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Advantage and Disadvantage of using potting glue for PCB board

Advantage and Disadvantage of using potting glue for PCB board   The advantages and disadvantages of using thermal conductive potting glue for circuit boards are as follows: latest company news about Advantage and Disadvantage of using potting glue for PCB board 0 The advantages:   1. protect the circuit board: thermal conductivity potting adhesive can effectively protect the circuit board, prevent it from being affected by the external environment, such as moisture, dust, vibration, etc. 2. improve electrical performance: thermal conductivity potting adhesive has excellent electrical performance and insulation ability, can effectively improve the electrical performance and stability of the circuit board. 3. enhance thermal conductivity: thermal potting adhesive has good thermal conductivity, can transfer the heat generated by the circuit board to the surrounding environment, so as to reduce the operating temperature of the circuit board. 4. improve weather resistance: some thermal conductivity potting adhesive has good weather resistance, can maintain its performance in harsh environmental conditions stable, so as to extend the service life of the circuit board.   latest company news about Advantage and Disadvantage of using potting glue for PCB board 1 The disadvantages:   1. high cost: some good thermal conductivity potting adhesive price is high, will increase the manufacturing cost of the circuit board. 2. difficult to operate: the operation of thermal conductivity potting glue requires certain professional skills and experience, if improper operation may cause damage to the circuit board. 3. Long curing time: some thermal conductive potting adhesives need long curing time, which will affect production efficiency. 4. Environmental protection: Some thermal conductive potting adhesives may have a certain impact on the environment in the process of production and use.

2025

09/10

From CPU to IGBT: Thermal Conductive Paste Selection and Thermal Management Optimization Guide

From CPU to IGBT: Thermal Conductive Paste Selection and Thermal Management Optimization Guide   With the continuous increase in the power density of electronic devices, effective thermal management has become a key factor in ensuring the reliability and performance of the system. From the central processing unit (CPU) of personal computers to IGBTs in the power electronics field, if the heat generated by electronic components during operation cannot be promptly dissipated, the temperature will rise sharply, which will affect the performance of the equipment, shorten its service life, and even cause malfunctions.   Thermal conductive silicone is a common type of thermal interface material, which is widely used in the cooling systems of various electronic devices due to its excellent thermal conductivity, convenient application, and cost advantages. However, in response to the diverse requirements of different application scenarios, how to scientifically select and use thermal conductive silicone to achieve good thermal management results remains a practical challenge for engineers. Thermal conductive silicone is a paste-like composite material composed of an organic silicon matrix and a conductive filler. Its working principle is to fill the microscopic gaps between the heat sink and the heating element, remove the air between the interfaces, and establish an effective heat conduction channel. The key performance indicators of thermal conductive silicone include thermal conductivity (typically ranging from 1.2 to 25 W/m·K), thermal resistance (significantly affected by thickness and contact area), operating temperature range (-40°C to 200°C), dielectric strength (important for insulation applications), and rheological properties such as viscosity and thixotropy. Additionally, the stability of performance over long-term use, including resistance to aging, drying, and pump-out ability, is also a factor to consider in practical applications. Thermal conductive silicone is a key material for thermal management in electronic devices. The correct selection and application of this material have a significant impact on the performance and reliability of the devices. In the future, as the power density of electronic devices continues to increase and the application scenarios become more diverse, the technology of thermal conductive silicone will develop towards higher thermal conductivity, better stability, and greater intelligence.

2025

08/18

The helpful companion of the heat dissipation module - thermal conductive silicone sheet

The helpful companion of the heat dissipation module - thermal conductive silicone sheet The heat dissipation module is a module unit used for heat dissipation in systems, devices, and equipment. Using a heat dissipation module for cooling is one of the limited heat dissipation methods for most compact electronic products at present, and it is also the main heat dissipation method. In heat dissipation modules, similar products such as thermal conductive silicone sheets are mostly used to assist in heat dissipation, and the combination of the two achieves a better heat dissipation effect.   First of all, the thermal conductivity range of the thermal silicone sheet is very wide, ranging from 1.2 W/mk to 25 W/mk. Generally, as long as the temperature difference required by the product can be achieved, it is sufficient. If the thermal conductivity requirement is not very high, then a low thermal conductivity silicone sheet can be used. Because these silicone sheets have good cost performance, reasonable prices, stable performance and good thermal conductivity. Because the thermal conductive silicone sheet is very soft and has good compressibility, the compression ratio of the thermal conductive silicone sheet is over 20% (depending on the specific product hardness), so when choosing the thickness of the thermal conductive silicone sheet, the compression ratio issue must be taken into consideration. This will enable the thermal conductive silicone sheet to fit better between the heat source and the heat sink, significantly increasing the effective contact area and thereby improving the heat conduction effect.   Note: When choosing a heat dissipation module, using a heat-conducting silicone film is not about having the highest thermal conductivity. Instead, it depends on specific circumstances to select the appropriate product. Also, it's not that the more expensive it is, the better it is. Choosing the right one or the suitable one is what makes it good.  

2025

08/11

The "savior" of computer CPU's heat dissipation performance-thermal conductive gel

The "savior" of computer CPU's heat dissipation performance-thermal conductive gel   When the computer is running, the CPU runs at a high speed like a "brain", which generates a lot of heat. If the heat can't be released in time, the CPU temperature will soar, which will directly lead to a sudden drop in the running speed of the computer, frequent jamming, even a crash, blue screen and other conditions, and even shorten the service life of the hardware in serious cases.For gamer, video editors and other people who need computers to run with high load for a long time, the heat dissipation problem is a "roadblock" that affects the work and entertainment experience. Therefore, heat dissipation is very important for CPU, and thermal conductive gel plays an indispensable role in it. How does it play its role? Thermal conductive Gel, also often called thermal conductive gap filler materials, is a kind of high thermal conductive material specially developed to solve the problem of heat conduction, which plays a key role in the field of heat dissipation of electronic equipment. It is mainly made of silicone grease, which has good insulation and chemical stability and can provide stable structural support for thermal conductive gel. Metal oxides (such as alumina, zinc oxide, etc.) and some special heat conducting materials (such as silver powder, ceramic particles, etc.) are also added as heat conducting fillers. These thermal conductive fillers are the key to improve the thermal conductivity of thermal conductive gel. They are like efficient heat transfer messengers, which can quickly capture and transfer heat.   Compared with ordinary thermal conductive materials, the thermal conductivity of thermal conductive gel is much higher. This means that it can transfer the heat generated by the CPU to the radiator at a faster speed. For overclocking players who pursue extreme performance, and users who need the computer to run under high load for a long time (such as those who do large-scale 3D modeling and rendering work), this efficient heat conduction ability is very important and can effectively avoid the performance bottleneck caused by overheating.   Compared with thermal conductive pad, thermal conductive gel has wider applicability. Regardless of the shape and size of the CPU, it can be perfectly adapted. The daubing installation process is simple and easy to understand, and even novices can get started quickly. Moreover, when it needs to be replaced in the future, it is more convenient to clean up the residue, and it will not be as difficult to handle as some materials. Among the materials to improve heat dissipation performance, the price of thermal conductive gel is relatively close to the people. For users who want to improve the heat dissipation of computers and don't want to invest too much budget in this area, it is undoubtedly an ideal choice with high cost performance. Spending a little money can get obvious performance improvement, which is favored by the majority of users.   To sum up, thermal gel plays an important role in the heat dissipation of computer CPU, which provides strong support for improving computer performance with its excellent thermal conductivity, flexible ease of use and high cost performance. For users who want to improve the heat dissipation of computers, they may try to use thermal gel, which may bring unexpected results. With the continuous development of science and technology, the future heat dissipation materials will move towards a more efficient, safer and more convenient direction, and the thermal conductive gel is also expected to show greater potential in the technological upgrading and continue to contribute to computer heat dissipation.  

2025

07/28

ZIITEK technology: an innovation leader in the field of heat dissipation materials in the AI era

ZIITEK technology: an innovation leader in the field of heat dissipation materials in the AI era   In today's era of rapid development of science and technology, the efficiency and heat dissipation of electronic equipment has become the key bottleneck of industrial development. With the popularization of artificial intelligence (AI), high-performance computing (HPC) and 5G communication technology, the calorific value of the chip has rapidly increased, and the traditional heat dissipation scheme can no longer meet the demand. In this heat dissipation technology competition, " Ziitek Technology, Ltd" is gradually emerging in the global market and becoming an invisible helper in the heat dissipation field of various industries with its innovative research and development technology of heat conduction materials. From local enterprises to international supply chain Founded in 2007, " Ziitek Technology" initially focused on the research and development and production of traditional electronic heat dissipation materials, and has been deeply involved in the electronic industry for 18 years. Over the years, " Ziitek Technology" has served major heat dissipation module factories and electronic factories in Taiwan Province with its own development experience and patented technology accumulation. Small heat conduction materials have become an indispensable functional part in the heat dissipation scheme of the electronic industry. With the explosive growth of AI and data center market, Ziitek has locked in the development of high-grade Thermal Interface Materials,TIMs). Nowadays, it has not only gained a foothold in the domestic market, but also successfully entered the European, American and Asian markets, becoming a key supplier of international technology giants.   Technical Breakthrough: From Material Formulation to Application Innovation "Where there are devices that use electricity, there is a demand for heat conduction." The application fields of heat conduction materials can be seen in the thermal management system, from the home appliances 3C closest to our lives to the fields of new energy, medical care and even aerospace. The core competitiveness of Ziitek thermal conductive materials lies in its "deep research and development ability of material science". Different from the traditional thermal conductive silica gel pad, the ultra-soft thermal conductive silica gel pad developed by Ziitek has a thermal conductivity of 8.5W/mK, a hardness of only 10°ShoreOO, and a stable compression deformation of 40% at a pressure of 5psi. Recently, Ziitek has developed a thermal conductive silica gel pad with thermal conductivity of 10W/mK and hardness of 20°ShoreOO. Therefore, Ziitek 's thermal conductive silica gel pad is generally loved by display card customers. In recent years, the demand for heat dissipation of Ai servers has expanded, which has also promoted the application of Ziitek 's ultra-soft materials in high-end computing power.   Under the trend of automatic production, Ziitek has also introduced "dispensing thermal conductive gel (TIF two-component series)", which can be accurately coated by machines to replace the traditional manual bonding of thermal conductive gaskets, greatly improving production efficiency. The company also cooperated with semiconductor manufacturers to develop special heat dissipation solutions for CoWoS package and HBM memory to solve the thermal management challenges brought by advanced packaging technology.   In the automotive market, Ziitek 's thermal insulation materials (TIS series) are applied to the inverter and battery management system of electric vehicles to ensure the reliable operation of high-voltage components in harsh environments. In addition, with the popularization of 5G Small Cell, Ziitek 's lightweight thermal conductive plastics (TCP series) have also become the first choice for equipment manufacturers, which can reduce the weight by 30% compared with the traditional aluminum heat dissipation mechanism, while maintaining excellent heat dissipation efficiency. Future challenges and opportunities Although Ziitek is outstanding in technology and market, the industrial competition is becoming increasingly fierce. Ziitek actively recruits talents for polymer materials research and development, cooperates closely with academic institutions, and holds a positive attitude in both technology and talents to cope with this wave of technological changes and keep pace with the times.   The next revolution of heat dissipation materials From traditional electronic heat dissipation to AI high-efficiency computing, the development of Ziitek Electronics witnessed the evolution of heat dissipation technology. With the gradual slowdown of Moore's Law, heat dissipation determines efficiency, which has become a new concept in the semiconductor industry. Ziitek continues to break through the limits of heat-conducting materials with material innovation, and contributes to serving the global high-efficiency computing and people's faster and more environmentally friendly life.

2025

07/14

The application of TIF thermal pad in GPU: Innovation and challenge of heat dissipation technology

The application of TIF thermal pad in GPU: Innovation and challenge of heat dissipation technology   With its excellent thermal conductivity, TIF thermal pad has become an innovator in the field of GPU heat dissipation. It can closely fit the tiny gap between the GPU chip and the heat sink, effectively eliminate the thermal barrier of air, and build a smooth heat conduction path. With a thermal conductivity of 1.25 to 25W/(m·K), depending on the material formulation and manufacturing process, TIF thermal pad can quickly conduct the heat generated by the GPU to the radiator, significantly reducing the operating temperature of the GPU. There are often problems with uneven surfaces or small gaps between the GPU chip and the heat sink, which affects the efficiency of heat conduction. The TIF thermal conductive silicone sheet is soft and elastic, which can give full play to its stress buffer function and effectively avoid the risk of hardware damage caused by local stress concentration. At the same time, it can be tightly fitted on the surface of the GPU to form a seamless heat transfer layer, reducing thermal resistance and improving heat transfer efficiency.     The TIF thermal conductive silicone sheet also has good electrical insulation performance, which can build a solid electrical barrier between the GPU chip and the heat sink to ensure the stable operation and safe use of the device. Assembly flexibility and adaptability TIF thermal pad are easy to process and cut, and can adapt to the needs of different shapes and thicknesses. It is especially suitable for the internal design of equipment with complex structure or limited space, and provides more possibilities for the optimization of GPU cooling schemes. Whether it is a desktop, laptop or server application scenario, TIF therma pad can be easily handled to ensure the unimpeded heat transfer. Despite the softness and compressibility of TIF thermal pad, it is still a challenge to ensure a tight fit between them and the GPU surface in practical applications. Small gaps or bubbles can affect the efficiency of heat transfer, so professional tools and methods need to be used during the installation process to ensure a suitable fit. Different GPU models and heat dissipation requirements have different performance requirements on thermal conductive silicone sheets. Therefore, when choosing a TIF thermal conductive silicone chip, it is necessary to measure its size and thickness according to the specific performance and heat dissipation requirements of the GPU to ensure a tight fit and heat transfer between the GPU surface and the heat sink. TIF thermal conductive silicone sheet may be affected by aging, pollution and other factors during use and reduce performance. Therefore, it needs to be maintained and replaced regularly to ensure its long-term stable operation. At the same time, the material quality and manufacturing process of thermal conductive silica gel sheet also directly affect its service life and reliability, and it is necessary to choose reputable suppliers and products. In short, the application of TIF thermal conductive silicone sheet in GPU heat dissipation not only solves the heat dissipation problem caused by high-performance computing, but also provides solid technical support for users and professional applications in pursuit of performance experience. With the continuous progress of GPU technology and the increasing demand for heat dissipation, TIF thermal pad will continue to play an innovative role in heat dissipation technology. At the same time, facing the challenges in practical applications, it is necessary to continuously optimize the performance of thermal conductive silicone sheets, select the right products, and strengthen maintenance and replacement work to ensure the stable operation and extend the service life of the GPU.

2025

06/23

Thermal conductive silicone sheet: Empowering the automotive chassis control system and solving the heat dissipation dilemma

Thermal conductive silicone sheet: Empowering the automotive chassis control system and solving the heat dissipation dilemma   Driven by the waves of automotive electrification and intelligence, the chassis control system, as the core hub of the vehicle, is facing performance challenges. The integration degree of core components such as high-precision sensors, domain controllers, and electric actuators is constantly increasing, while complex working conditions such as high temperature, vibration, and humidity have become invisible shackles restricting the stability of the system. Thermal conductive silicone sheets, with their outstanding thermal management capabilities and reliability, have become a key solution to break through the heat dissipation bottleneck, safeguarding the safety and efficiency of the chassis control system. Thermal conductive silicone sheet: Reshaping the boundaries of thermal management with technology   1.Effective heat conduction, breaking through the heat flow bottleneck: By using high thermal conductivity silicone base material and combining with nano-scale filler technology, a low thermal resistance connection between the heating element and the heat sink is achieved. Experimental data show that under the same working conditions, the use of thermal conductive silicone sheets can reduce the junction temperature of the chip by 15-20℃, significantly delaying the risk of thermal failure.   2. Flexible adaptation to cope with complex working conditions: Anti-vibration design: The hardness of 30-80 Shore A is adjustable. It absorbs mechanical vibration energy and avoids contact surface cracking caused by thermal stress. Weather resistance breakthrough: Wide temperature range operation from -40℃ to 200℃, resistant to salt spray and oil erosion, ensuring long-term reliability. Insulation protection: Volume resistivity ≥1.0 × 10¹² Ω·cm, effectively isolating high-voltage components and enhancing the electromagnetic compatibility of the system. Product features of thermal conductive silicone sheets 1. Good thermal conductivity: 1.2W - 25W/mK 2. Fire resistance rating: UL94-V0 3. Multiple thickness options are available: 0.25mm-12.0mm 4. Hardness: 5 to 85shoreoo 5. High compressibility, soft and elastic, suitable for low-pressure application environments 6. Self-adhesive without the need for additional surface adhesives   Application Scenarios: Full-chain empowerment from traditional to intelligent   1. Electric power steering System (EPS) : Reduces temperature fluctuations in the motor drive module and enhances steering response accuracy. 2. Electronic Stability Program (ESP) : Ensures the stable operation of the hydraulic control unit under adverse working conditions and shortens the braking response time. 3. By-wire chassis: It provides a continuous low-temperature environment for redundant computing units to ensure the achievement of functional safety levels. 4. Air suspension control system: Optimize the heat dissipation of the solenoid valve group to extend the frequency and lifespan of suspension adjustment. From traditional fuel vehicles to smart electric vehicles, the heat dissipation requirements of chassis control systems have always evolved in tandem with technological innovations. Thermal conductive silicone sheets have been elevated from supporting roles to key technical carriers. Choosing a professional-level heat conduction solution is choosing the reliability and sustainability of future travel. When every bit of heat can be accurately dissipated, the "footwork" of the car can be more stable, providing users with a safe, effective and long-lasting driving experience.

2025

05/26

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