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  • ABB HAC319AEV1 High-Performance Control Module
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  • ABB HAC319AEV1 High-Performance Control Module

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

    ABB HAC319AEV1 is an industrial grade high-performance universal control module, belonging to the ABB Advant Controller series. Its core function is to achieve logical control, process control, and multi device collaborative scheduling of industrial automation systems. It can be used as the core controller of small and medium-sized DCS systems or the sub station control unit of large systems. It is widely used in scenarios such as water treatment, new energy (photovoltaic inverter control), intelligent buildings (central air conditioning and elevator linkage), mechanical manufacturing (production line main control), etc., which require high control accuracy and response speed.

    • ¥8332.00
      ¥9434.00
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    Weight:3.500KG
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Description

ABB HAC319AEV1 is an industrial grade high-performance universal control module, belonging to the ABB Advant Controller series. Its core function is to achieve logical control, process control, and multi device collaborative scheduling of industrial automation systems. It can be used as the core controller of small and medium-sized DCS systems or the sub station control unit of large systems. It is widely used in scenarios such as water treatment, new energy (photovoltaic inverter control), intelligent buildings (central air conditioning and elevator linkage), mechanical manufacturing (production line main control), etc., which require high control accuracy and response speed.


ABB HAC319AEV1 High-Performance Control Module

Product positioning and core values

ABB HAC319AEV1 is an industrial grade high-performance universal control module, belonging to the ABB Advant Controller series. Its core function is to achieve logical control, process control, and multi device collaborative scheduling of industrial automation systems. It can be used as the core controller of small and medium-sized DCS systems or the sub station control unit of large systems. It is widely used in scenarios such as water treatment, new energy (photovoltaic inverter control), intelligent buildings (central air conditioning and elevator linkage), mechanical manufacturing (production line main control), etc., which require high control accuracy and response speed.

Its core value is reflected in "all-round control+high response+flexible expansion": integrating multi-dimensional functions such as digital/analog processing, PID regulation, logical operation, etc., without the need for additional modules to meet complex control requirements; Control command response time ≤ 0.5ms, suitable for high-speed dynamic adjustment scenarios; Supporting multi protocol communication and module level expansion, it can quickly integrate into existing automation architectures and reduce system integration complexity.


Core parameters and functional characteristics

1. Key electrical and performance parameters

Processor and computing power

32-bit dual core industrial processor, with a clock speed of 1GHz, integrated hardware floating-point arithmetic unit (FPU), computing power ≥ 200 MIPS, supporting real-time multitasking scheduling (task priority can be configured, switching time ≤ 100 μ s)

Signal processing interface

Digital input (DI): 24 channels, 24V DC (leakage/source adaptive, response time ≤ 500 μ s); Digital output (DO): 16 channels, 24V DC (source type, single load ≤ 2A, short-circuit protection current 5A); Analog input (AI): 8 channels, 4-20mA/0-10V dual range, sampling accuracy ± 0.02% (18 bit AD conversion); Analog output (AO): 6 channels, 4-20mA, output accuracy ± 0.05% (16 bit DA conversion)

Control algorithm support

Built in standard PID/PID cascade, feedforward feedback composite control, ratio control, and split range control algorithms; Support user-defined logic (written in IEC 61131-3 standard language, including LD/FBD/ST/IL/SFC); Up to 64 independent control circuits can be configured

Communication ability

Supports PROFINET IRT (real-time ≤ 1ms), Modbus TCP, EtherNet/IP, RS485 (Modbus RTU) multi protocol; 2 Gigabit Ethernet ports (supporting network redundancy), 1 RS485 serial port, capable of connecting 16 slave devices simultaneously

Power Supply and Storage

24V DC power supply (input range 18-32V DC), power consumption ≤ 15W, with overvoltage (36V DC protection), overcurrent (3A protection), and reverse connection protection; On board 512MB Flash (program storage, power down storage ≥ 10 years)+1GB DDR4 (data cache)

Environmental adaptability

Working temperature -30 ℃ to 75 ℃ (wide temperature design, suitable for outdoor control cabinet scenarios), relative humidity 5% -95% (no condensation), protection level IP20 (module body), anti vibration performance 10-500Hz, 0.2g (sine wave vibration), anti impact performance 15g (11ms, half sine wave)

Security certification

Compliant with CE (EN 61010-1), UL (UL 508), SIL 2 (IEC 61508) safety standards, flame retardant rating UL 94 V-0

2. Core functional features

Versatile control and high-precision regulation: Balancing digital logic control (such as production line equipment interlock start stop) and analog process control (such as constant temperature water tank temperature regulation), AI sampling accuracy reaches ± 0.02%, AO output accuracy is ± 0.05%. In the power regulation scenario of photovoltaic inverters, output current fluctuation can be achieved ≤ ± 0.1A, meeting the high-precision control requirements of the new energy field.

High speed response and real-time guarantee: The dual core processor and PROFINET IRT protocol work together to achieve a delay of ≤ 0.5ms from issuing to executing control instructions. In high-speed packaging production lines, closed-loop control of "sensor detection → motor speed regulation → belt positioning" can be achieved, with a positioning error of ≤ ± 0.5mm, which is 40% more efficient than conventional modules.

Multi protocol compatibility and network redundancy: Supports mainstream industrial Ethernet protocols and can seamlessly integrate with third-party devices such as Siemens and Schneider; Dual Gigabit Ethernet ports support "ring network redundancy". When one network is interrupted, the backup network switches within ≤ 50ms to ensure uninterrupted data transmission and adapt to critical production systems that cannot be shut down (such as water supply control in a water plant).

Intelligent diagnosis and remote operation and maintenance: It has three levels of diagnostic functions: hardware level (processor, AD/DA circuit), software level (algorithm execution, communication link), and signal level (sensor failure, actuator abnormality); Support remote status monitoring and program upgrades through the ABB Cloud Connect platform, allowing operation and maintenance personnel to troubleshoot faults (such as locating short circuited DO channels) without the need to be on-site, reducing maintenance time to within 1 hour.


Adaptation devices and collaborative applications

1. Core adaptation equipment

Signal acquisition module

ABB UFC092BE01 binary input module (extended DI channel, collecting multi-point sensor signals), ABB AI810 analog input module (extended AI channel, adapted to PT100 temperature signals)

Signal conversion unit

ABB DSTF610 terminal unit (for transferring sensor/actuator signals, achieving isolation and wiring management), ABB TU515 terminal unit (suitable for signal transfer in simple scenarios)

Actuator driver unit

ABB DSDO 131 digital output unit (driving high-power contactors, solenoid valves), ABB AO810 analog output module (expanding AO channels, driving frequency converters, regulating valves)

External devices

24V DC photoelectric sensor (ABB O5F series), pressure transmitter (ABB 266HSH series, 4-20mA output), frequency converter (ABB ACS880 series), electric regulating valve (ABB V183 series)

Auxiliary equipment

ABB PROFINET IRT switch (model 800xA 8002), redundant power module (PM861K01-R), remote operation and maintenance module (ABB Ability Edge Gateway)

2. Collaborative application case with UFC092BE01 and DSTF610: Intelligent water treatment plant dosing control system

System architecture: It is necessary to implement closed-loop control of "water quality detection → automatic dosing → flow regulation", involving 12 water quality sensor signals (DI, such as pH value exceeding alarm and turbidity exceeding alarm), 8 flow/pressure AI signals (such as raw water flow and dosing pump outlet pressure), 6 dosing pump control DO signals, and 4 regulating valve AO signals. UFC092BE01 is used to expand the DI channel, and DSTF610 is used for signal conversion.

Connection logic:

After the 12 water quality sensor signals are transferred through the DSTF610 terminal unit, they are connected to the DI channel of the UFC092BE01 module. UFC092BE01 communicates with HAC319AEV1 through PROFINET IRT and uploads alarm signals; 8 flow/pressure AI signals are directly connected to the AI interface of HAC319AEV1;

HAC319AEV1 runs the "PID cascade control" algorithm: with water turbidity as the outer loop control objective (set value of 1NTU), dosing flow as the inner loop feedback, combined with the raw water flow feedforward signal, outputs a 4-20mA signal to the dosing pump frequency converter (AO channel) and regulating valve (extended AO module);

When the pH value exceeds the standard (triggered by DI signal), HAC319AEV1 triggers the DSDO 131 unit through the DO channel, switches the type of dosing (from flocculant to acid-base regulator), and pushes alarm information to the operation and maintenance personnel's mobile phones through the Cloud Connect platform.

Core advantage: HAC319AEV1's high-precision AI sampling and PID regulation ensure that water turbidity is controlled within ± 0.1NTU; UFC092BE01 extends DI channel to meet multi-point alarm requirements; The remote operation and maintenance function reduces the frequency of on-site inspections and lowers operation and maintenance costs by 30%.

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