JLComplexF64MatrixTranscendentalFunctions

jla64.spad line 997 [edit on github]

Linear Algebra functions computed using Julia and its algorithms.

acos: JLComplexF64Matrix -> JLComplexF64Matrix

acos(m) computes the inverse matrix cosine of m.

acosd: JLComplexF64Matrix -> JLComplexF64Matrix

acosd(m) computes the inverse matrix cosine of m. Output is in degrees.

acosh: JLComplexF64Matrix -> JLComplexF64Matrix

acosh(m) computes the inverse matrix hyperbolic cosine of m.

acot: JLComplexF64Matrix -> JLComplexF64Matrix

acot(m) computes the inverse matrix cotangent of m.

acotd: JLComplexF64Matrix -> JLComplexF64Matrix

acotd(m) computes the inverse matrix cotangent of m. Output is in degrees.

acoth: JLComplexF64Matrix -> JLComplexF64Matrix

acoth(m) computes the inverse matrix hyperbolic cotangent of m.

acsc: JLComplexF64Matrix -> JLComplexF64Matrix

acsc(m) computes the inverse matrix cosecant of m.

acscd: JLComplexF64Matrix -> JLComplexF64Matrix

acscd(m) computes the inverse matrix cosecant of m. Output is in degrees.

acsch: JLComplexF64Matrix -> JLComplexF64Matrix

acsch(m) computes the inverse matrix hyperbolic cosecant of m.

asec: JLComplexF64Matrix -> JLComplexF64Matrix

asec(m) computes the inverse matrix secant of m.

asecd: JLComplexF64Matrix -> JLComplexF64Matrix

asecd(m) computes the inverse matrix secant of m. Output is in degrees.

asech: JLComplexF64Matrix -> JLComplexF64Matrix

asech(m) computes the inverse matrix hyperbolic secant of m.

asin: JLComplexF64Matrix -> JLComplexF64Matrix

asin(m) computes the inverse matrix sine of m.

asind: JLComplexF64Matrix -> JLComplexF64Matrix

asind(m) computes the inverse matrix sine of m. Output is in degrees.

asinh: JLComplexF64Matrix -> JLComplexF64Matrix

asinh(m) computes the inverse matrix hyperbolic sine of m.

atan: JLComplexF64Matrix -> JLComplexF64Matrix

atan(m) computes the inverse matrix tangent of m.

atand: JLComplexF64Matrix -> JLComplexF64Matrix

atand(m) computes the inverse matrix tangent of m. Output is in degrees.

atanh: JLComplexF64Matrix -> JLComplexF64Matrix

atanh(m) computes the inverse matrix hyperbolic tangent of m.

cis: JLComplexF64Matrix -> JLComplexF64Matrix

cis(m) returns exp(%i*m) computed efficiently.

cos: JLComplexF64Matrix -> JLComplexF64Matrix

cos(m) computes the matrix cosine of m.

cosd: JLComplexF64Matrix -> JLComplexF64Matrix

cosd(m) computes the matrix cosine of m, where m is in degrees.

cosh: JLComplexF64Matrix -> JLComplexF64Matrix

cosh(m) computes the matrix hyperbolic cosine of m.

cot: JLComplexF64Matrix -> JLComplexF64Matrix

cot(m) computes the matrix cotangent of m.

coth: JLComplexF64Matrix -> JLComplexF64Matrix

coth(m) computes the matrix hyperbolic cotangent of m.

csc: JLComplexF64Matrix -> JLComplexF64Matrix

csc(m) computes the matrix cosecant of m.

csch: JLComplexF64Matrix -> JLComplexF64Matrix

csch(m) computes the matrix hyperbolic cosecant of m.

sec: JLComplexF64Matrix -> JLComplexF64Matrix

sec(m) computes the matrix secant of m.

sech: JLComplexF64Matrix -> JLComplexF64Matrix

sech(m) computes the matrix hyperbolic secant of m.

sin: JLComplexF64Matrix -> JLComplexF64Matrix

sin(m) computes the matrix sine of m.

sind: JLComplexF64Matrix -> JLComplexF64Matrix

sind(m) computes the matrix sine of m, where m is in degrees.

sinh: JLComplexF64Matrix -> JLComplexF64Matrix

sinh(m) computes the matrix hyperbolic sine of m.

tan: JLComplexF64Matrix -> JLComplexF64Matrix

tan(m) computes the matrix tangent of m.

tand: JLComplexF64Matrix -> JLComplexF64Matrix

tand(m) computes the matrix tangent of m, where m is in degrees.

tanh: JLComplexF64Matrix -> JLComplexF64Matrix

tanh(m) computes the matrix hyperbolic tangent of m.