Cycloid Trajectory Dynamic Ozone Test Chamber

Specifications

The core principle behind the device

The so-called "cycloid trajectory" is one of the core innovations in the design of the test chamber. This trajectory simulates that in practical use, materials may be subjected to ozone impacts in different directions due to external factors such as wind speed, airflow, environmental changes, etc. In traditional testing equipment, the sample is usually in a stationary state, while the cycloid trajectory design ensures that all parts of the sample are uniformly exposed to ozone by swinging the sample along a certain trajectory, thereby more accurately reflecting its performance in actual use.

Ozone generation and precise control

The generation of ozone is accomplished through an ozone generator, where gas decomposes oxygen into ozone through high voltage current. To ensure the accuracy of the experimental environment, the concentration control of ozone is particularly important. This device can adjust different ozone concentrations according to actual needs, maximizing the simulation of high concentration ozone environments that materials may face in real life. At the same time, the precise control of temperature and humidity during the experiment further enhances the comprehensiveness and credibility of its testing.

Swing trajectory and airflow simulation

Unlike traditional static tests, this dynamic test chamber swings the sample along a set trajectory in an ozone environment. It not only exposes the sample to ozone, but also simulates the stress caused by external forces during use. The changes in airflow further test the material comprehensively. The innovation of the cycloid trajectory lies in its ability to accurately control the frequency and angle of the motion trajectory, allowing each sample to withstand testing in the most realistic environment.

The application value in different fields

Rubber and Plastic Industry:

In the production of rubber and plastic, ozone resistance directly affects the product's service life. Automobile tires, sealing strips, and various industrial rubber accessories need to undergo ozone aging resistance testing to ensure that they will not experience performance degradation such as cracking and brittleness in high concentration ozone environments. By using this cycloidal trajectory dynamic ozone test chamber, enterprises can obtain more accurate aging data and optimize raw materials and processes through testing.

Aviation and automotive industry:

The key components in these fields require long-term use in harsh environments. For example, automotive sealing strips and aircraft rubber gaskets need to demonstrate good durability in ozone environments. This device helps relevant industries detect the true reactions of different materials in long-term exposure to ozone, providing data support for material selection and product design.

Coatings and Coating Industry:

For the testing of coatings and coatings, this test chamber can not only detect their weather resistance under ozone, but also evaluate the reaction of coatings to external corrosive gases. This is particularly important for car paint, architectural coatings, etc. By precisely controlling ozone concentration and temperature and humidity, the test chamber can simulate the effects of various natural environments on coating materials, helping manufacturers optimize their products.

Electronic product industry:

The electronics industry has very high requirements on the anti-aging performance of materials, especially the plastic shell, wire sheath and other parts, which must have the ability to resist ozone erosion. With the advancement of technology, electronic products are gradually becoming thinner and more durable, and these properties often need to be tested through ozone resistance tests. Through dynamic cycloid trajectories, it is possible to simulate the actual working environment more realistically, helping enterprises predict the aging of materials in advance.

Intelligence and automation of test box design

In addition to its powerful functionality, the intelligent design of the cycloidal trajectory dynamic ozone test chamber is also worth paying attention to. The equipment is equipped with precise sensors and automatic control systems, which can monitor key parameters such as ozone concentration, temperature, and humidity in real time, and operate and read data through a visual interface. In this way, testers can adjust experimental parameters at any time to ensure the accuracy and efficiency of the testing process. In addition, the addition of a data recording and analysis system makes the experimental results more intuitive and easy to analyze, providing valuable data support for later research and quality control.