Light gas loading fragment simulation testing device

The light gas loading fragment simulation testing device is a laboratory device that uses high-pressure light gases (air/nitrogen/hydrogen/helium, etc.) as the power medium to propel the projectile into high-speed motion, mainly used for high-speed material collision testing. This product is a first level gas cannon, equipped with a high-pressure gas station and an optical network speed measurement system. It has a small overall size, is easy to install, does not require additional on-site debugging, and is easy to operate and maintain.

　

Light gas cannon loading device

Special equipment for laboratory high-speed material collision testing

Product Core Highlights

✅ First level gas cannon design, powerful and stable power

✅ High pressure light gas drive, air/nitrogen/Helium optional

✅ Standard configuration of optical network speed measurement system, precise speed measurement0.1m/s

✅ Small size, easy to install, no additional on-site debugging required

✅ Easy operation and maintenance, suitable for various laboratory scenarios

Product Introduction

The light gas cannon loading device is a high-speed impact testing equipment specially developed for laboratories, usingHigh pressure light gas (air)/nitrogen/Helium gas, as a power medium, provides a stable power source through gas cylinder storage, efficiently pushing the projectile to achieve high-speed motion, and is the core device for conducting high-speed collision tests.

This is a first level gas cannon, integrated with a high-precision optical network speed measurement system, eliminating complex installation processes. The overall size is compact, flexible in placement, and can be used directly upon arrival without the need for professional personnel to debug on site. The later operation and maintenance are simple and worry free, suitable for high-speed collision testing needs in universities, research institutes, material testing laboratories and other scenarios.

core advantage

1. Zero trouble in installation, operation and maintenance

The overall body size is compact, occupying a small area, and the placement is not limited by the site; No additional on-site debugging is required, and testing can be carried out by opening the box and connecting the gas source. There is no need for professional technicians to come on-site for debugging, and the maintenance process in the later stage is simple, greatly reducing the cost of use and time.

2. Strong power adaptability

Supports various light gases such as helium, nitrogen, and air as power sources. Standard gas cylinders are used for storage, making inflation convenient. The power medium can be flexibly switched according to experimental needs, and the injection pressure is less than30MPaStable power output ensures the consistency of high-speed motion of the projectile.

3. Accurate and efficient speed measurement

standard configuration3Channel optical network speed measurement system, with high speed measurement accuracy0.1m/sAccurately capturing the velocity of projectile motion, stable and reliable data collection, meeting the data detection requirements of high-precision material collision tests, and providing accurate data support for test results.

4. Widely adaptable projectile

A cylindrical projectile can be used as the projectile carrier, easily embedded with various shapes of launch components such as steel balls and spheres, without the need for customized specialized projectiles, to meet the launch requirements of different test scenarios.

Core technical parameters

-Barrel caliber: Φ10~Φ254mm

-Power source: helium gas/nitrogen/Air, gas cylinder storage for energy supply

-Gas injection pressure: ＜30MPa

-Speed measurement system:3Channel configuration, speed measurement accuracy0.1m/s

-Bullet adaptation: Supports cylindrical bullets as ammunition carriers, can be embedded with steel balls, spheres, and other shaped launch components

-Product type: First stage gas cannon

-Installation and debugging: The overall size is compact and easy to install, without the need for additional on-site debugging

Applicable scenarios

-High speed impact teaching experiment in the School of Materials Science and Mechanics and Mechanics Laboratory of universities

-Research on material properties and analysis of high-speed collision mechanisms in research institutes

-Industrial material testing institutions conduct impact resistance testing on materials

-High speed collision simulation test of special materials in aerospace and other fields

-The European UnionSimulation of Anti Crash Impact Loading for ED112, C124C, and Others