Special Cases of Using Visualization Technology for Analyzing the Dynamics of Gaseous Environment: A Recent Study| Chapter 9 | Recent Progress in Science and Technology Vol. 1

 The action of the flow of the gaseous surroundings were observed and formed in applied study utilizing a new visualization tool that is to say provided. A accumulation of experimental judgments was put together to survey the processes of the combustion and eruption of a hydrogen-oxygen mixture, in addition to the propagation, action, and interplay of shock waves and gas-active structures, all along the process of creating and reinforcing the technology. The potential for proving the computational model of the implemented material process is demonstrated on the instance of data analysis on the movement of the development of a whirlpool ring. The results that have been proved indicate the level of facts that was tested utilizing technology.

Author(s) Details:

Mikhail Sotskiy,
Bauman Moscow State Technical Univercity, Bauman Moscow, Russia.

Denis Levin,
Bauman Moscow State Technical Univercity, Bauman Moscow, Russia.

Viktor Selivanov,
Bauman Moscow State Technical Univercity, Bauman Moscow, Russia.

Please see the link here: https://stm.bookpi.org/RPST-V1/article/view/9096

Performance Improvement of MICROMEGAS Detector Based on Neon-isobutane and Neon-DME Gaseous Mixtures at Atmospheric Pressure | Chapter 6 | New Ideas Concerning Science and Technology Vol. 13

 Several fields of gas detectors have advanced in recent years. The MICROMEGAS (Micro-Mesh Gas Structure) detector appeared to be very promising. It is a major position detector family in High Energy Physics. This research is carried out in standard (NTP) based gas mixtures, with neon as a noble gas and isobutane and DME (dimethyl-ether) as moderators' gases (quenchers), and 55Fe as a radiation source (X-ray 5.9 keV). To address the modeling of the MICROMEGAS detector, a descriptive model of various physical and geometrical MICROMEGAS phenomena was developed. making a simulation program to spread the detector response Following that, a brief analytical calculation of the potential and electric field distribution was presented in order to better estimate electrical and geometric configuration. Following that, MICROMEGAS simulation results for electrical signals based on gas mixtures (Neon-isobutane, Neon-DME) were presented. Finally, our MICROMEGAS Detector is equivalent to a low signal from a current generator, which is why we require an amplification device to clarify the quantitative calculus. These amplified signal results were presented and analyzed in order to improve the performance of MICROMEGAS (spatial (12 m) and temporal (0.7 ns) resolutions).

Author (s) Details

H. Mounir
Spectrometry Laboratory of Materials and Archaeomaterials (LASMAR), Faculty of Science, Moulay Ismail University, Meknes, Morocco.

S. Bri
Electrical Engineering Departments, High School of Technology, ESTM, My Ismail University, Meknes, Morocco.

M. Haddad
Spectrometry Laboratory of Materials and Archaeomaterials (LASMAR), Faculty of Science, Moulay Ismail University, Meknes, Morocco.

M. Mouhib
Spectrometry Laboratory of Materials and Archaeomaterials (LASMAR), Faculty of Science, Moulay Ismail University, Meknes, Morocco.

A. Amine
Laboratory Instrumentation Measurement and Control, Faculty of Science Chouab Doukkali University, El jadida, Morocco.

View Book :- https://stm.bookpi.org/NICST-V13/article/view/1767