gphys.long_name = "long name"
gphys.units = "unit"
rmiss = gphys.get_att('missing_value')[0]
DCL.sgscmn(4) # blue-cyan-white-yellow-red DCL.sgscmn(14) # blue-white-red
see also here
gphyscopied = gphys.copy
z = gphys.axis(namelev).pos.convert_units( Units['Pa'] ) z.long_name = 'pressure' gphys.axis(namelev).set_pos(z) z = gphys.axis(namelev).pos.convert_units( Units['days since 1979-1-1 00:00:0.0'] ) gphys.axis(namelev).set_pos(z) time = gphys.coord('time').val ls = gphys.coord('ls').val ls = ls + 360 ls = ls % 360 varraytime = VArray.new( ls, { "long_name"=>'Ls', "units"=>'degree' }, "ls" ) gphys.axis('ls').set_pos(varraytime) km = gphyscopied.shape[1]
Date.parse("2010-01-04")
#DCLExt.uz_set_params 'indext1'=>3,'indext2'=>5,'indexl1'=>5,'indexl2'=>5 DCLExt.uz_set_params 'indext1'=>9,'indext2'=>9,'indexl1'=>9,'indexl2'=>9
references:
size = gphys.length shapearray = gphys.shape
mask = gphys.val.get_mask k = 0 while k < km j = 0 while j < jm if mask[j,k] == 1 then gphysout[j,k] = ( RPlanet * cos( lat[j] * PI / 180.0 ) * Omega + gphysout.val[j,k] ) * RPlanet * cos( lat[j] * PI / 180.0 ) end j = j + 1 end k = k + 1 end
DCL.sgpset('lclip', true)
DCL.sgiset('IFONT', 2) DCL.sgstxi(3)
see <URL:http://ruby.gfd-dennou.org/products/ruby-dcl/ruby-dcl-doc/rakuraku/node24.html>
DCL.uzfact(0.75)