Re: r24766 - /branches/r1rho_plotting/specific_analyses/relax_disp/data.py -- July 28, 2014 - 11:56

Yeah.

It was rubbish.

I looked wrong at figure representing the angles. :-)

Best
Troels

2014-07-28 11:34 GMT+02:00 Edward d'Auvergne <edward@xxxxxxxxxxxxx>:
> Hmmm, I don't think this change is too healthy.  But I can see you
> reverted this later on in r24768.
>
> Regards,
>
> Edward
>
> On 25 July 2014 20:56,  <tlinnet@xxxxxxxxxxxxx> wrote:
> > Author: tlinnet
> > Date: Fri Jul 25 20:56:40 2014
> > New Revision: 24766
> >
> > URL: http://svn.gna.org/viewcvs/relax?rev=24766&view=rev
> > Log:
> > Inverted the input to atan2() function in 
> > specific_analyses/relax_disp/data.py.
> >
> > This has no influence on the system tests.
> >
> > sr #3124(https://gna.org/support/?3124): Grace graphs production for R1rho 
> > analysis with R2_eff as function of Omega_eff.
> > sr #3138(https://gna.org/support/?3138): Interpolating theta through 
> > spin-lock offset [Omega], rather than spin-lock field strength [w1].
> >
> > Modified:
> >     branches/r1rho_plotting/specific_analyses/relax_disp/data.py
> >
> > Modified: branches/r1rho_plotting/specific_analyses/relax_disp/data.py
> > URL: 
> > http://svn.gna.org/viewcvs/relax/branches/r1rho_plotting/specific_analyses/relax_disp/data.py?rev=24766&r1=24765&r2=24766&view=diff
> > ==============================================================================
> > --- branches/r1rho_plotting/specific_analyses/relax_disp/data.py        
> > (original)
> > +++ branches/r1rho_plotting/specific_analyses/relax_disp/data.py        
> > Fri Jul 25 20:56:40 2014
> > @@ -2135,7 +2135,7 @@
> >              if Delta_omega == 0.0:
> >                  theta = pi / 2.0
> >              else:
> > -                theta = atan2(omega1, Delta_omega)
> > +                theta = atan2(Delta_omega, omega1)
> >
> >              # Calculate effective field in rotating frame
> >              w_eff = sqrt( Delta_omega*Delta_omega + omega1*omega1 )
> > @@ -2207,7 +2207,7 @@
> >              if Delta_omega == 0.0:
> >                  theta = pi / 2.0
> >              else:
> > -                theta = atan2(omega1, Delta_omega)
> > +                theta = atan2(Delta_omega, omega1)
> >
> >              # Calculate effective field in rotating frame
> >              w_eff = sqrt( Delta_omega*Delta_omega + omega1*omega1 )
> > @@ -2330,7 +2330,7 @@
> >              if Delta_omega == 0.0:
> >                  theta = pi / 2.0
> >              else:
> > -                theta = atan2(omega1, Delta_omega)
> > +                theta = atan2(Delta_omega, omega1)
> >
> >              # Calculate effective field in rotating frame
> >              w_eff = sqrt( Delta_omega*Delta_omega + omega1*omega1 )
> > @@ -3610,7 +3610,7 @@
> >                          # Then it should be: theta = pi + atan(-x) = pi - 
> > atan(x) = pi - abs(atan( +/- x)).
> >                          # This is taken care of with the atan2(y, x) 
> > function, which return atan(y / x), in radians, and the result is between 
> > -pi and pi.
> >                          else:
> > -                            theta[ei][si][mi][oi].append(atan2(omega1, 
> > Delta_omega))
> > +                            
> > theta[ei][si][mi][oi].append(atan2(Delta_omega, omega1))
> >
> >                          # Calculate effective field in rotating frame
> >                          w_eff = sqrt( Delta_omega*Delta_omega + 
> > omega1*omega1 )
> > @@ -3683,7 +3683,7 @@
> >                          # Then it should be: theta = pi + atan(-x) = pi - 
> > atan(x) = pi - abs(atan( +/- x)).
> >                          # This is taken care of with the atan2(y, x) 
> > function, which return atan(y / x), in radians, and the result is between 
> > -pi and pi.
> >                          else:
> > -                            theta[ei][si][mi][oi].append(atan2(omega1, 
> > Delta_omega))
> > +                            
> > theta[ei][si][mi][oi].append(atan2(Delta_omega, omega1))
> >
> >                          # Calculate effective field in rotating frame
> >                          w_eff = sqrt( Delta_omega*Delta_omega + 
> > omega1*omega1 )
> >
> >
> > _______________________________________________
> > relax (http://www.nmr-relax.com)
> >
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