Description du produit
Very good quality for your choice ! more details ,please contact us
Oil free / oil less dental Air compressor is mainly dental room, medical room etc
Caractéristiques
1. Both 100 % copper and aluminium coil wire are available.
2. Compact, light, east to carry. Suit for mobile,
3. Oil free oilless silent series, get 100% purity pressed air
technical data as follows:
| Modèle | Air delivery | Working pressure | Speed | Bruit | Pouvoir | Sortie | tank/L | dimension |
| (Nm3/min) | (Mpa) | (r.p.m) | (dB) | (kw) | (inch) | (L*W*H)CM | ||
| ZW-0.1/7 | 0.1 | 0.7 | 980 | ≤78 | 1.5(220v) | G1/4″ | 40 | 75*35*75 |
| ZW-0.24/7 | 0.24 | 0.7 | 950 | ≤81 | 2.2(380v) | G1/2″ | 80 | 114*40*90 |
| ZW-0.3/7 | 0.3 | 0.7 | 950 | ≤81 | 2.2(380v) | G1/2″ | 80 | 114*40*90 |
| VW-0.45/7 | 0.45 | 0.7 | 920 | ≤83 | 4(380v) | G1/2″ | 120 | 130*46*96 |
| VW-0.6/7 | 0.6 | 0.7 | 950 | ≤84 | 5.5(380v) | G1/2″ | 120 | 130*46*96 |
| VW-0.42/10 | 0.42 | 1.0 | 920 | ≤84 | 4(380v) | G1/2″ | 120 | 130*46*96 |
| VW-0.5/14 | 0.5 | 1.4 | 670 | ≤84 | 5.5(380v) | G1/2″ | 180 | 145*50*110 |
| WW-0.6/10 | 0.6 | 1.0 | 740 | ≤84 | 5.5(380v) | G1/2″ | 180 | 145*50*110 |
| WW-0.9/7 | 0.9 | 0.7 | 810 | ≤84 | 7.5(380v) | G1/2″ | 180 | 145*50*110 |
| WW-0.9/10 | 0.9 | 1.0 | 810 | ≤84 | 7.5(380v) | G1/2″ | 180 | 145*50*110 |
| WW-0.7/12.5 | 0.7 | 1.3 | 740 | ≤84 | 7.5(380v) | G1/2″ | 180 | 145*50*110 |
| WW-1.25/7 | 1..25 | 0.7 | 860 | ≤85 | 11(380v) | G3/4″ | 280 | 160*65*120 |
| WW-1.25/10 | 1.25 | 1.0 | 770 | ≤85 | 11(380v) | G3/4″ | 280 | 160*65*120 |
| WW-1.6/10 | 1.6 | 1.0 | 820 | ≤85 | 15(380v) | G3/4″ | 320 | 166*65*122 |
| WW-1.8/10 | 1.8 | 1.0 | 900 | ≤86 | 15(380v) | G3/4″ | 320 | 166*65*122 |
| WW-1.2/10 | 1.2 | 1.0 | 740 | ≤84 | 5.5*2(380v) | G1″ | 300 | 185*125*140 |
| WW-1.8/7 | 1.8 | 0.7 | 810 | ≤84 | 7.5*2(380v) | G1″ | 300 | 185*125*140 |
| WW-1.8/10 | 1.8 | 1.0 | 810 | ≤84 | 7.5*2(380v) | G1″ | 300 | 185*125*140 |
| WW-1.4/12.5 | 1.4 | 1.3 | 740 | ≤84 | 7.5*2(380v) | G1″ | 300 | 185*125*140 |
| WW-2.5/7 | 2.5 | 0.7 | 860 | ≤86 | 11*2(380v) | G1″ | 300 | 185*125*140 |
| WW-2.5/10 | 2.5 | 1.0 | 770 | ≤86 | 11*2(380v) | G1″ | 300 | 185*125*140 |
| WW-3.0/7 | 3 | 0.7 | 770 | ≤86 | 11*2(380v) | G1″ | 320 | 185*125*140 |
| WW-3.0/10 | 3 | 1.0 | 810 | ≤86 | 11*2(380v) | G1″ | 320 | 185*125*140 |
| WW-3.2/7 | 3.2 | 0.7 | 820 | ≤86 | 15*2(380v) | G1″ | 320 | 190*150*150 |
| WW-3.2/10 | 3.2 | 1.0 | 820 | ≤86 | 15*2(380v) | G1″ | 320 | 190*150*150 |
| WW.3.6/7 | 3.6 | 0.7 | 900 | ≤86 | 15*2(380v) | G1″ | 320 | 190*150*150 |
| WW-3.6/10 | 3.6 | 1.0 | 900 | ≤86 | 15*2(380v) | G1″ | 320 | 190*150*150 |
| WW.4.8/10 | 4.8 | 1.0 | 900 | ≤86 | 15*2(380v) 11*1(380v) | G11/2″ | / | 221*136*105 |
| WW-5.4/10 | 5.4 | 1.0 | 900 | ≤86 | 15kw*3 | G11/2″ | / | 221*136*100 |
| SW-6.5/8 | 6.5 | 0.8 | 640 | ≤86 | 55kw | DN50FL | / | 180*130*160 |
| Drive Mode: | Electric |
|---|---|
| Performance: | Faible bruit |
| Configuration: | Portable |
| Material: | Copper |
| Source d'alimentation : | Courant alternatif |
| Voltage: | 380V 50Hz;460V 60Hz;220 60Hz |
| Personnalisation : |
Disponible
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How are air compressors utilized in pharmaceutical manufacturing?
Air compressors play a crucial role in pharmaceutical manufacturing, where they are utilized for various critical applications. The pharmaceutical industry requires a reliable source of clean and compressed air to ensure the safety, efficiency, and quality of its processes. Here’s an overview of how air compressors are utilized in pharmaceutical manufacturing:
1. Manufacturing Processes:
Air compressors are used in numerous manufacturing processes within the pharmaceutical industry. Compressed air is employed for tasks such as mixing and blending of ingredients, granulation, tablet compression, coating, and encapsulation of pharmaceutical products. The controlled delivery of compressed air facilitates precise and consistent manufacturing processes, ensuring the production of high-quality pharmaceuticals.
2. Instrumentation and Control Systems:
Pharmaceutical manufacturing facilities rely on compressed air for powering instrumentation and control systems. Compressed air is used to operate pneumatic valves, actuators, and control devices that regulate the flow of fluids, control temperature and pressure, and automate various processes. The clean and dry nature of compressed air makes it ideal for maintaining the integrity and accuracy of these critical control mechanisms.
3. Packaging and Filling:
Air compressors are employed in pharmaceutical packaging and filling processes. Compressed air is used to power machinery and equipment for bottle cleaning, labeling, capping, and sealing of pharmaceutical products. Compressed air provides the necessary force and precision for efficient and reliable packaging, ensuring product safety and compliance.
4. Cleanroom Environments:
Pharmaceutical manufacturing often takes place in controlled cleanroom environments to prevent contamination and maintain product quality. Air compressors are used to supply clean and filtered compressed air to these cleanrooms, ensuring a controlled and sterile environment for the production of pharmaceuticals. Compressed air is also utilized in cleanroom air showers and air curtains for personnel and material decontamination.
5. Laboratory Applications:
In pharmaceutical laboratories, air compressors are utilized for various applications. Compressed air is used in laboratory instruments, such as gas chromatographs, mass spectrometers, and other analytical equipment. It is also employed in clean air cabinets, fume hoods, and laminar flow benches, providing a controlled and clean environment for testing, analysis, and research.
6. HVAC Systems:
Air compressors are involved in heating, ventilation, and air conditioning (HVAC) systems in pharmaceutical manufacturing facilities. Compressed air powers the operation of HVAC controls, dampers, actuators, and air handling units, ensuring proper air circulation, temperature control, and environmental conditions in various manufacturing areas.
By utilizing air compressors in pharmaceutical manufacturing, the industry can maintain strict quality standards, enhance operational efficiency, and ensure the safety and efficacy of pharmaceutical products.
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What are the environmental considerations when using air compressors?
When using air compressors, there are several environmental considerations to keep in mind. Here’s an in-depth look at some of the key factors:
Efficacité énergétique :
Energy efficiency is a crucial environmental consideration when using air compressors. Compressing air requires a significant amount of energy, and inefficient compressors can consume excessive power, leading to higher energy consumption and increased greenhouse gas emissions. It is important to choose energy-efficient air compressors that incorporate features such as Variable Speed Drive (VSD) technology and efficient motor design, as they can help minimize energy waste and reduce the carbon footprint.
Air Leakage:
Air leakage is a common issue in compressed air systems and can contribute to energy waste and environmental impact. Leaks in the system result in the continuous release of compressed air, requiring the compressor to work harder and consume more energy to maintain the desired pressure. Regular inspection and maintenance of the compressed air system to detect and repair leaks can help reduce air loss and improve overall energy efficiency.
Noise Pollution:
Air compressors can generate significant noise levels during operation, which can contribute to noise pollution. Prolonged exposure to high noise levels can have detrimental effects on human health and well-being and can also impact the surrounding environment and wildlife. It is important to consider noise reduction measures such as sound insulation, proper equipment placement, and using quieter compressor models to mitigate the impact of noise pollution.
Emissions:
While air compressors do not directly emit pollutants, the electricity or fuel used to power them can have an environmental impact. If the electricity is generated from fossil fuels, the associated emissions from power plants contribute to air pollution and greenhouse gas emissions. Choosing energy sources with lower emissions, such as renewable energy, can help reduce the environmental impact of operating air compressors.
Proper Waste Management:
Proper waste management is essential when using air compressors. This includes the appropriate disposal of compressor lubricants, filters, and other maintenance-related materials. It is important to follow local regulations and guidelines for waste disposal to prevent contamination of soil, water, or air and minimize the environmental impact.
Sustainable Practices:
Adopting sustainable practices can further reduce the environmental impact of using air compressors. This can include implementing preventive maintenance programs to optimize performance, reducing idle time, and promoting responsible use of compressed air by avoiding overpressurization and optimizing system design.
By considering these environmental factors and taking appropriate measures, it is possible to minimize the environmental impact associated with the use of air compressors. Choosing energy-efficient models, addressing air leaks, managing waste properly, and adopting sustainable practices can contribute to a more environmentally friendly operation.
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Comment mesure-t-on la pression de l'air dans les compresseurs d'air ?
La pression de l'air dans les compresseurs est généralement mesurée en utilisant l'une des deux unités courantes suivantes : la livre par pouce carré (PSI) ou le bar. Voici une brève explication de la façon dont la pression de l'air est mesurée dans les compresseurs :
1. Livres par pouce carré (PSI) : Le PSI est l'unité de mesure de pression la plus couramment utilisée pour les compresseurs d'air, notamment en Amérique du Nord. Il représente la force exercée par une livre-force sur une surface d'un pouce carré. Les manomètres des compresseurs d'air affichent généralement la pression en PSI, ce qui permet aux utilisateurs de la contrôler et de l'ajuster en conséquence.
2. Bar: Le bar est une autre unité de pression couramment utilisée pour les compresseurs d'air, notamment en Europe et dans de nombreuses autres régions du monde. C'est une unité de pression du système métrique équivalente à 100 000 pascals (Pa). Certains compresseurs d'air sont équipés de manomètres affichant la pression en bars, offrant ainsi une option de mesure alternative aux utilisateurs de ces régions.
Pour mesurer la pression d'air dans un compresseur, un manomètre est généralement installé sur la sortie du compresseur ou sur le réservoir. Ce manomètre est conçu pour mesurer la force exercée par l'air comprimé et afficher la valeur dans l'unité spécifiée, par exemple en PSI ou en bar.
Il est important de noter que la pression d'air indiquée sur le manomètre correspond à la pression en un point précis du système du compresseur, généralement à la sortie ou au niveau du réservoir. La pression réelle au point d'utilisation peut varier en raison de facteurs tels que la chute de pression dans les conduites d'air ou les restrictions dues aux raccords et aux outils.
Lors de l'utilisation d'un compresseur d'air, il est essentiel de régler la pression au niveau approprié à l'application prévue. Les exigences de pression varient selon les outils et équipements, et un dépassement de la pression recommandée peut entraîner des dommages ou un fonctionnement dangereux. La plupart des compresseurs d'air permettent à l'utilisateur de régler la pression de sortie à l'aide d'un régulateur ou d'un système de contrôle similaire.
Un contrôle régulier de la pression d'air dans un compresseur est essentiel pour garantir des performances optimales, une efficacité maximale et un fonctionnement sûr. En comprenant les unités de mesure et en utilisant correctement les manomètres, les utilisateurs peuvent maintenir les niveaux de pression d'air souhaités dans leurs systèmes de compresseurs.
editor by CX 2023-09-30
