T> Asinh<T> asinh(Operand<T> x)
Asinh operationx - Asinhpublic <T extends Number,U extends Number> SegmentMin<T> segmentMin(Operand<T> data, Operand<U> segmentIds)
SegmentMin operationdata - segmentIds - A 1-D tensor whose size is equal to the size of `data`'sSegmentMinpublic <V extends Number,T,U extends Number> ArgMax<V> argMax(Operand<T> input, Operand<U> dimension, Class<V> outputType)
ArgMax operationinput - dimension - int32 or int64, must be in the range `[-rank(input), rank(input))`.outputType - ArgMaxpublic <T> Atan<T> atan(Operand<T> x)
Atan operationx - Atanpublic <T> Xlogy<T> xlogy(Operand<T> x, Operand<T> y)
Xlogy operationx - y - Xlogypublic <T> Acos<T> acos(Operand<T> x)
Acos operationx - Acospublic <T extends Number> InvertPermutation<T> invertPermutation(Operand<T> x)
InvertPermutation operationx - 1-D.InvertPermutationpublic <T> Tan<T> tan(Operand<T> x)
Tan operationx - Tanpublic <T> Xdivy<T> xdivy(Operand<T> x, Operand<T> y)
Xdivy operationx - y - Xdivypublic <T extends Number,U extends Number,V extends Number> UnsortedSegmentMin<T> unsortedSegmentMin(Operand<T> data, Operand<U> segmentIds, Operand<V> numSegments)
UnsortedSegmentMin operationdata - segmentIds - A tensor whose shape is a prefix of `data.shape`.numSegments - UnsortedSegmentMinpublic <T extends Number> IsFinite isFinite(Operand<T> x)
IsFinite operationx - IsFinitepublic <T extends Number> Floor<T> floor(Operand<T> x)
Floor operationx - Floorpublic <T> Log<T> log(Operand<T> x)
Log operationx - Logpublic <T> Sqrt<T> sqrt(Operand<T> x)
Sqrt operationx - Sqrtpublic <T extends Number> TruncateMod<T> truncateMod(Operand<T> x, Operand<T> y)
TruncateMod operationx - y - TruncateModpublic <T,U extends Number,V extends Number> UnsortedSegmentSum<T> unsortedSegmentSum(Operand<T> data, Operand<U> segmentIds, Operand<V> numSegments)
UnsortedSegmentSum operationdata - segmentIds - A tensor whose shape is a prefix of `data.shape`.numSegments - UnsortedSegmentSumpublic <T> CompareAndBitpack compareAndBitpack(Operand<T> input, Operand<T> threshold)
CompareAndBitpack operationinput - Values to compare against `threshold` and bitpack.threshold - Threshold to compare against.CompareAndBitpackpublic <T> FloorDiv<T> floorDiv(Operand<T> x, Operand<T> y)
FloorDiv operationx - y - FloorDivpublic <T> RealDiv<T> realDiv(Operand<T> x, Operand<T> y)
RealDiv operationx - y - RealDivpublic <T> Angle<Float> angle(Operand<T> input)
Angle operationinput - Anglepublic <U extends Number,T> Imag<U> imag(Operand<T> input, Class<U> Tout)
Imag operationinput - Tout - Imagpublic <V,T,U> QuantizedMul<V> quantizedMul(Operand<T> x, Operand<U> y, Operand<Float> minX, Operand<Float> maxX, Operand<Float> minY, Operand<Float> maxY, Class<V> Toutput)
QuantizedMul operationx - y - minX - The float value that the lowest quantized `x` value represents.maxX - The float value that the highest quantized `x` value represents.minY - The float value that the lowest quantized `y` value represents.maxY - The float value that the highest quantized `y` value represents.Toutput - QuantizedMulpublic <T extends Number> IsInf isInf(Operand<T> x)
IsInf operationx - IsInfpublic <U extends Number,T> Real<U> real(Operand<T> input, Class<U> Tout)
Real operationinput - Tout - Realpublic <T extends Number> Mod<T> mod(Operand<T> x, Operand<T> y)
Mod operationx - y - Modpublic <T> Acosh<T> acosh(Operand<T> x)
Acosh operationx - Acoshpublic <T extends Number> Polygamma<T> polygamma(Operand<T> a, Operand<T> x)
Polygamma operationa - x - Polygammapublic <T> Sigmoid<T> sigmoid(Operand<T> x)
Sigmoid operationx - Sigmoidpublic <T extends Number> Ceil<T> ceil(Operand<T> x)
Ceil operationx - Ceilpublic LogicalAnd logicalAnd(Operand<Boolean> x, Operand<Boolean> y)
LogicalAnd operationx - y - LogicalAndpublic <T extends Number> Rint<T> rint(Operand<T> x)
Rint operationx - Rintpublic <T> Sin<T> sin(Operand<T> x)
Sin operationx - Sinpublic <T extends Number> Erf<T> erf(Operand<T> x)
Erf operationx - Erfpublic <T> ApproximateEqual approximateEqual(Operand<T> x, Operand<T> y, ApproximateEqual.Options... options)
ApproximateEqual operationx - y - options - carries optional attributes valuesApproximateEqualpublic <T extends Number> Minimum<T> minimum(Operand<T> x, Operand<T> y)
Minimum operationx - y - Minimumpublic <T extends Number> Erfc<T> erfc(Operand<T> x)
Erfc operationx - Erfcpublic <T> Imag<Float> imag(Operand<T> input)
Imag operationinput - Imagpublic <U extends Number,T> Angle<U> angle(Operand<T> input, Class<U> Tout)
Angle operationinput - Tout - Anglepublic <T extends Number> Atan2<T> atan2(Operand<T> y, Operand<T> x)
Atan2 operationy - x - Atan2public <T> NotEqual notEqual(Operand<T> x, Operand<T> y, NotEqual.Options... options)
NotEqual operationx - y - options - carries optional attributes valuesNotEqualpublic <T> Expm1<T> expm1(Operand<T> x)
Expm1 operationx - Expm1public <T> AddN<T> addN(Iterable<Operand<T>> inputs)
AddN operationinputs - AddNpublic <V,T,U> QuantizedAdd<V> quantizedAdd(Operand<T> x, Operand<U> y, Operand<Float> minX, Operand<Float> maxX, Operand<Float> minY, Operand<Float> maxY, Class<V> Toutput)
QuantizedAdd operationx - y - minX - The float value that the lowest quantized `x` value represents.maxX - The float value that the highest quantized `x` value represents.minY - The float value that the lowest quantized `y` value represents.maxY - The float value that the highest quantized `y` value represents.Toutput - QuantizedAddpublic <T> Log1p<T> log1p(Operand<T> x)
Log1p operationx - Log1ppublic <T extends Number> FloorMod<T> floorMod(Operand<T> x, Operand<T> y)
FloorMod operationx - y - FloorModpublic <T> Exp<T> exp(Operand<T> x)
Exp operationx - Exppublic <T extends Number> Digamma<T> digamma(Operand<T> x)
Digamma operationx - Digammapublic <T> SquaredDifference<T> squaredDifference(Operand<T> x, Operand<T> y)
SquaredDifference operationx - y - SquaredDifferencepublic <T extends Number> GreaterEqual greaterEqual(Operand<T> x, Operand<T> y)
GreaterEqual operationx - y - GreaterEqualpublic <T extends Number> IsNan isNan(Operand<T> x)
IsNan operationx - IsNanpublic <T> Sub<T> sub(Operand<T> x, Operand<T> y)
Sub operationx - y - Subpublic <T> Asin<T> asin(Operand<T> x)
Asin operationx - Asinpublic <T> Round<T> round(Operand<T> x)
Round operationx - Roundpublic <T,U extends Number> Cumprod<T> cumprod(Operand<T> x, Operand<U> axis, Cumprod.Options... options)
Cumprod operationx - A `Tensor`. Must be one of the following types: `float32`, `float64`,axis - A `Tensor` of type `int32` (default: 0). Must be in the rangeoptions - carries optional attributes valuesCumprodpublic <T extends Number> Igamma<T> igamma(Operand<T> a, Operand<T> x)
Igamma operationa - x - Igammapublic <T> Sign<T> sign(Operand<T> x)
Sign operationx - Signpublic <T> Div<T> div(Operand<T> x, Operand<T> y)
Div operationx - y - Divpublic <T extends Number> Less less(Operand<T> x, Operand<T> y)
Less operationx - y - Lesspublic <T> Pow<T> pow(Operand<T> x, Operand<T> y)
Pow operationx - y - Powpublic <T extends Number> LessEqual lessEqual(Operand<T> x, Operand<T> y)
LessEqual operationx - y - LessEqualpublic <T extends Number> Igammac<T> igammac(Operand<T> a, Operand<T> x)
Igammac operationa - x - Igammacpublic <T extends Number> Zeta<T> zeta(Operand<T> x, Operand<T> q)
Zeta operationx - q - Zetapublic <T extends Number,U extends Number> SegmentMax<T> segmentMax(Operand<T> data, Operand<U> segmentIds)
SegmentMax operationdata - segmentIds - A 1-D tensor whose size is equal to the size of `data`'sSegmentMaxpublic <T extends Number> Abs<T> abs(Operand<T> x)
Abs operationx - Abspublic <T> DivNoNan<T> divNoNan(Operand<T> x, Operand<T> y)
DivNoNan operationx - y - DivNoNanpublic <T> Sinh<T> sinh(Operand<T> x)
Sinh operationx - Sinhpublic <T> Rsqrt<T> rsqrt(Operand<T> x)
Rsqrt operationx - Rsqrtpublic <T extends Number> BesselI1e<T> besselI1e(Operand<T> x)
BesselI1e operationx - BesselI1epublic <T extends Number> Lgamma<T> lgamma(Operand<T> x)
Lgamma operationx - Lgammapublic <U extends Number,T> ComplexAbs<U> complexAbs(Operand<T> x, Class<U> Tout)
ComplexAbs operationx - Tout - ComplexAbspublic <T,U extends Number> SegmentSum<T> segmentSum(Operand<T> data, Operand<U> segmentIds)
SegmentSum operationdata - segmentIds - A 1-D tensor whose size is equal to the size of `data`'sSegmentSumpublic <T> Tanh<T> tanh(Operand<T> x)
Tanh operationx - Tanhpublic <T> ComplexAbs<Float> complexAbs(Operand<T> x)
ComplexAbs operationx - ComplexAbspublic <T,U extends Number> Cumsum<T> cumsum(Operand<T> x, Operand<U> axis, Cumsum.Options... options)
Cumsum operationx - A `Tensor`. Must be one of the following types: `float32`, `float64`,axis - A `Tensor` of type `int32` (default: 0). Must be in the rangeoptions - carries optional attributes valuesCumsumpublic <T> AccumulateN<T> accumulateN(Iterable<Operand<T>> inputs, Shape shape)
AccumulateN operationinputs - A list of `Tensor` objects, each with same shape and type.shape - Shape of elements of `inputs`.AccumulateNpublic <T> Cosh<T> cosh(Operand<T> x)
Cosh operationx - Coshpublic <T> Conj<T> conj(Operand<T> input)
Conj operationinput - Conjpublic <T,U extends Number> SegmentProd<T> segmentProd(Operand<T> data, Operand<U> segmentIds)
SegmentProd operationdata - segmentIds - A 1-D tensor whose size is equal to the size of `data`'sSegmentProdpublic <T,U extends Number> ArgMax<Long> argMax(Operand<T> input, Operand<U> dimension)
ArgMax operationinput - dimension - int32 or int64, must be in the range `[-rank(input), rank(input))`.ArgMaxpublic <T> Add<T> add(Operand<T> x, Operand<T> y)
Add operationx - y - Addpublic <T> Cos<T> cos(Operand<T> x)
Cos operationx - Cospublic <T,U extends Number,V extends Number> UnsortedSegmentProd<T> unsortedSegmentProd(Operand<T> data, Operand<U> segmentIds, Operand<V> numSegments)
UnsortedSegmentProd operationdata - segmentIds - A tensor whose shape is a prefix of `data.shape`.numSegments - UnsortedSegmentProdpublic <T extends Number> Softplus<T> softplus(Operand<T> features)
Softplus operationfeatures - Softpluspublic <T> Real<Float> real(Operand<T> input)
Real operationinput - Realpublic <T,U extends Number> ArgMin<Long> argMin(Operand<T> input, Operand<U> dimension)
ArgMin operationinput - dimension - int32 or int64, must be in the range `[-rank(input), rank(input))`.ArgMinpublic <T> Atanh<T> atanh(Operand<T> x)
Atanh operationx - Atanhpublic <T extends Number> Maximum<T> maximum(Operand<T> x, Operand<T> y)
Maximum operationx - y - Maximumpublic <T> Reciprocal<T> reciprocal(Operand<T> x)
Reciprocal operationx - ReciprocalCopyright © 2015–2019. All rights reserved.