With the rapid development of industrial technology, the performance requirements for products in fields such as precision production, rail transit, and automobiles are becoming increasingly stringent. In these fields, vibration and noise reduction technology plays a crucial role. It not only affects the quality of the product, but also directly affects people's comfort experience and safety. Therefore, how to effectively break through the limitations of vibration and noise reduction technology has become an urgent problem to be solved in the current industrial field.

In the production and processing of precision instruments, even small vibrations can have a serious impact on the accuracy and quality of products. For example, in the semiconductor manufacturing process, small vibrations may cause circuit breaks or short circuits on the chip, thereby affecting the performance of the entire electronic equipment. In precision machining fields such as nanomanufacturing, ultra precision grinding, and micro machining, equipment vibration can also directly affect machining accuracy and product quality. Therefore, the precision production and processing fields have extremely high requirements for vibration and noise reduction technology. Although traditional vibration and noise reduction methods can meet the needs to a certain extent, the limitations of these methods are becoming increasingly prominent with the continuous improvement of product accuracy.

As an indispensable means of transportation in people's daily lives, cars have also received widespread attention for their vibration and noise reduction performance. The vibration and noise emitted by cars during operation not only affect passenger comfort, but also pose a threat to driving safety. For example, when a new energy vehicle is accidentally hit by a collision or external force, the battery pack may be compressed or impacted. Therefore, it is necessary to design a reasonable buffer structure to reduce the impact of the collision on the battery pack. Secondly, it is necessary to improve the shattering and impact resistance of car glass, which can reduce the possibility of glass breakage in the event of a collision and reduce the risk of injury to personnel.

New energy vehicle batteries

In the fields of rail transit and aerospace, in order to optimize the passenger experience and ensure the stable operation of equipment, manufacturers widely adopt various vibration and noise reduction technologies, such as rubber dampers and dampers. However, these technologies still face some challenges and limitations in practical applications, especially in terms of durability, reliability, and the ability to adapt to different working environments.

Urban transportation such as high-speed rail, train, subway, etc

About ACF 

ACF Linzhi Technology first broke through ACF artificial cartilage technology in 2011 and successfully applied it in sports and medical protection, electronic and precious object protection, precision instrument production, automotive vibration and collision prevention, rail transit vibration reduction and other fields.

The material made from ACF artificial cartilage technology, as a three-dimensional ultra structural polymer biomimetic material, has been evaluated by authoritative institutions and has shown amazing performance. The maximum energy absorption rate of this material is as high as 97.1%, which not only has excellent energy absorption, but also has excellent recoverability. Even after multiple impacts, it can maintain stable impact resistance and has significant advantages compared to other cushioning materials. (Click on the article title link to learn about ACF technology: "Industrial Precision Instrument Manufacturing, Aerospace Rail Transit Gospel!")! ACF biomimetic cartilage metamaterials have far greater impact resistance and deformation resistance than EPP

In addition, ACF materials have a variety of morphological designs, which can be flexibly made into various forms such as sheet, roll, film, and adhesive strip. They can also be combined with other materials to further improve their performance.

On May 28th, Linzhi Technology made its debut at the Shenzhen International New Materials Innovation and Application Expo, showcasing innovative materials and products related to electronic products, industrial manufacturing (including precision instruments), home appliances, automotive transportation, and other fields, providing professional shock prevention and vibration reduction solutions for various brands and manufacturers. This not only helps to improve the overall performance of the product, enhance the brand's market competitiveness, but also promotes the transformation and upgrading of traditional industries, further stimulating the development potential of emerging industries.

Exhibition Introduction

This Expo brings together top enterprises, research institutions, and innovative talents in the field of new materials from around the world, showcasing key technologies, advanced concepts, product trends, and innovative applications in the field of new materials. It promotes the high integration of China's new materials with emerging industries such as electronic information, aerospace, rail transit, new automobiles, artificial intelligence, e-commerce, smart cities, smart homes, and digital economy.

Hall 8 of Shenzhen Convention and Exhibition Center (Fuhua 3rd Road, Futian District)

May 28, 2024- May 30, 2024

ACF booth number: 8F-88, exhibition hall B area