05/23/2011, 08:42 PM
(05/23/2011, 07:04 PM)bo198214 Wrote: ....The corresponding super-function developed at 2.03 has then the coefficients:I got my code working for the lower superfunction at \( \eta \), or the sexp. Your results matches the Taylor series I get for \( \text{sexp}_{\eta}(z-1) \), developed at -1, where sexp(-1)=0.
Code:0, 1.66, -1.14, 0.839, -0.656, 0.534, -0.448, 0.385, -0.337, 0.300, -0.270, 0.245, -0.225, 0.207, -0.192, 0.179, -0.168, 0.158, -0.149, 0.141
Code:
a0 = 0
a1 = 1.661129667441415
a2 = -1.137387400487982
a3 = 0.841151615164940
a4 = -0.657512962174043
a5 = 0.535494578310460
a6 = -0.449853109363909
a7 = 0.387026076215351
a8 = -0.339240627153272
a9 = 0.301798047541097
a10 = -0.271726518049431
a11 = 0.247071598485337
a12 = -0.226503399721030
a13 = 0.209089537153272
a14 = -0.194158863580830
a15 = 0.181216899324044
a16 = -0.169891743680233
a17 = 0.159898527811493
a18 = -0.151015469479131
a19 = 0.143067376977840
