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Chapter 1
[1.0]
flmoon
calculate phases of the moon by date
[1.1]
julday
Julian Day number from calendar date
[1.1]
badluk
Friday the 13th when the moon is full
[1.1]
caldat
calendar date from Julian day number
Chapter 2
[2.1]
gaussj
Gauss-Jordan matrix inversion and linear equation solution
[2.3]
ludcmp
linear equation solution, LU decomposition
[2.3]
lubksb
linear equation solution, backsubstitution
[2.4]
tridag
solution of tridiagonal systems
[2.4]
banmul
multiply vector by band diagonal matrix
[2.4]
bandec
band diagonal systems, decomposition
[2.4]
banbks
band diagonal systems, backsubstitution
[2.5]
mprove
linear equation solution, iterative improvement
[2.6]
svbksb
singular value backsubstitution
[2.6]
svdcmp
singular value decomposition of a matrix
[2.6]
pythag
calculate (a^2+b^2)^{1/2} without overflow
[2.7]
cyclic
solution of cyclic tridiagonal systems
[2.7]
sprsin
convert matrix to sparse format
[2.7]
sprsax
product of sparse matrix and vector
[2.7]
sprstx
product of transpose sparse matrix and vector
[2.7]
sprstp
transpose of sparse matrix
[2.7]
sprspm
pattern multiply two sparse matrices
[2.7]
sprstm
threshold multiply two sparse matrices
[2.7]
linbcg
biconjugate gradient solution of sparse systems
[2.7]
snrm
used by linbcg for vector norm
[2.7]
atimes
used by linbcg for sparse multiplication
[2.7]
asolve
used by linbcg for preconditioner
[2.8]
vander
solve Vandermonde systems
[2.8]
toeplz
solve Toeplitz systems
[2.9]
choldc
Cholesky decomposition
[2.9]
cholsl
Cholesky backsubstitution
[2.10]
qrdcmp
QR decomposition
[2.10]
qrsolv
QR backsubstitution
[2.10]
rsolv
right triangular backsubstitution
[2.10]
qrupdt
update a QR decomposition
[2.10]
rotate
Jacobi rotation used by qrupdt
Chapter 3
[3.1]
polint
polynomial interpolation
[3.2]
ratint
rational function interpolation
[3.3]
spline
construct a cubic spline
[3.3]
splint
cubic spline interpolation
[3.4]
locate
search an ordered table by bisection
[3.4]
hunt
search a table when calls are correlated
[3.5]
polcoe
polynomial coefficients from table of values
[3.5]
polcof
polynomial coefficients from table of values
[3.6]
polin2
two-dimensional polynomial interpolation
[3.6]
bcucof
construct two-dimensional bicubic
[3.6]
bcuint
two-dimensional bicubic interpolation
[3.6]
splie2
construct two-dimensional spline
[3.6]
splin2
two-dimensional spline interpolation
Chapter 4
[4.2]
trapzd
trapezoidal rule
[4.2]
qtrap
integrate using trapezoidal rule
[4.2]
qsimp
integrate using Simpson's rule
[4.3]
qromb
integrate using Romberg adaptive method
[4.4]
midpnt
extended midpoint rule
[4.4]
qromo
integrate using open Romberg adaptive method
[4.4]
midinf
integrate a function on a semi-infinite interval
[4.4]
midsql
integrate a function with lower square-root singularity
[4.4]
midsqu
integrate a function with upper square-root singularity
[4.4]
midexp
integrate a function that decreases exponentially
[4.5]
qgaus
integrate a function by Gaussian quadratures
[4.5]
gauleg
Gauss-Legendre weights and abscissas
[4.5]
gaulag
Gauss-Laguerre weights and abscissas
[4.5]
gauher
Gauss-Hermite weights and abscissas
[4.5]
gaujac
Gauss-Jacobi weights and abscissas
[4.5]
gaucof
quadrature weights from orthogonal polynomials
[4.5]
orthog
construct nonclassical orthogonal polynomials
[4.6]
quad3d
integrate a function over a three-dimensional space
Chapter 5
[5.1]
eulsum
sum a series by Euler--van Wijngaarden algorithm
[5.3]
ddpoly
evaluate a polynomial and its derivatives
[5.3]
poldiv
divide one polynomial by another
[5.3]
ratval
evaluate a rational function
[5.7]
dfridr
numerical derivative by Ridders' method
[5.8]
chebft
fit a Chebyshev polynomial to a function
[5.8]
chebev
Chebyshev polynomial evaluation
[5.9]
chder
derivative of a function already Chebyshev fitted
[5.9]
chint
integrate a function already Chebyshev fitted
[5.10]
chebpc
polynomial coefficients from a Chebyshev fit
[5.10]
pcshft
polynomial coefficients of a shifted polynomial
[5.11]
pccheb
inverse of chebpc; use to economize power series
[5.12]
pade
Pade approximant from power series coefficients
[5.13]
ratlsq
rational fit by least-squares method
Chapter 6
[6.1]
gammln
logarithm of gamma function
[6.1]
factrl
factorial function
[6.1]
bico
binomial coefficients function
[6.1]
factln
logarithm of factorial function
[6.1]
beta
beta function
[6.2]
gammp
incomplete gamma function
[6.2]
gammq
complement of incomplete gamma function
[6.2]
gser
series used by gammp and gammq
[6.2]
gcf
continued fraction used by gammp and gammq
[6.2]
erf
error function
[6.2]
erfc
complementary error function
[6.2]
erfcc
complementary error function, concise routine
[6.3]
expint
exponential integral E_n
[6.3]
ei
exponential integral Ei
[6.4]
betai
incomplete beta function
[6.4]
betacf
continued fraction used by betai
[6.5]
bessj0
Bessel function J_0
[6.5]
bessy0
Bessel function Y_0
[6.5]
bessj1
Bessel function J_1
[6.5]
bessy1
Bessel function Y_1
[6.5]
bessy
Bessel function Y of general integer order
[6.5]
bessj
Bessel function J of general integer order
[6.6]
bessi0
modified Bessel function I_0
[6.6]
bessk0
modified Bessel function K_0
[6.6]
bessi1
modified Bessel function I_1
[6.6]
bessk1
modified Bessel function K_1
[6.6]
bessk
modified Bessel function K of integer order
[6.6]
bessi
modified Bessel function I of integer order
[6.7]
bessjy
Bessel functions of fractional order
[6.7]
beschb
Chebyshev expansion used by bessjy
[6.7]
bessik
modified Bessel functions of fractional order
[6.7]
airy
Airy functions
[6.7]
sphbes
spherical Bessel functions j_n and y_n
[6.8]
plgndr
Legendre polynomials, associated (spherical harmonics)
[6.9]
frenel
Fresnel integrals S(x) and C(x)
[6.9]
cisi
cosine and sine integrals Ci and Si
[6.10]
dawson
Dawson's integral
[6.11]
rf
Carlson's elliptic integral of the first kind
[6.11]
rd
Carlson's elliptic integral of the second kind
[6.11]
rj
Carlson's elliptic integral of the third kind
[6.11]
rc
Carlson's degenerate elliptic integral
[6.11]
ellf
Legendre elliptic integral of the first kind
[6.11]
elle
Legendre elliptic integral of the second kind
[6.11]
ellpi
Legendre elliptic integral of the third kind
[6.11]
sncndn
Jacobian elliptic functions
[6.12]
hypgeo
complex hypergeometric function
[6.12]
hypser
complex hypergeometric function, series evaluation
[6.12]
hypdrv
complex hypergeometric function, derivative of
Chapter 7
[7.1]
ran0
random deviate by Park and Miller minimal standard
[7.1]
ran1
random deviate, minimal standard plus shuffle
[7.1]
ran2
random deviate by L'Ecuyer long period plus shuffle
[7.1]
ran3
random deviate by Knuth subtractive method
[7.2]
expdev
exponential random deviates
[7.2]
gasdev
normally distributed random deviates
[7.3]
gamdev
gamma-law distribution random deviates
[7.3]
poidev
Poisson distributed random deviates
[7.3]
bnldev
binomial distributed random deviates
[7.4]
irbit1
random bit sequence
[7.4]
irbit2
random bit sequence
[7.5]
psdes
``pseudo-DES'' hashing of 64 bits
[7.5]
ran4
random deviates from DES-like hashing
[7.7]
sobseq
Sobol's quasi-random sequence
[7.8]
vegas
adaptive multidimensional Monte Carlo integration
[7.8]
rebin
sample rebinning used by vegas
[7.8]
miser
recursive multidimensional Monte Carlo integration
[7.8]
ranpt
get random point, used by miser
Chapter 8
[8.1]
piksrt
sort an array by straight insertion
[8.1]
piksr2
sort two arrays by straight insertion
[8.1]
shell
sort an array by Shell's method
[8.2]
sort
sort an array by quicksort method
[8.2]
sort2
sort two arrays by quicksort method
[8.3]
hpsort
sort an array by heapsort method
[8.4]
indexx
construct an index for an array
[8.4]
sort3
sort, use an index to sort 3 or more arrays
[8.4]
rank
construct a rank table for an array
[8.5]
select
find the Nth largest in an array
[8.5]
selip
find the Nth largest, without altering an array
[8.5]
hpsel
find M largest values, without altering an array
[8.6]
eclass
determine equivalence classes from list
[8.6]
eclazz
determine equivalence classes from procedure
Chapter 9
[9.0]
scrsho
graph a function to search for roots
[9.1]
zbrac
outward search for brackets on roots
[9.1]
zbrak
inward search for brackets on roots
[9.1]
rtbis
find root of a function by bisection
[9.2]
rtflsp
find root of a function by false-position
[9.2]
rtsec
find root of a function by secant method
[9.2]
zriddr
find root of a function by Ridders' method
[9.3]
zbrent
find root of a function by Brent's method
[9.4]
rtnewt
find root of a function by Newton-Raphson
[9.4]
rtsafe
find root of a function by Newton-Raphson and bisection
[9.5]
laguer
find a root of a polynomial by Laguerre's method
[9.5]
zroots
roots of a polynomial by Laguerre's method with deflation
[9.5]
zrhqr
roots of a polynomial by eigenvalue methods
[9.5]
qroot
complex or double root of a polynomial, Bairstow
[9.6]
mnewt
Newton's method for systems of equations
[9.7]
lnsrch
search along a line, used by newt
[9.7]
newt
globally convergent multi-dimensional Newton's method
[9.7]
fdjac
finite-difference Jacobian, used by newt
[9.7]
fmin
norm of a vector function, used by newt
[9.7]
broydn
secant method for systems of equations
Chapter 10
[10.1]
mnbrak
bracket the minimum of a function
[10.1]
golden
find minimum of a function by golden section search
[10.2]
brent
find minimum of a function by Brent's method
[10.3]
dbrent
find minimum of a function using derivative information
[10.4]
amoeba
minimize in N-dimensions by downhill simplex method
[10.4]
amotry
evaluate a trial point, used by amoeba
[10.5]
powell
minimize in N-dimensions by Powell's method
[10.5]
linmin
minimum of a function along a ray in N-dimensions
[10.5]
f1dim
function used by LINMIN
[10.6]
frprmn
minimize in N-dimensions by conjugate gradient
[10.6]
df1dim
alternative function used by LINMIN
[10.7]
dfpmin
minimize in N-dimensions by variable metric method
[10.8]
simplx
linear programming maximization of a linear function
[10.8]
simp1
linear programming, used by SIMPLX
[10.8]
simp2
linear programming, used by SIMPLX
[10.8]
simp3
linear programming, used by SIMPLX
[10.9]
anneal
traveling salesman problem by simulated annealing
[10.9]
revcst
cost of a reversal, used by anneal
[10.9]
revers
do a reversal, used by anneal
[10.9]
trncst
cost of a transposition, used by anneal
[10.9]
trnspt
do a transposition, used by anneal
[10.9]
metrop
Metropolis algorithm, used by anneal
[10.9]
amebsa
simulated annealing in continuous spaces
[10.9]
amotsa
evaluate a trial point, used by amebsa
Chapter 11
[11.1]
jacobi
eigenvalues and eigenvectors of a symmetric matrix
[11.1]
eigsrt
eigenvectors, sorts into order by eigenvalue
[11.2]
tred2
Householder reduction of a real, symmetric matrix
[11.3]
tqli
eigensolution of a symmetric tridiagonal matrix
[11.5]
balanc
balance a nonsymmetric matrix
[11.5]
elmhes
reduce a general matrix to Hessenberg form
[11.6]
hqr
eigenvalues of a Hessenberg matrix
Chapter 12
[12.2]
four1
fast Fourier transform (FFT) in one dimension
[12.3]
twofft
fast Fourier transform of two real functions
[12.3]
realft
fast Fourier transform of a single real function
[12.3]
sinft
fast sine transform
[12.3]
cosft1
fast cosine transform with endpoints
[12.3]
cosft2
``staggered'' fast cosine transform
[12.4]
fourn
fast Fourier transform in multidimensions
[12.5]
rlft3
FFT of real data in two or three dimensions
[12.6]
fourfs
FFT for huge data sets on external media
[12.6]
fourew
rewind and permute files, used by fourfs
Chapter 13
[13.1]
convlv
convolution or deconvolution of data using FFT
[13.2]
correl
correlation or autocorrelation of data using FFT
[13.4]
spctrm
power spectrum estimation using FFT
[13.6]
memcof
evaluate maximum entropy (MEM) coefficients
[13.6]
fixrts
reflect roots of a polynomial into unit circle
[13.6]
predic
linear prediction using MEM coefficients
[13.7]
evlmem
power spectral estimation from MEM coefficients
[13.8]
period
power spectrum of unevenly sampled data
[13.8]
fasper
power spectrum of unevenly sampled larger data sets
[13.8]
spread
extirpolate value into array, used by fasper
[13.9]
dftcor
compute endpoint corrections for Fourier integrals
[13.9]
dftint
high-accuracy Fourier integrals
[13.10]
wt1
one-dimensional discrete wavelet transform
[13.10]
daub4
Daubechies 4-coefficient wavelet filter
[13.10]
pwtset
initialize coefficients for pwt
[13.10]
pwt
partial wavelet transform
[13.10]
wtn
multidimensional discrete wavelet transform
Chapter 14
[14.1]
moment
calculate moments of a data set
[14.2]
ttest
Student's t-test for difference of means
[14.2]
avevar
calculate mean and variance of a data set
[14.2]
tutest
Student's t-test for means, case of unequal variances
[14.2]
tptest
Student's t-test for means, case of paired data
[14.2]
ftest
F-test for difference of variances
[14.3]
chsone
chi-square test for difference between data and model
[14.3]
chstwo
chi-square test for difference between two data sets
[14.3]
ksone
Kolmogorov-Smirnov test of data against model
[14.3]
kstwo
Kolmogorov-Smirnov test between two data sets
[14.3]
probks
Kolmogorov-Smirnov probability function
[14.4]
cntab1
contingency table analysis using chi-square
[14.4]
cntab2
contingency table analysis using entropy measure
[14.5]
pearsn
Pearson's correlation between two data sets
[14.6]
spear
Spearman's rank correlation between two data sets
[14.6]
crank
replaces array elements by their rank
[14.6]
kendl1
correlation between two data sets, Kendall's tau
[14.6]
kendl2
contingency table analysis using Kendall's tau
[14.7]
ks2d1s
K--S test in two dimensions, data vs. model
[14.7]
quadct
count points by quadrants, used by ks2d1s
[14.7]
quadvl
quadrant probabilities, used by ks2d1s
[14.7]
ks2d2s
K--S test in two dimensions, data vs. data
[14.8]
savgol
Savitzky-Golay smoothing coefficients
Chapter 15
[15.2]
fit
least-squares fit data to a straight line
[15.3]
fitexy
fit data to a straight line, errors in both x and y
[15.3]
chixy
used by fitexy to calculate a chi^2
[15.4]
lfit
general linear least-squares fit by normal equations
[15.4]
covsrt
rearrange covariance matrix, used by LFIT
[15.4]
svdfit
linear least-squares fit by singular value decomposition
[15.4]
svdvar
variances from singular value decomposition
[15.4]
fpoly
fit a polynomial using LFIT or SVDFIT
[15.4]
fleg
fit a Legendre polynomial using LFIT or SVDFIT
[15.5]
mrqmin
nonlinear least-squares fit, Marquardt's method
[15.5]
mrqcof
used by MRQMIN to evaluate coefficients
[15.5]
fgauss
fit a sum of Gaussians using MRQMIN
[15.7]
medfit
fit data to a straight line robustly, least absolute deviation
[15.7]
rofunc
fit data robustly, used by MEDFIT
Chapter 16
[16.1]
rk4
integrate one step of ODEs, fourth-order Runge-Kutta
[16.1]
rkdumb
integrate ODEs by fourth-order Runge-Kutta
[16.2]
rkqs
integrate one step of ODEs with accuracy monitoring
[16.2]
rkck
Cash-Karp-Runge-Kutta step used by rkqs
[16.2]
odeint
integrate ODEs with accuracy monitoring
[16.3]
mmid
integrate ODEs by modified midpoint method
[16.4]
bsstep
integrate ODEs, Bulirsch-Stoer step
[16.4]
pzextr
polynomial extrapolation, used by BSSTEP
[16.4]
rzextr
rational function extrapolation, used by BSSTEP
[16.5]
stoerm
integrate conservative second-order ODEs
[16.6]
stiff
integrate stiff ODEs by fourth-order Rosenbrock
[16.6]
jacobn
sample Jacobian routine for stiff
[16.6]
derivs
sample derivatives routine for stiff
[16.6]
simpr
integrate stiff ODEs by semi-implicit midpoint rule
[16.6]
stifbs
integrate stiff ODEs, Bulirsch-Stoer step
Chapter 17
[17.1]
shoot
solve two point boundary value problem by shooting
[17.2]
shootf
ditto, by shooting to a fitting point
[17.3]
solvde
two point boundary value problem, solve by relaxation
[17.3]
bksub
backsubstitution, used by SOLVDE
[17.3]
pinvs
diagonalize a sub-block, used by SOLVDE
[17.3]
red
reduce columns of a matrix, used by SOLVDE
[17.4]
sfroid
spheroidal functions by method of SOLVDE
[17.4]
difeq
spheroidal matrix coefficients, used by SFROID
[17.4]
sphoot
spheroidal functions by method of shoot
[17.4]
sphfpt
spheroidal functions by method of shootf
Chapter 18
[18.1]
fred2
solve linear Fredholm equations of the second kind
[18.1]
fredin
interpolate solutions obtained with fred2
[18.2]
voltra
linear Volterra equations of the second kind
[18.3]
wwghts
quadrature weights for an arbitrarily singular kernel
[18.3]
kermom
sample routine for moments of a singular kernel
[18.3]
quadmx
sample routine for a quadrature matrix
[18.3]
fredex
example of solving a singular Fredholm equation
Chapter 19
[19.5]
sor
elliptic PDE solved by successive overrelaxation method
[19.6]
mglin
linear elliptic PDE solved by multigrid method
[19.6]
rstrct
half-weighting restriction, used by mglin, mgfas
[19.6]
interp
bilinear prolongation, used by mglin, mgfas
[19.6]
addint
interpolate and add, used by mglin
[19.6]
slvsml
solve on coarsest grid, used by mglin
[19.6]
relax
Gauss-Seidel relaxation, used by mglin
[19.6]
resid
calculate residual, used by mglin
[19.6]
copy
utility used by mglin, mgfas
[19.6]
fill0
utility used by mglin
[19.6]
maloc
memory allocation utility used by mglin, mgfas
[19.6]
mgfas
nonlinear elliptic PDE solved by multigrid method
[19.6]
relax2
Gauss-Seidel relaxation, used by mgfas
[19.6]
slvsm2
solve on coarsest grid, used by mgfas
[19.6]
lop
applies nonlinear operator, used by mgfas
[19.6]
matadd
utility used by mgfas
[19.6]
matsub
utility used by mgfas
[19.6]
anorm2
utility used by mgfas
Chapter 20
[20.1]
machar
diagnose computer's floating arithmetic
[20.2]
igray
Gray code and its inverse
[20.3]
icrc1
cyclic redundancy checksum, used by icrc
[20.3]
icrc
cyclic redundancy checksum
[20.3]
decchk
decimal check digit calculation or verification
[20.4]
hufmak
construct a Huffman code
[20.4]
hufapp
append bits to a Huffman code, used by hufmak
[20.4]
hufenc
use Huffman code to encode and compress a character
[20.4]
hufdec
use Huffman code to decode and decompress a character
[20.5]
arcmak
construct an arithmetic code
[20.5]
arcode
encode or decode a character using arithmetic coding
[20.5]
arcsum
add integer to byte string, used by arcode
[20.6]
mpops
multiple precision arithmetic, simpler operations
[20.6]
mpmul
multiple precision multiply, using FFT methods
[20.6]
mpinv
multiple precision reciprocal
[20.6]
mpdiv
multiple precision divide and remainder
[20.6]
mpsqrt
multiple precision square root
[20.6]
mp2dfr
multiple precision conversion to decimal base
[20.6]
mppi
multiple precision example, compute many digits of pi