KONG -Y
NameDescriptionContent
Location:

3500/25 Enhanced Keyphasor® Module

From: | Author:kongjiang | Time :2025-02-17 | 91 Browse: | Share:

3500/25 Enhanced Keyphasor®  Module 

General Information 

The 3500/25 Enhanced Keyphasor® Module is a half-height, 2-channel module 

that provides Keyphasor signals to the Monitor modules in a 3500 Rack.  The 

Keyphasor module receives analog input signals from proximity probes or 

magnetic pickups and converts them to conditioned digital signals that indicate 

when the Keyphasor mark on the shaft is in line with the probe.  The 3500 

Monitoring System can accept 4 such Keyphasor signals, which the 3500 

Monitoring System modules and external diagnostic equipment use to measure 

such vector parameters as 1X amplitude and phase. 

A 3500 Rack may have 1 or 2 Keyphasor Main Modules in a normal configuration, 

3 or 4 Keyphasor Main Modules for a paired Keyphasor configuration, and 1 of 5 

types of Keyphasor I/O Modules installed.

Keyphasor Main Module (front panel buffered output connectors indicated) Keyphasor I/O Module, with Isolated Internal Terminations Keyphasor I/O Module, with Isolated External Terminations Keyphasor I/O Module, with Non-Isolated Internal Terminations Keyphasor I/O Module, with Non-Isolated External Terminations Keyphasor I/O Module, with Barriers (Non-Isolated, Internal Terminations)

3500/25 Enhanced Keyphasor Module Operation and Maintenance Manual 

Regardless of the Event Ratio you specify, both the input Keyphasor signal and generated Processed Rack Signals have limitations that, among other things, affect the Channel and Module OK Statuses.  The Specification section of this manual details these limitations. You may specify the Event Ratio as a positive, real number (i.e., an integer and/or fractional number) that is either less than or greater than, but not exactly equal to, 1.0.  Although the software will not allow you to specify an Event Ratio of exactly 1.0, you can functionally achieve this by specifying the Events Per Rev with a value of 1 with the Event Setup option.  This configuration supports the majority of typical customer applications and achieves maximum system performance.  This also eliminates what would otherwise be a redundant means of specifying unity Keyphasor rate processing. Noted that, in general, the system is better able to track the input for higher Event Ratio numeric values, since it has more "information" in the form or input pulses with which to work.  This allows the system to better to respond to speed fluctuations or ramping conditions as it tracks the input. There are a few extra considerations to remember when you specify an Event Ratio less than 2.0.  The design of the digital signal processing algorithm uses 2 fundamentally different strategies, one for Event Ratios equal to or greater than 2.0 (which essentially implies frequency division), and the other for Event Ratios less than 2.0 (which implies frequency multiplication).  The DSP code automatically selects the algorithm based on the programmed Event Ratio for each channel.  The large majority of applications will require the Keyphasor module to use an Event Ration much greater than 2.0 to divide down the input signal.  Because of this the DSP code has been optimized to support these applications.  This improves the module’s transient response for frequency division, but degrades the response for frequency multiplication.  For this reason, you should not expect the Enhanced Keyphasor Module to exhibit any reasonable transient response for Event Ratios approaching or less than 2.0. Frequency multiplication processing has 2 additional side effects that are not present when you specify an Event Ratio of 2.0 or greater.  These 2 side-effects are similar in effect and result from the limitations that are inherent in attempting to generate multiple output pulses in response to a single input pulse (or sequence of pulses), which is the essence of frequency multiplication.   1. 2. The Enhanced Keyphasor Module may require a significant amount of synchronization time from when a signal is first applied to the input to a Keyphasor channel to when the first Processed Signal output appears.   Generally speaking, the more significant digits you specify to the right of the decimal point in the Event Ratio, the longer the DSP may take to synchronize to the input and generate output pulses in response.   When the Enhanced Keyphasor Module loses the input Keyphasor signal, a multiplied output at the programmed rate may persist for some time after the input stimulus is lost.

Software Configuration Options This section 

discussed the Keyphasor Module configuration options in detail.  In addition to describing the options, this section provides figures that depict screen views of the 3500 Rack Configuration software.  Several examples illustrate the various option choices on the Keyphasor Module configuration screen.   Depending on the numeric values entered for some configuration parameters, the Rack Configuration Software may restrict certain options, make options unavailable, and/or automatically "force-select" some options.

Keyphasor Module Configuration Options

REFERENCE INFORMATION

These fields are shown at the top of the Configuration Screen and contain information that indicate the location of the Keyphasor Module in the 3500 Rack, the type of associated Keyphasor I/O Module, and an optional label for you to track configuration setups.  Note that you must select the I/O Module parameter as part of the configuration setup.

  • Hirschmann MM20-M4M4T1T1SBH Industrial Ethernet module
  • IC752SPL011 GE control panel
  • GE ALSTOM IR139-1丨063022350丨80801419丨B0037299control card
  • ALSTOM UT150-1 control module
  • ALSTOM AL132丨AL132A Control Card
  • ABB 2CTB802342R0000 surge protector
  • ABB PM118-7BPM1118 MAGNET (NEO) .50LG
  • Tektronix TDP0500 high pressure differential probe
  • Carrier CEPL130403-02-R Microprocessor Board CEBD430403-11-RC 32GB500382EE
  • BENTLY 106M1079-01-Y Power Module Original
  • ABB system module DLM02 original DO610,DO620
  • 1394-SJT22-A servo driver Allen-Bradley servo equipment
  • MOTOROLA SGLF4136FA PLC control system
  • B&R ECPE84-1B Modulus Input Module Quality Service
  • Foxboro FBM213 communication module supply
  • S-093H 3BHB030478R0309 ABB high voltage frequency conversion rack
  • ABB S-123H 3BHB030479R0512 rack
  • ABB 3BHL000406P0103 VFW 30/265Processor unit
  • ALSTOM V4561983-0100 EPIC II ESP controller
  • MOOG G761-3004B5 H38JOGM5VPH Servovalve
  • 3500 BentlyNevada 3500/05-02-01-00-00-00 System rack
  • 3500/05-01-02-00-00-01 Bently Nevada 3500/05 System Rack
  • 3500/05-01-01-00-00-00 BentlyNevada System Rack
  • BentlyNevada 3500/05-02-01-01 System Rack
  • 3500/05-01-01-01-00-00 Bently Nevada 3500/05 System frame
  • BentlyNevada3500/95 System Integrated PC Display
  • 3500/93 Bently Nevada System Display
  • General electric IS215GBIAH1A auxiliary Genius bus interface module
  • MOOG D137-004-006 Servo valve controller
  • MOOG D137-004-005 Industrial controller
  • MOOG D137-004-004 Motion controller
  • D137-004-003 MOOG RDISP 22 operation panel
  • MOOG D138-002-003
  • MC 600 SERIES D138-002-002 MACHINE CONTROLLER MOOG
  • MOOG D138-002-001
  • MOOG B95914-001 Plate and fittings
  • D138-003-010 - Visualization HMI run time license (MACS HMI) for 10 machines
  • MOOG MACS HMI 1 - D138-003-001
  • MOOG D137-002-001 control module
  • MOOG QEBUS-CAN - D137-001-010
  • MOOG QAIO 16/4-V - D137-001-007
  • MOTOROLA MVME7100 - High-Speed Embedded Controller, VME
  • Motorola MVME2432 - VME Embedded Controller
  • Motorola СPU3640FLN3524A - Embedded Processor Module
  • MOTOROLA MVME187-24B01-W36908 - High-Performance
  • Motorola MVME162P-344 - VME Controller, 68040 Processor, Industrial Automation
  • Motorola FLN4234A - Embedded System Controller
  • Motorola MVME2604712 I/O-VME board
  • MOTOROLA MVME-51005E-0163-VME Embedded Controller
  • MOTOROLA MVME162PA-344SE - VME Controller
  • MOTOROLA MVME6100-0161 - High-Performance VME Board
  • MOTOROLA MVME55006E-0161R - Enhanced Performance VME Controller
  • MOTOROLA MVME162-523A - VME Controller
  • Motorola PCB MVME 2434 SBC PMC-HS/GE FANUC PMC661J card
  • Motorola MVME55006E-0163-VME processor board
  • MOTOROLA VME162PA344SE - Enhanced VME Controller
  • MOTOROLA MVME5500 - High-Performance VME Controller
  • MOTOROLA MVME147-023 - Legacy VME Board, Embedded Controller, Industrial Automation
  • MOTOROLA VME162PA-252SE - VME Board, Legacy System Controller, Industrial Automation
  • MOTOROLA MVME6100+5264- VME Board with Memory Expansionerformance Industrial Controller
  • MOTOROLA MVME2305-900 - VME Embedded Controller
  • Motorola MVME3100-1152-Enhanced VME Controller
  • Motorola MVME147-012-Traditional VME Board
  • Motorola MVME147-013-Traditional VME Board
  • MOTOROLA MVME-5101-0131-VME Embedded Controller
  • MOTOROLA MVME5101-0131 - VME Embedded Controller
  • MOTOROLA MVME167P-24SE - VME Controller
  • Motorola MVME7100-0171 - High-Speed Embedded Controller
  • MOTOROLA MVME3100 - High-Performance VME Controller
  • MOTOROLA MVME147-010 - Legacy VME Board,
  • MOTOROLA MVME55006E-0163R - Enhanced Performance VME Controller, Industrial Control Systems
  • MOTOROLA MVME5110-2261 - Enhanced VME Controller
  • MOTOROLA MVME2305-900 - VME Embedded Controller
  • MOTOROLA MVME5100-0163 High-Performance VME Embedded Controller
  • MOTOROLA MVME-147A0-60063-1 - Legacy VME Board, Industrial Automation Applications, Embedded Systems
  • MOTOROLA IPMC761-001 - PMC Carrier Board
  • MOTOROLA MVME6100-163 - Enhanced VME Controller
  • MOTOROLA MVME162-213 - Embedded Controller
  • MOTOROLA MVME162-022A - Embedded VME Board
  • MOTOROLA MVME61006E-0163R+P.N5264 - VME Processor Board
  • MOTOROLA MVME61006E-0161R+P.N5264 - Enhanced VME Processor Board, 1.3 GHz, Memory Card Supported
  • MOTOROLA MVME6100 (01-W3878F14B) - VME Embedded Controller
  • MOTOROLA APPLIED0100-01396 - Applied Computing Board
  • MOTOROLA MVME162PA-344 - VME Controller
  • MOTOROLA MVME2100 - Low-Cost Embedded VME Board
  • Motorola MVME5100-VME embedded controller, high-speed data processing.
  • MOTOROLA MVME162-202 - Embedded Controller, VME
  • MOTOROLA MVME7100-0173-2G - Embedded Controller
  • TRICONEX 2301 - Digital Output Module, High-Speed, Industrial Systems
  • TRICONEX 2351 Analog Input Module, High-Precision
  • TRICONEX 2401-Digital Input Module, Compact
  • TRICONEX 2101 Main Processor Module, Modular, High-Performance
  • TRICONEX 2381 - Digital Input Module, Compact Design, High-Precision
  • TRICONEX 9566-810 Power Supply Module, Modular
  • TRICONEX 8312 - Communication Module
  • TRICONEX FTA-544 Termination Assembly Modular
  • TRICONEX 3604E - TMR Digital Output Module, High-Precision
  • TRICONEX 9566-810F Power Supply Module, Compact
  • TRICONEX 3451 Analog Input Module, Compact
  • TRICONEX 3211S-analog input module
  • TRICONEX DI3301S2 Digital Input Module
  • TRICONEX 3481S2 Analog Output Module, Redundant
  • TRICONEX 3511 Main Processor Module, Modular
  • TRICONEX 3101 Main Processor Module
  • TRICONEX 8111 Communication Module
  • TRICONEX 4210 Analog Input Module
  • TRICONEX 4211 Analog Input Module
  • TRICONEX CIM3211S2 Communication Interface Module
  • TRICONEX MA2211-100S2 Communication Module, Redundant
  • TRICONEX MA2211-100 Communication Module, Compact
  • TRICONEX AO3481 Analog Output Module
  • TRICONEX 3501TN2 - Main Processor Module
  • TRICONEX 3623T Digital Output Module High-Precision
  • TRICONEX 3009 Main Processor Module, High-Speed
  • TRICONEX 3009X - Main Processor Module
  • TRICONEX 8310 Communication Module
  • TRICONEX 3008 - Main Processor Module, Modular, High-Speed
  • TRICONEX 3301-Digital Input Module
  • TRICONEX 3700A-Communication module, high performance
  • TRICONEX 3504E - Main Processor Module
  • TRICONEX 3503E Main Processor Module
  • TRICONEX 3481S Analog Output Module
  • TRICONEX 3351 Analog Input Module
  • TRICONEX 3401 Analog Input Module
  • TRICONEX RXM4201 Communication Module
  • TRICONEX RXM4200-3 - Communication Module
  • TRICONEX 3624 Digital Output Module
  • TRICONEX 3704E - Digital Input Module