Archives de catégorie Informations sur l'industrie

During the heat setting process of textiles, a large amount of waste heat energy is usually generated. In order to effectively utilize this waste heat energy, a plate aluminum foil heat exchanger can be used for recycling.
The working principle is as follows:
Plate heat exchanger is an efficient heat exchange device commonly used to transfer heat between two fluids. In the textile heat setting machine, the plate heat exchanger can be placed at the hot air discharge port or flue gas discharge port of the heat setting machine. During the process of contact with the plate, the hot air or flue gas transfers heat to the recovery medium. After absorbing the residual heat energy from hot air or flue gas, the recycling medium can be used to heat water or other fluids for preheating, heating, or other thermal energy requirements in the textile process.
By using plate heat exchangers, textile heat setting machines can recover the waste heat energy from the discharged hot air or flue gas, reduce energy consumption, and improve energy utilization efficiency. This helps to reduce production costs, minimize environmental pollution, and contribute to the sustainable development of the textile industry.

principe de fonctionnement :
Gas boiler granulation and drying waste heat recovery core achieves efficient heat exchange through gas-liquid phase change circulation of working liquid in a closed pipeline. The exhaust gas and fresh air (or air that needs to be heated) exchange heat through the heat exchange core of the plate heat exchanger, and the heat in the exhaust gas is transferred to the fresh air through the heat exchange core, causing the temperature of the fresh air to rise.
Application areas:
This system is widely used in industries such as ceramics, fertilizers, chemicals, feed, water purifiers, and building materials, and is suitable for situations that require high-temperature combustion air or process gases. For example, by using a waste heat recovery system to recover the high-temperature flue gas waste heat discharged from the circular cooler, the energy utilization efficiency of the production process can be improved and energy consumption can be reduced.
In summary, the waste heat recovery core of gas boiler granulation and drying achieves the recovery and reuse of exhaust gas waste heat through an efficient heat transfer mechanism, reducing production costs, improving energy utilization efficiency, and reducing environmental pollution. We can tailor the most suitable waste heat recovery solution based on specific production site conditions and your needs.

A coating machine is a mechanical device used to evenly apply specific functional adhesives, coatings, inks, etc. onto the surface of a substrate and dry it, with a wide range of applications. For example, printing and packaging coating, textile and building materials anti-corrosion and waterproof coating, automotive sheet metal coating, optical coating for circuit boards, semiconductors, and lithium battery production coating.
The coating process of a coating machine mainly includes three steps: coating, drying, and winding. The drying process generates a large amount of waste heat during the heating process. Therefore, designing an effective waste heat recovery device can effectively reduce the energy consumption of the coating machine, which is important for its energy conservation and environmental protection.
Principle of residual heat recovery of coating machine
The waste heat recovery device of the coating machine uses a heat exchanger to recover waste heat. Using the waste heat gas emitted by the coating machine (coating machine) to preheat the new air, the preheated new air enters the oven through the pipeline, achieving the goal of energy conservation. The heat exchanger achieves waste heat recovery by exchanging heat between the hot air and flue gas generated during the drying process of the coating machine and the recovery medium (such as air, water, or other fluids). Hot air and flue gas flow through the heat exchanger through one side channel, while the recovery medium flows through the other side channel. The plate structure of the heat exchanger increases the surface area for heat transfer and improves the efficiency of heat recovery.
Advantages of Coating Machine Waste Heat Recovery Device
Compact structure, high heat transfer efficiency, and strong adaptability. They are suitable for heat transfer and energy recovery in high temperature, high humidity, and corrosive environments. Through a well-designed waste heat recovery system, lithium battery coating machines can operate more efficiently and reduce their impact on the environment.

Dans le procédé de séchage conventionnel du bois, la ventilation traditionnelle entraîne d'importantes pertes de chaleur dues à l'évacuation de l'humidité et des gaz d'échappement. Le système de ventilation forcée et de récupération de chaleur résiduelle dans les séchoirs à bois est une technologie novatrice qui améliore le renouvellement de l'air entre l'intérieur et l'extérieur lors du séchage et permet de récupérer efficacement la chaleur perdue.
L'échangeur de chaleur à plaques à contre-courant utilise des matériaux de haute qualité, tels que des feuilles d'aluminium revêtues d'un revêtement hydrophile ou de résine époxy. Les deux flux d'air pénètrent en sens inverse dans le canal, augmentant ainsi la surface d'échange thermique. L'air frais et l'air extrait sont parfaitement séparés, évitant la transmission d'odeurs et d'humidité. Offrant une conductivité thermique rapide et sans pollution secondaire, il assure à la fois la ventilation et la récupération de chaleur.