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  • FOXBORO FBM205 cable
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  • FOXBORO FBM205 cable

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

    The module has strong signal compatibility and can adapt to various common input types in industrial scenarios, including resistance temperature detectors (RTDs), thermocouples, milliampere (mA), millivolt (mV), voltage (V), and ohm signals. For the measurement requirements of different process variables, the input range coverage is as follows:

    -Temperature: -200 ℃~1767 ℃ (corresponding to -328 ℉~3212 ℉)

    -Pressure: 0~69 bar (corresponding to 0~1000 psi)

    -Flow rate: 0~227 cubic meters per hour (corresponding to 0~1000 gpm)

    -Liquid level: 0~305 meters (corresponding to 0~1000 feet)

    • ¥4733.00
      ¥5035.00
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      Sales: 0

      Review: 0

    Weight:0.150KG
    • Quantity:
    • (Inventory: 99999)
Description

The module has strong signal compatibility and can adapt to various common input types in industrial scenarios, including resistance temperature detectors (RTDs), thermocouples, milliampere (mA), millivolt (mV), voltage (V), and ohm signals. For the measurement requirements of different process variables, the input range coverage is as follows:

-Temperature: -200 ℃~1767 ℃ (corresponding to -328 ℉~3212 ℉)

-Pressure: 0~69 bar (corresponding to 0~1000 psi)

-Flow rate: 0~227 cubic meters per hour (corresponding to 0~1000 gpm)

-Liquid level: 0~305 meters (corresponding to 0~1000 feet)




FOXBORO FBM205 cable

Product Core Positioning and Adaptation System

FBM205 cable is not a general industrial cable, but a specialized cable customized and developed by FOXBORO for the electrical characteristics and redundancy design of FBM205 I/O modules (models including P0914XG, etc.). Its core positioning is to build reliable connections between "module field devices" and "module terminal components (TA)", with specific adaptation scenarios including:

-Connect the FBM205 module to the 3-layer terminal component (such as P0916AJ terminal component) to achieve centralized switching and signal conditioning for on-site wiring;

-Transmitting 4-20mA/0-20mA analog signals, covering sensor data acquisition (such as pressure and temperature transmitter signals) and actuator control output (such as valve positioner drive signals);

-Cooperate with the redundant architecture of FBM205 module to ensure synchronous signal transmission between dual modules and support seamless switching under fault conditions.

This cable needs to work in conjunction with the FBM205 module, redundant adapters, and terminal components to form a signal transmission subsystem that complies with the FOXBORO DCS system specifications. Its electrical parameters and mechanical structure have undergone strict matching tests to ensure compatibility and reliability with the system.


Core functional characteristics

The functional design of FBM205 cable revolves around the redundancy characteristics of FBM205 module and the requirements of industrial environment. The core functions are reflected in the following aspects:

1. Redundant signal transmission and fault protection

For the dual redundant design of FBM205 module, the cables are deployed in pairs, connecting the A and B channels of the redundant module group separately. The cable has a consistent signal transmission delay (≤ 1 μ s/m), ensuring that two redundant signals arrive synchronously at the module or on-site equipment, providing accurate data support for system redundancy logic judgment. When a cable on a certain route breaks or has poor contact, the other route can immediately undertake the signal transmission task, cooperate with the module's fault detection mechanism, achieve uninterrupted signal transmission, and avoid control failure caused by cable problems.

2. Strong anti-interference and signal fidelity capabilities

The electromagnetic interference present in industrial sites (such as interference generated by frequency converters and motors) is the main threat to analog signal transmission. The FBM205 cable adopts a three-layer anti-interference structure design: the inner layer is a multi strand tinned copper conductor (ensuring low resistance transmission), the middle layer is a double shielding of aluminum foil and copper wire weaving (shielding effectiveness ≥ 90dB), and the outer layer is a flame-retardant PVC sheath, effectively suppressing common mode interference and differential mode interference. At the same time, the cable adopts differential signal transmission method to further enhance anti-interference ability, ensuring that the error of 4-20mA analog signal within a transmission distance of 100 meters is ≤ 0.1% FS, matching the accuracy of the Sigma Delta converter of FBM205 module, and ensuring the accuracy of data acquisition and control output.

3. Adaptability to harsh environments

Based on the characteristics of FBM205 module suitable for G3 level harsh environments, the material selection of the cable has been specially optimized: the sheath is made of PVC material that is resistant to oil and chemical corrosion, which can withstand common oil stains, acid and alkali steam erosion in industrial sites; The conductor insulation layer is made of high-temperature resistant polyolefin material, with a working temperature range covering -40 ℃~85 ℃, which can adapt to extreme working conditions of alternating high and low temperatures. In addition, the cable has good mechanical strength, with a tensile strength of ≥ 15MPa and a bending radius of up to 6 times the outer diameter of the cable, making it easy to wire in complex spaces inside the control cabinet while resisting damage caused by accidental mechanical pulling.

4. Safety isolation and fault protection

In conjunction with the galvanic isolation design of each channel in the FBM205 module, the cable adopts an independent shielding structure to ensure that the shielding layer of each signal is separately grounded, avoiding signal crosstalk between channels. The insulation resistance between the core wire and the shielding layer of the cable is ≥ 500M Ω (500V DC), and the withstand voltage strength reaches 1500V AC/1 minute, which can effectively prevent signal leakage or equipment damage caused by insulation breakdown. In terms of fault safety design, the connection terminals between cables and modules adopt an anti misoperation structure to avoid module channel burnout caused by reverse polarity connection, thereby improving system operation and maintenance safety.


Key technical parameters

The technical parameters of FBM205 cable need to be accurately matched with FBM205 module and terminal components. The core parameters are shown in the table below, providing a basis for selection, installation, and system debugging:

Basic Information

Brand: FOXBORO; Adaptation module: FBM205 (P0914XG, etc.); Origin: United States

Original factory cable with brand logo, supplied in conjunction with FBM205 module, providing a 12-month warranty

Conductor characteristics

Material: multi strand tinned copper; Specification: 24AWG (0.21mm ²); Number of cores: 2 cores (signal)+1 core (shielding)

Multi strand conductors enhance bending performance, tin plating prevents oxidation and corrosion

Electrical performance

Rated voltage: 300V AC/DC; Working temperature: -40 ℃~85 ℃; Insulation resistance: ≥ 500M Ω/1km; transmission delay: ≤ 1 μ s/m; Signal error: ≤ 0.1% FS (within 100 meters)

Adapt to the 0-20mA signal transmission requirements of FBM205 module

Anti-interference characteristics

Shielding method: aluminum foil+copper wire weaving (coverage rate ≥ 90%); Shielding effectiveness: ≥ 90dB; Anti electromagnetic interference standard: IEC 61000-4-3

Effectively suppress electromagnetic interference in industrial sites

Mechanical and Environmental Performance

Sheath material: flame retardant PVC; Outer diameter: 4.2mm ± 0.2mm; bending radius: ≥ 25mm (static)/≥ 30mm (dynamic); Tensile strength: ≥ 15MPa; Protection level: IP65 (connection end)

Meets the requirements for G3 level harsh environment use

Connection and authentication

Connection terminal: crimping pin terminal; Certification: CE, UL, IEC 60228

The terminals are precisely matched with the FBM205 module terminal block, in compliance with international safety standards


Installation and maintenance specifications

The installation quality of FBM205 cable directly affects the stability of signal transmission and system reliability. It is necessary to strictly follow the following specifications and comply with the "Code for Construction and Acceptance of Cable Lines in Electrical Equipment Installation Engineering":

1. Preparation before installation

-Check whether the cable model and length meet the design requirements, inspect the appearance for defects such as damaged sheath and exposed conductor, use a megohmmeter to measure the insulation resistance, and ensure that it is ≥ 500M Ω;

-Prepare specialized crimping tools (compatible with 24AWG terminals), shielding layer grounding clips, insulation tape, and other installation materials. The tools must be calibrated to ensure crimping quality;

-Sort out the laying path and avoid parallel laying with power cables (such as 380V motor cables). If it cannot be avoided, the spacing should be ≥ 30cm, or metal cable trays should be used for isolation.

2. Laying and wiring

-Using cable trays or conduit laying methods to avoid direct exposure of cables; When wiring inside the control cabinet, it is necessary to fix it in the cable tray to avoid cables hanging or being compressed;

-Control the laying tension, with a tension not exceeding 100N, to prevent conductor stretching and deformation; The bending radius should be ensured to be ≥ 25mm at the bending point to avoid excessive bending that may cause the shielding layer to break;

-Redundant cables (A and B) need to be laid separately to avoid bundling together and reduce mutual interference; Each cable must be labeled at both ends, indicating the channel number and purpose.

3. Connection and shielding processing

-When stripping the wire, it is necessary to control the stripping length (core wire insulation layer stripping 1.5mm~2mm) to avoid damaging the conductor; After crimping the terminals, a tensile test is required to ensure that they do not come off;

-When connecting the module end, it is necessary to correspond to the channel terminal numbers of the FBM205 module (such as AI1, AO1, etc.), and the redundant channel cables should correspond to the same named terminals of modules A and B;

-The shielding layer adopts a single ended grounding method, which is only connected to the control cabinet grounding bar on the module side through a grounding clamp, with a grounding resistance of ≤ 1 Ω; The shielding layer of the on-site equipment should be suspended to avoid the formation of a grounding loop.

4. Maintenance and testing

-Regularly (quarterly) inspect the appearance and connection status of cables, with a focus on whether the joints are loose and whether the protective sheath is aging. Especially in high temperature and high humidity environments, the inspection frequency needs to be increased;

-Conduct electrical performance testing once a year, including insulation resistance measurement (using a 500V megohmmeter) and signal transmission accuracy testing (achieved through the diagnostic function of the FBM205 module);

-When the system experiences signal fluctuations, cable faults can be investigated through replacement methods. When replacing cables, it is necessary to ensure that the model is consistent and avoid using universal cables as substitutes.


Typical application scenarios and supporting components

The FBM205 cable, as a specialized accessory for the FBM205 module, is highly tied to the module in its application scenarios, mainly concentrated in industrial fields that require extremely high signal reliability. Typical applications include:

1. Petrochemical industry

In the control system of the refinery reactor, the FBM205 cable connects the temperature and pressure transmitters to the analog input channel of the FBM205 module, and also connects the module output channel to the regulating valve positioner. The redundant cable design ensures that even if one cable is damaged in flammable and explosive environments, the system can still maintain stable control and avoid safety accidents.

2. Power production system

In the steam drum water level control system of thermal power units, the cable transmits the water level sensor signal to the FBM205 module, and the module outputs the control signal to drive the feedwater regulating valve through the cable. Its strong anti-interference characteristics can resist the strong electromagnetic interference generated by power plant generators and transformers, ensure the accuracy of water level control, and guarantee the safe operation of the unit.

3. Chemical process industry

In the chemical synthesis process, the FBM205 cable connects the flow transmitter to the module input channel, while transmitting the module output signal to the feed pump frequency converter. The chemical corrosion resistance of cables can adapt to the acidic and alkaline environment of chemical workshops, and precise signal transmission ensures stable feed volume and improves product quality consistency.

4. Recommended supporting components

To ensure system performance, FBM205 cables need to be used in conjunction with the following FOXBORO original components: FBM205 I/O module (P0914XG), P0916AJ 3-layer terminal components, redundant adapters, dedicated crimping terminals, and grounding clips to avoid signal attenuation or equipment failure caused by component mismatch.


Product advantages and selection suggestions

1. Core advantages

-Strong system compatibility: Accurately matched with the electrical characteristics of FBM205 module, it can be used directly without additional adaptation, reducing system integration risks;

-Outstanding reliability: The combination of redundant transmission design and strong anti-interference capability meets the high availability requirements of critical industrial scenarios;

-Good environmental adaptability: Material design that is resistant to high and low temperatures, chemical corrosion, and can adapt to various harsh industrial environments;

-Convenient operation and maintenance: Anti misoperation terminals and clear identification design reduce installation and maintenance difficulty, shorten fault handling time.

2. Selection suggestions

-Determine the cable length based on the distance between the FBM205 module and the on-site equipment. It is recommended to reserve 10% of the redundant length to avoid excessive joints caused by insufficient length;

-In high temperature (>60 ℃) environments, it is necessary to choose a high-temperature resistant upgraded version (working temperature -40 ℃~125 ℃); In high humidity environments, waterproof connection terminals should be used in conjunction;

-It is necessary to purchase through formal FOXBORO channels to avoid the use of counterfeit products. Counterfeit cables may have poor insulation performance, poor shielding effect, and other issues, leading to system failures.


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