• Sensors (Technology)
    • Sensors
    • Open Product Configurator
    • Climate / Environment
    • Current
    • Electrochemical sensors
    • Expansion
    • Filling level
    • Flow
    • Force
    • Gas sensors / Gas transmitters
    • Identification systems
    • Optical sensors / Light barriers
    • Path / Distance / Position
    • Pressure
    • Rotary encoders / Rotary rate encoders / Angles
    • Safety / Protective devices
    • Sound / Structure-borne sound
    • Speed / Torque
    • Temperature / Humidity
    • Vibration / Acceleration
    • More sensor types ...
    • Measurement / Test Systems
    • Open Product Configurator
    • Climate / Environment
    • Flow
    • Gases
    • Industrial communication
    • Laboratory measuring instruments / Test equipment / Scales
    • Measurement data acquisition
    • Measuring amplifiers / Measuring transducers
    • Optical / Acoustic measuring instruments
    • Path / Distance / Position
    • Pressure
    • Sound / Structure-borne sound
    • Speed / Torque
    • Temperature / Humidity
    • Vibration / Acceleration
    • Other sensor types from A...Z
    • Automation technology
    • Open Product Configurator
    • Conveying technology
    • Drive technology
    • Gases
    • Housings / Switch cabinets
    • Hydraulics / pneumatics
    • Identification systems
    • Industrial communication
    • Industrial image processing
    • Industrial lights
    • Industrial PCs / industrial monitors
    • Optical sensors / Light barriers
    • Path / Distance / Position
    • Power supplies
    • Pressure
    • Pumps
    • Regulators, controllers, control devices
    • RFID
    • Safety / Protective devices
    • Services
    • Switches / Relays / Connectors / Cables
    • Other sensor types from A...Z
  • Sensor applications
    • Laboratory, Medical Technology & Pharma
    • Open Product Configurator
    • Hospital engineering
    • Medical devices
    • Imaging diagnostics
    • Medical informatics
    • Pharmaceutical industry & Pharmaceutical products
    • Laboratory technology
    • Chemistry & Raw materials
    • Open Product Configurator
    • Chemical industry
    • Fossil raw materials
    • Glass, Ceramics & Plastics Industry
    • Mineral raw materials & Mining
    • Mineral Oil & Refining
    • Paper industry & Pulp industry
    • Transport & Logistics
    • Open Product Configurator
    • Railways & Rail Transport
    • Vehicles & Road Traffic
    • Aerospace & Aviation
    • Public transport
    • Shipping
    • Building technology
    • Open Product Configurator
    • Elevator
    • Lighting control / management
    • Heating/ Air conditioning/ Ventilation
    • Electricity
    • Safety engineering
    • Construction
    • Agricultural technology
    • Open Product Configurator
    • Fisheries & Aquaculture
    • Forestry
    • Smart technology
    • Open Product Configurator
    • Smart City
    • Smart Factory
    • Smart Farming
    • Smart Home
    • Internet of Things / IOT
    • Intelligent mine monitoring
    • Industry & Electronics
    • Open Product Configurator
    • Electrical industry
    • Precision mechanics & Optics
    • Automotive
    • Aircraft & Spacecraft construction
    • Mechanical engineering & Plant construction
    • Metal industry
    • Rail vehicle construction
    • Shipbuilding
    • PC, Tablet, Mobile & Wearable
    • Semiconductor industry
    • Textile industry
    • Packaging industry
    • Energy & Environment
    • Open Product Configurator
    • Waste management
    • Emissions
    • Energy
    • Environmental monitoring / Environmental observation
    • Environmental & Energy technology
    • Infrastructure
    • Open Product Configurator
    • Bridge monitoring
  • Suppliers
  • News
languages:
  • Sensors (Technology)
    • Sensors
    • Open Product Configurator
    • Climate / Environment
    • Current
    • Electrochemical sensors
    • Expansion
    • Filling level
    • Flow
    • Force
    • Gas sensors / Gas transmitters
    • Identification systems
    • Optical sensors / Light barriers
    • Path / Distance / Position
    • Pressure
    • Rotary encoders / Rotary rate encoders / Angles
    • Safety / Protective devices
    • Sound / Structure-borne sound
    • Speed / Torque
    • Temperature / Humidity
    • Vibration / Acceleration
    • More sensor types ...
    • Measurement / Test Systems
    • Open Product Configurator
    • Climate / Environment
    • Flow
    • Gases
    • Industrial communication
    • Laboratory measuring instruments / Test equipment / Scales
    • Measurement data acquisition
    • Measuring amplifiers / Measuring transducers
    • Optical / Acoustic measuring instruments
    • Path / Distance / Position
    • Pressure
    • Sound / Structure-borne sound
    • Speed / Torque
    • Temperature / Humidity
    • Vibration / Acceleration
    • Other sensor types from A...Z
    • Automation technology
    • Open Product Configurator
    • Conveying technology
    • Drive technology
    • Gases
    • Housings / Switch cabinets
    • Hydraulics / pneumatics
    • Identification systems
    • Industrial communication
    • Industrial image processing
    • Industrial lights
    • Industrial PCs / industrial monitors
    • Optical sensors / Light barriers
    • Path / Distance / Position
    • Power supplies
    • Pressure
    • Pumps
    • Regulators, controllers, control devices
    • RFID
    • Safety / Protective devices
    • Services
    • Switches / Relays / Connectors / Cables
    • Other sensor types from A...Z
  • Sensor applications
    • Laboratory, Medical Technology & Pharma
    • Hospital engineering
    • Medical devices
    • Imaging diagnostics
    • Medical informatics
    • Pharmaceutical industry & Pharmaceutical products
    • Laboratory technology
    • Chemistry & Raw materials
    • Chemical industry
    • Fossil raw materials
    • Glass, Ceramics & Plastics Industry
    • Mineral raw materials & Mining
    • Mineral Oil & Refining
    • Paper industry & Pulp industry
    • Transport & Logistics
    • Railways & Rail Transport
    • Vehicles & Road Traffic
    • Aerospace & Aviation
    • Public transport
    • Shipping
    • Building technology
    • Elevator
    • Lighting control / management
    • Heating/ Air conditioning/ Ventilation
    • Electricity
    • Safety engineering
    • Construction
    • Agricultural technology
    • Fisheries & Aquaculture
    • Forestry
    • Smart technology
    • Smart City
    • Smart Factory
    • Smart Farming
    • Smart Home
    • Internet of Things / IOT
    • Intelligent mine monitoring
    • Industry & Electronics
    • Electrical industry
    • Precision mechanics & Optics
    • Automotive
    • Aircraft & Spacecraft construction
    • Mechanical engineering & Plant construction
    • Metal industry
    • Rail vehicle construction
    • Shipbuilding
    • PC, Tablet, Mobile & Wearable
    • Semiconductor industry
    • Textile industry
    • Packaging industry
    • Energy & Environment
    • Waste management
    • Emissions
    • Energy
    • Environmental monitoring / Environmental observation
    • Environmental & Energy technology
    • Infrastructure
    • Bridge monitoring
  • Suppliers
  • News
en
  • de
  • es
  • zh
Join Now
Sensors and measurement technology
Find the product you are looking for easily via filterable product attributes
OR, alternatively:Get quotes for your customized product with a search order in our product configurator.
Open Product Configurator
Cookies help us to provide our services. By using our services, you agree to our use of cookies. For more information about cookies, please follow the link below.
What are cookies? Cookie settings
Accept all cookies
Cookies to ensure operational readiness cannot be disabled insofar as we use them to provide our services. We use cookies to provide our services, for example, to: recognize when you sign in to use our services; store information you have added to your watch list; prevent fraudulent activity; improve security.
Statistical cookies help us provide you with an optimal user experience by collecting anonymized statistical data from visitors. This data is collected by us and our partners.
Accept all cookies
Save selection

Industrial communication

Industrial Communication: Networking the industry in the digital age

Progressive digitization has also led to major changes in industry. Companies are increasingly relying on networked production processes and automated workflows to operate more efficiently and flexibly. This development is known as Industry 4.0 and places high demands on communication between machines, plants and systems. Industrial communication plays a central role in this.

Industrial communication involves the exchange of data and information between different components within an industrial environment. Not only machines and plants are networked with each other, but also sensors, actuators and control systems. The aim is to enable smooth and efficient communication in order to optimally control and monitor the production process.

An important aspect of industrial communication is the selection of the appropriate communication protocol. There are a variety of standards and protocols that can be used depending on the application and requirements. Examples of common protocols are PROFIBUS, PROFINET, EtherCAT and OPC V out. Each protocol has specific attributes and offers different functions, such as real-time communication, high transmission speeds or high flexibility.

Another important aspect of industrial communication is safety. Networked systems are vulnerable to cyberattacks, so appropriate security measures must be taken to ensure the integrity and confidentiality of data. Here, encryption techniques, firewalls and access controls are used.

In addition to the connection of machines and systems, the integration of data and information into higher-level systems such as ERP (Enterprise Resource Planning) or MES (Manufacturing Execution System) plays an important role. By integrating these systems, companies can better plan, control and monitor their production processes. The data can be used for analysis and optimization, for example to identify bottlenecks or improve product quality.

The importance of industrial communication will continue to increase in the future. With the Internet of Things (IoT) and the increasing number of networked devices, more and more data is being generated that needs to be processed and analyzed in real time. In addition, advancing automation and robotics are enabling new possibilities for collaboration between humans and machines.

Overall, industrial communication offers immense potential for increasing productivity, efficiency and flexibility in industry. Companies that rely on networked production processes can secure their competitiveness in the long term and open up new areas of business. It is therefore crucial to use the right infrastructure and the appropriate technologies to ensure reliable and secure communications. Only in this way can the industry successfully meet the challenges of digital transformation and fully exploit its potential.

What is industrial communication and what role does it play in modern industry?

Industrial communication refers to the exchange of information and data between different devices and systems in the industrial environment. It enables the control, monitoring and optimization of production processes in modern industry.

The role of industrial communication in modern industry is of crucial importance. It enables the networking of machines, sensors and control systems in order to improve the flow of information and increase efficiency. By integrating different systems, production processes can be optimized, downtimes reduced and product quality improved.

Industrial communication also enables the implementation of concepts such as Industry 4.0 and the Internet of Things (IoT) in the industrial environment. By networking machines and systems, large amounts of data can be collected and analyzed in order to make informed decisions and further optimize processes.

In addition, industrial communication plays an important role in ensuring the safety and reliability of industrial systems. By using secure communication protocols and standards, potential security risks can be minimized and the integrity of the data guaranteed.

Overall, industrial communication is an essential component of modern industry that improves the efficiency, productivity and safety of production processes. It enables the seamless integration of systems and promotes the development of innovative technologies and concepts for industry.

Which technologies and protocols are used in industrial communication?

Various technologies and protocols are used in industrial communication to enable reliable and efficient communication between devices in an industrial environment. Some of the commonly used technologies and protocols are:

1. Ethernet: Ethernet is a widespread communication protocol that is used in industrial communication to transmit data over a network. It offers high speeds and reliability.

2. Profibus: Profibus is an industrial communication protocol that is frequently used in automation technology. It enables communication between different devices such as sensors, actuators and controllers.

3. Modbus: Modbus is a serial communication standard that is widely used in industrial automation. It enables communication between a master device and several slave devices via a serial connection.

4. OPC (OLE for Process Control): OPC is a standard protocol used in industrial automation to facilitate communication between different devices and systems. It enables data exchange between different manufacturers and device types.

5. PROFINET: PROFINET is an industrial Ethernet standard that is used in automation technology. It enables communication between different devices and systems via an Ethernet network.

6. CAN (Controller Area Network): CAN is a communication protocol that is often used in the automotive industry. It enables communication between different control units in vehicles.

7. MQTT (Message Queuing Telemetry Transport): MQTT is a lightweight communication protocol that is often used in Industry 4.0 applications. It enables the transmission of messages between devices via the Internet of Things (IoT).

This list is not exhaustive and there are many more technologies and protocols that can be used in industrial communication, depending on the specific requirements and applications.

How has industrial communication developed over time?

Industrial communication has developed considerably over the course of time. In the past, information and commands were mainly transmitted via physical media such as paper or verbal communication. This often led to delays and misunderstandings.

However, with the advent of the industrial revolution in the 18th century, new communication technologies began to develop. The invention of the telegraph in the 19th century made it possible to transmit information electronically over long distances for the first time. This improved communication between companies and enabled faster and more efficient collaboration.

In the 20th century, further progress was made in industrial communication. The development of the telephone and later the cell phone made it possible for people to communicate with each other anytime and anywhere. This led to improved coordination and efficiency in the industry.

The advent of the Internet in the 1990s further revolutionized industrial communication. Companies began to use e-mail and other electronic means of communication to exchange information quickly and efficiently. This enabled cooperation across great distances and promoted the globalization of the industry.

Other technologies such as video conferencing, instant messaging and cloud-based collaboration tools have developed in recent years. These enable people to communicate and exchange information in real time, regardless of their location.

Overall, industrial communication has evolved over time from physical media and slow communication methods to fast, efficient and global means of communication. This has significantly improved collaboration and efficiency in the industry.

What advantages does industrial communication offer companies and industrial plants?

Industrial communication offers a wide range of benefits for companies and industrial plants:

1. Increased efficiency: Processes and workflows can be optimized through effective communication between different devices and systems. This increases efficiency and productivity.

2. Real-time monitoring: Industrial communication enables real-time monitoring of systems and processes. This means that deviations and faults can be detected and rectified immediately, resulting in improved operational reliability.

3. Reduction of downtimes: Downtimes can be minimized through reliable and fast communication. Faults can be detected and rectified at an early stage before they lead to major problems.

4. Remote maintenance and diagnostics: Industrial communication enables the remote maintenance and diagnosis of systems. This means that maintenance work can be carried out more quickly and efficiently, leading to a reduction in operating costs.

5. Integration of systems: Industrial communication enables the seamless integration of different systems and devices. This allows data from different sources to be combined and analyzed in order to make better decisions and further increase efficiency.

6. Flexibility and scalability: Industrial communication systems are flexible and scalable. They can be adapted to the specific requirements of a company or industrial plant and allow the system to be easily expanded or modified as required.

7. Security: Industrial communication systems offer advanced security mechanisms to ensure the integrity and confidentiality of data. This minimizes the risk of data loss or unauthorized access.

Overall, industrial communication enables more efficient, secure and flexible control and monitoring of industrial processes. This enables companies to increase their productivity, reduce costs and improve their competitiveness.

What challenges and risks are associated with industrial communication?

There are several challenges and risks associated with industrial communication:

1. Complexity: Industrial communication systems are often very complex and comprise a large number of components and protocols. Integrating and managing these systems can be a challenge.

2. Security: As industrial communication systems are often used in critical infrastructures, security is a major risk. Cyber attacks can lead to downtime, data loss or even physical damage. It is important to implement appropriate security measures to minimize these risks.

3. Reliability: Industrial communication systems must be highly reliable, as failures can lead to production losses and high costs. Achieving a high level of reliability requires careful planning and monitoring of the systems.

4. Interoperability: Industrial communication systems often have to communicate with different devices and systems from different manufacturers. Ensuring interoperability can be difficult as different systems may use different protocols and standards.

5. Scalability: Industrial communication systems must be able to scale with increasing numbers of devices and data volumes. The planning and implementation of scalable systems requires careful consideration of future requirements.

6. Maintenance and updating: Industrial communication systems require regular maintenance and updating to ensure optimum performance and safety. Carrying out maintenance work in a running production environment can be a challenge.

7. Costs: Industrial communication systems can involve high investment costs. The costs of implementing, maintaining and updating the systems must be carefully weighed up to ensure a good cost-benefit ratio.

What trends and innovations are currently shaping industrial communication?

There are currently several trends and innovations that are shaping industrial communication. Here are some of them:

1. Industrial Internet of Things (IIoT): The IIoT enables the networking of machines and devices in industry. This allows data to be collected and analyzed in real time to improve efficiency and productivity.

2. 5G connectivity: The introduction of 5G enables faster and more reliable wireless communication. This is particularly important for applications that require high bandwidth and low latency, such as autonomous driving and remote control of machines.

3. Edge Computing: Edge computing enables data to be processed directly at the source instead of sending it to remote servers. This enables faster analysis and decision-making in real time.

4. Artificial intelligence (AI) and machine learning: AI and machine learning are increasingly being used in industrial applications to automate processes, make predictions and identify problems at an early stage.

5. Augmented reality (AR) and virtual reality (VR): AR and VR are used in industrial communication to improve training, maintenance and troubleshooting. AR and VR enable employees to receive information in real time and better understand complex tasks.

6. Cybersecurity: With increasing networking, the security risks have also increased. The industry is therefore increasingly investing in cyber security solutions to protect sensitive data and critical infrastructures.

These trends and innovations have the potential to fundamentally change industrial communication and improve efficiency, productivity and safety in industry.

How is industrial communication used in different sectors, such as the automotive industry or the food industry?

Industrial communication is used for various purposes in the automotive industry. One example is the communication between different components in a vehicle, such as the engine, the sensors and the control unit. These components must communicate with each other in order to exchange information and control the operation of the vehicle. Industrial communication protocols such as CAN (Controller Area Network) or LIN (Local Interconnect Network) are often used in the automotive industry.

In the food industry, for example, industrial communication is used to control production systems and processes. This includes communication between machines, sensors and control systems in order to optimize the production flow and ensure the quality of the food produced. Industrial communication standards such as Ethernet/IP or PROFIBUS are frequently used in the food industry to ensure reliable and efficient communication.

Industrial communication is also used in many other sectors, such as the chemical industry, energy production, the pharmaceutical industry and logistics. In any case, industrial communication is used to exchange data and information between different devices, plants and systems in order to optimize operations, increase efficiency and improve quality.

What role do standards and norms play in industrial communication and how are they developed and implemented?

Standards and norms play a decisive role in industrial communication. They serve as a common reference for the development, implementation and interoperability of communication systems and devices in the industry.

Standards and norms are usually developed by international or national standardization bodies and standardization organizations such as the International Electrotechnical Commission (IEC) or the German Institute for Standardization (DIN). These organizations bring together experts from different industries and companies to develop common standards.

The development of standards and norms takes place in several phases. First, the requirements and needs of the parties involved are identified. Based on these requirements, technical specifications and protocols are developed to ensure the interoperability and compatibility of the communication systems.

After development, the standards and norms are reviewed, commented on and approved by the parties involved. This process can take several years and often involves public consultation to obtain feedback from industry and other stakeholders.

The standards and norms are implemented by the manufacturers of communication systems and devices. They must ensure that their products comply with the defined standards and are interoperable with other systems. They must also label and document their products accordingly in order to be able to prove conformity.

Compliance with standards and norms in industrial communication offers several advantages. They enable the interoperability of different systems and devices, facilitate the integration of new technologies and reduce the complexity of communication systems. They also ensure greater security and reliability of communication in industrial applications.

Overall, standards and norms play a decisive role in industrial communication, as they form the basis for efficient and reliable networking of devices and systems. Their development and implementation ensures interoperability and compatibility in the industry.
Diribo.com
Calauer Str. 71
03048 Cottbus
Germany
+49 (0)355 / 28 94 43 20
+49 (0)355 / 28 94 43 11
aW5mb0BkaXJpYm8uY29t
Contact and Legal Notice
  • Contact & Support
  • Legal Notice
  • General Terms and Conditions
  • Privacy Policy
  • Terms of Use
Important pages
  • Home
  • About diribo
  • Suppliers
  • Reserve company
  • Application Reports
  • News
  • Sitemap
  • My favorites
  • Compare products
For suppliers
  • FAQ Product Data Maintenance

  • Join diribo and reach more customers.
  • Get started for free!
  •  
  • Join Now
0.19682 | 25