gives the derivative of the Scorer function
.
ScorerHiPrime
gives the derivative of the Scorer function
.
Details
- Mathematical function, suitable for both symbolic and numeric manipulation.
- For certain special arguments, ScorerHiPrime automatically evaluates to exact values.
- ScorerHiPrime can be evaluated to arbitrary numerical precision.
- ScorerHiPrime automatically threads over lists.
- ScorerHiPrime can be used with Interval and CenteredInterval objects. »
Examples
open all close allBasic Examples (4)
ScorerHiPrime[3.]Plot over a subset of the reals:
Plot[ScorerHiPrime[x], {x, -10, 3}]Plot over a subset of the complexes:
ComplexPlot3D[ScorerHiPrime[z], {z, -2 - 2I, 2 + 2I}, PlotLegends -> Automatic]Series expansion at the origin:
Series[ScorerHiPrime[x], {x, 0, 4}]//FullSimplifyScope (31)
Numerical Evaluation (6)
ScorerHiPrime[7.]N[ScorerHiPrime[Pi / 3]]N[ScorerHiPrime[1 / 3], 50]The precision of the output tracks the precision of the input:
ScorerHiPrime[0.312785550000555523000]ScorerHiPrime[0.2 + I]N[ScorerHiPrime[I Pi / 3]]Evaluate efficiently at high precision:
N[ScorerHiPrime[Pi / 3`100]]//TimingN[ScorerHiPrime[Pi / 4`10000]];//TimingCompute worst-case guaranteed intervals using Interval and CenteredInterval objects:
ScorerHiPrime[Interval[{0.5, 0.6}]]ScorerHiPrime[CenteredInterval[2, 1 / 100]]Or compute average-case statistical intervals using Around:
ScorerHiPrime[Around[.9, 0.1]]Compute the elementwise values of an array:
ScorerHiPrime[{{1.3, .5}, {0, 0.2}}]Or compute the matrix ScorerHiPrime function using MatrixFunction:
MatrixFunction[ScorerHiPrime[#]&, {{1.3, .5}, {0, 0.2}}]Specific Values (3)
Simple exact values are generated automatically:
ScorerHiPrime[0]Limit[ScorerHiPrime[x], x -> Infinity]Find a value of x for which ScorerHiPrime[x]=4:
xval = x /. FindRoot[ScorerHiPrime[x] == 4, {x, 2}]Plot[ScorerHiPrime[x ], {x, 0, 3}, Epilog -> Style[Point[{xval, ScorerHiPrime[xval ]}], PointSize[Large], Red]]Visualization (2)
Plot the ScorerHiPrime function:
Plot[ScorerHiPrime[x], {x, -8, 4}]ComplexContourPlot[Re[ScorerHiPrime[z]], {z, -4 - 4I, 4 + 4I}, Contours -> 24]ComplexContourPlot[Im[ScorerGiPrime[z]], {z, -4 - 4I, 4 + 4I}, Contours -> 24]Function Properties (11)
Real domain of ScorerHiPrime:
FunctionDomain[ScorerHiPrime[x], x]FunctionDomain[ScorerHiPrime[z], z, Complexes]Approximate function range of ScorerHiPrime:
FunctionRange[ScorerHiPrime[x], x, y]//QuietScorerHiPrime threads elementwise over lists:
ScorerHiPrime[{-1., 1., 2.}]ScorerHiPrime is an analytic function of x:
FunctionAnalytic[ScorerHiPrime[x], x]ScorerHiPrime is nondecreasing:
FunctionMonotonicity[ScorerHiPrime[x], x]ScorerHiPrime is injective:
FunctionInjective[ScorerHiPrime[x], x]Plot[{ScorerHiPrime[x], 1}, {x, -10, 5}]ScorerHiPrime is not surjective:
FunctionSurjective[ScorerHiPrime[x], x]Plot[{ScorerHiPrime[x], -1}, {x, -10, 5}]ScorerHiPrime is non-negative:
FunctionSign[ScorerHiPrime[x], x]ScorerHiPrime does not have either singularity or discontinuity:
FunctionSingularities[ScorerHiPrime[x], x]FunctionDiscontinuities[ScorerHiPrime[x], x]ScorerHiPrime is convex:
FunctionConvexity[ScorerHiPrime[x], x]TraditionalForm typesetting:
ScorerHiPrime[z]//TraditionalFormDifferentiation and Integration (4)
First derivative with respect to z:
D[ScorerHiPrime[z] , z]Higher derivatives with respect to z:
Table[D[ScorerHiPrime[z], {z, k}], {k, 1, 3}]//SimplifyPlot the higher derivatives with respect to z:
Plot[%, {z, -5, 5}, PlotLegends -> {"First Derivative", "Second Derivative", "Third Derivative"}]Formula for the ![]()
derivative with respect to z:
D[ScorerHiPrime[z], {z, k}]// FullSimplifyIndefinite integral of ScorerHiPrime:
Integrate[ScorerHiPrime[x], x]Series Expansions (2)
Find the Taylor expansion using Series:
Series[ScorerHiPrime[x], {x, 0, 3}]Plots of the first three approximations around
:
terms = Normal@Table[Series[ScorerHiPrime[x], {x, 0, m}], {m, 1, 5, 2}];
Plot[{ScorerHi[x], terms}, {x, -5, 5}, PlotRange -> {-5, 5}]Taylor expansion at a generic point:
Series[ScorerHiPrime[x], {x, x0, 2}]// FullSimplifyFunction Identities and Simplifications (3)
FunctionExpand tries to simplify the argument of ScorerHiPrime:
FunctionExpand[ScorerHiPrime[z E^2 π I]]//SimplifyFunctionExpand[ScorerHiPrime[(z^2)^1 / 2]]//SimplifyScorerHiPrime[z] + E^2 π I ScorerHiPrime[z E^2 π I] + E^-2 π I ScorerHiPrime[z E^-2 π I]//FullSimplifyScorerHiPrime can be represented as a DifferentialRoot:
DifferentialRootReduce[ScorerHiPrime[x], x]See Also
Related Guides
History
Text
Wolfram Research (2014), ScorerHiPrime, Wolfram Language function, https://reference.wolfram.com/language/ref/ScorerHiPrime.html.
CMS
Wolfram Language. 2014. "ScorerHiPrime." Wolfram Language & System Documentation Center. Wolfram Research. https://reference.wolfram.com/language/ref/ScorerHiPrime.html.
APA
Wolfram Language. (2014). ScorerHiPrime. Wolfram Language & System Documentation Center. Retrieved from https://reference.wolfram.com/language/ref/ScorerHiPrime.html
BibTeX
@misc{reference.wolfram_2026_scorerhiprime, author="Wolfram Research", title="{ScorerHiPrime}", year="2014", howpublished="\url{https://reference.wolfram.com/language/ref/ScorerHiPrime.html}", note=[Accessed: 12-June-2026]}
BibLaTeX
@online{reference.wolfram_2026_scorerhiprime, organization={Wolfram Research}, title={ScorerHiPrime}, year={2014}, url={https://reference.wolfram.com/language/ref/ScorerHiPrime.html}, note=[Accessed: 12-June-2026]}