(FDTD) addmode : Adds a mode source in FDTD.addfeemmesh : Adds a mesh override region to the 'FEEM' simulation environment.addfeemsolver : Adds a 'FEEM' solver simulation region.adddgtdmesh : Adds a mesh override region to the 'DGTD' simulation environment.adddgtdsolver : Adds an optical 'DGTD' solver simulation region.addheatmesh : Adds a mesh override region to the 'HEAT' simulation environment.addchargemesh : Adds a mesh override region to the 'CHARGE' simulation environment.addheatsolver : Adds a thermal (heat transport) simulation region in Finite Element IDE.addchargesolver : Adds an electrical (charge transport) simulation region in Finite Element IDE.addvarfdtd : Adds a 2.5D varFDTD simulation region.adddevice : Adds an electrical (CHARGE) simulation.addsimulationregion : Adds a simulation region to the Finite Element IDE design environment.addfde : Adds an Finite Difference Eigenmode (FDE) solver region.addfdtd : Adds an FDTD simulation area.addeme : Adds an Eigenmode Expansion (EME) solver region.addwaveguide : Adds a waveguide in the simulation space.add2dpoly : Adds a 2D polygon in the simulation space.add2drect : Adds a 2D rectangle in the simulation space.stepimport : Adds an STEP import object in Finite Element IDE.addplanarsolid : Adds a planar solid object.addlayerbuilder : Adds a layer builder object.addlayer : Adds a layer to the layer builder object. ![]() addstructuregroup : Add a structure group.addport : Adds a port object to the ports group in the FDTD solver region object.importcsvlc : Add LC grid attribute and optionally LC structure from CSV file.addgridattribute : Add a grid attribute object.addobject : Add an object from the object library.addanalysisgroup : Add an analysis group.addgroup : Adds a container group to the simulation environment.layoutmode : Used to determine if the simulation file is open in layout or in analysis mode.switchtolayout : Closes the analysis window, deletes current simulation data and allows you to manipulate simulation objects for a new simulation. ![]() Please refer to the table at the bottom of the page for each command to see which products it applies to. Please note that not all the commands are available for all products. Objects are always added to the location specified by the groupscope variable. The following commands can be used to add objects. The HALFPERM algorithm described in F.=Start of tab1 content= Adding objects This method runs in O(m, n, length(I)) time. Note that they will be resized to satisfy the conditions above.įor the sake of efficiency, this method performs no argument checking beyond 1 <= I <= m and 1 <= J <= n. For example, you may call sparse!(I, J, V, csrrowptr, csrcolval, csrnzval, I, J, V). You may reuse the input arrays' storage ( I, J, V) for the output arrays ( csccolptr, cscrowval, cscnzval). On return, csrrowptr, csrcolval, and csrnzval contain an unsorted-column representation of the result's transpose. Julia sparse matrices have the type SparseMatrixCSC() respectively) suffices, or calling the sparse! method neglecting cscrowval and cscnzval. In Julia, sparse matrices are stored in the Compressed Sparse Column (CSC) format. Sparse arrays are arrays that contain enough zeros that storing them in a special data structure leads to savings in space and execution time, compared to dense arrays.Įxternal packages which implement different sparse storage types, multidimensional sparse arrays, and more can be found in Noteworthy external packages Compressed Sparse Column (CSC) Sparse Matrix Storage Julia has support for sparse vectors and sparse matrices in the SparseArrays stdlib module.
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