Guangzhou Cleanroom Construction Co., Ltd. company cases

In numerous industrial production and high - tech research and development fields today, the heat dissipation problem has always been a crucial challenge that urgently needs to be overcome. As a professional manufacturer of purification equipment, Guangzhou Cleanroom Construction Co., Ltd., will provide you with a detailed interpretation of the application scenarios of the PCW cooling system, a powerful heat dissipation tool, to help you make accurate choices and optimize your production processes. 1. Electronic Chip Manufacturing: Dual Assurance of Precision and Stability   Electronic chips are the "brains" of modern technology. The manufacturing process is extremely delicate, and the requirements for temperature are almost stringent. In core processes such as lithography, etching, and ion implantation, even the slightest temperature fluctuation may cause deviations in the chip circuit, greatly reducing the yield rate. The PCW cooling system, with its excellent temperature control accuracy, can closely adhere to the chip manufacturing equipment, dissipate a large amount of heat in real - time, and maintain the equipment temperature constantly within the ideal range. It creates a stable and low - temperature environment for chip manufacturing, ensuring that every process is accurate and error - free. This helps chip companies increase production capacity and product quality, and seize the high ground of cutting - edge technology. 2. Biomedical Research and Development: Guarding the Pure and Low - temperature Environment of Life Sciences   Biomedical laboratories are like a "scientific cradle" for breeding hope. Here, precision instruments are powerful assistants for exploring the mysteries of life. Equipment such as gene sequencers and high - performance liquid chromatographs generate heat during long - term operation. Excessive temperature not only interferes with the detection accuracy of the instruments but may also affect the activity of biological samples. The PCW cooling system can customize cooling solutions as needed. Through the circulation of pure and pollution - free coolants, it provides an appropriate low - temperature environment for these expensive and sensitive instruments, ensuring the accuracy of experimental data. It lays a solid foundation for breakthroughs in biomedical research and development, accelerates the process of new drug development, and safeguards more lives. 3. New Energy Battery Production: The "Cool Power" Behind Battery Range   With the global pursuit of clean energy, the new energy battery industry is booming. In the production processes of battery electrode coating, drying, and formation, a large amount of heat needs to be dissipated in a timely manner. The PCW cooling system intervenes efficiently, quickly cooling the high - temperature battery components, avoiding problems such as performance degradation and bulging of battery materials caused by overheating. It ensures the consistency and safety of batteries, extends the battery life, provides a reliable "power heart" for new energy vehicles, energy storage power stations, etc., and promotes the green energy revolution to a new journey. 4. Data Centers: The Cool Backing for the Digital World   In the era of information explosion, data centers undertake massive data storage and computing tasks. Rows of servers, like tireless "digital laborers", continuously emit high heat. If the heat cannot be dissipated effectively, servers are prone to problems such as crashes, calculation errors, and even hardware damage, seriously affecting data security and business continuity. The PCW cooling system, with its powerful refrigeration capacity, combined with intelligent temperature control management, ensures that the server room is always within a suitable temperature range, allowing data to run smoothly. It provides protection for digital industries such as Internet companies and financial institutions, ensuring the stable prosperity of the digital economy. 5. High - end Precision Machining: The Temperature - control Master of Carving Processes   High - end precision machining pursues machining accuracy at the micron or even nanometer level. The heat generated by equipment such as lathes, grinders, and milling machines during cutting and grinding processes can cause thermal deformation of workpieces and tools, thus destroying the machining accuracy. The PCW cooling system is like a highly skilled temperature - control master, precisely regulating the temperature of processing equipment, suppressing thermal deformation. It allows mechanical parts to be carefully carved in an almost perfect temperature environment, improving the surface quality and dimensional accuracy of products, and meeting the strict requirements for precision parts in fields such as aerospace and high - end equipment manufacturing.   Guangzhou Cleanroom Construction Co., Ltd. focuses on the research, development, and production of purification equipment. The PCW cooling system under our company is of excellent quality and strong adaptability. No matter what industry you are in, as long as you face heat - dissipation challenges, we can customize solutions for you, provide professional equipment and considerate services, and jointly create a new situation of efficient and stable production. If necessary, please feel free to contact us.  

In the chemical industry, the sintering cooling system is like a "heart", continuously driving the production process in an orderly manner. As Guangzhou Cleanroom Construction Co., Ltd., which has been deeply engaged in the manufacturing of purification equipment, we will take you to deeply understand the mysteries of the sintering cooling system in chemical plants today. I. Sintering: The Incubation of High - temperature "Magic"   Sintering is the starting chapter of the entire system. Various powdery or fine - grained raw materials are mixed according to a precise formula. These raw materials may include ores, fluxes, etc. After thorough mixing, they are sent to the sintering machine. The sintering machine is like a huge "hot moving bed". On this "bed", the raw materials are evenly spread out. As the equipment moves slowly, they enter the high - temperature combustion zone. The fuel burns continuously, releasing intense heat energy, and the temperature rises rapidly, reaching over a thousand degrees. Under such high - temperature "baking", a series of complex physical and chemical changes occur among the raw material particles, gradually bonding them together to form solid sintered ore. It's like sintering loose "sand" into solid "bricks", preparing the key raw materials for the subsequent chemical processes. II. Cooling: Controlling the Decline of Heat   The freshly produced sintered ore has an extremely high temperature. If it directly enters the next process, it will not only damage the equipment but also affect the stability of chemical reactions. At this time, the cooling system comes into play. The cooling system mainly has two modes: forced - draft cooling and induced - draft cooling. Forced - draft cooling is like blowing strong "cold air" on the scalding sintered ore. Cold air is forcibly blown in from the bottom or side vents, making full contact with the hot sintered ore. After absorbing heat, it becomes hot air and is discharged. Induced - draft cooling involves arranging exhaust devices above or around the sintered ore. Under the action of negative pressure, hot air is continuously extracted, and cold air naturally replenishes to achieve cooling. Through cooling, the temperature of the sintered ore is significantly reduced to a temperature range suitable for subsequent processing. At the same time, the recovered heat can be cleverly utilized for pre - heating air, heating water, etc., realizing the recycling of energy and improving the overall energy efficiency of the chemical plant. III. Heat Exchange: The Art of Energy Transfer   During the cooling process, the heat - exchange link is of great importance. Whether it is forced - draft or induced - draft cooling, there is a fierce "energy tug - of - war" between the hot sintered ore and the cold air. The heat of the hot sintered ore is eager to be transferred out, while the cold air greedily absorbs the heat. The heat exchanger, as the "referee" of this "tug - of - war", ensures that the heat exchange is efficient and orderly. It has a special structural design that increases the contact area between hot air and cold air, as well as between the hot sintered ore and the cooling medium, enabling rapid and sufficient heat transfer. For example, fin - type heat exchangers are used. The fin - like radiating fins effectively expand the heat - exchange area, accelerating heat dissipation and greatly improving the cooling efficiency, ensuring the thermal balance of the entire system and providing a stable thermal environment for the continuous progress of chemical production. IV. Dust Treatment: The Defense Line for Protecting the Environment   Dust is inevitably generated during the sintering and cooling process. If allowed to disperse, it will cause serious pollution to the environment around the chemical plant. Therefore, a complete set of dust - treatment mechanisms is essential. High - efficiency bag - type dust collectors or electrostatic precipitators are installed at key parts such as the air outlets and unloading ports of the cooling system. The bag - type dust collector is like a series of fine "filter bags". When the dust - laden gas passes through, the dust is firmly intercepted inside the filter bags, and the purified gas is discharged. The electrostatic precipitator uses the principle of electrostatic adsorption, making the dust particles carry charges. Under the action of an electric field, they gather towards the electrode plates, achieving the separation of gas and dust. After dust treatment, it is ensured that the gas discharged into the atmosphere meets environmental protection standards. While the chemical plant is producing efficiently, it also contributes to the blue sky and white clouds.   Guangzhou Cleanroom Construction Co., Ltd., with its professional technology and rich experience, is committed to providing high - quality purification equipment related to the sintering cooling system for chemical plants. From equipment manufacturing to installation and commissioning, we ensure the stable operation of the system in all aspects. If you have any needs in the field of chemical purification, please feel free to contact us at any time. Let's work together to promote the green and efficient development of the chemical industry.  

In the construction and operation of cleanrooms, the choice of a cooling system is like a crucial battle, directly affecting production efficiency, equipment lifespan, and the overall stability of the workshop. As a professional manufacturer of purification equipment, Guangzhou Cleanroom Construction Co., Ltd., will analyze the advantages and disadvantages of liquid cooling systems and air - cooling systems for you today, helping you make an informed decision. I. Different Heat Dissipation Principles   The air - cooling system, as the name implies, relies on air circulation to dissipate heat. Strong fans are used to make air circulate around heat - generating equipment. The hot air is continuously replaced, just like a gentle breeze in nature, giving the equipment a "cooling breeze bath." Its principle is simple and straightforward, with relatively low costs. The initial equipment investment is small. For small - scale cleanrooms with limited budgets or general production areas that are not too demanding on temperature, it is an affordable entry - level option.   The liquid cooling system, on the other hand, uses special coolants such as water or a mixture of ethylene glycol to circulate in a closed pipeline. Coolants have a much higher specific heat capacity than air, which can absorb a large amount of heat emitted by equipment. Then, the heat is transferred to a secondary cooling medium, usually air or water, through a heat exchanger to achieve heat transfer. This method is like an efficient "heat transporter" built into the equipment, quietly but powerfully and quickly dissipating heat. II. The True Test of Cooling Efficiency   In the race of cooling efficiency, the liquid cooling system takes the lead. When there are high - power heat - generating equipment operating intensively in the workshop, such as lithography and etching machines in chip manufacturing, or high - precision instruments in pharmaceutical research and development, the liquid cooling system can closely fit the heat source, quickly absorb heat, and ensure that the equipment temperature returns to the normal range in a short time. This greatly reduces the risk of equipment failure caused by overheating and guarantees the continuity of production.   In contrast, the air - cooling system has limited thermal conductivity. When dealing with high - heat loads, it often struggles. A large amount of hot air accumulates around the equipment and is difficult to disperse quickly, easily creating local high - temperature areas. This not only affects the performance of the equipment but may also reduce its service life in the long run. In high - end cleanrooms that are sensitive to temperature fluctuations and have extremely high production precision requirements, the shortcomings of the air - cooling system become more prominent. III. Space Occupancy and Layout Impact   Although the air - cooling system has relatively simple equipment, to ensure good heat dissipation, it requires a large amount of air circulation space. Components such as fans and air ducts will occupy a certain area of the workshop. Moreover, the layout of the air ducts needs to be carefully planned to avoid air - flow dead ends, otherwise, local poor heat dissipation problems will occur. For cleanrooms where every inch of space counts, especially in compact cleanrooms in the electronics and biopharmaceutical industries, this is undoubtedly a challenge.   The pipeline layout of the liquid cooling system is relatively flexible. It can wind around according to the workshop structure, closely surround the equipment, and make the most of vertical and horizontal spaces. It can even be cleverly hidden in the equipment base or wall interlayers. While not taking up too much floor or airspace, it can perfectly achieve efficient heat dissipation, leaving valuable space for production, operation, and equipment placement in the workshop. IV. Maintenance Convenience and Cost Trade - off   The air - cooling system is relatively easy to maintain. Components such as fans are easy to disassemble and replace. As long as the dust is cleaned regularly to prevent dust accumulation from affecting the heat dissipation efficiency, the maintenance cost is mainly concentrated on the wear and replacement of the fan motor and a small amount of air - duct maintenance. The overall cost is low, and the technical threshold is not high. Ordinary maintenance personnel can get started with a little training.   The liquid cooling system involves multiple maintenance links, such as regular inspection, replenishment, or replacement of the coolant, detection and repair of coolant leaks, and cleaning and maintenance of the heat exchanger. Once a coolant leak occurs, it may not only damage the equipment but also contaminate the workshop environment. Therefore, it requires a high level of professional quality from maintenance personnel, and the maintenance cost is relatively high. However, considering the long - term operation stability and equipment protection effect, the maintenance investment of the liquid cooling system in some key production links can also bring significant returns. V. Comprehensive Adaptability Considerations   When you are at the crossroads of decision - making, you need to comprehensively examine the characteristics of the workshop. For cleanrooms with high - temperature sensitivity, such as those for electronic chip manufacturing and precision optical instrument manufacturing, which have extremely high requirements for production accuracy and environmental stability, the liquid cooling system is undoubtedly the best choice due to its excellent cooling efficiency and precise temperature control capabilities. For general food processing, ordinary machinery assembly, and other cleanrooms that are more tolerant to temperature fluctuations, have limited budgets, and have relatively abundant space, the economy and simplicity of the air - cooling system can shine.   Guangzhou Cleanroom Construction Co., Ltd. has been deeply involved in the purification field and understands the unique needs of every workshop. Whether you eventually prefer one cooling system over the other, we can provide you with professional equipment, meticulous installation and commissioning, and attentive after - sales maintenance services to ensure the efficient and stable operation of your cleanroom. If you have any questions, please feel free to contact us at any time, and let's start a new chapter in clean production together!  

In the era of rapid technological development, quantum chips, as core components in the cutting - edge technology field, have extremely strict requirements for the manufacturing environment. Guangzhou Cleanroom Construction Co., Ltd., a professional manufacturer of purification equipment with years of experience in the industry, will reveal the construction process of clean rooms for quantum chip manufacturing today. 1. Pre - project Planning and Requirement Analysis   The first step in building a clean room for quantum chips is of great significance. It is necessary to have an in - depth understanding of every link in the chip manufacturing process. From chip lithography, etching, deposition to packaging and other processes, different steps have different requirements for environmental parameters such as temperature, humidity, number of dust particles, and electrostatic control. Communicate closely with chip manufacturing enterprises. Based on their production scale and technical routes, accurately determine the area and layout of the workshop, and plan the flow directions of personnel, materials, and products to ensure that the three flows do not interfere with each other and avoid cross - contamination, laying a solid foundation for efficient production in the future. 2. Determination of Purification Level   Quantum chip manufacturing usually requires an extremely high purification level, commonly ISO Class 3 or even higher. This means that the number of dust particles larger than 0.1 micrometers per cubic meter of air must be strictly controlled to single - digit numbers. According to the precision of the chip manufacturing process, determine the purification levels of different areas such as the lithography area and the ultra - clean testing area, so as to configure purification equipment targeted, ensuring that the chip is not disturbed by dust impurities at the micro - level and guaranteeing the chip yield rate. 3. Architectural Structure Design   The architectural structure of the workshop must be adapted to the purification requirements. The walls, floors, and ceilings should be made of air - tight, smooth, easy - to - clean, and anti - static materials. Color - coated steel plates can be selected for the walls, with seamless joints; epoxy self - leveling can be used for the floor, which is wear - resistant, corrosion - resistant, and anti - static; the ceiling is designed to be accessible for people, which is convenient for later equipment maintenance. High - efficiency particulate air (HEPA) filters and ultra - low - penetration air (ULPA) filters are installed to ensure uniform air supply and stable and long - lasting purification effects. 4. Selection and Installation of Air Purification System   This is the core link, consisting of air - conditioning units, supply and return air ducts, filters, etc. The air - conditioning unit should have multiple functions such as refrigeration, heating, humidification, dehumidification, and air filtration, accurately regulating the temperature and humidity with a very small error range. The supply and return air ducts are reasonably planned according to the layout of the workshop, and high - quality galvanized steel sheets are used to ensure air - tightness and prevent air leakage from causing purification failure. Filters at all levels work step by step. The primary filter removes large - particle dust, the medium - efficiency filter further purifies the air, and the high - efficiency and ultra - high - efficiency filters provide an almost sterile and dust - free ultra - clean air for the chip manufacturing area. 5. Electrostatic and Micro - vibration Control   Quantum chips are extremely sensitive to static electricity. A small electrostatic discharge can damage the chip. Professional electrostatic elimination equipment such as ion fans and electrostatic grounding systems are equipped in the workshop to ensure that the electrostatic potential is within the safe threshold. At the same time, considering the micro - vibrations generated by equipment operation and personnel movement, shock - absorbing designs are adopted from the building foundation, and shock - absorbing pads are also equipped for equipment installation to prevent the micro - vibrations from being transmitted and affecting the accuracy of precision processes such as chip lithography. 6. Supporting of Water, Electricity, and Gas Systems   A stable and reliable supply of water, electricity, and gas is the guarantee for the operation of the workshop. The pure water system provides high - purity water sources for chip manufacturing, meeting the needs of processes such as cleaning and etching, and the water quality reaches the standard of electronic - grade ultrapure water. The power system adopts a dual - circuit power supply, equipped with an uninterruptible power supply (UPS) to deal with sudden power outages and ensure the continuous operation of key equipment. The gas system accurately distributes special gases such as nitrogen and argon. The pipelines are strictly sealed and purged to prevent gas contamination from affecting the chip quality. 7. Equipment Installation and Commissioning   Purification equipment and production equipment are installed in sequence. They should be installed in strict accordance with installation specifications to ensure that the equipment is level, stable, and tightly connected. After installation, joint commissioning is carried out. Simulate the production conditions, comprehensively test the purification effect, temperature and humidity control, and equipment interlocking, and repeatedly adjust the parameters until all indicators meet the design requirements, creating a perfect manufacturing environment for the formal production of quantum chips.   Guangzhou Cleanroom Construction Co., Ltd., with its professional team and advanced technology, controls every detail of the construction process of clean rooms for quantum chips, helping quantum technology enterprises to reach a higher level and embark on a new journey of quantum chip mass production. If you have requirements for the construction of clean rooms, please feel free to contact us. Let's work together to create a technological future!  

Introduction   In the fields of scientific research and disease prevention and control today, biosafety laboratories play a crucial role. Different - level laboratories, such as P1, P2, and P3, provide suitable environments for various biological experiments, ensuring the safety of experimenters, preventing the leakage of pathogens, and guaranteeing the accuracy and reliability of experimental results. As a professional manufacturer of purification equipment, Guangzhou Cleanroom Construction Co., Ltd. will take you on an in - depth exploration of the standards and requirements of these laboratories. P1 Laboratory 1. Protective Facilities   The layout of the laboratory is relatively simple. Generally, no special air - tight design is required. Conventional building materials can be used for the walls, floors, and ceilings. However, the surfaces need to be smooth and easy to clean. A combination of ceramic tiles, latex - painted walls, and terrazzo floors is often chosen, which can effectively prevent dust accumulation and facilitate daily cleaning. The laboratory is equipped with basic protective equipment, such as lab coats, gloves, and goggles, to protect experimenters from potential harm caused by regular chemical reagents and biological samples. 2. Operational Specifications   It is mainly used to study microorganisms that are known not to pose a threat to healthy adults, such as some non - pathogenic Escherichia coli strains. Experimenters only need to follow basic laboratory operating procedures, such as washing hands before and after operations and properly disposing of experimental waste, to ensure safety. During the experiment, there is no strict requirement for isolation measures in sample handling, instrument operation, and other links. Personnel can enter and exit the laboratory freely. However, it is still recommended to keep the laboratory relatively clean and avoid piling up unnecessary items. 3. Ventilation System   General ventilation equipment is used to ensure continuous air renewal in the laboratory. The air change rate only needs to meet about [X] times per hour, effectively exhausting the small amount of odors and moisture generated during the experiment and maintaining fresh indoor air to create a comfortable working environment for experimenters. P2 Laboratory 1. Protective Facilities   Compared with the P1 laboratory, the protection requirements of the P2 laboratory are significantly increased. The building structure needs to have a certain degree of air - tightness. Color - coated steel plates are often used for the walls. Their air - tight performance can effectively block the entry of external polluted air. At the same time, the interior decoration materials should be corrosion - resistant and easy to clean to prevent the attachment and growth of microorganisms. The laboratory is equipped with a biosafety cabinet, which is one of the core protective devices. Different types can be selected according to experimental needs. For example, the Class II A2 biosafety cabinet is used to handle low - risk microbial samples. During operation, it can effectively isolate the samples from the external environment, and the air discharged is filtered through a high - efficiency filter to ensure the safety of operators and the environment. 2. Operational Specifications   It is used to study microorganisms with moderate potential hazards, such as influenza viruses. Experimenters must undergo professional training, be familiar with the characteristics and hazards of specific microorganisms, and strictly follow the standard operating procedures for experiments. Before entering the laboratory, protective equipment such as protective clothing, masks, and double - layer gloves must be worn. When leaving, they must be removed and disinfected according to the specified procedures to prevent pathogens from being carried out of the laboratory. In case of accidents such as sample leakage during the experiment, there are corresponding emergency plans for timely cleaning and disinfection. 3. Ventilation System   The ventilation system is more complex and crucial. In addition to ensuring a basic air change rate (more than [X] times per hour), it is also necessary to achieve directional air flow, that is, the air in the clean area flows towards the contaminated area to prevent the contaminated air from flowing back into the clean area. The air supply and exhaust ducts are made of high - quality galvanized steel plates or stainless - steel plates with a smooth inner wall to reduce air resistance and the risk of dust accumulation. At the same time, high - efficiency filters are equipped to purify the exhaust air. P3 Laboratory 1. Protective Facilities   The building structure is highly air - tight, like a tight "fortress". The walls, ceilings, and floors are all made of materials with excellent air - tight performance, such as a double - layer color - coated steel plate sandwich structure, filled with high - efficiency sound - insulating, heat - insulating, and air - tight materials in the middle to ensure foolproof airtightness. The laboratory entrance is equipped with a multi - level access control system. Only authorized personnel can enter with specific identification. Advanced positive - pressure protective clothing is provided to provide all - round protection for experimenters. When the protective clothing is damaged, an alarm can be issued in a timely manner to ensure the safety of personnel. 2. Operational Specifications   It is aimed at the research of highly pathogenic and high - risk microorganisms, such as the Ebola virus. Experimenters not only need to have profound professional knowledge but also need to undergo long - term and strict training and assessment to obtain corresponding qualifications. The entire experimental process strictly follows the BSL - 3 (Biosafety Level 3) standard. From sample reception, storage to experimental operation and waste disposal, each link has detailed operation guidelines and monitoring measures. The entire experiment process is video - recorded for tracing the root cause of problems. In case of an accident, the emergency response mechanism can be quickly activated to minimize risks. 3. Ventilation System   It can be regarded as a top - level configuration. The air change rate is as high as more than [X] times per hour. A fresh - air - only system is adopted to ensure that the air entering the room is completely pollution - free. The air supply and exhaust system has a redundant design, that is, there are standby units to prevent ventilation interruption caused by the failure of the main equipment. At the same time, the exhaust air is double - filtered by high - efficiency filters and even treated by high - temperature disinfection to completely eliminate the risk of pathogen transmission. Conclusion   P1, P2, and P3 laboratories each have clear standards and strict requirements, suitable for biological experiments with different risk levels. With professional technology and rich experience, Guangzhou Cleanroom Construction Co., Ltd. can provide high - quality purification equipment and complete solutions for the construction of various laboratories, helping scientific research and epidemic prevention to move forward steadily. If you have relevant needs, please feel free to contact us.