! This file is generated by 'scripts/generate.py' using ! /src/xbeachlibrary/variables.def ! /src/xbeachlibrary/params.def ! src/xbeachlibray/templates/indextos.mako ! Advice: do not edit this file, but above mentioned files. ! DO NOT EDIT THIS FILE ! But edit variable.f90 and scripts/generate.py ! Compiling and running is taken care of by the Makefile case( 1) t%r2 => s%x t%rank = 2 t%type = 'r' t%name = 'x' t%btype = 'd' t%units= 'm' t%standardname= 'projection_x_coordinate' t%description= 'x-coord. original cmp. grid' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 2) t%r2 => s%y t%rank = 2 t%type = 'r' t%name = 'y' t%btype = 'd' t%units= 'm' t%standardname= 'projection_y_coordinate' t%description= 'y-coord. original comp. grid' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 3) t%r2 => s%xz t%rank = 2 t%type = 'r' t%name = 'xz' t%btype = 'd' t%units= 'm' t%standardname= 'projection_x_coordinate' t%description= 'x-coord. comp. grid (positive shoreward, perp. to coastline)' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 4) t%r2 => s%yz t%rank = 2 t%type = 'r' t%name = 'yz' t%btype = 'd' t%units= 'm' t%standardname= 'projection_y_coordinate' t%description= 'y-coord. comp. grid' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 5) t%r2 => s%xu t%rank = 2 t%type = 'r' t%name = 'xu' t%btype = 'd' t%units= 'm' t%standardname= 'projection_x_coordinate' t%description= 'x-coord. comp. grid u-points' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 6) t%r2 => s%yu t%rank = 2 t%type = 'r' t%name = 'yu' t%btype = 'd' t%units= 'm' t%standardname= 'projection_y_coordinate' t%description= 'y-coord. comp. grid u-points' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 7) t%r2 => s%xv t%rank = 2 t%type = 'r' t%name = 'xv' t%btype = 'd' t%units= 'm' t%standardname= 'projection_x_coordinate' t%description= 'x-coord. comp. grid v-points' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 8) t%r2 => s%yv t%rank = 2 t%type = 'r' t%name = 'yv' t%btype = 'd' t%units= 'm' t%standardname= 'projection_y_coordinate' t%description= 'y-coord. comp. grid v-points' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 9) t%r2 => s%dsu t%rank = 2 t%type = 'r' t%name = 'dsu' t%btype = 'd' t%units= 'm' t%standardname= '' t%description= 'grid distance in s-direction, centered around u-point' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 10) t%r2 => s%dsv t%rank = 2 t%type = 'r' t%name = 'dsv' t%btype = 'd' t%units= 'm' t%standardname= '' t%description= 'grid distance in s-direction, centered around v-point' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 11) t%r2 => s%dsz t%rank = 2 t%type = 'r' t%name = 'dsz' t%btype = 'd' t%units= 'm' t%standardname= '' t%description= 'grid distance in s-direction, centered around z-point (=eta-point)' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 12) t%r2 => s%dsc t%rank = 2 t%type = 'r' t%name = 'dsc' t%btype = 'd' t%units= 'm' t%standardname= '' t%description= 'grid distance in s-direction, centered around c-point' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 13) t%r2 => s%dnu t%rank = 2 t%type = 'r' t%name = 'dnu' t%btype = 'd' t%units= 'm' t%standardname= '' t%description= 'grid distance in n-direction, centered around u-point' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 14) t%r2 => s%dnv t%rank = 2 t%type = 'r' t%name = 'dnv' t%btype = 'd' t%units= 'm' t%standardname= '' t%description= 'grid distance in n-direction, centered around v-point' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 15) t%r2 => s%dnz t%rank = 2 t%type = 'r' t%name = 'dnz' t%btype = 'd' t%units= 'm' t%standardname= '' t%description= 'grid distance in n-direction, centered around z-point (=eta-point)' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 16) t%r2 => s%dnc t%rank = 2 t%type = 'r' t%name = 'dnc' t%btype = 'd' t%units= 'm' t%standardname= '' t%description= 'grid distance in n-direction, centered around c-point' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 17) t%r2 => s%dsdnui t%rank = 2 t%type = 'r' t%name = 'dsdnui' t%btype = 'd' t%units= '1/m2' t%standardname= '' t%description= 'inverse of grid cell surface, centered around u-point' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 18) t%r2 => s%dsdnvi t%rank = 2 t%type = 'r' t%name = 'dsdnvi' t%btype = 'd' t%units= '1/m2' t%standardname= '' t%description= 'inverse of grid cell surface, centered around v-point' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 19) t%r2 => s%dsdnzi t%rank = 2 t%type = 'r' t%name = 'dsdnzi' t%btype = 'd' t%units= '1/m2' t%standardname= '' t%description= 'inverse of grid cell surface, centered around z-point' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 20) t%r2 => s%alfaz t%rank = 2 t%type = 'r' t%name = 'alfaz' t%btype = 'd' t%units= 'rad' t%standardname= 'angle_of_rotation_from_east_to_x' t%description= 'grid orientation at z-point' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 21) t%r2 => s%alfau t%rank = 2 t%type = 'r' t%name = 'alfau' t%btype = 'd' t%units= 'rad' t%standardname= 'angle_of_rotation_from_east_to_x' t%description= 'grid orientation at u-point' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 22) t%r2 => s%alfav t%rank = 2 t%type = 'r' t%name = 'alfav' t%btype = 'd' t%units= 'rad' t%standardname= 'angle_of_rotation_from_east_to_x' t%description= 'grid orientation at v-point' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 23) t%r2 => s%sdist t%rank = 2 t%type = 'r' t%name = 'sdist' t%btype = 'd' t%units= 'm' t%standardname= '' t%description= 'cum. distance from offshore boundary along s-direction' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 24) t%r2 => s%ndist t%rank = 2 t%type = 'r' t%name = 'ndist' t%btype = 'd' t%units= 'm' t%standardname= '' t%description= 'cum. distance from right boundary along n-direction' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 25) t%r0 => s%dx t%rank = 0 t%type = 'r' t%name = 'dx' t%btype = 'b' t%units= 'm' t%standardname= '' t%description= 'grid size x-direction' case( 26) t%r0 => s%dy t%rank = 0 t%type = 'r' t%name = 'dy' t%btype = 'b' t%units= 'm' t%standardname= '' t%description= 'grid size y-direction' case( 27) t%r0 => s%xori t%rank = 0 t%type = 'r' t%name = 'xori' t%btype = 'b' t%units= 'm' t%standardname= 'projection_x_coordinate' t%description= 'x-origin of grid in world coordinate' case( 28) t%r0 => s%yori t%rank = 0 t%type = 'r' t%name = 'yori' t%btype = 'b' t%units= 'm' t%standardname= 'projection_y_coordinate' t%description= 'y-origin of grid in world coordinates' case( 29) t%r0 => s%alfa t%rank = 0 t%type = 'r' t%name = 'alfa' t%btype = 'b' t%units= 'rad' t%standardname= 'angle_of_rotation_from_east_to_x' t%description= '(deg on input) angle of grid w.r.t. East' case( 30) t%r0 => s%posdwn t%rank = 0 t%type = 'r' t%name = 'posdwn' t%btype = 'b' t%units= '-' t%standardname= '' t%description= 'depths defined positive downwards (1) or upwards(-1)' case( 31) t%r0 => s%thetamin t%rank = 0 t%type = 'r' t%name = 'thetamin' t%btype = 'b' t%units= 'rad' t%standardname= 'angle_of_rotation_from_east_to_x' t%description= 'minimum angle of computational wave grid (cart. in rad)' case( 32) t%r0 => s%thetamax t%rank = 0 t%type = 'r' t%name = 'thetamax' t%btype = 'b' t%units= 'rad' t%standardname= 'angle_of_rotation_from_east_to_x' t%description= 'minimum angle of computational wave grid (cart. in rad)' case( 33) t%i0 => s%nx t%rank = 0 t%type = 'i' t%name = 'nx' t%btype = 'b' t%units= '-' t%standardname= '' t%description= 'local number of grid cells x-direction' case( 34) t%i0 => s%ny t%rank = 0 t%type = 'i' t%name = 'ny' t%btype = 'b' t%units= '-' t%standardname= '' t%description= 'local number of grid cells y-direction' case( 35) t%r0 => s%zs01 t%rank = 0 t%type = 'r' t%name = 'zs01' t%btype = 'b' t%units= 'm' t%standardname= 'sea_surface_height_above_sea_level' t%description= 'Initial water level first sea boundary' case( 36) t%r0 => s%zs02 t%rank = 0 t%type = 'r' t%name = 'zs02' t%btype = 'b' t%units= 'm' t%standardname= 'sea_surface_height_above_sea_level' t%description= 'Initial water level second sea boundary' case( 37) t%r0 => s%zs03 t%rank = 0 t%type = 'r' t%name = 'zs03' t%btype = 'b' t%units= 'm' t%standardname= 'sea_surface_height_above_sea_level' t%description= 'Initial water level first land boundary' case( 38) t%r0 => s%zs04 t%rank = 0 t%type = 'r' t%name = 'zs04' t%btype = 'b' t%units= 'm' t%standardname= 'sea_surface_height_above_sea_level' t%description= 'Initial water level second land boundary' case( 39) t%r1 => s%xyzs01 t%rank = 1 t%type = 'r' t%name = 'xyzs01' t%btype = 'b' t%units= '-' t%standardname= '' t%description= 'global xy coordinates of corner (x=1,y=1)' t%dimensions(1:1) = (/ '2 ' /) case( 40) t%r1 => s%xyzs02 t%rank = 1 t%type = 'r' t%name = 'xyzs02' t%btype = 'b' t%units= '-' t%standardname= '' t%description= 'global xy coordinates of corner (x=1,y=N)' t%dimensions(1:1) = (/ '2 ' /) case( 41) t%r1 => s%xyzs03 t%rank = 1 t%type = 'r' t%name = 'xyzs03' t%btype = 'b' t%units= '-' t%standardname= '' t%description= 'global xy coordinates of corner (x=N,y=N)' t%dimensions(1:1) = (/ '2 ' /) case( 42) t%r1 => s%xyzs04 t%rank = 1 t%type = 'r' t%name = 'xyzs04' t%btype = 'b' t%units= '-' t%standardname= '' t%description= 'global xy coordinates of corner (x=N,y=1)' t%dimensions(1:1) = (/ '2 ' /) case( 43) t%i0 => s%tidelen t%rank = 0 t%type = 'i' t%name = 'tidelen' t%btype = 'b' t%units= '-' t%standardname= '' t%description= 'length of tide time series' case( 44) t%i0 => s%windlen t%rank = 0 t%type = 'i' t%name = 'windlen' t%btype = 'b' t%units= '-' t%standardname= '' t%description= 'length of tide time series' case( 45) t%r2 => s%zb t%rank = 2 t%type = 'r' t%name = 'zb' t%btype = 'd' t%units= 'm' t%standardname= 'altitude' t%description= 'bed level' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 46) t%r2 => s%zb0 t%rank = 2 t%type = 'r' t%name = 'zb0' t%btype = 'd' t%units= 'm' t%standardname= 'altitude' t%description= 'initial bed level' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 47) t%r1 => s%theta t%rank = 1 t%type = 'r' t%name = 'theta' t%btype = 'b' t%units= 'rad' t%standardname= 'sea_surface_wind_wave_to_direction' t%description= 'wave angles directional distribution w.r.t. comp. x-axis' t%dimensions(1:1) = (/ 's%ntheta ' /) case( 48) t%r1 => s%theta_s t%rank = 1 t%type = 'r' t%name = 'theta_s' t%btype = 'b' t%units= 'rad' t%standardname= 'sea_surface_wind_wave_to_direction' t%description= 'wave angles directional distribution w.r.t. comp. x-axis' t%dimensions(1:1) = (/ 's%ntheta_s ' /) case( 49) t%i0 => s%ntheta t%rank = 0 t%type = 'i' t%name = 'ntheta' t%btype = 'b' t%units= '-' t%standardname= '' t%description= 'number of wave direction bins' case( 50) t%i0 => s%ntheta_s t%rank = 0 t%type = 'i' t%name = 'ntheta_s' t%btype = 'b' t%units= '-' t%standardname= '' t%description= 'number of wave direction bins' case( 51) t%r0 => s%dtheta t%rank = 0 t%type = 'r' t%name = 'dtheta' t%btype = 'b' t%units= 'rad' t%standardname= '' t%description= 'wave direction bin size' case( 52) t%r0 => s%dtheta_s t%rank = 0 t%type = 'r' t%name = 'dtheta_s' t%btype = 'b' t%units= 'rad' t%standardname= '' t%description= 'wave direction bin size' case( 53) t%r0 => s%theta0 t%rank = 0 t%type = 'r' t%name = 'theta0' t%btype = 'b' t%units= 'rad' t%standardname= 'sea_surface_wind_wave_to_direction' t%description= 'mean incident wave angle' case( 54) t%r2 => s%thetamean t%rank = 2 t%type = 'r' t%name = 'thetamean' t%btype = 'd' t%units= 'rad' t%standardname= 'sea_surface_wind_wave_to_direction' t%description= 'mean wave angle' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 55) t%r2 => s%Fx t%rank = 2 t%type = 'r' t%name = 'Fx' t%btype = 'd' t%units= 'N/m2' t%standardname= '' t%description= 'wave force, x-component' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 56) t%r2 => s%Fy t%rank = 2 t%type = 'r' t%name = 'Fy' t%btype = 'd' t%units= 'N/m2' t%standardname= '' t%description= 'wave force, y-component' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 57) t%r2 => s%Sxy t%rank = 2 t%type = 'r' t%name = 'Sxy' t%btype = 'd' t%units= 'N/m' t%standardname= '' t%description= 'radiation stress, y-component' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 58) t%r2 => s%Syy t%rank = 2 t%type = 'r' t%name = 'Syy' t%btype = 'd' t%units= 'N/m' t%standardname= '' t%description= 'radiation stress, y-component' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 59) t%r2 => s%Sxx t%rank = 2 t%type = 'r' t%name = 'Sxx' t%btype = 'd' t%units= 'N/m' t%standardname= '' t%description= 'radiation stress, x-component' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 60) t%r2 => s%n t%rank = 2 t%type = 'r' t%name = 'n' t%btype = 'd' t%units= '-' t%standardname= '' t%description= 'ratio group velocity/wave celerity' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 61) t%r2 => s%H t%rank = 2 t%type = 'r' t%name = 'H' t%btype = 'd' t%units= 'm' t%standardname= '' t%description= 'Hrms wave height based on instantaneous wave energy' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 62) t%r3 => s%cgx t%rank = 3 t%type = 'r' t%name = 'cgx' t%btype = 'd' t%units= 'm/s' t%standardname= '' t%description= 'group velocity, x-component' t%dimensions(1:3) = (/ 's%nx+1 ','s%ny+1 ','s%ntheta ' /) case( 63) t%r3 => s%cgy t%rank = 3 t%type = 'r' t%name = 'cgy' t%btype = 'd' t%units= 'm/s' t%standardname= '' t%description= 'group velocity, y-component' t%dimensions(1:3) = (/ 's%nx+1 ','s%ny+1 ','s%ntheta ' /) case( 64) t%r3 => s%cx t%rank = 3 t%type = 'r' t%name = 'cx' t%btype = 'd' t%units= 'm/s' t%standardname= '' t%description= 'wave celerity, x-component' t%dimensions(1:3) = (/ 's%nx+1 ','s%ny+1 ','s%ntheta ' /) case( 65) t%r3 => s%cy t%rank = 3 t%type = 'r' t%name = 'cy' t%btype = 'd' t%units= 'm/s' t%standardname= '' t%description= 'wave celerity, y-component' t%dimensions(1:3) = (/ 's%nx+1 ','s%ny+1 ','s%ntheta ' /) case( 66) t%r3 => s%ctheta t%rank = 3 t%type = 'r' t%name = 'ctheta' t%btype = 'd' t%units= 'rad/s' t%standardname= '' t%description= 'wave celerity theta-direction (refraction)' t%dimensions(1:3) = (/ 's%nx+1 ','s%ny+1 ','s%ntheta ' /) case( 67) t%r3 => s%ee t%rank = 3 t%type = 'r' t%name = 'ee' t%btype = 'd' t%units= 'J/m2/rad' t%standardname= '' t%description= 'directionally distributed wave energy' t%dimensions(1:3) = (/ 's%nx+1 ','s%ny+1 ','s%ntheta ' /) case( 68) t%r3 => s%thet t%rank = 3 t%type = 'r' t%name = 'thet' t%btype = 'd' t%units= 'rad' t%standardname= 'sea_surface_wind_wave_to_direction' t%description= 'wave angles' t%dimensions(1:3) = (/ 's%nx+1 ','s%ny+1 ','s%ntheta ' /) case( 69) t%r3 => s%costh t%rank = 3 t%type = 'r' t%name = 'costh' t%btype = 'd' t%units= '-' t%standardname= '' t%description= 'cos of wave angles relative to grid direction' t%dimensions(1:3) = (/ 's%nx+1 ','s%ny+1 ','s%ntheta ' /) case( 70) t%r3 => s%sinth t%rank = 3 t%type = 'r' t%name = 'sinth' t%btype = 'd' t%units= '-' t%standardname= '' t%description= 'sin of wave angles relative to grid direction' t%dimensions(1:3) = (/ 's%nx+1 ','s%ny+1 ','s%ntheta ' /) case( 71) t%r3 => s%sigt t%rank = 3 t%type = 'r' t%name = 'sigt' t%btype = 'd' t%units= 'rad/s' t%standardname= '' t%description= 'relative frequency' t%dimensions(1:3) = (/ 's%nx+1 ','s%ny+1 ','s%ntheta ' /) case( 72) t%r3 => s%rr t%rank = 3 t%type = 'r' t%name = 'rr' t%btype = 'd' t%units= 'J/m2/rad' t%standardname= '' t%description= 'directionally distributed roller energy' t%dimensions(1:3) = (/ 's%nx+1 ','s%ny+1 ','s%ntheta ' /) case( 73) t%r3 => s%cgx_s t%rank = 3 t%type = 'r' t%name = 'cgx_s' t%btype = 'd' t%units= 'm/s' t%standardname= '' t%description= 'group velocity, x-component' t%dimensions(1:3) = (/ 's%nx+1 ','s%ny+1 ','s%ntheta_s ' /) case( 74) t%r3 => s%cgy_s t%rank = 3 t%type = 'r' t%name = 'cgy_s' t%btype = 'd' t%units= 'm/s' t%standardname= '' t%description= 'group velocity, y-component' t%dimensions(1:3) = (/ 's%nx+1 ','s%ny+1 ','s%ntheta_s ' /) case( 75) t%r3 => s%ctheta_s t%rank = 3 t%type = 'r' t%name = 'ctheta_s' t%btype = 'd' t%units= 'rad/s' t%standardname= '' t%description= 'wave celerity theta-direction (refraction)' t%dimensions(1:3) = (/ 's%nx+1 ','s%ny+1 ','s%ntheta_s ' /) case( 76) t%r3 => s%ee_s t%rank = 3 t%type = 'r' t%name = 'ee_s' t%btype = 'd' t%units= 'J/m2/rad' t%standardname= '' t%description= 'directionally distributed wave energy' t%dimensions(1:3) = (/ 's%nx+1 ','s%ny+1 ','s%ntheta_s ' /) case( 77) t%r3 => s%thet_s t%rank = 3 t%type = 'r' t%name = 'thet_s' t%btype = 'd' t%units= 'rad' t%standardname= 'sea_surface_wind_wave_to_direction' t%description= 'wave angles' t%dimensions(1:3) = (/ 's%nx+1 ','s%ny+1 ','s%ntheta_s ' /) case( 78) t%r3 => s%costh_s t%rank = 3 t%type = 'r' t%name = 'costh_s' t%btype = 'd' t%units= '-' t%standardname= '' t%description= 'cos of wave angles relative to grid direction' t%dimensions(1:3) = (/ 's%nx+1 ','s%ny+1 ','s%ntheta_s ' /) case( 79) t%r3 => s%sinth_s t%rank = 3 t%type = 'r' t%name = 'sinth_s' t%btype = 'd' t%units= '-' t%standardname= '' t%description= 'sin of wave angles relative to grid direction' t%dimensions(1:3) = (/ 's%nx+1 ','s%ny+1 ','s%ntheta_s ' /) case( 80) t%r2 => s%k t%rank = 2 t%type = 'r' t%name = 'k' t%btype = 'd' t%units= 'rad/m' t%standardname= '' t%description= 'wave number' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 81) t%r2 => s%c t%rank = 2 t%type = 'r' t%name = 'c' t%btype = 'd' t%units= 'm/s' t%standardname= '' t%description= 'wave celerity' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 82) t%r2 => s%cg t%rank = 2 t%type = 'r' t%name = 'cg' t%btype = 'd' t%units= 'm/s' t%standardname= '' t%description= 'group velocity' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 83) t%r2 => s%sigm t%rank = 2 t%type = 'r' t%name = 'sigm' t%btype = 'd' t%units= 'rad/s' t%standardname= '' t%description= 'mean frequency' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 84) t%r2 => s%wm t%rank = 2 t%type = 'r' t%name = 'wm' t%btype = 'd' t%units= 'rad/s' t%standardname= '' t%description= 'mean abs frequency' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 85) t%r2 => s%hh t%rank = 2 t%type = 'r' t%name = 'hh' t%btype = 'd' t%units= 'm' t%standardname= '' t%description= 'water depth' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 86) t%r2 => s%zs t%rank = 2 t%type = 'r' t%name = 'zs' t%btype = 'd' t%units= 'm' t%standardname= 'sea_surface_height_above_sea_level' t%description= 'water level' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 87) t%r2 => s%zs0 t%rank = 2 t%type = 'r' t%name = 'zs0' t%btype = 'd' t%units= 'm' t%standardname= 'sea_surface_height_above_sea_level' t%description= 'water level due to tide alone' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 88) t%r1 => s%tideinpt t%rank = 1 t%type = 'r' t%name = 'tideinpt' t%btype = 'b' t%units= 's' t%standardname= 'time' t%description= 'input time of input tidal signal' t%dimensions(1:1) = (/ 's%tidelen ' /) case( 89) t%r2 => s%tideinpz t%rank = 2 t%type = 'r' t%name = 'tideinpz' t%btype = 'b' t%units= 'm' t%standardname= 'sea_surface_height_above_sea_level' t%description= 'input tidal signal' t%dimensions(1:2) = (/ 's%tidelen ','par%tideloc ' /) case( 90) t%r1 => s%windinpt t%rank = 1 t%type = 'r' t%name = 'windinpt' t%btype = 'b' t%units= 's' t%standardname= 'time' t%description= 'input time of input wind signal' t%dimensions(1:1) = (/ 's%windlen ' /) case( 91) t%r1 => s%windvelts t%rank = 1 t%type = 'r' t%name = 'windvelts' t%btype = 'b' t%units= 'm/s' t%standardname= '' t%description= 'input wind velocity' t%dimensions(1:1) = (/ 's%windlen ' /) case( 92) t%r1 => s%winddirts t%rank = 1 t%type = 'r' t%name = 'winddirts' t%btype = 'b' t%units= 'deg_nautical' t%standardname= '' t%description= 'input wind direction' t%dimensions(1:1) = (/ 's%windlen ' /) case( 93) t%r1 => s%windxts t%rank = 1 t%type = 'r' t%name = 'windxts' t%btype = 'b' t%units= 'm/s' t%standardname= '' t%description= 'time series of input wind velocity (not S direction), x-component' t%dimensions(1:1) = (/ 's%windlen ' /) case( 94) t%r1 => s%windyts t%rank = 1 t%type = 'r' t%name = 'windyts' t%btype = 'b' t%units= 'm/s' t%standardname= '' t%description= 'time series of input wind velocity (not N direction), y-component' t%dimensions(1:1) = (/ 's%windlen ' /) case( 95) t%r2 => s%windsu t%rank = 2 t%type = 'r' t%name = 'windsu' t%btype = 'd' t%units= 'm/s' t%standardname= '' t%description= 'wind velocity in S direction in u point at current time step' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 96) t%r2 => s%windnv t%rank = 2 t%type = 'r' t%name = 'windnv' t%btype = 'd' t%units= 'm/s' t%standardname= '' t%description= 'wind velocity in N direction in v point at current time step' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 97) t%r2 => s%dzsdt t%rank = 2 t%type = 'r' t%name = 'dzsdt' t%btype = 'd' t%units= 'm/s' t%standardname= '' t%description= 'rate of change water level' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 98) t%r2 => s%dzsdx t%rank = 2 t%type = 'r' t%name = 'dzsdx' t%btype = 'd' t%units= 'm/s' t%standardname= '' t%description= 'water surface gradient in x-direction' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 99) t%r2 => s%dzsdy t%rank = 2 t%type = 'r' t%name = 'dzsdy' t%btype = 'd' t%units= 'm/s' t%standardname= '' t%description= 'water surface gradient in y-direction' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 100) t%r2 => s%dzbdx t%rank = 2 t%type = 'r' t%name = 'dzbdx' t%btype = 'd' t%units= '-' t%standardname= '' t%description= 'bed level gradient in x-direction' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 101) t%r2 => s%dzbdy t%rank = 2 t%type = 'r' t%name = 'dzbdy' t%btype = 'd' t%units= '-' t%standardname= '' t%description= 'bed level gradient in y-direction' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 102) t%r2 => s%dzbdt t%rank = 2 t%type = 'r' t%name = 'dzbdt' t%btype = 'd' t%units= 'm/s' t%standardname= '' t%description= 'rate of change bed level' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 103) t%r2 => s%dzbnow t%rank = 2 t%type = 'r' t%name = 'dzbnow' t%btype = 'd' t%units= 'm' t%standardname= '' t%description= 'bed level change in current time step' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 104) t%r2 => s%uu t%rank = 2 t%type = 'r' t%name = 'uu' t%btype = 'd' t%units= 'm/s' t%standardname= 'sea_water_x_velocity' t%description= 'GLM velocity in u-points, x-component' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 105) t%r2 => s%vu t%rank = 2 t%type = 'r' t%name = 'vu' t%btype = 'd' t%units= 'm/s' t%standardname= 'sea_water_y_velocity' t%description= 'GLM velocity in u-points, y-component' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 106) t%r2 => s%uv t%rank = 2 t%type = 'r' t%name = 'uv' t%btype = 'd' t%units= 'm/s' t%standardname= 'sea_water_x_velocity' t%description= 'GLM velocity in v-points, x-component' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 107) t%r2 => s%vv t%rank = 2 t%type = 'r' t%name = 'vv' t%btype = 'd' t%units= 'm/s' t%standardname= 'sea_water_y_velocity' t%description= 'GLM velocity in v-points, y-component' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 108) t%r2 => s%qx t%rank = 2 t%type = 'r' t%name = 'qx' t%btype = 'd' t%units= 'm2/s' t%standardname= '' t%description= 'discharge in u-points, x-component' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 109) t%r2 => s%qy t%rank = 2 t%type = 'r' t%name = 'qy' t%btype = 'd' t%units= 'm2/s' t%standardname= '' t%description= 'discharge in u-points, y-component' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 110) t%r2 => s%sedero t%rank = 2 t%type = 'r' t%name = 'sedero' t%btype = 'd' t%units= 'm' t%standardname= '' t%description= 'cum. sedimentation/erosion' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 111) t%r2 => s%dcbdx t%rank = 2 t%type = 'r' t%name = 'dcbdx' t%btype = 'd' t%units= 'kg/m3/m' t%standardname= '' t%description= 'bed concentration gradient x-dir.' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 112) t%r2 => s%dcbdy t%rank = 2 t%type = 'r' t%name = 'dcbdy' t%btype = 'd' t%units= 'kg/m3/m' t%standardname= '' t%description= 'bed concentration gradient y-dir.' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 113) t%r2 => s%dcsdx t%rank = 2 t%type = 'r' t%name = 'dcsdx' t%btype = 'd' t%units= 'kg/m3/m' t%standardname= '' t%description= 'suspended concentration gradient x-dir.' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 114) t%r2 => s%dcsdy t%rank = 2 t%type = 'r' t%name = 'dcsdy' t%btype = 'd' t%units= 'kg/m3/m' t%standardname= '' t%description= 'suspended concentration gradient y-dir.' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 115) t%r2 => s%ui t%rank = 2 t%type = 'r' t%name = 'ui' t%btype = 'd' t%units= 'm/s' t%standardname= '' t%description= 'incident bound wave velocity in, x-component' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 116) t%r2 => s%vi t%rank = 2 t%type = 'r' t%name = 'vi' t%btype = 'd' t%units= 'm/s' t%standardname= '' t%description= 'incident bound wave velocity in, y-component' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 117) t%r2 => s%E t%rank = 2 t%type = 'r' t%name = 'E' t%btype = 'd' t%units= 'Nm/m2' t%standardname= '' t%description= 'wave energy' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 118) t%r2 => s%R t%rank = 2 t%type = 'r' t%name = 'R' t%btype = 'd' t%units= 'Nm/m2' t%standardname= '' t%description= 'roller energy' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 119) t%r2 => s%urms t%rank = 2 t%type = 'r' t%name = 'urms' t%btype = 'd' t%units= 'm/s' t%standardname= '' t%description= 'orbital velocity' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 120) t%r2 => s%D t%rank = 2 t%type = 'r' t%name = 'D' t%btype = 'd' t%units= 'W/m2' t%standardname= '' t%description= 'dissipation' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 121) t%r2 => s%Qb t%rank = 2 t%type = 'r' t%name = 'Qb' t%btype = 'd' t%units= '-' t%standardname= '' t%description= 'fraction breaking waves' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 122) t%r2 => s%ust t%rank = 2 t%type = 'r' t%name = 'ust' t%btype = 'd' t%units= 'm/s' t%standardname= '' t%description= 'Stokes drift' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 123) t%r2 => s%ueu t%rank = 2 t%type = 'r' t%name = 'ueu' t%btype = 'd' t%units= 'm/s' t%standardname= 'sea_water_x_velocity' t%description= 'Eulerian velocity in u-points, x-component' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 124) t%r2 => s%vev t%rank = 2 t%type = 'r' t%name = 'vev' t%btype = 'd' t%units= 'm/s' t%standardname= 'sea_water_y_velocity' t%description= 'Eulerian velocity in u-points, y-component' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 125) t%r2 => s%vmagu t%rank = 2 t%type = 'r' t%name = 'vmagu' t%btype = 'd' t%units= 'm/s' t%standardname= '' t%description= 'GLM velocity magnitude u-points' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 126) t%r2 => s%vmageu t%rank = 2 t%type = 'r' t%name = 'vmageu' t%btype = 'd' t%units= 'm/s' t%standardname= '' t%description= 'Eulerian velocity magnitude u-points' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 127) t%r2 => s%vmagv t%rank = 2 t%type = 'r' t%name = 'vmagv' t%btype = 'd' t%units= 'm/s' t%standardname= '' t%description= 'GLM velocity magnitude v-points' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 128) t%r2 => s%vmagev t%rank = 2 t%type = 'r' t%name = 'vmagev' t%btype = 'd' t%units= 'm/s' t%standardname= '' t%description= 'Eulerian velocity magnitude v-points' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 129) t%r2 => s%u t%rank = 2 t%type = 'r' t%name = 'u' t%btype = 'd' t%units= 'm/s' t%standardname= 'sea_water_x_velocity' t%description= 'GLM velocity in cell centre, x-component' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 130) t%r2 => s%v t%rank = 2 t%type = 'r' t%name = 'v' t%btype = 'd' t%units= 'm/s' t%standardname= 'sea_water_y_velocity' t%description= 'GLM velocity in cell centre, y-component' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 131) t%r2 => s%ue t%rank = 2 t%type = 'r' t%name = 'ue' t%btype = 'd' t%units= 'm/s' t%standardname= 'sea_water_x_velocity' t%description= 'Eulerian velocity in cell centre, x-component' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 132) t%r2 => s%ve t%rank = 2 t%type = 'r' t%name = 've' t%btype = 'd' t%units= 'm/s' t%standardname= 'sea_water_y_velocity' t%description= 'Eulerian velocity in cell centre, y-component' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 133) t%r2 => s%ue_sed t%rank = 2 t%type = 'r' t%name = 'ue_sed' t%btype = 'd' t%units= 'm/s' t%standardname= 'sea_water_x_velocity' t%description= 'Advection velocity sediment in cell centre, x-component' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 134) t%r2 => s%ve_sed t%rank = 2 t%type = 'r' t%name = 've_sed' t%btype = 'd' t%units= 'm/s' t%standardname= 'sea_water_x_velocity' t%description= 'Advection velocity sediment in cell centre, y-component' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 135) t%r2 => s%hold t%rank = 2 t%type = 'r' t%name = 'hold' t%btype = 'd' t%units= 'm' t%standardname= '' t%description= 'water depth previous time step' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 136) t%i2 => s%wetu t%rank = 2 t%type = 'i' t%name = 'wetu' t%btype = 'd' t%units= '-' t%standardname= '' t%description= 'mask wet/dry u-points' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 137) t%i2 => s%wetv t%rank = 2 t%type = 'i' t%name = 'wetv' t%btype = 'd' t%units= '-' t%standardname= '' t%description= 'mask wet/dry v-points' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 138) t%i2 => s%wetz t%rank = 2 t%type = 'i' t%name = 'wetz' t%btype = 'd' t%units= '-' t%standardname= '' t%description= 'mask wet/dry eta-points' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 139) t%i2 => s%wete t%rank = 2 t%type = 'i' t%name = 'wete' t%btype = 'd' t%units= '-' t%standardname= '' t%description= 'mask wet/dry wave-points' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 140) t%r2 => s%hu t%rank = 2 t%type = 'r' t%name = 'hu' t%btype = 'd' t%units= 'm' t%standardname= '' t%description= 'water depth in u-points' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 141) t%r2 => s%hv t%rank = 2 t%type = 'r' t%name = 'hv' t%btype = 'd' t%units= 'm' t%standardname= '' t%description= 'water depth in v-points' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 142) t%r2 => s%hum t%rank = 2 t%type = 'r' t%name = 'hum' t%btype = 'd' t%units= 'm' t%standardname= '' t%description= 'water depth in u-points' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 143) t%r2 => s%hvm t%rank = 2 t%type = 'r' t%name = 'hvm' t%btype = 'd' t%units= 'm' t%standardname= '' t%description= 'water depth in v-points' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 144) t%r2 => s%vmag t%rank = 2 t%type = 'r' t%name = 'vmag' t%btype = 'd' t%units= 'm/s' t%standardname= '' t%description= 'velocity magnitude in cell centre' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 145) t%r2 => s%qmag t%rank = 2 t%type = 'r' t%name = 'qmag' t%btype = 'd' t%units= 'm2/s' t%standardname= '' t%description= 'depth-velocity product' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 146) t%r3 => s%ccg t%rank = 3 t%type = 'r' t%name = 'ccg' t%btype = 'd' t%units= 'm3/m3' t%standardname= '' t%description= 'depth-averaged suspended concentration for each sediment fraction' t%dimensions(1:3) = (/ 's%nx+1 ','s%ny+1 ','par%ngd ' /) case( 147) t%r2 => s%uwf t%rank = 2 t%type = 'r' t%name = 'uwf' t%btype = 'd' t%units= 'm/s' t%standardname= '' t%description= 'Stokes drift, x-component' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 148) t%r2 => s%vwf t%rank = 2 t%type = 'r' t%name = 'vwf' t%btype = 'd' t%units= 'm/s' t%standardname= '' t%description= 'Stokes drift, y-component' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 149) t%r2 => s%ustr t%rank = 2 t%type = 'r' t%name = 'ustr' t%btype = 'd' t%units= 'm/s' t%standardname= '' t%description= 'return flow due to roller' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 150) t%r2 => s%usd t%rank = 2 t%type = 'r' t%name = 'usd' t%btype = 'd' t%units= 'm/s' t%standardname= '' t%description= 'return flow due to roller after breaker delay' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 151) t%r1 => s%bi t%rank = 1 t%type = 'r' t%name = 'bi' t%btype = 'd' t%units= 'm' t%standardname= '' t%description= 'incoming bound long wave' t%dimensions(1:1) = (/ 's%ny+1 ' /) case( 152) t%r2 => s%DR t%rank = 2 t%type = 'r' t%name = 'DR' t%btype = 'd' t%units= 'W/m2' t%standardname= '' t%description= 'roller energy dissipation' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 153) t%r2 => s%umean t%rank = 2 t%type = 'r' t%name = 'umean' t%btype = 'd' t%units= 'm/s' t%standardname= 'sea_water_x_velocity' t%description= 'longterm mean velocity at bnds in u-points, x-component' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 154) t%r2 => s%vmean t%rank = 2 t%type = 'r' t%name = 'vmean' t%btype = 'd' t%units= 'm/s' t%standardname= 'sea_water_y_velocity' t%description= 'longterm mean velocity at bnds in u-points, y-component' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 155) t%r2 => s%ur t%rank = 2 t%type = 'r' t%name = 'ur' t%btype = 'd' t%units= 'm/s' t%standardname= '' t%description= 'reflected velocity at bnds in u-points' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 156) t%i0 => s%vardx t%rank = 0 t%type = 'i' t%name = 'vardx' t%btype = 'b' t%units= '-' t%standardname= '' t%description= '0 = uniform grid size, 1 = variable grid size' case( 157) t%r1 => s%D15 t%rank = 1 t%type = 'r' t%name = 'D15' t%btype = 'b' t%units= 'm' t%standardname= '' t%description= 'D15 grain diameters for all sediment classses' t%dimensions(1:1) = (/ 'par%ngd ' /) case( 158) t%r1 => s%D50 t%rank = 1 t%type = 'r' t%name = 'D50' t%btype = 'b' t%units= 'm' t%standardname= '' t%description= 'D50 grain diameters for all sediment classses' t%dimensions(1:1) = (/ 'par%ngd ' /) case( 159) t%r1 => s%D90 t%rank = 1 t%type = 'r' t%name = 'D90' t%btype = 'b' t%units= 'm' t%standardname= '' t%description= 'D90 grain diameters for all sediment classses' t%dimensions(1:1) = (/ 'par%ngd ' /) case( 160) t%r1 => s%sedcal t%rank = 1 t%type = 'r' t%name = 'sedcal' t%btype = 'b' t%units= '-' t%standardname= '' t%description= 'equilibrium sediment concentartion factor for each sediment class' t%dimensions(1:1) = (/ 'par%ngd ' /) case( 161) t%r1 => s%ucrcal t%rank = 1 t%type = 'r' t%name = 'ucrcal' t%btype = 'b' t%units= '-' t%standardname= '' t%description= 'calibration factor for u critical for each sediment class' t%dimensions(1:1) = (/ 'par%ngd ' /) case( 162) t%r3 => s%Tsg t%rank = 3 t%type = 'r' t%name = 'Tsg' t%btype = 'd' t%units= 's' t%standardname= '' t%description= 'sediment response time for each sediment class' t%dimensions(1:3) = (/ 's%nx+1 ','s%ny+1 ','par%ngd ' /) case( 163) t%r3 => s%Susg t%rank = 3 t%type = 'r' t%name = 'Susg' t%btype = 'd' t%units= 'm2/s' t%standardname= '' t%description= 'suspended sediment transport for each sediment class (excluding pores), x-component' t%dimensions(1:3) = (/ 's%nx+1 ','s%ny+1 ','par%ngd ' /) case( 164) t%r3 => s%Svsg t%rank = 3 t%type = 'r' t%name = 'Svsg' t%btype = 'd' t%units= 'm2/s' t%standardname= '' t%description= 'suspended sediment transport for each sediment class (excluding pores), y-component' t%dimensions(1:3) = (/ 's%nx+1 ','s%ny+1 ','par%ngd ' /) case( 165) t%r3 => s%Subg t%rank = 3 t%type = 'r' t%name = 'Subg' t%btype = 'd' t%units= 'm2/s' t%standardname= '' t%description= 'bed sediment transport for each sediment class (excluding pores), x-component' t%dimensions(1:3) = (/ 's%nx+1 ','s%ny+1 ','par%ngd ' /) case( 166) t%r3 => s%Svbg t%rank = 3 t%type = 'r' t%name = 'Svbg' t%btype = 'd' t%units= 'm2/s' t%standardname= '' t%description= 'bed sediment transport for each sediment class (excluding pores), y-component' t%dimensions(1:3) = (/ 's%nx+1 ','s%ny+1 ','par%ngd ' /) case( 167) t%r3 => s%ceqbg t%rank = 3 t%type = 'r' t%name = 'ceqbg' t%btype = 'd' t%units= 'm3/m3' t%standardname= '' t%description= 'depth-averaged bed equilibrium concentration for each sediment class' t%dimensions(1:3) = (/ 's%nx+1 ','s%ny+1 ','par%ngd ' /) case( 168) t%r3 => s%ceqsg t%rank = 3 t%type = 'r' t%name = 'ceqsg' t%btype = 'd' t%units= 'm3/m3' t%standardname= '' t%description= 'depth-averaged suspended equilibrium concentration for each sediment class' t%dimensions(1:3) = (/ 's%nx+1 ','s%ny+1 ','par%ngd ' /) case( 169) t%r2 => s%ua t%rank = 2 t%type = 'r' t%name = 'ua' t%btype = 'd' t%units= 'm/s' t%standardname= '' t%description= 'time averaged flow velocity due to wave assymetry' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 170) t%r2 => s%BR t%rank = 2 t%type = 'r' t%name = 'BR' t%btype = 'd' t%units= '-' t%standardname= '' t%description= 'maximum wave surface slope used in roller dissipation formulation' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 171) t%r2 => s%kb t%rank = 2 t%type = 'r' t%name = 'kb' t%btype = 'd' t%units= 'm2/s2' t%standardname= '' t%description= 'near bed turbulence intensity due to depth induces breaking' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 172) t%r2 => s%Tbore t%rank = 2 t%type = 'r' t%name = 'Tbore' t%btype = 'd' t%units= 's' t%standardname= '' t%description= 'wave period interval associated with breaking induced turbulence' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 173) t%r2 => s%dzav t%rank = 2 t%type = 'r' t%name = 'dzav' t%btype = 'd' t%units= 'm' t%standardname= '' t%description= 'total bed level change due to avalanching' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 174) t%r2 => s%maxzs t%rank = 2 t%type = 'r' t%name = 'maxzs' t%btype = 'd' t%units= 'm' t%standardname= '' t%description= 'maximum elevation in simulation' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 175) t%r2 => s%minzs t%rank = 2 t%type = 'r' t%name = 'minzs' t%btype = 'd' t%units= 'm' t%standardname= '' t%description= 'minimum elevation in simulation' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 176) t%r2 => s%L1 t%rank = 2 t%type = 'r' t%name = 'L1' t%btype = 'd' t%units= 'm' t%standardname= '' t%description= 'wave length (used in dispersion relation)' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 177) t%r2 => s%Sk t%rank = 2 t%type = 'r' t%name = 'Sk' t%btype = 'd' t%units= '-' t%standardname= '' t%description= 'skewness of short waves' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 178) t%r2 => s%As t%rank = 2 t%type = 'r' t%name = 'As' t%btype = 'd' t%units= '-' t%standardname= '' t%description= 'asymmetry of short waves' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 179) t%r2 => s%gwhead t%rank = 2 t%type = 'r' t%name = 'gwhead' t%btype = 'd' t%units= 'm' t%standardname= '' t%description= 'groundwater head (differs from gwlevel)' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 180) t%r2 => s%gwheadb t%rank = 2 t%type = 'r' t%name = 'gwheadb' t%btype = 'd' t%units= 'm' t%standardname= '' t%description= 'groundwater head at bottom (differs from gwlevel)' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 181) t%r2 => s%gwlevel t%rank = 2 t%type = 'r' t%name = 'gwlevel' t%btype = 'd' t%units= 'm' t%standardname= '' t%description= 'groundwater table (min(zb,gwhead))' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 182) t%r2 => s%gwheight t%rank = 2 t%type = 'r' t%name = 'gwheight' t%btype = 'd' t%units= 'm' t%standardname= '' t%description= 'vertical size of aquifer through which groundwater can flow' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 183) t%r2 => s%gwbottom t%rank = 2 t%type = 'r' t%name = 'gwbottom' t%btype = 'd' t%units= 'm' t%standardname= '' t%description= 'level of the bottom of the aquifer' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 184) t%r2 => s%gwu t%rank = 2 t%type = 'r' t%name = 'gwu' t%btype = 'd' t%units= 'm/s' t%standardname= '' t%description= 'groundwater flow in x-direction' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 185) t%r2 => s%gwv t%rank = 2 t%type = 'r' t%name = 'gwv' t%btype = 'd' t%units= 'm/s' t%standardname= '' t%description= 'groundwater flow in y-direction' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 186) t%r2 => s%gwqx t%rank = 2 t%type = 'r' t%name = 'gwqx' t%btype = 'd' t%units= 'm/s' t%standardname= '' t%description= 'groundwater discharge in x-direction' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 187) t%r2 => s%gwqy t%rank = 2 t%type = 'r' t%name = 'gwqy' t%btype = 'd' t%units= 'm/s' t%standardname= '' t%description= 'groundwater discharge in y-direction' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 188) t%r2 => s%gww t%rank = 2 t%type = 'r' t%name = 'gww' t%btype = 'd' t%units= 'm/s' t%standardname= '' t%description= 'groundwater flow in z-direction (interaction between surface and ground water)' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 189) t%r2 => s%gwcurv t%rank = 2 t%type = 'r' t%name = 'gwcurv' t%btype = 'd' t%units= '-' t%standardname= '' t%description= 'curvature coefficient of groundwater head function' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 190) t%r2 => s%dinfil t%rank = 2 t%type = 'r' t%name = 'dinfil' t%btype = 'd' t%units= 'm' t%standardname= '' t%description= 'Infiltration layer depth used in quasi-vertical flow model for groundwater' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 191) t%r2 => s%infil t%rank = 2 t%type = 'r' t%name = 'infil' t%btype = 'd' t%units= 'm/s' t%standardname= '' t%description= 'Rate of exchange of water between surface and groundwater (positive from sea to groundwater)' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 192) t%r2 => s%gw0back t%rank = 2 t%type = 'r' t%name = 'gw0back' t%btype = '2' t%units= 'm' t%standardname= '' t%description= 'boundary condition back boundary for groundwater head' t%dimensions(1:2) = (/ '2 ','s%ny+1 ' /) case( 193) t%r2 => s%Kx t%rank = 2 t%type = 'r' t%name = 'Kx' t%btype = 'd' t%units= 'm/s' t%standardname= '' t%description= '(Turbulent) Hydraulic conductivity in x-direction' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 194) t%r2 => s%Ky t%rank = 2 t%type = 'r' t%name = 'Ky' t%btype = 'd' t%units= 'm/s' t%standardname= '' t%description= '(Turbulent) Hydraulic conductivity in y-direction' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 195) t%r2 => s%Kz t%rank = 2 t%type = 'r' t%name = 'Kz' t%btype = 'd' t%units= 'm/s' t%standardname= '' t%description= '(Turbulent) Hydraulic conductivity in z-direction' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 196) t%r2 => s%Kzinf t%rank = 2 t%type = 'r' t%name = 'Kzinf' t%btype = 'd' t%units= 'm/s' t%standardname= '' t%description= '(Turbulent) Hydraulic conductivity in z-direction for infiltration' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 197) t%r2 => s%kturb t%rank = 2 t%type = 'r' t%name = 'kturb' t%btype = 'd' t%units= 'm2/s2' t%standardname= '' t%description= 'depth averaged turbulence intensity due to long wave breaking' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 198) t%r3 => s%ero t%rank = 3 t%type = 'r' t%name = 'ero' t%btype = 'd' t%units= 'm/s' t%standardname= '' t%description= 'bed erosion rate per fraction' t%dimensions(1:3) = (/ 's%nx+1 ','s%ny+1 ','par%ngd ' /) case( 199) t%r3 => s%depo_im t%rank = 3 t%type = 'r' t%name = 'depo_im' t%btype = 'd' t%units= 'm/s' t%standardname= '' t%description= 'implicit bed deposition rate per fraction' t%dimensions(1:3) = (/ 's%nx+1 ','s%ny+1 ','par%ngd ' /) case( 200) t%r3 => s%depo_ex t%rank = 3 t%type = 'r' t%name = 'depo_ex' t%btype = 'd' t%units= 'm/s' t%standardname= '' t%description= 'explicit bed deposition rate per fraction' t%dimensions(1:3) = (/ 's%nx+1 ','s%ny+1 ','par%ngd ' /) case( 201) t%i2 => s%nd t%rank = 2 t%type = 'i' t%name = 'nd' t%btype = 'd' t%units= '-' t%standardname= '' t%description= 'number of bed layers (can be different for each computational cell)' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 202) t%r4 => s%pbbed t%rank = 4 t%type = 'r' t%name = 'pbbed' t%btype = 'd' t%units= '-' t%standardname= '' t%description= 'NO DESCRIPTION' t%dimensions(1:4) = (/ 's%nx+1 ','s%ny+1 ','par%nd ','par%ngd ' /) case( 203) t%r3 => s%dzbed t%rank = 3 t%type = 'r' t%name = 'dzbed' t%btype = 'd' t%units= '-' t%standardname= '' t%description= 'NO DESCRIPTION' t%dimensions(1:3) = (/ 's%nx+1 ','s%ny+1 ','par%nd ' /) case( 204) t%r2 => s%z0bed t%rank = 2 t%type = 'r' t%name = 'z0bed' t%btype = 'd' t%units= '-' t%standardname= '' t%description= 'NO DESCRIPTION' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 205) t%r2 => s%ureps t%rank = 2 t%type = 'r' t%name = 'ureps' t%btype = 'd' t%units= 'm/s' t%standardname= 'sea_water_x_velocity' t%description= 'representative flow velocity for sediment advection and diffusion, x-component' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 206) t%r2 => s%vreps t%rank = 2 t%type = 'r' t%name = 'vreps' t%btype = 'd' t%units= 'm/s' t%standardname= 'sea_water_y_velocity' t%description= 'representative flow velocity for sediment advection and diffusion, y-component' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 207) t%r2 => s%urepb t%rank = 2 t%type = 'r' t%name = 'urepb' t%btype = 'd' t%units= 'm/s' t%standardname= 'sea_water_x_velocity' t%description= 'representative flow velocity for sediment advection and diffusion, x-component' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 208) t%r2 => s%vrepb t%rank = 2 t%type = 'r' t%name = 'vrepb' t%btype = 'd' t%units= 'm/s' t%standardname= 'sea_water_y_velocity' t%description= 'representative flow velocity for sediment advection and diffusion, y-component' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 209) t%r2 => s%umwci t%rank = 2 t%type = 'r' t%name = 'umwci' t%btype = 'd' t%units= 'm/s' t%standardname= 'sea_water_x_velocity' t%description= 'velocity (time-averaged) for wci, x-component' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 210) t%r2 => s%vmwci t%rank = 2 t%type = 'r' t%name = 'vmwci' t%btype = 'd' t%units= 'm/s' t%standardname= 'sea_water_y_velocity' t%description= 'velocity (time-averaged) for wci, y-component' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 211) t%r2 => s%rolthick t%rank = 2 t%type = 'r' t%name = 'rolthick' t%btype = 'd' t%units= 'm' t%standardname= '' t%description= 'long wave roller thickness' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 212) t%r2 => s%zswci t%rank = 2 t%type = 'r' t%name = 'zswci' t%btype = 'd' t%units= 'm' t%standardname= '' t%description= 'waterlevel (time-averaged) for wci' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 213) t%r2 => s%pres t%rank = 2 t%type = 'r' t%name = 'pres' t%btype = 'd' t%units= 'm2/s2' t%standardname= '' t%description= 'normalized dynamic pressure' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 214) t%r2 => s%dU t%rank = 2 t%type = 'r' t%name = 'dU' t%btype = 'd' t%units= 'm2/s2' t%standardname= '' t%description= 'u-velocity difference between two vertical layers (reduced 2-layer non-hydrostatic model)' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 215) t%r2 => s%dV t%rank = 2 t%type = 'r' t%name = 'dV' t%btype = 'd' t%units= 'm2/s2' t%standardname= '' t%description= 'v-velocity difference between two vertical layers (reduced 2-layer non-hydrostatic model)' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 216) t%r2 => s%wb t%rank = 2 t%type = 'r' t%name = 'wb' t%btype = 'd' t%units= 'm/s' t%standardname= '' t%description= 'vertical velocity at the bottom' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 217) t%r2 => s%ws t%rank = 2 t%type = 'r' t%name = 'ws' t%btype = 'd' t%units= 'm/s' t%standardname= '' t%description= 'vertical velocity at the free surface' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 218) t%r2 => s%wscrit t%rank = 2 t%type = 'r' t%name = 'wscrit' t%btype = 'd' t%units= 'm/s' t%standardname= '' t%description= 'critial vertical velocity at the free surface for breaking' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 219) t%r2 => s%bedfriccoef t%rank = 2 t%type = 'r' t%name = 'bedfriccoef' t%btype = 'd' t%units= '-' t%standardname= '' t%description= 'dimensional/dimensionless input bed friction coefficient; depends on value of parameter bedfriction' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 220) t%r2 => s%taubx t%rank = 2 t%type = 'r' t%name = 'taubx' t%btype = 'd' t%units= 'N/m2' t%standardname= '' t%description= 'bed shear stress, x-component' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 221) t%r2 => s%tauby t%rank = 2 t%type = 'r' t%name = 'tauby' t%btype = 'd' t%units= 'N/m2' t%standardname= '' t%description= 'bed shear stress, y-component' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 222) t%r2 => s%Df t%rank = 2 t%type = 'r' t%name = 'Df' t%btype = 'd' t%units= 'W/m2' t%standardname= '' t%description= 'dissipation rate due to bed friction' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 223) t%r2 => s%Dp t%rank = 2 t%type = 'r' t%name = 'Dp' t%btype = 'd' t%units= 'W/m2' t%standardname= '' t%description= 'dissipation rate in the swash due to transformation of kinetic wave energy to potential wave energy' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 224) t%r2 => s%Sutot t%rank = 2 t%type = 'r' t%name = 'Sutot' t%btype = 'd' t%units= 'm2/s' t%standardname= '' t%description= 'Sediment transport integrated over bed load and suspended and for all sediment grains, x-component' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 225) t%r2 => s%Svtot t%rank = 2 t%type = 'r' t%name = 'Svtot' t%btype = 'd' t%units= 'm2/s' t%standardname= '' t%description= 'Sediment transport integrated over bed load and suspended and for all sediment grains, y-component' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 226) t%r2 => s%cctot t%rank = 2 t%type = 'r' t%name = 'cctot' t%btype = 'd' t%units= 'm3/m3' t%standardname= '' t%description= 'Sediment concentration integrated over bed load and suspended and for all sediment grains' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 227) t%r2 => s%wi t%rank = 2 t%type = 'r' t%name = 'wi' t%btype = '2' t%units= 'm/s' t%standardname= '' t%description= 'Vertical velocity at boundary due to (short) waves' t%dimensions(1:2) = (/ '2 ','s%ny+1 ' /) case( 228) t%r2 => s%dUi t%rank = 2 t%type = 'r' t%name = 'dUi' t%btype = '2' t%units= 'm/s' t%standardname= '' t%description= 'Velocity difference at boundary due to (short) waves' t%dimensions(1:2) = (/ '2 ','s%ny+1 ' /) case( 229) t%r2 => s%dVi t%rank = 2 t%type = 'r' t%name = 'dVi' t%btype = '2' t%units= 'm/s' t%standardname= '' t%description= 'Velocity difference at boundary due to (short) waves' t%dimensions(1:2) = (/ '2 ','s%ny+1 ' /) case( 230) t%r2 => s%zi t%rank = 2 t%type = 'r' t%name = 'zi' t%btype = '2' t%units= 'm' t%standardname= '' t%description= 'Surface elevation at boundary due to (short) waves' t%dimensions(1:2) = (/ '2 ','s%ny+1 ' /) case( 231) t%r2 => s%nuh t%rank = 2 t%type = 'r' t%name = 'nuh' t%btype = 'd' t%units= 'm2/s' t%standardname= '' t%description= 'horizontal viscosity coefficient' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 232) t%r2 => s%cf t%rank = 2 t%type = 'r' t%name = 'cf' t%btype = 'd' t%units= '-' t%standardname= '' t%description= 'Friction coefficient flow' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 233) t%r2 => s%cfu t%rank = 2 t%type = 'r' t%name = 'cfu' t%btype = 'd' t%units= '-' t%standardname= '' t%description= 'Friction coefficient flow in u-points' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 234) t%r2 => s%cfv t%rank = 2 t%type = 'r' t%name = 'cfv' t%btype = 'd' t%units= '-' t%standardname= '' t%description= 'Friction coefficient flow in v-points' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 235) t%r2 => s%D50top t%rank = 2 t%type = 'r' t%name = 'D50top' t%btype = 'd' t%units= '-' t%standardname= '' t%description= 'Friction coefficient flow' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 236) t%r2 => s%D90top t%rank = 2 t%type = 'r' t%name = 'D90top' t%btype = 'd' t%units= '-' t%standardname= '' t%description= 'Friction coefficient flow' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 237) t%r2 => s%structdepth t%rank = 2 t%type = 'r' t%name = 'structdepth' t%btype = 'd' t%units= 'm' t%standardname= '' t%description= 'Depth of structure in relation to instantaneous bed level' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 238) t%r3 => s%zs0fac t%rank = 3 t%type = 'r' t%name = 'zs0fac' t%btype = 'd' t%units= '-' t%standardname= '' t%description= 'relative weight of offshore boundary and bay boundary for each grid point is stored in zs0fac' t%dimensions(1:3) = (/ 's%nx+1 ','s%ny+1 ','2 ' /) case( 239) t%r1 => s%tdisch t%rank = 1 t%type = 'r' t%name = 'tdisch' t%btype = 'b' t%units= '-' t%standardname= '' t%description= 'Discharge time series' t%dimensions(1:1) = (/ 'par%ntdischarge ' /) case( 240) t%r2 => s%pdisch t%rank = 2 t%type = 'r' t%name = 'pdisch' t%btype = 'b' t%units= '-' t%standardname= '' t%description= 'Discharge locations' t%dimensions(1:2) = (/ 'par%ndischarge ','4 ' /) case( 241) t%i1 => s%pntdisch t%rank = 1 t%type = 'i' t%name = 'pntdisch' t%btype = 'b' t%units= '-' t%standardname= '' t%description= 'Point discharge locations (no momentum)' t%dimensions(1:1) = (/ 'par%ndischarge ' /) case( 242) t%r2 => s%qdisch t%rank = 2 t%type = 'r' t%name = 'qdisch' t%btype = 'b' t%units= 'm2/s' t%standardname= '' t%description= 'Discharges' t%dimensions(1:2) = (/ 'par%ntdischarge ','par%ndischarge ' /) case( 243) t%r1 => s%idrift t%rank = 1 t%type = 'r' t%name = 'idrift' t%btype = 'b' t%units= '-' t%standardname= '' t%description= 'Drifter x-coordinate in grid space' t%dimensions(1:1) = (/ 'par%ndrifter ' /) case( 244) t%r1 => s%jdrift t%rank = 1 t%type = 'r' t%name = 'jdrift' t%btype = 'b' t%units= '-' t%standardname= '' t%description= 'Drifter y-coordinate in grid space' t%dimensions(1:1) = (/ 'par%ndrifter ' /) case( 245) t%r1 => s%tdriftb t%rank = 1 t%type = 'r' t%name = 'tdriftb' t%btype = 'b' t%units= 's' t%standardname= '' t%description= 'Drifter release time' t%dimensions(1:1) = (/ 'par%ndrifter ' /) case( 246) t%r1 => s%tdrifte t%rank = 1 t%type = 'r' t%name = 'tdrifte' t%btype = 'b' t%units= 's' t%standardname= '' t%description= 'Drifter retrieval time' t%dimensions(1:1) = (/ 'par%ndrifter ' /) case( 247) t%r1 => s%runup t%rank = 1 t%type = 'r' t%name = 'runup' t%btype = 'd' t%units= 'm' t%standardname= '' t%description= 'Short wave runup height' t%dimensions(1:1) = (/ 's%ny+1 ' /) case( 248) t%r1 => s%Hrunup t%rank = 1 t%type = 'r' t%name = 'Hrunup' t%btype = 'd' t%units= 'm' t%standardname= '' t%description= 'Short wave height used in runup formulation' t%dimensions(1:1) = (/ 's%ny+1 ' /) case( 249) t%r1 => s%xHrunup t%rank = 1 t%type = 'r' t%name = 'xHrunup' t%btype = 'd' t%units= 'm' t%standardname= '' t%description= 'Location at which short wave height for runup is taken' t%dimensions(1:1) = (/ 's%ny+1 ' /) case( 250) t%r1 => s%istruct t%rank = 1 t%type = 'r' t%name = 'istruct' t%btype = 'd' t%units= '-' t%standardname= '' t%description= 'location of revetments toe' t%dimensions(1:1) = (/ 's%ny+1 ' /) case( 251) t%r1 => s%iwl t%rank = 1 t%type = 'r' t%name = 'iwl' t%btype = 'd' t%units= '-' t%standardname= '' t%description= 'location of water line (including long wave runup)' t%dimensions(1:1) = (/ 's%ny+1 ' /) case( 252) t%r1 => s%strucslope t%rank = 1 t%type = 'r' t%name = 'strucslope' t%btype = 'd' t%units= '-' t%standardname= '' t%description= 'slope of structure' t%dimensions(1:1) = (/ 's%ny+1 ' /) case( 253) t%r2 => s%Dc t%rank = 2 t%type = 'r' t%name = 'Dc' t%btype = 'd' t%units= 'm2/s' t%standardname= '' t%description= 'diffusion coefficient' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 254) t%r2 => s%ph t%rank = 2 t%type = 'r' t%name = 'ph' t%btype = 'd' t%units= 'm' t%standardname= '' t%description= 'pressure head due to ship' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 255) t%i0 => s%newstatbc t%rank = 0 t%type = 'i' t%name = 'newstatbc' t%btype = 'b' t%units= '-' t%standardname= '' t%description= '(1) Use new stationary boundary conditions for instat is stat or stat_table' case( 256) t%i0 => s%isSet_Vbc t%rank = 0 t%type = 'i' t%name = 'isSet_Vbc' t%btype = 'b' t%units= '-' t%standardname= '' t%description= '(1) V wave boundary condition vlocities in V direction set (1), or unset (0)' case( 257) t%r2 => s%dobs t%rank = 2 t%type = 'r' t%name = 'dobs' t%btype = 'd' t%units= 'W/m2' t%standardname= '' t%description= 'beachwizard observed dissipation' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 258) t%r2 => s%sig2prior t%rank = 2 t%type = 'r' t%name = 'sig2prior' t%btype = 'd' t%units= 'm2' t%standardname= '' t%description= 'beachwizard prior std squared' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 259) t%r2 => s%zbobs t%rank = 2 t%type = 'r' t%name = 'zbobs' t%btype = 'd' t%units= 'm' t%standardname= '' t%description= 'beachwizard observed depth' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 260) t%r2 => s%shobs t%rank = 2 t%type = 'r' t%name = 'shobs' t%btype = 'd' t%units= 'm' t%standardname= '' t%description= 'beachwizard observed shoreline' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 261) t%r2 => s%bwalpha t%rank = 2 t%type = 'r' t%name = 'bwalpha' t%btype = 'd' t%units= '-' t%standardname= '' t%description= 'beachwizard weighting factor' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 262) t%r2 => s%dcmdo t%rank = 2 t%type = 'r' t%name = 'dcmdo' t%btype = 'd' t%units= 'W/m2' t%standardname= '' t%description= 'beachwizard computed minus observed dissipation' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 263) t%r2 => s%dassim t%rank = 2 t%type = 'r' t%name = 'dassim' t%btype = 'd' t%units= 'm' t%standardname= '' t%description= 'beachwizard depth change' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 264) t%r2 => s%cobs t%rank = 2 t%type = 'r' t%name = 'cobs' t%btype = 'd' t%units= 'm/s' t%standardname= '' t%description= 'beachwizard observed wave celerity' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 265) t%r1 => s%shipxCG t%rank = 1 t%type = 'r' t%name = 'shipxCG' t%btype = 'b' t%units= 'm' t%standardname= '' t%description= 'x-coordinate of ship center of gravity' t%dimensions(1:1) = (/ 'par%nship ' /) case( 266) t%r1 => s%shipyCG t%rank = 1 t%type = 'r' t%name = 'shipyCG' t%btype = 'b' t%units= 'm' t%standardname= '' t%description= 'y-coordinate of ship center of gravity' t%dimensions(1:1) = (/ 'par%nship ' /) case( 267) t%r1 => s%shipzCG t%rank = 1 t%type = 'r' t%name = 'shipzCG' t%btype = 'b' t%units= 'm' t%standardname= '' t%description= 'z-coordinate of ship center of gravity' t%dimensions(1:1) = (/ 'par%nship ' /) case( 268) t%r1 => s%shipFx t%rank = 1 t%type = 'r' t%name = 'shipFx' t%btype = 'b' t%units= 'N' t%standardname= '' t%description= 'force on ship in x-direction' t%dimensions(1:1) = (/ 'par%nship ' /) case( 269) t%r1 => s%shipFy t%rank = 1 t%type = 'r' t%name = 'shipFy' t%btype = 'b' t%units= 'N' t%standardname= '' t%description= 'force on ship in y-direction' t%dimensions(1:1) = (/ 'par%nship ' /) case( 270) t%r1 => s%shipFz t%rank = 1 t%type = 'r' t%name = 'shipFz' t%btype = 'b' t%units= 'N' t%standardname= '' t%description= 'force on ship in z-direction' t%dimensions(1:1) = (/ 'par%nship ' /) case( 271) t%r1 => s%shipMx t%rank = 1 t%type = 'r' t%name = 'shipMx' t%btype = 'b' t%units= 'Nm' t%standardname= '' t%description= 'moment on ship around x-axis' t%dimensions(1:1) = (/ 'par%nship ' /) case( 272) t%r1 => s%shipMy t%rank = 1 t%type = 'r' t%name = 'shipMy' t%btype = 'b' t%units= 'Nm' t%standardname= '' t%description= 'moment on ship around y-axis' t%dimensions(1:1) = (/ 'par%nship ' /) case( 273) t%r1 => s%shipMz t%rank = 1 t%type = 'r' t%name = 'shipMz' t%btype = 'b' t%units= 'Nm' t%standardname= '' t%description= 'moment on ship around z-axis' t%dimensions(1:1) = (/ 'par%nship ' /) case( 274) t%r1 => s%shipphi t%rank = 1 t%type = 'r' t%name = 'shipphi' t%btype = 'b' t%units= 'deg' t%standardname= '' t%description= 'turning angle arround x-axis' t%dimensions(1:1) = (/ 'par%nship ' /) case( 275) t%r1 => s%shipchi t%rank = 1 t%type = 'r' t%name = 'shipchi' t%btype = 'b' t%units= 'deg' t%standardname= '' t%description= 'turning angle arround y-axis' t%dimensions(1:1) = (/ 'par%nship ' /) case( 276) t%r1 => s%shippsi t%rank = 1 t%type = 'r' t%name = 'shippsi' t%btype = 'b' t%units= 'deg' t%standardname= '' t%description= 'turning angle arround z-axis' t%dimensions(1:1) = (/ 'par%nship ' /) case( 277) t%i2 => s%vegtype t%rank = 2 t%type = 'i' t%name = 'vegtype' t%btype = 'd' t%units= '-' t%standardname= '' t%description= 'vegetation type index' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 278) t%i2 => s%nsecveg t%rank = 2 t%type = 'i' t%name = 'nsecveg' t%btype = 'd' t%units= '-' t%standardname= '' t%description= 'vegetation number of sections' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 279) t%i0 => s%nsecvegmax t%rank = 0 t%type = 'i' t%name = 'nsecvegmax' t%btype = 'b' t%units= '-' t%standardname= '' t%description= 'maximum number of vegetation sections within domain' case( 280) t%r3 => s%Cdveg t%rank = 3 t%type = 'r' t%name = 'Cdveg' t%btype = 'd' t%units= '-' t%standardname= '' t%description= 'vegetation drag coefficient' t%dimensions(1:3) = (/ 's%nx+1 ','s%ny+1 ','s%nsecvegmax ' /) case( 281) t%r3 => s%ahveg t%rank = 3 t%type = 'r' t%name = 'ahveg' t%btype = 'd' t%units= 'm' t%standardname= '' t%description= 'vegetation height' t%dimensions(1:3) = (/ 's%nx+1 ','s%ny+1 ','s%nsecvegmax ' /) case( 282) t%r3 => s%bveg t%rank = 3 t%type = 'r' t%name = 'bveg' t%btype = 'd' t%units= 'm' t%standardname= '' t%description= 'vegetation stem diameter' t%dimensions(1:3) = (/ 's%nx+1 ','s%ny+1 ','s%nsecvegmax ' /) case( 283) t%r3 => s%Nveg t%rank = 3 t%type = 'r' t%name = 'Nveg' t%btype = 'd' t%units= 'm-2' t%standardname= '' t%description= 'vegetation density' t%dimensions(1:3) = (/ 's%nx+1 ','s%ny+1 ','s%nsecvegmax ' /) case( 284) t%r2 => s%Dveg t%rank = 2 t%type = 'r' t%name = 'Dveg' t%btype = 'd' t%units= 'W/m2' t%standardname= '' t%description= 'dissipation due to short wave attenuation by vegetation' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 285) t%r2 => s%Fvegu t%rank = 2 t%type = 'r' t%name = 'Fvegu' t%btype = 'd' t%units= 'N/m2' t%standardname= '' t%description= 'x-forcing due to long wave attenuation by vegetation' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 286) t%r2 => s%Fvegv t%rank = 2 t%type = 'r' t%name = 'Fvegv' t%btype = 'd' t%units= 'N/m2' t%standardname= '' t%description= 'y-forcing due to long wave attenuation by vegetation' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 287) t%r2 => s%ududx t%rank = 2 t%type = 'r' t%name = 'ududx' t%btype = 'd' t%units= 'm2/s2' t%standardname= '' t%description= 'advection' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 288) t%r2 => s%vdvdy t%rank = 2 t%type = 'r' t%name = 'vdvdy' t%btype = 'd' t%units= 'm2/s2' t%standardname= '' t%description= 'advection' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 289) t%r2 => s%udvdx t%rank = 2 t%type = 'r' t%name = 'udvdx' t%btype = 'd' t%units= 'm2/s2' t%standardname= '' t%description= 'advection' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 290) t%r2 => s%vdudy t%rank = 2 t%type = 'r' t%name = 'vdudy' t%btype = 'd' t%units= 'm2/s2' t%standardname= '' t%description= 'advection' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 291) t%r2 => s%viscu t%rank = 2 t%type = 'r' t%name = 'viscu' t%btype = 'd' t%units= 'm2/s2' t%standardname= '' t%description= 'viscosity' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 292) t%r2 => s%viscv t%rank = 2 t%type = 'r' t%name = 'viscv' t%btype = 'd' t%units= 'm2/s2' t%standardname= '' t%description= 'viscosity' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 293) t%r3 => s%setbathy t%rank = 3 t%type = 'r' t%name = 'setbathy' t%btype = 'd' t%units= 'm' t%standardname= '' t%description= 'prescribed bed levels' t%dimensions(1:3) = (/ 's%nx+1 ','s%ny+1 ','par%nsetbathy ' /) case( 294) t%r1 => s%tsetbathy t%rank = 1 t%type = 'r' t%name = 'tsetbathy' t%btype = 'b' t%units= 's' t%standardname= '' t%description= 'points in time of prescibed bed levels' t%dimensions(1:1) = (/ 'par%nsetbathy ' /) case( 295) t%i2 => s%breaking t%rank = 2 t%type = 'i' t%name = 'breaking' t%btype = 'd' t%units= '-' t%standardname= '' t%description= 'indicator whether cell has breaking nonh waves' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 296) t%r2 => s%fw t%rank = 2 t%type = 'r' t%name = 'fw' t%btype = 'd' t%units= '-' t%standardname= '' t%description= 'wave friction coefficient' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 297) t%r1 => s%sigz t%rank = 1 t%type = 'r' t%name = 'sigz' t%btype = 'b' t%units= '-' t%standardname= '' t%description= 'vertical distribution of sigma layers Q3D' t%dimensions(1:1) = (/ 'par%nz ' /) case( 298) t%r3 => s%uz t%rank = 3 t%type = 'r' t%name = 'uz' t%btype = 'd' t%units= '-' t%standardname= '' t%description= 'velocity (Q3D) ksi-comp' t%dimensions(1:3) = (/ 's%nx+1 ','s%ny+1 ','par%nz ' /) case( 299) t%r3 => s%vz t%rank = 3 t%type = 'r' t%name = 'vz' t%btype = 'd' t%units= '-' t%standardname= '' t%description= 'velocity (Q3D) eta-comp' t%dimensions(1:3) = (/ 's%nx+1 ','s%ny+1 ','par%nz ' /) case( 300) t%r3 => s%ustz t%rank = 3 t%type = 'r' t%name = 'ustz' t%btype = 'd' t%units= '-' t%standardname= '' t%description= 'stokes velocity (Q3D)' t%dimensions(1:3) = (/ 's%nx+1 ','s%ny+1 ','par%nz ' /) case( 301) t%r3 => s%nutz t%rank = 3 t%type = 'r' t%name = 'nutz' t%btype = 'd' t%units= '-' t%standardname= '' t%description= 'turbulence viscosity' t%dimensions(1:3) = (/ 's%nx+1 ','s%ny+1 ','par%nz ' /) case( 302) t%r2 => s%dzs0dn t%rank = 2 t%type = 'r' t%name = 'dzs0dn' t%btype = 'd' t%units= '-' t%standardname= '' t%description= 'alongshore water level gradient due to tide alone' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 303) t%r3 => s%ccz t%rank = 3 t%type = 'r' t%name = 'ccz' t%btype = 'd' t%units= 'm3/m3' t%standardname= '' t%description= 'concentration profile' t%dimensions(1:3) = (/ 's%nx+1 ','s%ny+1 ','par%nz ' /) case( 304) t%r2 => s%refA t%rank = 2 t%type = 'r' t%name = 'refA' t%btype = 'd' t%units= 'm' t%standardname= '' t%description= 'reference level' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 305) t%r2 => s%ca t%rank = 2 t%type = 'r' t%name = 'ca' t%btype = 'd' t%units= 'm3/m3' t%standardname= '' t%description= 'reference concentration' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 306) t%r2 => s%zs1 t%rank = 2 t%type = 'r' t%name = 'zs1' t%btype = 'd' t%units= 'm' t%standardname= 'sea_surface_height_above_sea_level_without_tide' t%description= 'water level minus tide' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 307) t%r2 => s%taubx_add t%rank = 2 t%type = 'r' t%name = 'taubx_add' t%btype = 'd' t%units= 'N/m2' t%standardname= '' t%description= 'additional bed shear stress due to boundary layer effects, x-component' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 308) t%r2 => s%tauby_add t%rank = 2 t%type = 'r' t%name = 'tauby_add' t%btype = 'd' t%units= 'N/m2' t%standardname= '' t%description= 'additional bed shear stress due to boundary layer effects, y-component' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 309) t%r2 => s%hhw t%rank = 2 t%type = 'r' t%name = 'hhw' t%btype = 'd' t%units= 'm' t%standardname= '' t%description= 'water depth used in all wave computations, includes H*par%delta' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 310) t%r2 => s%hhws t%rank = 2 t%type = 'r' t%name = 'hhws' t%btype = 'd' t%units= 'm' t%standardname= '' t%description= 'water depth used in wave stationary computation (and single_dir wave directions)' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 311) t%r2 => s%uws t%rank = 2 t%type = 'r' t%name = 'uws' t%btype = 'd' t%units= 'm/s' t%standardname= '' t%description= 'u-velocity used in wave stationary computation (and single_dir wave directions)' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 312) t%r2 => s%vws t%rank = 2 t%type = 'r' t%name = 'vws' t%btype = 'd' t%units= 'm/s' t%standardname= '' t%description= 'v-velocity used in wave stationary computation (and single_dir wave directions)' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 313) t%r2 => s%hhwcins t%rank = 2 t%type = 'r' t%name = 'hhwcins' t%btype = 'd' t%units= 'm' t%standardname= '' t%description= 'water depth used in wave instationary computation in case of wci' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 314) t%r2 => s%uwcins t%rank = 2 t%type = 'r' t%name = 'uwcins' t%btype = 'd' t%units= 'm/s' t%standardname= '' t%description= 'u-velocity used in wave stationary computation in case of wci' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 315) t%r2 => s%vwcins t%rank = 2 t%type = 'r' t%name = 'vwcins' t%btype = 'd' t%units= 'm/s' t%standardname= '' t%description= 'v-velocity used in wave stationary computation in case of wci' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 316) t%r2 => s%ucan t%rank = 2 t%type = 'r' t%name = 'ucan' t%btype = 'd' t%units= 'm/s' t%standardname= '' t%description= 'in-canopy velocity in x-direction' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 317) t%r2 => s%vcan t%rank = 2 t%type = 'r' t%name = 'vcan' t%btype = 'd' t%units= 'm/s' t%standardname= '' t%description= 'in-canopy velocity in y-direction' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 318) t%r3 => s%rainfallinput t%rank = 3 t%type = 'r' t%name = 'rainfallinput' t%btype = 'd' t%units= 'm/s' t%standardname= '' t%description= 'prescribed rainfall rate' t%dimensions(1:3) = (/ 's%nx+1 ','s%ny+1 ','par%nrainfallrate ' /) case( 319) t%r1 => s%trainfallinput t%rank = 1 t%type = 'r' t%name = 'trainfallinput' t%btype = 'b' t%units= 's' t%standardname= '' t%description= 'points in time of prescibed rainfall' t%dimensions(1:1) = (/ 'par%nrainfallrate ' /) case( 320) t%r2 => s%rainfallrate t%rank = 2 t%type = 'r' t%name = 'rainfallrate' t%btype = 'd' t%units= 'm/s' t%standardname= '' t%description= 'rainfall rate at current time' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) case( 321) t%r2 => s%hstokes t%rank = 2 t%type = 'r' t%name = 'hstokes' t%btype = 'd' t%units= 'm' t%standardname= '' t%description= 'water depth used for Stokes drift, turbulence and wave forces' t%dimensions(1:2) = (/ 's%nx+1 ','s%ny+1 ' /) !directions for vi vim: filetype=fortran : syntax=fortran ! vim: filetype=fortran