Please enter your engine number here. This will help us to serve
you better in questions of repairs, spare parts and after-sales service generally.
We reserve the right to make technical alterations to the drawings
and particulars in this documentation package, if this should
become necessary to improve the engines. Reprints and duplication of any kind, either in whole or in part, require our written permission.
TBD 616 OEM
This documentation is intended for the following engine
● Engine type:
● Application:
● System name:
● Rating:kW
● Speed:min
-1
● Commissioning on:
Please enter the relevant data. This will make it easier for us to help you in questions involving
repairs, spare parts and after-sales service in general.
This documentation package is to be presented to the Service Partner responsible every time a service job is carried out.
Imprint:
DEUTZ AG
Service Information Systems
Deutz-Mülheimer-Straße 147–149
D-51063 Cologne
Tel.:(02 21) 8 22-0
Fax:(02 21) 8 22-53 58
http://www.deutz.de
instructions carefully. You will avoid accidents, retain the manufacturer’s
warranty, and will be able to use a fully functional and operational engine.
● This engine has been built solely for the purpose appropriate to the scope
of delivery concerned, as defined by the equipment manufacturer
(intended use). Any other use shall be construed as not intended. The
manufacturer shall not be liable for any damage resulting therefrom; all
risks involved shall be borne solely by the user.
● The term “intended use” shall also include compliance with the operating,
maintenance and repair conditions specified by the manufacturer. The
engine may be used, maintained and repaired only by persons who are
familiar with the work concerned and who have been properly informed of
the risks involved.
● Make sure that these operating instructions are available to everyone
involved in operating, maintaining, and repairing the engine, and that they
have all understood the contents.
● Non-compliance with these operating instructions may result in engine
malfunctions and even damage or injury to persons; the manufacturer will
accept no liability in such cases.
● Proper maintenance and repair work depends on the availability of all requisite equipment, tools and special implements, all of which must be in
perfect condition.
● Engine parts like springs, brackets, elastic holding rings, etc., involve
increased risk of injury if not handled properly.
● The relevant accident prevention regulations and other generally recognized rules relating to safety engineering and health and safety at work
must all be complied with.
● Maximized cost-efficiency, reliability and long lifetime are assured only if
original parts from DEUTZ AG are used.
● Engine repairs must correspond to the intended use. In the event of modification work, only parts approved by the manufacturer for the purpose
concerned may be used. Unauthorized changes to the engine will preclude any liability of the manufacturer for resultant damage.
0
Please read all ...● Please read all the information contained in this manual, and follow the
Carry out maintenance or repair jobs only when the engine is at a standstill. If
you remove any protective features, fit them back in position after completing
your work. Always wear tight-fitting clothing if you are working on the engine
while it is running.
Safety
You will find this symbol next to all safety instructions. Follow these
meticulously. Pass on all safety instructions to your operating staff
as well. In addition, comply with the statutory general safety and
accident prevention regulations applying in your country.
Instruction
You will find this symbol next to instructions of a general nature.
Follow these instructions carefully.
Asbestos
The seals and gaskets used in this engine are asbestos-free. Please
use the appropriate spare parts for maintenance and repair jobs.
The engines of the DEUTZ brand have been developed for a broad spectrum
of applications. A comprehensive range of differe nt variant s ensures that special requirements can be met for the individual case involved.
Your engine has been equipped to suit your own particular installation, and
accordingly not all of the devices and components described in these operating instructions will actually be fitted to your engine.
We have endeavoured to present th e diff erences involved as clearly as possible, to make it easier for you to find the operating an d maintenance instructions you need for your own particular engine.
Please read this manual before you start up your engine, and follow the operating and maintenance instructions meticulously.
If you have any questions, just get in touch with us, and we will be pleased to
answer them for you.
Yours sincerely,
DEUTZ AG
0
ForwordDear customer,
The in-depth know-how thus acquired, in conjunction with high standards of
quality, is your guarantee for engines manufactured for long lifetime , hig h re liability and low fuel consumption. And of course, stringent criteria of environment-friendliness are met as well.
requirements involved. Compliance with the specified maintenance intervals
and meticulous performance of care and maintenance work are therefore
absolutely essential. Special attention must be paid to any more critical operating conditions deviating from the norm.
our responsible service agencies. Our trained and qualified staff will ensure
fast, professional rectification of any damage, using original parts.
Original parts from DEUTZ AG have always been manufactured to the very
latest state-of-the-art.
You will find details of our after-sales service at the end of these operating
instructions.
DEUTZ enginesare the culmination of long years filled with research and development work.
Care and maintenanceare crucial factors in ensuring that your engine satisfactorily meets the
DEUTZ ServiceIn the event of malfunctions, or if you need spare p ar ts, please contact one of
and the workshop manual must be performed on schedule and in full.
The maintenance and service personnel must have the necessary technical
knowledge to perform the work. Safety and protection devices which may
have to be removed during maintenance and service work must be replaced
afterwards.
The rules for the prevention of accidents and the safety regulations
must be observed at all times during maintenance and service work.
Please also observe the special safety regulations for the various service groups which are listed in detail as job cards in the job cards chapter (cf. also chapter 1 Safety Regulations / Rules for Accident
Prevention).
The maintenance and service intervals are listed in the maintenance and
service schedules. These also provide information about the work to be performed.
The job cards provide technical hints for performing the work.
1
GeneralThe maintenance and service work prescribed in the operating instructions
Detailed safety instructions have been compiled for various service
groups in the form of job cards, these precede the job cards of the
respective service groups.
The legally prescribed rules for accident prevention (available from the
appropriate associations or technical publishers) must be observed.
These depend on the installation site, the mode of operation and the
operating and auxiliary media being used.
Special safety measures depende nt on the respective work are spec ified and highlighted in the work description.
It generally applies among other things:
● for personnel:
-Only instructed personnel may operate or maintain the engine.
Unauthorised persons may not enter the engine room.
-Wear tight fitting clothing and ear protectors in the engine room
when engines are running.
-Only employ qualified personnel for repairs or service work.
● for the engine room:
-Ensure adequate fresh air and ventilation (do not cover ventila-
tion shafts).
-Provide first aid kits and suitable fire extinguishers. Check the fil-
ling and proper functioning regularly.
-Only store inflammable materials in the engine room which are
necessary for operating the system.
-Smoking and naked lights are prohibited in the engine room.
Regulations
Safety Regulations /
Rules for Accident Prevention
-Only start the engine when all safety devices have been fitted and
the turning gear has been removed. Make sure there is no-one in
the danger zone.
-Only perform cleaning, maintenance and repair work when the
engine is switched off and secured against starting up.
Rules for disposalThe work described in the operating instructions and workshop manual
necessitates the renewal of parts and expendables among other things.
These renewed parts / e xpendables m ust be prope rly stored, tr ansp orted and
disposed of. The owner is responsible for this.
Disposal includes recycling and disposal of parts / expendables whereby
recycling has priority .
The details of disposal and its supervision are governed by regional, national
and international laws and decrees which the plant owner is responsible for
observing.
Operating Instructions and Workshop
Manual
The service documentation is divided in to the operating instructions an d the
workshop manual for a user-oriented organisation of the information content.
The Operating Instructions contain a general description as well as instructions for the necessary maintenance and service work which can be performed by a trained operator.
It contains the following chapters:
0 Introduction
Contents
1 User guide
2 Description (description of the engine and components)
3 Operation (operating the engine)
Expendables (operating media specifications and auxiliary materi-
4
als)
5 Maintenance
6 Troubleshooting
7 Conservation (conservation of the engine)
8 Technical particulars
9 Job cards (in order of job card numbers)
10 Sundry other instructions (if not in the appendix or separate folders)
The Workshop Manual assumes knowledge of the content of the operating
instructions, this applies especially to the safety regulations. Minor repairs
and emergency measures on components are described which require a
greater effort and appropriately qualified personnel.
It contains the chapters:
0Introduction
Contents
1User guide
2-4See operating instructions
5Tools for service
6-7See operating instructions
8Technical particulars
9Job cards (in order of job card numbers)
10Sundry other instructions (if not in the appendix or separate folders)
When making inquiries about the job card please always state the engine
type or the system 2, the number of the job card 3, the page number 11, the
date of issue 13 or alternatively the identification number of the job card.
DEUTZ Service, publisher of the service documen-
1
tation
8Figures
8
9
10
' 80300-5
2Engine type or system9General notes
3Number of the job card10Work sequence
4Title of the job card11Page number
5Tools, aids, spares and references12Identification number of the job card
6Safety instructions13Date of issue of the job card
7Sub-headings
1 Engine type designation
2 Year of manufacture
3 Engine number
Performance code according to DIN ISO 3046 Part 7
4, 5, 6
A * or ** is specified after the performance code if the available
performance is restricted to a certain time according to special
manufacturer specifications, see 13, 14.
7, 8, 9 Numeric value of the performance in kW
10, 11, 12 Engine speed in rpm
13, 14 Time limiting of the available performance in hours (h)
15 Height above sea level (conditions at installation site)
16 Air pressure p
Charge air coolant temperature t
17
tion site)
18 Relative humidity F
19 Air temperature t
in mbar (conditions at installation site)
x
in °C (conditions at installa-
cx
in % (conditions at installation site)
x
in °C (conditions at installation site)
x
20, 21, 22 Numeric value of an auxiliary device in kW (F, G, H)
Designation of the engine sides, cylinder and direction of rotation
The four sides of the engine normally carry the following designations in practice (see Figure 2-3):
The designation used in this operating manual is highlighted respectively in bold print and corresponds with
DIN ISO 1204.
2
A1
A2
A3
A4
13
B1
B2
B3
B4
2
4
Figure 2-3 Designation of the engine sides and cylinders
Engine sides
1Drive sideFlywheel, clutch side
2Left sideCylinder side A
3Free sideEnd, damper, flui d pump, clutch opposite side
4Right sideCylinder side B
Cylinder numbering
... counted and labelled from the drive side.
Direction of rotation
Looking towards the drive side in anticlockwise direction ”left-han d rotation”
1Charge air cooler7Oil pan
2Suction air intake filter8Rotary current alternator
3Crankcase bleed valve9Coolant pump of the charge air cooler
4Exhaust gas turbocharger cylinder side A10Rotary vibration damper
5Heat insulation cladding PEARL exhaust pipe11Coolant pump engine cooling circuit
6Starter12Holder for attaching the engine (second holder
1Lube oil nozzle5Lube oil filter
2Fuel filter6Fuel hand pump
3Lube oil cooler7Heat insulation cladding PEARL exhaust pipe
4Oil dipstick8Exhaust gas turbocharger cylinder side B
The crankcase is made from a special alloyed casting. Torsional strength, breaking strength and casting
tightness which enable low weight and compactness distinguish this manufacturing method. The side walls
of the crankcase are pulled down below the center of the crankshaft and therefore guarantee additional torsional strength. The cylinder angle of 60° enables a narrow design which is demanded in ma ny applica tions.
Fumes are produced in the crankcase during engine operation. To protect the environment these fumes are
not allowed to escape into the atmosphere but are fed into a closed crankcase bleeding system. In this
crankcase bleeding system the filter performs important functions.
The fumes flowing into the filter first pass the pressure control valve which is mounted centrally in the top
part of the filter system. After passing the filter element the purified residual gases are fed to the suction line
between the suction air intake filter and the turbocharger.
The pressure regulator consists of a diaphragm valve loaded both sides. It controls the crankcase pressure
while at the same time vacuum pressures from the suction intake system settle at an upper limit. Pulsating
pressure peaks are limited as a result.
An optical indicator signals it is time to change the filter element.
The exchangeable and recyclable filter element consists of a micro glass fibre structure with a filter effect up
to 0.3 µm. This can be changed without tools due to quick-change catches. The filtered oil particles collect in
the sump of the filter casing and are fed back into the oil circuit by a return line.
A floor valve prevents gas getting in through the return line. The oil returns on exceeding the pressure difference between the filter and crankcase or at engine standstill.
Figure 2-8 Crankcase bleed valve
1Optical indicator for due change of filter element
2Quick-release catches
3Filter top with integrated pressure regulator
4Powder-coated metal housing
5Filter element
6Round sealing ring
7Round sealing ring
8Floor insert
● the engine room and system are not contaminated by oil fumes,
● the smell in the immediate vicinity is reduced,
● environmental pollution is reduced,
● charge air cooler, turbocharger and inlet valves are better protected against soiling.
2
Figure 2-9 Schematic of the crankcase bleeding system
1Sucked in air
2Suction air intake filter
3Turbocharger
4Exhaust gas
5Charge air cooler
6Engine
7Line for fumes to the filter system
8Line for filtered fumes into the suction line
9Filter
The crank drive comprises crankshaft, con rod, piston, rotary vibration damper and the flywheel.
The drop-forged crankshaft 1 is hung in multilayer bearings in the crankcase 7. Every bearing cover is
secured by four studs. Multilayer be arings offer greater lubrication security and emergency running properties. The shaft and crank journals and the contact surfaces of the axial bearings are inductively hardened.
The counterweights 9 screwed to the crank webs serve to dissipate the internal mass effect and relieve the
crankshaft bearing. The rotary vibration damper and the flywheel ensure smooth running of the engine with
their structure calculated exactly for every application.
The double T-shank con rods 2 are divided at an angle. This allows removal of the piston with con rod up
through the cylinder liner 3. The con rods run on the crankshaft in sputter bearings. A liner is pressed into the
upper con rod eye in which the piston bolt 4 is mounted on a floating bearing.
The pistons 6 are cast from a lightweight metal. The piston rings 5 (trapeze ring, minute ring and a narrow
land drain oil control ring) are in cast steel beams. The pistons are supplied with cooling lube oil through a
spray nozzle 8. The lube oil flows through the cooling channels of the piston base where it emits heat.
The cylinder liners 3 are made by a spin casting technique. Special emphasis is placed on honing in the further processing. The cross grind ing an gle cr eated d uring hon ing is asy m metr ical is res pon se to th e dema nd
for low oil consumption and optimum run-in times . Th e cylin d er liner s to uc h th e cra n kca se and ar e gu id ed in
a collar at the top and bottom.
The use of wet cylinder liners enables fast and low cost exch an ge of a cylin de r un it.
The wheel drive serves for engine control and driving of sub-components.
Engine control unit
The toothed wheel 6 on the crankshaft drives the toothed wheel 3 on the camshaft.
Sub-components
The toothed wheel 3 on the camshaft drives the injection pump via toothed wheel 1. If hydraulic pumps are
attached to the engine, toothed wheel 2 or 10, these are driven by toothed wheel 1.
The lube oil pump 7 is driven by toothed wheel 6 on the crankshaft.
If a compressor is installed on the engine, toothed wheel 4, it is driven by the intermediate wheel 5, driven by
toothed wheel 6 on the crank sh aft.
The coolant pump, toothed wheel 9, is driven by the intermediate wheel 8, driven by toothed wheel 6 on the
Because of the number of cylinders, a mass compensation shaft must run as well in order to be able to
achieve low-vibration running of the engine. The mass compensation shaft is driven by a separate wheel
drive on the drive side.
3
1
2
2
Figure 2-12Wheel drive of the mass compensation shaft on the drive side
The cylinder heads are made of a special alloyed casting like the crankcase. One single cylinder head is
installed per cylinder. The single cylinder head can be changed very quickly thanks to its excellent accessibility and optimized design.
The channel guide is based on the cross current principle. The cylinder heads are supplied with charge air
from the V-chamber via the charge air pipe. The two inlet channels 2 and 3 have different manifolds in the
cylinder heads. They are divided into a filling channel 2 and a twist channel 3. The shape of these ensures a
change air flow into the combustion cham ber which considerably improves the mix formation. The outlet
channels 1 end on the respective outside of the engine in the exhaust system in which the exhaust gas
energy is not lost but recycled.
Figure 2-13 Flow through the cylinder head into the combustion chamber
The cylinder heads are multi-valve heads, i.e. two inlet valves per cylinder provide for optimum filling and two
outlet valves for fast exhaust gas discharge. The high heat-proof valves are fit in the pressed-in and thus
easily replaceable valve seat rings. The valves are controlled by a proven valve bridge technique. The valve
bridge control operates with very low wear and is extremely maintenance-friendly.
The engine is equipped with a bi-turbocharger and optionally with a liquid-cooled charge air cooler. The biturbocharger system shares one row of cylinders each. Therefore one exhaust turbocharger is installed per
row of cylinders. The advantage of being equipped with the bi-tur bo is in the response beha vior for one thing.
A small exhaust turbocharger builds up the necessary charge air pressure in a short time. On the one hand
the whole engine output is available, on the other hand the typical black smoke is virtually eliminated.
Figure 2-15 Suction intake / charge air path (liquid-cooled charge air cooler)
1Charge air cooler5Exhaust gas turbine of the turbocharger
2Air filter6Heat insulation cladding
3Air suction intake pipe7Exhaust pipe (DEUTZ PEARL
4Turbocharger compressor8Charge air line
Charge air heated by the turbocharger
Cool intake air and charge air cooled by the charge air cooler
Hot exhaust gases
Figure 2-16Suction intake / charge air path (air / air charge air cooling)
1Charge air housing5Exhaust gas turbine of the turbocharger
2Air filter6Heat insulation cladding
3Air suction intake pipe7Exhaust pipe (DEUTZ PEARL
4Turbocharger compressor8Charge air line
Charge air heated by the turbocharger
Cool intake air and charge air cooled by the charge air cooler
Hot exhaust gases
Schematic diagram of the charge air circuit (with liquid-cooled charge air cooler)
1
17
16
15
14
32
4
57
6
13121110
8
9
' 84204-0
Figure 2-17 Charge air circuit (with liquid-cooled charge air cooler)
1Exhaust gas turbine of the turbocharger cylinder side A
2Compressor turbine of the turbocharger cylinder side A
3Suction intake air cylinder side A
4Charge air pipe cylinder side A
5DEUTZ PEARL
6Charge air pipe cylinder side A
7Cylinder heads cylinder side A
8Charge air cooler
9Cylinder heads cylinder side B
10Charge air pipe cylinder side B
11DEUTZ PEARL
12Charge air pipe cylinder side B
13Suction intake air cylinder side B
14Compressor turbine of the turbocharger cylinder side B
15Exhaust gas turbine of the turbocharger cylinder side B
16Exhaust gas discharge cylinder side B
17Exhaust gas discharge cylinder side A
Schematic diagram of the charge air circuit (air / air ch a r ge air co ol er)
1
16
15
32
4
57
6
2
14
13
1211109
Figure 2-18Charge air circuit (air / air charge air cooling)
1Exhaust gas turbine of the turbocharger cylinder side A
2Compressor turbine of the turbocharger cylinder side A
3Suction intake air cylinder side A
4Charge air pipe cylinder side A
5DEUTZ PEARL
6Charge air pipe cylinder side A
7Cylinder heads cylinder side A
8Cylinder heads cylinder side B
9Charge air pipe cylinder side B
10DEUTZ PEARL
11Charge air pipe cylinder side B
12Suction intake air cylinder side B
13Compressor turbine of the turbocharger cylinder side B
14Exhaust gas turbine of the turbocharger cylinder side B
15Exhaust gas discharge cylinder side B
16Exhaust gas discharge cylinder side A
Exhaust gas system
Exhaust system with the DEUTZ PEARL® System
The 12 and 16-cylinder engines are equipped with the DEUTZ PEARL
DEUTZ PEARL
joining of the exhaust pipe elements. This generates a backup in the two turbochargers resulting in a higher
turbocharger performance.
The PEARL exhaust pipe elements 1 are connected to compensators 2. They take care of not only the simple connection between the PEARL exhaust pipe elements but also compensate the he at stresses which
occur during the warm-up phase, operation and after shutting down the engine.
The PEARL exhaust gas elements are surrounded by a heatproof housing.
®
system allows a more effective utilization of the exhaust gas energy by special shaping and
®
system patented by DEUTZ. The
Figure 2-19 DEUTZ PEARL® System
Surge charging
The V8 engine is equipped with a surge charging exhaust gas system. The gases enter the exhaust pipe
according to the order of ignition. The resulting p ressure waves are comb ined so that a surge charging t akes
place on the turbocharger.
Bi-Turbo system with charge a ir cooling, cro ss curre nt cylinder heads with twist channels, pistons, multi-hole
injection nozzles in connection with the high-pressure injection system, DEUTZ PEARL
nents which contribute to the progressive emission behavior of the engine are adapted to each other with
absolute accuracy. All the limit value specifications are complied with as a result.
Injection
The engines are equipped with a high-pressure injection system. The eight a nd twelve- cylinder eng ine operates with one, the sixteen cylinder engine with two high-pressure series injection pumps which are installed
in the combustion chamber protected by the cylinder banks. The injection pump drive consists of a maintenance free laminar clutch. The connection between the two series injection pumps of the sixteen cylinder
engine is guaranteed by a proven arched denture clutch.
The injection valves operate with mult i-hole injection nozzles. Eight injection holes arranged on two levels
guarantee optimum fuel distribution and mix formation.
®
System, all compo-
2
Figure 2-21Spray behavior of the multi-hole nozzle
engine by adjusting the injection pump control rod, in such a wa y that the performance required from the engine is obtained whilst maintaining a pre-set
constant or variable speed.
Two electronic governing systems are available for the engines of the
TBD 616 OEM series:
-Heinzmann actuator StG 2040-DP with EMR2 (digital)
-GAC (analog)
The following applies for speed governing systems:
● The speed governing systems are set according to the requirements and
application of the engine.
● Settings, blockings and seals of the speed govering systems may not be
changed or removed. In the event of manipulations to the governing systems, the warranty and guarantee are voided.
● If new settings become necessary due to repairs or changes in the application conditions, these may only be done by authorized personnel.
2
Speed regulationThe task of speed governing systems is to influence the fuel supply to the
In their basic design the electronic speed governing systems consist of the
following components:
-Magnetic frequency pick-up
-Control device, analog or digital
-Actuator
-Set-point transmitter
The magnetic frequency pick-up records the actual value of the speed on the
ring gear of the flywheel and passes it on to the control device. In the control
device, which can be an analog or digital design, the actual value is compared to the setpoint. In the case of deviations the control device sends the
command to the actuator to adjust the injection pum p control bar. The actuator sends a return signal of the control bar position to the control device.
On the internal shaft of the actuator is a multi-pole permanent magnet. Opposite the permanent magnet is a
coil body on which is mounted a working coil. If the working coil conducts, torque occurs in one direction, the
reversal of the current provides torque in the opposite direction.
The lever attached to the internal shaft is connected to the injection pump control rod with the help of a special connection system. By this means the rotary motion of the internal shaft is transferred directly as a linear
movement to the control rod.
The setting of the control output shaft is detected using a non-contact method by a return system mounted
firmly on the shaft and then passed to the control device.
On reaching the stop, current limitation is implemented after approx. 2 0 seconds, which reduces the actuator
current to such an extent that no damage is suffered by the actuator.
Emergency stop is possible with an additional stop lever.
Figure 2-25 Actuator, Heinzmann StG 2040-DP
1Injection pump5Working coil
2Adapter plate6Stop lever
3Return system7Control rod motion (adjustable)
4Connection to injection pump control rod
The GAC actuator is used to measure the fuel injection volume The difference between the nom inal and
actual speed is converted into a voltage signal for the electric positioning magnets in the actuator which sets
the control bar of the injection pump by the control device. In this way the fuel volume is const antly increased
or reduced depending on the load requirement at constant speed. The actuator is mounted directly on the
injection pump.
The actuator operates linearly, the feedback of the control bar position takes place without contact.
Emergency stop is possible with an additional stop lever.
2
Figure 2-26GAC actuator
1Injection pump6Connector plug, in GAC (digital)
2Stop lever7Fastening strip
3Connecting linkage8Upper chamber, in lube oil circuit
4Connector plug, in GAC (digital)9Injection pump control rod
5Electromagnetic chamber (encapsulated)10Connecting plate
The magnetic frequency pick-up is installed on the drive side. It produces electrica l pulses proportional to the
speed of the ring gear on the flywheel, by sampling the teeth of the ring gear, which move past the frequency
pick-up, and transmits these pulses to the control device.
The number of installed frequency pick-ups de pends on the speed governing system used.
Figure 2-27 Frequency pick-up (installation example for EMR2)
The setting of the setpoint speed can be implemented by a setp oint potentiom eter, current or voltage signals
or adjusted fixed values.
Control devices
The control device monitors the various input signals, e.g. the actual value of the speed, the current setting
of the set-point transmitter and the setting of the actuator. In the case of deviations from the setpoint, the
control device sends the command to the actuator to adjust the injection pump con trol bar and thus ada pt the
available fuel volume.
According to the control system used, various control devices are available:
-Electronic engine controller DEUTZ EMR2
-Control device for GAC speed governing system (analog)
Electronic engine controller EMR2
The electronic engine controller EMR2 is equippe d with an ef ficient mi croproce ssor and an internal co ntroller
program. Changes to the settings are made by a PC/laptop with a special conne cting cable and the ap propriate software and may only be performed by authorized personnel.
Further information about the electronic engine controller EMR2 can be found in the section ”Electronic
engine controller EMR2”.
Control device for GAC speed governing system (analog)
This speed governing system is an electronic analog governor, it is set with the potentiometers and switches
on the control device.
1OVERSPEEDIndicator LED for overspeed
2C1 LEAD CIRCUITSwitch for additional damping
C2 SOFTCOUPLINGSwitch for resonance vibration suppression
3RESETOverspeed reset button
4TESTOverspeed test button, reduces the switching point by 10 %
5OVERSPEEDSetting of overspeed
6STABILITYSetting the strength
7GAINSetting the sensitivity
8SPEEDSetting the rated speed
9-Bridge or capacitor for improving stability
10IDLESetting the low idling speed
11DROOPSetting the P factor
12STARTING FUELSetting the fuel starting volume
13SPEED RAMPINGSetting the start ramp to minimize the smoke development
Settings on the control unit may only be made by authorized personnel.
The lube oil reduces friction of the components which rub against each other and dissipates heat from the
rubbing positions and the piston. A film of lube oil on the cylinder surfaces supports the sealing effect of the
piston rings. The lube oil also suspends contamination and transports it to the the lube oil filter.
The lube oil pump sucks the lube oil from the oil panand feeds it through the lube oil cooler and the lube oil
filter into the lubrication circuit of the engine.
The lube oil pressure in the engine circuit is set by a lube oil pressure regulating valve. The bypass valve is
installed in the lube oil cooler to avoid the flow of lube oil being interrupted in a cold start. The overpressure
valve opens when the lube oil pressure is sufficiently high and allows the surplus lube oil to flow back into the
oil pan.
Cooling system
The chemical energy in the fuel is converted into heat energy during combustion. The engin e can only partly
convert this into mechanical energy. The remaining heat is dissipated mainly with the exhaust gas and the
coolant.
The engine operates with a dual-circuit cooling, i.e. a high temperature circuit and a low temperature circuit.
The combustion chamber walls are cooled by the high temperature circuit. The coolant is fed through the
coolant chambers between the crankcase and the cylinder liners. From there the coolant is fed through
bores in the crankcase to the cylinder heads. Channels in the cylinder heads feed the coolant to the floor of
the cylinder head and the valve seats. The coolant emerges from the cylinder heads and is fed into the coolant manifold to the thermostats integrated in the charge air line.
The charge air cooler is cooled by the low temperature circuit. Depending on the version as air/water or air/
air cooling. In the air/water version a second coolant pump drives another cooling circuit which cools the
charge air in the charge air cooler. In the air/air charge air cooling, the charge air cooling system precedes.
Figure 2-29 Cooling system (air / water charge air cooling)
1Discharge of hot coolant to the cooler7Temperature sensor
2Thermostat housing8Suction intake of cooled coolant to the charge
air cooler
3Coolant pump and inlet of the coolant in cylin-
der side ”B”
4Suction intake of cooled coolant to the engine10Charge air cooler
5Inlet of coolant to cylinder side ”A”11Discharge of hot coolant after charge air cooler
6Coolant overflow of cylinder heads
Coolant circuit for cooling the cylinders and cylinder heads
Coolant circuit of the air/water charge air co oler
1Discharge of hot coolant to the cooler5Inlet of coolant to cylinder side ”A”
2Thermostat housing6Coolant overflow of cylinder heads
3Coolant pump and inle t of th e co ola nt in cylin -
der side ”B”
4Suction intake of cooled coolant to the engine
Coolant circuit for cooling the cylinders and cylinder heads
Schematic representation of the dual-circuit cooling
1
2
3
16
15
5
14
13
12109
11
3
4
5
6
7
8
Figure 2-31 Cooling system schematic (air / water)
The dual-circuit cooling system is shown in the air/water version in the figure. In the air/air version the items
6, 10 and 11 are omitted. The charge air cooler then precedes in the air/air version.
1Turbocharger
2Exhaust pipe
3Charge air line
4Pipe from the coolant pump to the engine
5Thermostat
6Charge air cooler (air/water)
7Coolant pump (low temperature circuit)
8Engine interface
9Pipes to the cooler (engine c oolin g)
10Pipes from the cooler (charge air cooling)
11Pipes to the cooler (charge air cooling)
12Pipes from the cooler (engine cooling)
13Coolant pump (high temperature circuit)
14Short-circuit line
15Lube oil cooler
16Pipe from lube oil cooler to the engine
2
Labeling of coolant:
cold
warm
cold and warm mixed
warm and warm/cold mixed
line not filled
Electronic engine controller EMR2
Use and structure
The electronic engine controller EMR2 serves for speed governing of DEUTZ diesel engines.
The EMR2 basically consists of sensors, the contr ol device and the a ctuator. The installation on the engine
side and the system side are connected to the EMR2 control device by separate cable harnesses.
Engine side installations
2
Figure 2-34EMR2, engine side installations (example: TBD 616 V12)
1Engine6Sensor lube oil level
2Cable harness engine – EMR2 control device7Sensor coolant temperature
3Actuator and connection for cable harness8Frequency pick-up
4Stop magnet9Sensor lube oil pressur e
5Sensor charge air temperature10Sensor crankcase pressure and safety cut-out
-Warning lamps for overspeed, lube oil pressure, lube oil level, coolant temperature
-Switch for P factor, speed
-Engine stop
Figure 2-35 EMR2 control device
1EMR2 control device
Mconnection for engine side cable harness
Fconnection for system side cable harness
Function
The sensors mounted on the engine supply the control device electronics with all the relevant data.
According to the information about the momentary condition of the engine and the presets (setpoint genera-
tor for speed, etc.) the EMR2 drives the actuator which adjusts the injection pump control rod and thus
adapts the fuel volume according to the power requir ement. The actua tor sends a return signal of the injection pump control rod position to the control device.
The EMR2 is equipped with safety devices and measures in hardware and software to ensure emergency
operation functions.
The ignition switch cuts off the powe r to the EMR2 to sh ut down the engine. A suf ficient ly strong spring in th e
actuator pulls the injection pump control bar to the zero position in th e powerless st ate. Additionally and independently of this the fuel supply is interrupted by shutoff magnets.
The EMR2 offers a wide range of function s which can be activated by an application-related configuration
and allocation of the inputs and outputs. It enables a signal exchange both between the engine and EMR2
(via the engine side plug) and between the system and EMR2 (via the system side plug).
The functions of the EMR2 refer to the speed governor, volume restr iction (fuel injection) , monitoring, system
and device functions and communication and diagnostic interfaces.
Selected system functions are described briefly below.
Speed governing system
Different versions of the speed governor are possible depending on the application, e.g. all speed governor,
fixed speed governor.
It is possible to protect the engine against overspeed with the EMR2.
Setpoint preset
The setpoint preset can be made for example by a setpoint potentiometer, a voltage signal or via an interface.
P-factor
A constant or speed-dependent P factor can be set depending on the application. In addition, switching
between two P factors or between constant and speed-dependent P factor can be provided for.
Engine start/stop
As soon as the control device detects the start speed, the injection pump control bar is released for starting.
The power to the EMR2 must be cut off with the key operated switch to shut down the engine. The actuator
then pulls the injection pump cont rol bar to the stop po sition. Additionally and independently of this, the fuel
supply is interrupted by shutoff magnets.
The engine may also be shut down b y an error in th e EMR2, e.g. ex ceeding or dr opping below fixed measured value limits.
Displays/outputs (monitoring function)
Different signals can be displayed and output through the control device outputs, e.g. fault lamp, speed,
warning signals for coolant temperature, lube oil pressure, lube oil level.
The fault lamp must be mounted by the customer in a well visible place on the system. It serves for a rough
estimation of an error that has occurred, see also section ”Diagnostic possibilities”.
Interfaces
The EMR2 is equipped with different interfaces for diagnostics, programming and configuration as well as
the measured value and data exchange.
Error messages, measured values and other par ameters can b e displaye d via the diagn ostic interface with a
PC connected via an interface and the diagnostic software SERDIA, see also section ”Diagnostic possibilities”.
The EMR2 is programmed and configured for every engine, i.e. the EMR2 gets an engine-specific data
record.
A PC with the SERDIA diagnostic software is connected to the diagnostic interface via an interface for programming. Access to the various parameters is protected by access rights divided into four levels and can
only be gained by authorized personnel with the relevant authorization level.
Diagnostic possibilities
Self-diagnosis
The EMR2 has numerous prot ection fun ctions for the engine. The scope depends on the available measuring points and sensors. Depending on the severity of the detected fault the engine may be able to continue
running with restrictions whereby the fault lamp lights steadily or the engine is shut down whereupon the
lamp starts flashing.
Self-diagnosis is started by switching on the key operated switch. There is no active fault if the fault lamp
goes out after 2 s. When the fault lamp flashes after 2 s, there is at least one serious fault, the eng ine ca nnot
be started. If the fault lamp lights steadily, there is at least one fault, the engine may possibly be operable
with restrictions in emergency mode.
If other warning lamps are configured, e.g. oil pressure, coolant temperature, these are switched on with the
key operated switch as well for the duration of the self-diagnosis (2 s).
Fault messages are recorded and saved in the EMR2 control device and displayed by the fault lamp. The
fault lamp goes out as soon as the fault is eliminated. If the EMR2 has switched over to emergency operation, the engine has to be shut down briefly with the key operated switch to switch off the fault lamp.
Eliminated or no longer current faults remain stored in the control device and can be read out or deleted with
the SERDIA diagnostic software.
Diagnosis with key and fault code
With a diagnosis key and the fault lamp, faults can be read out as flashing codes, it is also possible to clea r
the fault memory 1, see also work card B 11-6-1, Reading out the fault memory 1 of the EMR2.
The SERDIA software program offers the following options:
-Monitoring measured values with the engine running
-Changing parameters with the engine at a standstill
-Read out and evaluate all the fault messages stored in the control device (fault memory 2) and delete
fault message of eliminated or non-current faults
-Activate function test, outputs and actuator with engine at a standstill
-Show assignment of inputs and outputs
-Show measured values graphically
Handling SERDIA is described in a separate operating manual.
Figure 2-37 Diagnosis with SERDIA (illustrated Installation in the DEUTZ Training Center in Mannheim)
1PC / Notebook with SERDIA diagnostic software
2Interface
3Diagnostic interface
and for overhauled, serviced and maintained engines. Furthermore, the commissioning report must be observed.
The work and inspections described below are necessary for trouble-free
operation and prevention of accidents. The perfect functioning of the drive
mechanism and speed control is necessary above all for trouble-free operation.
● Clean the lines and tanks for fuel, coolant and lube oil before filling. All
lines, screw fittings and connecting elements must be checked for a tight
fit, perfect condition and leaks and repaired if necessary.
● Check the alignment of the engine and proper anchoring to the foundation.
● Clean the engine and remove objects which have been placed on the
engine. Fit all protective coverings to the engine.
3
Work prior to commissioning
GeneralWork prior to commissioning applies both for commissioning new engines
Loose objects (especially on moving part s such as flywheels) can lead to serious damage or accidents.
● Check the electrical wiring for perfect condition and laying, correct if necessary.
● Check the easy action of the control and shut-down mechanism as well as
the function of monitoring, shut-down and remote control devices and
repair if necessary.
Observe the necessary quality of the operating media mentioned below
according to operating media specifications Chapter 4, Expendables.
CoolantNew engines and engines overhauled at DEUTZ are run with a special cool-
ant on the test stand. This is drained off afterwards which means that the
engines are delivered dry.
● The operator must clean the coolant lines before commissioning for the
first time.
● Open engine bleeding screw (arrow)
● Open the valves in the coolant lines if available
Fig. 1 Engine bleeding screw thermostat housing
● Fill up the engine’s cooling system with prepared coolant through the filling nozzle on the cooler until the coolant emerges from the engine bleed
valve without bubbles. Seal the engine bleed screw (arrow) with a new
sealing ring.
● The filled cooling system does not bleed automatically depending on the
structure of the external cooling system. It may be necessary to remove
the highest coolant hose until the coolant emerges without bubbles. Collect the emerging coolant.
There is a danger of fire, backfiring or explosion due to igniting of
unburned fuel in the exhaust system which could cause damage.
Therefore the following notes must be observed.
There may be a danger of backfiring, fire or explosion:
● in the case of voluminous and long, horizontally laid exhaust systems;
● after setting and adjustment work on the fuel system with idling periods in
rapid succession and cold exhaust pipes;
● after three mis-fires;
● in the case of insufficiently bled fuel lines.
chapter 3 Commissioning.
● Open the coolant and fuel taps. Switch on the pump if available.
● Remove the turning gear (if attached).
● Switch on engine monitoring system
● Set low engine speed.
● Start engine on the engine monitoring system.
● Slowly increase the speed and load a fter building up the lube oil pressure .
3
Commissioning
Starting the engine● After longer pauses in operation (cold engine) perform work according to
Do not warm up engines in idling speed without load.
monitoring system are within the specified parameters.
Let the engine run for about another 5 minutes at increased idle speed
without gears before shutting down to avoid heat building up at cylinder
liners and cylinder heads as well as coking on the exhaust turbocharger.
● Shut down engine on the engine monitoring system.
● Let the coolant pump assembly run for a few minutes more after shutting
down.
● If the engine is shut down f or longer, close the coolant and fuel taps and
the starter air tap if available.
Monitoring operationDuring engine operation, check whether the data displayed by the engine
Shutting down● Avoid shutting down from full load.
expendables used conform to requirements, no warranty will be accepted by
the engine’s manufacturer for trouble-free operation. This also applies for
inadequate care and maintenance of the engines and the expend ables.
and the wide variety of qualities involved, plus continual improvements as
well, it is impossible for us to check all suitable products and name them, and
accordingly we cannot accept any responsibility for these products.
The supply of the expendables concerned bears sole responsibility for globally consistent quality of the products named here, and in the case of products not named additionally for compliance with the specified requirements
for the expendables and their operational reliability. This shall also apply in
the event that the producer concerned improves the products named here.
The expendables named here (reference products) are only a selection from
certain producers and their products. Other expendables not listed here may
also be used, provided they conform to the requirements involved, i.e. are at
least equivalent in terms of all criteria. The expendables named in this specification shall be used as reference products for purposes of comparison. The
expendables suppliers involved can supply the requisite information, and
should also confirm the suitability of their products correspondingly.
4
General remarks
WarrantyIf unsuitable expendables are used, or if it cannot be documented that the
Product selectionDue to the large number of products available nationally and internationally
other, different coolant additives with each other, may lead to malfunctions.
In every such case, before any mixing is performed, permission must be
obtained from the suppliers of the products involved, who shall then bear the
responsibility for any such mixing. This shall also apply to putting any further
additives in the expendables.
MixabilityMixing different expendable types together, .e.g. different lube oils with each
DEUTZ S1FV 0160 9537-180°C to 1400°C Avoids burning in of screw connections in exhaust gas pipes
TypeStandards and
specifications
FV 0160 9608
FV 0160 9608
Standards and
specifications
Temperaturrange
CharacteristicsApplication examples
Two-component, epoxy-resin based, water, oil- and diesel fuel resistant, admiss. application temperature max. 150°C
Mixing ratio 1:1,
gluing agent DEUTZ KL 1 and hardener
DEUTZ KL 2
Application examples
Combines steel, alumin-
ium, brass and plastic mate-
rials such as plexiglass,
polyethylene and similar,
gluing them together or
among them
4
DEUTZ S2LV 0161 9734
FV 0160 9506
DEUTZ S3LV 0161 9733
FV 0160 9505
DEUTZ S4LV 0161 9735-40°C to 450°CPreferably used for pre-treating components with a high application tem-
DEUTZ S5LV 0161 9738-30°C to 130°CFor the long-term lubrication of antifriction- and slide bearings with
DEUTZ S6LV 0161 9741-20°C to 180°CFor the long-term lubrication of antifriction- and slide bearings with
GreaseDIN 51825-
KP 2 N-30
Tab. 3Lubricants
-25°C to 450°CSpray for reducing friction and wear for surfaces difficult to access Generates an emergency lubrication and avoids sliding back.
-35°C to 450°CSpray for reducing friction and wear. Generates an emergency lubrication
and avoids sliding back.
perature. After the evaporation of the carrier oil (at 200°C), an effectively
lubricating solid film remains. Compatible with natural rubber and plastic
materials.
medium bearing pressures and higher temperatures. Water-resistant,
good emergency lubrication.
medium bearing pressures and higher temperatures. Water-resistant,
good emergency lubrication
-30°C to 140°CConsistent grease for lubricating antifriction bearings, slide bearings and
sliding surfaces. For example, for filling the spiral-toothed coupling TBD
234/616.
Below you will find a reference list for the used auxiliary materials with which the best results have been
achieved. Equivalent products can also be used; in this case, the supplier must assure the suitability of the
product for the application.
-When using the products indicated below, the following references of the manufacturer must absolutely be observed:
Please bear in mind that the following maintenance schedule is a Recommended maintenance schedule.
Deviations from this maintenance schedule may be necessary under certain
operating conditions. For example, frequent starting, long operating times on
zero load, extremely frequent load changes, frequent overloading can lead to
increased wear and accordingly to shorter maintenance intervals. The maintenance schedule must then be adapted to the operating con ditions in consultation with your DEUTZ SERVICE partner.
Generally the on-site operating conditions are already taken into account in
the planning phase. Ask your DEUTZ SERVICE partner when in doubt.
The normal care of your engine comprise s a daily visual in spection b y technically skilled persons. The appropriate activities are listed in work card B 0-1-
5.
5
Continuous supervision
Maintenance schedule
condition and thus the operational reliability of the engine and the ap propriate
maintenance intervals. The maintenance work procedures are described in
the specified job cards.
● The intervals prescribed in the maintenance schedule are maximum values and assume that installation, purpose and operating conditions comply with DEUTZ specifications. It must be ensured that all operating media
such as fuel, lube oil and coolant have the prescribed quality. You will find
information about this in Chapter 4, Expendables.
● This maintenance schedule only applie s for th e engine itself and the parts
attached to the engine. System part s must be serviced at the intervals and
according to the instructions specified by the manufacturer. You will find
the appropriate information in the respective enclosed manufacturerdocuments (marked ”MD” in the maintenance schedule).
● The work described must be performed by technically skilled persons or
authorised specialists. The competencies are listed in Table 1, Deutz
maintenance and service schedules.
group to which the engine is assigned according to the performance abbreviation and maximum speed.
● Every maintenance schedule for a performance group consists of:
-Overview of the Deutz maintenance and service schedules and their
intervals
-Overview of the operating hour-independent maintenance measures
-Overview of the operating hour-dependent maintenance measures
-Poss. overview of the operating hour-dependent maintenance meas-
ures which are outside the intervals of the Deutz maintenance and
service schedules
-Copying forms for verification
GeneralThe maintenance schedule lists the measures for maintaining the nominal
Selection and structureAn appropriate maintenance schedule applies depending on the performance
The operating hour-dependent maintenance work is divided into Deutz maintenance and service schedules.
All the work listed must be performed carefully according to the maintenance schedule determined specifically for the engine.
Deutz maintenance and service schedulesExecuted by
E10due once respectively after commissioning and E60 and E70
E20Daily check
E30Periodic maintenance (small scope)
E40Periodic maintenance (medium scope)
E50Periodic maintenance (extended scope)
E70Complete overhaul
Tab. 1Deutz maintenance and service schedule
Technically skilled persons
Authorised specialistsE60Intermediate over haul
Please note that Deutz maintenance and service schedules may be added or
omitted depending on the performance code and maximum speed.
● Plan the due Deutz maintenance and service schedules in good time according to the number of hours
your engine has been in operation.
● Arrange the probable appointment with your responsible DEUTZ SERVICE partner in good time. Notify
your DEUTZ Service partner of any irregularities of your engine (see operating check log) when you
arrange the appointment.
● Sign a service contract with DEUTZ SERVICE if necessary. All the due maintenance work including
repairs if agreed is then planned and expertly performed by DEUTZ SERVICE according to the contract.
Your responsible DEUTZ SERVICE partner will be glad to give you the details.
Specific maintenance schedule performance group A1
This engine has been built exclusively for the application specified in the scope of supply - as described by
the equipment manufacturer - and is to be used only for the intended purpose. Depending on its intended
purpose the engine is identified by a performance code according to DIN ISO 3046-7 which is punched into
the rating plate. The rating plate is described in detail in Chapter 2, Rating plate.
This maintenance schedule is valid for the following performance code and maximum speed
embossed on the rating plate:
ICXN, ICN (continuous operation, speed max. 1,800 min
IN (variable operation, speed max. 1,500 min
ICFN (unrestricted continuous operation, speed max. 1,800 min
Type of application:
Electricity generator units, depending on design as double-frequency systems,
water pumps, compressors.
E10
Routine
Mainte-
nance
E20
Visual
inspection
E23
Mainte-
nance
work
E25
Mainte-
nance
work
-1
)
Mainte-
nance
(small
scope)
E30
-1
);
E40
Mainte-
nance
(medium
scope)
-1
)
(extended
E50
Mainte-
nance
scope)
E60
Intermedi-
ate
overhaul
E70
Complete
overhaul
5
Performance group A1
once in
special
cases
Tab. 2Deutz maintenance and service schedules in performance group A1
Renew the suction air intake filter;
when maintenance indicator is ”RED”
Maintain crankcase bleed valve;
when maintenance indicator is ”RED”
Trial run;
after maintenance measures
Run in engine;
after maintenance work such as changing bearings, piston, cylinder liner
2)
TBD 616 OEM
1)
B 6-3-6
B 3-1-9
B 0-1-4
W 0-1-3
xClean the engineB 0-3-6
xTrial run
xMaintain the battery
x
x
x
Check percentage of corrosion protection agent o r antifre eze in the coolant
Lube oil change
(engine without centrifugal lube oil filter)
Lube oil change
(engine with centrifugal lube oil filter)
xMaintain the centrifugal lube oil filter
xRenew the coolant
1)To be executed by maintenance officer
2)To be performed by authorized experts
3)To be performed when the engine has not been operated on standby for longer than one month. The engine must be preserved during long periods out of action, e.g. over the Winter, see chapter 7, Preservation.
4)To be performed when the engine has been in operation for less than 250 Oh within one year.
5)To be performed when the engine has been in operation for less than 500 Oh within one year.
6)Observe the operating media specifications in chapter 4, Operating Media.
Definition of activities in the maintenance schedule
AdjustAdjust torques, dimensions, pressures etc.; extra work may be necessary to renew parts.
Drain waterDrain condensed water, for example.
RenewRenew parts, function groups and liquids.
Finishing
work
Check
Clean
Visual inspec-
tion
OverhaulCheck function groups, rework or renew parts.
Maintain
ChangeChange lube oil, for example.
Tab. 4Definition of activities
Material removal within the permitted tolerances to reinstate a nominal condition.
Check according to criteria in the work card. If not all criteria are fulfilled the cause must be
found and the nominal condition reinstated.
Cleaning by hand or machine (automatic), renewal of cleaning part s (e.g. air filters) may be
necessary.
Visual inspection according to criteria in the job card. If not all criteria are fulfilled the cause
must be found and the nominal condition reinstated.
Maintain according to job card. Check function, reworking or renewal of parts may be necessary.
5
Performance group A1
Operating hour-dependent maintenance work
On reaching the operating hours sp ecifie d in the fo llow ing ma intena nce sc hed ule th e activit ies pr escrib ed in
the description must be performed. Always use the job card referred to in the maintenance schedule.
E10 E20 E23 E25 E30 E40 E50 E60 E70 DescriptionWC
1x after 50 Oh
every 24 hours (daily)
after every 250 Oh
after every 500 Oh
after every 1,500 Oh
after every 3,000 Oh
after every 6,000 Oh
after every 12,000 Oh
after every 24,000 Oh
xVisual inspection of the systemB 0-1-5
xxxxxxxMaintain the batteryB 13-4-1
x
x
x
x
xxxxxxxMaintain the centrifugal lube oil filter
xxxxxxx
xxxxxx
Lube oil change
(engine without centrifugal lube oil filter)
Lube oil change
(engine with centrifugal lube oil filter)
1) 2)
1) 2)
xxxxxxRenew lube oil filter cartridgeB 8-10-4
6)
B 8-13-1
B 8-1-2
B 8-1-2
xxxxxxRenew fuel filter cartridgeB 7-10-4
xxxxxxMaintain the double fuel filterB 7-10-1
xxxxxxCheck engine shutdownB 11-0-1
xxxxx Maintain crankcase bleed valve, made by Racor
1)Observe the operating media specifications in chapter 4, Operating Media.
2)Change annually if the operating hours are not reached.
3)The crankcase bleed valve must also be maintained when the maintenance indicator is ”RED”.
4)V16 engines only
5)V8 engines only
6)Clean annually if the operating hours are not reached.
MD: Manufacturer Documents
xxRenew fabric mat insulation of the turbocharger
xxClean the lube oil coolerW 8-8-2
xxRenew the oil pressure control valveW 8-11-3
xxRenew the bypass valveW 8-11-5
xx
Renew hose pipes, vibration dampers and flexible
lines
Specific maintenance schedule performance group A2
This engine has been built exclusively for the application specified in the scope of supply - as described by
the equipment manufacturer - and is to be used only for the intended purpose. Depending on its intended
purpose the engine is identified by a performance code according to DIN ISO 3046-7 which is punched into
the rating plate. The rating plate is described in detail in Chapter 2, Rating plate.
This maintenance schedule is valid for the following performance code and maximum speed
embossed on the rating plate:
)
E40
Mainte-
nance
scope)
-1
)
(extended
after every
6,000 Oh
E50
Mainte-
nance
scope)
E60
Intermedi-
ate
overhaul
after every
9,000 Oh
E70
Complete
overhaul
after every
18,000 Oh
ICFN (unrestricted continuous operation, speed max. 2,100 min
IFN (limited continuous operation, speed max. 2,100 min
Type of application:
Electricity generator units, water pumps, compressors, fire extinguisher pumps.
E10
Routine
Mainte-
nance
once in
special
case
E20
Visual
inspection
dailyafter every
E23
Mainte-
nance
work
250 Oh
E25
Mainte-
nance
work
after every
500 Oh
E30
Mainte-
nance
(small
scope)
after every
1,500 Oh
-1
(medium
after every
3,000 Oh
5
Performance group A2
Tab. 7Deutz maintenance and service schedules in performance group A2
Renew the suction air intake filter;
when maintenance indicator is ”RED”
Maintain crankcase bleed valve;
when maintenance indicator is ”RED”
Trial run;
after maintenance measures
Run in engine;
after maintenance work such as changing bearings, piston, cylinder liner
2)
TBD 616 OEM
1)
B 6-3-6
B 3-1-9
B 0-1-4
W 0-1-3
xClean the engineB 0-3-6
xTrial run
xMaintain the battery
x
x
x
Check percentage of corrosion protection agent o r antifre eze in the coolant
Lube oil change
(engine without centrifugal lube oil filter)
Lube oil change
(engine with centrifugal lube oil filter)
xMaintain the centrifugal lube oil filter
xRenew the coolant
1)To be executed by maintenance officer
2)To be performed by authorized experts
3)To be performed when the engine has not been operated on standby for longer than one month. The engine must be preserved during long periods out of action, e.g. over the Winter, see chapter 7, Preservation.
4)To be performed when the engine has been in operation for less than 250 Oh within one year.
5)To be performed when the engine has been in operation for less than 500 Oh within one year.
6)Observe the operating media specifications in chapter 4, Operating Media.
Definition of activities in the maintenance schedule
AdjustAdjust torques, dimensions, pressures etc.; extra work may be necessary to renew parts.
Drain waterDrain condensed water, for example.
RenewRenew parts, function groups and liquids.
Finishing
work
Check
Clean
Visual inspec-
tion
OverhaulCheck function groups, rework or renew parts.
Maintain
ChangeChange lube oil, for example.
Tab. 9Definition of activities
Material removal within the permitted tolerances to reinstate a nominal condition.
Check according to criteria in the work card. If not all criteria are fulfilled the cause must be
found and the nominal condition reinstated.
Cleaning by hand or machine (automatic), renewal of cleaning part s (e.g. air filters) may be
necessary.
Visual inspection according to criteria in the job card. If not all criteria are fulfilled the cause
must be found and the nominal condition reinstated.
Maintain according to job card. Check function, reworking or renewal of parts may be necessary.
5
Performance group A2
Operating hour-dependent maintenance work
On reaching the operating hours sp ecifie d in the fo llow ing ma intena nce sc hed ule th e activit ies pr escrib ed in
the description must be performed. Always use the job card referred to in the maintenance schedule.
E10 E20 E23 E25 E30 E40 E50 E60 E70 DescriptionWC
1x after 50 Oh
every 24 hours (daily)
after every 250 Oh
after every 500 Oh
after every 1,500 Oh
after every 3,000 Oh
after every 6,000 Oh
after every 9,000 Oh
after every 18,000 Oh
xVisual inspection of the systemB 0-1-5
xxxxxxxMaintain the batteryB 13-4-1
x
x
x
x
xxxxxxxMaintain the centrifugal lube oil filter
xxxxxxx
xxxxxx
Lube oil change
(engine without centrifugal lube oil filter)
Lube oil change
(engine with centrifugal lube oil filter)
1) 2)
1) 2)
xxxxxxRenew lube oil filter cartridgeB 8-10-4
6)
B 8-13-1
B 8-1-2
B 8-1-2
xxxxxxRenew fuel filter cartridgeB 7-10-4
xxxxxxMaintain the double fuel filterB 7-10-1
xxxxxxCheck engine shutdownB 11-0-1
xxxxx Maintain crankcase bleed valve, made by Racor
1)Observe the operating media specifications in chapter 4, Operating Media.
2)Change annually if the operating hours are not reached.
3)The crankcase bleed valve must also be maintained when the maintenance indicator is ”RED”.
4)V16 engines only
5)V8 engines only
6)Clean annually if the operating hours are not reached.
MD: Manufacturer Documents
xxRenew fabric mat insulation of the turbocharger
xxClean the lube oil coolerW 8-8-2
xxRenew the oil pressure control valveW 8-11-3
xxRenew the bypass valveW 8-11-5
xx
Renew hose pipes, vibration dampers and flexible
lines
This engine has been built exclusively for the application specified in the scope of supply - as described by
the equipment manufacturer - and is to be used only for the intended purpose. Depending on its intended
purpose the engine is identified by a performance code according to DIN ISO 3046-7 which is punched into
the rating plate. The rating plate is described in detail in Chapter 2, Rating plate.
This maintenance schedule is valid for the following performance code and maximum speed
embossed on the rating plate:
IFN (max. 1,500 min
IN (variable operation, max. 1,800 min
Type of application:
Electricity generator units, depending on design as double-frequency systems.
E10
Routine
Mainte-
nance
once in
special
cases
-1
);
E20
Visual
inspection
dailyafter every
E23
Mainte-
nance work
250 Oh
-1
)
E25
Mainte-
nance work
after every
500 Oh
E30
Mainte-
nance
(small
scope)
after every
1,500 Oh
E40
Mainte-
nance
(medium
scope)
after every
3,000 Oh
E60
Intermedi-
ate
overhaul
after every
6,000 Oh
E70
Complete
overhaul
after every
12,000 Oh
5
Performance group B
Tab. 12Deutz maintenance and service schedules in performance group B
Renew the suction air intake filter;
when maintenance indicator is ”RED”
Maintain crankcase bleed valve;
when maintenance indicator is ”RED”
Trial run;
after maintenance measures
Run in engine;
after maintenance work such as changing bearings, piston, cylinder liner
2)
TBD 616 OEM
1)
B 6-3-6
B 3-1-9
B 0-1-4
W 0-1-3
xClean the engineB 0-3-6
xTrial run
xMaintain the battery
x
x
x
Check percentage of corrosion protection agent o r antifre eze in the coolant
Lube oil change
(engine without centrifugal lube oil filter)
Lube oil change
(engine with centrifugal lube oil filter)
xMaintain the centrifugal lube oil filter
xRenew the coolant
1)To be executed by maintenance officer
2)To be performed by authorized experts
3)To be performed when the engine has not been operated on standby for longer than one month. The engine must be preserved during long periods out of action, e.g. over the Winter, see chapter 7, Preservation.
4)To be performed when the engine has been in operation for less than 250 Oh within one year.
5)To be performed when the engine has been in operation for less than 500 Oh within one year.
6)Observe the operating media specifications in chapter 4, Operating Media.
Tab. 13Operating hour-independent maintenance work
Definition of activities in the maintenance schedule
AdjustAdjust torques, dimensions, pressures etc.; extra work may be necessary to renew parts.
Drain waterDrain condensed water, for example.
RenewRenew parts, function groups and liquids.
Finishing
work
Check
Clean
Visual inspec-
tion
OverhaulCheck function groups, rework or renew parts.
Maintain
ChangeChange lube oil, for example.
Tab. 14Definition of activities
Material removal within the permitted tolerances to reinstate a nominal condition.
Check according to criteria in the work card. If not all criteria are fulfilled the cause must be
found and the nominal condition reinstated.
Cleaning by hand or machine (automatic), renewal of cleaning part s (e.g. air filters) may be
necessary.
Visual inspection according to criteria in the job card. If not all criteria are fulfilled the cause
must be found and the nominal condition reinstated.
Maintain according to job card. Check function, reworking or renewal of parts may be necessary.
5
Performance group B
Operating hour-dependent maintenance work
On reaching the operating hours sp ecifie d in the fo llow ing ma intena nce sc hed ule th e activit ies pr escrib ed in
the description must be performed. Always use the job card referred to in the maintenance schedule.
E10 E20 E23 E25 E30 E40 E60 E70 DescriptionWC
1x after 50 Oh
every 24 hours (daily)
after every 250 Oh
after every 500 Oh
after every 1,500 Oh
after every 3,000 Oh
after every 6,000 Oh
after every 12,000 Oh
xVisual inspection of the systemB 0-1-5
xxxxxxMaintain the batteryB 13-4-1
x
x
x
x
xxxxxxMaintain the centrifugal lube oil filter
xxxxxx
xxxxx
Lube oil change
(engine without centrifugal lube oil filter)
Lube oil change
(engine with centrifugal lube oil filter)
1) 2)
1) 2)
xxxxxRenew lube oil filter cartridgeB 8-10-4
6)
B 8-13-1
B 8-1-2
B 8-1-2
xxxxxRenew fuel filter cartridgeB 7-10-4
xxxxxMaintain the double fuel filterB 7-10-1
xxxxxCheck engine shutdownB 11-0-1
xxxx Maintain crankcase bleed valve, made by Racor
1)Observe the operating media specifications in chapter 4, Operating Media.
2)Change annually if the operating hours are not reached.
3)The crankcase bleed valve must also be maintained when the maintenance indicator is ”RED”.
4)V16 engines only
5)V8 engines only
6)Clean annually if the operating hours are not reached.
MD: Manufacturer Documents