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  • FOXBORO RH924WA Fiber Optic Network Adapter
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  • FOXBORO RH924WA Fiber Optic Network Adapter

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

    FOXBORO RH924WA is a high-performance fiber optic network adapter designed specifically for harsh industrial environments. It belongs to the FOXBORO I/A Series system core communication component series and is positioned as a key conversion unit between industrial Ethernet and fiber optic networks, responsible for precise conversion of electrical and optical signals and high-speed data transmission. This product focuses on solving core pain points such as long-distance data transmission in industrial sites and communication stability in strong electromagnetic interference environments. It can seamlessly adapt to FOXBORO I/A Series DCS systems and various industrial Ethernet devices, providing reliable fiber optic communication link guarantees for distributed control systems in the fields of power, chemical, oil and gas, and complying with relevant communication standards and safety regulations in the industrial control field.

    • ¥12856.00
      ¥13965.00
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    Weight:0.750KG
    • Quantity:
    • (Inventory: 99999)
Description

FOXBORO RH924WA is a high-performance fiber optic network adapter designed specifically for harsh industrial environments. It belongs to the FOXBORO I/A Series system core communication component series and is positioned as a key conversion unit between industrial Ethernet and fiber optic networks, responsible for precise conversion of electrical and optical signals and high-speed data transmission. This product focuses on solving core pain points such as long-distance data transmission in industrial sites and communication stability in strong electromagnetic interference environments. It can seamlessly adapt to FOXBORO I/A Series DCS systems and various industrial Ethernet devices, providing reliable fiber optic communication link guarantees for distributed control systems in the fields of power, chemical, oil and gas, and complying with relevant communication standards and safety regulations in the industrial control field.


FOXBORO RH924WA Fiber Optic Network Adapter

Brand background and product positioning

FOXBORO, as a core industrial control brand under Schneider Electric, has built a deep technical barrier and market reputation in key industrial fields such as energy, chemical, and power worldwide with a century long accumulation of process automation technology. The I/A Series distributed control system (DCS) and supporting network communication products launched by it have the core advantages of high reliability, strong anti-interference ability, and flexible system adaptability, providing core support for stable data transmission and efficient interconnection of industrial automation systems.

FOXBORO RH924WA is a high-performance fiber optic network adapter designed specifically for harsh industrial environments. It belongs to the FOXBORO I/A Series system core communication component series and is positioned as a key conversion unit between industrial Ethernet and fiber optic networks, responsible for precise conversion of electrical and optical signals and high-speed data transmission. This product focuses on solving core pain points such as long-distance data transmission in industrial sites and communication stability in strong electromagnetic interference environments. It can seamlessly adapt to FOXBORO I/A Series DCS systems and various industrial Ethernet devices, providing reliable fiber optic communication link guarantees for distributed control systems in the fields of power, chemical, oil and gas, and complying with relevant communication standards and safety regulations in the industrial control field.


Core product features and technological advantages

1. Precise photoelectric conversion, high-speed and stable transmission

The RH924WA fiber optic network adapter adopts advanced optoelectronic conversion technology, supporting bidirectional conversion of 100Mbps electrical and optical signals, achieving high-speed and distortion free data transmission. The module is equipped with high-performance optical transceiver components, which can flexibly adapt to multi-mode/single-mode optical fibers according to on-site transmission needs. The transmission distance of multi-mode optical fibers can reach 2km, and the maximum transmission distance of single-mode optical fibers can reach 20km, which can easily meet the communication needs of long-distance distributed control in industrial sites. At the same time, it has excellent transmission stability, with a data transmission error rate of less than 10 ⁻¹ ², ensuring precise interaction between control instructions and monitoring data, and providing core guarantees for stable system operation.

2. Multi interface flexible adaptation, convenient system integration

The product is equipped with a variety of standardized interfaces, including 1 RJ45 Ethernet electrical interface and 1 SC/ST/FC optional fiber optic interface, which can directly connect to RJ45 interfaces of industrial Ethernet switches, DCS controllers, PLCs and other equipment, and achieve long-distance fiber optic communication with remote devices through fiber optic interfaces. Supporting mainstream industrial communication protocols such as TCP/IP, it can seamlessly integrate into FOXBORO I/A Series DCS systems and other industrial automation network architectures without the need for additional protocol conversion modules, greatly simplifying the system integration process and improving network construction efficiency.

3. Strong anti-interference design, suitable for harsh industrial environments

In response to the complex electromagnetic environment of industrial sites, the adapter adopts a fully metal shielded shell and differential signal transmission technology, which has strong resistance to electromagnetic interference (EMI) and radio frequency interference (RFI), and can effectively resist strong electromagnetic interference generated by frequency converters, large motors, high-voltage equipment, etc., avoiding data loss or errors caused by signal transmission interference. At the same time, the product has good dustproof and moisture-proof performance, with a working temperature range covering -20 ° C~60 ° C and a relative humidity adaptability of 5%~95% (no condensation) environment. It meets the harsh industrial environment requirements defined by ISA standard S71.04 and can operate stably in various complex industrial sites.

4. Multiple protection mechanisms ensure safe and reliable operation

The module is equipped with a comprehensive protection circuit, including multiple protection mechanisms such as power overvoltage protection, power reverse connection protection, and port overcurrent protection, which can effectively avoid equipment damage caused by power fluctuations, wiring errors, external circuit failures, etc., and improve product operation safety and service life. At the same time, it supports link status monitoring function, which intuitively displays the power status, electrical interface link status, and optical interface transceiver status through built-in LED indicator lights. When there are problems such as link interruption or signal abnormality, the fault point can be quickly located, reducing the difficulty and cost of operation and maintenance.

5. Modular and convenient installation, efficient and worry free operation and maintenance

The product adopts a standardized modular structure design, with a compact and lightweight volume. It supports two installation methods: DIN rail installation and cabinet panel installation. The installation plan can be flexibly selected according to the on-site cabinet layout, and the installation process is simple and fast, without the need for professional and complex tools. At the same time, it has good compatibility and interchangeability, and can directly replace compatible products of the same series. Operation and maintenance personnel can complete equipment replacement without complex parameter configuration, greatly reducing system downtime and improving operation and maintenance efficiency.


Key technical parameters

1. Core communication parameters

-Transmission rate: 100Mbps (100Mbps) adaptive

-Transmission medium: multimode fiber/single-mode fiber (optional), twisted pair (RJ45 interface)

-Transmission distance: multimode fiber ≤ 2km, single-mode fiber ≤ 20km

-Fiber wavelength: multimode 850nm/1300nm, single-mode 1310nm/1550nm (optional)

-Fiber optic interface: SC/ST/FC (optional, standard square/circular fiber optic connector)

-Electrical interface: 1 RJ45 Ethernet interface, supporting Auto MDI/MDI-X automatic crossover

-Communication Protocol: Supports mainstream industrial Ethernet protocols such as TCP/IP and UDP

-Data error rate: ≤ 10 ⁻¹²

2. Power supply and power consumption parameters

-Power supply mode: DC power supply (DC), supports DC5V/DC12V/DC24V optional (default DC5V)

-Power protection: overvoltage protection, reverse connection protection, protection threshold ≥ 1.5 times rated voltage

-Power consumption: Typical power consumption ≤ 5W, standby power consumption ≤ 1W

3. Environmental adaptation parameters

-Working temperature: -20 ° C~60 ° C

-Storage temperature: -30 ° C~70 ° C

-Relative humidity: 5%~95% (no condensation)

-Protection level: IP40 (IEC 60529 standard)

-Anti electromagnetic interference: compliant with EN 55022 Class A and EN 55024 standards

-Vibration adaptability: can withstand 5-150Hz sine vibration, acceleration ≤ 2g

-Impact adaptability: can withstand a peak impact of 30g (lasting for 11ms)

4. Physical and installation parameters

-Shell material: high-strength metal shielding shell

-Installation method: DIN rail installation, cabinet panel installation

-Dimensions: Standard modular dimensions (approximately 70mm x 40mm x 120mm, subject to actual product)

-Weight: Net weight approximately 200g, shipping weight approximately 350g

5. Status indication parameters

-PWR (power light): green constant light → power supply is normal; Not lit → power failure

-FX 100 (Fiber Speed Light): Green constant light → Fiber link speed of 100Mbps; Not lit → Fiber optic link not established

-FX Link/ACT (fiber link/data light): green constant light → fiber link normal; Green flashing → There is data transmission on the fiber optic link; Not lit → fiber optic link interruption

-TX 100 (electrical port speed light): green constant light → electrical port link speed 100Mbps; Not lit → The electrical interface link has not been established

-TX Link/ACT (electrical interface link/data light): green constant light → electrical interface link is normal; Green flashing → There is data transmission in the electrical interface link; Not lit → Interruption of electrical interface link


Installation and commissioning precautions

1. Preparation before installation

Before installation, it is necessary to verify that the product model (RH924WA) is consistent with the order requirements, and confirm that the fiber interface type, power supply voltage, and other configurations meet the on-site requirements. Check the appearance of the product for damage, the shell for deformation, the interface contacts for oxidation or looseness, and the LED indicator light for integrity. The site preparation needs to ensure that the installation environment meets the working conditions of the product, is away from high-temperature heat sources, strong electromagnetic interference sources, and corrosive media, and reserves sufficient space according to the installation method (DIN rail/panel installation). Prepare suitable fiber optic jumpers, RJ45 network cables, fixing screws, power adapters and other auxiliary materials, and provide professional training to installation personnel to familiarize themselves with fiber optic connection and network configuration specifications.

2. Installation and wiring specifications

During installation, choose the appropriate installation method according to the on-site requirements. For DIN rail installation, the adapter should be smoothly inserted into the rail and locked. For panel installation, it should be firmly fixed with fixing screws to ensure a secure installation without looseness. When connecting optical fibers, it is necessary to plug and unplug gently to avoid damaging the interface with excessive force. After connection, tighten the interface nut to ensure good sealing; Fiber optic jumpers should avoid excessive bending and stretching, with a bending radius of no less than 30mm to prevent fiber breakage from affecting transmission. The RJ45 network cable connection should ensure that the crystal head is firmly crimped, and the network cable wiring should be kept away from strong electrical cables to reduce signal interference. The power wiring should strictly distinguish between positive and negative poles to avoid equipment damage caused by reverse connection. After the wiring is completed, check that all connection points are firm and not loose.

3. Key points of debugging process

Before debugging, first connect the power supply and observe whether the PWR power light is normally on to confirm that the power supply is normal. Subsequently, check the link status and observe whether the TX Link/ACT electrical and FX Link/ACT optical link lights are always on. If they are not on, check whether the network cable or fiber optic connection is normal. Detect the data transmission status through the upper computer or network testing tool, and verify whether the control instructions and monitoring data can accurately interact; If there is a transmission abnormality, the fault can be checked through the status of the LED indicator light. If the FX Link/ACT light flashes abnormally, it may be a fiber optic link fault, and the fiber optic jumper or remote device needs to be checked. After debugging is completed, record various configuration parameters and link status to form a debugging report.

4. Key points of daily maintenance

During daily operation, it is necessary to regularly check the status of the LED indicator lights to confirm that the power supply, links, and data transmission are normal and there are no fault alarms. Regularly clean the dust on the equipment casing and interface, and use a dry brush or compressed air to blow to avoid dust accumulation affecting heat dissipation and signal transmission. Check the connection status between the fiber optic cable and the network cable once a week to ensure that the interface is secure and free from looseness and oxidation; The signal strength of the fiber optic link should be tested once a month, and if the signal attenuation is too large, the fiber optic jumper should be replaced in a timely manner. Avoid randomly plugging or unplugging fiber optic cables or network cables during operation. If maintenance is required, cut off the power first to ensure safe operation; When replacing equipment, it is necessary to choose products of the same model and configuration to ensure system compatibility.

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