version 1.15, 2013/07/08 23:02:22
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version 1.16, 2013/07/18 00:06:57
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Line 102 int computeAbsFlux(float *bz_err, float |
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Line 102 int computeAbsFlux(float *bz_err, float |
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*mean_vf_ptr = sum*cdelt1*cdelt1*(rsun_ref/rsun_obs)*(rsun_ref/rsun_obs)*100.0*100.0; | *mean_vf_ptr = sum*cdelt1*cdelt1*(rsun_ref/rsun_obs)*(rsun_ref/rsun_obs)*100.0*100.0; |
*mean_vf_err_ptr = (sqrt(err))*fabs(cdelt1*cdelt1*(rsun_ref/rsun_obs)*(rsun_ref/rsun_obs)*100.0*100.0); // error in the unsigned flux | *mean_vf_err_ptr = (sqrt(err))*fabs(cdelt1*cdelt1*(rsun_ref/rsun_obs)*(rsun_ref/rsun_obs)*100.0*100.0); // error in the unsigned flux |
*count_mask_ptr = count_mask; | *count_mask_ptr = count_mask; |
printf("cdelt1=%f\n",cdelt1); |
//printf("cdelt1=%f\n",cdelt1); |
printf("rsun_obs=%f\n",rsun_obs); |
//printf("rsun_obs=%f\n",rsun_obs); |
printf("rsun_ref=%f\n",rsun_ref); |
//printf("rsun_ref=%f\n",rsun_ref); |
printf("CMASK=%g\n",*count_mask_ptr); |
//printf("CMASK=%g\n",*count_mask_ptr); |
printf("USFLUX=%g\n",*mean_vf_ptr); |
//printf("USFLUX=%g\n",*mean_vf_ptr); |
printf("sum=%f\n",sum); |
//printf("sum=%f\n",sum); |
printf("USFLUX_err=%g\n",*mean_vf_err_ptr); |
//printf("USFLUX_err=%g\n",*mean_vf_err_ptr); |
return 0; | return 0; |
} | } |
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Line 188 int computeGamma(float *bz_err, float *b |
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Line 188 int computeGamma(float *bz_err, float *b |
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*mean_gamma_ptr = sum/count_mask; | *mean_gamma_ptr = sum/count_mask; |
*mean_gamma_err_ptr = (sqrt(err*err))/(count_mask*100.0); // error in the quantity (sum)/(count_mask) | *mean_gamma_err_ptr = (sqrt(err*err))/(count_mask*100.0); // error in the quantity (sum)/(count_mask) |
printf("MEANGAM=%f\n",*mean_gamma_ptr); |
//printf("MEANGAM=%f\n",*mean_gamma_ptr); |
printf("MEANGAM_err=%f\n",*mean_gamma_err_ptr); |
//printf("MEANGAM_err=%f\n",*mean_gamma_err_ptr); |
return 0; | return 0; |
} | } |
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Line 299 int computeBtotalderivative(float *bt, i |
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Line 299 int computeBtotalderivative(float *bt, i |
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*mean_derivative_btotal_ptr = (sum)/(count_mask); // would be divided by ((nx-2)*(ny-2)) if shape of count_mask = shape of magnetogram | *mean_derivative_btotal_ptr = (sum)/(count_mask); // would be divided by ((nx-2)*(ny-2)) if shape of count_mask = shape of magnetogram |
*mean_derivative_btotal_err_ptr = (sqrt(err))/(count_mask); // error in the quantity (sum)/(count_mask) | *mean_derivative_btotal_err_ptr = (sqrt(err))/(count_mask); // error in the quantity (sum)/(count_mask) |
printf("MEANGBT=%f\n",*mean_derivative_btotal_ptr); |
//printf("MEANGBT=%f\n",*mean_derivative_btotal_ptr); |
printf("MEANGBT_err=%f\n",*mean_derivative_btotal_err_ptr); |
//printf("MEANGBT_err=%f\n",*mean_derivative_btotal_err_ptr); |
return 0; | return 0; |
} | } |
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Line 382 int computeBhderivative(float *bh, float |
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Line 382 int computeBhderivative(float *bh, float |
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*mean_derivative_bh_ptr = (sum)/(count_mask); // would be divided by ((nx-2)*(ny-2)) if shape of count_mask = shape of magnetogram | *mean_derivative_bh_ptr = (sum)/(count_mask); // would be divided by ((nx-2)*(ny-2)) if shape of count_mask = shape of magnetogram |
*mean_derivative_bh_err_ptr = (sqrt(err))/(count_mask); // error in the quantity (sum)/(count_mask) | *mean_derivative_bh_err_ptr = (sqrt(err))/(count_mask); // error in the quantity (sum)/(count_mask) |
printf("MEANGBH=%f\n",*mean_derivative_bh_ptr); |
//printf("MEANGBH=%f\n",*mean_derivative_bh_ptr); |
printf("MEANGBH_err=%f\n",*mean_derivative_bh_err_ptr); |
//printf("MEANGBH_err=%f\n",*mean_derivative_bh_err_ptr); |
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return 0; | return 0; |
} | } |
Line 474 int computeBzderivative(float *bz, float |
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Line 474 int computeBzderivative(float *bz, float |
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*mean_derivative_bz_ptr = (sum)/(count_mask); // would be divided by ((nx-2)*(ny-2)) if shape of count_mask = shape of magnetogram | *mean_derivative_bz_ptr = (sum)/(count_mask); // would be divided by ((nx-2)*(ny-2)) if shape of count_mask = shape of magnetogram |
*mean_derivative_bz_err_ptr = (sqrt(err))/(count_mask); // error in the quantity (sum)/(count_mask) | *mean_derivative_bz_err_ptr = (sqrt(err))/(count_mask); // error in the quantity (sum)/(count_mask) |
printf("MEANGBZ=%f\n",*mean_derivative_bz_ptr); |
//printf("MEANGBZ=%f\n",*mean_derivative_bz_ptr); |
printf("MEANGBZ_err=%f\n",*mean_derivative_bz_err_ptr); |
//printf("MEANGBZ_err=%f\n",*mean_derivative_bz_err_ptr); |
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return 0; | return 0; |
} | } |
Line 643 int computeJzsmooth(float *bx, float *by |
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Line 643 int computeJzsmooth(float *bx, float *by |
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*us_i_ptr = (us_i); /* us_i gets populated as TOTUSJZ */ | *us_i_ptr = (us_i); /* us_i gets populated as TOTUSJZ */ |
*us_i_err_ptr = (sqrt(err))*fabs((cdelt1/1)*(rsun_ref/rsun_obs)*(0.00010)*(1/MUNAUGHT)); // error in the quantity TOTUSJZ | *us_i_err_ptr = (sqrt(err))*fabs((cdelt1/1)*(rsun_ref/rsun_obs)*(0.00010)*(1/MUNAUGHT)); // error in the quantity TOTUSJZ |
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printf("MEANJZD=%f\n",*mean_jz_ptr); |
//printf("MEANJZD=%f\n",*mean_jz_ptr); |
printf("MEANJZD_err=%f\n",*mean_jz_err_ptr); |
//printf("MEANJZD_err=%f\n",*mean_jz_err_ptr); |
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printf("TOTUSJZ=%g\n",*us_i_ptr); |
//printf("TOTUSJZ=%g\n",*us_i_ptr); |
printf("TOTUSJZ_err=%g\n",*us_i_err_ptr); |
//printf("TOTUSJZ_err=%g\n",*us_i_err_ptr); |
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return 0; | return 0; |
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Line 735 int computeAlpha(float *jz_err, float *b |
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Line 735 int computeAlpha(float *jz_err, float *b |
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*mean_alpha_ptr = sum; /* Units are 1/Mm */ | *mean_alpha_ptr = sum; /* Units are 1/Mm */ |
*mean_alpha_err_ptr = (sqrt(sum_err*sum_err)) / ((a+b+c+d)*100.0); // error in the quantity (sum)/(count_mask); factor of 100 comes from converting percent | *mean_alpha_err_ptr = (sqrt(sum_err*sum_err)) / ((a+b+c+d)*100.0); // error in the quantity (sum)/(count_mask); factor of 100 comes from converting percent |
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printf("MEANALP=%f\n",*mean_alpha_ptr); |
//printf("MEANALP=%f\n",*mean_alpha_ptr); |
printf("MEANALP_err=%f\n",*mean_alpha_err_ptr); |
//printf("MEANALP_err=%f\n",*mean_alpha_err_ptr); |
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return 0; | return 0; |
} | } |
Line 791 int computeHelicity(float *jz_err, float |
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Line 791 int computeHelicity(float *jz_err, float |
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*total_us_ih_err_ptr = (sqrt(sum_err*sum_err)) / (100.0) ; // error in the quantity TOTUSJH | *total_us_ih_err_ptr = (sqrt(sum_err*sum_err)) / (100.0) ; // error in the quantity TOTUSJH |
*total_abs_ih_err_ptr = (sqrt(sum_err*sum_err)) / (100.0) ; // error in the quantity ABSNJZH | *total_abs_ih_err_ptr = (sqrt(sum_err*sum_err)) / (100.0) ; // error in the quantity ABSNJZH |
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printf("MEANJZH=%f\n",*mean_ih_ptr); |
//printf("MEANJZH=%f\n",*mean_ih_ptr); |
printf("MEANJZH_err=%f\n",*mean_ih_err_ptr); |
//printf("MEANJZH_err=%f\n",*mean_ih_err_ptr); |
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printf("TOTUSJH=%f\n",*total_us_ih_ptr); |
//printf("TOTUSJH=%f\n",*total_us_ih_ptr); |
printf("TOTUSJH_err=%f\n",*total_us_ih_err_ptr); |
//printf("TOTUSJH_err=%f\n",*total_us_ih_err_ptr); |
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printf("ABSNJZH=%f\n",*total_abs_ih_ptr); |
//printf("ABSNJZH=%f\n",*total_abs_ih_ptr); |
printf("ABSNJZH_err=%f\n",*total_abs_ih_err_ptr); |
//printf("ABSNJZH_err=%f\n",*total_abs_ih_err_ptr); |
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return 0; | return 0; |
} | } |
Line 845 int computeSumAbsPerPolarity(float *jz_e |
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Line 845 int computeSumAbsPerPolarity(float *jz_e |
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*totaljzptr = fabs(sum1) + fabs(sum2); /* Units are A */ | *totaljzptr = fabs(sum1) + fabs(sum2); /* Units are A */ |
*totaljz_err_ptr = sqrt(err)*(1/cdelt1)*fabs((0.00010)*(1/MUNAUGHT)*(rsun_ref/rsun_obs)); | *totaljz_err_ptr = sqrt(err)*(1/cdelt1)*fabs((0.00010)*(1/MUNAUGHT)*(rsun_ref/rsun_obs)); |
printf("SAVNCPP=%g\n",*totaljzptr); |
//printf("SAVNCPP=%g\n",*totaljzptr); |
printf("SAVNCPP_err=%g\n",*totaljz_err_ptr); |
//printf("SAVNCPP_err=%g\n",*totaljz_err_ptr); |
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return 0; | return 0; |
} | } |
Line 903 int computeFreeEnergy(float *bx_err, flo |
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Line 903 int computeFreeEnergy(float *bx_err, flo |
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*totpotptr = (sum)/(8.*PI); | *totpotptr = (sum)/(8.*PI); |
*totpot_err_ptr = (sqrt(err))*fabs(cdelt1*cdelt1*(rsun_ref/rsun_obs)*(rsun_ref/rsun_obs)*100.0*100.0*(1/(8.*PI))); | *totpot_err_ptr = (sqrt(err))*fabs(cdelt1*cdelt1*(rsun_ref/rsun_obs)*(rsun_ref/rsun_obs)*100.0*100.0*(1/(8.*PI))); |
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printf("MEANPOT=%g\n",*meanpotptr); |
//printf("MEANPOT=%g\n",*meanpotptr); |
printf("MEANPOT_err=%g\n",*meanpot_err_ptr); |
//printf("MEANPOT_err=%g\n",*meanpot_err_ptr); |
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printf("TOTPOT=%g\n",*totpotptr); |
//printf("TOTPOT=%g\n",*totpotptr); |
printf("TOTPOT_err=%g\n",*totpot_err_ptr); |
//printf("TOTPOT_err=%g\n",*totpot_err_ptr); |
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return 0; | return 0; |
} | } |
Line 963 int computeShearAngle(float *bx_err, flo |
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Line 963 int computeShearAngle(float *bx_err, flo |
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*meanshear_angle_err_ptr = (sqrt(err*err))/(count); // error in the quantity (sum)/(count_mask) | *meanshear_angle_err_ptr = (sqrt(err*err))/(count); // error in the quantity (sum)/(count_mask) |
*area_w_shear_gt_45ptr = (count_mask/(count))*(100.0);/* The area here is a fractional area -- the % of the total area */ | *area_w_shear_gt_45ptr = (count_mask/(count))*(100.0);/* The area here is a fractional area -- the % of the total area */ |
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printf("MEANSHR=%f\n",*meanshear_angleptr); |
//printf("MEANSHR=%f\n",*meanshear_angleptr); |
printf("MEANSHR_err=%f\n",*meanshear_angle_err_ptr); |
//printf("MEANSHR_err=%f\n",*meanshear_angle_err_ptr); |
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return 0; | return 0; |
} | } |