Index: issm/trunk-jpl/examples/EsaGRACE/grace.m
===================================================================
--- issm/trunk-jpl/examples/EsaGRACE/grace.m	(revision 22809)
+++ 	(revision )
@@ -1,121 +1,0 @@
-% map grace loads in meters [m] of water equivalent height 
-function water_load = grace(index,lat,lon,tmin,tmax); 
-
-	%compute centroids using (lat,lon) data {{{
-	ne = length(index); % number of elements 
-	% lat -> [0,180]; long -> [0,360] to compute centroids 
-	lat=90-lat; 
-	lon(lon<0)=180+(180+lon(lon<0)); 
-	
-	ax_0=lat(index(:,1)); ay_0=lon(index(:,1)); 
-	bx_0=lat(index(:,2)); by_0=lon(index(:,2)); 
-	cx_0=lat(index(:,3)); cy_0=lon(index(:,3)); 
-	% find whether long is 0 or 360! This is important to compute centroids as well as elemental area 
-	for ii=1:ne
-		if (min([ay_0(ii),by_0(ii),cy_0(ii)])==0 && max([ay_0(ii),by_0(ii),cy_0(ii)])>180)
-			if ay_0(ii)==0
-				ay_0(ii)=360;
-			end 
-			if by_0(ii)==0
-				by_0(ii)=360; 
-			end 
-			if cy_0(ii)==0 
-				cy_0(ii)=360; 
-			end
-		end 
-	end
-	% correction at the north pole 
-	ay_0(ax_0==0)=(by_0(ax_0==0)+cy_0(ax_0==0))./2; 
-	by_0(bx_0==0)=(cy_0(bx_0==0)+ay_0(bx_0==0))./2; 
-	cy_0(cx_0==0)=(ay_0(cx_0==0)+by_0(cx_0==0))./2; 
-	% correction at the south pole 
-	ay_0(ax_0==180)=(by_0(ax_0==180)+cy_0(ax_0==180))./2; 
-	by_0(bx_0==180)=(cy_0(bx_0==180)+ay_0(bx_0==180))./2; 
-	cy_0(cx_0==180)=(ay_0(cx_0==180)+by_0(cx_0==180))./2; 
-	% 
-	lat_element=(ax_0+bx_0+cx_0)/3; 
-	lon_element=(ay_0+by_0+cy_0)/3;
-
-	% [lat,lon] \in [-90:90,-180,180]; 
-	lat_element_0 = 90-lat_element;		lon_element_0 = lon_element;
-	lon_element_0(lon_element>180) = (lon_element(lon_element>180)-180) - 180;
-	% }}}
-
-	% Monthly GRACE data 
-	filename=['GRCTellus.JPL.200204_201701.LND.RL05_1.DSTvSCS1411.nc']; 
-	time_0=ncread(filename,'time'); % days since 2002-01-01 00:00:00 UTC 
-	long_0=ncread(filename,'lon'); % longitudes: 0.27-359.75
-	lati_0=ncread(filename,'lat'); % latitudes: -89.75:89.75
-	rec=ncread(filename,'lwe_thickness');% rec_ensemble_mean [cm]
-
-	time_yr = 2002+time_0/365; % [yr] 
-
-	[nn_0,mm_0] = size(squeeze(rec(:,:,1))); 
-	for jj=1:mm_0     % chose a latitude
-		for kk=1:nn_0
-			ii=nn_0*(jj-1)+kk;
-			lat_0(ii)=lati_0(jj); 
-			lon_0(ii)=long_0(kk); 
-			tws_monthly(:,ii) = rec(kk,jj,:);
-		end 
-	end 
-	% 
-	%% translate variables as grace-related variables -- so I do not need to do too much editing 
-	grace_monthly=tws_monthly; 
-	grace_monthly(grace_monthly<-1344.6016 | grace_monthly>858.5046)=0; 
-
-	% detrend over the entire time period 
-	grace_monthly = detrend(grace_monthly); % 159X64800 => remove trends from each column! 
-
-	% fill out the blanks {{{ 
-	
-	lat_grace=lat_0; 
-	lon_grace=lon_0; 
-	num_org=length(lon_grace); 
-
-	qq=1;			mm=1; 
-	for jj=2:num_org-1
-		if (lat_grace(jj)~=lat_grace(jj+1))
-			lat_new(qq)=lat_grace(jj); 
-			lon_new(qq)=lon_grace(jj)+(lon_grace(jj)-lon_grace(jj-1)); 
-			load_new(:,qq)=grace_monthly(:,mm); 
-			lat_new(qq+1)=lat_grace(jj); 
-			lon_new(qq+1)=lon_grace(mm)-(lon_grace(jj)-lon_grace(jj-1)); 
-			load_new(:,qq+1)=grace_monthly(:,jj); 
-			qq=qq+2; 
-			mm=jj+1; % to find out the value for monthly data 
-		end
-	end
-	
-	num_add=length(lat_new); 
-	num_plus=num_org+num_add;
-
-	lat_grace_plus=zeros(num_plus,1); 
-	lon_grace_plus=zeros(num_plus,1); 
-	load_grace_plus=zeros(length(time_0),num_plus); 
-	
-	lat_grace_plus(1:num_org)=lat_grace;
-	lat_grace_plus(1+num_org:num_plus)=lat_new; 
-	lon_grace_plus(1:num_org)=lon_grace;
-	lon_grace_plus(1+num_org:num_plus)=lon_new; 
-	load_grace_plus(:,1:num_org)=grace_monthly; 
-	load_grace_plus(:,1+num_org:num_plus)=load_new; %(:,:);
-	% }}}
-
-	% choose selected months ONLY 
-	[diff1,pos1] = min(abs(tmin-time_yr));
-	[diff2,pos2] = min(abs(tmax-time_yr)); 
-
-	time_yr=time_yr(pos1:pos2); 
-	load_grace_plus=load_grace_plus(pos1:pos2,:); 
-	num_yr=length(time_yr); 
-	water_load_0=zeros(ne,num_yr);
-
-	for jj=1:num_yr
-		water_load_0(:,jj) = griddata(lat_grace_plus,lon_grace_plus,load_grace_plus(jj,:),lat_element_0,lon_element);
-		disp([num2str(jj),' of ',num2str(num_yr),' months done!']); 
-	end 
-
-	water_load=water_load_0/100;		% cm -> meters of water 
-	water_load(isnan(water_load))=0; 
-
Index: issm/trunk-jpl/examples/EsaWahr/wahr.m
===================================================================
--- issm/trunk-jpl/examples/EsaWahr/wahr.m	(revision 22809)
+++ 	(revision )
@@ -1,46 +1,0 @@
-% compute semi-analytic solutions for a disc load 
-function [vert, horz] = wahr(disc_rad,xi,love_h,love_l); 
-
-	disc_rad = disc_rad/1000; % km 
-	% compute P(x), dP(x)/dx, d2P(x)/dx2
-	%---------------------------------------------------------------------
-	% compute p_value 
-	theta=km2deg(xi/1000)';
-	ang = theta/180*pi; 
-	alpha=cos(ang);
-	m=length(alpha);
-	n=length(love_h)-1; 
-	p_value = p_polynomial_value(m,n,alpha);
-	p_prime = p_polynomial_prime(m,n,alpha);
-	%---------------------------------------------------------------------
-	nn=[0:n];
-	nn_plus_1=nn+1; 
-
-	% disc radius in degree 
-	disc_rad = km2deg(disc_rad)/180*pi; 
-	tau=zeros(size(love_h)); 
-	tau(1) = 0.5*(1-cos(disc_rad)); % tau_0 
-	p_value_disc = p_polynomial_value(1,n+1,cos(disc_rad));
-	p_prime_disc = p_polynomial_prime(1,n,cos(disc_rad));
-	for jj=2:n+1
-		nnn = jj-1; 
-		tau(jj) = 0.5 * (p_value_disc(jj-1) - p_value_disc(jj+1)); 
-	end
-
-	const=zeros(size(love_h)); 
-	for jj=1:n+1
-		const(jj) = 1/(2*(jj-1)+1); 
-	end
-
-	disc=sum(bsxfun(@times,p_value,tau'),2); 
-
-	g1 = -sum(bsxfun(@times,p_value,(tau.*love_h.*const)'),2); 
-	g5 = -sum(bsxfun(@times,-sin(ang),bsxfun(@times,p_prime,(tau.*love_l.*const)')),2); 
-
-	% coeff 
-	coeff = 1000*4*pi*(6.67408*10^-11)*(6.3781*10^6)/9.81; 
-
-	% vertical and horizontal solutions in mm 
-	vert = g1*coeff*1000; % mm 
-	horz = g5*coeff*1000; % mm 
-
