TraditionalForm Reference Information
TraditionalForm differs from
StandardForm, the default format for input and output. It is important to understand that
TraditionalForm expressions cannot always be provided as unambiguous input to
Mathematica. Therefore, while
StandardForm is an input format and an output format,
TraditionalForm is primarily intended as an output format.
In general, the
TraditionalForm representation of a mathematical function differs from its
StandardForm representation in two ways: function arguments are enclosed in parentheses rather than square brackets, and one-character variable and function names are set in italics rather than plain text.
In addition to these general differences,
TraditionalForm transforms a large group of expressions into their conventionally used mathematical notation. A table listing these expressions and their special
TraditionalForm representations appears later in this tutorial.
This displays a mathematical function that does not have a special notation; the input is in StandardForm and the output is in TraditionalForm.
Out[1]//TraditionalForm= |
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Here is an example of a function that has its own special TraditionalForm notation.
Out[2]//TraditionalForm= |
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Out[3]//TraditionalForm= |
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The
TraditionalForm representations of
Mathematica functions and commands distinct from conventional mathematics use square brackets, as in
StandardForm.
Out[4]//TraditionalForm= |
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The following tables list the expressions that have their own specific
TraditionalForm representations. Entries marked with a star (

) contain hidden information (using
TagBox or
InterpretationBox constructs or specially designed characters) and may not be suitable for unambiguous input.
Mathematical Constants and Domains
Mathematical Constants and Domains.
Numerical Functions
Numerical Functions
Elementary Functions
Elementary Functions
Factorial Related Functions
| StandardForm | TraditionalForm | |
| Beta[a,b] | (a, b) |  |
| Beta[z,a,b] | z (a, b) |  |
| Beta[z0,z1,a,b] | (z0, z1, a, b) |  |
| Binomial[n,m] |  |  |
| Gamma[z] | (z) | |
| Gamma[a,z] | (a, z) | |
| Gamma[a,z1,z2] | (a, z1, z2) | |
| GammaRegularized[a,z] | Q (a, z) |  |
| GammaRegularized[a,z0,z1] | Q (a, z0, z1) |  |
| InverseBetaRegularized[s,a,b] |  |  |
| InverseBetaRegularized[z0,s,a,b] |  |  |
| LogGamma[z] | log (z) | |
| Multinomial[n1,n2,...,nk] | (n1+n2+nk+...;n1, n2, ..., nk) |  |
| Pochhammer[a,n] | (a)n |  |
| PolyGamma[z] | (z) |  |
| PolyGamma[n,z] | (n) (z) |  |
Factorial Related Functions
Combinatorial Functions
| StandardForm | TraditionalForm | |
| BernoulliB[n] | Bn |  |
| BernoulliB[n,z] | Bn (z) |  |
| ClebschGordan[{j1,m1},{j2,m2},{j3,m3}] | j1j2m1m2 j1j2j3m3 |  |
| EulerE[n] | En |  |
| EulerE[n,z] | En (z) |  |
| Fibonacci[n] | Fn |  |
| Fibonacci[n,z] | Fn (z) |  |
| HarmonicNumber[n] | Hn |  |
| HarmonicNumber[n,r] |  |  |
| PartitionsP[z] | p (z) |  |
| PartitionsQ[z] | q (z) |  |
| Signature[e1,e2,...] | e1, e2, ... |  |
| SixJSymbol[{j1,j2,j3},{j4,j5,j6}] |  |  |
| StirlingS1[n,m] |  |  |
| StirlingS2[n,m] |  |  |
| ThreeJSymbol[{j1,m1},{j2,m2},{j3,m3}] |  |  |
Combinatorial Functions
Number Theory
| StandardForm | TraditionalForm | |
| ArithmeticGeometricMean[a,b] | agm (a, b) |  |
| CarmichaelLambda[n] | (n) |  |
| DivisorSigma[k,n] | k (n) |  |
| EulerPhi[n] | (n) |  |
| GCD[n1,n2,...] | gcd (n1, n2, ...) | |
| JacobiSymbol[n,m] |  |  |
| LCM[n1,n2,...] | lcm (n1, n2, ...) | |
| Mod[m,n] | mmodn |  |
| MoebiusMu[n] | (n) |  |
| MultiplicativeOrder[k,n] | ordn (k) | |
| PowerMod[a,b,n] | abmodn |  |
| Prime[n] | pn |  |
| PrimePi[z] | (z) |  |
| RamanujanTau[n] | (n) |  |
| SumOfSquaresR[d,n] | rd (n) |  |
Number Theory
Zeta Related Functions
| StandardForm | TraditionalForm | |
| LerchPhi[z,s,a] | (z, s, a) |  |
| PolyLog[n,z] | Lin (z) |  |
| PolyLog[n,p,z] | Sn, p (z) |  |
| RiemannSiegelTheta[t] | (t) |  |
| RiemannSiegelZ[t] | Z (t) |  |
| StieltjesGamma[z] | z |  |
| Zeta[s] | (s) |  |
| Zeta[s,a] | (s, a) |  |
Zeta Related Functions
Hypergeometric Related Functions
| StandardForm | TraditionalForm | |
| AiryAi[z] | Ai (z) | |
| AiryAiPrime[z] | Ai (z) | |
| AiryBi[z] | Bi (z) | |
| AiryBiPrime[z] | Bi (z) | |
| AppellF1[a,b1,b2,c,x,y] | F1 (a;b1, b2;c;x, y) |  |
| BesselI[n,z] | In (z) | |
| BesselJ[n,z] | Jn (z) | |
| BesselK[n,z] | Kn (z) | |
| BesselY[n,z] | Yn (z) | |
| CosIntegral[z] | Ci (z) | |
| CoshIntegral[z] | Chi (z) | |
| Erf[z] | erf (z) | |
| Erf[z0,z1] | erf (z0, z1) | |
| Erfc[z] | erfc (z) | |
| Erfi[z] | erfi (z) | |
| ExpIntegralE[n,z] | En (z) |  |
| ExpIntegralEi[z] | Ei (z) | |
| FresnelC[z] | C (z) | |
| FresnelS[z] | S (z) | |
| Hypergeometric0F1[a,z] | 0F1 (;a;z) |  |
| Hypergeometric0F1Regularized[a,z] |  |  |
| Hypergeometric1F1[a,b,z] | 1F1 (a;b;z) |  |
| Hypergeometric1F1Regularized[a,b,z] |  |  |
| Hypergeometric2F1[a,b,c,z] | 2F1 (a, b;c;z) |  |
| Hypergeometric2F1Regularized[a,b,c,z] |  |  |
| HypergeometricPFQ[{a1,...,ap},{b1,...,bq},z] | |
| pFq (a1, a2, ...;b1, b2, ...;z) |  |
| HypergeometricPFQRegularized[{a1,...,ap},{b1,...,bq},z] | |
|  |  |
| HypergeometricU[a,b,z] | U (a, b, z) |  |
| LegendreQ[n,x] | Qn (x) |  |
| LegendreQ[n,m,x] |  |  |
| LegendreQ[n,m,a,z] |  |  |
| LogIntegral[z] | li (z) | |
| MeijerG[{{a1,...,an},{an+1,...,ap}},{{b1,...,bm},{bm+1,...,bq}},z] | |
|  |  |
| MeijerG[{{a1,...,an},{an+1,...,ap}},{{b1,...,bm},{bm+1,...,bq}},z,r] | |
|  |  |
| SinIntegral[z] | Si (z) | |
| SinhIntegral[z] | Shi (z) | |
StruveH[ ,z] | H (z) |  |
StruveL[ ,z] | L (z) |  |
Hypergeometric Related Functions
Orthogonal Polynomials
| StandardForm | TraditionalForm | |
| ChebyshevT[n,x] | Tn (x) | |
| ChebyshevU[n,x] | Un (x) | |
| GegenbauerC[n,x] | Cn (x) | |
| GegenbauerC[n,m,x] |  | |
| HermiteH[n,x] | Hn (x) | |
| JacobiP[n,a,b,x] |  | |
| LaguerreL[n,x] | Ln (x) | |
| LaguerreL[n,a,x] |  | |
| LegendreP[n,x] | Pn (x) |  |
| LegendreP[n,m,x] |  |  |
| LegendreP[n,m,a,z] |  |  |
SphericalHarmonicY[l,m, , ] |  |  |
Orthogonal Polynomials
Inverse Functions
Inverse Functions
Elliptic Integrals
Elliptic Integrals
Elliptic Functions
| StandardForm | TraditionalForm | |
| DedekindEta[t] | (t) |  |
| EllipticTheta[a,u,q] | a (u, q) | |
| EllipticThetaPrime[a,u,q] |  |  |
| InverseEllipticNomeQ[q] | q-1 (q) |  |
| InverseJacobiCD[u,m] | cd-1 (u m) |  |
| InverseJacobiCN[u,m] | cn-1 (u m) |  |
| InverseJacobiCS[u,m] | cs-1 (u m) |  |
| InverseJacobiDC[u,m] | dc-1 (u m) |  |
| InverseJacobiDN[u,m] | dn-1 (u m) |  |
| InverseJacobiDS[u,m] | ds-1 (u m) |  |
| InverseJacobiNC[u,m] | nc-1 (u m) |  |
| InverseJacobiND[u,m] | nd-1 (u m) |  |
| InverseJacobiNS[u,m] | ns-1 (u m) |  |
| InverseJacobiSC[u,m] | sc-1 (u m) |  |
| InverseJacobiSD[u,m] | sd-1 (u m) |  |
| InverseJacobiSN[u,m] | sn-1 (u m) |  |
| InverseWeierstrassP[p,{g2,g3}] | -1 (p;g2, g3) | |
| JacobiAmplitude[u,m] | am (u m) | |
| JacobiCD[u,m] | cd (u m) |  |
| JacobiCN[u,m] | cn (u m) |  |
| JacobiCS[u,m] | cs (u m) |  |
| JacobiDC[u,m] | dc (u m) |  |
| JacobiDN[u,m] | dn (u m) |  |
| JacobiDS[u,m] | ds (u m) |  |
| JacobiNC[u,m] | nc (u m) |  |
| JacobiND[u,m] | nd (u m) |  |
| JacobiNS[u,m] | ns (u m) |  |
| JacobiSC[u,m] | sc (u m) |  |
| JacobiSD[u,m] | sd (u m) |  |
| JacobiSN[u,m] | sn (u m) |  |
KleinInvariantJ[ ] | J ( ) |  |
ModularLambda[ ] | ( ) |  |
| NevilleThetaC[u,m] | c (u m) |  |
| NevilleThetaD[u,m] | d (u m) |  |
| NevilleThetaN[u,m] | n (u m) |  |
| NevilleThetaS[u,m] | s (u m) |  |
| WeierstrassP[u,{g2,g3}] | (u;g2, g3) | |
| WeierstrassPPrime[u,{g2,g3}] |  (u;g2, g3) |  |
| WeierstrassSigma[u,{g2,g3}] | (u;g2, g3) |  |
| WeierstrassZeta[u,{g2,g3}] | (u;g2, g3) |  |
Elliptic Functions
Mathieu Functions
Mathieu Functions
Generalized and Related Functions
| StandardForm | TraditionalForm | |
| DiracDelta[x1,x2,...] | (x1, x2, ...) |  |
| DiscreteDelta[n1,n2,...] | (n1, n2, ...) |  |
| KroneckerDelta[n1,n2,...] | n1, n2, ... |  |
| UnitStep[x1,x2,...] | (x1, x2, ...) |  |
Generalized and Related Functions
Matrix Operations
Matrix Operations
Logical Operations
| StandardForm | TraditionalForm | |
| And[p1,p2,...] | p1 p2 ... | |
| Implies[a,b] | a b |  |
| Nand[p1,p2,...] | p1 p2 ... | |
| Nor[p1,p2,...] | p1 p2 ... | |
| Not[p] | ¬p | |
| Or[p1,p2,...] | p1 p2 ... | |
| Xor[p1,p2,...] | p1 p2 ... | |
Logical Operations
Calculus
| StandardForm | TraditionalForm | |
| C[n] | cn |  |
| D[f[x]] | D[f (x)] | |
| D[f[x],x] |  | |
| D[f[x],{x,2}] |  | |
| D[f[x],{x,n}] |  | |
| Dt[f[x]] | f (x) |  |
| Dt[f[x],x] |  | |
| Dt[f[x],{x,2}] |  | |
| Dt[f[x],{x,n}] |  | |
| Derivative[1][f] | f | |
| Derivative[2][f] | f  | |
| Derivative[d1,...][f] | f (d1, ...) |  |
| FourierTransform[expr,t,s] | t[expr] (s) | |
| FourierTransform[expr,{t1,t2,...},{s1,s2,...}] | t1, t2, ...[expr] (s1, s2, ...) | |
| Integrate[expr,x] | expr x | |
| Integrate[expr,x1,y,z] |   expr z y x1 | |
| Integrate[expr,{x,a,b}] |  | |
| Integrate[expr,{x,a,b},{y,m,n},{z,p,q}] |  | |
| InverseFourierTransform[expr,s,t] |  | |
| InverseFourierTransform[expr,{s1,s2,...},{t1,t2,...}] |  | |
| InverseLaplaceTransform[expr,s,t] |  | |
| InverseLaplaceTransform[expr,{s1,s2,...},{t1,t2,...}] |  | |
| LaplaceTransform[expr,t,s] | t[expr] (s) | |
| LaplaceTransform[expr,{t1,t2,...},{s1,s2,...}] | t1, t2, ... [expr] (s1, s2, ...) | |
| Limit[f[x],x→a] |  | |
| Limit[f[x],x→a,Direction→+1] |  | |
| Limit[f[x],x→a,Direction→-1] |  | |
| O[x] | O (x) | |
| O[x]^n | O (x)n | |
| O[x,a] | O (x-a) | |
| O[x,a]^n | O (x-a)n | |
| Piecewise[{{v1,c1},{v2,c2},...}] |  |  |
| Residue[z] | res (z) | |
| Series[f[x],{x,a,0}] | f (a)+O ( (x-a)1) |  |
| Series[f[x],{x,a,1}] | f (a)+f (a) (x-a)+O ( (x-a)2) |  |
| Series[Tan[z^(2/3)],{z,0,3}] |  |  |
Calculus
Polynomial Functions
Polynomial Functions
Complete Alphabetical Listing
| StandardForm | TraditionalForm | |
| Abs[z] | z |  |
| AiryAi[z] | Ai (z) | |
| AiryAiPrime[z] | Ai (z) | |
| AiryBi[z] | Bi (z) | |
| AiryBiPrime[z] | Bi (z) | |
| Algebraics |  |  |
| And[p1,p2,...] | p1 p2 ... | |
| AppellF1[a,b1,b2,c,x,y] | F1 (a;b1, b2;c;x, y) |  |
| ArcCos[z] | cos-1 (z) | |
| ArcCosh[z] | cosh-1 (z) | |
| ArcCot[z] | cot-1 (z) | |
| ArcCoth[z] | coth-1 (z) | |
| ArcCsc[z] | csc-1 (z) | |
| ArcCsch[z] | csch-1 (z) | |
| ArcSec[z] | sec-1 (z) | |
| ArcSech[z] | sech-1 (z) | |
| ArcSin[z] | sin-1 (z) | |
| ArcSinh[z] | sinh-1 (z) | |
| ArcTan[z] | tan-1 (z) | |
| ArcTanh[z] | tanh-1 (z) | |
| ArithmeticGeometricMean[a,b] | agm (a, b) |  |
|