The ABB IC660BBA104 6231BP10910 industrial control module is a core component designed specifically for analog signal acquisition in industrial automation systems. It belongs to ABB's classic industrial control product line and its main function is to accurately collect, filter, and convert analog signals (such as 4-20mA current signals and 0-10V voltage signals) converted from non electrical physical quantities such as temperature, pressure, and flow in industrial sites. These signals are then transmitted to main control systems such as PLC and DCS, providing reliable raw data support for real-time monitoring, logical operation, and precise control of production processes. It is widely applicable to industrial control scenarios in fields such as power, chemical, metallurgy, and intelligent manufacturing.
ABB IC660BBA104 6231BP10910 Industrial Control Module
Product core positioning
The ABB IC660BBA104 6231BP10910 industrial control module is a core component designed specifically for analog signal acquisition in industrial automation systems. It belongs to ABB's classic industrial control product line and its main function is to accurately collect, filter, and convert analog signals (such as 4-20mA current signals and 0-10V voltage signals) converted from non electrical physical quantities such as temperature, pressure, and flow in industrial sites. These signals are then transmitted to main control systems such as PLC and DCS, providing reliable raw data support for real-time monitoring, logical operation, and precise control of production processes. It is widely applicable to industrial control scenarios in fields such as power, chemical, metallurgy, and intelligent manufacturing.
Key features and advantages
High precision signal acquisition capability
Supports multiple types of analog input signals, including 4-20mA DC current signals and 0-5V/0-10V DC voltage signals, suitable for the output specifications of most industrial sensors, without the need for additional signal conversion equipment, reducing system integration complexity;
Using a 16 bit high-precision AD conversion chip, the analog acquisition accuracy can reach ± 0.1% of full scale, ensuring accurate capture of small signal changes. For example, in temperature monitoring of chemical reaction vessels, temperature fluctuations of ± 0.1 ℃ can be accurately identified, providing delicate data basis for process adjustment;
Built in multi-stage RC filtering circuit and digital filtering algorithm can effectively suppress electromagnetic interference (such as noise generated by frequency converters and high-voltage equipment) and signal drift in industrial sites. The filtered signal ripple is ≤ 5mV, ensuring the stability and authenticity of collected data.
Industrial grade reliability design
The hardware uses wide temperature tolerant components, and the core chip, capacitors, resistors, and other components can work stably for a long time in extreme temperature environments ranging from -40 ℃ to+70 ℃, suitable for industrial scenarios in different climatic conditions such as cold industrial areas in the north and high-temperature workshops in the south;
Equipped with a comprehensive hardware protection mechanism: supporting input signal overvoltage protection (maximum withstand 30V DC voltage) and overcurrent protection (maximum withstand 50mA current per channel). When the on-site sensor fails and causes signal abnormalities, the abnormal channel can be quickly cut off to avoid overall module damage, while not affecting the normal operation of other channels;
The module housing is made of flame-retardant ABS material (compliant with UL 94 V-0 flame retardant standard), and the circuit board is covered with a conformal coating (three proof coating), which has the ability to prevent dust, moisture, and corrosion. It can operate reliably in metallurgical workshops or chemical corrosive environments with humidity ≤ 95% (no condensation) and high dust, with an average time between failures (MTBF) of ≥ 100000 hours.
Flexible system adaptation and expansion
Adopting standardized module sizes (120mm × 80mm × 30mm, excluding wiring terminals), compatible with ABB PLC systems (such as Series 90-30 series) using standard rail installation methods, it can be directly embedded into existing control cabinets and seamlessly spliced with other digital modules, communication modules, etc., without the need to modify the cabinet structure;
Supporting independent channel configuration, the signal type (current/voltage) and range (such as 4-20mA corresponding to 0-100 ℃ temperature range) of each channel can be set separately through the built-in dip switch or upper computer software of the module, meeting the acquisition requirements of multiple parameters and ranges in the same industrial scenario. For example, in a production line, motor temperature (0-5V corresponding to 0-150 ℃) and pipeline pressure (4-20mA corresponding to 0-10MPa) can be simultaneously collected;
Equipped with hot swappable function (compatible with PLC system), it can quickly replace faulty modules without shutting down the system, with a replacement time of ≤ 2 minutes, greatly reducing equipment maintenance downtime, especially suitable for continuous production industries such as chemical and power.
Convenient diagnosis and operation
The front of the module is equipped with multiple sets of status indicator lights, including a power indicator light (green, lit up when powered normally), a channel fault indicator light (red, lit up when the corresponding channel signal is abnormal), and a communication indicator light (yellow, flashing when communicating normally with the main controller). On site operation and maintenance personnel can quickly determine the module's operating status through the indicator lights without the need for professional instruments;
Support remote diagnosis function, through communication with the main controller, upload status data such as internal temperature, power supply voltage, and collected values of various channel signals to the monitoring system. Operation and maintenance personnel can monitor the health status of the module in real time in the central control room and predict potential faults in advance (such as channel accuracy drift and unstable power supply);
Provide calibration interfaces and calibration programs, and the module can be calibrated for accuracy every 12 months using a standard signal source (such as a high-precision signal generator). The calibration process does not require disassembling the module, only connecting the calibration equipment and running specialized software can restore the acquisition accuracy and extend the service life of the module.
Core technical parameters
Number of input channels
8 independent analog input channels (capable of simultaneously collecting 8 different signals)
Support signal types
Current signal: 4-20mA DC; Voltage signal: 0-5V DC, 0-10V DC
AD conversion accuracy
16 bits
Collection accuracy
± 0.1% full scale (at 25 ℃ ambient temperature), ± 0.2% full scale (within the temperature range of -40 ℃ to+70 ℃)
Sampling rate
The maximum sampling rate for a single channel is 100Hz, and the total rate for simultaneous sampling of 8 channels is 500Hz
Input impedance
Current signal input impedance: ≤ 250 Ω; Voltage signal input impedance: ≥ 10M Ω
Protection function
Input overvoltage protection (≤ 30V DC), input overcurrent protection (≤ 50mA DC/channel), over temperature protection (derating when ≥ 85 ℃)
Power supply
24V DC (± 10%), power consumption ≤ 5W (during full load operation)
Communication interface
Compatible with ABB PLC system internal buses (such as Genius Bus), with a maximum communication speed of 1Mbps
Working environment
Temperature: -40 ℃ to+70 ℃; Humidity: 5% -95% (no condensation); Altitude: ≤ 2000m (beyond which capacity reduction is required)
Protection level
IP20 (module body, requiring coordination with control cabinet for higher protection)
Dimensions (length x width x height)
120mm × 80mm × 30mm (excluding terminal blocks and rail buckles)
Weight
About 200g
Typical application scenarios
Chemical process monitoring scenarios
In the petrochemical production workshop, it is used to collect the temperature of the reaction kettle (converted into 4-20mA signal through PT100 platinum resistance sensor), reaction pressure (output 0-10V signal through pressure transmitter), and raw material flow rate (output 4-20mA signal through electromagnetic flowmeter). Eight channels can be simultaneously connected to the key parameter sensors of three reaction kettles to transmit the collected data to the DCS system. When the temperature exceeds the set threshold (such as 180 ℃) or the pressure is abnormal, the DCS system can quickly trigger an alarm and adjust the cooling system and feed valve to ensure the safety and stability of the reaction process.
Monitoring scenarios for power equipment
In the control system of power generation units in thermal power plants, the generator stator winding temperature sensor (outputting 0-5V signal), transformer oil temperature sensor (outputting 4-20mA signal), and turbine vibration sensor (outputting 4-20mA signal) are adapted to collect real-time equipment operating parameters and transmit them to the PLC. When the stator winding temperature exceeds 120 ℃ or the vibration value exceeds the standard, the PLC can automatically reduce the load of the unit, prevent equipment overheating or mechanical damage, and extend the service life of the generator set.
Intelligent manufacturing production line scenario
In the automotive parts processing production line, it is used to collect the temperature of the CNC lathe spindle (converted into 4-20mA signal through thermocouple sensor), cutting fluid pressure (output 0-10V signal through pressure sensor), and workpiece machining accuracy detection signal (output 0-5V signal through laser displacement sensor). The 8-channel can cover the key monitoring points of 2 lathes. After data transmission to the MES system, real-time quality monitoring of the machining process can be achieved. When the spindle temperature is too high and the machining accuracy decreases, the system automatically stops and prompts maintenance to reduce the scrap rate.
Water treatment industry scenario
In the aeration tank control system of the sewage treatment plant, dissolved oxygen sensors (output 4-20mA signal, corresponding to 0-20mg/L dissolved oxygen concentration), pH sensors (output 0-10V signal, corresponding to 0-14PH value), and sludge concentration sensors (output 4-20mA signal) are collected. The module converts the signals and transmits them to the PLC. The PLC automatically adjusts the speed of the aeration fan based on the dissolved oxygen concentration and controls the amount of acid and alkali added according to the pH value, achieving automatic adjustment of the sewage treatment process and ensuring that the effluent water quality meets the standard.





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