Pneumatic Components
part#
description
manufacturer
165356
Light guide SOEZ-LLG-RT-0,5-M6 Measurement method: (* Fibre optics, * Diffuse reflection sensor), Ambient temperature: -20 - 160 °C, Size: M6, Product weight: 34 g, Material housing: (* Brass, * Chromed-plated)
customer-12
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173035
solenoid valve JMEBH-5/2-5,0-B With solenoid coils and manual override, without plug sockets. Valve function: 5/2 bistable, Type of actuation: electrical, Width: 17,8 mm, Standard nominal flow rate: 700 l/min, Operating pressure: 1,5 - 8 bar
customer-12
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537716
retro-reflective sensor SOEG-RSP-M18W-NS-S-2L With polarised light, round design, with 90° angled beam Design: Round, Conforms to standard: EN 60947-5-2, Authorisation: (* RCM Mark, * c UL us - Listed (OL)), CE mark (see declaration of conformity): to EU
customer-12
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540324
fieldbus adapter FBA-CO-SUB-9-M12 For connection to CANopen or Device Net. Protocol: (* CANopen, * DeviceNet), Electrical connection 1, function: Field device side, Electrical connection 1, design: Angular, Electrical connection 1, connection type: Plug s
customer-12
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540808
solenoid valve JMDDH-5/2-D-1-M12D-C With M12 plug connection. Valve function: 5/2 bistable-dominant, Type of actuation: electrical, Width: 42 mm, Standard nominal flow rate: 1200 l/min, Operating pressure: 2 - 10 bar
customer-12
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540817
solenoid valve JMDDH-5/2-D-2-M12D-C With M12 plug connection. Valve function: 5/2 bistable-dominant, Type of actuation: electrical, Width: 54 mm, Standard nominal flow rate: 2300 l/min, Operating pressure: 2 - 10 bar
customer-12
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173428
solenoid valve MOEH-3/2-1/8-B With solenoid coil and manual override, without plug socket. Valve function: 3/2 open, monostable, Type of actuation: electrical, Width: 17,8 mm, Standard nominal flow rate: 500 l/min, Operating pressure: 2 - 8 bar
customer-12
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544395
retainer CPE14-H5-SET for a valve, comprising: holder, seals and screws. Corrosion resistance classification CRC: 2 - Moderate corrosion stress, Max. tightening torque: 1,2 Nm, Product weight: 28 g, Mounting type: Threaded, Materials note: Conforms to RoH
customer-12
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184135
front panel valve SV/O-3-PK-3X2 Valve function: 2x3/2 closed, monostable, Standard nominal flow rate: 70 l/min, Operating pressure: 0 - 8 bar, Type of reset: mechanical spring, Nominal size: 2,5 mm
customer-12
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545997
vacuum security valve ISV-M6 For maintenance of vacuum if one or more suction cups within a group fail to make contact with the workpiece. Size: M6, Ejector pulse suitability: <: 8 bar, Assembly position: Any, Operating pressure: -0,95 - 0 bar, Required
customer-12
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177674
plug socket with cable KMPV-SUB-D-15-10 Mounting type: with through hole, Assembly position: Any, Product weight: 400 g, Electrical connection: (* 15-pin, * Plug socket, * Sub-D), Operating voltage range DC: <: 30 V
customer-12
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536192
solenoid valve MOFH-3-3/4-EX With manual override, without solenoid coil or socket. Solenoid coil and socket should be ordered separately. Valve function: 3/2 open, monostable, Type of actuation: electrical, Width: 68 mm, Standard nominal flow rate: 7500
customer-12
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184585
manual override HAB-1/8 For exhaust air. Nominal size: 4,1 mm, Assembly position: Any, Valve function: exhaust component, Operating pressure: 0 - 10 bar, Standard nominal flow rate, exhaust: 165 l/min
customer-12
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542125
AS-i module ASI-4DI3DO-M12X2-5POL-Z enables the connection of 4 sensors and 3 actuators, with M12 connection technology. Authorisation: c UL us - Listed (OL), CE mark (see declaration of conformity): (* to EU directive for EMC, * to EU directive explosion
customer-12
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542025
precision flow control valve GRPO-160-1/8-AL is used for precise adjustment of flow rate. Valve function: Throttle function, Pneumatic connection, port 1: G1/8, Pneumatic connection, port 2: G1/8, Type of actuation: manual, Adjusting element: Rotary kno
customer-12
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547906
diffuse sensor SOEG-RT-M12-NS-K-2L Round design Design: Round, Conforms to standard: EN 60947-5-2, Authorisation: (* RCM Mark, * c UL us - Listed (OL)), CE mark (see declaration of conformity): to EU directive for EMC, Materials note: (* Free of copper an
customer-12
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549430
gear unit EMGA-60-P-G3-SST-57 Suitable for stepper motors. Gear unit flange size: 60 mm, Motor flange size: 57 mm, Torsional backlash: 0,17 deg, Type of gear unit: Planetary gear unit, Gear unit ratio: 3:1
customer-12
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191405
end plate kit NEV-02-01-VDMA For manifold combination including sizes 01 and 02, with VDMA valves. Operating medium: Compressed air in accordance with ISO8573-1:2010 [7:4:4], Note on operating and pilot medium: Lubricated operation possible (subsequently
customer-12
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550165
basic valve CPE18-P1-3OL-1/4 Very compact assembly, with CNOMO interface. Valve function: 3/2 open, monostable, Type of actuation: Via pilot interface to ISO 15218, Width: 18 mm, Standard nominal flow rate: 1700 l/min, Operating pressure: 2,5 - 10 bar
customer-12
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191206
angle compensator ESWA-4 with ball joint, angle of rotation 15°. Angle compensation +/-: 15 deg, Assembly position: Any, Design structure: Ball joint, Correlation to suction-cup holder: Size 4, Operating pressure: -0,95 - 4 bar
customer-12
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Pneumatic Components
General Guide & Overview
Pneumatic components are essential parts of a pneumatic system that utilizes compressed air to control movements and perform various tasks in industries such as manufacturing, construction, and automation. These components are designed to optimize automation and control and are favored by many industries for their cost-effectiveness and reliability.
Industrial pneumatic systems typically consist of a compressor, receiver, valves, and actuators. The compressor converts the air into compressed air, which is then stored in a receiver. Valves control the direction and flow of the air, while actuators are responsible for the required movement of the system.
Additionally, air preparation components such as filters, regulators, and lubricators play a crucial role in maintaining the performance and longevity of the pneumatic system.
Understanding the functions and applications of pneumatic components is key to harnessing the power of pneumatic systems effectively. In this guide, we will explore the various components of a pneumatic system and their functions, providing you with a comprehensive overview.
Advantages and Limitations of Pneumatic Systems
Pneumatic systems offer several advantages that make them popular in various industries. These include simplicity of design and control, reliability, and safety.
One of the key advantages of pneumatic systems is their simplicity. They can be easily designed and operated using standard components, making them cost-effective and efficient. This makes them a popular choice for industries that require automated processes.
Pneumatic systems are also known for their reliability. They can continue to function even if there is a loss of electrical power, ensuring uninterrupted operation. This is especially important in critical applications, where downtime can be costly and disruptive.
Additionally, pneumatic systems are considered safe to use. They are less prone to shock damage compared to hydraulic systems, reducing the risk of accidents. They also have a low risk of fire, making them suitable for applications where fire hazards are a concern.
However, it's significant to note that pneumatic systems also have limitations that need to be taken into account. One limitation is that they are prone to leakage. Air can escape from the system, leading to a decrease in performance and efficiency. Regular maintenance checks are necessary to detect and address any leakage issues in order to prevent potential problems.
Pneumatic systems also require maintenance and repairs to ensure their optimal functioning. Before any repairs, the system needs to be depressurized correctly to avoid accidents. Temperature and vibration changes can affect the performance of pneumatic systems, so it's important to consider these factors and take appropriate measures.
Components and Design of a Pneumatic System
A pneumatic system is composed of several essential components that work together to optimize its performance. The key components of a pneumatic system include an air compressor that converts the air into compressed air, an air tank that stores the compressed air, and an air filter that removes contaminants from the air before it enters the system.
To ensure stable and controlled operation, a regulator is used to adjust and maintain the desired pressure of the air within the system. Additionally, a lubricator is employed to provide lubrication, reducing friction and wear on the components, thus prolonging their lifespan.
The control valve is responsible for controlling the flow of air within the system, allowing for precision and flexibility in the movement of the actuators. These actuators, which can be in the form of cylinders or motors, convert the compressed air into mechanical movement, enabling the system to perform the desired tasks.
In designing a pneumatic system, careful consideration must be given to the arrangement and placement of these components. Proper positioning ensures an efficient and logical flow of air, reducing energy loss and optimizing performance. By strategically positioning the components, operators can achieve smooth operation and enhance the system's overall effectiveness.
FAQ
What are pneumatic components?
Pneumatic components are essential parts of a pneumatic system that utilize compressed air to control movements and perform various tasks in industries such as manufacturing, construction, and automation.
What are the main components of a pneumatic system?
The main components of a pneumatic system include an air compressor, an air tank, an air filter, a regulator, a lubricator, control valves, and actuators.
What are the advantages of pneumatic systems?
Pneumatic systems offer advantages such as simplicity of design and control, reliability, and safety. They are easy to design and operate, even without electrical power, and are less prone to shock damage and fire.
What are the limitations of pneumatic systems?
Pneumatic systems can be prone to leakage and require regular maintenance checks. The system needs to be depressurized correctly before repairs, and temperature and vibration changes can affect its performance.