Length collector cable | 15 m |
Number of wires | 6 |
Cable sheath material | PUR |
Passive distributors
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Length collector cable | 10 m |
Number of wires | 10 |
Cable sheath material | PUR |
Length collector cable | 15 m |
Number of wires | 10 |
Cable sheath material | PUR |
Length collector cable | 5 m |
Number of wires | 10 |
Cable sheath material | PUR |
Length collector cable | 3 m |
Number of wires | 11 |
Cable sheath material | PUR |
Length collector cable | 10 m |
Number of wires | 11 |
Cable sheath material | PUR |
Length collector cable | 3 m |
Number of wires | 8 |
Cable sheath material | PUR |
Length collector cable | 3 m |
Number of wires | 8 |
Cable sheath material | PUR |
Length collector cable | 10 m |
Number of wires | 12 |
Cable sheath material | PUR |
Length collector cable | 10 m |
Number of wires | 12 |
Cable sheath material | PUR |
Length collector cable | 15 m |
Number of wires | 8 |
Cable sheath material | PUR |
Length collector cable | 5 m |
Number of wires | 22 |
Cable sheath material | PUR |
Length collector cable | 3 m |
Number of wires | 14 |
Cable sheath material | PUR |
Length collector cable | 5 m |
Number of wires | 14 |
Cable sheath material | PUR |
Length collector cable | 10 m |
Number of wires | 14 |
Cable sheath material | PUR |
Length collector cable | 3 m |
Number of wires | 10 |
Cable sheath material | PUR |
Length collector cable | 3 m |
Number of wires | 10 |
Cable sheath material | PUR |
Length collector cable | 10 m |
Number of wires | 10 |
Cable sheath material | PUR |
Length collector cable | 5 m |
Number of wires | 19 |
Cable sheath material | PUR |
Length collector cable | 5 m |
Number of wires | 11 |
Cable sheath material | PUR |
Passive distributor, among others also called sensor/actuator distributor boxes, bundle several signal lines which are output via the collective cable. These distributor boxes are placed close to the process, i.e. close to the machine. The cabling effort is reduced, since the individual cables do not have to be routed to the corresponding components, e.g. in the control cabinet or to the measuring unit.
What are passive distributors and what are they used for?
Passive splitters are electronic components that are used to split an input signal into several output signals. They have no active amplification elements and therefore operate without a power supply. Passive distributors are used in various applications to distribute the input signal to several devices or components.
A common application for passive distributors is audio technology. For example, they can be used to distribute the audio signal from a music source to several speakers or headphones. In this case, the input signal is distributed to several outputs to enable multi-channel audio output.
Passive distributors are also used in video and image technology. They can be used, for example, to distribute the video signal from a source such as a DVD player to several televisions or monitors. This allows several displays to show the same image.
In addition, passive distributors are used in data communication to distribute a network or Internet signal to several devices. This allows several devices to access the network at the same time.
Overall, passive distributors are used to distribute an input signal to several outputs and thus improve the connectivity and functionality of electronic systems.
A common application for passive distributors is audio technology. For example, they can be used to distribute the audio signal from a music source to several speakers or headphones. In this case, the input signal is distributed to several outputs to enable multi-channel audio output.
Passive distributors are also used in video and image technology. They can be used, for example, to distribute the video signal from a source such as a DVD player to several televisions or monitors. This allows several displays to show the same image.
In addition, passive distributors are used in data communication to distribute a network or Internet signal to several devices. This allows several devices to access the network at the same time.
Overall, passive distributors are used to distribute an input signal to several outputs and thus improve the connectivity and functionality of electronic systems.
What types of passive distributors are there and how do they work?
There are different types of passive distributors that are used depending on the application and transmission technology. Here are some examples:
1. Passive optical network distributors (PON): These distributors are used in fiber optic networks to distribute the optical signals from a central unit to several end points. They consist of fiber splitters that divide the light in different directions in order to connect several subscribers.
2. Passive coaxial distributors: These distributors are used in cable television networks to distribute the signal from a single source to multiple television sets. You use passive T-pieces or distributors to split the signal.
3. Passive Ethernet distributors: These distributors are used in local area networks (LANs) to distribute the Ethernet signal from a switch to several devices. You use passive splitters or distributors to split the signal.
The functionality of these passive distributors is based on the principle of signal splitting. The input signal is routed via the distributor and split to serve several outputs. The signal is split in such a way that the output signals have a reduced power compared to the input signal. The exact mode of operation and power attenuation depend on the type of distributor.
1. Passive optical network distributors (PON): These distributors are used in fiber optic networks to distribute the optical signals from a central unit to several end points. They consist of fiber splitters that divide the light in different directions in order to connect several subscribers.
2. Passive coaxial distributors: These distributors are used in cable television networks to distribute the signal from a single source to multiple television sets. You use passive T-pieces or distributors to split the signal.
3. Passive Ethernet distributors: These distributors are used in local area networks (LANs) to distribute the Ethernet signal from a switch to several devices. You use passive splitters or distributors to split the signal.
The functionality of these passive distributors is based on the principle of signal splitting. The input signal is routed via the distributor and split to serve several outputs. The signal is split in such a way that the output signals have a reduced power compared to the input signal. The exact mode of operation and power attenuation depend on the type of distributor.
What are the advantages of using passive distributors in electrical engineering?
The use of passive distributors in electrical engineering offers various advantages:
1. Space saving: Passive distributors enable compact and space-saving installation of electrical components and cables.
2. Simplified cabling: With passive distributors, several cable connections can be brought together at a central point. This simplifies cabling and reduces the number of cables required.
3. Flexibility: By using passive distributors, electrical components and cables can be flexibly connected to each other. This makes it easy to adapt or expand the system.
4. Reduced risk of cable breakage: The use of passive distributors protects cable connections and reduces the risk of cable breaks. This increases the reliability and service life of the system.
5. Simple troubleshooting: In the event of problems or malfunctions in the system, passive distributors can make troubleshooting easier, as they provide a clear structure and better accessibility to the components.
6. Cost savings: By using passive distributors, the costs for cables and cabling materials can be reduced. They can also lead to more efficient use of existing electrical resources.
Overall, passive distributors offer a number of advantages in electrical engineering that can lead to a more efficient and reliable power supply.
1. Space saving: Passive distributors enable compact and space-saving installation of electrical components and cables.
2. Simplified cabling: With passive distributors, several cable connections can be brought together at a central point. This simplifies cabling and reduces the number of cables required.
3. Flexibility: By using passive distributors, electrical components and cables can be flexibly connected to each other. This makes it easy to adapt or expand the system.
4. Reduced risk of cable breakage: The use of passive distributors protects cable connections and reduces the risk of cable breaks. This increases the reliability and service life of the system.
5. Simple troubleshooting: In the event of problems or malfunctions in the system, passive distributors can make troubleshooting easier, as they provide a clear structure and better accessibility to the components.
6. Cost savings: By using passive distributors, the costs for cables and cabling materials can be reduced. They can also lead to more efficient use of existing electrical resources.
Overall, passive distributors offer a number of advantages in electrical engineering that can lead to a more efficient and reliable power supply.
How are passive distributors used in different industries, such as telecommunications or building technology?
Passive distributors are used in various industries to enable the distribution of signals or energy. Here are some examples of the use of passive distributors in telecommunications and building technology:
Telecommunications:
1. Fiber optic distributor: In telecommunications, passive distributors are used to connect fiber optic cables and distribute the light signal to different outputs. These distributors enable the distribution of high-speed Internet, telephony and television services.
2. Copper distributor: In conventional copper networks, passive distributors are used to route the signal from a central telecommunications exchange to various end users. These distributors are usually installed in cable distributors or switch boxes.
Building technology:
1. Power distribution: Passive distribution boards are used in buildings to conduct electrical energy from the main distribution board to the individual consumers. These distributors allow power to be distributed to different circuits and ensure a reliable power supply in different areas of the building.
2. Data distribution: In modern buildings, passive distributors are used to connect data and communication cables and distribute the signal to different rooms or floors. These distributors enable the networking of computers, telephones and other devices within the building.
There are many other applications for passive distributors in various industries, as they provide an efficient and cost-effective way to distribute signals or power.
Telecommunications:
1. Fiber optic distributor: In telecommunications, passive distributors are used to connect fiber optic cables and distribute the light signal to different outputs. These distributors enable the distribution of high-speed Internet, telephony and television services.
2. Copper distributor: In conventional copper networks, passive distributors are used to route the signal from a central telecommunications exchange to various end users. These distributors are usually installed in cable distributors or switch boxes.
Building technology:
1. Power distribution: Passive distribution boards are used in buildings to conduct electrical energy from the main distribution board to the individual consumers. These distributors allow power to be distributed to different circuits and ensure a reliable power supply in different areas of the building.
2. Data distribution: In modern buildings, passive distributors are used to connect data and communication cables and distribute the signal to different rooms or floors. These distributors enable the networking of computers, telephones and other devices within the building.
There are many other applications for passive distributors in various industries, as they provide an efficient and cost-effective way to distribute signals or power.
What factors should be considered when selecting and installing passive distributors?
The following factors should be taken into account when selecting and installing passive distributors:
1. requirements of the network: It is important to consider the requirements of the network, such as the maximum number of signals to be distributed, the maximum distance between the distributors and the connected devices and the type of signals to be distributed (e.g. Ethernet, video, audio).
2. Compatibility: The distributors must be compatible with the connected devices. This includes checking the supported signal types, transmission speeds and connector types.
3. Quality: It is important to use high-quality distributors to ensure reliable and interference-free signal transmission. This includes checking the shielding, signal integrity and material quality of the distributors.
4. Installation: The installation of the distributors should be simple and user-friendly. This includes checking the mounting options (e.g. rack mounting, wall mounting), the connection options (e.g. screw terminals, connectors) and the size of the distributors.
5. Expandability: It is important to select distributors that allow for future expansion of the network. This includes checking the scalability of the distributors and the possibility of adding additional distributors.
6. Costs: The costs for the distributors should also be taken into account. It is important to find a balance between quality and price in order to meet the network's requirements while staying within budget.
1. requirements of the network: It is important to consider the requirements of the network, such as the maximum number of signals to be distributed, the maximum distance between the distributors and the connected devices and the type of signals to be distributed (e.g. Ethernet, video, audio).
2. Compatibility: The distributors must be compatible with the connected devices. This includes checking the supported signal types, transmission speeds and connector types.
3. Quality: It is important to use high-quality distributors to ensure reliable and interference-free signal transmission. This includes checking the shielding, signal integrity and material quality of the distributors.
4. Installation: The installation of the distributors should be simple and user-friendly. This includes checking the mounting options (e.g. rack mounting, wall mounting), the connection options (e.g. screw terminals, connectors) and the size of the distributors.
5. Expandability: It is important to select distributors that allow for future expansion of the network. This includes checking the scalability of the distributors and the possibility of adding additional distributors.
6. Costs: The costs for the distributors should also be taken into account. It is important to find a balance between quality and price in order to meet the network's requirements while staying within budget.
What are the trends in the development of passive distributors and how do they influence the industry?
There are several trends in the development of passive distributors that are influencing the industry:
1. Miniaturization: Passive distributors are becoming smaller and more compact in order to save space in control panels and housings. This enables a higher packing density and flexibility in the placement of components.
2. Higher frequencies: With the advent of 5G and other high-frequency applications, the demand for passive distributors capable of handling higher frequencies is increasing. This requires improved performance and reduced damping.
3. Broadband: Passive distributors must now cover a wider bandwidth in order to meet the requirements of multiband communication systems. This requires an optimized design and choice of materials to ensure uniform signal transmission over a wide frequency range.
4. Higher performance: The increasing demand for faster data transmission and higher data capacity requires passive distributors with higher performance. This means lower losses, higher insertion loss and improved insulation properties.
5. Automation: The industry is increasingly investing in the automation of manufacturing processes for passive distributors in order to increase productivity and reduce costs. This leads to a faster market launch of new products and improved quality assurance.
These trends have a significant impact on the industry as they increase the requirements for passive distributors. Manufacturers must invest in innovative technologies in order to meet these requirements and remain competitive. At the same time, these trends also offer new opportunities for companies that are able to offer innovative solutions that meet the increasing requirements.
1. Miniaturization: Passive distributors are becoming smaller and more compact in order to save space in control panels and housings. This enables a higher packing density and flexibility in the placement of components.
2. Higher frequencies: With the advent of 5G and other high-frequency applications, the demand for passive distributors capable of handling higher frequencies is increasing. This requires improved performance and reduced damping.
3. Broadband: Passive distributors must now cover a wider bandwidth in order to meet the requirements of multiband communication systems. This requires an optimized design and choice of materials to ensure uniform signal transmission over a wide frequency range.
4. Higher performance: The increasing demand for faster data transmission and higher data capacity requires passive distributors with higher performance. This means lower losses, higher insertion loss and improved insulation properties.
5. Automation: The industry is increasingly investing in the automation of manufacturing processes for passive distributors in order to increase productivity and reduce costs. This leads to a faster market launch of new products and improved quality assurance.
These trends have a significant impact on the industry as they increase the requirements for passive distributors. Manufacturers must invest in innovative technologies in order to meet these requirements and remain competitive. At the same time, these trends also offer new opportunities for companies that are able to offer innovative solutions that meet the increasing requirements.
Which manufacturers are leading the market for passive distributors and what products do they offer?
There are various manufacturers who are leaders in the market for passive distributors. Some of them are:
1. Corning: Corning offers a wide range of passive distributors, such as fiber splice cassettes, fiber splice distributors and fiber splice panels.
2. CommScope: CommScope manufactures various passive distribution products, including fiber patch panels, fiber distribution cassettes and fiber distribution enclosures.
3. Panduit: Panduit offers a variety of passive distribution boxes, including fiber distribution enclosures, fiber distribution cassettes and fiber patch panels.
4. Leviton: Leviton manufactures passive distribution products such as fiber distribution cassettes, fiber distribution enclosures and fiber splice panels.
5. TE Connectivity: TE Connectivity offers a wide range of passive distribution products, including fiber patch panels, fiber distribution cassettes and fiber distribution enclosures.
These manufacturers are leaders in the market for passive distributors and offer a wide range of products to meet the needs of customers.
1. Corning: Corning offers a wide range of passive distributors, such as fiber splice cassettes, fiber splice distributors and fiber splice panels.
2. CommScope: CommScope manufactures various passive distribution products, including fiber patch panels, fiber distribution cassettes and fiber distribution enclosures.
3. Panduit: Panduit offers a variety of passive distribution boxes, including fiber distribution enclosures, fiber distribution cassettes and fiber patch panels.
4. Leviton: Leviton manufactures passive distribution products such as fiber distribution cassettes, fiber distribution enclosures and fiber splice panels.
5. TE Connectivity: TE Connectivity offers a wide range of passive distribution products, including fiber patch panels, fiber distribution cassettes and fiber distribution enclosures.
These manufacturers are leaders in the market for passive distributors and offer a wide range of products to meet the needs of customers.
What future developments can be expected with regard to passive distributors and how will they affect the industry?
With regard to passive distributors, several developments are expected in the future that will influence the industry:
1. Higher bandwidths: With the increasing spread of 5G and other high-speed networks, the demand for passive distributors with higher bandwidths will increase. This requires the development and implementation of distributors that can handle larger volumes of data.
2. Improved performance: Future passive distributors are expected to offer improved performance to meet increasing demands. This can include higher signal quality, lower attenuation or improved interference immunity.
3. More compact design: To save space and make installation easier, passive distributors will probably be more compact in future. This enables a more efficient use of space and resources.
4. Automated configuration and monitoring: With the advent of the Internet of Things (IoT) and artificial intelligence (AI), passive distributors are expected to become more intelligent in the future. They can be automatically configured and monitored to ensure efficient and error-free data transmission.
5. Sustainability: Future passive distributors are expected to be more environmentally friendly and use sustainable materials and technologies. This is part of the general trend towards reducing the ecological footprint and promoting a greener infrastructure.
These developments will have a significant impact on the passive distributor sector, as they meet the increasing demands for bandwidth, performance and efficiency. Companies that are able to offer innovative solutions that meet these future requirements are likely to have a competitive advantage. At the same time, the demand for specialists with the knowledge and skills to implement and maintain these new technologies will increase.
1. Higher bandwidths: With the increasing spread of 5G and other high-speed networks, the demand for passive distributors with higher bandwidths will increase. This requires the development and implementation of distributors that can handle larger volumes of data.
2. Improved performance: Future passive distributors are expected to offer improved performance to meet increasing demands. This can include higher signal quality, lower attenuation or improved interference immunity.
3. More compact design: To save space and make installation easier, passive distributors will probably be more compact in future. This enables a more efficient use of space and resources.
4. Automated configuration and monitoring: With the advent of the Internet of Things (IoT) and artificial intelligence (AI), passive distributors are expected to become more intelligent in the future. They can be automatically configured and monitored to ensure efficient and error-free data transmission.
5. Sustainability: Future passive distributors are expected to be more environmentally friendly and use sustainable materials and technologies. This is part of the general trend towards reducing the ecological footprint and promoting a greener infrastructure.
These developments will have a significant impact on the passive distributor sector, as they meet the increasing demands for bandwidth, performance and efficiency. Companies that are able to offer innovative solutions that meet these future requirements are likely to have a competitive advantage. At the same time, the demand for specialists with the knowledge and skills to implement and maintain these new technologies will increase.