Conducting compatibility experiments on various sealing materials and using bendable aluminum strips and molecular sieves with appropriate adsorption rates are also effective ways to control the quality of insulating glass and extend its functional life.
LIJIANG Glass researches the application and quality control of inert gases in insulating glass from aspects such as the performance comparison of different inert gases, the relationship between gas concentration and insulation performance, and the testing of inert gas concentration and concentration retention rates.
LIJIANG Glass introduces the durability performance requirements and testing methods in the insulating glass standards of China, the United States, the European Union, and Japan, and conducts a comparative analysis of the similarities and differences in the dew point test, ultraviolet resistance, and weather resistance performance requirements and testing methods of insulating glass.
From the materials and structures of grooved aluminum insulating glass and composite strip insulating glass, it is not difficult to see the difference between them. This also means that their processing techniques are different. This article will give you an in-depth understanding of the two processes' detailed processes and key points-- the grooved aluminum insulating glass and the composite strip-type insulating glass.
Due to its excellent thermal insulation and thermal insulation properties, vacuum glass is widely used in construction, automobiles, ships, and other fields. Vacuum glass uses its special structure and materials to achieve multiple functions such as efficient thermal insulation, heat insulation, and sound insulation, providing a more comfortable and energy-saving environment for people's lives and work.
This article systematically summarizes the various failure modes of insulated glass on building curtain walls and details the reasons for their failure. The analysis of this article is expected to guide technicians to design and use curtain wall insulating glass more rationally, reduce the occurrence of safety and quality accidents, and thereby improve the safety, reliability, and durability of insulating glass.
A smooth and regular cutting section can not only reduce the loss of cutting splinters, improve the safety of the storage and transportation of large-size glass products, and improve product processability, but also make the appearance of the glass more refined and more overall aesthetically pleasing, and it is also an important part of the automatic glass cutting production line.
Currently, there are several ways to detect the gas content within inflated insulating glass and the structure of the insulating glass. Likewise, instruments are being developed to detect the presence and location of Low-E coatings on insulating glass units, so that the overall quality of the insulating glass units can be assessed. This article is intended to give readers a basic understanding of several different methods available on the market.
Insulated glass is widely used in construction and other fields, but the quality on the market varies, and substandard conditions such as frosting inside the cavity and leakage of sealant often occur. When such a situation occurs, the unqualified insulating glass needs to be replaced, which is very costly. Insulating glass manufacturers should ensure stable and controlled product quality in all aspects and processes of production to avoid unnecessary losses.
The thickness of the insulating glass interlayer has an important impact on its performance, but there are still relatively few relevant studies. LIJIANG Glass aims to explore the effect of the thickness of the insulating glass interlayer on the heat transfer coefficient and provide a reference for the design and application of insulating glass.
The LIJIANG Glass system summarizes the various failure modes of insulating glass on building curtain walls and analyzes their failure causes in detail. The analysis of this article is expected to guide relevant engineering technicians to design and use curtain wall insulating glass more rationally, reduce the occurrence of safety and quality accidents, and thereby improve the safety, reliability, and durability of insulating glass.
Insulating glass is the main product that saves 50% of energy in public buildings and 65% in residential buildings. Improving its quality is the top priority of today's building energy-saving technology. Therefore, by controlling various aspects such as material selection, processing and manufacturing, and process environment, we can prevent insulating glass from condensation failure, extend its service life, and reduce maintenance costs. This can not only bring economic benefits but also achieve better social benefits.
LIJIANG Glass discusses the process and characteristics of insulating glass, as well as the lamination process, starting from the processing and technical requirements of insulating glass. various material requirements. Due to the many development advantages of insulating glass, it has been more and more widely used in modern building curtain walls.
To keep up with the market's demand for high-performance insulating glass products, companies have been making unremitting efforts in quality control, especially when it comes to the gas retention of gas-filled insulating glass.
A soft and regular cutting section can not only reduce the loss of cutting fragments, improve the safety of storage and transportation of large-sized glass products, and improve the processability of products, but also make the glass look more refined and more beautiful overall. It is also a reflection of the technical capabilities of the production line.
The purpose of this article is to study the design scheme of the double insulating glass spacing and strive to obtain an optimized spacing scheme that can achieve a higher level of thermal insulation performance and to carry out experimental verification to provide a certain reference for the thermal insulation design of building windows in high latitudes in the northern hemisphere in the future.
