Before installing the PH Series Proportioner and start-up, carefully
read all the technical and safety documentation included in this
manual. Pay special attention to the information in order to know and
understand the operation and the conditions of use of the PH Series
Proportioner. All of the information is aimed at improving user safety
and avoiding possible breakdowns from the incorrect use of the PH
Series Proportioner.
BLEED SYSTEM ............................................................................................................... 89
WARRANTY
Polyurethane Machinery Corporation (hereinafter “PMC”) provides this LIMITED WARRANTY
(hereinafter “Warranty”) to the original purchaser (hereinafter “Customer”) covering this
equipment and the original PMC manufactured accessories delivered with the equipment
(hereinafter “Product”) against defects in material or workmanship of the Product (hereinafter
“Defect” or “Defective”) for a period of one (1) year from the date of first purchase as shown on
the original PMC invoice (hereinafter “Warranty Period”).
If during the Warranty Period under normal use, the Product is suspected by Customer to be
Defective in material or workmanship, it is Customer’s responsibility to contact PMC and return
the Product to PMC as directed by PMC, freight prepaid. If PMC determines that the Product is
Defective and that such Defect is covered by this Warranty, PMC will credit Customer for the
reasonable freight charges incurred by Customer in returning the Defective Product to PMC,
and PMC (or its authorized agent) will, at PMC’s option, repair or replace the Product, subject to
the following:
Original Invoice: The original invoice must be kept as proof of the date of first sale and the
Product serial number. The Warranty does not cover any Product if the Original Invoice appears
to have been modified or altered, or when the serial number on the Product appears to have
been altered or defaced.
Product Maintenance: It is the Customer’s responsibility to maintain the Product properly. See
your maintenance schedule and owner’s manual for details. The Warranty does not cover an
improperly maintained Product.
Non-PMC Components and Accessories: Non-PMC manufactured components and accessories
that are used in the operation of the Product are not covered by this Warranty. Such
components and accessories shall be subject to the warranty offered to the Customer, if any, by
the original manufacturer of such component or accessory.
Other Warranty Exclusions: The Warranty does not cover any Product that PMC determines has
been damaged or fails to operate properly due to misuse, negligence, abuse, carelessness,
neglect, or accident. By way of example only, this includes:
Normal wear and tear.
Improper or unauthorized installation, repair, alteration, adjustment or modification of the
product.
Use of heating devices, pumping equipment, dispensers, or other parts or accessories
with the product that have not been approved or manufactured by PMC.
Failure to follow the operating instructions and recommendations provided by PMC.
Cosmetic damage.
Fire, flood, “acts of God,” or other contingencies beyond the control of PMC.
1
WARRANTY
THE WARRANTY DESCRIBED HEREIN IS THE EXCLUSIVE REMEDY FOR THE
CUSTOMER AND IS IN LIEU OF ALL OTHER WARRANTIES, EXPRESS, IMPLIED,
STATUTORY OR OTHERWISE, AND THE IMPLIED WARRANTIES OF
MERCHANTABILITY AND FITNESS FOR A PARTICULAR PURPOSE AND ALL
OTHER WARRANTIES ARE HEREBY DISCLAIMED. TO THE FULLEST EXTENT
PERMITTED BY LAW, PMC SHALL NOT BE RESPONSIBLE, WHETHER BASED IN
CONTRACT, TORT (INCLUDING, WITHOUT LIMITATION, NEGLIGENCE),
WARRANTY OR ANY OTHER LEGAL OR EQUITABLE GROUNDS, FOR ANY
CONSEQUENTIAL, INDIRECT, INCIDENTAL, LOST PROFITS, SPECIAL, PUNITIVE
OR EXEMPLARY DAMAGES, WHETHER TO PERSON OR PROPERTY, ARISING
FROM OR RELATING TO THE PRODUCT, EVEN IF PMC HAS BEEN ADVISED OF
THE POSSIBILITY OF SUCH LOSSES OR DAMAGES.
Non-Warranty Service by PMC: If PMC determines that the suspected Defect of the Product is
not covered by this Warranty, disposition of the Product will be made pursuant to the terms and
conditions of PMC’s written estimate on a time and materials basis.
Continuing Warranty for Products Repaired or Replaced under Warranty: Following the repair or
replacement of a Product covered by this Warranty, such Product will continue to be subject to
the original Warranty for the remainder of original Warranty Period or for three (3) months from
the repair or replacement date, whichever is longer.
No Rights Implied: Nothing in the sale, lease or rental of any Product by PMC shall be
construed to grant any right, interest or license in or under any patent, trademark, copyright,
trade secret or other proprietary right or material owned by anyone; nor does PMC encourage
the infringement of same.
Exclusive Warranty: This writing is the final, complete, and exclusive expression of the Warranty
covering the Product. Any statements made by PMC, its employees or agents that differ from
the terms of this Warranty shall have no effect. It is expressly understood that Customer’s
acceptance of this Warranty, by performance or otherwise, is upon and subject solely to the
terms and conditions hereof, and any additional or different terms and conditions proposed or
expressed by Customer or anyone, whether in writing or otherwise, are null and void unless
specifically agreed to in writing by an Officer of PMC.
2
Before installing the PH Series Proportioner and start-up,
carefully read all the technical and safety documentation
included in this manual. Pay special attention to the
information in order to know and understand the operation and
the conditions of use of the PH Series Proportioner. All of the
information is aimed at improving user safety and avoiding
possible breakdowns from the incorrect use of the PH Series
Proportioner.
SAFETY AND HANDLING
This chapter contains important information on the safety, handling, and use of your
PH Series Proportioner.
Classic
WARNING! Presents information to alert of a situation that
might cause serious injuries if the instructions are not
followed.
CAUTION! Presents information that indicates how to avoid damage
to the equipment or how to avoid a situation that could cause minor
injuries.
NOTE!Is relevant information of a procedure being carried out.
Careful study of this manual will enable the operator to know the characteristics of the PH
Series Proportioner and the operating procedures. By following the instructions and
recommendations contained herein, you will reduce the potential risk of accidents in the
installation, use or maintenance of the PH Series Proportioner; you will provide a better
opportunity for incident-free operation for a longer time, greater output and the possibility of
detecting and resolving problems quickly and simply.
Keep this Operations Manual for future consultation of useful information at all times. If you lose
this manual, ask for a new copy from your PMC Distributor or go online and visit our web site at
www.polymac-usa.com.
The
Classic
polyurea chemical systems, polyurethane foam chemical systems, and some two-component
epoxy systems.
PH Series Proportioner has been designed and built for the application of
3
SAFETY AND HANDLING
To prevent possible injury caused by incorrect handling of the raw
materials and solvents used in the process, carefully read the
Material Safety Data Sheet (MSDS) provided by your supplier.
Deal with the waste caused according to current regulations.
To avoid damage caused by the impact of pressurized fluids, do
not open any connection or perform maintenance work on
components subject to pressure until the pressure has been
completely eliminated.
Use suitable protection when operating, maintaining or being
present in the area where the equipment is functioning. This
includes, but is not limited to, the use of protective goggles,
gloves, shoes and safety clothing and breathing equipment.
The equipment includes components that reach high temperatures
and can cause burns. Hot parts of the equipment must not be
handled or touched until they have cooled completely.
To prevent serious injury through crushing or amputation, do not
work with the equipment without the safety guards installed on the
moving parts. Make sure that all the safety guards are correctly
reinstalled at the end of the repair or maintenance work of the
equipment.
WARNING! The design and configuration of the PH Series
Proportioner does not allow its use in potentially explosive
atmospheres, or the pressure and temperature limits
described in the technical specifications of this manual to be
exceeded.
Always use liquids and solvents that are compatible with the unit. If in doubt, consult your PMC
Distributor.
When working with the PH Series Proportioner, it is recommended that the operator wear
suitable clothing and elements of personal protection, including, without limitation, gloves,
protective goggles, safety footwear, and face masks. Use breathing equipment when working
with the PH Series Proportioner in enclosed spaces or in areas with insufficient ventilation. The
introduction and follow-up of safety measures must not be limited to those described in this
manual. Before starting up the PH Series Proportioner, a comprehensive analysis must be
made of the risks derived from the products to be dispensed, the type of application, and the
working environment.
4
100% circumferential coverage produces the most
uniform distribution of heat available.
CHARACTERISTICS
The
Classic
polyurea chemical systems, polyurethane foam chemical systems, and some specific twocomponent epoxy systems.
PH Series Proportioner has been designed and built for the application of
PRINCIPAL HEATING SYSTEM
The Proportioners consist of two (2) independent Material Heaters without internal seals. Each
heater for the PH(X)-25 Proportioner has four (4) Heating Elements rated at 1,000, 1,250 or
1,500 watts, each giving the Proportioner a total heat of 8,000, 10,000, or 12,000 watts. Each
heater for the PH(X)-40 Proportioner has six (6) Heating Elements rated at 1,250 1,500 or 1,750
watts each, giving the Proportioner a total heat of 15,000, 18,000 or 21,000 watts. The Material
Heater systems for all PH Series Proportioners contain the necessary control and safety
components for their precise operation. The Material Heater design allows a temperature
differential (ΔT) of 90ºF (32ºC) and material application temperatures of up to 190ºF (88ºC)
under normal ambient temperatures.
HOSE HEATING SYSTEM
The PH(X)-25 Proportioner is designed with a 3 KVA (90 V) Isolation Transformer that enables
effective heating of up to a total hose length of 310 feet (94 meters). The PH(X)-40 Proportioner
is designed with a 5 KVA (120 V) Isolation Transformer that enables effective heating of up to a
total hose length of 410 feet (123 meters). Both systems include an innovative hose heating
concept in which the continuous braid tinned-copper jacket is distributed evenly around the
circumference of the hose providing a uniform heating watt density and precise control of the
material application temperature. This hose heating element design is extremely resistant to
fatigue failure.
DOUBLE ACTING OPPOSED PISTON METERING PUMPS
The opposed double acting Pump Line is driven by a dual rod Hydraulic Cylinder. The in-line
pump system with opposed piston pumps provides a constant volume and guarantees uniform
pressures in both directions of pump movement. Different sized pumps allow for various
volumetric ratios to be achieved (1:4 to 1:1 to 4:1) between the chemical components used in
the process.
5
CHARACTERISTICS
1. Power supply
2. “A” side pressure reading
3. “R” side pressure reading
4. Maximum pressure
5. Maximum allowable
pressure differential
Logic Box
1. Continue pumping material
OR
2. Shut off pumps
PRESSURE BALANCE CONTROL SYSTEM
The Pressure Balance Control (PBC) system provides better control over a chemical pressure
imbalance. When the system is turned off, the Proportioner will perform as if there is no PBC
system and will continue pumping material. When the system is turned on, it will continually
monitor the pressure between the two chemicals (known as the pressure differential). If the
pressure differential becomes equal to or greater than the maximum allowable pressure differential, the pumps will be shut off.
The Pressure Balance Control system can be simplified into a logic box diagram with inputs and
outputs. There are five inputs: the power supply from the main console, the pressure readings
from each chemical, the maximum pressure, and the maximum allowable pressure differential.
Inside the logic box, the actual pressure differential of the chemicals is compared to the
maximum allowable pressure differential. Depending on the circumstances of all five inputs,
there are only two possible outputs: either the pumps will continue to pressurize and move
material, or the pumps will shut off and flow will be lost.
Logic Box Repre sent ation
6
CAUTION! Inside the console is a Terminal Strip for
connecting the main power (wire not supplied) to the
PH Series Proportioner. This electrical connection
must be made only by a qualified electrician.
PH(X)-25 TECHNICAL SPECIFICATIONS
ELECTRICAL
Main Voltage: ______________________________________ 3 x 208-230V, 50/60Hz
Electrical Consumption: (2 x 4 kW Heaters) _____________________ 40 A @ 3 x 230V
Electrical Consumption: (2 x 5 kW Heaters) _____________________ 49 A @ 3 x 230V
Electrical Consumption: (2 x 6 kW Heaters) _____________________ 57 A @ 3 x 230V
Main Voltage: _________________________________________ 1 x 208-230V, 60Hz
Electrical Consumption: (2 x 4 kW Heaters) _____________________ 61 A @ 1 x 230V
Electrical Consumption: (2 x 5 kW Heaters) _____________________ 70 A @ 1 x 230V
Electrical Consumption: (2 x 6 kW Heaters) _____________________ 78 A @ 1 x 230V
Material Heater Power: (2 x 4 kW) ______________________________________ 8 kW
Material Heater Power: (2 x 5 kW) _____________________________________ 10kW
Material Heater Power: (2 x 6 kW) _____________________________________ 12kW
Hose Transformer Power: _____________________________________ 3 KVA (90 V)
Electrical Motor Power: ______________________________________________ 3 HP
Frequency: (Single Phase) ___________________________________________ 60 Hz
Frequency: (Three Phase) _________________________________________ 50/60 Hz
MECHANICAL
Maximum working pressure (with 120 pumps): _________________ 2,000 psi (138 bar)
Maximum working pressure (with 80 pumps): __________________ 3,000 psi (207 bar)
Maximum production ratio 1:1 (with 120 pumps): ____________ 25 lbs/min (12.5 kg/min)
Maximum production ratio 1:1 (with 80 pumps): ________________ 1.4 GPM (5.6 L/min)
Minimum production: ______________________________________ 2 lb/min (1kg/min)
Maximum hose length: _________________________________________ 310 ft (93 m)
Approximate weight (Hydraulic Tank empty): _____________________ 420 lbs (190 kg)
Approximate weight (Hydraulic Tank full @ 20 gal, 76 liters): ________ 594 lbs (269 kg)
Dimensions: _______________________________________ 30in W x 26in D x 45in H
Dimensions (Metric): ____________________________ 76cm W x 66cm D x 114cm H
7
CAUTION! Inside the console is a Terminal Strip for
connecting the main power (wire not supplied) to the
PH Series Proportioner. This electrical connection
must be made only by a qualified electrician.
PH(X)-40 TECHNICAL SPECIFICATIONS
ELECTRICAL
Main Voltage: ______________________________________ 3 x 208-230V, 50/60Hz
Electrical Consumption: (2 x 7.5 kW Heaters) ___________________ 75 A @ 3 x 230V
Electrical Consumption: (2 x 9.0 kW Heaters) ___________________ 89 A @ 3 x 230V
Electrical Consumption: (2 x 10.5 kW Heaters) _________________ 103 A @ 3 x 230V
Main Voltage: _________________________________________ 1 x 208-230V, 60Hz
Electrical Consumption: (2 x 7.5 kW Heaters) __________________ 130 A @ 1 x 230V
Material Heater Power: (2 x 7.5 kW) ___________________________________ 15 kW
Material Heater Power: (2 x 9.0 kW) ___________________________________ 18 kW
Material Heater Power: (2 x 10.5 kW) __________________________________ 21 kW
Hose Transformer Power: ____________________________________ 5 KVA (120 V)
Electrical Motor Power: ______________________________________________ 5 HP
Frequency: (Single Phase) ___________________________________________ 60 Hz
Frequency: (Three Phase) _________________________________________ 50/60 Hz
MECHANICAL
Maximum working pressure (with 120 pumps): _________________ 2,000 psi (138 bar)
Maximum working pressure (with 80 pumps): __________________ 3,500 psi (241 bar)
Maximum production ratio 1:1 (with 120 pumps): _____________ 40 lbs/min (20 kg/min)
Maximum production ratio 1:1 (with 80 pumps): ________________ 2.5 GPM (1.0 L/min)
Minimum production: _________________________________________ 2 lb/min (1 kg)
Maximum hose length: ________________________________ _______ 410 ft (123 m)
Approximate weight (Hydraulic Tank empty): _____________________ 420 lbs (190 kg)
Approximate weight (Hydraulic Tank full @ 20 gal (76 liters) ________ 594 lbs (269 kg)
Dimensions: _______________________________________ 30in W x 26in D x 45in H
Dimensions (Metric) ____________________________ (76cm W x 66cm D x 114cm H)
8
DESCRIPTION
CLASSIC PH-SERIE S
PROPORTIONER
9
DESCRIPTION
A. Control Panel
Controls and regulates the operation of the PH Series Proportioner.
B. Isocyanate (Iso, A) Metering Pump
Meters the Isocyanate material.
C. Polyol (Poly, R) Metering Pump
Meters the Polyol material.
D. Isocyanate (Iso, A) Heater
Heats the incoming Isocyanate to a temperature set by the operator.
E. Polyol (Poly, R) Heater
Heats the incoming Polyol to a temperature set by the operator.
F. Hose Heating Transformer
Supplies the required voltage for material Heated Hoses.
G. Hydraulic Pressure Gauge
Indicates the pressure in the Hydraulic Drive System.
H. Isocyanate (Iso, A) Pressure Gauge
Indicates the pressure in the Isocyanate system.
I. Isocyanate (Iso, A) Safety Pressure Switch
Disables the pump circtuit in the event of excessive pressure in the Isocyanate
system.
J. Isocyanate (Iso, A) Thermocouple
Provides temperature information of the Isocyanate to its Temperature Controller.
K. Polyol (Poly, R) Pressure Gauge
Indicates the pressure in the Polyol system.
L. Polyol (Poly, R) Safety Pressure Switch
Disables the pump circuit in the event of excessive pressure in the Polyol system.
M. Polyol (Poly, R) Thermocouple
Provides temperature information of the Polyol to its Temperature Controller.
N. Hydraulic Pressure Control
Allows the pressure of the hydraulic system to be increased
or decreased. Turn clockwise to increase the pressure and
counterclockwise to decrease. To regulate the pressure of
the hydraulic system, the NORMAL or RETRACT Pump
Switch position must be selected.
O. Isocyanate (Iso, A) Inlet Material Strainer
Screens (60 mesh) material from bulk supply.
P. Polyol (Poly, R) Inlet Material Strainer
Screens (60 mesh) material from bulk supply.
10
DESCRIPTION
PUMP SIZE
CYCLES PER GAL (3.79 L)
120
16
80
24
R
CLASSIS PH-SERIE S
CONTROL PANEL
Q. Main Power - Turns ON and OFF main power to the control panel. It must be
turned ON for any operation to be performed with the unit. When turned ON, the
green pilot light will be lit.
R. Emergency Stop - Interrupts the PH Series control power circuit to stop all motion
and heating.
S. Control Power - Turns ON and OFF the control power to the complete electrical
circuit including Heaters and Hose Heater.
T. Heater Temperature Zones, A (Iso), R (Poly), HOSE - Turns ON and OFF power
to the specific Heaters. See page 22 for detailed Temperature Controller
instructions.
The Hose Heater Controller automatically controls the Hose Heater only when
using the TSU (Temperature Sensing Unit) probe.
U. Count Down Counter – Used to set the amount of cycles required to prevent the
chemical drums from running dry, the machine will shut down when the preset
cycles expires. There is an on/off switch to either activate this feature or deactivate
and not use it.
V. Cycle Counter – Indicates the number of pump cycles to calculate material usage.
11
DESCRIPTION
W. Motor Switch - Turns ON and OFF the Electric/Hydraulic Motor. When turned ON
the switch will be lit. In the event of an overload of the Motor, pilot light will turn
OFF and Motor will stop.
X. Pump Switch
Off - Removes power from the pump circuit. The directional indicator lights will not be lit.
Normal - Activates the normal operation of the machine. When the switch is ON, the directional light corresponding to the stroke direction will light.
Retract - Sets the Piston Rod of the Iso (A) metering pump to the retract position
and prevents the crystallization of Iso (A) on the Piston Rod. Turn the switch to
RETRACT position every time the unit is stopped by the operator (see Shut-Down,
page 25).
Y. Direction Indicator Light - Indicates the direction of movement of the Metering
Pumps. If excessive pressure occurs in the system, the pump circuit will be
disabled and the directional lights will be OFF.
Z. Heater Temperature Switch – A (Iso), R (Poly), HOSE – Turns ON and OFF
power to the specific Heaters and Hose.
AA. Auto Shut Down Switch - Turns ON and OFF power to the Auto Shut Down unit.
BB. Pressure Balance Control “FAULT” Light – Indicates that the pressure
differential is equal to or greater than the maximum allowable pressure differential.
CC. Pressure Balance Control “ON” Light – Indicates that the Pressure Balance
Control system is on and functioning.
DD. Pressure Balance Control Knob – Used to set the maximum allowable pressure
differential (in PSI) between the A (Iso) and R (Poly) pumps. See page 21 for more
information.
12
L1
L2
CAUTION! Inside the console is a Terminal Strip for
connecting the main power (wire not supplied) to the
PH Series Proportioner. This electrical connection
must be made only by a qualified electrician.
1 phase x 230 Volt
L3
L2
L1
3 phase x 380 Volt
3 phase x 230 Volt
INSTALLATION
WARNING!Use suitable protection and follow the
recommendations in the Safety Information enclosed and
provided by material suppliers when installing or working
with the Proportioner.
CAUTION! Make sure the power cable is disconnected from the main
power source before connecting to the Terminal Strip in the Console.
NOTE! To ensure the PH Series Proportioner works correctly, the electrical
supply must meet the specifications indicated on the Serial Number
Placard affixed to the Electrical Console.
13
INSTALLATION
Follow the recommended procedure in the indicated order to install the Proportioner:
1. Insert the main power cable by passing it through the strain relief at the bottom of the
Electrical Console and connect as shown in the above diagram.
2. Fill the Hydraulic Reservoir with 20 gallons (76 Liters) of approved hydraulic fluid. See
page 56 for specifications.
NOTE! Do not fill the tank to maximum capacity; use the Visual Level
Indicator on the tank to make sure the amount of hydraulic fluid is not more
than 20 gallons (76 liters) or 80% of the tank max capacity.
3. Check the level of the hydraulic fluid in
the Hydraulic Pump Case: Disconnect
the Hydraulic Hose from the 90 fitting
and remove the Fitting from Hydraulic
Case. Add fluid as required to the top of
threaded hole. Reattach Fitting and
Hydraulic Hose.
NOTE! Ensure that the Emergency
Stop is not engaged.
4. Three-phase Proportioner Only: Check the Electric Motor to ensure rotation is
clockwise when viewing the end of the Electric Motor. A counter clockwise rotation
indicates two of the incoming power leads need to be reversed. Recheck rotation before
proceeding with Installation.
CAUTION! Ensure Main Power Switch is OFF and incoming power is
locked OFF before reversing power leads.
5. Fill the Lube Reservoir with PMC Pump Lube or suitable diluents. It is not necessary to
prime the system.
14
INSTALLATION
HEATED HOSE INSTALLATION
CAUTION! The material delivery Heated Hoses are color coded Red
and Blue allowing the user to recognize them. The Red corresponds
to the Isocyanate (Iso, A) and the Blue to the Polyol (Poly, R). To avoid
connection errors the Coupling Connections of the Iso (A) and Poly
(R) Heated Hoses are also different sizes, which makes it difficult to
swap connections.
NOTE! The material delivery Heated Hoses are capped at the ends to
prevent absorbing moisture. Do not remove caps until the Heated Hoses
are going to be installed on the Proportioner.
1. Lay out all the Heated Hose assemblies end to end aligning the Iso “A” (red) and Poly
“R” (blue) and connect the respective Coupling Connections using the appropriate sized
open-end wrench after ensuring Heated Hose assemblies lay flat.
CAUTION! Take care to not cross-thread or over-tighten the Coupling
Connections. Thread seal tape or compound is not required for this
tapered seat Coupling Connections.
2. Connect the material Heated Hoses to the outlets of the respective Heaters i.e. Iso (A)
Heated Hose to the Iso (A) Heater and the Poly (R) Heated Hose to the Poly (R) Heater
ensuring Heated Hose assemblies lay flat.
a. For half inch hose assemblies, all required fittings and instructions are included in
kit 200212
3. Connect Air Hose Coupling Connections.
4. Connect the Heated Hose power wires to the “Fast-Lock” Connector (Part # KT-00029A)
coming from the Hose Heat Transformer as follows:
a. Loosen the Socket Head Set Screw to allow
insertion of the Heated Hose electrical wire
Terminal.
b. Insert the Terminal into the “Fast-Lock”
Connector Body.
c. Securely tighten the Socket Head Set Screw.
d. Install electrical tape around Connector Body.
NOTE! A good practice is to add some dielectric grease (Permatex 67VR
or equivalent) to the outside of the Terminal prior to insertion.
15
INSTALLATION
5. Repeat the above steps to connect the “Fast-Lock” Connectors that you will find on all
Heated Hose power wire.
CAUTION! Ensure the proper mechanical and electrical connections
of the Heated Hoses are made to avoid possible material leakage and
Hose heat problems.
6. It is recommended the TSU be installed between the last section of Heated Hose and
the Gun Whip. Carefully straighten the sensing wire, inserting it in the Iso (A) Heated
Hose and tighten fluid fittings with appropriate sized open-end wrenches.
CAUTION! To protect the TSU sensor, pay special attention not to
kink or excessively bend the Heated Hoses. Do not coil the Heated
Hoses with a diameter of less than 4 feet (1.22 meters).
Replacement Sensor Part # EL -51A-2
CAUTION! Connecting the TSU between the first and second section
of Heated Hose results in the TSU sensing the material temperature
exiting the Heater and not the inside of the Heated Hose near the
Spray Gun.
Temperature Sensin g Un it
(TSU) Part # EL- 51A -4
16
INSTALLATION
RECOMMENDED TAP
SETTINGS
1
Tap
Feet
Meters
120V
410
125.0
105V
360
109.7
90V
310
94.5
75V
260
79.5
60V
210
64.0
45V
160
48.8
30V
110
33.5
18V
60
18.3
TRANSFORMER SETTINGS
The Hose Heat Transformer offers the ability of
connecting to different output voltages depending
on the total length of the Heated Hose in use,
maximizing the heating ability of the Heated Hose.
The factory setting is 18 volts for use with 60 feet
(18 Meters) of Heated Hose1. Before starting the
Proportioner, ensure the setting matches the
Heated Hose length installed. If Heated Hose
sections are added or removed, the Tap setting
must be changed to a setting which will limit the
maximum amperage in the Heated Hose to 52
amps. The suggested tap settings are tabled
below2:
1
90V transformers (shown above) allow for a maximum hose length of 310 ft (94.5 m). 120V
transformers allow for a maximum hose length of 410 ft (125 m).
2
90V Transformers (shown above) are standard on all PH(X)-25 Proportioners. 120V
Transformers are standard for all PH(X)-40 Proportioners, and are also optional for PH(X)-25
Proportioners
17
INSTALLATION
7. Ensure the Manual Valves are CLOSED and connect the Coupling Block to the Heated
Gun Whip.
CAUTION! Excessive force closing or opening the Manual Valves may
result in damage to the Manual Valves and/or Coupling Block.
8. Connect the Transfer Pump/Heated Hose Assemblies air supply and air dryer systems
as required. Review the Installation Instructions for each to ensure proper set-up and
operation.
9. Install the Material Transfer Pumps as follows:
WARNING! If Transfer Pumps have been previously
used, pay special attention to connect each Pump to
“its” specific material. Inadvertently changing the
Transfer Pumps will cause a chemical reaction
rendering them useless.
NOTE! Placing tape of the same color as of the Material Delivery
Hoses (red for the Iso (A), blue for the Poly (R)) on each Transfer
Pump would be a good method for minimizing errors in
connection.
a. Make sure that the Inlet Valves on the Proportioner are closed.
b. Connect one end of the Polyol (R) Material Delivery Hose (¾” thread) to
the Proportioner Polyol (R) Inlet Valve and the other end to the Polyol
(R) Transfer Pump.
c. Connect one end of the Iso (A) Material Delivery Hose (½” thread) to the
Proportioner Iso (A) Inlet Valve and the other end to the Iso Transfer
Pump.
d. Connect the air hose to the Transfer Pumps after ensuring each Transfer
Pump Shut-Off Valve is CLOSED.
NOTE!To avoid errors in connection, the Coupling connections of
the Iso (A) and Poly (R) Material Delivery Hoses are different
sizes, making it difficult to swap connections.
10. Ground the Transfer Pump as recommend by the material supplier. The
movement of product inside the Hoses can cause static electricity and
produce electrical discharges.
18
PROPORTIONER PURGING
WARNING!Use suitable Personal Protection Equipment
(PPE) and follow the recommendations in the Safety
Information provided by product suppliers when installing or
working with the unit.
NOTE!Before using the Proportioner it is necessary to purge the entire
system, including Heated Hoses of mineral oil and air left over from Quality
Control testing. The following procedure is also followed to purge air
entrapped by running out of material in the supply Drum/Reservoirs
resulting in a significant material pressure imbalance as indicated by the
Pressure Gauges and sprayed material.
1. Ensure the following before proceeding:
a. Air supply to Transfer Pumps is 90 - 110 psi (6-8 Bar).
b. Proportioner Inlet Valves are CLOSED.
c. All connections are tight.
d. Material should be stored to the material suppliers' recommended temperatures.
2. Slowly OPEN the Poly (R) Transfer Pump Air Shut-Off Valve allowing Pump to cycle
slowly as it fills the Material Delivery Hose to the Proportioner. Check for leaks.
3. OPEN Poly (R) Coupling Block Manual Valve over a waste container.
4. Slowly OPEN Proportioner Poly (R) Inlet Valve allowing the Transfer Pump to move
material through the system. When all air spitting stops and all traces of mineral oil have
disappeared, CLOSE Poly (R) Coupling Block Manual Valve. Clean Coupling Block.
5. Repeat steps 2 to 4 for Iso (A) side.
CAUTION! Properly dispose of all waste chemicals in accordance with
all applicable local, state and federal codes.
NOTE!Do not turn on the Count Down Counter.
6. Turn Hydraulic Pressure Control (N, page 10) full COUNTERCLOCKWISE.
7. Turn ON Main Power (Q, page 11). Green pilot will light.
8. Turn ON Control Power (S, page 11). Switch will light.
9. Turn ON Motor Power (W, page 12). Switch will light.
19
PROPORTIONER PURGING
10. Set Pump Switch (X, page 11) to NORMAL. Turn Hydraulic Pressure Control
CLOCKWISE (N, page 10) increasing material pressure to 400 psi (27 bar). Both
Material Pressure Gauges (H, K, page 10) should read the same.
11. Check all connections for leaks.
12. Bundle all Heated Hose Connections ensuring that there are NO kinks in the TSU Cable
or Air Hose. Wrap with Electrical Tape to securely hold all components in place and
minimize places for bundle to snag onto job site protrusions.
20
PRESSURE BALANCE CONTROL
The PH Series Proportioner has been designed with a pressure balance control system.
This system will give the operator of this machine the ability to control a pressure
imbalance within certain predetermined parameters.
The system consists of:
Selector Switch
Fault Light
On Light
Control Unit
Pressure Transducers
Relay
OPERATION
Position the selector switch on one of the three options:
Pressure differential number – these consist of 300, 400, 500, 600, and 700
PSI. Selecting any of these numbers with the switch will activate the green ON
light. While the pressure differential numbers are selected, the control box will
continually monitor pressure on both sides of the Proportioner. In the event that
the pressure differential between both sides of the Proportioner is equal to or
larger than the selected number, a fault is given (the red fault light is turned on
and the active green light is turned off) and shuts down.
Off – if the selector switch is placed in this position, the Proportioner will operate
as though there is NO PRESSURE BALANCE CONTROL SYSTEM (neither the
red fault light nor the active green light will be lit). The over pressure system will
remain active for the machine and personnel protection.
Reset – in the event of a pressure imbalance, resolve the Proportioner
imbalance, position the selector switch on reset to clear the fault light and restore
power to the Proportioner. After the fault has been cleared, position the switch in
either a Pressure Differential number or in the Off Position to continue
operations.
21
DIGITAL TEMPERATURE CONTROLLER
The PH Series has three Digital Temperature Controllers to manage the temperatures for the
Primary Heaters (Iso (A), Poly (R)) and the Heated Hose. The Hose Heater Controller is
programmed different from the Iso (A) and Poly (R) Controllers and therefore not
interchangeable with them.
WARNING! Do not turn the Temperature Controllers ON until
the Proportioner Purging procedure is complete and the
Primary Heaters and Heated Hoses are filled with material.
1. Ensure Main Power (Q, page 11) is ON,
Control Power (S, page 11) is ON, and 01
Display light is lit.
2. Press and release button. The display will
read SP1.
3. Press and release or button to display the current material temperature set-point.
4. Press and hold the or to increase or decrease the material temperature set-point to
the desired value as determined by the material supplier or application conditions.
5. Press and release and together to return to the actual material temperature in the
Primary Heater/Hose Heater.
WARNING!The Controllers are factory programmed and are
not field re-programmable. If a problem is encountered,
contact your PMC Distributor. Do not attempt to change any
of the programmed parameters. Do not substitute a
Controller from an alternate supplier as its use may result in
equipment damage and/or bodily injury.
NOTE!The Temperature Controller normally displays the actual material
temperature. When lit, the “01” display in the upper left indicates power is
sent to the designated heating system. The “01” display goes out when the
material temperature has reached its set-point. The “01” display will
continue to cycle on and off indicating the Controller is maintaining the
material temperature set-point.
22
START-UP
NOTE!Follow the recommended procedures in the order shown.
CAUTION!The Start-up procedures assume that all of steps in
Proportioner purging have been performed and no problems found.
1. Check the condition of the PMC pump lube in the Iso (A) Lube Reservoir (page 14).
Replace the PMC pump lube if you see significant changes in the color or signs of
solidification. Ensure inside of Reservoir is wiped clean.
2. Check the hydraulic fluid level and service as required.
3. Make sure the materials have been stored at the manufacturer's recommended
temperature. Ask your material supplier for information (Material Data Sheet) on the
minimum storage temperature.
4. Connect air supply to the two Transfer Pumps and ensure Air Valves are in the full
OPEN position. OPEN both Proportioner Material Inlet Ball Valves.
CAUTION!Remove all Heated Hose sections from coiled storage and
lay flat to eliminate heat build-up and possible Heated Hose failure.
5. Turn ON Main Power (Q page 11).
6. Turn ON Control Power (S, page 11).
7. Turn ON Hose Heater (T, page 11) and confirm material set-point temperature as
recommended by the material supplier or application conditions.
CAUTION!To avoid excessive pressure in the Proportioner, wait for
the Hose Heater to reach its set-point temperature before continuing.
8. Turn ON each Primary Heater and confirm material set-point temperature as required by
the material supplier or application conditions has been reached.
9. Turn ON Motor Power (W, page 12).
10. Set Pump Switch (X, page 11) to NORMAL. One of the Directional Indicator Lights (Y,
page 12) will light indicating Metering Pump direction and the Metering Pump Shafts will
begin to move.
NOTE! The Material Pressure Gauges (H, K, page 10) should be
approximately equal and remain constant throughout the Metering Pump
cycle. If not, refer to Trouble Shooting section.
23
START-UP
120 Pumps
80 Pumps
16 cycles = 1 gal (3.79 L)
24 cycles = 1 gal (3.79 L)
NOTE! Directional Indicator Lights must indicate Metering Pump direction
when Pump Switch is in the NORMAL position. If not, refer to Trouble
Shooting section.
11. Using the Hydraulic Pressure Control, adjust to the required stall pressure1 and check
each Material Pressure Gauge.
12. COUNT DOWN COUNTER
NOTE! If this function is not needed, leave it in the off position.
To set the Auto Shut Down Counter:
a. Turn the switch to the on position, the green light will illuminate.
b. Insert the number of cycles desired to disable the pump circuit by pushing in on
the white triangles to set the cycle count. Push in on the red button until the data
is replicated on the top row, the top row will count down. Figure B
c. When the counter counts down to zero the machine will stop and the pump
directional light will be off, push in on the red button to reset. Figure C
13. Proceed with Installation and Start-up of the Spray Gun as per the Gun manual.
1
Stall pressure: When materials are at recommended application temperature and Metering
Pumps are pressurized but not moving. This pressure is normally 100 – 200 psi (7-14 Bar)
greater than the developed spray pressure as recommended by the material supplier.
24
SHUT-DOWN
Short Term
Follow the procedure below for temporary shut-downs, such as lunch breaks:
1. Set Pump Switch (X, page 11) to OFF position.
2. Turn each Heater OFF. Hose Heater should remain ON. Never leave Proportioner ON if
unattended.
3. CLOSE Spray Gun Manual Valves.
CAUTION! Excessive force opening or closing the Manual Valves may
result in damage to the Manual Valves and/or Coupling Block.
Long Term
Follow the procedure below for shut-downs when work is stopped for the day:
1. Set the Pump Switch (X, page 11) to RETRACT.
2. Spray off the application surface until Material Pressure Gauges (H, K, page 10)
readings begin to fall.
CAUTION! To avoid possible Proportioning Pump Seal seepage and
moisture vapor drive into the Heated Hoses, the system pressure
should not be reduced to zero. It is recommended to lower the system
pressure to a minimum of 400 psi (27 Bar).
3. CLOSE the Spray Gun Coupling Block Manual Valves.
CAUTION! Excessive force opening or closing the Manual Valves may
result in damage to the Manual Valves and/or Coupling Block.
4. Turn OFF Motor Power (W, page 12).
5. Turn OFF the A and R Heaters and Hose Heater (T, page 11).
6. Turn OFF the Auto Shut down switch.
7. Turn OFF the Control Power (S, page 11).
8. Turn OFF the Main Power (Q, page 11).
9. Disconnect the air supply to the two Transfer Pumps and CLOSE the Proportioner
Material Inlet Valves.
25
To prevent possible injury caused by incorrect handling of the raw
materials and solvents used in the process, carefully read the
Material Safety Data Sheet (MSDS) provided by your supplier.
Deal with the waste caused according to current regulations.
To avoid damage caused by the impact of pressurized fluids, do
not open any connection or perform maintenance work on
components subject to pressure until the pressure has been
completely eliminated.
Use suitable protection when operating, maintaining or being
present in the area where the equipment is functioning. This
includes, but is not limited to, the use of protective goggles,
gloves, shoes and safety clothing and breathing equipment.
The equipment includes components that reach high temperatures
and can cause burns. Hot parts of the equipment must not be
handled or touched until they have cooled completely.
To prevent serious injury through crushing or amputation, do not
work with the equipment without the safety guards installed on the
moving parts. Make sure that all the safety guards are correctly
reinstalled at the end of the repair or maintenance work of the
equipment.
TROUBLESHOOTING
The PH Series Proportioner has been designed and built to withstand severe working conditions
with a high degree of reliability, provided that it is used in a suitable application by a properly
trained operator. This chapter contains information on possible faults that may interrupt the
operation of the PH Series Proportioner. The information provided will serve as a guideline to
detect and resolve problems. In any case, feel free to contact your authorized PMC Distributor,
where a qualified technician will advise you.
CAUTION! All repairs performed by unqualified personnel or the use
of spares other than originals may cause damage to the unit and put
the operator at risk.
26
TROUBLESHOOTING
HEATERS
WARNING! Before troubleshooting make sure the Main
Power Switch is OFF and incoming power is locked OFF.
NEVER access the inside of the Control Panel with the
Proportioner power supply ON. The Heaters are components
that reach high temperatures; you must wait until they cool
before handling.
NOTE! The Thermal Limit Switch is a safety switch in contact with the
Heater body. If the surface temperature exceeds 220 F (109 C), the Limit
Switch will shut off the Heater power. The Limit Switch will not re-set until
the temperature in the Heater is below 190 F (88 C). The system is
designed that in case of an over temperature a contactor will open,
disabling power to both Heaters and the Hose.
27
TROUBLESHOOTING
Follow the recommended procedure in the indicated order to solve the problem and avoid
unnecessary repairs. Make sure all Switches are in the correct position and Indicator Lights ON
before determining the existence of a fault.
PROBLEM
Primary heater does not heat and the display on the controller shows ambient
temperature.
SOLUTIONS
1. Check that the light on the on/off switch is lit when the heater is turned on, if
not replace the switch.
If the light is on, move to the next step.
2. Check the heater breaker in the main console, reset the breaker, if it
continues to trip, wrap an Amp Clamp around one of the wires coming off the
breaker. If the Amperage reading does not exceed the rating of the breaker,
the breaker needs to be replaced. If the breaker draws more than its rating
the most likely cause is that one or more of the fire rods are shorted. Remove
the heater cover, disconnect the wires and check each rod for resistance.
Refer to page 30.
If the breaker is not tripped, move on to the next step.
3. Open the console top and locate the solid state relays for the heaters, looking
over the console top from the front of the machine. There are two relays to
the left bottom of the console, the one to the far left is for the “A” heater and
the one to the right is for the “R” heater. With the heater on look to see if a
LED light is lit on the relay.
If there is no LED light on the solid state relay, move to the next step.
4. With a DC volt meter read across position A1 and A2 on the solid state relay
(smaller wires) if you have a reading of 4-6 volts DC and the AC reading
across L1 and L2 (Heavy wires) reads 208-230 volts AC replace the solid
state relay. With 24 volt DC at A1 and A2 the proper reading should be 1 volt
AC across L1 and L2. If the AC reading across L1 and L2 is .025 volts check
the over temperature switches in the heaters. A defective over temperature
switch will open a contactor disabling both Heaters and the Hose.
If there is no DC voltage to the relay, move to the next step.
5. Using a DC volt meter measure across position 5 and 6 on the back of the
heater controller this is the output of the controller and sends power to the
solid state relay, your reading will be 4-6 volts DC. If there is no reading check
to make sure that the set temperature on the controller is above the actual
temperature reading on the controller. Before replacing the controller read
28
TROUBLESHOOTING
across position 1 and 2 to make sure that the controller is powered up, your
reading will be 208 to 230 volts AC. If no voltage is present check for loose
wires or a malfunction of the heater circuit breaker.
PROBLEM
Primary heater does not heat and the display on the controller shows a flashing error
message SbEr.
SOLUTIONS
1. Check position 9 and 10 on the heater controller for loose wires.
If the wires are tight, move to the next step.
2. Remove the heater cover and check that the thermocouple wires are secure to
the harness going up to the controller.
If there are no loose connections, replace the thermocouple.
PROBLEM
Primary heater controller shows excessive temperature and the circuit has turned off.
CAUTION!The heater must be allowed to cool down before
continuing.
SOLUTIONS
1. Set the controller set point at least 20F (7C) lower than the temperature shown
on the controller. Briefly turn on the heater and look for the LED light on the solid
state relay to be on.
If the light is on, replace the controller.
If the light is off, replace the solid state relay.
PROBLEM
Primary Heater Temperature drops excessively while spraying.
POSSIBLE CAUSE
1. Temperature of the chemical in the containers is too cold.
2. Exceeding the flow rate specification of the machine.
CAUTION!Disconnect power to the machine before proceeding.
29
TROUBLESHOOTING
INDIVIDUAL OHMS MEASUREMENT
1000 WATT
45.9 Ω
1250 WATT
39.0 Ω
1500 WATT
32.4 Ω
1750 WATT
27.5 Ω
3. One or more of the fire rods in the heater have malfunctioned. Remove the
heater cover and disconnect the wires to measure the resistance across each
rod. Installing a smaller mixing chamber in the gun may allow you to spray until a
new rod(s) is installed.
CAUTION! If the rod that is used in conjunction with the thermocouple
is defective, do not operate the heater until the rod is replaced.
30
TROUBLESHOOTING
HYDRAULIC DRIVE SYSTEM
Follow the recommended procedure in the indicated order to solve the problem and avoid
unnecessary repairs. Make sure all Switches are in the correct position and Indicator Lights ON
before determining the existence of a fault.
WARNING! Before correcting any kind of defect, make sure
the Main Power Switch is OFF and the incoming power is
locked OFF. NEVER access the inside of the Control Panel
with the Proportioner power supply ON. The Hydraulic Unit is
a component that works under pressure. Do not open any
connection or carry out maintenance on components subject
to pressure until all pressure has been bled to zero.
CAUTION! Do not attempt to reset the Motor Contactor more than
twice. Failure of the Motor Contactor safety mechanism will occur and
the Contactor will become inoperable and/or the Motor will be
damaged. The cause of the problem must be determined and
corrected.
PROBLEM:
Motor does not run and Hydraulic Pump does not develop pressure.
SOLUTIONS:
1. The Electric Motor is protected from excessive current by
an Overload Safety Switch. After allowing the Motor to
cool, open the Control Panel and reset Motor Contactor
Safety.
31
TROUBLESHOOTING
PROBLEM:
Motor runs but Hydraulic Pump does not develop pressure
SOLUTIONS:
NOTE!Hydraulic pressure is not generated if the Motor Power Switch (W,
page 12) is OFF or the Pump Switch (X, page 11) is in the OFF position.
With the Pump Switch in the NORMAL position, the failure of the Hydraulic Pump
to develop pressure is loss of pump suction (prime). To ensure positive prime,
check the following:
1. Motor rotation (page 14).
2. Hydraulic Reservoir is filled to the correct level (page 14).
3. Hydraulic Pump Case is filled with the proper hydraulic fluid (page 56).
4. Loose Inlet Plumbing: Check that all inlet plumbing to the Hydraulic Pump
is tight ensure there is no air leakage into the hydraulic system.
PROBLEM:
Low or zero hydraulic pressure with unusual Hydraulic Pump noises.
SOLUTION:
The use of an incorrect hydraulic fluid can result is unusual noises from the pump,
excessive wear and moisture absorption. Ensure the hydraulic oil used is from the list
on page 56. In addition to the above, continuous excessive hydraulic oil temperature as
well as failure to change the hydraulic oil on a yearly basis will cause the oil to fail and
result in excessive Hydraulic Pump wear and unusual noises.
1. Loose Inlet Plumbing: Check that all inlet plumbing to Hydraulic Pump is tight
ensuring no air leakage into the hydraulic system.
NOTE! Hydraulic Pressure will not be developed in the off position if the
pump switch is in the off position or if there is a malfunction in the pump
circuit.
32
TROUBLESHOOTING
METERING PUMP LINE
Follow the recommended procedures in the indicated order to solve the problem and avoid
unnecessary repairs. Make sure all Switches are in the correct position and Indicator Lights ON
before determining the existence of a fault.
PROBLEM:
Metering pumps do not change direction and the pressures on both of the
chemical gauges are lower than normal.
SOLUTIONS:
1. The Metering Pump Line has a Reversing Plate which actuates two Proximity Switches,
one at each end of the stroke. The Prox Switches in turn actuate the appropriate
Directional Valve Solenoid. Failure to make contact with either PROX Switch may be
caused by:
a. Deformation of the Reversing Plate.
b. Foreign material preventing the Reversing Plate from contacting the Prox
Switches. If this is not the problem, go to the next step
2. Passing of the Reversing Plate beyond the Prox Switch may be caused by:
a. Failure of the Prox Switch and related components on the side of the over-run.
b. Failure of a component of the Directional Valve.
c. Mounting Plate and/or Prox Switch is out of adjustment.
NOTE! IF THE DIRECTIONAL INDICATOR LIGHT IS ON CHECK THE
REVERSING VALVE COIL ON THE SIDE THAT THE LIGHT IS ON. IF
YOU HAVE 24 VOLTS DC AT THE PLUG CHECK THE OHM’S
RESISTANCE OF THE COIL, IT SHOULD READ APPROXIMATELY 19
OHM’s, IF NOT REPLACE THE COIL OR REVERSING VALVE.
33
TROUBLESHOOTING
NOTE! IF THE DIRECTIONAL LIGHT IS OFF PROCEED BELOW
NOTE! BEFORE TROUBLESHOOTING, THE REVERSING SWITCH
PLATE MUST BE MOVED AWAY FROM THE SWITCH.
d. Bleed down the chemical pressures.
e. Ensure Pump Switch (X, page 11) is OFF.
f. Turn on the motor (W, page 12).
g. Go to the Directional Valve and locate the Actuation Coils. Located in the middle
of each coil is a small round tab that can be pushed in to manually shift the spool
to move the pumps. If the Reversing plate is all the way to the left, push in on the
right side coil. If it’s all the way to the right, push in on the left side coil.
WARNING! THE MOTOR MUST BE OFF AND THE PUMP
SWITCH IN THE NORMAL POSITION.
h. Take a small screw driver or a thin piece of metal and move it across the front of
each Prox switch. A red light on the back of the switch should illuminate. If not,
replace the switch that does not light.
i. If the Prox switches light up, turn off all power and check for continuity on both
over pressure switches, pin 1 and 2. If the pressure switches are good, go to the
two solid state relays inside the console and interchange them (they can be
pulled from their housing). With the motor OFF and the pump switch in the
normal position, power-up the unit. If the directional light comes on replace the
defective solid state relay. If not, replace the Latching relay.
34
TROUBLESHOOTING
MATERIAL CONDITION
“A” GAUGE
“R” GAUGE
NORMAL
LACK OF ISO (A)
LACK OF POLY (R)
RESTRICTION OF ISO (A)
RESTRICTION OF POLY (R)
2. Safety Pressure Switch - Each Metering Pump has a Safety Pressure Switch (I, L,
page 10). For PH-25 and PH-40 Proportioners, the Safety Pressure Switch is set to
2,200 PSI (152 bar). For PH(X)-25 Proportioners, the Safety Pressure Switch is set to
3,200 PSI (221 bar). For PH(X)-40 Proportioners, the Safety Pressure Switch is set to
3750 PSI (221 bar). When the material system reaches this pressure, the Safety
Pressure Switch will remove power from the Directional Valve and Direction Indicator
Lights (Y, page 12). Lack of Direction Indicator Lights along with high pressure indicated
on one or both of the material Pressure Gauges (H, K) is an indication of a overpressure condition. The Safety Pressure Switches are a momentary design; when the
pressure bleeds off the Metering Pump Line will resume normal operation. However, the
cause of the over-pressure should be determined and corrected. The three most
common causes are:
a. Cavitation of the Metering Pump on the low pressure side causing high pressure
on the opposite side.
b. A restriction in the Spray Gun on the high pressure side.
c. Hydraulic pressure set too high for Spray Gun Mixing Chamber.
3. Pressure/Material Imbalance - In summary troubleshooting this problem requires the
applicator to:
a. Know what the NORMAL spray pressures are for the application in progress.
b. Determine what material is NOT exiting the Mixing Chamber.
c. Read the Pressure Gauge on the problem side and interpret the reading.
35
TROUBLESHOOTING
Left Directional Indicator
Light ON
Right Directional Indicator
Light ON
Iso Pressure Gauge
FALLS
Iso Inlet Ball does not
seat properly
Iso Discharge Ball does
not seat properly
Poly Pressure Gauge
FALLS
Poly Discharge Ball does
not seat properly
Poly Inlet Ball does not
seat properly
4. Cavitation - Cavitation occurs when the Metering Pump (B, or C, page 10) requires a
larger volume of material than the supply system (Transfer Pump) can furnish. This
creates a "void" of material in the Metering Pump. The most common causes of
cavitation are:
a. Material temperature too low causing increased material viscosity resulting in the
inability of the Transfer Pump to maintain sufficient supply to the Metering Pump.
This is most common with today's blown systems. Ensure the material
temperature in the drums is no lower than the material suppliers'
recommendation.
b. Failure to vent the material drum while drawing material out with the Transfer
Pump causes a vacuum and cavitation in the Transfer Pump. Ensure the drum is
vented to the atmosphere or a Desiccant Air Dryer Kit is installed as
recommended by the material supplier.
c. Air volume is insufficient for the Transfer Pump or if the Transfer Pump Air Valve
is partially closed, this will limit the ability of the Transfer Pump to operate at its
maximum capability.
d. Inlet Material Screen (O) obstructed (See MAINTENANCE section).
e. Metering Pump Inlet Ball does not seat properly allowing material to flow back
into the Material Delivery Hose when the Metering Pump is on the "Discharge"
stroke. This causes the volume of material on that Metering Pump to be less on
the discharge stroke resulting in intermittent off-ratio material and Pressure
Gauge fluctuation.
5. Pressure Loss: Discharge/Inlet Ball - Simultaneous observation of the material
Pressure Gauge (H, K, page 10) and Directional Indicator Light (Y page 12) is necessary
to determine which direction the Metering Pump fails to maintain pressure. Refer to the
chart to determine the problem:
In most cases the cause of a leaking Inlet/Discharge Ball is foreign material preventing
the Ball from seating properly. If the above steps do not resolve the problem, replace the
appropriate Ball, Ball Seat, Ball Seat Gasket and the O-ring on the cage.
For service see MAINTENANCE/Metering Pump Line (Page 46).
36
TROUBLESHOOTING
HOSE HEATING
WARNING! Before correcting any kind of defect, make sure
the Main Power Switch is OFF and incoming power is locked
OFF. NEVER access the inside of the Control Panel with the
Proportioner power supply ON. The Heated Hoses are
components which reach high temperatures. Wait until they
have cooled before handling.
CAUTION! All electrical testing must be done by a qualified
electrician.
Follow the recommended procedure in the indicated order to solve the problem and avoid
unnecessary repairs. Make sure all Switches are in the correct position and Indicator Lights ON
before determining the existence of a fault.
PROBLEM:
A-Heated hose does not heat and the display on the controller shows ambient
temperature.
SOLUTIONS:
1. Check that the light on the on/off switch is lit when the heater is turned on, if not
replace the switch.
If the light is on, move on to the next step.
2. Check the Hose Heat Breaker in the main console reset the breaker. If it
continues to trip wrap an Amp Clamp around one of the wires coming off the
breaker. If it does not draw more than the rated value of the breaker, the breaker
needs to be replaced.
If the breaker is not tripped, move on to the next step.
3. Check the circuit breaker mounted on the transformer and reset the breaker if
necessary. If it continues to trip wrap an Amp Clamp around one of the wires
from the transformer going to the heated hose. If it does not draw more than the
rated value of the breaker, the breaker needs to be replaced.
If the AMP draw is less than the rated value, move on to the next step.
4. Check that the tap setting on the transformer is set for the proper hose length.
If it is set correctly, move to the next step.
37
TROUBLESHOOTING
5. Look at the two lights located on the front of the transformer. If the voltage light is
lit and the AMP light is off the problem could in the heated hoses. If the voltage
light is on there is power to the primary side of the transformer. To check the
secondary side of the transformer you must take an AC volt reading across the
two leads coming out of the transformer that are connected to the “A” and“R”
hose leads. If you are reading voltage (your voltage reading will vary depending
on what tap setting is used) most likely the problem is in the heated hose. Either
a connector has come loose or there is a broken wire.
6. Remove one of the wires coming out of the transformer that is connected to
either the “A” or “R” side of the heated hose. Using an ohms meter perform a
continuity reading across the two lead wires coming off the machine end of the
heated hose. If there is no continuity through the hose check for loose or broken
connection between each section of hose. If all the connections are secure and
there are no visible broken wires it is possible that the element on the hose or the
lead wire has broken at its connection. Each hose must be checked individually
for continuity. Because the gun whip takes the most abuse it is most likely that
the problem is in the hose whip up at the gun end.
If no voltage is coming out of the transformer to the heated hose, move on
to the next step.
7. Open the console top and locate the solid state relay for the hose circuit (see
page 34), looking over the console top (front of machine) it is the relay to the
right. With the hose turned on and there is a LED light lit on the relay, take a volt
meter set on DC and measure across position A1 and A2 your reading should be
24 volts, then take an AC volts measurement across position L1 and L2 (heavy
wires). With the relay functioning properly you should have a 1 volt reading, if the
reading is 18 to 90 volts AC the relay has malfunctioned and needs to be
replaced. If the AC Reading across L1 and L2 is .025 volts check the over
temperature switches in the heaters. A defective over temperature switch will
open a contactor disabling both Heaters and the Hose.
If there is no light on the solid state relay, move to the next step.
8. Using a DC volt meter measure across position 5 and 6 on the back of the hose
controller, this is the output of the controller and sends power to the solid state
relay, your reading will be 4-6 volts DC. If there is no voltage check to make sure
that the set temperature of the controller is above ambient temperature. Before
replacing the controller read across position 1 and 2 to make sure that the
controller is powered up, your reading will be 208 to 230 volts AC.
38
TROUBLESHOOTING
PROBLEM:
Hose does not heat and the display on the controller shows a flashing error message
“SbEr.”
SOLUTIONS:
1. Check position 9 and 10 on the heater controller for loose wires.
If the wires are tight, move to the next step.
2. Remove the transformer cover and check that the thermocouple wires are secure
to the harness going up to the controller. If there are no loose connections,
disconnect the wire from the TSU and connect it directly to the thermocouple
harness coming out of the hose transformer.
If the controller still shows the error code, replace the hose thermocouple.
If the error code goes away and temperature is now shown on the display of the
controller, then all the TSU harnesses from the TSU to the transformer need to be
checked for loose connectors or one or more of the harnesses are defective.
1. Set the controller set point at least 20F (7C) lower than the temperature shown
on the controller. Briefly turn on the Hose Heater Switch and look for the LED
light on the solid state relay to be lit.
If the light is on, replace the controller.
If the light is off, replace the solid state relay.
PROBLEM:
Hose will heat but does not come up to set temperature.
SOLUTIONS:
1. Check the tap setting on the transformer to ensure that the correct position has
been selected for the length of hose being used. Depending on the machines
incoming voltage, you may have to move the tap setting higher (up one).
CAUTION! Do not exceed the trip value of the transformer hose
breaker.
39
TROUBLESHOOTING
WARNING! Before correcting any kind of defect, make sure
the Main Power Switch is OFF and incoming power is locked
OFF. NEVER access the inside of the Control Panel with the
Proportioner power supply ON.
NOTE! In the event an equipment problem cannot be solved after following
the detailed instructions contained in this manual, please contact your PMC
authorized distributor and they have direct contact with PMC Technical
Service Department.
NOTE! For all parts and field service, contact your PMC authorized
distributor.
40
TROUBLESHOOTING
PRESSURE BALANCE CONTROL
If the Pressure Balance Control box is not working properly, follow these steps to resolve the
potential issue:
1. With the Main Power ON, check the Power/Run light on the Control Unit:
a. If OFF, the Control Unit is not getting power. Check for loose or poor wire
connections. If the Power/Run light still does not turn on, contact your authorized
PMC distributor.
b. If SOLID, the Control Unit has power but no program. Contact your authorized
PMC distributor.
c. If BLINKING, the Control Unit has power and is programmed properly. Proceed
to the next step.
2. With Main Power ON, turn the Rotary Switch to a Pressure Differential Number and
check the Amber light on CR1:
a. If OFF, CR1 is not activating properly. Check for loose or poor wire connections
between the Control Unit and CR1.
b. If ON, CR1 is activating, but the mechanical switch inside the relay may not be
functioning properly. If the system has faulted (i.e. a pressure imbalance exists,
the ON light turns off, and the FAULT light turns on), but the pumps do not shut
off, check for continuity between contacts 11 and 12 on CR1. If there is
continuity, contact your authorized PMC distributor. If there is discontinuity,
proceed to the next step.
3. With Main Power OFF:
a. Check all remaining wires to ensure secure and proper connections.
b. Check for continuity across the ON light terminals and the FAULT light terminals.
If there is discontinuity, switch the leads of the meter and check again.
4. Contact your authorized PMC distributor for further assistance.
41
To prevent possible injury caused by incorrect handling of the
raw materials and solvents used in the process, carefully read the
Material Safety Data Sheet (MSDS) provided by your supplier.
Deal with the waste caused according to current regulations.
Disconnect the unit from the power supply before carrying out
any operation inside the electrical console.
The electrical maintenance of the machine must only be
performed by a qualified electrician.
To avoid damage caused by the impact of pressurized fluids, do
not open any connection or perform maintenance work on
components subject to pressure until the pressure has been
completely eliminated.
Use suitable protection when operating, maintaining or being
present in the area where the equipment is functioning. This
includes, but is not limited to, the use of protective goggles,
gloves, shoes and safety clothing and breathing equipment.
The equipment includes components that reach high
temperatures and can cause burns. Hot parts of the equipment
must not be handled or touched until they have cooled
completely.
To prevent serious injury through crushing or amputation, do not
work with the equipment without the safety guards installed on
the moving parts. Make sure that all the safety guards are
correctly reinstalled at the end of the repair or maintenance work
of the equipment.
MAINTENANCE
To achieve maximum output from thePH Series Proportioner, a daily or regular
maintenance schedule is required.
CAUTION! All repairs performed by unqualified personnel or the use
of parts other than supplied by PMC may cause damage to the unit
and put the operator at risk.
42
MAINTENANCE
INLET MATERIAL SCREENS
Inspection of the Inlet Material Screens on a daily basis is no longer necessary as long as the
following conditions are met.
1. Material drums are stored within the recommended material storage temperature range
and drums are not opened prior to installing the Proportioner Material Transfer Drum
Pumps.
2. Desiccant air dryers are used to dry replacement air as material is removed from the
drums to the Proportioner.
3. Consolidation of old material into a common drum for use is minimized especially the Iso
(A).
If the above conditions are met, inspection of the Inlet Material Screens may be done on a bi-weekly basis. To check the Inlet Material Screens, proceed as follows:
NOTE!Inspect and clean Inlet Material Screens before Proportioner start-
up. They should not be cleaned after the days operation as the
Proportioner should be purged (see page 19) immediately after inspection
and cleaning. This is to reduce the risk of moisture contamination and
contamination through the reaction with any solvent used in the cleaning
operation and cross-over at the Spray Gun due to air entrapment.
CAUTION! Make sure the Main Power Switch is OFF and incoming
power is locked OFF.
1. CLOSE the Poly (R) Proportioner Inlet Valve.
2. Place a suitable container under the Material Inlet
Strainer to collect the residual material. Carefully loosen
the Strainer Plug to drain material into the container.
3. Completely unscrew the Strainer Plug.
4. Remove the Seal, Spring and Screen and clean them with a suitable solvent. Dry the
parts and ensure the Screen is not obstructed. Replace the Screen if more than 20% of
the Screen surface is obstructed by residue.
5. Reinstall the Screen, Spring and Seal. Screw on the Strainer Screw and screw in Plug.
6. OPEN the Poly (R) Proportioner Inlet Valve, pressurize the Material Transfer Pump,
check for leaks and wipe Y-strainer clean.
7. Repeat above for the Iso (A) side.
8. Proceed with Proportioner Purging operation (page 19).
43
MAINTENANCE
ISO LUBRICATION SYSTEM
Daily: Check the condition of the PMC Lube Oil in the Iso
Lube Reservoir. Replace the PMC Lube Oil if you see
significant changes in the color or signs of solidification.
Ensure inside of Reservoir is wiped clean.
To replace the Lube Oil, proceed as follows:
1. Remove the Lube Reservoir from its support,
unscrew the Lid and remove the Check Valve from
the Suction Hose.
2. Empty the contaminated Lube Oil in a waste
container and refit the Check Valve in the Suction
Hose.
NOTE! Valve is directional.
3. Clean the Reservoir, refill with Lube Oil, and screw on the Lid and place the Reservoir in
its support.
The system is auto-suction and does not need priming.
44
MAINTENANCE
HYDRAULIC DRIVE SYSTEM
WARNING! Before performing any maintenance, make sure
the Main Power Switch is OFF and incoming power is locked
OFF. The Hydraulic Unit is a component that works under
pressure. Do not open any connection or carry out
maintenance on components subject to pressure until all
press has been bled to zero.
The hydraulic unit should be serviced yearly:
1. Completely drain the Tank of hydraulic fluid.
2. Clean the Tank Top to prevent foreign material from falling into the Tank when the Lid is
removed.
3. Unscrew the Suction Pipe from its connection with the Hydraulic Pump.
4. Remove the Lid and Suction Pipe from the Hydraulic Tank. Take care not to damage
Tank Lid Gasket.
5. Inspect the bottom of the Tank for sediment and clean as required. Clean the Suction
Pipe and its connections.
6. Insert the Suction Pipe into the Tank and replace the Lid. Again, take care not to
damage Tank Lid Gasket. Connect the Suction Pipe securely to the Hydraulic Pump
using thread sealant.
7. Fill the Tank with 20 gallons (76 Liters) of approved hydraulic fluid. See page 56 for
recommendations.
8. Ensure the Hydraulic Pump Case is full of fluid (Installation, page 13) and proceed with
the normal operation.
45
MAINTENANCE
METERING PUMP LINE
WARNING! Before performing any maintenance,
make sure the Main Power Switch is OFF and
incoming power is locked OFF. Allow material
temperature to cool below 80F (27C) and
bleed all material pressure to zero.
Weekly: When the Proportioning Pumps are functioning properly it is not
unusual for a small amount of Poly (R) material to appear on the Pump
Shaft. This material should be wiped away so dirt does not accumulate on
the Pump Shaft and the Pump Shaft Packings are not damaged.
Yearly or as required: Assuming the Iso (A) and Poly (R) is free from contaminates, the
maintenance of the Iso Lube Reservoir (page 44) is performed, and the maintenance of the Poly
(R) Pump Shaft (above) is followed, the Proportioning Pumps will perform for many
maintenance free cycles. However, it is not unusual for those who use the PH Series
Proportioner on a regular basis to rebuild the Proportioning Pumps on a yearly basis and
service the Hydraulic Drive System at the same time, when the Proportioner is out of service.
Pump Base Service
To service Discharge/Inlet Ball:
1. CLOSE appropriate Proportioner Inlet Material Supply Valve and remove Air Line from
Transfer Pump.
2. Ensure all material pressure in the Proportioner system is zero and remove appropriate
Retainer Nut.
3. For Inlet Ball:
a. Remove Inlet Ball with a Magnet (DO NOT USE ANY SHARP OBJECTS), clean
Ball and Ball Seat, and inspect for foreign material and any flat spots on Ball.
b. Using supplied Ball Seat Tool (TL-02), check for proper Ball Seat/Ball Seat
Gasket compression. Snug Seat up to ¼ turn maximum 110 ft-lbs (149 N-m).
4. For Discharge Ball:
a. Perform steps 1 & 2 from above.
b. Remove Cage and Spring.
c. Remove Discharge Ball with a Magnet, clean Ball and Ball Seat, and inspect for
foreign material and any flat spots on Ball.
46
MAINTENANCE
d. Using supplied Ball Seat Tool (TL-02), check for proper Ball Seat/Ball Seat
Gasket compression. Snug Seat up to ¼ turn maximum 30 ft-lbs (41 N-m).
Pump Seal Replacement
NOTE! Refer to Parts Identification Drawing for reference.
When the Iso (A) Proportioning Pump Cylinder is disassembled for service, all
parts included in the Seal Kit (KT-05001-120 or KT-05001-080) should be
replaced.
When the Poly (R) Proportioning Pump Cylinder is disassembled for service, all
parts included in the Seal Kit (KT-05002-120 or KT-05002-080) should be
replaced.
When assembling Proportioning Pump lubricate all Seals, Piston Rod and Pump
Cylinder with #1 Lithium Grease to assist in assembly and minimize Seal
damage during re-assembly.
When the Pump Line End Block is disassembled for service, all O-rings included
in the O-ring Kit (KT-05009) should be replaced.
After reassembly of the Proportioning Pumps torque the Assembly Bolts to 30 ft-
lbs (41 N-m)
CAUTION!Use wooden or plastic tools or a brass brush for cleaning.
Do not use metal or abrasive tools that can scratch the contact
surfaces.
METERING PUMP REMOVAL
NOTE! If removing the Polyol side pump, skip steps 3 (three) and 4 (four).
1. Put machine in retract position.
2. Turn off main power and discharge all pressure gauges to 0 (zero).
3. Disconnect the bottom elbow on the Iso lube cylinder and drain all Iso lube.
4. Disconnect the top hose going to Iso lube cylinder then uninstall red plug.
5. Remove clevis pin.
6. Disconnect the hose on the pump flange.
7. Disconnect the Y-strainer from elbow.
8. Carefully remove the 4 (four) bolts and washers while holding the pump in place.
47
MAINTENANCE
MATERIAL HEATER
WARNING! Before performing any maintenance,
make sure the Main Power Switch is OFF and
incoming power is locked OFF. NEVER access
the inside of the Control Panel with the
Proportioner power supply ON. The Heaters are
components that reach high temperatures; you
must wait until they have cooled before
handling and bleed all material pressure to zero.
NOTE! The Thermocouple is assembled
into the Connector Body with a Ferrule
and Nut. Once inserted into the Body
and the Nut is tightened, the Ferrule
locks to the Thermocouple and does not
allow it to be relocated or moved. The
location of the Thermocouple is very
important and must be done correctly
before tightening the Nut.
Thermocouple Replacement
1. Unscrew the Nut that holds the defective Thermocouple
and remove from the Body. Disconnect Thermocouple
wiring located under the Top Cover of the Heater. Remove
Body and discard.
2. Install Connector Body into Heater using an open-end
wrench and tighten to prevent leakage. Teflon Tape or
appropriate Thread Sealant should be used.
3. Slide the Nut and the Ferrule over the Thermocouple and
insert this assembly into the Connector Body until it comes
into positive physical contact with the Heating Rod.
Make sure the Spring does not prevent the Thermocouple
from making contact with the Heating Rod.
4. Slowly tighten the Nut using an open-end wrench (9/16”),
ensuring the Thermocouple maintains positive physical
contact with the Heating Rod.
5. Reinstall the Thermocouple wires.
48
MAINTENANCE
HEATING ROD
INDIVIDUAL OHMS
TOTAL OHMS
1000 WATT
45.9 Ω
7.6 Ω
1250 WATT
39.0 Ω
6.5 Ω
1500 WATT
32.4 Ω
5.4 Ω
1750 WATT
27.5 Ω
4.6 Ω
WARNING! Before performing any maintenance, make sure
the Main Power Switch is OFF and incoming power is locked
OFF. NEVER access the inside of the Control Panel with the
Proportioner power supply ON. The Heaters are components
that reach high temperatures; you must wait until they have
cooled before handling and bleed all material pressure to
zero.
Heating Rod
To replace a defective Heating Rod, proceed as follows:
1. Ensure Main Power Switch is OFF and incoming power is locked OFF. Depressurize the
proportioner and remove the Cover from the Heater.
WARNING!If the Heating Rod to be replaced is the one in
contact with the Thermocouple, it is necessary to remove the
Thermocouple first (see page 48). Do not loosen or tighten
Thermocouple Body.
2. Disconnect the suspect Heating Rod from the wire connections and test Heating Rod for
proper electrical resistance.
*Measurements taken at room temperature.
3. Unscrew the Heating Rod and remove from the Heater Block along with its Spring and
inspect; it must be smooth and shiny in appearance. If it is blackened or has material
adhered to it replace the Heating Rod even if ohm reading is acceptable.
4. Apply Teflon Tape or appropriate Thread Sealant to the Heating Rod thread and
assemble Heating Rod and Spring into the Heater Block. Tighten to 110 ft/lbs (149 N-m).
5. If necessary carefully re-install Thermocouple ensuring positive physical contact with
the Heating Rod. Make sure the Spring does not prevent the Thermocouple from making
contact with the Heating Rod. Tighten Nut with open-end wrench (9/16”).
6. Reconnect wire connections and reinstall Heater Cover.
7. Ensure Heater is full of material prior to electrical testing.
49
120 A PUMP REBUILD KIT*
(KT-07000)
PART NUMBER
QTY
DESCRIPTION
PU-03000
1
Triple Lip Seal, 120 Pump
PU-03005
1
Shaft Bearing, 120, "A" Side
PU-01016A-012
1
Piston Seal; 120 Pump
PU-01013A
1
Cylinder Flange Gasket
PU-05029
1
Pin
PU-05041
1
Piston Bearing, 120
PU-03019
1
Bullet, 120
OR-00011A
2
O-Ring; 12x2mm ID
OR-00046A
2
O-Ring #133; Viton 90D Pump Cy
OR-00044A
1
O-Ring #024; Lube Cylinder
OR-00020A
2
#136 Viton Lube Cylinder O-Rin
TN-04199
2
SHCS, Bolt, 3/8-24 x 2.5
PU-05030
1
Snap Ring
PU-03021
1
A Side Seal Tool
OR-00045A
2
O-Ring #028 Viton 90D
OR-00051B
1
O-Ring #218 Alfas 80D
PU-01003-IG
1
Discharge Ball Seat Gasket
PU-01003-DG
1
Inlet Ball Seat Gasket
PU-05023-1
1
Gasket; Pump Retainer Nut
RA-00065A
1
Plug; Pump Cylinder
REPLACEMENT KITS
*Assembly instructions included in kit.
50
REPLACEMENT KITS
120 R PUMP REBUILD KIT*
(KT-07001)
PART NUMBER
QTY
DESCRIPTION
PU-03000
1
Triple Lip Seal, 120 Pump
PU-01016A-012
1
Piston Seal; 120 Pump
PU-01013A
1
Cylinder Flange Gasket
PU-03010
1
Shaft Bearing, 120, "R" Side
PU-05041
1
Piston Bearing, 120
PU-05029
1
Pin
PU-03019
1
Bullet, 120
OR-00011A
2
O-Ring; 12x2mm ID
OR-00046A
2
O-Ring #133; Viton 90D Pump Cy
PU-05030
1
Snap Ring
TN-04199
2
SHCS, Bolt, 3/8-24 x 2.5
OR-00045A
2
O-Ring #028 Viton 90D
OR-00051B
1
O-Ring #218 Alfas 80D
PU-01003-IG
1
Discharge Ball Seat Gasket
PU-01003-DG
1
Inlet Ball Seat Gasket
PU-05023-1
1
Gasket; Pump Retainer Nut
*Assembly instructions included in kit.
51
REPLACEMENT KITS
80 A PUMP REBUILD KIT*
(KT-07002)
PART NUMBER
QTY
DESCRIPTION
PU-03001
1
Triple Lip Seal, 80 Pump
PU-03006
1
Shaft Bearing, 80, "A" Side
PU-01016A-008
1
Piston Seal; 80 Pump
PU-01013A
1
Cylinder Flange Gasket
PU-05029-80
1
Pin
PU-05042
1
Piston Bearing, 80
PU-03020
1
Bullet, 80
PU-03016
1
Retaining Ring, 80, "A" Side
OR-00011A
2
O-Ring; 12x2mm ID
OR-00046A
2
O-Ring #133; Viton 90D Pump Cy
OR-00020A
2
#136 Viton Lube Cylinder O-Rin
OR-00044A
1
O-Ring #024; Lube Cylinder
TN-04199
2
SHCS, Bolt, 3/8-24 x 2.5
PU-05030-80
1
Snap Ring
PU-03021
1
A Side Seal Tool
OR-00045A
2
O-Ring #028 Viton 90D
OR-00051B
1
O-Ring #218 Alfas 80D
PU-01003-IG
1
Discharge Ball Seat Gasket
PU-01003-DG
1
Inlet Ball Seat Gasket
PU-05023-1
1
Gasket; Pump Retainer Nut
RA-00065A
1
Plug; Pump Cylinder
*Assembly instructions included in kit.
52
REPLACEMENT KITS
80 R PUMP REBUILD KIT*
(KT-07003)
PART NUMBER
QTY
DESCRIPTION
PU-03001
1
Triple Lip Seal, 80 Pump
PU-03011
1
Shaft Bearing, 80, "R" Side
PU-01016A-008
1
Piston Seal; 80 Pump
PU-01013A
1
Cylinder Flange Gasket
PU-05029-80
1
Pin
PU-05042
1
Piston Bearing, 80
PU-03020
1
Bullet, 80
OR-00011A
2
O-Ring; 12x2mm ID
OR-00046A
2
O-Ring #133; Viton 90D Pump Cy
PU-05030-80
1
Snap Ring
TN-04199
2
SHCS, Bolt, 3/8-24 x 2.5
OR-00045A
2
O-Ring #028 Viton 90D
OR-00051B
1
O-Ring #218 Alfas 80D
PU-01003-IG
1
Discharge Ball Seat Gasket
PU-01003-DG
1
Inlet Ball Seat Gasket
PU-05023-1
1
Gasket; Pump Retainer Nut
*Assembly instructions included in kit.
53
REPLACEMENT KITS
HYDRAULIC CYLINDER REBUILD KIT
(KT-05025)
PART NUMBER
QTY
DESCRIPTION
HI-05025-1
2
U-Cup
HI-05025-2
2
Back-up Ring, Piston
HI-05025-3
1
Wear Ring
HI-05025-4
2
Rod Wiper
HI-05025-5
2
Shaft Seal
HI-05025-6
2
Back-up Ring, Bushing
OR-00038A
2
O-ring
OR-00039A
2
O-ring
OR-00040A
2
O-ring
PROPORTIONING PUMP LINE O-RING KIT
(KT-05009)
PART NUMBER
QTY
DESCRIPTION
OR-00011A
4
O-ring
OR-00046A
4
O-ring
OR-00051B
2
O-ring
PU-01013A
2
Gasket
OR-00044A
1
O-ring
OR-00020A
2
O-ring
INLET MONITORING KIT
(KT-05005)
PART NUMBER
QTY
DESCRIPTION
HI-05016
2
3/4 MPT X 3/4 FPT SW
HI-05017
2
3/4 MPT Hex Nipple
HI-05051
2
Parker Pipe Fit Male Run Tee M
HI-05052
2
Parker Pipe Fit Female Pipe Tee
HI-05053
4
Parker Pipe Fit Pipe Thread
HI-05054
2
Pressure Gauge 0-400 PSI
HI-05055
2
Temp Gauge 0-200 Deg F/C
54
REPLACEMENT KITS
HALF INCH HOSE KIT
(200212)
PART NUMBER
QTY
DESCRIPTION
RA-00010
1
ISO MALE MANIFOLD FITTING
RA-00011
1
POLY MALE MANIFOLD FITTING
RA-00019
1
JIC REDUCER 7/8-14 X 9/16-18
RA-00020
1
JIC REDUCER 3/4-16 X 1/2-20
ISO LUBE RESERVOIR/HOSE KIT
(KT-05004)
PART NUMBER
QTY
DESCRIPTION
RA-00068A
1
Check Valve
TN-04196
1
Hose Clamp
MQ-01009-01A
1
Reservoir Bottle
MQ-01009-02A
1
Reservoir Bottle Lid
MA-00024A
1
Return Tubing
MA-00025A
1
Supply Tubing
PMC RECOMMENDED LUBE
PART NUMBER
QTY
DESCRIPTION
GP-00960-1-QRT
1
Pump Lube Quart
GP-00960-1-GAL
1
Pimp Lube Gallon
HEATER THERMOCOUPLE KIT
(KT-05021)
PART NUMBER
QTY
DESCRIPTION
HI-05020
1
Body, Nut, Ferrule
HI-05021
1
Thermocouple
55
HYDRAULIC OIL SPECIFICATIONS
Recommended Hydraulic Oil Specification:
ISO/ASTM Viscosity Grade 32
Viscosity: 28.8 – 35.2 SSU@ 104 F
Rust and Oxidation Inhibited