append '/' to a string for concatenation in building up file tree descriptions

* \brief Scale Y by a (Y *= a) */

\brief For a given field that is to be written to an openPMD file, * set the metadata that indicates the physical unit. */

* \brief Sets the EB potential string and updates the function parser. * * \param [in] potential The string value of the potential */

Sets restart length for GMRES-like solvers. Base implementation provided for solvers that don't need this.

Sets hi-end of the lab-frame physical domain for the ith snapshot in BTD * \param[in] i_buffer index of the buffer * \param[in] idim dimensi

Sets lo-end of the lab-frame physical domain for the ith snapshot in BTD * \param[in] i_buffer index of the buffer * \param[in] idim dimensi

Species can receive a shared pointer to a QED engine (species for which this is relevant should override these functions)

Set k-index of the buffer in the moving window direction currently being filled for the ith snapshot * \param[in] i_buffer index of the buffer

Sets counter for the number of times buffer data for the ith snapshot has been flushed to parameter input in the function * \param[in] i_buffer i

Sets if the last valid Zslice for the ith snapshot has been filled (1) or not(0) with input parameter last_Valid_Zslice * \param[in] i_buffer ind

Set the Domain box spanning the plotfile data in the modified plotfile and Header. * \param[in] domainBox spanning the domain corresponding to th

Set the ith-dimension physical co-ordinate of the upper corner. * \param[in] dim dimension modified. * \param[in] hi upper-corner physica

Set the ith-dimension physical co-ordinate of the lower corner. * \param[in] dim dimension modified. * \param[in] lo lower-corner physica

Sets the value for m_snapshot_full for the ith snapshot in BTD using parameter snapshot_full * \param[in] i_buffer index of the buffer * \pa

Sets the physical simulation time, m_time, in the Header file to a new_time. * \param[in] new_time current time in the boosted-frame read from H

Sets the timestep, m_timestep, in the Header file to a new_timestep * \param[in] new_timestep current timestep in the boosted-frame (read from t

Set time in lab-frame for the ith snapshot * \param[in] i_buffer index of the buffer * \param[in] tlab value used to set the lab-frame time

Setup simulation components.

Setup simulation components.

Setup simulation components.

Setup simulation components.

Setup simulation components.

Setup simulation components.

Setup simulation components.

Setup simulation components.

* \brief Shrink the vectors in the FaceInfoBoxes */

Compute sigma_nascap for each element in the energy array using a loop. Parameters: - energy_kEv: ndarray or list, energy values in KeV

The solution step. Includes getting the boundary potentials and calculating phi from rho.

The solution step. Includes getting the boundary potentials and calculating phi from rho.

Returns the number of dimensions in the Headerfile */

Returns timestep at which the plotfile was written */

Uninstall the specified function

Parse Azure log text and update checksum JSON files for failing tests. Returns a list of JSON filenames that were updated.

For a given filename fname, space coordinates x and y, time coordinate t and field E, write a WarpX-compatible input binary file containing the

* \brief Calculates the number of grid points the given index is pass the * domain boundary i.e. a value of +1 means the current cell is

* \brief At the specified grid location, apply either the PEC or insulator boundary condition if * the cell is on the boundary or in the g

\brief Check if the particle position is out of bounds at a boundary * where orbit cropping is being performed. * \param[in] xp, yp,

\brief Applies the boundary condition on a specific axis * This is called by apply_boundaries. */

Given a refinement ratio, this computes the total increase in resolution for a plane defined by the normal_axis. */

Compute the zero edges

* \brief Interpolation function called within WarpX::UpdateAuxilaryDataSameType * with electromagnetic solver to interpolate data from the coarse and

* \brief Return (relativistic) collision energy assuming the target (with * mass M) is stationary and the projectile is approaching with the

* \brief Given the momenta of two colliding macroparticles in a two-product reaction, * this function computes the momenta of the two product mac

* \brief This function initializes the momentum of the product particles, * in a pair-production event. Here only two products are produced.

* \brief Given the momenta of two colliding macrophotons in a two-photon collision, * this function computes the momenta of the two product macro

* \brief This function performs a Lorentz transform of the 4-momentum * \param[out] p_out the 0-component of the 4-momentum after the Lorentz tra