(D17) CSM$USERS:[WHEREMAN.PROGRAMS.NPAINLEVE.SINGLE]P_BOUS.OUT;1 (C18) batch("np_exec.max"); (C19) /* ************************************************************************* */ /* Batch file NP_EXEC.MAX */ /* ************************************************************************* */ exec_painleve (eq, alpha, do_resonances, max_resonance, do_simplification)$ You are using the simplification suggested by KRUSKAL You selected G(T,X,...) = X - H(T,...) ---------------------------------------------------------------- F X X X X 2 PAINLEVE ANALYSIS OF EQUATION, -------- + 2 F F + 2 (F ) + F = 0 3 X X X T T ---------------------------------------------------------------- ALPHA SUBSTITUTE U G FOR f IN ORIGINAL EQUATION. 0 MINIMUM POWERS OF g ARE [2 ALPHA - 2, ALPHA - 4] 2 ALPHA - 2 2 * COEFFICIENT OF G IS 2 U ALPHA (2 ALPHA - 1) 0 1 NOTE : THIS TERM VANISHES FOR [ALPHA = -, ALPHA = 0] , 2 VERIFY IF ANY OF THESE VALUES FOR ALPHA LEADS TO DOMINANT BEHAVIOR, IF IT DOES THEN RUN THE PROGRAM AGAIN WITH THIS VALUE AS USER SUPPLIED ALPHA, CALLED BETA. ALPHA - 4 * COEFFICIENT OF G IS U (ALPHA - 3) (ALPHA - 2) (ALPHA - 1) ALPHA 0 -------------------------------------------- 3 NOTE : THIS TERM VANISHES FOR [ALPHA = 0, ALPHA = 1, ALPHA = 2, ALPHA = 3] , VERIFY IF ANY OF THESE VALUES FOR ALPHA LEADS TO DOMINANT BEHAVIOR, IF IT DOES THEN RUN THE PROGRAM AGAIN WITH THIS VALUE AS USER SUPPLIED ALPHA, CALLED BETA. ---------------------------------------------------------------- FOR EXPONENTS ( 2 ALPHA - 2 ) AND ( ALPHA - 4 ) OF g, WITH alpha = - 2 , POWER OF g is - 6 ----> SOLVE FOR U 0 1 TERM 20 U (U + 2) -- IS DOMINANT 0 0 6 G IN EQUATION. ---------------------------------------------------------------- 1 ) WITH U = - 2 ----> FIND RESONANCES 0 ALPHA R + ALPHA SUBSTITUTE U G + U G FOR f IN EQUATION 0 R R - 6 TERM ( (R - 6) (R - 5) (R - 4) (R + 1) ) U G IS DOMINANT R IN EQUATION. THE 3 NON-NEGATIVE INTEGRAL ROOTS ARE [R = 4, R = 5, R = 6] WITH MAXIMUM RESONANCE = 6 ----> CHECK RESONANCES. 6 ==== \ K - 2 SUBSTITUTE POWER SERIES > G U FOR f IN EQUATION. / K ==== K = 0 WITH U = - 2 0 1 * COEFFICIENT OF -- IS - 40 U 5 1 G U = 0 1 1 2 * COEFFICIENT OF -- IS - 12 ((H ) + 2 U ) 4 T 2 G 2 (H ) T U = - ----- 2 2 1 * COEFFICIENT OF -- IS - 4 (H + 2 U ) 3 T T 3 G H T T U = - ---- 3 2 1 * COEFFICIENT OF -- IS 0 2 G U IS ARBITRARY ! 4 COMPATIBILITY CONDITION IS SATISFIED ! 1 * COEFFICIENT OF - IS 0 G U IS ARBITRARY ! 5 COMPATIBILITY CONDITION IS SATISFIED ! * COEFFICIENT OF 1 IS 0 U IS ARBITRARY ! 6 COMPATIBILITY CONDITION IS SATISFIED ! ---------------------------------------------------------------- (C20) output()$ ---------------------------------------------------------------- AT THE END OF THE COMPUTATIONS THE FOLLOWING ARE AVAILABLE: * U VALUE(S) (type uval[j,k,l] where 1 <= j <= 1 and 0 <= k <= [6] and 1 <= l <= [1] ) j stands for j_th alpha,k stands for u[k],l stands for l_th solution set for u[0] * ALPHA VALUE(S) (type alpha[j] where 1 <= j <= 1 ) j stands for j_th alpha * COMPATIBILITY CONDITION(S) (type compcond[j,k] where 1 <= j <= 1 and 1 <= k <= [1] ) j stands for j_th alpha,k stands for k_th solution set for u[0] * RESONANCE(S) (type res[j,k] where 1 <= j <= 1 and 1 <= k <= [1] ) j stands for j_th alpha,k stands for k_th solution set for u[0] ---------------------------------------------------------------- TO SEE THIS MENU AGAIN JUST TYPE < output() > ---------------------------------------------------------------- (C21) /* ************************** END of NP_EXEC.MAX ************************** */ (D21) DONE (C22) closefile();