SCHNEIDER C400/10/1/1/1/00 C400 Controller

Multi-axis control capability: Supports independent control of up to 16 axes, which can meet the needs of complex motion control tasks. For example, in automated production lines, it can control multiple robotic arms or transmission devices simultaneously to achieve collaborative work.

High-performance processing: Equipped with a high-speed processor, such as Intel Pentium M 600Hz CPU and 256MB RAM, ensuring real-time control and rapid response. It can handle various complex instructions and feedback signals in a timely manner to ensure the stable operation of the system.

Integrated design: Integrates control, drive and communication functions into one, simplifying the system architecture, reducing the connection lines and interfaces between devices, lowering system complexity and failure risks, and saving installation space at the same time.

Rich communication interfaces: Supports multiple communication protocols, such as EtherCAT, CANopen, Profibus DP, RS-232, RS-485, Ethernet TCP/IP, etc., facilitating integration with other devices and systems to achieve data interaction and collaborative control.

Convenient programming environment: Provides an intuitive programming environment and supports the IEC 61131-3 standard, making it easy for users to carry out application development, reducing programming difficulty and improving development efficiency.

Packaging machinery: Used to control various equipment on packaging lines, such as conveyors, sealing machines, labeling machines, etc., ensuring the efficient operation of the production line and realizing precise material conveying, packaging, labeling and other operations.

Industrial equipment Schneider ELAU PacDrive C400 Controller

Printing industry: In printing equipment, it can provide precise motion control to meet the requirements of high-speed and high-precision production, such as controlling the rotation of printing rollers and the transmission of paper, ensuring printing quality and efficiency.

Food and beverage production: Can be used to control automated production lines, such as filling, sealing and labeling processes, realizing accurate positioning and operation of products, and improving the degree of production automation and product quality stability.

Pharmaceutical industry: In pharmaceutical equipment, it provides precise motion control for the production process, ensuring the accuracy and consistency of the drug production process and complying with strict pharmaceutical production quality standards.

Electronic manufacturing: Used to control automated assembly lines, such as component mounting, welding and testing processes, realizing high-precision electronic component assembly and production, and improving the production efficiency and quality of electronic products.

Self-inspection: After the system is started, it first performs self-inspection to check whether all parts of the controller's hardware are normal, such as whether the CPU, memory, input and output modules are in normal working condition. If a fault is found, a corresponding alarm signal will be issued, and it cannot enter the subsequent work process normally.

Input scanning: The controller periodically reads the status of various sensors, switches and other devices connected to the input module, converts external physical signals, such as temperature, pressure, position signals, etc., into electrical signals, and stores them in the input image area.

Program execution: The CPU reads data from the input image area according to the program logic written by the user, and performs logical operations, sequence control, timing, counting, arithmetic operations and other operations in the order set by the program. User programs are usually written in programming languages such as ladder diagrams, function block diagrams or instruction lists, and stored in the controller's memory.

Output refresh: According to the results of program execution, the data in the output image area is updated, and then this data is sent to the output module. The output module converts the electrical signals into corresponding physical signals to control external executive devices, such as motors, solenoid valves, contactors, etc., thereby realizing the control of industrial equipment.

Communication interaction: The controller can exchange data with other devices or networks through communication modules using communication protocols such as EtherCAT and CANopen. It can receive control instructions from the host computer, and also upload its own operating status and related data to the host computer or other devices, realizing remote monitoring and system integration.