Welcome to the Industrial Automation website!

NameDescriptionContent
XING-Automation
E-mail  
Password  
  
Forgot password?
  Register
当前位置:
  • ABB 3HAC6157-1 Floppy sign/supply cable
    ❤ Add to collection
  • ABB 3HAC6157-1 Floppy sign/supply cable

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

    ABB 3HAC6157-1 is an integrated identification/power cable designed specifically for industrial grade floppy disk equipment. Its core function is to simultaneously achieve power transmission and identification signal interaction for floppy disk drives. This cable is mainly suitable for floppy disk storage devices in ABB's early industrial control systems (such as Symphony series DCS and robot control cabinets), providing stable DC power supply and transmitting device identification signals (such as device address and working status feedback), ensuring the collaborative work between floppy disk devices and control systems, and meeting the basic requirements for data storage and reading in industrial scenarios.

    • ¥1284.00
      ¥1342.00
    • Satisfaction:

      Sales: 0

      Review: 0

    Weight:0.100KG
    • Quantity:
    • (Inventory: 99999)
Description

ABB 3HAC6157-1 is an integrated identification/power cable designed specifically for industrial grade floppy disk equipment. Its core function is to simultaneously achieve power transmission and identification signal interaction for floppy disk drives. This cable is mainly suitable for floppy disk storage devices in ABB's early industrial control systems (such as Symphony series DCS and robot control cabinets), providing stable DC power supply and transmitting device identification signals (such as device address and working status feedback), ensuring the collaborative work between floppy disk devices and control systems, and meeting the basic requirements for data storage and reading in industrial scenarios.


ABB 3HAC6157-1 Floppy sign/supply cable

Product Overview

ABB 3HAC6157-1 is an integrated identification/power cable designed specifically for industrial grade floppy disk equipment. Its core function is to simultaneously achieve power transmission and identification signal interaction for floppy disk drives. This cable is mainly suitable for floppy disk storage devices in ABB's early industrial control systems (such as Symphony series DCS and robot control cabinets), providing stable DC power supply and transmitting device identification signals (such as device address and working status feedback), ensuring the collaborative work between floppy disk devices and control systems, and meeting the basic requirements for data storage and reading in industrial scenarios.

It adopts customized structural design, accurately matches the interface specifications and installation layout of ABB floppy disk equipment, and has the characteristics of low loss, anti-interference, and easy installation. It has been widely used in industrial data backup, program loading and other scenarios. It is a dedicated supporting cable for floppy disk equipment in early ABB automation systems, providing basic connection guarantee for system data interaction.


Specification parameters

Basic Information

Model: 3HAC6157-1 Type: Floppy Disk Identification/Power Supply Integrated Cable Applicable Equipment: ABB Industrial Floppy Disk Drive (Suitable for Symphony DCS, Early IRB Robot Control Cabinet)

Specially adapted to ABB specific model floppy disk devices, non universal cables

Electrical performance

Supply voltage:+5VDC (main supply),+12VDC (auxiliary supply) Supply current: maximum 1.5A (+5VDC circuit), maximum 0.5A (+12VDC circuit) Insulation resistance: ≥ 100M Ω (under 500V DC) Withstand voltage: 500V AC (1min, no breakdown, between lines and ground)

Dual voltage power supply meets the different power consumption requirements of floppy disk drive motors and control circuits

Signal transmission performance

Identification signal type: Digital level signal (TTL level, high level ≥ 2.4V, low level ≤ 0.4V) Signal transmission rate: ≤ 1Mbps Signal transmission distance: ≤ 1.5m (under standard length)

Low rate transmission adapts to the interactive requirements of floppy disk device identification signals, ensuring signal stability

Structural parameters

Cable specifications: multi-core cable, including 4 power lines (+5V, GND,+12V, GND) and 2 identification signal lines. Conductor material: tin plated copper (single core wire diameter 0.3mm-0.5mm). Insulation layer: polyvinyl chloride (PVC), thickness 0.15mm-0.25mm. Shielding layer: partial aluminum foil shielding (only for signal lines, coverage rate ≥ 85%). Outer sheath: polyvinyl chloride (PVC), thickness 0.6mm-0.8mm. Connector: one end is ABB dedicated floppy disk equipment interface (8-pin direct insertion type, with positioning buckle), and the other end is system control cabinet interface (10 pin terminal type)

Separate the layout of power lines and signal lines to reduce the impact of power interference on signal transmission

Environmental adaptability

Working temperature: -20 ℃ to 60 ℃ Storage temperature: -30 ℃ to 70 ℃ Relative humidity: 5% -90% (no condensation) Oil resistance: Mild resistance to mineral oil (compliant with IEC 60811-2-1 basic oil resistance standard) Bending performance: Static bending radius ≥ 6 x cable outer diameter, dynamic bending radius ≥ 12 x cable outer diameter

Suitable for relatively stable environments inside industrial control cabinets, not suitable for extremely harsh working conditions

Physical specifications

Cable length: 1.0m (standard length, some versions 0.8m/1.2m) Cable outer diameter: 5.5mm-7.0mm Weight: 0.08kg/m (1.0m length approximately 0.08kg) Color: Outer sheath black, internal cable color separation by function (+5V red,+12V yellow, GND black, signal wire white/blue)

Color differentiation facilitates identification of cable functions during installation and reduces the risk of wiring errors

Security and Certification

Flame retardant rating: UL 94 V-2, IEC 60332-1-2 (single vertical burning) Environmental certification: Early RoHS 1.0 standard (partially lead-free version) Industrial certification: CE (basic electromagnetic compatibility certification)

Compliant with early industrial equipment safety regulations, mainly used in non explosion proof ordinary industrial areas


Performance characteristics

Integrated design, simplified connection: With integrated power supply and identification signal transmission functions, a single cable can meet the dual needs of floppy disk devices without the need for additional power and signal lines, reducing the complexity of wiring inside the control cabinet and lowering installation and maintenance costs.

Stable power supply guarantee: Adopting a dual voltage (+5V,+12V) power supply design, matching the different power supply requirements of the floppy disk drive motor (requiring+12V) and the control circuit (requiring+5V), the power supply current meets the maximum power consumption of the equipment, avoiding equipment crashes or data reading failures caused by insufficient power supply.

Signal anti-interference optimization: The identification signal line adopts a local aluminum foil shielding design, with a shielding coverage rate of ≥ 85%, which can effectively resist electromagnetic interference generated by other equipment in the control cabinet (such as relays, small frequency converters), ensure accurate transmission of identification signals (such as equipment address, working status), and avoid signal errors that may cause equipment to be unrecognizable.

Accurate adaptation and high reliability: The connector adopts ABB's dedicated interface design, with positioning buckle and foolproof structure, which can be quickly positioned during installation to prevent reverse or wrong insertion; The conductor is made of tin plated copper material, which is resistant to oxidation and corrosion, and is not prone to poor contact during long-term use, extending the service life of the cable (average service life of 5-8 years).

Convenient installation and maintenance: Internal cables are separated by function, and with clear interface labeling, power lines and signal lines can be quickly distinguished during installation, reducing wiring difficulty; The outer sheath has moderate flexibility, making it easy to wire within the limited space of the control cabinet. It can also be easily disassembled and replaced for later maintenance.


Working principle

The core function of ABB 3HAC6157-1 floppy disk identification/power cable is to provide stable power supply and identification signal interaction channel for floppy disk equipment. The working principle revolves around "power transmission signal interaction interference isolation", as follows:

Power transmission mechanism: The four power lines (+5V, GND,+12V, GND) in the cable are responsible for different power supply tasks:+5V and corresponding GND provide working power for the control circuit (such as data processing chip, interface circuit) of the floppy disk drive to ensure the normal operation of the control unit; +12V and corresponding GND provide power supply for the motor (disc drive motor, head movement motor) of the floppy disk drive, driving the rotation of the disc and the movement of the head to achieve data reading and writing. The power supply line adopts a dual GND design to reduce grounding resistance, minimize power supply voltage fluctuations, and ensure power supply stability.

Identification signal interaction principle: Two identification signal lines construct a bidirectional signal channel between the floppy disk device and the control system. On the one hand, the control system sends identification instructions (such as device address allocation and startup detection signals) to the floppy disk device through the signal lines, ensuring that the system can accurately identify the floppy disk device; On the other hand, floppy disk devices provide feedback on their operating status (such as device readiness and fault alarms) to the control system through signal lines, allowing the system to monitor the device's real-time operation. The signal line adopts TTL level transmission, with high level (≥ 2.4V) indicating "valid" and low level (≤ 0.4V) indicating "invalid". Simple level logic ensures that signal transmission is not prone to errors.

Interference isolation design: Only the signal line is marked with local aluminum foil shielding. One end of the shielding layer is connected to the grounding terminal of the floppy disk device, and the other end is connected to the grounding terminal of the control system, forming a grounding circuit. When other devices inside the control cabinet generate electromagnetic interference, the shielding layer can block the interference signal from entering the identification signal line, and at the same time, introduce the interference current into the ground through the grounding circuit to avoid interference affecting the accuracy of the identification signal, ensuring the reliability of equipment identification and status feedback.

Equipment collaboration guarantee: The dedicated connectors at both ends of the cable use positioning buckles and foolproof structures to ensure precise docking between the power and signal lines, avoiding equipment damage caused by wiring errors; The power supply voltage and current are precisely matched to meet the power consumption requirements of floppy disk devices, without causing cable heating due to overload, providing a stable physical connection foundation for the collaborative work of floppy disk devices and control systems.


Precautions

Installation specifications:

Before installation, it is necessary to confirm the interface model between the floppy disk device and the control system, ensure it matches the cable connector, and prohibit forced insertion and removal to prevent damage to the interface pins; When inserting the connector, align it with the positioning buckle. If you hear a "click" sound, it indicates that the installation is in place to avoid power interruption or signal loss caused by virtual connection.

When wiring, it is necessary to avoid parallel laying of cables with high-voltage lines (such as 220V AC power lines) inside the control cabinet, with a spacing of ≥ 100mm, to prevent high-voltage interference from affecting signal transmission; When bending cables, the bending radius should be controlled, with a static value not less than 6 times the outer diameter of the cable and a dynamic value not less than 12 times the outer diameter of the cable, to avoid excessive bending that may cause internal conductor breakage.

Power supply and wiring requirements:

Before wiring, a multimeter should be used to check the continuity and insulation of the cable power supply line to ensure that there are no short circuits or open circuits; When connecting the control system interface, it is necessary to strictly follow the cable color and interface identification wiring (+5V to the corresponding terminal,+12V to the corresponding terminal), and it is forbidden to reverse the connection (such as+5V to GND), otherwise it may burn the floppy disk device or control system interface module.

When the floppy disk device is working, it is necessary to monitor the fluctuation of the cable power supply voltage. The+5V voltage deviation should be ≤± 5%, and the+12V voltage deviation should be ≤± 10%. If it exceeds the range, the power supply module should be checked to avoid data reading errors or equipment damage caused by unstable voltage.

Maintenance and testing:

Regularly (every 6 months) inspect the appearance of cables, with a focus on whether the outer sheath is aged or cracked, and whether the connectors are loose or oxidized; In control cabinets with high levels of dust, it is necessary to clean the connectors once a year. Use a dust-free cloth dipped in a small amount of alcohol to wipe the interface pins, remove dust and oxide layers, and ensure good contact.

If there are problems such as the inability to recognize the floppy disk device or data reading failure, the replacement method can be used to check whether the cable is normal. If the device returns to normal after replacing the spare cable, it indicates that the original cable has a fault (such as internal disconnection or damaged shielding layer) and needs to be replaced in a timely manner to avoid affecting system data backup and program loading.

Special usage precautions:

This cable is a specialized accessory for early ABB equipment. Currently, some floppy disk devices have gradually been replaced by USB flash drives and solid-state drives. If a new type of storage device is needed, it is necessary to confirm whether the cable is compatible and cannot be directly used for non floppy disk devices to prevent interface mismatch and damage.

Before reusing cables that have been idle for a long time, insulation resistance testing should be conducted (using a 500V megohmmeter to measure the insulation resistance between lines and ground, which should be ≥ 100M Ω) to confirm good insulation performance before installation, in order to avoid short circuit faults caused by aging of the insulation layer due to long-term storage.

  • User name Member Level Quantity Specification Purchase Date
  • Satisfaction :
No evaluation information
  • ADLINK NuPRO-852 LGA775 Industrial Control Motherboard Maintenance Guide
  • ADLINK NuPRO-841 Industrial Motherboard Maintenance and Troubleshooting
  • ADLINK NuPRO-590 Series Socket7 Industrial Control Motherboard Maintenance Guide
  • Deployment and Troubleshooting of ADLINK MXE-5500 Series Industrial Control Computer
  • ADLINK MXE-200 Fanless Embedded Industrial Control Computer Deployment Guide
  • ADLINK cPCI-6770 Series CompactPCI Motherboard Maintenance Guide
  • ADLINK NuPRO-A301 Industrial Motherboard Troubleshooting Manual
  • ADLINK NuPRO-965 SHB Debugging and Maintenance Complete Manual
  • ADLINK NuPRO-935A Industrial Motherboard Debugging and Maintenance Guide
  • ADLINK NuPRO-865 Single Board Computer Hardware Troubleshooting Guide
  • ADLINK NuPRO-840 P4 Industrial SBC Architecture Maintenance
  • ADLINK NuPRO-770 Full length SBC Configuration and Maintenance
  • ADLINK NuPRO-595 Industrial Half length SBC Motherboard Configuration and Maintenance Guide
  • ADLINK cPCI-6840 Series Single Board Computer Installation, Configuration, and Maintenance Guide
  • Foxboro 43AP Pneumatic Controller Technical Specifications and Selection Guide
  • ADLINK cPCI-3720: 3U CompactPCI Low Power Pentium III CPU Module
  • ADLINK NuPRO-E47: PICMG 1.3 13th Generation Core Industrial SHB
  • ADLINK NuPRO-E43: PICMG 1.3 Core 7th Generation Industrial SHB
  • ADLINK NuPRO-780 PICMG Bus Core CPU Card
  • ADLINK cPCI-6965 6U CompactPCI Core Dual Core Single Board Computer
  • ADLINK USB/LPCI/LPCIe-3488A GPIB Interface Card Selection and Application Guide
  • Rittal SK 3241.700 Blue e+Cabinet Fan Filter Unit
  • ADLINK CPCI-8168 8-Axis Motion Control Card and HSL Network Integration Solution
  • ADLINK PCIe-PXIe-8638 High Speed PXIe Bus Expansion Scheme
  • ADLINK PCIe GIE7x Poe+Frame Grabber Hardware and Power Management Detailed Explanation
  • ADLINK PCIe-7396 Digital I/O Card Deployment Guide
  • ADLINK PCI-8164 Advanced Motion Control Card Deployment Guide
  • ADLINK PCI-8154 Motion Control Card Deployment Guide
  • ADLINK PCI-8134 Motion Control Card Deployment Guide
  • ADLINK NuPRO-E42 Industrial Control Motherboard Deployment Guide
  • ADLINK MXC-6600 Embedded Platform Deployment Guide
  • ADLINK MXC-6000 Industrial Control Computer Deployment and Optimization Guide
  • ADLINK MXC-2300 Embedded System Deployment Guide
  • ADLINK MCM-204 Edge DAQ Deployment Configuration Guide
  • ADLINK MCM-100/102 Deployment Calibration Guide
  • Deployment and Performance Optimization of ADLINK MXC-6400 Industrial Control Computer
  • Selection and Deployment of ADLINK Matrix Series Industrial Control Computers
  • российские промышленные новые машины.Наш отдел дебютировал в 2026 году в России Международная промышленная ярмарка INNOPROM
  • Deeply cultivating the Eurasian industrial market, linking new industrial opportunities between China and Russia
  • Deployment and troubleshooting of ADLINK GIE64+PoE acquisition card
  • Honeywell UMS Security System Troubleshooting Guide
  • Honeywell Expert Series C I/O Troubleshooting Guide
  • ADLINK EOS-1200 Vision System Deployment and Troubleshooting
  • ADLINK DLAP-5200 series AI engine deployment and optimization
  • ADLINK DLAP-4000 Deployment and BIOS Optimization
  • ADLINK Matrix MXC-2000 Deployment and Troubleshooting
  • ADLINK DAQe-2000 series acquisition card calibration and synchronization
  • ADLINK cPCI-6520 Core i7 Processor Blade Engineering Application Guide
  • ADLINK CM1-86DX3 PC/104 Embedded Single Board Computer Engineering Application Guide
  • Honeywell DC1000 Series PID Temperature Controller Engineering Application Guide
  • ALSTOM MiCOM C264 Substation Controller Engineering Application Guide
  • EMERSON AMS 2140 Practical Guide for On site Dynamic Balance and Vibration Analysis
  • ADLINK NuPRO-E320 motherboard deployment and tuning guide
  • ADLINK NuPRO-800 Dual PIII Industrial SBC Maintenance and Upgrade Guide
  • ADLINK NuPRO-598 SBC Maintenance Practical Guide
  • ADLINK MXC-6300 Fanless Embedded Industrial Control Computer Deployment Guide
  • ADLINK Express-BASE7 Carrier Board Quick Deployment and Debugging Guide
  • ADLINK DLAP-211 Edge AI Platform Selection and Deployment Guide
  • ADLINK 7230 Series Isolation DIO Card Selection and Engineering Application Guide
  • ADLINK cPCI-6965 SBC Embedded Installation and BIOS Tuning Guide
  • ADLINK 7200 Series High Speed DIO Card Practical Guide
  • ADLINK DLAP Series Edge AI Acceleration Platform Selection and Deployment Practical Guide
  • DEIF TCM-2 thyristor control module: Wind power cut in control engineering guide
  • DEIF MVR-200 Medium Voltage Relay: Installation and Wiring Engineering Guide
  • DEIF MDR-2 Differential Relay: Engineering Guide for Generator Differential Protection
  • DEIF Delomatic 3 AOM: Engineering Guide for Analog Output Modules
  • DEIF AGI 400 Graphic Interface: Ship and Industrial HMI Solution
  • DEIF BRW-1 Marine Instruments: Installation and Calibration Guide for Offshore Bridge Indicators
  • DEIF AGC 200 Controller: Quick Deployment and Configuration Guide for Generator Sets
  • DEIF AGC-2 Controller: The Ultimate Guide to Automatic Control and Protection of Generator Sets
  • ABB SPA-ZC400 Gateway: REM54x Access to IEC 61850 Ultimate Engineering Guide
  • ABB REM 543/545 Terminal
  • Modular Architecture Analysis of DEIF PPU 300 Ship Generator Controller
  • DEIF DM-4 Marine&Offshore Ship Power Management System
  • Detailed Explanation of DEIF Delomatic Generator Control System Architecture
  • DEIF AGC-4 Mk II Generator Controller Depth Configuration Guide
  • DEIF AGC-4 Generator Controller Configuration and Debugging Guide
  • DEIF PPM Power Management System Operation and Troubleshooting
  • Installation and wiring of DEIF Multi line 2
  • Practical configuration and maintenance of Beckwith M-6280 capacitor bank controller
  • Beckwith M-3311 Transformer Protection Relay Setting and Engineering Application
  • Beckwith M-3311A Transformer Protection Relay Configuration and Optimization Guide
  • Beckwith M-3310 Transformer Protection Relay Complete Guide
  • Beckwith M-0359 synchronous inspection relay
  • Beckwith M-0293A Voltage Regulating Controller Replacement and Debugging Guide
  • Complete Guide to DEIF GPU-3 Generator Protection Unit
  • Installation and I/O configuration of DEIF PPM-3 power management module
  • Beckwith M-3520 Interconnection Protection Relay
  • Beckwith M-3430 Generator Protection Relay
  • Beckwith M-2293B adapter panel replacement GE regulator guide
  • Selection and Networking of Beckwith M-2001C Digital Voltage Regulating Controller
  • Beckwith M-2001B Digital Voltage Regulating Controller
  • Beckwith M-0388/M-0389 Synchronous Inspection Relay Application Guide
  • Beckwith M-0193B Synchronizer Debugging and System Integration Guide
  • Beckwith M-0115A Parallel Balance Module Debugging Guide
  • Beckwith M-0067E On Load Voltage Regulating Controller Selection and Debugging Guide
  • Debugging and Fault Handling of Beckwith M-4272 Digital Busbar Conversion System
  • Beckwith M-3311A Transformer Protection Relay Debugging Guide
  • Beckwith M-3425A Generator Protection Relay Debugging Guide
  • Setting and troubleshooting of Basler BE1-27/59 voltage relay
  • Debugging and troubleshooting of Basler AVC63-12/AVC125-10 voltage regulator
  • Basler L301kc Line Array Camera Technology and Troubleshooting
  • Selection and Debugging of Basler CBS 212A Current Boosting System
  • Selection and commissioning of Basler BE3-25 synchronous inspection relay
  • Basler BE1-32R/32O/U Direction Power Relay Setting and Testing Guide
  • Basler PRS 250 Synchronous Relay Maintenance and Replacement Guide
  • Basler piA2400-17gc Industrial Camera Replacement and Optimization Guide
  • Basler BE1-11g Generator Protection System
  • Basler VR63-4C/UL Voltage Regulator
  • Basler BE1-DFPR feeder protection relay
  • Basler CBS 310/320 Current Boosting System
  • Basler UFOV 250A/260A protection module
  • Basler MVC104/MVC108/MVC232 manual voltage control device
  • Basler XR2002/XR2002F Regulator
  • Basler DECS-400 excitation system
  • Basler DGC-2020 Generator Set Controller: Integrated Control and Debugging Guide
  • Basler MVC-300 Manual Voltage Controller: Characteristics and Engineering Applications
  • Basler MVC Series Manual Voltage Controller: Application and Selection
  • Basler SSR Static Voltage Regulator: A Complete Guide to Debugging and Troubleshooting
  • Basler SR4A/SR8A Voltage Regulator: Detailed Debugging and Troubleshooting Explanation
  • Basler BE2000E Voltage Regulator: Replacement and Application Details
  • Basler DECS-2100 Excitation System: Modular Upgrade and Engineering Application
  • Basler BE1-851 Overcurrent Protection System: A Complete Guide to Professional Debugging and Troubleshooting
  • Basler APR 63-5 Voltage Regulator: Professional Debugging and Troubleshooting Guide for Industrial Generator Excitation Systems
  • Basler BE1-FLEX Protection System: A Complete Guide to Professional Installation, Configuration, and Troubleshooting
  • Debugging and Testing of Basler BE1-700 Relay
  • Basler BE1-87B busbar differential setting test
  • Basler BE1-40Q demagnetization relay setting test