IBSimu Crack Free Download PC/Windows [March-2022]
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IBSimu Crack + Patch With Serial Key Free Download
The Program IBSimu Full Crack is a parallel IBSimulator based on the concepts of Space Charge Field, Wave-Particle Transport and Ion Motion Equation with Ionization of Neutral Particles.
The code is available for simulating the Charged Particle Transport in the presence of the Space Charge Field, which is used to determine the space charge dominated transport in the presence of a defined space charge density.
In order to model the charged particle transport in the presence of a fixed and non-uniform field, the user has to provide a 3D representation of the defined field in the form of a Matrix. The IBSimulator calculates the particle density distribution over time based on the particle source and the transition matrix. IBSimulator’s interface to MATLAB provides the user with a MATLAB code interface that can be used to solve the transport equation. The MATLAB interface also provides the users with the possibility to use the IBSimulator as a stand-alone simulator.
IBSimulator Description:
The Ion Beam Simulation (IBS) project is a code for simulating the space charge dominated transport of ion beams in presence of a space charge field.
The code has been developed at Forschungszentrum Karlsruhe, Germany.
Currently the code is in the development stage and is not ready for public distribution.
IBSimulator for Electric Field Problems is a fast, robust and efficient simulation package for space charge dominated transport. It is based on the concepts of Space Charge Field, Wave-Particle Transport and Ion Motion Equation with Ionization of Neutral Particles.
IBSimulator Description:
IBSimulator for Electric Field Problems (IBSimu-EFP) is a fast, robust and efficient simulation package for space charge dominated transport. It is based on the concepts of Space Charge Field, Wave-Particle Transport and Ion Motion Equation with Ionization of Neutral Particles.
IBSimulator-EFP Description:
Ion beam transport is one of the most important components of ion accelerators. It is very common to find ion beam transport simulations in the papers, however, there is no mature software for such simulations. Hence, the first and important step to have ion beam transport code is developing a simulation code.
Ion SimuTools
Ion SimuTools is a joint project of Forschungszentrum Karlsruhe and Ulm University. It is
IBSimu
The code contains macros for automatically handling the interaction between code and macro definition. This enables you to set or modify code by just changing a macro definition. A preprocessor is used for this purpose.
Author:
Jürgen Lück (Ruhr-Universität Bochum)
TECHNICAL DESCRIPTION:
The code is designed to simulate an ion beam from a linear accelerator. It can be used to solve the time dependent transport equation in defined geometry and electric and magnetic fields. Simulated ions with a prescribed kinetic energy are injected into the beam line. The ions are then driven through the acceleration gap and then extracted with an extraction field. Ion beam energies of up to 500 keV are easily handled. The code includes techniques for calculating the space charge distribution of the beam as well as techniques for solving electric fields in defined geometry. The code calculates the time dependent electric fields and the ion trajectories. Due to this, it is possible to determine the energy loss of the particles, the electromagnetic and mechanical loads as well as the space charge and the extraction force.
AUTHOR:
Jürgen Lück (Ruhr-Universität Bochum)
ORGANIZATION:
Institute of Applied Physics at Ruhr University Bochum (IAP)
DATA GATHERING:
Ion Beam Simulator can be linked to data via a simple text file. The data is then imported and stored in the system. The data can then be used to produce plots, tables and export files. You can then use the data in the program via predefined macro definitions.
DOCUMENTATION:
The manual has been written in all special topics for both Unix and Windows systems. On the one hand it can be used as a reference guide, on the other hand, it has also been designed in a way that, if used as a user manual, a significant portion of the information is also included in the program. Therefore, no additional material needs to be read when you use IBSimu.
DOWNLOAD:
The code can be downloaded for free from the IAP website.
URL:
IFilter
The IFilter class provides support for a read-only file-based input source. IFilter can be instantiated from a filename, as a file-
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IBSimu Crack+ X64
IBSimu is a simulation package for Ion Beam Simulators that has several features, including, but not limited to:
• Electric field solver, with the ability to calculate electric field both inside the finite volume and outside the finite volume (i.e. for scattered beams).
• Scattering angle control
• Magnetron beam configuration
• Beam source control (e.g. self-triggered beam injection or positive feedback)
• Beam extraction with ion channel definition and magnetic field extraction
• Particle beam control (velocity, energy, emittance, astigmatism etc.)
• System control of multiple channels
• Beam diagnostics
• User interface
Users can perform their simulation using either a graphical user interface or a command line interface. IBSimu is written in C++ and is platform independent.
Use Cases:
• Beam transport using ion channel
• Ion optics simulation
• Scatterometry
• Space charge dominated ion beam extraction
IBSimu, short for Ion Beam Simulator is specially designed as an ion optical computer simulation package that can be used in ion optics, plasma extraction and space charge dominated ion beam transport using Vlasov iteration.
The code has several capabilities for solving electric fields in a defined geometry and tracking particles in electric and magnetic fields. The code is a constructed as a C++ library for maximal versatility and openness.
IBSimu Description:
IBSimu is a simulation package for Ion Beam Simulators that has several features, including, but not limited to:
• Electric field solver, with the ability to calculate electric field both inside the finite volume and outside the finite volume (i.e. for scattered beams).
• Scattering angle control
• Magnetron beam configuration
• Beam source control (e.g. self-triggered beam injection or positive feedback)
• Beam extraction with ion channel definition and magnetic field extraction
• Particle beam control (velocity, energy, emittance, astigmatism etc.)
• System control of multiple channels
• Beam diagnostics
• User interface
Users can perform their simulation using either a graphical user interface or a command line interface. IBSimu is written in C++ and is platform independent.
Use Cases:
• Beam transport using ion channel
• Ion optics simulation
• Scatterometry
• Space charge dominated ion beam extraction
IBSimu, short for Ion Beam Simulator is specially designed as an ion optical computer
What’s New In IBSimu?
This code performs simulation of a particle dynamics in an inhomogeneous electric and magnetic field. The space charge effect is also taken into account. The particles are tracked in a specialised electric field distribution. The code can calculate the trajectories of a large number of particles, thus covering very large simulation volumes. The calculations are performed in parallel on a multi-core architecture.
One of the goals of the project was to provide an open source interface for integrating to external codes, like MIGRE, and to provide a library for scientists.
In the following short introduction, some of the basic capabilities of the code are described.
Description of the code:
IBSimu is especially developed to solve the transport of charged particles in an inhomogeneous electric and magnetic field. The charged particles are tracked in a grid, thus providing a specialised electric field distribution. The magnetic field is calculated in terms of a current distribution. The particles are assumed to move in an homogeneous environment, so the charge, mass and velocity distributions are calculated for every time step and are corrected for drift motion due to the electric field.
The classical model of a particle drift in an electric and magnetic field is extended by the space charge effects. The Poisson equation for calculating the charge distribution is solved by a Vlasov method. The current distribution is calculated in a similar fashion.
For the calculations, the distribution of the electric field and the magnetic field are interpolated on a parallel grid. This field is needed for the simulation of the particle motion and the calculation of the force vectors. For the solution of the Poisson equation, the finite difference method is used.
The time step depends on the particles density, the electric and magnetic fields and the electric current distribution.
The Poisson equation is solved simultaneously for the electric field and the current distribution for every particle. The most time consuming part is the calculation of the current density and the electric field.
The integration can be started by a proper initialization (via command line options or additional.ini-files) or by a file containing a particle distribution (current and density distribution, position, velocity and electric charge of each particle). The distribution can be any type of particles, like e.g. ions or electrons. An ion distribution can be calculated either as a parallel or a serial distribution. The parallel distribution is calculated with several processors simultaneously, thus providing the opportunity to simulate a large system. The serial distribution is calculated on a single processor.
Operation:
IBSimu runs a Vlasov simulation with Poisson-Joule-effect corrections for particles with electric charge. The initial distribution is obtained by a serial or a parallel calculation.
To calculate the current distribution, the number density of the current should be provided. Then the current density is calculated using a Maxwell equation. The magnetic field is then obtained from a current distribution. The calculation of the magnetic field includes the solution of the Poisson equation for the charge
System Requirements For IBSimu:
Minimum:
OS: Windows 7/Vista/XP/Vista 32-bit
Processor: Intel Core i3 2.4GHz (or faster) with SSE2 support
RAM: 8GB
VGA: 1024×768 resolution with 8bit Color
GPU: Nvidia GeForce GTX 560 (or ATI Radeon HD5850 or better)
HDD: 3GB free space
Sound: DirectX 9-compatible sound card
Additional Notes:
Oculus Rift DK1 is required.
A USB keyboard
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