sim.g = 9.81 # Gravity (m/sec^2)
sim.f0 = 1.e-4 # Coriolis (1/sec)
sim.beta = 0e-10 # Coriolis beta (1/m/sec)
sim.Hs = [500.] # Vector of mean layer depths (m)
sim.rho = [1025.] # Vector of layer densities (kg/m^3)
sim.end_time = 20 * 24. * hour # End Time (sec)
# Parallel? Only applies to the FFTWs
sim.num_threads = 32
# Plotting parameters
sim.plott = 12. * hour # Period of plots
sim.animate = 'Save' # 'Save' to create video frames,
# 'Anim' to animate,
# 'None' otherwise
sim.plot_vars = ['vort', 'v', 'u', 'h']
sim.clims = [[-0.8, 0.8], [-0.5, 0.5], [], []]
# Output parameters
sim.output = True # True or False
sim.savet = 10. * day # Time between saves
# Diagnostics parameters
sim.diagt = 2. * minute # Time for output
sim.diagnose = False # True or False
# Initialize the grid and zero solutions
sim.initialize()
for ii in range(sim.Nz): # Set mean depths
sim.soln.h[:, :, ii] = sim.Hs[ii]
sim.f0 = 1.e-4 # Coriolis (1/sec)
sim.beta = 0e-11 # Coriolis beta parameter (1/m/sec)
sim.cfl = 0.1 # CFL coefficient (m)
sim.Hs = [100.] # Vector of mean layer depths (m)
sim.rho = [1025.] # Vector of layer densities (kg/m^3)
sim.end_time = 2.*24.*hour # End Time (sec)
# Parallel? Only applies to the FFTWs
sim.num_threads = 4
# Plotting parameters
sim.plott = 15.*minute # Period of plots
sim.animate = 'Anim' # 'Save' to create video frames,
# 'Anim' to animate,
# 'None' otherwise
sim.plot_vars = ['h']
#sim.plot_vars = ['vort','div']
#sim.clims = [[-0.015, 0.015],[-0.001, 0.001]]
# Output parameters
sim.output = False # True or False
sim.savet = 1.*hour # Time between saves
# Diagnostics parameters
sim.diagt = 2.*minute # Time for output
sim.diagnose = False # True or False
# Initialize the grid and zero solutions
sim.initialize()
for ii in range(sim.Nz): # Set mean depths
sim.f0 = 1.e-4 # Coriolis (1/sec)
sim.beta = 0e-10 # Coriolis beta parameter (1/m/sec)
sim.Hs = [100.] # Vector of mean layer depths (m)
sim.rho = [1025.] # Vector of layer densities (kg/m^3)
sim.end_time = 2*24.*hour # End Time (sec)
# Parallel: Only applies to the FFTWs
sim.num_threads = 4
# Plotting parameters
sim.plott = 15.*minute # Period of plots
sim.animate = 'Anim' # 'Save' to create video frames,
# 'Anim' to animate,
# 'None' otherwise
sim.plot_vars = ['u','v','h'] # Specify which variables to plot
# Specify manual ylimits if desired
# An empty list uses default limits
sim.ylims=[[-0.18,0.18],[-0.18,0.18],[-0.5,1.0]]
# Output parameters
sim.output = False # True or False
sim.savet = 1.*hour # Time between saves
# Diagnostics parameters
sim.diagt = 2.*minute # Time for output
sim.diagnose = False # True or False
# Initialize the grid and zero solutions
sim.initialize()
sim.beta = 0e-10 # Coriolis beta parameter (1/m/sec) sim.cfl = 0.15 # CFL coefficient (m) sim.Hs = [100.0] # Vector of mean layer depths (m) sim.rho = [1025.0] # Vector of layer densities (kg/m^3) sim.end_time = 6.0 * 24.0 * hour # End Time (sec) # Parallel? Only applies to the FFTWs sim.num_threads = 4 # Plotting parameters sim.plott = 20.0 * minute # Period of plots sim.animate = "Anim" # 'Save' to create video frames, # 'Anim' to animate, # 'None' otherwise sim.plot_vars = ["vort", "div", "h"] # Specify which variables to plot # sim.plot_vars = ['u','v','h'] # Specify which variables to plot # Specify manual ylimits if desired # An empty list uses default limits sim.ylims = [[-0.01, 0.01], [-2.0, 2.0], [-1.0, 1.0]] # sim.ylims=[[-0.3,0.3],[-0.2,0.2],[-1.0,1.0]] # Output parameters sim.output = False # True or False sim.savet = 1.0 * hour # Time between saves # Diagnostics parameters sim.diagt = 2.0 * minute # Time for output sim.diagnose = False # True or False # Initialize the grid and zero solutions
sim.f0 = 1.e-4 # Coriolis (1/sec) sim.beta = 0e-10 # Coriolis beta (1/m/sec) sim.cfl = 0.1 # CFL coefficient (m) sim.Hs = [100.] # Vector of mean layer depths (m) sim.rho = [1025.] # Vector of layer densities (kg/m^3) sim.end_time = 14 * 24. * hour # End Time (sec) # Parallel? Only applies to the FFTWs sim.num_threads = 4 # Plotting parameters sim.plott = 30. * minute # Period of plots sim.animate = 'Save' # 'Save' to create video frames, # 'Anim' to animate, # 'None' otherwise sim.plot_vars = ['h'] sim.ylims = [[-0.1, 0.1]] #sim.plot_vars = ['vort','div'] #sim.clims = [ [-0.8, 0.8],[-0.1, 0.1]] # Output parameters sim.output = False # True or False sim.savet = 1. * hour # Time between saves # Diagnostics parameters sim.diagt = 2. * minute # Time for output sim.diagnose = False # True or False # Initialize the grid and zero solutions sim.initialize()
sim.g = 9.81 # Gravity (m/sec^2)
sim.f0 = 1.e-4 # Coriolis (1/sec)
sim.beta = 0e-10 # Coriolis beta (1/m/sec)
sim.Hs = [500.] # Vector of mean layer depths (m)
sim.rho = [1025.] # Vector of layer densities (kg/m^3)
sim.end_time = 20*24.*hour # End Time (sec)
# Parallel? Only applies to the FFTWs
sim.num_threads = 32
# Plotting parameters
sim.plott = 1.*hour # Period of plots
sim.animate = 'Save' # 'Save' to create video frames,
# 'Anim' to animate,
# 'None' otherwise
sim.plot_vars = ['vort', 'v', 'u', 'h']
sim.clims = [ [-0.8, 0.8], [-0.5,0.5], [], []]
# Output parameters
sim.output = True # True or False
sim.savet = 10.*day # Time between saves
# Diagnostics parameters
sim.diagt = 2.*minute # Time for output
sim.diagnose = False # True or False
# Initialize the grid and zero solutions
sim.initialize()
for ii in range(sim.Nz): # Set mean depths
sim.soln.h[:,:,ii] = sim.Hs[ii]
sim.beta = 0e-10 # Coriolis beta parameter (1/m/sec) sim.cfl = 0.15 # CFL coefficient (m) sim.Hs = [100.] # Vector of mean layer depths (m) sim.rho = [1025.] # Vector of layer densities (kg/m^3) sim.end_time = 6. * 24. * hour # End Time (sec) # Parallel? Only applies to the FFTWs sim.num_threads = 4 # Plotting parameters sim.plott = 20. * minute # Period of plots sim.animate = 'Anim' # 'Save' to create video frames, # 'Anim' to animate, # 'None' otherwise sim.plot_vars = ['vort', 'div', 'h'] # Specify which variables to plot #sim.plot_vars = ['u','v','h'] # Specify which variables to plot # Specify manual ylimits if desired # An empty list uses default limits sim.ylims = [[-0.01, 0.01], [-2.0, 2.0], [-1.0, 1.0]] #sim.ylims=[[-0.3,0.3],[-0.2,0.2],[-1.0,1.0]] # Output parameters sim.output = False # True or False sim.savet = 1. * hour # Time between saves # Diagnostics parameters sim.diagt = 2. * minute # Time for output sim.diagnose = False # True or False # Initialize the grid and zero solutions