Sichuan Aishipaier New Material Technology Co., Ltd.

Amid the industrial upgrading wave where lithium-ion batteries are expanding from consumer electronics to new energy vehicles (NEVs) and energy storage stations, the key to performance breakthroughs often lies in subtle material innovations.   Carbomer, a high-molecular polymer that combines thickening, stabilizing, and electrochemical compatibility properties, is transitioning from traditional fields like pharmaceuticals and cosmetics to emerge as an "invisible champion" for improving quality and efficiency in the battery industry. As a modified product specifically developed for battery scenarios, battery-specific Carbomer injects new momentum into the cycle life, energy density, and safety performance of lithium-ion batteries through precise performance optimization.         Technology Decoding: Core Advantages of Battery-Specific Carbomer   Carbomer 976 is a cross-linked acrylic polymer with short rheological properties and relatively high viscosity.   1.Adjustable Rheological Properties Through viscosity grade optimization (covering a range of 4000-60000 mPa·s), it not only enables uniform dispersion of negative electrode slurry but also enhances the adhesion stability of positive electrode coatings.   2.Excellent Electrochemical Compatibility It maintains chemical inertness over a wide temperature range of -40℃ to 85℃, does not react with lithium salts, and simultaneously reduces electrode interface impedance to improve ion conduction efficiency.       Industry Prospects: Market Opportunities Amid the New Energy Wave As the global annual demand for lithium-ion batteries surges, the market space for battery-specific Carbomer is expanding rapidly.   Compared with traditional binders, it not only compatible with existing water-based process production lines to reduce environmental costs but also adapts to the needs of next-generation battery technologies such as silicon-based anodes and cobalt-free cathodes.     Outlook: Material Innovation Drives Industrial Upgrading In today’s new energy industry pursuit of "higher performance, greater safety, and better sustainability," this innovative material – which combines technical depth and application breadth – is becoming a key tool for battery enterprises to gain differentiated competitiveness.   In the future, with the continuous iteration of modification technologies, battery-specific Carbomer will undoubtedly write more new chapters of performance breakthroughs in broader energy scenarios such as energy storage and low-altitude aircraft.

In the current era of continuous innovation in materials science, our company, relying on its profound R&D capabilities and acute insight into cutting-edge technologies, has successfully developed a high-performance material specifically designed for the lithium battery field - battery-specific Carbomer 371. This product is expected to reshape the new performance pattern of lithium batteries.     Carbomer 371 is essentially a meticulously designed high-molecular polymer, and its unique molecular structure endows the product with numerous outstanding properties. Excellent stability is a significant advantage of the Carbomer 371, which enables it to maintain its structural integrity throughout the complex and harsh internal battery environment, ensuring long-term stable performance. Meanwhile, its outstanding electrochemical performance also sets it apart from many similar products, providing a solid guarantee for the electrochemical reactions during the charging and discharging process of lithium batteries.         During frequent charge and discharge cycles, the performance of lithium batteries often deteriorates to varying degrees, which has always been a difficult problem plaguing the development of the industry. The emergence of the Capom 371 has brought a brand-new solution to this predicament. After being added to the lithium battery system, the lithium battery can still maintain good performance even after multiple charge and discharge cycles.     With its outstanding stability and electrochemical compatibility, the Carbomer 371 acts like a loyal guardian, firmly locking in battery performance, effectively delaying battery capacity decline, significantly enhancing the overall service life and cycle stability of lithium batteries, and ensuring that lithium batteries maintain high-efficiency output throughout long-term use.     We believe that with the wide application of Carbomer 371 in the lithium battery industry, it will help various lithium battery products achieve performance leaps and drive the industry to take big steps towards higher performance and greater sustainability.

At present, with the continuous leap in the performance of electronic devices and the continuous increase in component integration, the heat dissipation problem of electronic components has become increasingly prominent. To overcome this industry bottleneck, ASPAiER Company, with its profound technological accumulation and continuous investment in innovation, has successfully developed a high-performance phase change material tailored specifically for electronic components, injecting new vitality into the stable operation and performance improvement of electronic devices.   ​     The research and development process of this new type of phase change material embodies the wisdom and hard work of the company's R&D team. At the beginning of the research and development, the team deeply analyzed the pain points of the existing phase change materials in the application of electronic components. In response to the problems of insufficient thermal conductivity, unsatisfactory phase change temperature range and poor processing adaptability of traditional materials, they carried out systematic technical breakthroughs. Through the screening, blending and optimization of various basic materials, the R&D team innovatively constructed a unique material formula system.     In practical application scenarios, this phase change material performs exceptionally well. Take the CPU of a smart phone as an example. Under high-load operation, the CPU temperature can easily soar, causing the phone to experience lag, frequency reduction and other phenomena. After adopting this new phase change material from the company, the CPU temperature can be stably controlled within an appropriate range. Even when running large-scale games for a long time or handling multiple tasks, the mobile phone can maintain smooth operation without any impact on performance.     In the server field of data centers, this phase change material also plays a significant role. During the process of massive data processing, servers generate a large amount of heat, and traditional cooling methods often fail to meet the requirements. By using this phase change material in combination with high-efficiency heat dissipation modules, the core temperature of the server can be significantly reduced, enhancing the overall stability and computing efficiency of the server cluster, reducing the risk of faults caused by overheating, and providing a solid guarantee for the efficient operation of the data center.

"Phase change energy storage is a new type of energy storage. As a class of efficient energy storage materials, phase change energy storage materials can not only reduce building energy consumption and improve indoor environmental comfort through the organic combination with buildings, but also make extensive use of renewable energy and improve the utilization rate of fossil energy. Li Haijian, director of the Phase Change Energy Storage Research Office of China Building Materials Research Institute and professor-level senior engineer, recently pointed out in an interview with a reporter from China Building Materials News that compared with other energy storage methods, phase change energy storage has the advantages of high energy storage density, small size, constant temperature control, significant energy-saving effect, wide range of phase change temperature selection, and easy control, and has important application value and broad development prospects in many fields.   The calcium carbide slag component has good compatibility with Na2CO3, which can replace the traditional natural skeleton material to synthesize Na2CO3/calcium carbide slag composite phase change heat storage materials, and large-scale resource recycling of calcium carbide slag to realize the low-carbon and low-cost preparation of composite phase change heat storage materials.     The industry ushered in a golden period of development   "At present, the country vigorously advocates the use of clean energy and the promotion of low-energy buildings, which has ushered in a golden opportunity for the development of the phase change energy storage industry." Li Haijian pointed out that in advocating the use of clean energy and renewable energy, the country is stepping up efforts to control pollution in response to the increasingly serious problem of fossil pollution.   Since 2015, the northern provinces have accelerated the implementation of coal-to-electricity projects in response to the problem of winter heating pollution. With the progress of these projects, the pollution problem of the northern heating season has been greatly solved, but there are still many problems. One of the problems is that after the coal to electricity, the heating cost of the people has risen sharply. In order to encourage the people to vigorously use cheap valley electricity, the relevant departments also stipulate that the use of energy storage electric heating must be used. This provides a great opportunity for the development of phase change materials.   In terms of building low-energy buildings, Li Haijian believes that low-energy buildings not only need to improve the insulation level, but also increase the energy storage capacity of the building. Now the building is mostly a concrete structure, compared with the old earthen wall building, the heat preservation and heat storage capacity is poor, resulting in colder in winter and hotter in summer, and the building thermal insulation is improved, the building has no storage capacity, loses the heat exchange with natural energy, and the free natural energy is wasted. To solve this problem, the heat storage capacity of the building should be improved.   "The current buildings are basically lightweight buildings, low thermal inertia, poor heat storage capacity, in order to improve the heat storage capacity of the building, it is impossible to adopt the earth wall like the old building in the past, the heat storage capacity of the building can be improved by adding phase change materials, the heat storage capacity of phase change materials is strong, the heat storage density per unit volume is high, and the heat storage requirements of the building can be met with less mass of phase change materials.   The heat storage capacity of phase change building materials will show strong advantages, and phase change concrete, phase change mortar, phase change flooring, etc. will be vigorously developed. When talking about the development of the industry, Li Haijian said.     It can reduce the energy consumption of buildings   According to the reporter of China Building Materials News, there are two main ways for phase change energy storage materials to be used in buildings: one is "passive application". Phase change materials are compounded with traditional building materials to make phase change building materials, increase the thermal quality of the wall, and use as a "passive" energy storage material, relying on the change of room temperature or receiving solar radiation heat and other ways to passively absorb / release heat, the heat storage of the same volume phase change building materials is several times to dozens of times that of ordinary building materials, and the requirements of heat storage are realized without increasing the overall load-bearing of the building.   Phase change building materials mainly include phase change gypsum board, phase change concrete, phase change mortar, phase change coating, phase change wallboard, phase change energy storage floor or ceiling, etc. At present, phase change building materials have been widely used in building energy conservation and have good development prospects.   The other is "active application". Phase change materials are combined with solar heating, electric heating, floor heating, air conditioning, ventilation and refrigeration and other equipment to become an "active" energy storage body, which can be actively adjusted and controlled through heat exchange devices and heat exchange mediums, such as phase change heat collectors, phase change heat storage boxes, phase change heating systems, etc.   "Generally speaking, the slow development of phase change energy storage building materials or component products at home and abroad may be caused by the relatively high cost of phase change building materials and the low degree of integration with existing building design." Li Haijian introduced that relevant enterprises and research institutions at home and abroad are trying to promote the market-oriented development of phase change building materials, such as establishing calculation methods and standards related to existing energy-saving indicators to promote the development of the industry.   In addition, phase change building materials enterprises can also start from the design of low-energy buildings, to overcome the integration of existing building design, such as the phase change materials made into phase change blankets, phase change tiles for the building envelope structure, the application form is flexible, the construction is fast and easy to recycle, the phase change materials are made into phase change bags, and then combined with the insulation board to prepare the phase change insulation integrated board, which is also a good innovation.   Li Haijian pointed out that in the heating and cooling industry, the development speed of phase change energy storage is relatively fast, there are already companies at home and abroad specializing in the operation of related markets, such companies are basically integrated with the existing basic business, their original business is mainly engaged in the heating or refrigeration industry, the addition of phase change energy storage elements can improve the efficiency of the original system, reduce the cost of system operation, especially the storage of renewable energy, the energy transfer of valley power, energy storage system has more advantages, As an efficient means of energy storage, phase change energy storage is increasingly favored by enterprises.     Future development needs to take multiple measures at the same time   "At this stage, the high cost of materials, long time limit for return on investment, and poor economics of building phase change energy storage products have become important factors restricting the further development and promotion of building energy storage." Li Haijian pointed out that there are still the following problems in the development of phase change energy storage materials: First, the standard system is not perfect.   Standards are the basis for the industrialization of technology, and they are also an important factor to support the healthy development of the industry. Due to the lack of relevant technical standards, there are many limitations and inconveniences in the production and application of phase change energy storage materials, phase change building materials, and phase change device systems. Second, the national energy storage policy support is low. The development cycle of new technologies, especially new energy, is generally relatively long, and in the early stage of development, it usually needs the support of the country's industrial policy.   Although the party and the state attach great importance to the development of the energy storage industry, the energy storage industry support policies are insufficient, and there is a lack of detailed implementation measures, such as technology development roadmap, industrial development guidance, relevant incentive policies, cost-benefit sharing and accounting methods, etc., and the development of the energy storage industry is relatively slow.   In order to achieve the high-quality development of phase change energy storage materials, Li Haijian suggested that the first is to formulate national phase change standards and engineering specifications to support the development of phase change energy storage materials.   Formulate and publish technical standards, procedures, construction methods and general atlases of building energy storage (energy storage) technology and product equipment in a timely manner, strengthen the publicity, implementation and supervision of standards, and provide a strong scientific basis and solid technical support for standardizing and guiding the application of building energy storage (energy storage) technology. The second is to improve the key materials, manufacturing processes and energy conversion efficiency of building phase change energy storage, and further solve the problems of stability, safety and durability in large-scale applications.   At present, most of the phase change energy storage technology is in the hands of scientific research institutes and university researchers, so as to improve the conversion rate of scientific research achievements, evaluate the practical application effect and long-term application efficiency, and provide monitoring data to improve the large-scale application demonstration.     (This article was originally published in the 6th edition of China Building Materials News on December 19)