Pall PCM500 Operating Instructions Manual

OPERATING INSTRUCTIONS
Pall®PCM500 Series Portable Fluid Cleanliness Monitor
PREFACE
The Pall PCM500 On-line Fluid Monitor has been developed to provide accurate and continuous information on the cleanliness of aqueous solutions, hydraulic fluids and circulatory lubrication system fluids. Fluid contamination levels monitored are then converted to the widely used contamination codes: ISO4406, SAE AS4059 table 1 (NAS 1638) and AS4059 table 2. The result data can be exported to Flash Drive, Printer, PC, PLC or network device..
The self-contained unit provides a portable fluid contamination monitor that can be used with a range of fluids, including mineral oils and aqueous solutions. Fluid change procedures are included in this manual and these help ensure the PCM500 monitor is adequately flushed prior to testing on an alternative fluid application.
The contents of these operating instructions should be read before attempting any aspects of installation, operation or maintenance.
The product has been tested and quality controlled in accordance with Pall standard procedures. The customer should carefully inspect the product and ensure it is not damaged and or unsuitable for use. It is the user’s responsibility to check actual operating conditions to ensure the PCM500 monitor is compatible with the application and is operated within local safety codes.
NOTICE TO USERS
The PCM500 user manual is provided to assist users in maximising the benefits of the PCM500 portable fluid cleanliness monitor. As part of the continuous improvement process that Pall adopt in the development of technology and satisfying customer requirements, this information or procedure may be subject to change. Pall welcomes feedback from users who should contact their designated Pall Service Centre. Please note the PCM500 is shipped to users with, a protective fluid, Rust veto NTP 32, which is miscible in both aqueous liquids and oils. Please ensure the unit is flushed out before running tests. The unit should be run for at least three full test cycles on the system fluid before performing a reliable test.
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Important: Some fluids may react with Rust Veto to create gels, which can result in functional issues within the PCM500. One example is Mono Ethylene Glycol (MEG). Please check with Pall if there is doubt over the compatibility of test sample and Rust Veto transit fluid.
Important: If the equipment is used in a manner not specified by the manufacturer, the protection provided by the equipment may be impaired.
Important: The PCM500W model is fitted with a sensor measuring relative humidity in oil. Do not use with water bearing fluids or permanent damage will occur.
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Contents
Section 1 Describes the environmental, mechanical and electrical aspects of the PCM500
monitor to include product specifications.
Section 2 Inspection, packaging and guidance note
Section 3 Description of the PCM500 monitors main items
Section 4 PCM500 principle of operation
Section 5 Pre-check and connection of the PCM500 to a fluid system
Section 6 General operation of the PCM500 monitor, including communications to
peripheral devices.
Section 7 Provides communication protocol for PLC control through RS232 Com port
Section 8 Details the fluid change procedure
Section 9 Describes the PCM500 monitor function codes, possible causes and corrective
actions.
Section 10 Spare parts list
Section 11 Covers the disposal of equipment
Appendix A Details the Pall PCM500 series worldwide aftermarket and calibration service.
Appendix B Details the Mesh Screen Manifold exchange procedure
MANUAL PART NUMBER ISSUE DATE
MA-PCM500 (Draft) 31/08/2015
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WARNINGS, CAUTIONS AND NOTES
Care must be taken in referring to this manual so as to ensure adherence with all warnings, cautions and important notes. These carry information related to the safety of personnel and the integrity and satisfactory operation of plant.
WARNINGS: THESE ARE INSTRUCTIONS THAT DRAW ATTENTION TO THE RISK OF INJURY OR DEATH.
Cautions: These are instructions that draw attention to the risk of damage to the product, the process, the equipment or the surroundings.
Important: These are instructions that draw attention to information that will aid installation, operation or maintenance.
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Labels affixed to PCM
Fuse
DC
F4A H250
Caution label attached to Battery cover
VDC
Label indicating DC power and Fuse rating
Label indicating refer to manual
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Contents
Page Preface 2 Declaration of Conformity 4 Warnings, Cautions and Notes 5
Section 1: PCM500 and PCM500W Specification and Requirements
1.1 General Description 7
1.2 Fluid Environment 7
1.3 Ambient Environment 8
1.4 Electrical Requirements 8
1.5 Fluid System Connections 8
1.6 Product Specification 9
Section 2: PCM500/PCM500W Inspection and Packaging. 10
Section 3: PCM500/PCM500W Description of Monitor. 10
Section 4: PCM500/PCM500W Principles of Operation
4.1 General Principles 11
4.2 HMI Control Panel 11
4.3 Test Sampling 11
4.4 Communication Panel 12
4.5 Power Schematic 12
4.5 Battery 13
Section 5: PCM500/PCM500W Connecting the Monitor
5.1 Connection Options 14
5.2 Connections 15
5.2.1 High Pressure Line 15
5.2.2 Low Pressure Line 15
5.2.3 Reservoir Sampling 16
5.2.4 Bottle Sampling 16
5.3 Operational Checks 17
5.4 Installation Checks 17
Section 6: PCM500/PCM500W Getting Started
6.1 General 17
6.2 System Requirements 17
6.3 Screen Button Description 18
6.4 The Screens Flow Chart 19
6.5 Example Screen 20
6.6 Start-up Sequence 20
6.7 Sampling 21
6.8 Test Point and Fluid Setup 23
6.9 Code Alarm Set-up 25
6.10 Data manager Screens 25
6.11 Tools Screens 27
Section 7: Interface Protocol – PLC control through DB9 Serial Port 30
Section 8: PCM500 / PCM500W Fluid Change Procedure 33
Section 9: PCM500 / PCM500W Function Codes and Corrective Actions 34
Section 10: PCM500 / PCM500W Spare Parts List 38
Section 11: PCM500 / PCM500W Cleaning, Maintenance & Disposal of Equipment 39
Appendix A: Calibration and Aftermarket Services 40
Appendix B: PCM500/PCM500W Mesh Manifold Exchange procedure 41
Pall World wide warranty 43
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Section 1: Pall PCM500 and PCM500W Fluid
Cleanliness Monitors
Specification and Requirements
1.1 General Description
The Pall PCM500/PCM500W is specifically developed as a portable diagnostic monitoring device that provides an assessment of system fluid cleanliness. A fixed display/controller allows for simple menu driven input of sample identification, monitor configuration and data output in ISO4406, SAE AS 4059 Table 1 (NAS 1638) or SAE AS 4059 Table 2 formats. The display/controller shows the test results, an option to graph results and this data is automatically stored for subsequent trending and evaluation. The self-contained design provides for a portable fluid contamination monitor that can be used with a range of fluids including mineral oils and aqueous solutions. Note: The PCM500W should not be used for aqueous solutions. Fluid change procedures are included in this manual and these help to ensure the PCM500 monitor is adequately flushed ready for an alternative fluid application
See Pall Datasheet M&EPCM500EN for full technical specification
The full technical specification is given below.
1.2 Fluid Environment Operating Pressure range 0 to 315 bar (4,570 psi) maximum Operating Viscosity range 1.5 to 450 Centistokes (30 to 2,200 SUS) Operating System Mineral Oils 10C - 80ºC (50°F - 176°F) Temperature Water Glycols 10ºC - 60ºC (50°F - 140°F)
Water Based Fluid 10ºC - 60ºC (50°F - 140°F) Fuels 10ºC - 40ºC (50°F - 104°F) Industrial Phosphate Esters & Polyesters 10ºC - 80ºC (50°F - 176°F)
Be aware of possible danger associated with high oil temperatures and exposed metal surfaces of the PCM500
Fluid Compatibility
Aqueous solutions having a pH <11.0, water glycols, high water based fluids, petroleum based fluids, industrial phosphate esters, mineral oils and synthetic fluids. Do not use Acetone based fluid.
Seals Fluorocarbon (Viton)
WARNING: Health and Safety. Observe caution when handling fluids and pay attention to instructions of safe use in the Material Safety Data sheet and COSHH regulations. Wear protective clothing if prescribed; e.g. safety gloves, clothing and footwear.
Caution: Health and Safety. Ensure there is adequate lighting to operate the equipment. Observe local regulations for factory use.
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Section 1: Pall PCM500 and PCM500W Fluid
Cleanliness Monitors
Specification and Requirements
1.3 Ambient Environment
Operating Temperature range 5°C - 40°C (41°F - 104°F) Storage Temperature range (Monitor drained of fluid) -20°C to 55°C ( -4°F to 131°F) Dust and water protection IP65 (NEMA 4) Relative Humidity 95%rh non-condensing Operating Altitude <2000 metres
WARNING: Do not use the PCM500 Series Monitor in an explosive atmosphere
1.4 Electrical
External Mains Power Supply Unit Input 100 – 240 VAC (Auto Ranging) (PSU) Accessory Frequency 50 – 60 Hz Single Phase.
Output 48V DC
Input Fuse Quick Blow, 4A 5x20mm (250V) Optional Mains Supply Unit Input 100 – 240 VAC (Auto Ranging)
Frequency 50 – 60 Hz Single Phase. Output 24VDC
Internal Battery 12VDC Lithium Ion rechargeable.
Battery Life Typically 35 - 40 samples depending on
cleanliness levels & oil viscosity
Communications USB 1 (Data Acquisition)
USB 2 (PC Setup of PCM) USB 3 (Printer) Ethernet Cat5 (Remote control & Data Acquisition) RS232C (PLC Control) Voltage Free Contacts (Alarm output – contact rating 1 Amp @ 24VDC)
1.5 Fluid Connections
Inlet – 2 options High Pressure:
Hose with ¼” BSP female swivel fitting and Metric, Imperial or NPT Test Point connector options.
Low Pressure:
Hose direct coupled on ¼” BSP female swivel fitting. Sampling stalk (for bottle sampling)
Outlet M10 male fitted to 6mm OD. Clear plastic hose, with
straight adapter and cap.
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Section 1: Pall PCM500 and PCM500W Fluid
Cleanliness Monitors
Specification and Requirements
1.6 Product Specification
Weight 11 Kg (24 lb) Dimensions 400 x 260 x 250 mm (15.75” x 10.2” x 10“) Monitoring range ISO4406 11/9/7 to 23/21/17 Monitoring range SAE AS4059F Table 1 (NAS1638) 1 to 12 Monitoring range SAE AS4059F Table 2 >4µm: 1 to 12, >6µm: 1 to 12 and >14µm:
1 to 12
Accuracy ±1/2 ISO4406 Code
Water-in-Oil (PCM500W only) %rh. ± 2% at 5 to 95%rh (non-condensing) (PPM switchable but requires C1, C2, 0 to 100% full range C3 & C4 fluid constant input. Contact PALL representative).
Enclosure Material and Flammability ABS UL94 V-0 Enclosure Gasket Seals Silicone Rubber Noise Level <70 dBA
Foreseen misuse of equipment
Within this manual are cautions and warnings to highlight potential dangers associated with operation of the PCM500. Here are a few points of note on misuse of the equipment.
A danger to the user can arise from connecting the PCM500 to a pressured system above the working limit, and / or, using an incorrect high-pressure connection.
Damage to the PCM500 can occur from using incompatible fluids.
A danger to the user and damage to the PCM500 can be from an incorrect mains voltage supply.
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Section 2: Pall PCM500 and PCM500W Fluid Cleanliness Monitors
Section 3: Pall PCM500 and PCM500W Fluid Cleanliness Monitors
2.1 Inspection and Packaging
The PCM500 is shipped in a transportation case. Use this case for re-shipping the PCM. Visually inspect the case for signs of external damage that may have occurred during shipping and bring any damage to the attention of the shipper.
Inspect the interior of the case for damage to the contents as listed below. Compare the contents of the case with the shipping papers to assure all the content is present. If any items are missing, contact Pall or an approved agent.
The PCM500 package comprises of:
• Integrated PCM500 series monitor with
sample hoses
• Power supply unit
• Mains power lead
• PCM500 to PC communications cable
• PCM500 series Operating Instructions on
CD ROM
• PCM500 series Quick Reference Guide
• Fluid Sampling stalk
• High Pressure test point connector
(Choice of Imperial, Minimess or NPT)
• Certificate of Conformity
• Certificate of Calibration Verification
• Packing note checklist
3.1 Description of the Monitor
The PCM500 is designed and built for light Industrial use while maintaining aesthetic and user friendly ergonomics. See section 1 for full specification. The materials are selected to meet the various fluid and environmental conditions that the PCM500 is likely to be subjected during operation.
As a self-contained unit, including sampling hose and adapters, the user is able to connect the PCM500 on-line or sample fluid directly from a system reservoir without breaking lines thereby avoiding extraneous contamination.
The PCM500 cleanliness monitor provides numerous display functions to assist the user at all stages of operation and provides function codes to warn of any problems with both the PCM500 and system fluid.
1. HMI (display/controller)
2. Communication Ports
3. Robust case with carry handle.
4. Integral 12VDC battery
5. Printer storage compartment
6. Last Chance Filter Housing
7. Hose Storage
8. Mesh Screen block
9. Power input and Fuse
The instruments’ specific serial number and calibration/service record sheet is also included. It is important to keep this in a safe place and return them with the unit for future annual service requirements.
Caution: Health and Safety. Ensure there is adequate lighting to operate the equipment. Observe local regulations for factory use.
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Section 4: Pall PCM500 and PCM500W
External power connected and
Series Fluid Cleanliness Monitor
Principles of Operation
4.1 General Principles
Upon starting a test sequence the PCM500 will self-prime and perform internal checks on the sample fluid condition. This is an automatic part of the test time. After approximately 30 seconds the PCM500 will start the analysis. The screen will display a progressive time bar for the duration of the sampling period and identify the specific stage in the monitoring cycle above the progress bar.
During the analysis cycle the sample fluid is presented to mesh screens in a specified sequence, which captures contamination that is larger than mesh pore size. Particle concentrations are measured and computed for each specific mesh.
BUTTONS:
• START/STOP/REPEAT (test)
• ON /OFF
The test Start/Stop button is active on release. The ON button is active on release but OFF requires pressing for 2 ­3 seconds to shut down.
Blue LED
On Off Flash On On
x
4.3 Test sampling
Green
LED
x No external power (battery
x PCM500 On - Operational /
Red Description
battery in charge mode.
only)
Standby
x Test in Progress
x Hardware/Sampling problem
detected
During the sampling sequence, data is constantly analysed to identify any excessive variance in temperature, viscosity, and pressure to ensure results are not spurious. The PCM500 will advise the user by function codes, if any excessive variance occurs.
4.2 HMI Control Panel
The HMI LCD display is designed to provide clear viewing of the screen menus and test data. The test sample sequence is initiated by use of the primary function keys. In edit mode a keyboard is displayed on the screen, which enables users to enter, or edit data including sample points and fluid types.
There are three light emitting diodes (LED) to indicate PCM500 operational status and two soft­touch control buttons.
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4.4 Communications Panel
1
1 USB-A Socket 1 Text file upload/download from memory device
2 USB-B Socket PC connection for setup/control of PCM500
3 USB-A Socket 2 Printer connection
4 DB9 Female RS232 / PLC control (See section 7)
5 2-Pin Socket Voltage free contact. Relay
6 RJ45 Cat5 Ethernet 10/100 base
Screen indication of valid port connection
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3
An indication of battery charge can be seen in the lower right corner of the display.
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U E PR
A row of four small boxes in the bottom right corner of the display screen indicates when a port connection is active.
U = USB-A 1 E = USB-A 2 R = RS232/PLC P = Ethernet
External Supply
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Align the red dots and push to connect
4.5 Power Schematic
The PCM500 is normally powered by a battery located in the front of the unit behind a plain panel. This has capacity at full charge to power the monitor for an average of 40 tests (depending on oil viscosity). A power supply unit (PSU), supplied as part of the PCM500 package, allows the monitor to be run from mains power and to charge the battery.
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Grip connector outer body and pull straight to disconnect.
Important:
The PSU cable connection uses a push – pull action on the outer body and both connector and receptacle align through a ‘red dot’ location mark. DO NOT attempt to remove by rotating the connector.
Important:
The monitor should not be operated with the battery pack disconnected. If a power outage occurs on mains supply during testing the battery will maintain power to the PCM to prevent loss of data and allow for a safe shut down
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4.5 Battery
Important: The monitor should not be
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In the event of a battery replacement the following procedure should be followed.
operated with the battery pack disconnected. If a power outage occurs on mains supply during testing the battery will maintain power to the PCM to prevent loss of data and allow for a safe shut down.
WARNING: Use only battery packs supplied by the manufacturer or Pall agent. Serious damage will occur if a battery of different chemistry or specification is used.
4. The battery connector is removed by pulling straight on the outer body. Do not rotate the connector, otherwise damage will result.
5. When connecting the new battery, align the red dots between connector and receptacle before insertion.
1. Ensure the PCM500 is OFF and the external mains power supply disconnected. 2 . Remove the two M4x10 hex socket screws from the battery cover and lift out the cover and then the printer storage cover.
6. Replace the printer and battery covers and fix with the M4 hex socket screws.
3. Remove the printer if present to allow full access to the battery connector
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Section 5: Connecting the PCM500
5.1 Connection Options
A general checklist for the user before starting is given in section 5.3 and also in the ‘Useful information’ quick reference card for PCM500 unit.
PCM500 is configured for two hose operation, inlet and return and these are stored within the rear of the instrument. The high-pressure hose is used for both high and low-pressure sampling. Fluid entering the PCM500 is filtered for contaminant larger than 65µm diameter by a mesh cartridge element (Last Chance Filter). This element is user changeable. In the event of a blocking filter, fluid entering the PCM will be restricted. The PCM will detect a loss of fluid and produce an error code and message on the display.
Caution: In the interests of safety, always remove the end cap from the return line before connecting the inlet
hose to high-pressure. If the PCM Pressure Reduction Valve does not regulate properly then excess outlet pressure can escape through a relief-valve into the return line. NEVER LEAVE A PCM CONNECTED TO HIGH-PRESSURE WITH THE RETURN LINE CAPPED.
If the return line is capped or blocked and a fault occurs with the Pressure Reduction Valve, then to prevent damage to the internal circuit a secondary relief valve will exhaust through a diffuser element at the rear of the PCM above the return outlet. It is important, therefore, to be aware of a possible loss of system fluid.
See the below image of diffuser location.
The sample take-off point in pressure systems should be cleaned of contaminant before connecting the PCM hose and in both high and low pressure sampling modes the return line must be unrestricted and allowed to drain into a waste container or system reservoir.
The PCM500 can be connected in various ways. High-pressure mode is considered to be the most appropriate to achieve representative sampling.
It is important to note that due to the very small bore through the high-pressure connector it must be removed from the inlet hose when sampling below 1 bar pressure. If not, an error may occur through insufficient fluid flow into the PCM.
When sampling a closed system, it is advised to flush the PCM with one test to waste to prevent cross contamination by fluid remaining in the PCM from a previous test.
Safety Relief Exhaust Point
Caution: Do not position the PCM that makes it difficult to disconnect power.
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5.2 Connection Options
5.2.1 High Pressure Line (>1 to 315 bar)
5.2.2 Low Pressure Line (0 - 1 bar)
<1 bar at test point: - remove HP connector and couple hose direct.
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5.2 Connection Options
5.2.3 Reservoir Sampling (0 bar: - Direct coupled hose or use sampling stalk. Remove
high-pressure connector)
Note: Ensure sample point and hose connection are
cleaned before mating
5.2.4 Bottle Sampling (0 - 1 bar)
When sampling from a bottle or container, it is advised to run a single test to waste with a clean, compatible fluid ( ISO 12/10/8) and remove any residual contaminant from the PCM500. Depending on viscosity and cleanliness, the PCM500 may require up to a litre of fluid sample for a bottle test. Always ensure the containers are thoroughly cleaned prior to introducing a fluid sample..
When bottle sampling it is important to prevent extraneous contaminant entering the sample, such as may be found on the outer surface of the HP hose connection. It is advised to use the sampling stalk provided, which should be kept in a clean condition. In order to check the repeatability of cleanliness results, a large sample (>3 Litre) may be cycled into the same container and averaged over a 3-test run for example.
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5.3 Operational Checks
5.4 Installation Checks
Preparation checks before going to the installation to be sampled.
Caution: The PCM500 display touch sensitive
screen must not be pressed with a sharp or pointed implement. Finger contact is sufficient to operate the display menu icons and keyboard.
Press and release the PCM500 start button
The Control panel green LED
will flash within a few seconds
and the PCM500 enters the start-up phase. After a short period the display will turn on and a screen will appear with Pall logo. The next phase of start-up is test firing of the internal valves (six clicks). Following this the main menu screen is visible. If the PCM fails to power up on battery, connect the external PSU and check the blue LED on the front panel is ON. If not, check or replace the input fuse with the correct value. If the PCM fails to start, consult Pall.
First screen
At installation to be sampled
1) Access the hoses at the rear of the PCM500.
2) Ensure the hose connectors are clean and free from any visual contaminants.
3) Ensure the installation to be sampled is in operation and has been running for a minimum of 30 minutes prior to taking the sample in order to distribute the contamination as evenly as possible within the fluid. This is necessary to allow a representative fluid sample to be taken.
4) Connect the clear return line hose to the system reservoir or suitable capacity container ensuring cap is removed
5) Connect the black hose to the appropriate sampling point. Check for any leakage, rectify as required.
Warning: Ensure the system operating pressure
is within the PCM500 monitor specified limitation of 315 bar, 4,570 psi maximum.
6) The PCM500 can now be switched on
and the screen sequence followed. The specific procedure for start-up is detailed in section 5.4 and section 6 ‘Getting started’.
2. If the PCM500 has been used previously with a different fluid to the new sample then fluid change procedures detailed in section 7 should be adopted.
3. Switch off the PCM500 and you are now ready to proceed to the installation to be sampled.
Section 6: Getting Started
6.1 General
This section of the operating instructions enables a new user to perform tests using the PCM500 Cleanliness Monitor in a short space of time. It does not instruct the user in sampling techniques and the user should consult Pall for guidance on recommended sampling points.
6.2 System Components
• PCM500 Cleanliness Monitor
• Power Supply Unit
• Battery Pack
• Bluetooth / USB Printer (Option)
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6.3 Button Descriptions
Main Menu
Navigation
Editing & Data
Warnings
Tools and Functions
Communi­cation
Testing
Home
Previous
Delete
Critical
Set Label
Export
Set-up
Confirm
Create
Warning
Clock
Bluetooth
Setup
Tools
Undo
Open
Shutdown
Date
Wi-Fi Setup
File Info Language
Cancel Up Down
Edit
Contact
Format
Comms
Port
Print
ISO 4406
Format
Forward Back
Temp.
Format
AS 4059
Format
Data Management
Information
Test Point
Upload to Flash Drive
PCM500
Spec
Fluid
Download
to PCM
Mesh
Settings
Test Label
Test Label
Battery
Data
Water in Oil Repeat
Result
Warning
Control
Panel
Select All
Comms.
Ports
Alarm Set-up
Graph
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6.4 Display Flow Chart
The display flow chart can be used to help the new user become familiar with the PCM500 display operating sequence. The flow chart consists of a number of views using the previous Icon listing to indicate their access within the screens.
START
Language
Current setup
Testing
MAIN MENU
Tools
Information
Data Manager
Test
Result
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MAIN MENU
6.5 Example Screen
The screen below is an example of those that will be seen when using the PCM500. An explanation of common keys is incorporated here to prevent repetition.
The screens are structured into four main groups; Testing, Tools, Data Manager and Information. The home key will always return the user to the main menu. There is a flag icon that denotes the language setting. Use this active icon to change language setting.
An example screen shot of the PCM500 main menu:
If the PCM500 is out of calibration, requires an annual service or other intervention a warning screen will inform the user at start­up. This is to ensure the user keeps the PCM500 fully serviced and helps ensure the integrity of the high-pressure part of the instrument.
Calibration Expired Mesh Test Limit Exceeded
Press the contact button to open a contact details screen or proceed to home (Main Menu).
PCM500W – SERIAL No. 2345 MESH TEST REMAINING: 1234 CALIBRATION DUE: 2016/10/24
CUSTOMER OR UNIT IDENTITY HERE
6.6 Start-up Sequence
Press and release the power on/off button on the front panel. This will power-up the PCM500 monitor and the green LED light will flash for several seconds. Whilst the unit powers up, the display will activate and the following screens appear:
Splash screen
PALL CORPORATION
WWW.PALL.COM
Support / Contact Pall
Contact screen for technical support
In the event of a major fault the next screen will appear and the PCM must be closed down and the problem reported to your local distributor or Pall Corporation.
HARDWARE FAULT REFER TO MANUAL
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Main Menu Screen
PCM500W – SERIAL No. 2345 MESH TEST REMAINING: 1234 CALIBRATION DUE: 2016/10/24
CUSTOMER OR UNIT IDENTITY HERE
The main menu includes PCM500 serial number, mesh test detail, calibration date, and customer or unit identity if installed.
To the right hand side are buttons to access menus for testing, tools, data manager and information,.
6.7 Sampling
Sample can be on-line, from a reservoir, or bottled oil sources. Refer to sections 1 ‘Specifications and section 5.1 ‘Connection Options’.
On Line or Tank Sampling Routine
From the main menu press the test button
The user will be presented with a Test Configuration screen. If the parameters are correct then advance to the next screen using the right arrow button. To edit or change the setup select one of the top three left hand buttons.
The time and date and a 5-stage battery indicator is in the lower right corner.
To the bottom left is a button icon indicating the languages that are available. Press to select a different language.
Language select screen
Languages are installed for the following countries.
• Denmark
• Finland
• Norway
• Sweden
• Netherlands
• Poland
• Portugal / Brazil
• Italy
• Germany
• France
• Spain
• USA / UK
Test Point screen:
TEST POINT NAME
FLUID NAME
TEST LABEL
Final Check Screen:
TEST POINT NAME
FLUID NAME
TEST LABEL
START
Check the parameters are correct then Start test using RIGHT arrow button.
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Warm Up Screen example.
A single test result screen
If the sample fluid temperature is below the value set in Test Point, the PCM will enter a warm-up cycle which pumps fluid continuously until the temperature measured in the PCM circuit is at the target temperature.
TEST POINT NAME
TEST 1 OF 3
WARM UP
24°C TARGET 45°C
WATER IN OIL 50%rh
Important: The PCM can tolerate up to a 1°C per
!
minute change in sample temperature during a
measurement cycle. It is important, therefore, to stabilise PCM temperature close to the system temperature for measurement accuracy.
Once into the test measurement a progress screen provides real-time test data. The test can be cancelled at any time through the Cancel button icon.
RESULT
TEST NAME: NEW OIL
TEST POINT: LUBE RESERVOIR
FLUID: 32 GRADE
CODE: ISO4406 21/18/14
WATER IN OIL 50%rh
TEMPERATURE: START 25°C END 26°C
TIME & DATE: 12:15 2015/10/24
WARNINGS:
NONE
Screen for multiple test results.
UP and DOWN buttons allow access to all test results in the sequence. The results are automatically saved to memory and can also be viewed through the Data Manager screens.
The options from the result screens above are to transfer on USB; Print; Repeat the test sequence or return to the Home screen.
RESULT 3 of 3
TEST NAME: NEW OIL
TEST POINT: LUBE RESERVOIR
FLUID: 32 GRADE
CODE: ISO4406 21/18/14
WATER IN OIL 50%rh TEMPERATURE: START 26°C END 27°C
TIME & DATE: 12:30 2015/10/24
WARNINGS: NONE
The first measurement in the test cycle is 14µm particulate followed by the 6µm. Temperature and Water-in-Oil (PCM500W) data is provided and also details of the previous result code, if a multiple test sequence is running.
TEST POINT NAME
TEST 2 OF 3
6µm SAMPLING
24°C (MINIMUM IS 15°C)
WATER IN OIL 50%rh
LAST TEST:
WARNINGS: NONE
Should any test parameters be exceeded during a test a ‘Warnings Present’ label will be shown at the bottom of the screen. These will be recorded in the final test result detail screen.
Transfer via USB will be to a Flash Drive / Memory Stick connected to a USB-A port on the COM port panel. Press the Tick button to upload and a progress bar indicates the rate of transfer. Press the Return button to go back to the results screen.
Upload to Flash Drive?
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Print results screen
New Test point set-up
This follows the same control method as USB transfer but there is an option to print one or all results if multiple tests are available. If one is selected then it will be that currently open on the result screen.
3 RESULTS
PRINT ONE OR ALL
PRINTING RESULT 3 OF 3
6.8 Test Point & Fluid Setup
If a new Test Point or Fluid is to be created for loading into the test setup or the current settings require editing, this is done through the Test Setup screens,
TEST POINT NAME
NEW TEST POINT
TEST POINT NAME = RESERVOIR
NUMBER OF TESTS = 3
MINIMUM TEMPERATURE (°C) = 10
CODE ALARM (ISO) = 18 / 16 / 13
TEMPERATURE ALARM (°C) = 70
WATER-IN-OIL ALARM (%rh) = 60
Use UP and DOWN arrows to select a parameter and press EDIT for the following action:
• Test Point name switches to qwerty keyboard screen
• Number of tests, minimum temperature and trigger time switches to calculator screen
• Code alarm screen is determined by the code format selected (Tools Screens)
• Temperature and water-in-oil alarm points are edited on the calculator screen.
• Save the setup using the tick button.
• To return to test setup screen or, cancel editing without saving use the Return button.
FLUID NAME
TEST LABEL
For example, if either the Test Point or Fluid buttons are pressed it activates a set of options to the right of the screen. Using the Test Label button will open the QWERTY keyboard.
Edit key to change values in Test Point and Fluid setup
Create New for Test Point or Fluid
Open an existing Test Point or Fluid setup
Important: The trigger period
!
The minimum set time is 7 minutes, which includes the maximum allowable test period and a 1 minute delay. e.g. Trigger time=7 min. test time=6 min. time from end of test to the beginning of the next test = 1 min
If a test is started by external control, such as from a PLC, then the trigger period can remain at 0 minutes.
!
The PCM500W monitor must not be used with water bearing fluids. The PCM500 does not incorporate a water sensor
begins at the start of one test to the beginning of the next.
Important: The water content alarm is applicable to the PCM500W monitor only.
23
If a Test Point with the same name already exists a warning screen will appear to overwrite the old setup.
NEW TEST POINT
TEST POINT ALREADY CREATED
REPLACE WITH NEW SETTINGS?
Fluid setup screen accessed through the Fluid button.
• Select Fluid name to edit through the QWERTY keyboard (enter/edit the name}.
• For PCM500W a water-in-oil entry is active and toggles between %rh and PPM on the press of the Edit button. If PPM is selected then four absolute water constants appear for editing. C1, C2, C3 and C4 are updated using values supplied by Pall Corporation, contact Pall for availability.
• Save the setup through the tick button and use the Return button to go back to the Test Point screen.
QWERTY Keybaord
Number Entry screen
Load a stored Test Point
From the OPEN button in Test point, select a stored Test Point and make current by pressing the TICK button.
NEW FLUID
FLUID NAME %rh OR PPM C1 CONSTANT (PPM) C2 CONSTANT (PPM) C3 CONSTANT (PPM)
C4 CONSTANT (PPM)
TEST POINTS
TEST POINT A
TEST POINT B
TEST POINT C
TEST POINT D
TEST POINT E
TEST POINT F
Load a stored Fluid
From the OPEN button in Fluids, select a stored Fluid and make current by pressing the TICK button.
24
FLUIDS
FLUID A
FLUID B
FLUID C
FLUID D
FLUID E
FLUID F
6.9 Code Alarm Setup
AS4059 Table 1
Each Test Point is allocated an alarm point setup for the three coding standards and whether a two or three-part code is selected. The default alarms are set to maximum code numbers and the user can adjust the code alarms to their required limits.
If a different code standard is selected the alarm points change to that standard also. The VFC (Voltage Free Contact) is a two pin socket on the PCM communication panel (see section 4.4). A signal can be taken on an alarm state to control the switching in or out of a filtering system for example. In the example below, the alarm is set to trigger if 6µm is greater than ISO 14 code. This could signal the start of system filtration pumps. To change a code number, touch to highlight and use the UP and DOWN arrows. To change an alarm action the options are <, > and X (not applicable).
Example: ISO4406
AS4059 Table 2
6.10 Data Manager Screens
Any results saved on the PCM500 can be viewed and managed using the data manager. To get to the data manager press the data manager button in the main menu.
The data manager displays the
current Test Point and Fluid.
Press the Test Point button to access data.
DATA MANAGER
TEST POINT B
RUST VETO NTP32
A list of all Test Points is now available to Graph, Transfer or Delete.
25
TEST POINTS
TEST POINT A
TEST POINT B
TEST POINT C
TEST POINT D
TEST POINT E
TEST POINT F
This button will graph all results under a selected Test Point using the current Code Format
Opening an individual Test Point lists all tests under that
name. Single or All Test Labels can be loaded to USB Flash Drive or printed
TEST POINT B LABELS
RESERVOIR FILTER-IN
RESERVOIR FILTER-OUT
NEW OIL
NO LABEL (DEFAULT)
SAMPLE 2015-10-02
TEST RIG
TEST POINT B
TESTS
Flash Drive button will give a choice of uploading or downloading Test Point data
TEST POINTS
TEST POINT A
TEST POINT B
TEST POINT C
TEST POINT D
TEST POINT E
TEST POINT F
Upload to Flash Drive screen allows individual or All Test Points for selection.
Open an individual Test Label to view individual tests. Then open and view the result in detail
NEW OIL
DATE
TIME
RESULT
Individual Test detail can be uploaded to Flash Drive or Printed. A flag to the side of a test indicates a warning is attached
NAME: NEW OIL TEST POINT: B
FLUID: MINERAL OIL CODE: ISO4406 16/13/10 WIO (%rh): 50 TEMP (°C): START 25 END 26
DATE & TIME: 2015-10-25 14:15HRS
WARNING:
203 LOW BATTERY
RESULT
SELECT TEST POINT
TEST POINT A
TEST POINT B TEST POINT C
TEST POINT D
TEST POINT E
TEST POINT F
26
Deleting
Throughout the data management screens there are several that include the delete option. This includes Points; Names; Tests and Fluids. To enable this action a password must be entered. The default password issued is DEL1 but this can be changed by the user in the TOOLS screen.
Example:
On pressing the DELETE button under the Test Label screen the screen header changes. The user may now select Label(s) by pressing the DELETE button and these remain highlighted. When the selection is complete the TICK button is pressed to go to a password screen.
SELECT TO DELETE
RESERVOIR FILTER-IN RESERVOIR FILTER-OUT
NEW OIL
NO LABEL (DEFAULT)
SAMPLE 2015-10-02
TEST RIG
The password is entered and TICK button pressed
DELETE SELECTION?
DELETE FLUID OR TEST OR NAME OR POINT
6.11 Tools
• PCM Label (Edited through the QWERTY screen)
• Code Format
• Remote Assistance
• Printer Test
• Calculator
• Temperature (Press to toggle between Fahrenheit and Celsius)
• Date
• Time
This next screen is a last chance before the data is removed. Pressing the TICK button removes the selected data. To abort this action the back arrow or Home button is pressed.
PCM Label
This is entered through the QWERTY keyboard and can be up to 40 characters in length
UNIT IDENTIFIER IF REQUIRED
27
Code Format
There are several options for Code format within the three standards provided.
• ISO 4406 -/6µ/14µ (2-part)
• ISO 4406 4µ/6µ/14µ (3-part)
• AS4059 Revision F Table 1
• AS4059 Revision F Table 2 Size 6, and 14
• AS4059 Revision F Table 2 , Size 4, 6, & 14
Temperature
Temperature reporting is changed by simply pressing the button to switch between Fahrenheit and Celsius
Remote Assistance
Time
Time is set to a 24 hour clock and can also be synchronised to a network clock using the network clock button. The PCM must be connected and logged on to a network first. In manual mode use the left and right buttons to select hours or minutes
Date
In the course of PCM operation a situation may arise that requires the intervention of a PCM Engineer to investigate operational issues. The Engineer screen provides such access. Pressing the Remote Assist button opens a code input screen, in which, the user enters an access code provided by the remote Engineer.
Each PCM has its own IP address and to enable remote access the PCM is connected to the Internet through a Network or modem on the Ethernet connection to allow a remote Engineer to analyse diagnostic data.
REMOTE ASSIST PASSWORD
The date is set using the same screen functions as in Time setting. Note: - date is in the international standard format to ISO 8601
Press the Tick button to allow a remote connection.
REMOTE ASSISTANCE
PCM IP ADDRESS
CO DE
28
Printer Test
To test a Bluetooth or USB connection between PCM500 and Printer press the Printer button. A progress screen will open to show the two connection options. Press the option required and a corresponding progress bar indicates the communication attempt between PCM and Printer. If a connection is made the Printer will print a ‘Printer Detected’’ message.
TEST
Section 7: Pall PCM500 Series Fluid Cleanliness Monitors
Interface Protocol for PLC control using
DB9 Serial Port.
1. Hardware details
The RS232 settings are: 9600, 8, N, 1 Pin 2 TxD (Transmit Data) Pin 3 RxD (Receive Data) Pin 5 GnD (Ground) Pin 2 and 3 must be crossed over when using a PC.
C – PCM500 status:
0: The unit is in standby. 1: The unit has ended a test and it is waiting to start a new test at the set time interval. 2: The unit is currently performing a test.
D,E,F,G – Latest error codes if any. See
below for details.
[L] – Request last result
The latest valid result is transmitted via DB9 communications port. An example data string appears like this:
2. Protocol between PCM500 and PLC (or computer)
The commands available to the PLC or a computer start and end with a square bracket as follows:
[P] – “Ping” the unit to see the current status. [L] – Request last result. [S] – Start a test. [A] – Abort a test.
Please note that the command letters are in UPPER CASE; it will not work with commands in lower case.
[P] – Ping
The purpose of this command is to verify the PCM500’s current status. When [P] is sent, the PCM500 responds with a comma-separated string, terminated by a carriage return and a new line. e.g.
PCM,P,0,00,00,00,00
PCM
P 0 00 00 00 00
A B C D E F G
Where:
A - Label to identify that it is a valid
transmission from the PCM500
B - The P signifies that the transmission
doesn’t contain a result.
PCM, R, 2005/11/20 20:28:00, 1,2,00,00, 00,00,AST1: 11,50,22,10,Test1, 39648
PCM R 2005/11/20 20:28:00 1 2 000
A B C D E F G
0000AST1: 11 502210TEST1 39648
H I J K L M N O
Where: A. Label sent by the PCM to signify start of transmission. B. The transmitted string is a result.
R=Result, A=Aborted test, P=Ping. C. Date and time the test was performed. D. Test number in the sequence. E. Number of tests in the sequence. F. Error codes (Hex) Byte 1. Hardware
problems. (see below). G. Error codes (Hex) Byte 2. Sampling
problems. (see below). H. Error codes (Hex) Byte 3. Sampling
problems. (see below). I. Error codes (Hex) Byte 4. User defined settings exceeded. (see below). J. Result codes as selected on the unit (ISO,
AST1: (AS4059 Table1), or AST2:
(AS4059 Table2). K. Viscosity. L. Temperature. M. Water In Oil (%SAT or PPM). N. Test Label O. Checksum.
30
0
PCM500 Error codes
The codes are in hexadecimal format.
Byte Code Description
1 0x01 Very low battery 1 0x02 High pulse width
modulation
1 0x04 Viscometer
blocked
1 0x08 Low mesh
differential pressure 1 0x10 Pressure transmitter failure 1 0x20 Temp transducer failure 1 0x40 Internal controller failure 1 0x80 Internal error
2 0x01 Low battery 2 0x02 High line pressure 2 0x04 Low line pressure 2 0x08 Unstable temperature 2 0x10 Unstable viscosity 2 0x20 Unstable sampling 2 0x40 High mesh differential
pressure
2 0x80 Water in oil sensor failure
3 0x01 Water in oil 3 0x02 Memory full 3 0x04 6-micron mesh blocking 3 0x08 14-micron mesh blocking 3 0x10 Mesh test limit exceeded 3 0x20 Calibration period exceeded 3 0x40 Viscosity band mismatch 3 0x80 High viscosity differential
pressure
4 0x01 Solid contamination alarm 4 0x02 Water content alarm 4 0x04 Temperature alarm 4 0x08 Too much contaminant 4 0x10 Test aborted 4 0x20 Test sequence aborted 4 0x40 RESERVED 4 0x80 RESERVED
[S] – Starts a Test
The PCM500 is currently running a test:
the command is ignored. The PCM500 is in standby: the test series is initiated, with the maximum number of tests as previously entered from the display. The PCM500 is waiting between tests: a test is initiated and the scheduled test is then started at the appropriate time. The total number of tests is decremented by one.
Once a test is started the results will be sent to the PLC on completion of the test.
[A] – Abort test.
By sending [A], the entire test sequence is aborted and the result string would appear like this:
PCM, A, 2005/11/23 15:46:00,1,2,00,00,00,20,58695
The second string item is set to A (aborted), and error Byte number 4 contains the “Test sequence aborted” message (0x20). The
code field is NOT present.
Another example data-string is included
here following an aborted test due to the PCM500 fluid return-line being dead-ended:
PCM, A, 2005/11/23 16:15:00,0,2,04, 02,30,20,51384
Byte1 = 04: Viscometer blocked Byte2 = 02: High line pressure Byte3 = 30: (10+20) Mesh test limit exceeded (10) and Calibration period exceeded (20) Byte4 = 20: Aborted test sequence.
(Byte3 has been artificially generated for the benefit of the example.)
If the last test was requested then it would be a result with the latest valid code.
PCM, R, 2005/11/23 10:22:00,2,2,00,00,00,00,AST1: 11,10323
The exact effect of this command depends on the status of the PCM500 unit.
If a ping were issued it would include the latest error codes.
PCM, P, 0,04,02,30,20
31
3. Modes of Operation
a). – Test timing set on the PCM500
In the PCM500 Test Point setup, enter the number of tests to be performed in a test­cycle and also include any delay between individual tests. A test sequence can then be started from the PCM500 or from the PLC. If an additional test is required, whilst in a test-cycle delay period, then the PLC can initiate this, without compromising the existing delay in the test-cycle setting. Please be aware, the delay period entered will start from the beginning of a test.
b). – Test timing set by the PLC
In the PCM500 Test Point setup, enter the number of tests to 1 (one) and enable the PLC to start a test at the appropriate time. .
32
Section 8: Pall PCM500 and PCM500W Fluid Cleanliness Monitors
Fluid Change Procedure
Important: Mixing of incompatible fluids with Rust
!
meshes. One example is Mono Ethylene Glycol (MEG).
Veto is likely to create gels and block the PCM500
Important: The PCM500W should not be used on water­based fluids.
!
should be modified so as to reduce the requirement for fluid changes. e.g. monitor mineral oil during a 4 week period, followed by 4 weeks monitoring water based fluids
Wet to dry Oil or vice versa:
If fluid changes are regular, the monitoring programme
Contact Pall if there is doubt over the compatibility of test sample and Rust Veto transit fluid.
When Changing from mineral oil to water based fluids or vice versa, a strict fluid changeover procedure must be adhered too.
The changeover fluid is “Rust veto NTP 32”, which is miscible with both aqueous liquids and oils. All changeover and flushing fluid should be drained into a suitable waste container and disposed of in accordance with local Health and Safety legislation.
Mineral oil to water based fluids:
Run a single test to waste using clean Rust Veto NTP32 to flush out the mineral oil.
Run a test to waste using the water based fluid. Repeat testing until there are no traces of Rust Veto NTP32 in the return line.
❶❶❶❶ When using PCM500W, stabilization times can affect the water sensor accuracy when sampling fluids of vastly differing water content in short succession. The related precautions, recommended guidelines and test data related to this subject can be located in appendix D of this operating manual.
Important: The PCM500W should never be used in applications whose water
!
content is known to be at or above 100% saturation.
Water based fluids to mineral oil:
Run a single test to waste using clean Rust Veto NTP32 to flush out the water­based fluid.
Run a test to waste using the mineral oil sample. Repeat testing until there are no traces of Rust Veto NTP32 in the return line.
33
Section 9: Pall PCM500 and PCM500W
indicating high line pressure.
Ensure return hose is not
indicating low line pressure.
Remove, clean or replace
system sampled. Fluid
sample dilution/mixing.
Ensure system return line
Fluid Cleanliness Monitors
Function Codes, Possible Cause(s) and Corrective Actions
Function codes either are flags only to indicate to the user an awareness of a borderline test situation or curtail the test. An alarm will indicate registered function codes that can be cancelled by pressing any key. A message will appear indicating the problem to the user. Function codes generally occur during the warm up cycle first and while testing. There are several different function messages incorporated into the PCM500. Below is a list of these messages, possible causes and corrective actions.
Function
Code
201 Low Battery
101
202
203
102
204
205
206
PCM500
Condition
Very
Low Battery
High Line
Pressure
Low line
pressure
High Pulse
Width
Modulation
Unstable
temperature
Unstable
viscosity
Unstable sampling
PCM500 Status Possible Cause Corrective Action
Unit gives warning of low
battery charge level at the
end of the test.
Unit gives warning of a very
low battery charge level at
the end of the test.
Unit halts the test and puts
error message on screen
Red L.E.D. on HMI panel
flashing on detection.
Unit halts the test and puts
error message on screen
Red L.E.D. on HMI panel
flashing on detection.
Unit halts the test and puts
error message on screen.
Red L.E.D. on HMI panel
flashing on detection.
Unit halts test and displays
error message on screen.
Red L.E.D. on HMI panel
flashing on detection.
Unit halts test and displays
error message on screen.
Red L.E.D. on HMI panel
flashing on detection.
Unit halts test and displays
error message on screen.
Red L.E.D. on HMI panel
flashing on detection.
Low voltage level
detected from internal
battery
Extra low battery level
detected
Blockage in hydraulic
circuit.
Fluid viscosity too
high. Pressure
transducer failure
No fluid. Last Chance
Filter (LCF) blocked.
Pump Malfunction.
Pressure transducer
failure.
Fluid viscosity too
high. Motor current
over set limit. Pump
malfunction.
Change >1deg /
minute. High oil
temperature. Low
temperature.
Fluid dilution. Large
temperature gradient
across PCM500
Aeration problem.
Pressure spikes in
See Unstable
viscosity.
Connect Power Supply
Unit (PSU) to a mains
power supply
Connect Power Supply
Unit (PSU) to a mains
power supply
Decrease fluid viscosity.
Contact Pall.
Check fluid supply and
inlet hose connection.
Pressure Relief Valve
Contact Pall.
Decrease fluid viscosity.
Contact Pall or an
approved agent
Operate Warm-up Cycle
refer to section 6.10.
Allow system fluid
temperature to stabilise
Operate Warm-up Cycle
refer to section 6.10.
Allow system fluid
temperature to stabilise
Ensure inlet hose is in
contact with system fluid.
is full of fluid.
blocked.
LCF.
34
Section 9: Pall PCM500 and PCM500W
held programmer, refer to
and/or line pressure to
test and report error/warning
Warning message on screen.
received from pressure
(WIO) sensor
Fluid Cleanliness Monitors (continued)
Function Codes, Possible Cause(s) and Corrective Actions
Function
Code
301 Water in Oil
302 Memory Full
103
207
104
PCM500
Condition
Viscometer
blocked
High mesh
differential
pressure
Low mesh differential
pressure
PCM500 Status Possible Cause Corrective Action
Unit completes test.
Warning displayed on
screen.
Memory Full message will
appear on screen at start-up
and when test store
attempted.
PCM500 will abort current
test and display warning
message.
Red L.E.D. on HMI panel
flashing on detection.
PCM500 will abort current
message on the display
screen.
Red L.E.D. on HMI panel
flashing on detection.
PCM500 will abort current
test/cycle and report
error/warning message on
the display screen.
Red L.E.D. on HMI panel
flashing on detection.
Outside set limit
Internal store for test
data full
Viscometer orifice
blocked/blocking with
contaminant causing
differential viscosity
exceed operational
limits.
Mesh element
currently in the flow is
blocked/blocking with
contaminant causing
differential mesh
pressure to exceed
operational limits
Differential pressure
across mesh element
is below set limit.
Probable cause; hole
in the mesh, incorrect
direction of flow,
pressure transducer
failure.
Incorrect or no signal
Information only.
Upload test data to hand
Flush by testing with
clean, low viscosity oil.
Contact Pall or an
approved agent.
Flush by testing with
clean, low viscosity oil.
Contact Pall or an
approved agent
Contact Pall or an
approved agent
section 6.9
105
208
106
transducer
Water in Oil
(if applicable)
Temperature
transducer
Pressure
failure
failure
failure.
PCM500 will abort test.
Red L.E.D. remains ON
PCM500W will display
error/warning on successive
tests.
.
PCM500 will abort test.
Warning message on screen.
Red L.E.D. will remain ON
transducer during
calibration /
background check.
Incorrect output from
the sensor.
Incorrect output from
the transducer.
Contact Pall or an
approved agent
Contact Pall or an
approved agent
Contact Pall or an
approved agent
35
Section 9: Pall PCM500 and PCM500W
specification, low fluid
Unit inoperative. Hold in this
Fluid Cleanliness Monitors (continued)
Function Codes, Possible Cause(s) and Corrective Actions
Function
Code
107
303
304
305
306
308
PCM500
Condition
Internal
peripheral
micro-
controller
failure.
6-micron
mesh
blocking
14-micron
mesh
blocking
Mesh test
limit
exceeded
Calibration
period
exceeded
High
viscosity
differential
pressure
PCM500 Status Possible Cause Corrective Action
Error/warning message on
screen (if possible). Alarm
set. Hold in this state. Red
L.E.D. will remain ON..
PCM500 will abort current
test and display warning
message on screen. Red
L.E.D. flashing.
PCM500 will abort current
test and display warning
message on screen. Red
L.E.D. activated
Display warning message
on screen at PCM500 start-
up or at the end of current
test operation
Display warning message
on screen at PCM500 start-
up
Unit halts test and displays
error message on screen.
Red L.E.D. on HMI panel
flashing on detection.
No communication
with main controller.
Limits of ratio
between dP and dV
taken at the cycle
start have been
exceeded
Limits of ratio
between dP and dV
taken at the cycle
start have been
exceeded
Tests performed on
the same mesh set
above set limit.
12 month calibration
interval expired
Fluid viscosity out of
temperature
Contact Pall or an
approved agent
Flush by testing with
clean, low viscosity oil
Flush by testing with
clean, low viscosity oil
Contact Pall or an
approved agent for
service details
Contact Pall or an
approved agent for
service details
Reduce fluid viscosity.
Increase fluid
temperature at PCM500
state. Red L.E.D. will
108 Internal error
??? Comms error Ethernet ??? Comms error USB
remain ON..
Warning message on
display.
Possible hardware
failure
Contact Pall or an
approved agent
36
Section 9: Pall PCM500 and PCM500W
conditions, stop button
Display warning message on
Display warning message on
Display warning message on
Fluid Cleanliness Monitors (continued)
Function Codes, Possible Cause(s) and Corrective Actions
Function
Code
401
402
403
404
405 Test aborted
406
PCM500
Condition
Solid
Contaminatio
n Alarm
Water
Saturation
Alarm
High fluid
Temperature
Alarm
Contaminatio
n Too High
Test
sequence
aborted
PCM500 Status Possible Cause Corrective Action
screen. VFC relay activated.
screen. Red L.E.D. flashing
screen. Red L.E.D. flashing
Unit halts test and displays
error message on screen.
Red L.E.D. on HMI panel
flashing on detection.
Unit halts test and displays
warning message on screen.
Unit halts test sequence and
displays warning message
on screen.
Pre-set Solid
contamination level
exceeded
Pre-set Fluid water
saturation level
exceeded
Pre-set Fluid
temperature level
exceeded
Maximum Solid
contamination level
exceeded
Test aborted due to
one of the other
warning conditions,
remote message
received from COM
port, or glitch
generated in program
during debug file
creation
Test sequence
aborted due to one of
the other warning
pressed on control panel, key pressed on display or received an
abort test command
from PLC.
Repeat test to verify.
Investigate process.
Investigate cause of
elevated water contents
Investigate process,
reduce operating
Investigate process.
Dilute the sample with
Repeat test if possible.
Repeat test if possible.
NOTE: Refer to section 6 to review and / or amend your selected alarm levels
temperature
clean fluid
Coding:- 100 High priority warning
200 Medium priority warning 300 Low priority warning 400 User defined alarm
37
Section 10: Pall PCM500 and PCM500W Fluid Cleanliness Monitors
Spare Parts List
Part Number Description
PCM500.211 Power Supply Unit
PCM200.235A Mains Cable UK
PCM200.235B Mains Cable Europe
PCM200.235C Mains Cable USA
PCM200.235D Mains Cable Australasia
PCM200.235E Mains Cable Japan
PCM500.213ASS Battery Pack
PCM200.239 RS232 Communication Cable
PCM200.121 Last Chance Filter Element
PCM200.122 High Pressure Hose Assembly
PCM200.197 Low pressure Sampling Stalk
PCM200.154A Metric Test Point Connector
PCM200.154B Imperial Test Point Connector
PCM200.154C NPT Test Point Connector
500.470A
500.470B
PCM500.520A Printer Kit - UK
PCM500.520B Printer Kit - EUROPE
PCM500.520C Printer Kit - USA
PCM500.520D Printer Kit - AUSTRALASIA
PCM500.520E Printer Kit - JAPAN
PCM200.324 Printer Paper Roll (Pk.10)
PCM210.480 USB Cable
PCM500.600 Transit Case
PCM500.500 Replacement Mesh Manifold
Operating Instructions -
PCM500 CD ROM
Operating Instructions
PCM500 Quick Reference Card
38
Section 11: Pall PCM500 and PCM500W Fluid Cleanliness Monitors
Cleaning and Decontamination
As a matter of protection to the PCM enclosure and safety to the user it is advised to clean any fluid spills with suitable cleaning materials and dispose of these safely. Chemicals that may be harmful to the ABS material itself should be removed immediately.
Maintenance
Check the condition of the high-pressure hose (PCM200.122) for signs of external damage. This should be done before each analysis session. If in doubt, contact your Pall distributor or the manufacturer for advice on a replacement part. Replacement is carried out by a Pall service centre, where a new hose installation is validated for maximum operating pressure prior to release.
Disposal of Equipment
At the end of its life, the monitor should be dismantled and disposed of in accordance with all applicable local waste disposal laws and bylaws. Where facilities exist, component parts of the unit may be recycled. Details of the materials of construction are given on the product installation drawing and if required, more detailed information regarding specific items may be obtained from Pall or an approved agent.
If component parts of the equipment were previously contaminated with the service fluid, an appropriate Manufacturer’s Safety Data Sheet (MSDS) for the fluid should be obtained and read to ensure that contaminated component parts are disposed of safely.
The Last Chance Filter element is a user serviceable part and can be accessed by releasing the housing end plug. The element is removed by inserting an M5 thread bolt into the end cap and is then retracted. Ensure no external contaminant enters the housing before a new element is fitted.
39
Appendix A: Pall PCM500 and PCM500W Fluid Cleanliness Monitors
Calibration and After Market Services
Calibration and Aftermarket Service
Pall PCM500 series fluid cleanliness monitors are designed to provide trouble free operation for many years. However, as for all condition monitoring equipment, optimal performance can only be achieved through regular routine maintenance. To ensure your PCM500 receives the maintenance necessary, Pall provides a maintenance package designed to increase the overall effectiveness of the monitor. Pall recommends returning the PCM monitor for Service and Calibration annually. Mesh replacement should be carried out when the test limit is exceeded. The limit is variable from 1000 to 3000 tests depending on fluid sample cleanliness and viscosity.
Important: Pall recommends returning the PCM monitor for
!
should be carried out when 3000 usage points is exceeded.
Service and Calibration annually. Mesh replacement
The annual service includes;
Analysis of engineers diagnostic report and rectification of any faults found
Battery, Power supply and clock check
Performance evaluation on calibration fluid
Software update to latest release level
Check for oil leaks and rectification as necessary
Check condition of Last chance filter
Low-pressure hose replacement
Safety check of High-pressure hose. Replaced at two year interval.
Flush, strip and clean internal hydraulic components
Pressure Reduction Valve Assembly check and reset
Replace 6µm and 14µm meshes, O-ring seals and flush housings
Transducer calibrations
Perform production validation procedures
Software menu checks
Return carriage to customer
Any additional work required is subject to a separate written quotation.
Please contact Pall Aftermarket Division or its approved agent for additional information.
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Appendix B: PCM500.500 Mesh Manifold Exchange Procedure
This procedure must be carried out in a clean environment and great care taken to avoid extraneous contamination entering the PCM500. The mesh manifold should be replaced once 3000 points are accrued and to continue testing will produce a warning on screen and recorded as error code 305 on a test result until the mesh manifold is replaced. Every completed test is allocated points between 1 and 3 depending on the severity of fluid condition. As example, a low contaminant, low viscosity sample will be given 1 point, whereas a dirt laden, high viscosity sample will be given 3 points. This is to ensure the integrity of the mesh will remain constant throughout the available usage. It can be seen, therefore, that the available tests range from 1000 to 3000 depending on sample condition.
1. Use an M5 socket driver to remove four
M5 Flange securing nuts.
2. Carefully remove the mesh manifold by
pulling on the outer body and place in protective packaging that came with the replacement mesh manifold. Do not use mechanical grips that may damage the housing.
3. The old O-ring seals may remain on the
main manifold stem connections. Remove these to waste and dry up any fluid spillage with the lint free wipes.
Mesh Manifold Removal
Procedure:
1. Place the PCM500 on a clean surface and have adsorbent lint free paper wipes available.
2. Ensure the PCM500 is switched OFF.
3. Cap off both hoses.
4. Remove the rubber manifold cover.
Mesh Manifold access
Main manifold stem connections
4. Remove the Replacement Mesh Manifold from its packaging and carefully remove the protective tape covering the ports. The O-rings may come away with the tape but this is normal and it is advisable to fit all four O-rings onto the main manifold stems before fitting the mesh manifold.
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Appendix D: PCM500.500 Mesh Manifold Exchange Procedure
Replacement Mesh Manifold – ‘O’-ring fitting
5. Slide the Mesh Manifold onto the four bolts and push firmly onto the O-rings.
6. Fit the four M5 Flange nuts. Be very careful not to cross thread onto the bolts.
7. Tighten the nuts to a maximum of 3 Newton-Metre.
8. Re-fit the rubber cover.
9. When the PCM500 is switched on it will automatically detect the new mesh manifold and reset the points total in program memory to zero.
(+)
3Nm
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Pall PCM500 and PCM500W Fluid Cleanliness Monitors
World-wide Warranty
Pall products are rigidly inspected during manufacture and on completion by a modern Quality Control Department and are guaranteed for a period of one year from date of commissioning, against defective materials and workmanship when properly installed and operated at design conditions.
All parts proven to be defective within this period will be replaced free of charge FOB England or original FOB point as applicable.
However, claims for damage or labour will not be allowed; nor can the seller’s equipment be warranted of failure where the operating conditions are beyond the control of the seller or beyond monitor specification. All claims must be accompanied by full particulars including system conditions if applicable.
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