ABB

ABB Stromberg MEM86-3X192K Programmable Memory Board

SKU MEM86-3X192K

Disponibile
  • 12-month warranty
  • Free returns within 30 days
  • Manufacturer: ABB
  • Product No.: MEM86-3X192K
  • Origin Sweden
  • Product Type: Programmable Memory Board
  • Barcode: 85389091
  • Payment: T/T, Western Union
  • Weight: 0.9 kg
  • Dimensions: 2.50cm x 27.90cm x 17.80cm
  • Shipping port: Xiamen
  • Warranty: 12 months

Tags

Quantità

Product Description

Product Overview

The MEM86-3X192K (MEM86-3*192K) is a high-density, general-purpose memory board designed specifically for the Allen-Bradley/Stromberg Digital Reference Controller (DRC) rack systems. Engineered to consolidate hardware footprints, a single MEM86-3X192K replaces up to three independent MEM86-192K legacy boards. This module provides a highly flexible architecture, supporting a hybrid mix of 32 Kbyte EPROMs for firmware, CMOS-type Static RAM (SRAM) for high-speed program storage, and EEPROMs for non-volatile program backup. By integrating Command Line Interpreter (CLIM) and Block Memory (BLKM) functionalities onto a single PCB, it optimizes rack space while enhancing the data processing reliability of high-performance motor drives and industrial control systems.

Technical Specifications

Attribute Specification
Model MEM86-3X192K (3100-MEM)
Brand ABB / Stromberg (Allen-Bradley compatible)
Total Memory Capacity Up to 576 Kbytes (3 x 192 Kbytes)
Memory Types Supported EPROM (27256), SRAM (62256), EEPROM (28256)
Memory Mapping 18 individually software-mapped 32 Kbyte groups
Word Length 16-bit (requires circuit pairs per mapped area)
Power Consumption (Basic) +5 VDC @ 1.2 A (Typical for MS4 configuration)
Backup Battery Varta 100 DKO, 3.6 V, 100 mAH (Ni-Cd)
Operating Temperature 0 to 50 deg C
Humidity 5 to 95% (non-condensing)
Addressing 3 independent I/O address areas via microswitches

FAQs

What are the primary differences between the MS4, ME3, and MS5 configurations?

The 3100-MS4 is the basic memory board equipped with CLIM and Block Memory firmware. The 3100-ME3 serves strictly as a Backup Memory Board featuring high-capacity EEPROM storage. The 3100-MS5 is a hybrid "Basic + Backup" solution that combines firmware execution with EEPROM redundancy for critical parameters.

How is the onboard battery managed for SRAM data retention?

The onboard Ni-Cd battery is automatically charged whenever the rack is powered. It specifically maintains the voltage for low-power CMOS SRAM circuits during power-down. Note that the retention duration is highly dependent on ambient temperature; cooler environments extend the battery's self-discharge cycle.

Can I mix different memory chips in the same group?

Memory groups are mapped in pairs to achieve a 16-bit word length. Therefore, each pair of memory circuits (e.g., two 32 Kbyte chips) must be of the same type and speed to ensure synchronized data processing and prevent bus errors.

Does the board provide built-in voltage monitoring?

The board does not have onboard voltage supervision; instead, it relies on the /PWF (Power Fail) signal from the system bus. If this signal drops to a "0" state, all memory selection signals are inhibited to prevent data corruption during power instability.


Engineering & Installation Guide

  • Microswitch & Jumper Calibration: Before installation, you must verify the microswitch settings (S23, S25, S27) for the three I/O address areas. Because this board replaces three separate legacy boards, incorrect switch positions will lead to address conflicts on the DRC backplane.

  • Memory Mapping Logic: Address areas are separated by the most significant address bit (A14). Ensure that successive map addresses have their A14 bits in different states to avoid selecting the same physical circuit for two different software maps.

  • Thermal Management: For systems utilizing the battery-backed SRAM for critical data, maintain the enclosure temperature below 40 deg C whenever possible. High ambient temperatures significantly accelerate the self-discharge rate of the Ni-Cd battery and reduce its overall service life.

  • Firmware Replacement: When replacing EPROMs (firmware), ensure the chips are seated with the correct orientation in the sockets. Standard 27256 EPROMs should be handled using ESD-safe tools to prevent latent gate damage.

Shipping & Returns

Global Express Shipping

  • Standard Delivery: 4–6 business days via DHL, FedEx, and UPS.
  • Express Dispatch: Same-day dispatch for in-stock orders placed before 2:00 PM (GMT+8).
  • Worldwide Coverage: Serving over 150 countries.

Returns & Warranty

  • 30-Day Guarantee: Returns accepted for in-stock products in original, factory-sealed packaging.
  • 12-Month Warranty: Every industrial component is backed by our technical warranty.
Reviews

MEM86-3X192K

Stock & lead time on request

Call
1 su 1

ABB Stromberg MEM86-3X192K Programmable Memory Board

Only 5 item(s) left in stock
  • Manufacturer: ABB

  • Product No.: MEM86-3X192K

  • Country of origin:Sweden

  • Product Type: Programmable Memory Board

  • Barcode: 85389091

  • Payment: T/T, Western Union

  • Weight: 900g

  • Dimensions: 2.50cm x 27.90cm x 17.80cm

  • Shipping port: Xiamen

  • Warranty: 12 months

Quantità
Visualizza dettagli completi

Product Description

Product Overview

The MEM86-3X192K (MEM86-3*192K) is a high-density, general-purpose memory board designed specifically for the Allen-Bradley/Stromberg Digital Reference Controller (DRC) rack systems. Engineered to consolidate hardware footprints, a single MEM86-3X192K replaces up to three independent MEM86-192K legacy boards. This module provides a highly flexible architecture, supporting a hybrid mix of 32 Kbyte EPROMs for firmware, CMOS-type Static RAM (SRAM) for high-speed program storage, and EEPROMs for non-volatile program backup. By integrating Command Line Interpreter (CLIM) and Block Memory (BLKM) functionalities onto a single PCB, it optimizes rack space while enhancing the data processing reliability of high-performance motor drives and industrial control systems.

Technical Specifications

Attribute Specification
Model MEM86-3X192K (3100-MEM)
Brand ABB / Stromberg (Allen-Bradley compatible)
Total Memory Capacity Up to 576 Kbytes (3 x 192 Kbytes)
Memory Types Supported EPROM (27256), SRAM (62256), EEPROM (28256)
Memory Mapping 18 individually software-mapped 32 Kbyte groups
Word Length 16-bit (requires circuit pairs per mapped area)
Power Consumption (Basic) +5 VDC @ 1.2 A (Typical for MS4 configuration)
Backup Battery Varta 100 DKO, 3.6 V, 100 mAH (Ni-Cd)
Operating Temperature 0 to 50 deg C
Humidity 5 to 95% (non-condensing)
Addressing 3 independent I/O address areas via microswitches

FAQs

What are the primary differences between the MS4, ME3, and MS5 configurations?

The 3100-MS4 is the basic memory board equipped with CLIM and Block Memory firmware. The 3100-ME3 serves strictly as a Backup Memory Board featuring high-capacity EEPROM storage. The 3100-MS5 is a hybrid "Basic + Backup" solution that combines firmware execution with EEPROM redundancy for critical parameters.

How is the onboard battery managed for SRAM data retention?

The onboard Ni-Cd battery is automatically charged whenever the rack is powered. It specifically maintains the voltage for low-power CMOS SRAM circuits during power-down. Note that the retention duration is highly dependent on ambient temperature; cooler environments extend the battery's self-discharge cycle.

Can I mix different memory chips in the same group?

Memory groups are mapped in pairs to achieve a 16-bit word length. Therefore, each pair of memory circuits (e.g., two 32 Kbyte chips) must be of the same type and speed to ensure synchronized data processing and prevent bus errors.

Does the board provide built-in voltage monitoring?

The board does not have onboard voltage supervision; instead, it relies on the /PWF (Power Fail) signal from the system bus. If this signal drops to a "0" state, all memory selection signals are inhibited to prevent data corruption during power instability.


Engineering & Installation Guide

  • Microswitch & Jumper Calibration: Before installation, you must verify the microswitch settings (S23, S25, S27) for the three I/O address areas. Because this board replaces three separate legacy boards, incorrect switch positions will lead to address conflicts on the DRC backplane.

  • Memory Mapping Logic: Address areas are separated by the most significant address bit (A14). Ensure that successive map addresses have their A14 bits in different states to avoid selecting the same physical circuit for two different software maps.

  • Thermal Management: For systems utilizing the battery-backed SRAM for critical data, maintain the enclosure temperature below 40 deg C whenever possible. High ambient temperatures significantly accelerate the self-discharge rate of the Ni-Cd battery and reduce its overall service life.

  • Firmware Replacement: When replacing EPROMs (firmware), ensure the chips are seated with the correct orientation in the sockets. Standard 27256 EPROMs should be handled using ESD-safe tools to prevent latent gate damage.

Global Express Shipping

  • Standard Delivery: 4-6 Business Days via DHL, FedEx, and UPS.
  • Express Dispatch: Same-day dispatch for in-stock orders placed before 2:00 PM (GMT+8).
  • Worldwide Coverage: Serving over 150 countries, including rapid delivery to Saudi Arabia and UAE.

Returns & Warranty

  • 30-Day Guarantee: Returns accepted for in-stock products in original, factory-sealed packaging.
  • 12-Month Warranty: Every industrial component is backed by our professional technical warranty.

Orders are processed and delivered Monday-Friday (excluding public holidays).


For full eligibility, restocking fees, and international return details, please view our official Refund & Return Policy .

TECHNICAL SPECIFICATIONS

Color pattern
Silver
Country of origin
Sweden
Power source
DC Power

Technical knowledge

1756-L73 Firmware Upgrade Guide: v19 vs v21/v31 Decision

Replacing a 1756-L73 does not automatically mean upgrading its firmware. This guide compares v19.013, v21.011 and v31.011, focusing on project compatibility, HMI communications, legacy networks and...

Implementing 3-Switch XOR Ladder Logic with Internal Bit

Implement a 3-SPST switch XOR light circuit in LogixPro or RSLogix 500 using an internal relay bit. Includes truth tables, boolean equations, and verified.

Building a Modbus RTU Network with CompactLogix and DeltaV

Integrate Allen-Bradley CompactLogix, Caterpillar ATS, and generators into DeltaV DCS over Modbus RTU. Covers ProSoft MVI69-MCM, Miille DIN266 gateways.

ONS Instruction Not Energizing OTE in Studio 5000 Ladder Logic

ONS instruction fires but the OTE coil never latches in Studio 5000 because the one-shot is only true for one scan. Use OTL/OTU or seal-in logic instead.

Kinetix 5500 EtherNet/IP Network Switch Requirements and Topology

Configure Allen-Bradley Kinetix 5500 servo drives on EtherNet/IP. Covers CIP Sync, IEEE 1588 V2 timing, Stratix selection, DLR topology, and HMI.

Moving Average Filtering in DCS and PLC Analog Control

A moving-average filter is the sliding-window smoother most instrument engineers drop into DCS and PLC analog paths. Here is how the window works, how N and sample time set lag, and when a...