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  • FOXBORO FBMSVL Safety Valve Logic Solver
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  • FOXBORO FBMSVL Safety Valve Logic Solver

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

    The FOXBORO FBMSVL safety valve logic solver is a core logic control unit designed by FOXBORO for industrial safety protection systems, belonging to Foxboro Evo ™  The process automation system family is the core component that ensures the reliable operation of key safety equipment such as safety valves. Its core positioning is to use precise logical operations and signal processing to make real-time judgments and execute the opening, closing, and interlocking protection conditions of safety valves, and to build an intelligent control bridge between on-site safety monitoring signals and safety valve actuators. This product is deeply adapted to the safety control requirements of industrial scenarios, with high reliability, strong anti-interference ability, and flexible system integration capability. It is widely used in process industries such as petrochemicals, power, and chemical industries that require extremely high safety levels, providing reliable safety guarantees for dangerous working conditions such as overpressure and overtemperature in process systems.

    • ¥13845.00
      ¥14845.00
      ¥13845.00
      ¥13845.00
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    Weight:0.640KG
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    • (Inventory: 99999)
Description

The FOXBORO FBMSVL safety valve logic solver is a core logic control unit designed by FOXBORO for industrial safety protection systems, belonging to Foxboro Evo ™  The process automation system family is the core component that ensures the reliable operation of key safety equipment such as safety valves. Its core positioning is to use precise logical operations and signal processing to make real-time judgments and execute the opening, closing, and interlocking protection conditions of safety valves, and to build an intelligent control bridge between on-site safety monitoring signals and safety valve actuators. This product is deeply adapted to the safety control requirements of industrial scenarios, with high reliability, strong anti-interference ability, and flexible system integration capability. It is widely used in process industries such as petrochemicals, power, and chemical industries that require extremely high safety levels, providing reliable safety guarantees for dangerous working conditions such as overpressure and overtemperature in process systems.


FOXBORO FBMSVL Safety Valve Logic Solver

Product Overview

The FOXBORO FBMSVL safety valve logic solver is a core logic control unit designed by FOXBORO for industrial safety protection systems, belonging to Foxboro Evo ™  The process automation system family is the core component that ensures the reliable operation of key safety equipment such as safety valves. Its core positioning is to use precise logical operations and signal processing to make real-time judgments and execute the opening, closing, and interlocking protection conditions of safety valves, and to build an intelligent control bridge between on-site safety monitoring signals and safety valve actuators. This product is deeply adapted to the safety control requirements of industrial scenarios, with high reliability, strong anti-interference ability, and flexible system integration capability. It is widely used in process industries such as petrochemicals, power, and chemical industries that require extremely high safety levels, providing reliable safety guarantees for dangerous working conditions such as overpressure and overtemperature in process systems.


Specification parameters

The specifications and parameters of this product strictly follow industrial safety standards, taking into account both logical operation performance and environmental adaptability. The key parameters are as follows:

-Signal specifications: Input supports digital signals (DI), analog signals (4-20mA current signal, 1-5V voltage signal), and is compatible with safety monitoring sensor signals such as pressure, temperature, and liquid level; Output supports digital control signals (DO) and relay output signals, used to drive the actuator of the safety valve.

-Logical operation capability: Supports Boolean logic operation and sequential logic control, can configure multiple sets of interlocking logic rules, operation response time ≤ 500ms, ensuring fast response under dangerous working conditions.

-Communication interface: Supports industrial communication interfaces such as RS-485 and Ethernet, compatible with Modbus, Profibus, and Foxboro Evo ™  System specific communication protocol, seamlessly integrated into DCS control system for data exchange and remote monitoring.

-Power parameters: The power demand is 24V DC, the rated power is ≤ 30W, it has a power redundancy backup interface, supports dual power hot backup, and ensures power supply continuity.

-Environmental adaptability: Operating temperature range of -20 ° C to 60 ° C, protection level of IP65, able to withstand high temperature, high humidity, vibration, and corrosive gas interference in industrial sites, meeting the requirements of G3 level harsh environmental use.

-Physical dimensions: 120mm × 180mm × 80mm, weighing approximately 1.2kg, designed with standard guide rail installation, suitable for integrated installation of industrial control cabinets.

-Safety certification: Complies with the IEC 61508 functional safety standard, certified with Safety Integrity Level (SIL) 2, and meets the high reliability requirements of industrial safety systems.


Performance characteristics

-High reliability safety control: Adopting a redundant design architecture (including power redundancy and communication redundancy), with fault self diagnosis function, it can monitor its own operating status and input/output signal integrity in real time, with fast fault response time, effectively avoiding the risk of safety control failure.

-Flexible logical configuration capability: supports Foxboro Evo ™  The system configuration software can customize the logic control strategy, flexibly set the triggering conditions, delay parameters, and interlock protection logic of safety valve actions according to the safety requirements of different process scenarios, and adapt to diverse safety control scenarios.

-Accurate signal processing: Integrated with high-precision signal acquisition and filtering modules, it can effectively filter electromagnetic interference in industrial sites, ensure the accuracy of monitoring signals, provide reliable data support for logical judgment, and avoid misoperation or missed actions.

-Strong System Compatibility: Deep Adaptation to Foxboro Evo ™  Distributed control system can seamlessly integrate with control processors (such as FCP270, FCP280) and fieldbus modules (FBM series) within the system, while supporting interconnection with other mainstream DCS systems, reducing system upgrade and renovation costs.

-Convenient operation and maintenance management: It has intuitive status indication functions (power, operation, fault, communication status), supports remote diagnosis and parameter configuration, and can upload fault information to the control system in real time, making it easy for operation and maintenance personnel to quickly locate problems; Configure data to support backup and recovery, simplifying the operation and maintenance process.

-Adaptability to harsh environments: Adopting industrial grade reinforced casing and anti-interference circuit design, it can operate stably in harsh industrial environments such as high dust, strong vibration, and corrosive gases for a long time, meeting the complex usage needs of process industry sites.


Working principle

The core working logic of FOXBORO FBMSVL safety valve logic solver is closed-loop control of "monitoring signal acquisition logic condition judgment safety instruction execution status feedback". The specific process is as follows:

1. Signal acquisition stage: The logic solver is connected to on-site safety monitoring equipment (such as pressure transmitters, temperature sensors, liquid level switches, etc.) through input channels, and real-time collects key operating parameter signals (analog or digital) of the process system. The collected raw signals are filtered, amplified, and calibrated to eliminate the influence of environmental interference on signal accuracy.

2. Logical judgment stage: Based on preset safety control logic rules (such as overpressure threshold, overtemperature threshold, interlock triggering conditions, etc.), real-time logical operations are performed on the processed monitoring signals. For example, when the collected system pressure value exceeds the preset safety threshold, the logic solver quickly determines as a dangerous condition that requires opening the safety valve to release pressure.

3. Instruction execution stage: After the logic judgment is completed, corresponding control instructions are immediately generated, and digital control signals or relay signals are transmitted to the safety valve actuator (such as solenoid valve, pneumatic actuator) through the output channel to drive the safety valve to quickly open or close, achieving safety protection for the process system.

4. State feedback and monitoring stage: While executing control instructions, the logic solver collects real-time action status signals of the safety valve (such as open and close signals), and feeds back the action results to the central control system (such as Foxboro Evo) through communication interfaces ™  DCS), Provide real-time monitoring for operators; If there are signal abnormalities, actuator failures, or other situations, immediately trigger local and remote alarms, and record fault information to provide a basis for operation and maintenance processing.


Precautions

-Installation environment requirements: It should be installed in a closed industrial control cabinet to avoid direct exposure to high temperature, high humidity, dust, corrosive gases, or strong electromagnetic interference environments; The control cabinet should have good ventilation and heat dissipation functions to ensure that the ambient temperature and humidity meet the requirements of the product's operating parameters.

-Electrical connection specifications: Strictly follow the product wiring manual to connect the power supply, input/output signals, and communication lines, ensuring correct polarity, firm wiring, and good contact; Signal lines and power lines should be wired separately to avoid signal distortion caused by electromagnetic interference; Suggest shielding critical circuits.

-Logical configuration specification: Before configuring the logical control strategy, it is necessary to fully sort out the process safety requirements to ensure the accuracy and correctness of the logical rules; After the configuration is completed, offline simulation testing and online linkage testing must be conducted to verify the correctness of logical operations and the reliability of safety valve actions, in order to avoid safety accidents caused by logical configuration errors.

-System integration verification: When integrating with DCS systems or other control devices, it is necessary to test communication compatibility in advance to ensure smooth data transmission and timely status feedback; Verify the effectiveness of redundant functions (power redundancy, communication redundancy) to ensure that the system can switch normally in the event of a single fault without affecting safety control functions.

-Regular maintenance and calibration: Regularly check the integrity of equipment status indicator lights and wiring terminals; Calibrate the signal acquisition accuracy and logical operation response time according to the manufacturer's recommended cycle; Timely update device firmware and configuration software to ensure stable product performance; Before restarting after a long-term shutdown, a comprehensive functional test is required.

-Safety operation specifications: When conducting equipment maintenance, parameter adjustment, or logic modification, the system must first be switched to "manual/maintenance" mode to avoid triggering safety actions by mistake; When dealing with faults, industrial safety regulations should be strictly followed and necessary protective equipment should be worn; It is strictly prohibited to disassemble equipment without disconnecting the power supply.

-Technical support assistance: When encountering logical configuration failures, communication abnormalities, or equipment damage, it is necessary to promptly contact FOXBORO authorized service providers or technical support teams, provide detailed fault symptoms and operation logs, and strictly prohibit disassembling equipment or modifying core parameters on your own to avoid expanding the scope of the fault.

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