Clarke DP, DQ, DR, DS, DT Instructions Manual

Operation and Maintenance
Instructions Manual
FOR
FIRE PUMP APPLICATIONS
Clarke UK, Ltd. Clarke Fire Protection Products, Inc.
Unit 1, Grange Works
Lomond Road
Coatbridge ML5 2NN
United Kingdom TELE: +44(0)1236 429946 FAX: +44(0)1236 427274
TELE: +1.513.771.2200 Ext. 427
100 Progress Place
Cincinnati, OH 45246
U.S.A.
FAX: +1.513.771.5375
www.clarkefire.com
C133292 rev AG 2/11/23
CONTENTS
SUBJECT PAGE
1.0 INTRODUCTION 5
1.1 IDENTIFICATION/NAMEPLATE 5
1.2 SAFETY/CAUTION/WARNINGS 6
2.0 INSTALLATION/OPERATION 10
2.1 TYPICAL INSTALLATION 10
2.2 ENGINE STORAGE 11
2.2.1 Storage Less than 1 year 11
2.2.2 Extended Storage Maintenance Procedure 11
2.3 INSTALLATION INSTRUCTIONS 11
2.4 SPECIFIC FLYWHEEL COUPLING ALIGNMENT INSTRUCTIONS 13
2.4.1 Listed Driveshaft 13
2.4.2 Driveshaft 13
2.4.3 Other Coupling Types 15
2.5 STARTING/STOPPING THE ENGINE 15
2.5.1 To Start Engine 15
2.5.1.1 Optional Pneumatic Starting System 17
2.5.2 To Stop Engine 18
2.5.3 Emergency Stop Instructions 18
2.6 WEEKLY TEST 18
3.0 ENGINE SYSTEMS 19
3.1 FUEL SYSTEM 19
3.1.1 Diesel Fuel Specification 19
3.1.2 Bleeding the Fuel System 20
3.1.3 Changing Fuel Filter Cartridge 21
3.1.3.1 Fuel Filters 21
3.1.4 Fuel Tanks 22
3.1.5 Fuel Injection Pump Components 22
3.1.6 Priming Pump Strainer Cleaning 22
3.2 AIR/EXHAUST SYSTEM 22
3.2.1 Ambient Conditions 22
3.2.2 Ventilation 22
3.2.3 Standard Air Cleaner 22
3.2.4 Crankcase Ventilation 24
3.2.4.1 Open Crankcase Ventilation 24
3.2.4.2 Crankcase Ventilation System 24
3.2.5 Exhaust System 25
3.3 LUBRICATION SYSTEM 25
3.3.1 Checking Sump Oil 25
3.3.2 Changing Engine Oil 26
Page 2 of 49
3.3.3 Changing Oil Filter Cartridge 26
3.3.4 Oil Specification 27
3.3.5 Oil Capacities 27
3.4 COOLING SYSTEM 27
3.4.1 Intended Engine Operating Temperature 27
3.4.2 Engine Coolant 27
3.4.3 Water 28
3.4.4 Coolant Capacities 28
3.4.5 Coolant Inhibitors 28
3.4.6 Procedure for Filling Engine 29
3.4.6.1 Partial Fill 29
3.4.7 Providing Adequate Raw Water Supply to the Engine Heat Exchanger 29
3.4.7.1 Raw Water Supply 29
3.4.7.2 Cooling Loop 30
3.4.7.3 Setting Raw Water Flow Rate 31
3.4.7.4 Raw Water Outlet 31
3.4.7.5 Raw Water Quality, Strainers and Deterioration of Heat Exchanger (or CAC) 32
3.4.7.6 Backflow Preventers 32
3.4.7.7 Raw Water Outlet Temperature 32
3.4.8 Flow Paths of Engine Cooling System 32
3.4.9 Important Service Notice 34
3.4.9.1 Water Pump Cavitation 34
3.5 ELECTRICAL SYSTEM 34
3.5.1 Wiring Diagrams 34
3.5.2 Checking Drive Belt Tension and Adjustment 35
3.5.3 Speed Switch 35
3.5.4 Magnetic Pick-Up 36
3.5.5 Mechanical Engine Control and Alarm Board (MECAB) Speed Switch Troubleshooting 36
3.5.6 Field Simulation of Pump Controller Alarms 38
3.5.7 Battery Requirements 39
3.6 ENGINE SPEED ADJUSTMENT 39
4.0 MAINTENANCE SCHEDULE 40
4.1 ROUTINE MAINTENANCE 40
5.0 TROUBLE SHOOTING 41
6.0 PARTS INFORMATION 41
6.1 SPARES 41
6.2 ENGINE MAINTENANCE PARTS LIST 41
7.0 OWNER ASSISTANCE 41
8.0 WARRANTY 41
8.1 GENERAL WARRANTY STATEMENT 41
Page 3 of 49
Italian
notice.
8.2 CLARKE WARRANTY 41
8.3 DOOSAN WARRANTY 41
9.0 INSTALLATION & OPERATION DATA (See Page 5) 45
10.0 WIRING DIAGRAMS (See Page 5) 45
11.0 PARTS ILLLUSTRATION (See Page 5) 45
12.0 APPENDIX (Alpha Index) 46
Check factory availability for a manual in one of the following languages:
Spanish French German
NOTE
The information contained in this book is intended to assist operating personnel by providing information on the characteristics of the purchased equipment.
It does not relieve the user of their responsibility of using accepted practices in the installation, operation, and maintenance of the equipment.
NOTE: CLARKE FPPG Reserves the right to update the contents of this publication without
Page 4 of 49
1.0 INTRODUCTION
The following paragraphs summarize the “Scope of Supply” of the Engine:
The CLARKE Engine supplied has been
designed for the sole purpose of driving a stationary Emergency Fire Pump. It must not be used for any other purpose.
Shall not be subjected to Horsepower
requirements greater than the certified nameplate rating (for UL/cUL/FM/LPCB only).
Engines must be sized to cover fully the
maximum power absorbed by any particular driven equipment together with a safety factor on no less than 10%. (For Non-listed only).
Derates for elevation and temperature need to
be considered for maximum pump power.
Fuel delivery settings are factory set with-in
the injection pump and must not be tampered with or adjusted. Minor RPM adjustments to meet pump requirements are permissible.
The engine shall be installed and maintained
in accordance with the guidelines stated in this manual.
Periodic running checks to ensure
functionality should be kept to a maximum of ½ hour per week.
1.1 IDENTIFICATION/NAMEPLATE
Throughout this manual, the terms “Engine”
and “Machine” are used.
The term “Engine” refers solely to the diesel
engine driver as supplied by CLARKE.
The term “Machine” refers to any piece of
equipment with which the engine might interface.
This manual provides all the information necessary to operate your newly acquired engine safely and efficiently, and perform routine servicing correctly. Please read it carefully.
MODEL NUMBERING & IDENTIFICATION There are two identification plates attached to each engine. Clarke Identification Plate: Engine Model, Serial Number, Rating and Date of Manufacture are shown on this identification plate. The JU Series identification plate is mounted on the stiffening plate that connects the two mounting feet at the rear of the engine. The JW and JX Series identification plate is mounted on right rear engine mount.
John Deere Identification Plate: The second identification plate contains the John Deere Model Number and Serial Number. On the JU Series, the John Deere identification plate is located on the right side of the cylinder block behind the fuel filter. On the JW and JX Series, the John Deere Serial identification plate is located on the left-hand side of the engine between the intake manifold and starting motor.
Note that there are four types of identification plates, dependent on whether the engine is a “Listed/Approved” or “Non-Listed” Model. These are typical examples. (See Figure #1).
Clarke Identification Plates
USA Listed/Approved UK Listed/Approved
Page 5 of 49
ENGINE MODEL
WEIGHT lbs (kg)
DP6R-NLKA49, DP6R
-
NLKA61
DQ6H
-
UFKA40, DQ6H
-UFKAX8,
UK Listed/ FM Approved UK Non-Listed
UK Listed/Approved
A= Non-Emissioned 90 = A power rating code
Doosan Identification Plate: The second identification plate contains the Doosan Model Number and Serial Number. On the DT Series, the Doosan Serial identification plate is located on the left-hand side of the engine near the front mount just above the oil pan rail.
1.2 SAFETY/CAUTION/WARNINGS
ATTENTION: This engine has components and fluids that reach very high operating temperatures and is provided with moving pulleys and belts. Approach with caution. It is the responsibility of the builder of the machine using a Clarke engine to optimize the application in terms of maximum end user safety. BASIC RULES
The following recommendations are given to reduce the risk to persons and property when an engine is in service or out of service. Engines must not be used for applications other than those declared under “Scope of Supply”.
Incorrect handling, modifications and use of non­original parts may affect safety. When lifting the engine, take care to use suitable equipment to be applied to the points specially provided as shown on the appropriate Engine Installation Drawing. Engine weights are shown in Figure #2
Figure 1
The Clarke 10 digit model numbers reflects the base engine type, number of cylinders, cooling system, approval listing, manufacturing location, emissions code and a power rating code. Example: DT2H-UFAA90
D = Doosan base engine prepared by
CLARKE
T = base engine series 2 = 12 cylinders H = Heat Exchanger cooled (R = Radiator) UF = Underwriters Laboratories Listed/
Factory Mutual Approved, (LP = LPCB Loss Prevention Council Board Approved, NL = Non-Listed, AP = APSAD
A=Manufacturing Location (A= Cincinnati,
K= Coatbridge)
Page 6 of 49
DP6H-UFAA50, DP6H-UFAA62, DP6H-UFKA50, DP6H-UFKA62,
DP6H-UFAAX8, DP6H-UFKAX8,
DP6H-UFAA70, DP6H-UFKA70, DP6H-APKA60, DP6H-APKA70, DP6H-NLKA50, DP6H-NLKA62,
DP6H-NLKAX8, DP6H-NLKA70,
DP6H-NLKA88, DP6H-FMKA50,
DP6H-UFAA88, DP6H-UFKA88,
DP6H-FMKA88, DP6H-FMKA62,
DQ6H-UFAA4G, DQ6H-UFAA48, DQ6H-UFAA50, DQ6H-UFAA58, DQ6H-UFAA60, DQ6H-UFAA88, DQ6H-UFAA98, DQ6H-UFKA4G, DQ6H-UFKA48, DQ6H-UFKA50, DQ6H-UFKA60, DQ6H-UFKA88,
DQ6H-UFKA98
DQ6H-APKA60, DP6H-APKA90
DQ6H-NLKA48, DQ6H-NLKA4G
DQ6H-NLKA50, DQ6H-NLKA60 DQ6H-NLKA88, DQ6H-NLKA98, DQ6H-UFAA40, DQ6H-UFAAX8, DQ6R-NLAA47, DQ6R-NLAA4F, DQ6R-NLAA49, DQ6R-NLAA59, DQ6R-NLAA87, DQ6R-NLAA97,
DQ6H-NLKA40, DQ6H-NLKAX8,
2250 (1020)
2500 (1134)
DQ6R
-
NLKA87, DQ6R
-
NLKA97
DR8H
-
NLKA
62, DR8H
-
NLKA68
DS0R-UFKA67, DS0R
-
UFKA59
UFKA60
DQ6H-FMKA48, DQ6H-FMKA4G,
DQ6H-FMKA40, DQ6H-FMKA50, DQ6H-FMKA60, DQ6H-FMKA88,
DQ6H-FMKA98, DQ6H-FMKAX8,
DQ6R-NLKA47, DQ6R-NLKA4F,
DQ6R-NLKA49, DQ6R-NLKA59,
DR8H-UFAA40, DR8H-UFAA5G,
DR8H-UFAA68, DR8H-UFAA62,
DR8H-FMAA40,
DR8H-FMKA5G, DR8H-FMKA62,
DR8H-FMKA68, DR8H-UFKA40, DR8H-UFKA5G, DR8H-UFKA62,
DR8H-UFKA68, DR8H-APKA60
DR8H-NLAA40, DR8H-NLAA5G,
DR8H-NLAA62, DR8H-NLAA68, DR8H-UFAA98, DR8H-UFAA92,
DR8H-UFKA98, DR8H-UFKA92
DR8H-NLKA40, DR8H-NLKA5G,
2700 (1225)
DS0H-FMKA60, DS0H-FMKA68, DS0H-FMKAN0, DS0H-UFAA68, DS0H-UFAA60, DS0H-UFAAM0, DS0H-UFKAM0, DS0H-UFAAN0,
DS0H-UFKA60, DS0H-UFKA68,
DS0H-UFKAN0, DS0H-APKA60,
DS0H-NLAA60, DS0H-NLAA68,
DS0H-NLAAN0, DS0H-NLAA70,
DS0H-UFAA98, DS0H-UFAA92,
DS0H-UFKA98, DS0H-UFKA92
DS0H-NLKA60, DS0H-NLKA68,
DS0H-NLKAN0, DS0R-NLAAL1,
DS0R-UFAA67, DS0R-UFAA59,
DT2H-UFAA20, DT2H-UFAA60,
DT2H-UFAA98, DT2H-UFAA92, DT2H-FMAA40, DT2H-FMAAX8, DT2H-FMAAX2, DT2H-APKA90,
DT2H-FMKA40, DT2H-NLAA20,
DT2H-NLAA58, DT2H-NLAA50, DT2H-
NLAA60, DT2H-NLAA98, DT2H­NLAA92, DT2H-UFAA48, DT2H-
UFAA40, DT2H-UFAA50, DT2H-
UFAA58,DT2H-UFAA88, DT2H-
UFAA68, DT2H-UFKA88, DT2H­UFKA20, DT2H-UFKA50, DT2H-
UFKA58, DT2H-FMKA40, DT2H-
UFKA98, DT2H-UFKA92, DT2H-
3200 (1450)
4500 (2040)
Figure #2
Figure #3 shows the typical lifting arrangement of a
bare engine. Note the lifting points on the engine are for lifting the ENGINE only. Caution, when lifting,
lift point should always be over the equipment Center of Gravity.
Figure #3
Figure #4 shows the typical lifting arrangement of a
base mounted engine and pump set when the base (or module) is furnished with lifting holes.
Figure #4
When Clarke furnishes the base (or module) for the engine and pump set, the combined weight of the engine and base (or module) will be indicated on the unit. Caution, when lifting, lift point should always
be over the equipment Center of Gravity.
Note: The engine produces a noise level exceeding 70 dB(a). When performing the weekly functional test, it is recommended that hearing protection be worn by operating personnel.
CLARKE UK provides the machine manufacturer with a “Declaration of Incorporation” for the Engine, when required, a copy of which is enclosed in the manual. This document clearly states the machine manufacturers’ duties and responsibilities with respect to health and safety. Refer to Figure #5.
Page 7 of 49
DECLARATION OF INCORPORATION
Product:
Description – Diesel Engines Manufacturer – Clarke Fire Protection Products, USA Model Number – Serial Number – Year of Manufacture - Contract Number – Customer Order Number –
Name and address of manufacturer: Clarke Fire Protection Products, Inc.
Declaration
We hereby declare that the engine is intended to be incorporated into other machinery and must not be put into service until the relevant machinery, into which the engine is to be incorporated, has been declared in conformity with the essential health and safety requirements of the machinery Directive 2006/42/EC and consequently the conditions required for the CE Mark.
The object of the declaration described above is manufactured in accordance with the following directives:
Machinery Directive 2006/42/EC Low Voltage Directive 2014/35/EU EMC Directive 2014/30/EU
References to the relevant harmonized standards used:
EN ISO 12100:2010 - Safety of machinery. General principles for design. Risk assessment and risk reduction EN 60204-1:2006+A1:2009 - Safety of machinery. Electrical equipment of machines. General requirements EN 61000-6-2:2005 - Electromagnetic compatibility (EMC). Generic standards. Immunity for industrial
environments
EN 55011:2016+A1:2017 - Industrial, scientific and medical equipment. Radio-frequency disturbance
characteristics. Limits and methods of measurement
A technical file for the product listed above has been compiled in accordance with part B of Annex Vii of the Machinery Directive 2006/42/EC and Annex III of Low Voltage Directive 2014/35/EU.
The engine has moving parts, areas of high temperatures and high temperature fluids under pressure. In addition, it has an electrical system, which may be under strong current.
The engine produces harmful gases, noise and vibration and it is necessary to take suitable precautionary measures when moving, installing and operating the engine to reduce risk associated with the characteristics stated above.
The engine must be installed in accordance with local laws and regulations. The engine must not be started and operated before the machinery into which it is to be incorporated and/or its overall installation has been made to comply with local laws and regulations. The engine must only be used in accordance with the scope of supply and the intended applications.
Signed ___________________________________ Date: _______________
100 Progress Place Cincinnati, Ohio 45246 United States of America
Clarke Fire Protection Products, Inc.
100 Progress Place Cincinnati, Ohio 45246 United States of America Tel: +1 (513) 475-3473 Fax: +1 (513) 771-0726
Ken Wauligman – Engineering Manager
C13944, Rev.J 25Sept18
Figure #5
Page 8 of 49
WHAT TO DO IN AN EMERGENCY
Any user of the Engine who follows the instructions set out in this manual, and complies with the instructions on the labels affixed to the engine are working in safe conditions.
If operating mistakes cause accidents call for help If operating mistakes cause accidents call for help immediately from the EMERGENCY SERVICES. In the event of an emergency, and while awaiting the arrival of the EMERGENCY SERVICES, the following general advice is given for the provision of first aid.
FIRE
Put out the fire using extinguishers recommended by the manufacturer of the machine or the installation.
BURNS
1) Put out the flames on the clothing of the
burns victim by means of:
drenching with water use of powder extinguisher, making
sure not to direct the jets onto the face
blankets or rolling the victim on the
ground
2) Do not pull off strips of clothing that are
sticking to the skin.
3) In the case of scalding with liquids, remove
the soaked clothing quickly but carefully.
4) Cover the burn with a special anti-burn
packet or with a sterile bandage.
CARBON MONOXIDE POISONING (CO)
Carbon monoxide contained in engine exhaust gases is odorless and dangerous because it is poisonous and with air, it forms an explosive mixture. Carbon monoxide is very dangerous in enclosed premises because it can reach a critical concentration in a short time.
When attending a person suffering from CO poisoning in enclosed premises, ventilate the premises immediately to reduce the gas concentration.
When accessing the premises, the person providing the aid must hold his breath, not light flames, turn on lights or activate electric bells or telephones so as to avoid explosions.
Take the victim to a ventilated area or into the open air, placing him on his side if he is unconscious.
CAUSTIC BURNS
1) Caustic burns to the skin are caused by acid
escaping from the batteries:
remove the clothes wash with running water, being
careful not to affect injury-free areas
2) Caustic burns to the eyes are caused by
battery acid, lubricating oil and diesel fuel.
Wash the eye with running water for
at least 20 minutes, keeping the eyelids open so that the water runs over the eyeball and moving the eye in all directions.
ELECTROCUTION
Electrocution can be caused by:
1) The engine’s electrical system (12/24
VDC)
2) The electrical coolant pre-heating system
115/230 Volt AC (if supplied) AC current.
In the first case, the low voltage does not involve high current flows through the human body; however, if there is a short circuit, caused by a metal tool, sparks and burns may occur. In the second case, the high voltage causes strong currents, which can be dangerous. If this happens, break the current by operating the switch before touching the injured person.
If this is not possible, bear in mind that any other attempt is highly dangerous also for the person assisting; therefore, any attempt to help the victim must be carried out without fail using means that are insulating.
WOUNDS AND FRACTURES
The wide range of possible injuries and the specific nature of the help needed means that the medical services must be called. If the person is bleeding, compress the wound externally until help arrives. In the case of fracture do not move the part of the body affected by the fracture. When moving an injured person permission from that person must be received until you can help him. Unless the injury is
Page 9 of 49
life threatening, move the injured person with extreme care and then only if strictly necessary.
WARNING LABELS
Warning labels, in picture form, are applied to the engine. Their meanings are given below. Important Note: Labels that show an exclamation mark indicate that there is a possibility of danger.
Heat Exchanger Maximum Working Pressure
Rotating Parts
Jacket Water Heater Voltage
Coolant Mixture
Lifting Point
Automatic Start
Air Filter Installation
2.0 INSTALLATION/OPERATION
2.1 TYPICAL INSTALLATION
A typical Fire Pump installation is shown in Figures #6 & 6A.
1. Pump/Engine set
2. Main Pump Controller
3. Pump discharge
4. Air louver
5. Entrance door with air louver
6. Exhaust silencer
7. Exhaust system supports
8. Exhaust outlet pipe
9. Concrete base
10. Exhaust flexible connection joint/pipe
11. Air Discharge Duct from Radiator
NOTE: For radiator cooled engines, the total air supply path to the pump room, which includes any louvers or dampers, shall not restrict the flow of the air more than 0.2” (5.1mm) water column. Likewise,
Page 10 of 49
the air discharge path, which includes any louvers, dampers, or ducting, shall not restrict the flow of air more than 0.3” (7.6mm) water column.
#6
Typical Installation
Heat Exchanger Cooled Engine
11
Figure #6A
Typical Installation
Radiator Cooled Engine
2.2 ENGINE STORAGE
2.2.1 Storage less than 1 year
Storing engines requires special attention. Clarke engines, as prepared for shipment, may be stored for a minimum of one year. During this period, they should be stored indoors in a dry environment. Protective coverings are recommended provided they are arranged to allow for air circulation. The stored engine should be inspected periodically for obvious conditions such as standing water, part theft, excess dirt buildup or any other condition that may be detrimental to the engine or components. Any such conditions found must be corrected immediately.
2.2.2 Extended Storage Maintenance Procedure
After a one year storage period or if the engine is being taken out of service for more than 6 months, additional preservation service must be performed as follows:
1) Drain the engine oil and change the oil filter.
2) Refill the engine crankcase with MIL-L-
21260 preservative oil.
3) Change the fuel filters.
4) Install the coolant plugs and install coolant in
the normal mix percentage of 50% coolant, 50% water, premixed.
5) Remove the protection from the intake and
exhaust openings.
6) Prepare a preservative fuel container as a fuel
source using a fuel conditioner mixture of C02686 or C02687 with ONLY Diesel #2 fuel or “Red” diesel fuel (ASTM D-975) or EN 590 diesel fuel. (Refer to Section 3.1.1 for Fuel Specification.)
7) Disconnect the coupling or drive shaft from
the pump.
8) Start and run the engine at a slow speed for
1-2 minutes being careful not to exceed the normal operating temperature.
9) Drain the oil and coolant.
10) Replace the protective plugs that were used
for shipping and storage.
11) Attach to the engine a visible card, specifying
“ENGINE WITHOUT OIL” DO NOT OPERATE”.
IMPORTANT: THIS TREATMENT MUST BE REPEATED EVERY 6 MONTHS ************************ PUTTING ENGINE INTO SERVICE AFTER ADDITIONAL PRESERVATION SERVICE: To restore the normal operation running conditions of the engine, carry out the following:
1) Fill the engine sump with the normal
recommended oil, to the required level.
2) Remove the protective plugs used for
shipping and storage.
3) Refill cooling water to proper level.
4) Remove the card “ENGINE WITHOUT OIL,
DO NOT OPERATE”.
5) Follow all steps of the Installation
Instructions when the engine will be put into service.
2.3 INSTALLATION INSTRUCTIONS
The correct installation of the engine is very important to achieving optimum performance and extended engine life.
Page 11 of 49
1 Plug
Water Pump Inlet
only)
only)
- Top
Tube
1 ¼” Draincock
Heater Inlet Tube
In this respect, the engine has certain installation requirements, which are critical to how it performs. These requirements are generally associated with the cooling, exhaust, induction air, and fuel systems.
This section of the manual should be read in conjunction with the relevant Installation and Operation Data Sheets. If there is any doubt about an installation, contact should be made with Clarke Customer Support giving exact details of the problem.
All installations should be clean, free of any debris and dry. Care should be taken to ensure that there is easy access to the engine for maintenance and repair. The safety of personnel who may be in the area of the engine when it is running is of paramount importance when designing the installation layout.
1) Secure pump set to foundation and complete
installation in accordance with pump manufacturer’s instructions. Perform engine to pump coupling alignment. Lubricate Falk coupling with supplied grease or driveshaft universal joints with NLGI grade #1 or #2 grease at the (3) Zerk fittings. (Refer to section 2.4 for specific alignment instructions).
2) Engine with Heat Exchanger Cooling: Install
the heat exchanger discharge pipe. The discharge pipe should be no smaller than the outlet connection on the heat exchanger. Discharge water piping should be installed in accordance with applicable codes. All plumbing connecting to the heat exchanger must be secured to minimize movement by the engine. Cooling loop water pressure to the heat exchanger must not exceed the limit that is stated on the heat exchanger supplied with the engine.
3) Install all engine cooling system draincocks
and plugs.
Qty
1 (DT2H
1 (DT2H
1 Plug Water Pump Outlet
Description
Plug
Plug LH Exhaust Manifold
RH Exhaust Manifold
Location
- Front
Page 12 of 49
4) Engine is typically provided with premixed
coolant installed. If engine is not provided with coolant or there is a need to top off, fill engine cooling system with premixed 50% water / 50% coolant solution. Use only coolants meeting ASTM-D6210 specifications for heavy-duty diesel engines. Never use light-duty or automotive coolants in the engine that are stated as ASTM-D3306 only. Refer to Figure #23 in section 3.4.3 for cooling system capacity. Refer to section
3.4.5 filling procedure.
5) Engine is shipped with oil installed. For
make-up oil specifications refer to section
3.3 Lubrication System.
6) Connect fuel supply and return line to fuel
supply tank plumbing. Reference the Fuel System section of the Installation and Operation Data (see Page 5), for piping size, maximum allowable fuel pump suction, and maximum allowable fuel head requirements. Fill supply tank with ONLY #2 diesel fuel (ASTM D-975) or EN 590 diesel fuel, bleed supply system of air and check for leaks.
CAUTION: All diesel fire pump drivers manufactured by Clarke are designed and tested for use with only No. 2-D diesel fuel conforming to ASTM D-975. Additionally, in European countries an acceptable alternative fuel is diesel fuel conforming to EN 590. Both of these fuel specifications must contain NO (0%) bio-fuel whenever possible. Fuel supply level must meet applicable code requirements. Do not use a copper based or galvanized material for any component of a diesel fuel system. The fuel will chemically react with the zinc resulting in clogged fuel filters and injector systems.
7) Remove protective covering on air cleaner
element.
8) Connect jacket water heater (if supplied) to
AC power source. Connect the supplied heater connection wire directly to a customer supplied electrical junction box. The electrical supply requirements are indicated on the connection box. Connect to the heater directly to the junction box at the end of the heater only. Supply wiring should never be routed through the engine gauge panel.
Ten
sile)
Tensile)
Tensile)
Tensile)
142)
UFAA60
142)
Te
nsile)
298)
Severe damage to critical engine control components could result. Energize heater only after step #4 is completed.
9) Connect exhaust system to flexible
connection on the engine. The exhaust system plumbing must be supported by the building structure and not the engine. The exhaust flexible connection is provided only for the purpose of thermal expansion and vibration isolation, not for misalignment or directional change.
10) Make electrical DC connections between the
engine gauge panel terminal strip (if supplied) and the controller per the controller manufacturer’s instructions. Refer to the wiring diagram sticker located on the inside door of the engine gauge panel for proper connection of the water solenoid.
11) Fill batteries with electrolyte per battery
manufacturer’s instructions. Connect cables between engine and batteries only after electrolyte is installed. Refer to the wiring diagram inside the engine gauge panel door (if supplied), or appropriate wiring diagram (see Page 5), for correct positive and negative connections.
12) Connect negative cables directly to the
ground stud. Connect each positive cable to the large outer post of the manual starting contactors.
13) Note: Clarke Operation and Maintenance
Instructions Manual and Clarke parts illustration pages are located inside the engine gauge panel.
14) IMPORTANT! In order to obtain prompt
Warranty Service and to comply with Emissions regulations, this engine must be registered to the final installation name and address. To register this engine, go to
www.clarkefire.com and select Warranty
Registration.
2.4 SPECIFIC FLYWHEEL COUPLING
ALIGNMENT INSTRUCTIONS
2.4.1 Listed Driveshafts
Refer to Listed Driveshaft Installation, Operation and Maintenance Manual C132355
2.4.2 Driveshaft
To check the alignment of the pump shaft and engine crankshaft centerlines for proper Parallel Offset and Angular tolerance, the driveshaft must be installed between the flywheel drive disc and the flanged hub on the pump shaft.
Before removing the driveshaft guard, disconnect the negative battery cable from both batteries.
Before beginning the alignment checks and making any necessary corrections, install the driveshaft and re-torque all driveshaft connection bolts to the values given in the following table:
MODELS
DP6H/R
DQ6H/R
DR8H/R
DS0H/R
DT2H­UFAA20 UFKA20, FMKA40 UFAA50, UFKA50, UFAA58, UFKA58 UFAA30
DT2H­UFAA98, UFAA92, UFAA88,
FMAAX8 FMAAX2
DRIVE SHAFT
SC81A
or
CDS50-SC
SC81A
or
CDS50-SC
SC2160A
SC2160A
SC2160A
SC2390
or
SC2390A
BOLT
SIZE
/MATERIA
L GRADE
7/16-20,
Grade 8
(Hi-
7/16-20,
Grade 8
(Hi-
M16, Class
10.9
(Metric)
(Hi-
M16, Class
10.9
(Metric)
(Hi-
M16,Class
10.9
(Metric)
(Hi-
Tensile)
M16,Class
10.9
(Metric)
(Hi-
TIGHTENING
TORQUE
ft-lbs
(N-m)
50-55
(68-75)
(See Note #2)
50-55
(68-75)
(See Note #2)
100-105
(135-142)
(See Note #2)
100-105
(135-
(See Note #2)
100-105
(135-
(See Note #2)
210-220
(285-
(See Note #2,3)
Note 1 – It is recommended that a medium strength threadlocker (Loctite 243–blue) be used in the
Page 13 of 49
Measurement
Driveshaft
109 ±
2mm
SC81A
/ CDS50
-SC
123.5
±
1.5mm
SC2160A
142.5
± 1.5mm
SC2390
/
SC2390A
Measurement
Driveshaft
112.5
± 1mm
SC81A
/ CDS50
-SC
126.5
± 1mm
SC2160A
145.5
± 1.5mm
SC2390
/
SC2390A
assembly and torquing of all hardware. This may be purchased as part number C126758, 50ml bottle.
Note 2 – 4 of the hi-tensile bolts and/or nuts, that are used to connect the driveshaft to the drive disc and that connect the driveshaft to the pump companion flange, will require a “crow’s foot” wrench attached to a standard torque wrench in order to apply the required tightening torque. A standard socket will not work due to close proximity of the bolts and/or nuts with the driveshaft yoke. The tightening torque values listed for these bolts and/or nuts have been corrected for using a “crow’s foot” adapter which extends the standard torque wrench’s length.
Note 3 – For the high torque required for these nuts it is recommended that a boxed end crows foot be used.
The following steps describe the proper way to check alignment. A small pocket scale or ruler with millimeter markings is recommended to make all measurements. A) To check the Horizontal Parallel Offset, the
driveshaft must be in the proper orientation.
1. Rotate the shaft so the reference “AB” on the
flywheel adapter disc or the circumference of the drive shaft flange (against the flywheel adapter disc) is in the 12 o’clock position shown on figure #7a.
2. Measure from the face of the flywheel
adapter disc to point E. (Point E is on the bearing bore as shown in Figure #7a). This measurement must be:
B) With the driveshaft in the same orientation as
the previous step (Step A), check the Horizontal Angular alignment of the shafts.
1. Measure from the mating surface of the
companion hub to point G shown on figure #7b. (Point G is the furthermost point on the bearing bore). This measurement must be equal to the measurement at point E + 0.5 mm.
Figure #7b
C) To check the Vertical Parallel Offset, the
driveshaft must be re-orientated.
1. Rotate the shaft 90○ so the reference
“CD” on the flywheel adapter disc or the circumference of the drive shaft flange (against the flywheel) is in the position shown on Figure#7c.
2. Measure from the face of the flywheel adapter disc to point H. (Point H is the furthermost point on the bearing bore diameter). The measurement must be:
Figure #7a
Figure #7c
Page 14 of 49
D) With the driveshaft in the same orientation as
the previous step (Step C), check the Vertical alignment of the shafts.
1. Measure from the mating surface of the
pump companion hub of the drive shaft to point J as shown in figure #7d. (Point J is the same as point G, with the driveshaft rotated 90o). This measurement must be equal to the measurement at point H + 1 mm.
Re-install all guards and grease fittings before reconnecting the battery cables.
Figure #7d
DRIVESHAFT MAINTENANCE
1. To service the driveshaft disconnect the
negative battery cables, remove the top of guard and set aside.
2. Rotate engine shaft manually so the u-joint
grease fittings are accessible.
3. Using a hand held grease gun with N.L.G.I.
grade 1 or 2 grease position on grease fitting. Pump with grease until grease is visible at all four cap seals.
4. Verify all driveshaft connecting bolts remain
tight. Re-torque per 2.4.1 if necessary.
5. Reinstall top of guard and connect negative
battery cables.
Page 15 of 49
2.4.3 Other Coupling Types
Consult Factory or Clarke website at
www.clarkefire.com for additional
information.
2.5 STARTING/STOPPING THE ENGINE
2.5.1 To Start Engine
Before starting the engine for the first time review section 3.4.6 to ensure there is an adequate Raw Water Supply to the Engine Heat Exchanger.
On UL/FM engines, use main pump controller for starting and stopping the engine. Should the main pump controller become inoperable, the engine can be manually started and stopped from the engine gauge panel. For manual starting and stopping of an engine with a gauge panel:
IMPORTANT: Main pump controller selector should be in the OFF position when starting from engine gauge panel. Be sure to return selector on main pump controller and engine gauge panel to AUTOMATIC after completing manual run.
Position MAIN PUMP CONTROLLER
TO “OFF” POSITION. (Refer to Figure
#9).
Lift and hold MANUAL CRANK #1, until
engine starts, or release after 15 seconds. If unit fails to start, wait for 15 seconds, use MANUAL CRANK #2 and repeat step.
If COOLING WATER is not flowing or
engine TEMPERATURE is too HIGH, open cooling system manual by-pass valves (applies to heat exchanger cooled engines only).
Note: You can also crank engines using manual starting contactors.
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