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  • FOXBORO P0926KK PLC system functional module
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  • FOXBORO P0926KK PLC system functional module

    110V-380V
    5W-130W
    1A-30A
    1 year
    30
    United States, France, Japan, Viet Nam, Australia, Russia, Germany, Italy, Arabia

    FOXBORO P0926KK belongs to the "Function Expansion and Logic Processing Core Module" in PLC systems. Its core positioning is to receive instructions from processor modules, complete complex control logic operations, real-time processing of multi-channel signals, data exchange between modules, and linkage control of external devices. Unlike basic I/O modules, this module not only has signal acquisition and output capabilities, but also integrates dedicated computing chips and protocol processing units, which can achieve high-order control functions such as PID regulation, sequence control, interlock protection, etc. It is a key link to improve the control accuracy and response speed of PLC systems.

    • ¥9578.00
      ¥9956.00
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    Weight:2.160KG
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Description

FOXBORO P0926KK belongs to the "Function Expansion and Logic Processing Core Module" in PLC systems. Its core positioning is to receive instructions from processor modules, complete complex control logic operations, real-time processing of multi-channel signals, data exchange between modules, and linkage control of external devices. Unlike basic I/O modules, this module not only has signal acquisition and output capabilities, but also integrates dedicated computing chips and protocol processing units, which can achieve high-order control functions such as PID regulation, sequence control, interlock protection, etc. It is a key link to improve the control accuracy and response speed of PLC systems.




FOXBORO P0926KK PLC system functional module

Module core positioning and functional architecture

FOXBORO P0926KK belongs to the "Function Expansion and Logic Processing Core Module" in PLC systems. Its core positioning is to receive instructions from processor modules, complete complex control logic operations, real-time processing of multi-channel signals, data exchange between modules, and linkage control of external devices. Unlike basic I/O modules, this module not only has signal acquisition and output capabilities, but also integrates dedicated computing chips and protocol processing units, which can achieve high-order control functions such as PID regulation, sequence control, interlock protection, etc. It is a key link to improve the control accuracy and response speed of PLC systems.

From the perspective of functional architecture, the P0926KK module mainly consists of five parts: logic operation unit, signal conditioning module, communication interface unit, fault diagnosis unit, and power management unit. The logic operation unit adopts high-performance embedded processors to ensure the fast execution of control instructions; The signal conditioning module achieves precise conversion and anti-interference processing between analog and digital signals; The communication interface unit ensures stable communication with other modules and the upper computer within the system; The fault diagnosis unit monitors the real-time operation status of the module and provides feedback on abnormal information; The power management unit provides stable power supply for each component, ensuring the continuous and reliable operation of the module.


Core technical characteristics

FOXBORO P0926KK is designed based on strict industrial standards and exhibits outstanding advantages in logic operations, signal processing, compatibility, and reliability. The specific technical features are as follows:

1. Efficient logical operations and control capabilities

The module is equipped with a 32-bit high-performance RISC processor, with a clock speed of up to 200MHz and powerful instruction processing capabilities. It supports various mainstream PLC programming languages such as ladder diagram (LD), function block diagram (FBD), structured text (ST), etc. For complex industrial control scenarios, its computing unit can simultaneously process up to 1000 control logic instructions. The number of PID control loops can be extended to 64, with an adjustment accuracy of ± 0.1%. It can quickly respond to changes in on-site parameters and achieve precise control of process parameters such as temperature, pressure, and flow rate.

2. Compatibility and precise processing of multiple types of signals

The module integrates multi-channel signal processing units and is compatible with various types of signal interfaces such as analog input (AI), analog output (AO), digital input (DI), and digital output (DO). The analog channel supports standard signals such as 4-20mA and 0-10V, while the digital channel supports two input types, NPN/PNP, and two output types, relay/transistor. It can directly interface with various industrial equipment such as pressure transmitters, flow sensors, solenoid valves, and frequency converters. Differential amplification and optoelectronic isolation technology are used in the signal processing process, with an analog signal acquisition accuracy of ± 0.05% FS and a digital signal response time of ≤ 0.2ms, effectively suppressing electromagnetic interference in industrial sites and ensuring the accuracy of signal transmission.

3. Flexible communication and system integration capabilities

The module is equipped with rich communication interfaces, including mainstream industrial communication interfaces such as RS485, Ethernet/IP, PROFINET, etc. It supports communication protocols such as MODBUS and PROFIBUS-DP, and can achieve seamless integration with FOXBORO I/A Series DCS systems, third-party PLCs, and upper monitoring systems (such as SCADA, MES). The communication speed between the backplane bus and the processor module and I/O module within the system can reach 100Mbps, ensuring real-time data exchange between modules, while supporting remote data transmission and control, making it easy to build a distributed control system.

4. Comprehensive fault diagnosis and redundant protection

The module is equipped with a comprehensive fault diagnosis mechanism, which can accurately identify power faults, communication interruptions, channel short circuits/breaks, and other abnormal situations through real-time monitoring of parameters such as power supply voltage, module temperature, communication status, and channel signals. Local alarms can be triggered through LED indicator lights (running light, fault light, communication light), and fault codes can be uploaded to the processor module and upper system for operators to quickly locate and troubleshoot problems. In addition, the module supports hot redundancy configuration. When the main module fails, the backup module can automatically switch within 50ms, ensuring uninterrupted operation of the control system and improving system reliability.

5. Industrial grade durability and environmental adaptability

For the complex working environment of industrial sites, the module adopts reinforced design: the shell is made of aluminum alloy die-casting material, which has good dust and moisture resistance, and the protection level reaches IP20 (when installing the cabinet); The internal circuit adopts a wide temperature adaptation design, with a working temperature range of -20 ℃~70 ℃, which can adapt to different working conditions such as high-temperature workshops and cold outdoor environments; Simultaneously possessing anti vibration (compliant with IEC 60068-2-6 standard) and anti impact (compliant with IEC 60068-2-27 standard) performance, it can still operate stably in scenarios with severe vibrations such as metallurgy and mining.


Key technical parameters

The technical parameters of FOXBORO P0926KK accurately match the requirements of medium and large-scale industrial control, and the core parameters are as follows:

1. Basic parameters

-Module type: PLC system functional module (logical operation+signal processing)

-Applicable systems: FOXBORO Evo series, I/A series PLC system

-Supply voltage: 24V DC (allowable fluctuation range: 18V~30V DC)

-Power consumption: ≤ 15W during normal operation, peak power consumption ≤ 20W

-Installation method: Standard 35mm DIN rail installation, compatible with FOXBORO standard cabinet

2. Calculation and control parameters

-Processor: 32-bit RISC processor, with a clock speed of 200MHz

-Storage capacity: 8MB program memory, 4MB data memory (supports SD card expansion up to 32GB)

-Control logic instruction: supports 1000 concurrent logical operations

-PID control circuit: standard configuration includes 16 channels, maximum expandable up to 64 channels, with a control accuracy of ± 0.1%

-Pulse output: Supports up to 100kHz high-speed pulse output, used for stepper motor/servo control

3. Signal processing parameters

-Analog input (AI): 8 channels as standard, with a maximum expansion to 16 channels; Signal type 4-20mA/0-10V; Accuracy ± 0.05% FS; Sampling rate 100Hz/channel

-Analog output (AO): 4-channel standard configuration, with a maximum expansion to 8 channels; Signal type 4-20mA/0-10V; Accuracy ± 0.1% FS; load capacity ≤ 500 Ω

-Digital input (DI): 16 channels as standard, with a maximum expansion to 32 channels; Signal type NPN/PNP is optional; Response time ≤ 0.2ms

-Digital output (DO): 8 channels as standard, with a maximum expansion to 16 channels; Output type relay (2A/250V AC)/transistor (0.5A/30V DC)

4. Communication and redundant parameters

-Communication interface: 1 RS485, 2 Ethernet/IP, 1 PROFINET (optional)

-Communication protocol: Supports MODBUS RTU/TCP, PROFIBUS-DP, Ethernet/IP

-Backplane bus speed: 100Mbps

-Redundancy switching time: ≤ 50ms (in hot redundancy configuration)

5. Environmental and mechanical parameters

-Working temperature: -20 ℃~70 ℃

-Working humidity: 10%~90% RH (no condensation)

-Protection level: IP20 (installed inside the cabinet)

-Anti vibration: 10Hz~500Hz, acceleration 5g (IEC 60068-2-6)

-Impact resistance: 15g, continuous for 11ms (IEC 60068-2-27)


Typical application scenarios

FOXBORO P0926KK, with its powerful logical operation capability and flexible adaptability, is widely used in various medium and large-scale industrial control scenarios. Typical applications include:

1. Petrochemical industry - production process interlocking control

In the catalytic cracking unit of petroleum refining and the reaction kettle control system of chemical synthesis, the P0926KK module undertakes the core control task: collecting parameters such as temperature, pressure, liquid level, and medium composition inside the reaction kettle through the AI channel, calculating them through the built-in PID algorithm, adjusting the opening of the feed valve, heating power, etc. through the AO channel, and monitoring the operating status of pumps, compressors, and other equipment through the DI/DO channel to achieve an automated control process of "parameter abnormality interlock shutdown emergency pressure relief", avoiding safety accidents caused by overheating and overpressure, and ensuring the stability of the production process.

2. Power industry - coordinated control of generator sets

In the control system of power generation units in thermal power plants, modules are used to achieve coordinated control of boilers, turbines, and generators: collecting parameters such as boiler steam pressure, turbine speed, and generator output power, and implementing closed-loop control of "load command fuel supply steam regulation power output" through logical operation units. At the same time, it is linked with the power plant DCS system through communication interfaces to upload operational data and receive scheduling instructions, ensuring efficient and stable operation of the generator units under different load demands and improving power generation efficiency.

3. Intelligent Manufacturing - Production Line Automation Control

In automation scenarios such as automotive welding production lines and lithium battery packaging production lines, modules serve as the control core: they collect workpiece position and equipment status signals feedback from sensors through DI channels, and after logical operations, control the action sequence of robotic arms, conveyor belts, welding equipment, etc. through DO channels. At the same time, they control servo motors for precise positioning through high-speed pulse output, achieving full process automation of "loading processing detection unloading". Its multi-channel signal processing capability can adapt to parallel control of multiple production lines, improving production efficiency.

4. Metallurgical industry - parameter control of smelting process

In the process of blast furnace ironmaking and converter steelmaking in steel plants, modules are used for precise control of smelting parameters: parameters such as blast furnace temperature, furnace pressure, and molten iron composition are collected through AI channels, combined with preset control logic, and the blast flow rate, oxygen supply, and raw material ratio are adjusted through AO channels. At the same time, the cooling system status of the furnace body is monitored through interlocking logic. When abnormalities such as insufficient cooling water occur, an alarm is immediately triggered and the feed is cut off to ensure the safety of smelting equipment and improve the quality of molten steel.

5. Water treatment industry - water purification process control

In the water purification system of large-scale sewage treatment plants, modules are used to achieve linkage control of multiple process links: collecting parameters such as COD concentration at the inlet, dissolved oxygen content in the aeration tank, and liquid level in the sedimentation tank, controlling the speed of the aeration fan and the flow rate of the dosing pump through a PID adjustment loop, and controlling the start and stop of the drainage valve and reflux pump through a DO channel to achieve automated operation of "inlet aeration sedimentation disinfection", ensuring that the effluent water quality meets the standard and reducing manual operation and maintenance costs.


Possible models needed

P0926KK

P0926KL

P0926TP

P0928AY

P0950CA

P0960AH

P0960HA

33C-AJ-D

FBM205 cable

FBM241 cable

FCM10E

FCM10EF

FMB231

GW30

IPM2

P0400BJ

P0400DL

P0903AA

P0903MU

P0903NQ

P0903NW

P0903ZE

P0903ZL

P0903ZN

P0903ZP

P0903ZQ

P0904BH

P0904FH

P0904HB

P0911QB

P0911QB-C

P0911QC-C

P0911QH-A

P0911VJ

P0912CB

P0912CM

P0914XA

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