MRADSIM-Space enhances the basic simulator with functionalities for space environments. It employs both inverse and direct Monte Carlo methods to calculate key results such as dose values, fluences, surface charge, path length, and 3D dose depth distributions for each target.
It can generate various types of space radiation and is compatible with all major Linux operating systems.
It offers advanced functionalities tailored to analyze the effects of radiation, high-energy physics simulations, and research on nanomaterials in space environments.
Upload your CAD geometry (STEP format) and convert it to GDML for analysis.
Easily set the necessary parameters and select the devices of interest through a user-friendly interface.
Import particle flux data for a given orbit and duration.
Geant4 transports particles through the entire geometry, even that of an entire satellite, calculating the relevant physical parameters.
Supports all necessary analyses for space applications, including dose, fluence, LET flow, and charging.
MRADSIM-Space is an advanced tool for simulating space radiation, designed to offer detailed and precise analyses using Monte Carlo methods. Here are some of its specific applications in the space sector.
MRADSIM-Space enhances the basic simulator with functionalities for space environments. It employs both inverse and direct Monte Carlo methods to calculate key results such as dose values, fluences, surface charge, path length, and 3D dose depth distributions for each target.
It can generate various types of space radiation and is compatible with all major Linux operating systems.
It offers advanced functionalities tailored to analyze the effects of radiation, high-energy physics simulations, and research on nanomaterials in space environments.
Radiation Dose Assessment: Calculate the accumulated radiation dose in electronic components to ensure their durability and reliable operation during the mission.
Shielding Optimization: Determine the amount and type of shielding material needed to protect sensitive components from radiation.
Durability Analysis of Materials: Study the effect of radiation on structural and coating materials to enhance the longevity of satellites.
Protection of Scientific Instruments: Simulate the impact of radiation on scientific instruments aboard probes and rovers destined for interplanetary missions to ensure accurate data collection.
Flight Route Planning: Analyze radiation profiles along flight routes to minimize the exposure of the probe and its instruments.
Solar Radiation Analysis: Study the effects of solar radiation events on missions in lunar or Martian orbit to improve spacecraft protection.
Crew Safety Assessment: Calculate the radiation exposure of astronauts aboard space stations to ensure their safety and long-term health.
Material Degradation Analysis: Study how radiation affects the materials used in space station structures to develop preventive maintenance solutions.
Internal Shielding Optimization: Design and optimize the internal shielding of the station to protect astronauts from cosmic and solar radiation.
Reliability of Electronic Components: Simulate the effect of radiation on communication systems to ensure uninterrupted data transmission.
Performance Assessment of Transmitters: Study how radiation affects transmitters and receivers to improve the performance and longevity of communication satellites.
Design of Radiation-Resistant Antennas: Analyze the impact of radiation on antennas and develop designs that reduce degradation over time.
Protection of Optical Sensors: Calculate the effect of radiation on optical sensors used for Earth observation to ensure high-quality images.
Assessment of Collected Data: Study the impact of radiation on data collected from environmental monitoring instruments to ensure measurement accuracy.
Preventive Maintenance: Analyze how radiation affects critical components to develop preventive maintenance strategies and improve the operational lifespan of observation satellites.
MRADSIM-Space proves to be indispensable for engineers and scientists working in the space sector, providing advanced tools for analyzing and mitigating radiation effects, thus improving the design, safety, and reliability of space missions.
To obtain the chosen version of the software, you can use the appropriate request forms. Once submitted, a member of our team will contact you as soon as possible to provide you with the necessary instructions
MRADSIM-Space can be used after purchasing a commercial license, which is valid for one year and includes free software updates and technical support.
MRADSIM-Space includes all the functions of MRADSIM-ConverterPro, so there's no need to make an additional request.
MRADSIM-Space allows you to perform simulations to analyze radiation dose deposition. Analyses can be done on individual volumes or through 3D maps.
It converts files from STEP format from geometric design applications to GDML format, which is essential for simulation applications. The FREE version is available at no cost for non-commercial purposes and has already been adopted by major research institutions worldwide. The commercial PRO version removes the limitations of the free version and offers advanced features.
In addition to the functions of ConverterPro, it includes a basic version of the simulation tool, with the main analysis tools for studying radiation dose.