Demag Cataloque
Demag Cataloque
39144
Drive Designer
Guided selection and project engineering of Demag geared motors and travel unit components
www.demag-drivedesigner.com
provides all information online (no installation required; always up-to-date; many special functions).
When this catalogue is published, all previous issues become invalid and must be regarded as withdrawn. The same applies
for all previous versions of Drive Designers on CD, 208 731 44 and 208 745 44, Version 5 and earlier.
Brochures
Demag drives brochure 208 732 44 208 734 44 208 735 44 208 736 44
Demag wheel range brochure 208 722 44 208 724 44 208 725 44 208 726 44
Operating instructions
D 11 – D 41 helical gearbox operating instructions 214 719 44 214 720 44 214 721 44 214 722 44
D 50 – D 90 helical gearbox operating instructions 214 150 44 214 151 44 214 152 44 214 153 44
W 10 – W 100 angular gearbox operating instructions 214 057 44 214 058 44 214 059 44 214 060 44
A 10 – A 90 offset gearbox operating instructions 214 205 44 214 206 44 214 207 44 214 208 44
Motor operating instructions – Z motor range 214 227 44 214 228 44 214 229 44 214 230 44
KBA – KBF motor operating instructions 214 317 44 214 318 44 214 319 44 214 320 44
Brake accessories for Z motor range, operating instructions 214 040 44 214 041 44 214 042 44 214 043 44
2033521y_en_250810.indd
Operating instructions / Plug connection for KB and Z motor ranges 214 021 44 214 022 44 214 023 44 214 024 44
DRS 112 – 200 wheel block system assembly and operating instructions 214 275 44 214 276 44 214 277 44 214 278 44
DRS 250 – 500 wheel block system assembly and operating instructions 214 326 44 214 327 44 214 328 44 214 329 44
RAE/RNE wheel sets assembly and maintenance instructions 214 132 44 214 133 44 214 134 44 214 135 44
2
Catalogue
Demag DRS wheel block system
3
Leading edge – now via the Internet
your project,
n generate specific CAD files and import them into your de-
signs,
n create dimension sheets,
Outstanding benefits
With Drive Designer online, you not only save a lot of time.
You also benefit from the fact that it requires no installa-
tion, does not take up any space on your hard disk and
that it is always up-to-date. In addition, it is available at all
times and in many languages, including measurements
used in other countries, such as feet and pounds, for
example.
4
The system also ensures that your enquiry is sent quickly
to the relevant engineer and also avoids any data transfer
errors. The spare parts you need are sent to you reli-
ably and on schedule via our Demag Shop Internet order
system.
If you want to view the files, you can download our DXF
viewer. Using the layer definition function, you can ensure
that the files match the standards in your drawings.
5
Optimum materials handling and drive solutions
High quality and reliable service geared motors offer robust quality at a favourable price.
The Drives group offers a comprehensive range with a Demag travel unit components range from wheel sets and
high level of functional reliability, precision and long-term non-driven wheel blocks to complete, non-driven travel
guaranteed spare part availability. units for a wide variety of applications in many industries.
Thanks to our closely knit service network, reliable and Application versatility
expert drive service is also guaranteed all over the world – The high level of quality required for materials handling
from specific consultation to erection and assembly to applications has resulted in Demag drive products also be-
meet specific application requirements and for rapid re- ing used in many other industries. These include general
pairs. Spare parts are also stocked worldwide and can be mechanical engineering and plant engineering solutions,
obtained at any time. as well as operation under extreme conditions in galvanis-
ing facilities or special construction applications, e.g. for
Innovative and market-oriented moving bridge elements, roofs or the sun canopy of the
With our motors, gearboxes, travel units and frequency German parliament building in Berlin.
inverters, we are always able to implement new solutions.
We not only meet a wide variety of market needs, but also
set standards, e.g. with Demag conical-rotor motors for
stopping and starting travel drives. Demag cylindrical-rotor
6
1 Demag DRS wheel block system
Description
1
1
2 Demag DRS wheel block system L2
Load
Operating time
6
Order form
Service
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7
Contents
1
1 Introduction 12
1.1 DRS 112 to 200 product description 12
1.2 DRS 250 to 500 product description 13
1.3 Modular wheel block system 14
1.4 Drive arrangements, A offset gearboxes / W angular gearboxes 15
1.5 Prohibited practises, improper use 16
1.6 Friction bearing arrangement 16
1.6.1 Friction bearings (DRS 112 – 200) 16
1.6.2 Friction bearings (DRS 250 – 500) 16
1.7 Travel wheel materials 17
1.8 Paint finish 18
1.9 Aligning system for top connection 19
1.10 Permissible horizontal loads for DRS wheel blocks 20
1.11 Reduction factor for driven wheel blocks 20
5 Specification 170
6 Appendix 199
6.1 Notes on ordering 199
6.2 Enquiry/order 200
6.3 Project data sheet 201
6.4 Drive representatives and agencies abroad 202
6.5 Terms and conditions of sale and delivery 202
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10
2033521a_en_250810.indd
11
1
1 Demag DRS wheel block system
Introduction
1
Friction
bearing
Position
of type
plate
Measuring mark:
Travel wheel centre Travel wheel
Sixth connecting Polyamide
surface composite hub
41621345.eps
The Demag DRS 112 to 200 wheel block system, suitable for loads up to
10,000 kg, is a concept designed to meet customer wishes.
41641045.eps
12
1
1.2 DRS 250 to 500 product
description
Friction
bearing
Position of
type plate
Travel wheel
Sixth connecting Splined hub pro-
surface file to DIN 5480
The Demag DRS 250 to 500 wheel block system, suitable for loads up to
40,000 kg, is designed as a heavy-duty travel unit based on the same principle as
the smaller 112 – 200 series.
13
1
1.3 Modular wheel block The patented modular wheel block system is an optimum combination of drives
and rail-guided travel units. The system is used for tasks such as supporting, guid-
system ing and driving loads. All fittings feature connection arrangements which have been
proven over decades.
Individual drive
unit Central drive
unit
Individual drive Central drive
unit unit
1
AME 10 – 40 offset gearboxes ADE 40 – 80 offset gearboxes
42098244.eps
42098344.eps
15
1
1.5 Prohibited practises, Under the following operating conditions, malfunctions, failure or hazard to life and
limb may occur, e.g. in the case of:
improper use
• Acidic, corrosive air as coolant
• Explosion hazard atmospheres
• Operation outside the permitted temperature range
• Exceeding the permissible load
• Exceeding the design service life
• Operation under prohibited ambient conditions
• Use of connecting elements not designed for use with the wheel block
• Use of non-genuine Demag parts
• Non-compliance with the assembly instructions
• Bolted connections which are not tightened with the specified torque
• Incomplete assembly of connecting elements
• Occurrence of peak loads which were not considered in the design
Standard: Options:
The friction bearings of DRS 112 – 200 Use low-maintenance grooved ball
wheel blocks are protected and ar- bearings with double-lip seals for ex-
ranged inside the wheel block housing. treme moist conditions. Suitable for
This bearing arrangement features temperatures from -20° C to +110° C
grooved ball bearings that are lubricat- and normal ambient conditions.
ed for life and sealed, reducing mainte-
nance to a minimum, and are particu-
larly suitable for high axial loads.
Suitable for temperatures from –20° C
to +70° C and normal ambient condi-
tions.
Options:
Relubrication with flat lubrication nipple or relubrication line, see section 4.8. Tem-
perature range + 70° C to 150° C ambient temperature with use of hot bearing
grease, Viton (FPM) - V- sealing ring and screw plug in the lubrication opening.
16
1
1.7 Travel wheel materials
EN-GJS-700-2 (GGG 70) GJS-700-2 (GGG 70) is a spheroidal graphite cast iron, a material with a self-lubri-
cating effect owing to the graphite incorporated in it. Therefore, the travel wheels
feature high wear resistance with low travel resistance, thus minimising wear on
the rail. The high inherent damping effect of the travel wheels guarantees good
running characteristics for the travel unit. Travel wheels with guide features, e.g.
flange-guided, with a tread distance to the travel rail of min. 1 mm and guide roller
arrangement with identical distance are available. If extreme wear is expected, e.g.
casting sand or similar, the travel wheel tread surface or guide flange can be hard-
ened to 56 ± 2 HRc. Hardening is intended only to minimise wear.
Travel wheels with Hydropur tyre Hydropur is a polyurethane elastomer which features good resistance to hydrolys-
es compared to other conventional polyurethanes (such as Vulkollan, for example).
This material features significantly higher friction values compared to GJS (GGG)
wheels, thus making travel wheels with a Hydropur tyre predestined for highly dy-
namic applications. Running noises are reduced to a minimum owing to the good
dampening characteristics: Attention must be paid to the considerably reduced
permissible load capacities compared to wheels of GJS-700-2 (GGG 70). Wheels
with Hydropur tyres are particularly suitable for operation on concrete surfaces ow-
ing to the low contact area pressure or in the case of particularly high acceleration
rates of up to 1,5 m/s2 for friction drives due to the high friction coefficient between
the travel wheel tyre and counterpart material. This material can be used at up to
100 ºC for high temperature applications.
Polyamide Compared to GJS-700-2 (GGG 70) travel wheels, travel wheels made of polya-
mide (PA 6 casting) feature significantly reduced travel noise for comparable fric-
tion values. Attention must also be paid to the significantly reduced permissible
load capacity compared to travel wheels made of GJS-700-2 (GGG 70). Owing to
the high specific contact pressure as a result of the round shape, polyamide is only
suitable for operation on steel materials or similar.
Temperature up to 110 ºC
O – O O
(DRS 112 to 200)
Temperature up to 150 ºC
O – – O
(DRS 250 to 500)
Travel wheels with hardened For operating conditions in which increased travel wheel wear is likely (e.g. rails
2033521b_en_250810.indd
treads with extreme dirt accumulation), the running surfaces and flanges of the spheroidal
graphite cast iron travel wheels can be hardened (to a depth of 2 to 3 mm).
Travel wheel sizes 112 – 200 do not feature flange wear indicators. Surface hard-
ening is 56 ± 2 HRc.
17
1
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18
1
1.9 Aligning system for top DRS 112 to 500
connection
Laser
Laser beam
Slot aperture
Target marker
41621344.eps
• Fast and optimum alignment of wheel blocks using the Demag alignment de-
vice.
• Reduced wear thanks to exactly aligned travel wheels. Achievable accuracy
with measuring device: 1,6 ‰.
• The sliding nut arrangement (DRS 112 to DRS 200) or the difference between
the threaded pin diameter to the bore hole diameter of the connecting structure
(DRS 250 to DRS 500) offers a lateral alignment path of ± 3 mm.
For further details: see assembly, installation and operating instructions, ident. no.
214 827 44
2033521b_en_250810.indd
19
1
for temperature fK A uniform temperature-dependent reduction factor fK is used for the entire wheel
block.
– 20 ºC
DRS wheel up to up to up to up to up to up to up to up to up to up to up to
up to
block size 50 ºC 60 ºC 70 C 80 ºC 90 ºC 100 ºC 110 ºC 120 ºC 130 ºC 140 ºC 150 ºC
+ 40 ºC
DRS 250 – 500 1 1 0,92 0,90 0,88 0,86 0,84 0,82 0,80 a. A. a. A. a. A.
a. A. = On request
for rail material fSt A reduction factor fST is introduced for linear or point contact depending on the
travel wheel material material of the rail.
GJS-700-2 (GGG 70)
Material Factor fSt
DIN EN 10025 Linear contact Point contact
St 70-2/E 360 1 1
Rail
St 60-2/E 335 1 0,44
20
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21
1
2 Demag DRS wheel block system · Selection
Basic type
A.. Driven wheel block, for torque bracket fitting
and indication of hub profiles
MA . . Wheel block also driven
and indication of the shaft profile diameter
NA . . Non-driven wheel block
22
DRS 112 – 200 basic types DRS 250 – 500 basic types
A MA NA A/MA NA
2
Hub profile see section 2.3 42099544.eps 42099545.eps
DRS 112 – 200 travel wheel variants DRS 250 – 500 travel wheel variants
A B C D E F A B D E
42099044.eps 42098944.eps
A D Travel wheel
Travel
wheel Standard travel wheel per side
diameter type
b1 width 1)
b1 2
to to 3) A D min. max. k
112 80 60 62 47, 60 47 1 5 40, 45, 50, 55, 60
DRS 112 – 200 connection variants DRS 250 – 500 connection variants
K W B K W B
Box section End connection Box section DRS 250 end
girder girder connection
42099344.eps 42099444.eps
DRS 112 – 200 roller guide arrangements DRS 250 – 500 roller guide arrangements
2033522a_en_250810.indd
42099144.eps 42099244.eps
Load
Operating time
2
Operating time
Operating time
Operating time
Light k ≤ 0,50 – – – 1 Bm 1 Am 2m 3m 4m
Medium k ≤ 0,63 – – 1 Bm 1 Am 2m 3m 4m 5m
Heavy k ≤ 0,80 – 1 Bm 1 Am 2m 3m 4m 5m –
2.3 Wheel block size Quick selection of wheel block sizes depending on the loads to be displaced ac-
cording to groups of mechanisms and travel speed.
selection
The basis for selection is the maximum useful rail head width for flat rails.
2033522a_en_250810.indd
Refer to the permissible wheel load tables for linear contact (section 2.7.5) for
more detailed information on groups of mechanisms 1 Am, 2 m, ..., 5 m.
24
Group of mechanisms/load factor group Travel speed in m/min
FEM 3m 2m 1 Am 1 Bm
12,5 16 20 25 31,5 40 50 63 80 100 125 160
ISO M6 M5 M4 M3
2
01240 01560 01970 02480
25
2.4 Wheel block system drive combinations
with offset and angular geared motors
Travel
wheel
GJS-700-2
GJS-700-2
GJS-700-2
GJS-700-2
GJS-700-2
GJS-700-2
GJS-700-2
GJS-700-2
GJS-700-2
GJS-700-2
GJS-700-2
GJS-700-2
GJS-700-2
GJS-700-2
GJS-700-2
Polyamide
Polyamide
Polyamide
Polyamide
Polyamide
Polyamide
Polyamide
Hydropur
Hydropur
Hydropur
Hydropur
Hydropur
Hydropur
Hydropur
material
Gearbox
size
A 10 / W 10 ●●●●● – – – – – – – – – – – – – – – – – – – – – – – –
A 20 / W 20 O O O – – – ● – ●●● – – – – – – – – – – – – – – – – – –
A 30 / W 30 – – – – – – O – O – – – ● – ●●● – – – – – – – – – – – –
A 40 / W 40 – – – – – – – – – – – – O – O – – – ● – ● ● – – – – – – –
A 50 / W 50 / W 60 – – – – – – – – – – – – – – – – – – O – O – ● ● – – – – –
A 60 / W 70 – – – – – – – – – – – – – – – – – – – – – – O – ● ● – – –
A 70 / W 80 – – – – – – – – – – – – – – – – – – – – – – – – O – ● ● –
A 80 / W 90 – – – – – – – – – – – – – – – – – – – – – – – – – – O – ●
A 90 / W 100 – – – – – – – – – – – – – – – – – – – – – – – – – – – – O
2033522a_en_250810.indd
26
2.5 Gearbox-motor assignment for ZI central drive unit, inside arrangement
2.5.1 Central drive unit, inside arrangement, with offset geared motors
For wheel block-geared motor assignments with offset geared motors, collision of the motor with the shaft coupling
must be excluded. Permissible combinations are shown in the following table.
2
41862744.eps
2.5.2 Central drive unit, inside arrangement, with angular geared motors
There is no limitation for the permissible gearbox-motor combination for DRS wheel blocks with angular geared mo-
tors.
2033522a_en_250810.indd
41862544.eps
27
2.6 Ground clearance Gearbox: vertical arrangement
between wheel tread
AM/AD offset gearbox WU angular gearbox
surface and lower
edge of gearbox or
motor
2
41628544.eps 41804544.eps
AM 10 + 5 A
AM 20 –1,5 A
112
WU 10 – 18 B
WU 20 – 24 B
AM 10 + 5 B
AM 20 +5 B
AM 30 – 13 A
125
WU 10 – 13 B
WU 20 – 18 B
WU 30 – 28 A
AM 20 + 11 B
AM 30 + 05 A
AM 40 – 10 A
160
WU 20 – 02 B
WU 30 – 10 A
WU 40 – 25 A
AM 30 + 15 B
AM 40 + 10 A
AD 50 – 15 A
200 WU 30 – 05 B
WU 40 – 5 B
WU 50 – 20 A
WU 60 – 10 B
AD 40 + 20 B
AD 50 + 10 A
AD 60 – 15 A
250 WU 40 + 20 A
WU 50 + 05 A
WU 60 + 15 A
WU 70 – 05 A
2033522a_en_250810.indd
1) Table values are based on the nominal travel wheel diameter (wheel block size). The ground clearance Obstacle edge A = Gearbox housing
increases for travel wheel types C, E and F owing to the larger travel wheel diameter. Obstacle edge B = Torque bracket
28
Ground clearance between wheel Gearbox: vertical arrangement
tread surface and lower edge of
gearbox or motor 1)
DRS wheel block Ground clearance x Component obstacle
Gearbox type
size in mm edge
AD 50 + 29 B
2
AD 60 + 17 A
AD 70 – 08 A
315 WU 50 + 29 B
WU 60 + 29 B
WU 70 + 27 A
WU 80 – 28 A
AD 60 + 55 B
AD 70 + 35 A
AD 80 –1 A
400
WU 70 + 55 B
WU 80 + 15 A
WU 90 – 05 A
AD 70 + 82 B
AD 80 + 49 A
AU 90 + 10 A
500
WU 80 + 65 A
WU 90 + 45 A
WU 100 – 10 A
2033522a_en_250810.indd
1) Table values are based on the nominal travel wheel diameter (wheel block size). The ground clearance Obstacle edge A = Gearbox housing
increases for travel wheel types C, E and F owing to the larger travel wheel diameter. Obstacle edge B = Torque bracket 29
Ground clearance between wheel tread surface and lower edge of gearbox or motor
1) Table values are based on the nominal travel wheel diameter (wheel block size). The ground clearance Obstacle edge A = Gearbox housing
increases for travel wheel types C, E and F owing to the larger travel wheel diameter. Obstacle edge B = Torque bracket
30
Ground clearance between wheel tread surface and lower edge of gearbox or motor
2
Z63 / Z80 / Z90B / Z160A/B / Z180B /
Z112 / Z132 Z225
Z71 Z90A Z100 Z180A Z200
AD 50 D/T + 29 B + 87 + 79 + 59 + 27 – – –
AD 60 D/T + 12 A + 87 + 79 + 59 + 27 – – –
AD 70 D/T – 16 A + 87 + 79 + 59 + 27 – – –
WU 50 D/T + 29 B + 121 + 112 + 93 + 61 – – –
WU 60 T – 48 A + 76 + 67 + 48 + 16 – 11 – 51 – 74
513
WU 60 Q – 48 A + 33 + 24 +5 – 27 – 54 – 94 –117
WU 70 T – 88 A + 81 + 73 + 53 + 21 –6 – 46 – 69
WU 70 Q – 88 A +31 + 23 +3 – 29 – 56 – 96 – 119
WU 80 T – 118 A + 55 + 47 + 27 –5 – 32 – 72 – 95
WU 80 Q – 118 A +5 –3 – 23 – 55 – 82 – 122 – 145
AD 60 D/T + 55 B + 130 + 121 + 102 + 70 – – –
AD 70 D/T + 27 A + 130 + 121 + 102 + 70 – – –
AD 80 D/T – 11 A + 130 + 121 + 102 + 70 – – –
WU 70 T – 45 A + 124 + 115 + 96 + 64 + 37 –3 – 26
400 WU 70 Q – 45 A + 74 + 65 + 46 + 14 – 13 – 53 – 76
WU 80 T – 75 A + 98 + 89 + 70 + 38 + 11 – 29 – 52
WU 80 Q – 75 A + 48 + 39 + 20 – 12 – 39 – 79 – 102
WU 90 T – 115 A + 98 + 89 + 70 + 38 + 11 – 29 – 52
WU 90 Q – 115 A + 37 + 28 +9 – 23 – 50 – 90 – 113
AD 70 D/T + 77 A + 180 + 171 + 152 + 120 + 93 + 53 + 30
AD 80 D/T + 39 A + 180 + 171 + 152 + 120 + 93 + 53 + 30
AU 90 D/T 0 A + 180 + 171 + 152 + 120 + 93 + 53 + 30
WU 80 T – 25 A + 148 + 139 + 120 + 88 + 61 + 21 –2
500 WU 80 Q – 25 A + 98 + 89 + 70 + 38 + 11 – 29 – 52
WU 90 T – 65 A + 148 + 139 + 120 + 88 + 61 + 21 –2
WU 90 Q – 65 A + 87 + 78 + 59 + 27 0 – 40 – 63
WU 100 T – 140 A + 136 + 127 + 108 + 76 + 49 +9 – 14
WU 100 Q – 140 A + 58 + 49 + 30 -2 – 29 – 69 – 92
Note: More favourable ground clearance can be achieved when gearbox type WU 60 – 100 model B14.2/B14.8 is used
1) Table values are based on the nominal travel wheel diameter (wheel block size). The ground clearance Obstacle edge A = Gearbox housing
increases for travel wheel types C, E and F owing to the larger travel wheel diameter. Obstacle edge B = Torque bracket 31
Ground clearance between wheel tread surface and lower edge of gearbox or motor
Gearbox: horizontal arrangement, coupling connection arrangement with KB motor
2
AD 50 D/T + 29 B + 87 + 78 + 68 + 59 + 47 + 34 + 20 – – – –
AD 60 D/T + 15 A + 87 + 78 + 68 + 59 + 47 + 34 + 20 – – – –
AD 70 D/T - 12 A + 87 + 78 + 68 + 59 + 47 + 34 + 20 0 – – –
WU 50 D/T + 29 B + 121 + 112 + 102 + 93 + 81 + 68 + 54 – – – –
WU 60 T – 48 A + 76 + 67 + 57 + 48 + 36 + 23 +9 – 11 – – –
315
WU 60 Q – 48 A + 33 + 24 + 14 +5 –7 – 20 – 34 – 54 – – –
WU 70 T – 88 A + 81 + 72 + 62 + 53 + 41 + 28 + 14 –6 – 26 – 46 –
WU 70 Q – 88 A + 31 + 22 + 12 +3 –9 – 22 – 36 – – – –
WU 80 T – 118 A + 55 + 46 + 36 + 27 + 15 +2 – 12 – 32 – 52 – 72 –
WU 80 Q – 118 A +5 –4 – 14 – 23 – 35 – 48 – 62 – – – –
AD 60 D/T + 55 B + 130 + 121 + 111 + 102 + 90 + 77 + 63 – – – –
AD 70 D/T + 30 A + 130 + 121 + 111 + 102 + 90 + 77 + 63 + 43 – – –
AD 80 D/T -8 A + 130 + 121 + 111 + 102 + 90 + 77 + 63 + 43 + 23 +3 –
WU 70 T – 45 A + 124 + 115 + 105 + 96 + 84 + 71 + 57 + 37 + 17 –3 –
400 WU 70 Q – 45 A + 74 + 65 + 55 + 46 + 34 + 21 +7 – – – –
WU 80 T – 75 A + 98 + 89 + 79 + 70 + 58 + 45 + 31 + 11 –9 – 29 –
WU 80 Q – 75 A + 48 + 39 + 29 + 20 +8 –5 – 19 – – – –
WU 90 T – 115 A – – – – + 58 + 45 + 31 + 11 –9 – 29 – 52
WU 90 Q – 115 A – + 28 + 18 +9 –3 – 16 – 30 – 50 – – –
AD 70 D/T + 80 A + 180 + 171 + 161 + 152 + 140 + 127 + 113 + 93 – – –
AU 80 D/T + 42 A – + 171 + 161 + 152 + 140 + 127 + 113 + 93 + 73 + 53 –
AU 90 D/T 0 A – – – – + 140 + 127 + 113 + 93 + 73 + 53 + 30
WU 80 T – 25 A + 148 + 139 + 129 + 120 + 108 + 95 + 81 + 61 + 41 + 21 –
500 WU 80 Q – 25 A + 98 + 89 + 79 + 70 + 58 + 45 + 31 – – – –
WU 90 T – 65 A – – – – + 108 + 95 + 81 + 61 + 41 + 21 –2
WU 90 Q – 65 A – + 78 + 68 + 59 + 47 + 34 + 20 0 – – –
WU 100 T – 140 A – – – – + 96 + 83 + 69 + 49 + 29 +9 – 14
WU 100 Q – 140 A – + 49 + 39 + 30 + 18 +5 –9 – 29 – 49 – 69 –
GJS (GGG) with GJS (GGG) GJS (GGG) with GJS (GGG) with- Polyamide without flange, Hydropur with-
flange on both sides without flange flange on one side out flange with larger diameter out flange, with
larger diameter
Assessment criteria
Rail support
– steel + + +
and assign-
– concrete – + +
ment to crane
– sleepers – – +
runway
– not suitable
h4
2
h2
6
5 B1 5
B 2 min
41946644.eps
Bolt
Nut
with pad without pad h3 h4 Nut
B1 B2 h2 DIN 934 DIN 936 DIN 934 DIN 936 DIN 934 DIN 936
A 45 125 245 55 14 19
A 55 150 270 65 24 29
A 75 85 44 49
200 320
A 100 95 54 50
A 45 125 245 55 15 20
A 55 – 150 270 65 25 30
18 M 16x45 M 16x40 205 Nm 100 Nm
A 65 175 295 75 35 40
A 75 85 40 45
200 320
22 A 100 – 95 50 55 M 16x50 M 16x45 205 Nm 100 Nm
Clearance
Rated size Application Girder width Bore hole spacing
dimension for
guide rollers
2)
h4
22 A 120 79
302 266
1 24 A 150 122
w
B min
2033522a_en_250810.indd
41946544.eps
1) Allows for a 6 mm pad. Select the relevant rated size for other thicknesses. Use the next smaller rated
size for the clamped version.
2) If horizontal guide roller arrangements are used, note the relevant dimensions in accordance with sec-
tion 4.6. 35
2.7.3 Manufacturers’ tolerances
Tolerance Crane runways
S max
S min
Tolerance A
S A = ± 3 mm A = ± 5 mm A = ± 8 mm
of track gauge dimension s of
for s > 16 m: for s > 16 m: for s > 16 m:
crane rails with reference to the
A = ± [3 + 0,25 (s - 16)] A = ± [5 + 0,25 (s - 16)] A = ± [8 + 0,25 (s - 16)]
rail centre and crane runway
A in mm A in mm A in mm
length
use s in m use s in m use s in m
41409444.eps
Smax = s + A Smin = s - A
Tolerance C 2000
of the straightness with reference
c
c
-C +C
s
+E
Tolerance E E = ± 0,5‰ x s E = ± 1‰ x s E = ± 2‰ x s
in mm
E
36
2.7.4 Wheel treads/crane rail widths
GJS-700-2 (GGG 70) spheroidal A D
graphite cast iron travel wheel
b1
b1 2
2
s s
k k
41617944.eps
Travel wheel
Travel wheel diameter Travel wheel tread b1 2) Distance s Rail width
width
per side
Standard travel wheel type
1)
to to 3) A D min. max. k
160 089 65 067 47, 60, 65 47, 65 1 5 40, 45, 50, 55, 60, 65
400 155 110 - 80, 90, 110 80, 110 1 5 65, 70, 75, 80, 90, 100
500 170 110 - 90, 110 90, 110 1 5 70, 75, 80, 90, 100
2033522a_en_250810.indd
DIN 1017 112 125 160 200 250 315 400 500 k k1 in mm
45 x 30 • • – – – – – – 45
45 x 45 • • • • • – – – 45
50 x 30 • • – – – – – – 50
50 x 40 • • • • – – – – 50
55 x 30 • • – – – – – – 55
55 x 55 • • • • • • – – 55
60 x 30 • • – – – – – – 60
41804244.eps
60 x 40 • • • • (•) – – – 60
60 x 50 • • • • • • – – k = k1 60
60 x 60 • • • • • • – – 60
65 x 40 • • • • (•) – – – 65
70 x 40 – – • • (•) – – – 70
70 x 50 – – • • • • (•) – 70
75 x 40 – – • • (•) – – – 75
80 x 40 – – – • (•) – – – 80
80 x 50 – – – • • • (•) – 80
90 x 60 – – – – – • • • 90
100 x 60 – – – – – – • • 100
s k s (•) May be used for some applications. Check dimensions of guide roller arrangement in accordance with
section 4.6, in particular in view of the weld fixing the rail, production and assembly tolerances as well
42770644.eps
as any travel wheel diameter wear.
Rperm (rail) = permissible wheel load for linear contact on steel rails
Rperm (linear) = permissible wheel load for linear contact
(table value, see page 39 onwards)
fSt = reduction factor for rail material for linear contact, see section 1.11
Permissible wheel loads Rperm (rail) are used in section 5.3 for determining the
maximum permissible wheel load for a wheel block.
Important: Use the smallest calculated value Rperm (temperature) or Rperm (rail) for
further calculation.
38
Linear contact
Spheroidal graphite cast iron travel wheel material
Temperature range –20 ºC to +40 ºC
Rail material: St 70-2/E 360, St 60-2/E 335, St 52-3/S 355 J 2 G 3
2
DRS 112 Top and side connection
Group of mecha-
Permissible wheel load in kg
nisms Useful rail
head width
in mm Travel speed in m/min
FEM ISO
12,5 16 20 25 31 40 50 63 80 100 125 160
40
1 Bm M3 2750
45
2720 2520 2320
50
≥ 55
40
1 Am M4 2750
45
2720 2520 2320 2160 2000 1840
50
≥ 55
30 2700 2510 2350 2190 2050 1910 1780 1660 1550 1450 1350 1260
35 2740 2560 2390 2220 2080 1940 1810 1680 1560 1430
40
2m M5
45 2750
2720 2520 2320 2160 2000 1840 1710 1590 1460
50
≥ 55
30 2200 2130 2040 1980 1870 1750 1670 1530 1400 1290 1180 1060
35 2640 2490
40
3m M6
45 2320 2160 2000 1840 1710 1580 1460 1360 1260 1160
2720 2500
50
≥ 55
35
40
4m M7 1720 1590 1470 1360 1260 1170 1080 1000 0920
45 2170 2000 1850
50
≥ 55
30
35
40
5m M8 1720 1590 1470 1370 1270 1170 1080 1000 0930 0860 0800 0730
45
2033522a_en_250810.indd
50
≥ 55
39
Linear contact
Spheroidal graphite cast iron travel wheel material
Temperature range –20 ºC to +40 ºC
Rail material: St 70-2/E 360, St 60-2/E 335, St 52-3/S 355 J 2 G 3
2
Group of mecha-
Permissible wheel load in kg
nisms Useful rail
head width
in mm Travel speed in m/min
FEM ISO
12,5 16 20 25 31 40 50 63 80 100 125 160
40
1 Bm M3
45 3500 2527 2327
3430 3175 2932 2722
50
≥ 55
30 3446 3200 2993 2799 2612 2431 2303 2250 2197 2149
40
1 Am M4 2006 1847
45 3500 2520 2327 2160
3430 3175 2932 2722
50
≥ 55
40
2m M5 2000 1847 1715 1592 1466
45 2520 2327 2160
3430 3159 2932 2722
50
≥ 55
35 2687
40 2722
3m M6 2000 1847 1715 1588 1466 1361 1263 1164
45 2507 2327 2160
50
≥ 55
30 2152
35
40
4m M7 2000 1857 1724 1596 1474 1368 1267 1170 1986 1008 928
45 2172
50
≥ 55
30
35
40
5m M8 1728 1592 1478 1372 1270 1173 1089 1008 931 864 802 739
45
2033522a_en_250810.indd
50
≥ 55
40
Linear contact
Spheroidal graphite cast iron travel wheel material
Temperature range –20 ºC to +40 ºC
Rail material: St 70-2/E 360, St 60-2/E 335, St 52-3/S 355 J 2 G 3
2
DRS 125 For all connection variants
Group of mecha-
Permissible wheel load in kg
nisms Useful rail
head width
in mm Travel speed in m/min
FEM ISO
12,5 16 20 25 31 40 50 63 80 100 125 160
30 4730 4390 4110 3840 3580 3330 3120 2910 2710 2530 2370 2200
35 4790 4480 4180 3890 3640 3390 3160 2950 2760 2570
≥ 55
30 3840 3570 3330 3120 2910 2710 2530 2360 2200 2060 1920 1780
35 4480 4160 3890 3640 3390 3160 2950 2760 2570 2400 2240 2080
40 4760 4450 4160 3880 3610 3380 3150 2930 2740 2560 2380
1 Am M4
45
5000
50 4640 4300 3970 3680 3410 3150 2920 2710 2500
≥ 55
30 3120 2900 2710 2530 2360 2200 2060 1920 1780 1670 1560 1450
35 3640 3380 3160 2950 2760 2570 2400 2240 2080 1950 1820 1690
40 4140 3870 3610 3380 3150 2930 2740 2560 2380 2230 2080 1930
2m M5
45
50 4640 4270 3970 3680 3410 3150 2920 2710 2500 2320 2150 1980
≥ 55
30 2530 2410 2330 2260 2160 2030 1910 1780 1640 1510 1390 1260
35 2950 2810 2720 2630 2520 2370 2230 2080 1910 1760 1620 1470
≥ 55
30 2230 2160 2100 2030 1960 1830 1720 1610 1470 1360 1250 1140
40
4m M7
45 2330 2160 1990 1850 1710 1580 1470 1360 1250
2940 2710 2510
50
≥ 55
35 2310
40
5m M8 1720 1580 1470 1360 1260 1170 1080 1000
45 2150 2000 1850
2340
2033522a_en_250810.indd
50
≥ 55
41
Linear contact
Spheroidal graphite cast iron travel wheel material
Temperature range –20 ºC to +40 ºC
Rail material: St 70-2/E 360, St 60-2/E 335, St 52-3/S 355 J 2 G 3
2
Group of mecha-
Permissible wheel load in kg
nisms Useful rail
head width
in mm Travel speed in m/min
FEM ISO
12,5 16 20 25 31 40 50 63 80 100 125 160
30 6400 6050 5660 5300 4940 4600 4300 4010 3730 3490 3270 3060
35 6610 6180 5760 5370 5020 4680 4360 4070 3810 3540
30 5300 4920 4600 4300 4010 3730 3490 3260 3030 2840 2650 2460
35 6180 5740 5370 5020 4680 4360 4070 3800 3540 3310 3090 2870
40 6560 6130 5740 5350 4980 4660 4350 4040 3780 3540 3280
1 Am M4
45 6900 6450 6020 5600 5240 4890 4550 4260 3980 3700
7000
50 6690 6230 5820 5430 5060 4730 4420 4110
30 4300 3990 3730 3490 3260 3030 2840 2650 2460 2300 2150 2000
35 5020 4660 4360 4070 3800 3540 3310 3090 2870 2690 2510 2330
40 5740 5330 4980 4660 4350 4040 3780 3530 3280 3070 2870 2670
2m M5
45 6450 5990 5600 5240 4810 4550 4260 3970 3700 3460 3230 3000
50 6660 6230 5820 5430 5060 4730 4410 4110 3840 3590 3330
≥ 55 7000 6850 6410 5980 5560 5200 4850 4520 4220 3950 3650
30 3490 3240 3080 2990 2890 2760 2600 2440 2290 2090 1940 1780
35 4070 3780 3590 3480 3370 3220 3040 2850 2670 2440 2260 2070
40 4660 4320 4110 3980 3850 3680 3470 3260 3050 2790 2580 2370
3m M6
45 5240 4870 4620 4480 4340 4150 3910 3670 3430 3140 2910 2670
50 6020 5410 5140 4980 4820 4610 4340 4080 3780 3490 3230 2960
≥ 55 6020 5730 5580 5360 5080 4760 4420 4090 3780 3510 3260 3000
30 2940 2860 2770 2690 2600 2490 2340 2200 2060 1880 1740 1600
35 3440 3330 3230 3130 3030 2900 2730 2570 2400 2200 2030 1870
40 3930 3810 3700 3580 3470 3320 3130 2930 2740 2510 2320 2130
4m M7
45 4420 4290 4160 4030 3900 3730 3520
50 4800 4570 4450 4280 4050 3800 3530 3260 3010 2800 2600 2390
30 2620 2540 2460 2390 2310 2210 2080 1950 1830 1670 1550 1420
35 3050 2960 2870 2790 2700 2580 2430 2280 2130 1950 1810 1660
≥ 55
42
Linear contact
Spheroidal graphite cast iron travel wheel material
Temperature range –20 ºC to +40 ºC
Rail material: St 70-2/E 360, St 60-2/E 335, St 52-3/S 355 J 2 G 3
2
DRS 200 For all connection variants
Group of mecha-
Permissible wheel load in kg
nisms Useful rail
head width
in mm Travel speed in m/min
FEM ISO
12,5 16 20 25 31 40 50 63 80 100 125 160
30 08000 08000 07570 07080 06600 06150 05750 05360 04990 04670 04370 04050
35 09340 09340 08830 08260 07710 07170 06710 06260 05830 05450 05090 04730
30 07080 06570 06150 05750 05360 04990 04670 04360 04050 03790 03550 03290
35 08260 07670 07170 06710 06260 05830 05450 05080 04730 04420 04140 03840
40 09440 08770 08200 07670 07150 06660 06230 05810 05410 05060 04730 04390
1 Am M4
45 09860 09220 08630 08050 07490 07010 06540 06080 05690 05320 04940
30 05750 05340 04990 04670 04360 04050 03790 03540 03290 03080 02880 02670
35 06710 06230 05830 05450 05080 04730 04420 04130 03840 03590 03360 03120
40 07670 07120 06660 06230 05810 05410 05060 04720 04390 04110 03840 03570
2m M5
45 08630 08010 07490 07010 06540 06080 05690 05310 04940 04620 04325 04010
50 09580 08900 08320 07780 07260 06760 06320 05900 05490 05130 04800 04460
≥ 55 10000 09790 09160 08560 07990 07440 06950 06490 06040 05650 05280 04900
30 04670 04340 04050 03850 03730 03610 03450 03260 03060 02860 02620 02420
35 05450 05060 04730 04490 04360 04220 04030 03800 03570 03330 03060 02820
40 06230 05780 05410 05140 04980 04820 04610 04340 04080 03810 03490 03230
3m M6
45 07010 06500 06080 05780 05600 05420 05180 04890 04590 04290 03930 03630
50 07780 07230 06760 06420 06220 06030 05760 05430 05100 04770 04370 04040
≥ 55 08560 07950 07440 07070 06850 06630 06340 05920 05470 05080 04710 04340
30 03810 03680 03570 03470 03360 03250 03110 02930 02750 02570 02360 02180
35 04440 04300 04170 04040 03920 03790 03630 03420 03210 03000 02750 02540
40 05080 04910 04770 04620 04480 04340 04150 03910 03670 03430 03140 02910
4m M7
45 05720 05520 05360 05200 05040 04880 04660 04400 04130 03860 03540 03270
30 03370 03270 03180 03080 02990 02890 02760 02600 02440 02290 02090 01940
35 03930 03820 03710 03590 03480 03370 03220 03040 02850 02670 02440 02260
40 04490 04360 04240 04110 03980 03850 03680 03470 03260 03050 02790 02580
5m M8
45 05050 04910 04770 04620 04480 04340 04150
2033522a_en_250810.indd
43
Linear contact
Spheroidal graphite cast iron travel wheel material
Temperature range –20 ºC to +40 ºC
Rail material: St 70-2/E 360, St 60-2/E 335, St 52-3/S 355 J 2 G 3
Group of mecha-
Permissible wheel load in kg
nisms Useful rail
head width
in mm Travel speed in m/min
FEM ISO
12,5 16 20 25 31 40 50 63 80 100 125 160
30 10100 10100 10100 09800 09150 08500 07950 07400 06900 06450 06050 05600
2
35 11800 11800 11800 11400 10650 09900 09300 08650 08050 07550 07050 06550
40 13500 13500 13500 13050 12200 11350 10600 09890 09200 08600 08050 07500
45 15150 15150 15150 14700 13700 12750 11950 11150 10350 09700 09050 08400
1 Bm M3
50 15200 14150 13250 12350 11500 10750 10050 09350
55 15600 14600 13600 12650 11850 11050 10300
16000
60 15900 14850 13800 12900 12100 11200
≥ 65 14950 14000 13100 12150
30 09800 09100 08500 07950 07400 06900 06450 06050 05600 05250 05100 04950
35 11400 10600 09900 09300 08650 08050 07550 07050 06550 06100 05950 05800
40 13050 12100 11350 10600 09890 09200 08600 08050 07500 07000 06800 06600
45 14700 13650 12750 11950 11150 10350 09700 09050 08400 07850 07600 07450
1 Am M4
50 15150 14150 13250 12350 11500 10750 10050 09350 08750 08450 08250
55 15600 14600 13600 12650 11850 11050 10300 09600 09300 09100
60 16000 15900 14850 13800 12900 12050 11200 10500 10150 09900
≥ 65 14950 14000 13050 12150 11350 11000 10750
30 07950 07400 06900 06450 06050 05600 05250 05100 04950 04850 04750 04650
35 09300 08600 08050 07550 07050 06550 06100 05950 05800 05650 05550 05400
40 10600 09850 09200 08600 08050 07500 07000 06750 06600 06450 06300 06150
45 11950 11050 10350 09700 09050 08400 07850 07600 07450 07250 07100 06950
2m M5
50 13250 12300 11500 10750 10050 09350 08750 08450 08250 08100 07900 07700
55 14600 13550 12650 11850 11050 10300 09600 09300 09100 08900 08700 08500
60 15900 14750 13800 12900 12050 11200 10500 10150 09900 09700 09500 09250
≥ 65 16000 16000 14950 14000 13050 12150 11350 11000 10750 10500 09900 09300
30 06450 06000 05600 05250 05100 04950 04850 04750 04650 04500 04400 04300
35 07550 07000 06550 06100 05950 05800 05650 05550 05400 05300 05150 05050
40 08600 08000 07500 07000 06800 06600 06450 06300 06150 06050 05900 05750
45 09700 09000 08400 07850 07600 07450 07250 07100 06950 06800 06650 06500
3m M6
50 10750 10000 09350 08750 08450 08250 08100 07900 07700 07550 07350 07200
55 11850 11000 10300 09600 09300 09100 08900 08700 08500 08300
60 12900 12000 11200 10500 10150 09900 09700 09500 09250 08100 07600
08650
≥ 65 14000 13000 12150 11350 11000 10750 10500 09900 09300
30 05250 05100 04950 04850 04750 04650 04550 04450 04300 04250 04150 04050
35 06150 05950 05800 05650 05550 05400 05300 05150 05050 04950 04800 04700
40 07050 06750 06600 06500 06350 06200 06050 05900 05750 05650 05500 05400
45 07900 07600 07450 07300 07100 06950 06800 06650 06500 06350 06200 06050
4m M7
50 08800 08450 08300 08100 07900 07700 07550 07400 07200
55 09650 09300 09100 08900 08700 08500 08300
07050 06600 06150
60 10550 10150 09950 09700 09500 09250 08100 07600
08650
≥ 65 11400 11000 10750 10500 09900 09300
30 04850 04750 04650 04550 04450 04350 04250 04150 04050 03950 03850 03750
35 05650 05550 05400 05300 05150 05050 04950 04800 04700 04600 04500 04400
40 06500 06300 06200 06050 05900 05750 05650 05500 05400 05250 05150
2033522a_en_250810.indd
Group of mecha-
Permissible wheel load in kg
nisms Useful rail
head width
in mm Travel speed in m/min
FEM ISO
12,5 16 20 25 31 40 50 63 80 100 125 160
30 12750 12750 12750 12750 12350 11500 10750 10000 09300 08700 08150 07550
2
35 14750 14850 14850 14850 14400 13400 12550 11700 10900 10150 09500 08850
40 17000 17000 17000 17000 16450 15300 14300 13350 12450 11650 10850 10100
45 19100 19100 19100 19100 18500 17200 16100 15050 14000 13100 12250 11350
1 Bm M3
50 21250 21250 21250 21250 20550 19150 17900 16700 15550 14550 13600 12600
55 21050 19700 18350 17100 16000 14950 13900
60 22000 21450 20050 18650 17450 16300 15150
≥ 65 21700 20200 18900 17650 16400
30 12750 12250 11500 10750 10000 09300 08700 08150 07550 07100 06650 06400
35 14850 14300 13400 12550 11700 10900 10150 09500 08850 08250 07750 07450
40 17000 16350 15300 14300 13350 12450 11650 10900 10100 09450 08850 08550
45 19100 18400 17200 16100 15050 14000 13100 12200 11350 10650 09950 09600
1 Am M4
50 21250 20450 19150 17900 16700 15550 14550 13550 12600 11800 11050 10650
55 21050 19700 18350 17100 16000 14900 13900 13000 12150 11700
60 22000 21750 20050 18650 17450 16250 15150 14150 13250 12800
≥ 65 21700 20200 18900 17650 16400 15350 14350 13850
30 10750 09950 09300 08700 08150 07550 07100 06600 6400 06250 06100 05950
35 12550 11650 10900 10150 09500 08850 08250 07700 7450 07300 07150 06950
40 14300 13300 12450 11650 10850 10100 09450 08800 8550 08350 08150 07950
45 16100 14950 14000 13100 12200 11350 10650 09900 9600 09400 09150 08950
2m M5
50 17900 16600 15550 14550 13550 12600 11800 11000 10700 10400 10200 09950
55 19700 18300 17100 16000 14900 13900 13000 12100 11700 11450 11200 10950
60 21450 19950 18650 17450 16250 15150 14150 13200 12800 12500 12200 11950
≥ 65 22000 21600 20200 18900 17650 16400 15350 14300 13850 13550 13250 12950
30 08700 08100 07550 07100 06600 06400 06250 06100 05950 05850 05700 05550
35 10150 09450 08850 08250 07700 07450 07300 07150 06950 06800 06650 06500
40 11650 10800 10100 09450 08800 08550 08350 08150 07950 07800 07600 07400
45 13100 12150 11350 10650 09900 09600 09400 09150 08950 08750 08550 08350
3m M6
50 14550 13500 12650 11800 11000 10650 10400 10200 09950 09750 09500 09300
55 16000 14850 13900 13000 12100 11700 11450 11200 10950 10700 10450 10200
60 17450 16200 15150 14150 13200 12800 12500 12200 11950 11650 11400 11150
≥ 65 18900 17550 16400 15350 14300 13850 13550 13250 12950 12650 12350 12050
30 07110 06600 06400 06250 06100 06000 05850 05700 05600 05450 05350 05200
35 08300 07700 07450 07300 07150 06950 06800 06650 06500 06350 06200 06100
40 09500 08800 08550 08350 08150 07950 07800 07600 07450 07250 07100 06950
45 10700 09900 09600 09400 09200 08950 08750 08550 08350 08200 08000 07800
4m M7
50 11850 11000 10650 10450 10200 09950 09750 09500 09300 09100 08900 08650
55 13050 12100 11750 11450 11200 10950 10700 10450 10200 10000 09750 09550
60 14250 13200 12800 12550 12250 11950 11700 11400 11150 10900 10650 10400
≥ 65 15400 14300 13850 13550 13250 12950 12650 12350 12100 11800 11550 11250
30 06250 06100 06000 05850 05700 05600 05450 05350 05200 05100 05000 04850
35 07300 07150 07000 06800 06650 06500 06350 06200 06100 05950 05800 05650
40 08350 08150 07950 07800 07600 07450 07300 07100 06950 06800 06650 06500
2033522a_en_250810.indd
45 09400 09150 08950 08750 08550 08350 08200 08000 07800 07650 07450 07300
5m M8
50 10450 10200 09950 09750 09500 09300 09100 08900 08700 08500 08300 08100
55 11500 11200 10950 10700 10500 10250 10000 09750 09550 09350 09150 08900
60 12550 12250 11950 11700 11450 11150 10900 10650 10400 10200 09950 09700
≥ 65 13600 13250 12950 12650 12400 12100 11800 11550 11300 11050 10800 10500 45
Linear contact
Spheroidal graphite cast iron travel wheel material
Temperature range –20 ºC to +40 ºC
Rail material: St 70-2/E 360, St 60-2/E 335, St 52-3/S 355 J 2 G 3
Group of mecha-
Permissible wheel load in kg
nisms Useful rail
head width
in mm Travel speed in m/min
FEM ISO
12,5 16 20 25 31 40 50 63 80 100 125 160
40 21600 21600 21600 21600 21600 20900 19550 18200 16950 15850 14850 13800
2
45 24300 24300 24300 24300 24300 23500 21950 20500 19100 17850 16700 15500
50 27000 27000 27000 27000 27000 26100 24400 22800 21200 19850 18550 17200
55 29650 29650 29650 29650 29650 28700 26850 25050 23300 21800 20400 18950
1 Bm M3
60 29300 27350 25450 23800 22250 20650
65 29600 27550 25800 24100 22400
30000
70 29700 27750 25950 24100
≥ 75 29750 27800 25850
40 21600 21600 20900 19550 18200 16950 15850 14800 13800 12900 12050 11200
45 24300 24300 23500 21950 20500 19100 17850 16650 15500 14500 13550 12600
50 27000 27000 26100 24400 22800 21200 19850 18500 17200 16100 15050 14000
55 29650 29650 28700 26850 25050 23300 21800 20350 18950 17700 16550 15400
1 Am M4
60 29300 27350 25450 23800 22200 20650 19350 18100 16800
65 29600 27550 25800 24050 22400 20950 19600 18200
30000
70 29700 27750 25900 24100 22550 21100 19600
≥ 75 29750 27750 25850 24150 22600 21000
40 19550 18150 16950 15850 14800 13800 12900 12000 11200 10850 10600 10350
45 21950 20400 19100 17850 16650 15500 14500 13500 12600 12200 11950 11650
50 24400 22650 21200 19850 18500 17200 16100 15050 14000 13550 13250 12950
55 26850 24950 23300 21800 20350 18950 17700 16550 15400 14900 14600 14220
2m M5
60 29300 27200 25450 23800 22200 20650 19350 18050 16800 16250 15900 15500
65 29450 27550 25800 24050 22400 20950 19550 18200 17600 17250 16800
70 30000 29700 27750 25900 24100 22550 21050 19600 18950 18550 18100
≥ 75 29750 27750 25850 24150 22550 21000 20350 19900 19400
40 15850 14750 13800 12900 12000 11200 10850 10600 10350 10100 09900 09650
45 17850 16550 15500 14500 13500 12600 12200 11900 11650 11400 11100 10850
50 19850 18400 17200 16100 15050 14000 13550 13250 12950 12650 12350 12050
55 21800 20250 18950 17700 16550 15400 14900 14550 14200 13900 13600 13250
3m M6
60 23800 22100 20650 19350 18050 16800 16250 15900 15500 15150 14850 14500
65 25800 23950 22400 20950 19550 18200 17600 17200 16800 16450 16100 15700
70 27750 25800 24100 22550 21050 19600 18950 18550 18100 17700 17300 16900
≥ 75 29750 27600 25850 24150 22550 21000 20350 19850 19400 18950 18550 17500
40 12950 12000 11250 10850 10600 10350 10150 09900 09650 09450 09250 09000
45 14550 13500 12650 12200 11950 11650 11400 11150 10900 10650 10400 10150
50 16200 15050 14050 13550 13250 12950 12650 12400 12100 11800 11550 11250
55 17800 16550 15450 14950 14600 14250 13950 13600 13300 13000 12700 12400
4m M7
60 19400 18050 16850 16300 15900 15550 15200 14850 14500 14200 13850 13550
65 21050 19550 18250 17650 17250 16850 16450 16100 15700 15350 15000
70 22650 21050 19650 19000 18550 18150 17750 17350 16900 14300
16450 15400
≥ 75 24250 22550 21100 20350 19900 19450 19000 18550 17600
40 10850 10600 10350 10150 09900 09650 09450 09250 09050 08850 08650 08400
45 12250 11950 11650 11400 11150 10900 10650 10400 10150 09950 09700 09500
50 13600 13250 12950 12700 12400 12100 11850 11550 11300 11050 10800 10550
2033522a_en_250810.indd
55 14950 14600 14250 13950 13600 13300 13000 12700 12400 12150 11850 11600
5m M8
60 16300 15900 15550 15200 14850 14500 14200 13850 13550 13250
65 17650 17250 16850 16500 16100 15700 15350 15000
12550 11650
70 19000 18550 18150 17750 17350 16950 14300 13400
16500 15400
46 ≥ 75 20350 19900 19450 19000 18600 17650
Linear contact
Spheroidal graphite cast iron travel wheel material
Temperature range –20 ºC to +40 ºC
Rail material: St 70-2/E 360, St 60-2/E 335, St 52-3/S 355 J 2 G 3
2
45 30300 30300 30300 30300 30300 30300 29350 27350 25500 23850 22300 20700
50 33700 33700 33700 33700 33700 33700 32600 30400 28300 26500 24750 23000
55 37050 37050 37050 37050 37050 37050 35850 33450 31150 29150 27250 25300
1 Bm M3
60 39150 36500 34000 31800 29700 27600
65 39550 36800 34450 32200 29900
40000
70 39650 37100 34650 32200
≥ 75 39750 37150 34500
40 26950 26950 26950 26100 24350 22650 21200 19750 18400 17200 16100 14950
45 30300 30000 30300 29350 27350 25500 23850 22250 20700 19350 18100 16800
50 33700 33700 33700 32600 30400 28300 26500 24700 23000 21500 20100 18650
55 37050 37050 37050 35850 33450 31150 29150 27150 25300 25800 22100 20550
1 Am M4
60 39150 36500 34000 31800 29650 27600 25800 24150 22400
65 39550 36800 34450 32100 29900 27950 26150 24300
40000
70 39650 37100 34600 32200 30100 28150 26150
≥ 75 39750 37050 34500 32250 30150 28000
40 26100 24200 22650 21200 19750 18400 17200 16050 14950 13950 13550 13200
45 29350 27250 25500 23850 22250 20700 19350 18050 16800 15700 15200 14850
50 32600 30250 28300 26500 24700 23000 21500 20050 18650 17450 16900 16500
55 35850 33300 31150 29150 27150 25300 23650 22050 20550 19200 18600 18150
2m M5
60 39150 36350 34000 31800 29650 27600 25800 24050 22400 20950 20300 19800
65 39350 36800 34450 32100 29900 27950 26100 24300 22700 22000 21450
70 40000 39650 37100 34600 32200 30100 28100 26150 24450 23700 23100
≥ 75 39750 37050 34500 32250 30100 28000 26200 25400 24750
40 21200 19650 18400 17200 16050 14950 13950 13500 13200 12900 12600 12300
45 23850 22100 20700 19350 18050 16800 15700 15200 14850 14500 14200 13850
50 26500 24600 23000 21500 20050 18650 17450 16900 16500 16150 15800 15400
55 29150 27050 25300 23650 22050 20550 19200 18600 18150 17750 17350 16950
3m M6
60 31800 29500 27600 25800 24050 22400 20950 20300 19800 19350 18950 18500
65 34450 31950 29900 27950 26100 24300 22700 22000 21450 21000 20500 20000
70 37100 34450 32200 30100 28100 26150 24450 23650 23100 22600 22100 21550
≥ 75 39750 36900 34500 32250 30100 28000 26200 25350 24750 24200 23100 21650
40 17300 16050 15000 14050 13550 13200 12950 12650 12350 12050 11800 11500
45 19450 18050 16900 15800 15250 14850 14550 14200 13900 13550 13250 12950
50 21600 20050 18750 17550 16950 16550 16150 15800 15400 15100 14750 14400
55 23750 22050 20650 19300 18600 18200 17800 17400 16950 16600 16200 15850
4m M7
60 25950 24050 22500 21050 20300 19850 19400 18950 18500 18100 17700 17250
65 28100 26100 24400 22800 22000 21500 21000 20550 20050 19600
70 30250 28100 26250 24550 23700 23150 22650 22100 18850 17700
21600 20200
≥ 75 32400 30100 28150 26300 25400 24800 24250 23200
40 14050 13550 13250 12950 12650 12350 12050 11800 11500 11250 11000 10750
45 15800 15200 14900 14550 14200 13900 13600 13250 12950 12650 12400 12100
50 17600 16900 16550 16200 15800 15450 15100 14750 14400 14100 13750 13450
2033522a_en_250810.indd
55 19350 18600 18200 17800 17400 17000 16600 16200 15850 15500 15150
5m M8
60 21100 20300 19850 19400 18950 18500 18100 17700 17300
65 22850 22000 21500 21050 20550 20050 19650 14400
16450 15350
70 24650 23700 23150 22650 22150 18900 17600
21600 20250
≥ 75 26400 25400 24850 24300 23250
47
2.7.6 Point contact
Spheroidal graphite cast iron
travel wheel material
Curved rail – cylindrical travel
wheel
A rail
Rail shape Rail curve radius in mm
2
42098544.eps Rail shape Suitable for guide roller arrangement depending on rail fastening
5901 S 10 140
S 14 160
S 18 180
S 20 200
S 30 30 E1 305
S 33 33 E1 225
S 41 400
S 49 49 E1 300
S 54 54 E3 300
5902 S 24 225
S 33 225
41409344.eps S 41 400
Rail shape
Grooved rail Rail curve radius in mm
Old New
Ph 37 57 Ri1 210
Ph 37a 67 Ri1 225
41408844.eps
2033522b_en_250810.indd
48
Rperm (rail) = Rperm (point) · fSt · fRS
Rperm (rail) = Permissible wheel load for point contact on steel rails
Rperm (point ) = Permissible wheel load for point contact
(table value, see pages 52/53)
2
fSt = Reduction factor for rail material for point contact, see section 1.11
fRS = Reduction factor for the curve radius for point contact, see the fol-
lowing table
Permissible wheel loads Rperm (rail) are used in section 5.3 for determining the
maximum permissible wheel load for a wheel block.
Important: Use the smallest calculated value Rperm (temperature) or Rperm (rail) for
further calculation.
Note:
Cylindrical travel wheels on curved rails are standard, concave special travel
wheels on flat rails are special cases.
≥ 665
≥ 790
≥ 1005
≥ 1260
2033522b_en_250810.indd
49
Angular rail – Point contact – spheroidal graphite cast iron travel wheel material
travel wheel for V rail
Rperm (rail) = Rperm (point) · fSt · 0,7
Rail shape
Right angle
Rperm (rail) = Permissible wheel load for point contact on steel rails
Rperm (point ) = Permissible wheel load for point contact
2
Permissible wheel loads Rperm (rail) are used in section 5.3 for determining the
maximum permissible wheel load for a wheel block.
41408944.eps
Important: Use the smallest calculated value Rperm (temperature) or Rperm (rail) for
further calculation.
Round rail – Point contact – spheroidal graphite cast iron travel wheel material
travel wheel with concave tread
Travel wheel tread is determined as 1,1 · RS. Requirement: The permissible hori-
zontal force (see section 1.10) must not exceed 20% of the actual wheel load.
Rail shape
Semi-round or round profile Rperm (rail) = Rperm (point) · fSt · fRS
Rperm (rail) = Permissible wheel load for point contact for travel wheels with
concave tread on steel rails
Rperm (point) = Permissible wheel load for point contact for travel wheels with
concave tread (table value, see pages 52/53)
fSt = Reduction factor for rail material for point contact, see section 1.11
41409044.eps fRS = Reduction factor for the curve radius for point contact for travel
wheels with concave tread, see page 51
Permissible wheel loads Rperm (rail) are used in section 5.3 for determining the
maximum permissible wheel load for a wheel block.
Important: Use the smallest calculated value Rperm (temperature) or Rperm (rail) for
further calculation.
2033522b_en_250810.indd
50
Reduction factor fRS for
rail radius
Point contact
Spheroidal graphite cast iron travel wheel material
Rail radius RS in mm DRS wheel block size
112 125 160 200 250 315 400 500
> 10 0,44
> 11 0,49
> 12 0,54
> 13 0,58
> 14 0,63 0,43
> 15 0,68 0,46 0,42 41409044.eps
2
> 16 0,72 0,50 0,45
> 17 0,76 0,53 0,48 0,42
> 18 0,80 0,56 0,50 0,45
> 19 0,85 0,58 0,54 0,48
> 20 0,88 0,61 0,57 0,50
> 21 0,92 0,64 0,60 0,53 0,43
> 22 0,96 0,67 0,63 0,56 0,46
> 23 0,99 0,69 0,65 0,58 0,48 0,43
> 24 0,71 0,68 0,61 0,50 0,45
> 25 0,74 0,70 0,63 0,52 0,67
> 26 0,77 0,73 0,66 0,54 0,49 0,45
> 27 0,79 0,75 0,68 0,56 0,51 0,47
> 28 0,81 0,78 0,71 0,58 0,53 0,48
> 29 0,84 0,80 0,73 0,60 0,55 0,50
> 30 0,86 0,82 0,75 0,62 0,57 0,52
> 31 0,88 0,85 0,78 0,64 0,59 0,54
> 32 0,90 0,87 0,80 0,66 0,60 0,56
> 33 0,93 0,89 0,81 0,68 0,62 0,58 0,53
> 34 0,95 0,91 0,84 0,70 0,64 0,60 0,55
> 35 0,97 0,94 0,86 0,71 0,66 0,62 0,57
> 36 0,99 0,96 0,88 0,73 0,68 0,64 0,59
> 37 0,98 0,90 0,75 0,70 0,65 0,60
> 38 0,99 0,92 0,77 0,71 0,67 0,62
> 39 0,94 0,8 0,73 0,69 0,64
> 40 0,96 0,82 0,75 0,71 0,66
> 41 0,98 0,83 0,76 0,73 0,68
> 42 0,85 0,78 0,74 0,69
> 43 0,87 0,80 0,76 0,71
> 44 0,88 0,81 0,78 0,72
> 45 0,90 0,83 0,80 0,75
> 46 0,91 0,85 0,81 0,76
> 47 0,93 0,86 0,83 0,78
> 48 0,95 0,88 0,85 0,80
> 49 0,96 0,89 0,86 0,81
> 50 0,98 0,91 0,88 0,83
> 51 0,99 0,93 0,89 0,85
> 52 0,94 0,91 0,86
> 53 0,96 0,93 0,88
> 54 0,97 0,94 0,90
> 55 0,99 0,96 0,91
1
> 56 0,97 0,93
> 57 0,99 0,94
> 58 0,96
2033522b_en_250810.indd
> 59 0,98
> 60 0,99
> 61
A check of the horizontal forces which may be transmitted is recommended. The ratio of max. horizontal forces to min. wheel loads must be considered.
51
Point contact
Spheroidal graphite cast iron travel wheel material
Temperature range –20 ºC to +40 ºC
Rail material St 70/E 360
2m M5 2700 2540 2420 2310 2160 2000 1840 1710 1590 1466
3m M6 2540 2420 2310 2160 2000 1840 1710 1580 1460 1360 1260 1160
4m M7 2170 2000 1850 1720 1590 1470 1360 1260 1160 1080 1000 0928
5m M8 1720 1590 1470 1370 1270 1170 1080 1000 0930 0860 0800 0739
2m M5 3970 3680 3410 3150 2920 2700 2500 2320 2150 1986
3m M6 3680 3390 3150 2920 2700 2500 2320 2150 1980 1840 1710 1576
4m M7 2940 2700 2510 2330 2160 1990 1850 1710 1580 1470 1360 1258
5m M8 2340 2150 2000 1850 1720 1580 1470 1360 1260 1170 1080 1001
3m M6 6020 5730 5580 5360 5080 4760 4420 4090 3780 3510 3260 3003
4m M7 4800 4570 4450 4280 4050 3800 3530 3260 3010 2800 2600 2396
5m M8 3820 3640 3540 3400 3220 3020 2810 2600 2400 2230 2070 1907
1 Bm M3 9670 8906
3m M6 8930 8500 8130 7890 7540 7060 6560 6070 5610 5200 4830 4453
4m M7 7120 6780 6480 6290 6010 5640 5230 4840 4470 4150 3850 3553
5m M8 5670 5390 5160 5010 4780 4480 4160 3850 3560 3300 3070 2828
52
Point contact
Spheroidal graphite cast iron travel wheel material
Temperature range –20 ºC to +40 ºC
Rail material St 70/E 360
1 Bm M3 15020 14050
2
1 Am M4 16000 15020 14060 13080 12200 11400
3m M6 15020 14140 13180 12200 11420 10620 09910 09380 08630 08100 7550
4m M7 13080 12200 11420 10620 09910 09280 08630 08100 07580 07050 06600 6150
5m M8 10620 09910 09280 08630 08100 07580 07070 06600 06170 05740 05360 5000
1 Bm M3
4m M7 21000 20000 19100 18250 17400 16650 15900 15150 14500 13750 12850
5m M8 19150 18200 17400 16650 15900 15150 14500 13800 12900 12000 11200 10450
1 Bm M3
4m M7 28500 26650 24950 23250 21650 20250 18900 17600 16450 15400 14250
5m M8 24950 23200 21700 20300 18950 17650 16500 15400 14300 13400 12550 11600
1 Bm M3
4m M7 37700 35050 32800 30850 28600 26600 24900 23200 21600 20200 18850 17700
5m M8 30700 28550 26700 25100 23250 21650 20250 18900 17600 16450 15350 14400
53
2.7.7 Travel wheels Basis for selection:
with Hydropur tyre • Level track
• Track width > travel wheel width
• 40 % cyclical duty factor (travel time)
• Permissible ambient temperature for continuous operation 0° C ... +40° C
• Permissible skewing angle 2 ‰
2
2033522b_en_250810.indd
54
2.7.8 Polyamide PA6G travel wheels Basis for selection:
• Flat steel rails
• Track width > travel wheel width
• 40 % cyclical duty factor (travel time)
• Permissible ambient temperature for continuous operation 0° C ... +40° C
• Permissible skewing angle 2 ‰
2
Permissible wheel loads Rperm (rail)
Permissible wheel load in kg
in kg for polyamide travel wheels Group of Wheel
Travel Travel wheel
DRS 112, 125, 160, 200 mechanisms block Travel speed in m/min
wheel type diameter
to FEM/ISO size
to 40 to 63 to 80 to 125 to 160
DRS 112 130 0750 0713 0563 0375 263
DRS 125 140 1000 0950 0750 0500 350
1 Bm M3
DRS 160 180 1700 1600 1200 0800 600
DRS 200 225 2700 2500 2000 1300 900
DRS 112 130 0563 0534 0422 0281 197
DRS 125 140 0750 0713 0563 0375 263
1 Am M4
DRS 160 180 1275 1200 0900 0600 450
DRS 200 225 2025 1875 1500 0975 675
C
DRS 112 130 0422 0401 0316 0211 148
DRS 125 140 0563 0534 0422 0281 197
2m M5
DRS 160 180 0956 0900 0675 0450 338
DRS 200 225 1519 1406 1125 0731 506
DRS 112 130 0316 0301 0237 0158 111
DRS 125 140 0422 0401 0316 0211 148
3m M6
DRS 160 180 0717 0675 0506 0338 253
DRS 200 225 1139 1055 0844 0548 380
2033522b_en_250810.indd
55
3 Demag DRS wheel block system
Data and dimensions
DRS 200
M16x14 deep A
(Only if wheel block is
prepared for fitting guide
DRS 112/125 rollers)
M12x12 deep
DRS 160
M16x14 deep
(Only if wheel block
is prepared for fitting
guide rollers)
MA NA
c4
Travel wheel types c4
A B C
D E F
2033523a_en_250810.indd
42064744.eps
56
DRS wheel block dimensions
Hub profile Dimensions in mm
DRS wheel 1)
DIN 5480 a1 a2 a4 a5 a6 a7 a8 a9 a10 a11
block size
D ± 0,02 ± 0,1 ± 0,1 ± 0,02 1
+4
112 N 30 190 145 45 145 145 30 40 40 30 24
–7
N 30 +4
125 220 170 55 175 175 20 40 50 37 37,5
N 35 –7
N 35 +3
160 275 220 55 220 220 25 55 54 47,5 20
N 45 –5
N 45 +3
200 340 275 65 275 275 35 75 62 64 40
N 50 –5
3
Dimensions in mm
DRS wheel
a13 a14 a15 a16 a24 b1 b1 b2 b3 c1 c2 c3 c4 d1 d2
block size
max 2) – 0,2
Dimensions in mm
DRS wheel
d3 d4 d5 d6 d8 d9 d10 d11 h1 h2 h3 s
block size
– 0,2 F8 3) 3)
4,9 x
112 126 130 M12 M12 10,5 18,5 M8 131 47 80 10
8,5 tief
4,8 x
125 145 140 M12 M12 13 21 M8 147,5 53,5 100 10
5 tief
A/MA
3
x NA
42064644.eps
58
Hub profile Dimensions in mm
DRS wheel 1)
DIN 5480 a1 a2 a3 a4 a5 a6 a7 a8 a13 a14
block size
D ± 0,2 ± 0,2 ± 0,2 ± 0,04 ± 0,04 ± 0,02 ± 0,02 ± 0,41 ± 0,21
N 50
250 385 290 140 80 310 310 50 80 326 70
N 65
N 65
315 470 360 180 100 370 370 70 80 405 80
N 75
N 75
400 580 440 210 120 450 450 95 130 501 100
N 90
N90
500 700 620 480 125 580 580 110 160 600 110
N110
Dimensions in mm
3
DRS wheel
a15 b1 b1 b2 b3 c1 d1 d2 d3 d5 d6 d7 d8
block size
± 0,2 max 2) – 0,2 – 0,2
315 50 90 96 130 147 180 315 350 340 8 x M16 M12 M20 40 F8
400 55 110 - 155 172 210 400 440 440 8 x M20 M12 M20 31 H13
500 65 110 - 170 195 240 500 545 545 8 x M20 M12 M20 31 H13
41642944.eps
DRS 250 110 150 250 282 225 281 89 23,5 178 3 6 20
DRS 315 130 180 315 350 290 349,5 114 61 223 3 6 20
41643144.eps
2033523a_en_250810.indd
60
3.3.3 Travel wheel with middle guide flange
41681644.eps
3
Dimensions Wheel block
in mm DRS 112 DRS 125 DRS 160 DRS 200 DRS 250 DRS 315 DRS 400 DRS 500
d4 max. 35 35 40 45 50 60 70 80
b2
R1
R1
ø d1
ø d1
41686344.eps
3.3.5 Hardened travel wheels Note: DRS 112 – 200 do not feature
inductively hardened 56 ± 2 HRC wear indicators
41686544.eps
1) Types available from stock for DRS 250 with tread b1= 75 in basic design A65 and NA
2) Only available in driven basic design for production reasons.
3) Type available from stock for DRS 200 b1=75 in basic design A and NA DRS 315 with tread b1= 75 in basic design A75 and NA. 61
3.4 DRS 112 – 200 top connection
Lock nut
3
Thread depth
Sliding nut
42092344.eps
3
Thread depth
Bore hole template for the connecting structure
42093644.eps
315 75402044 360 180 100 100 110 M16 20,5 100 25-27 15-39
400 75432044 440 210 120 120 126 M20 25 100 28-30 15-30
500 75462044 620 480 125 125 137 M20 26 120 40-60 20-40
2033523a_en_250810.indd
1) Part no. includes: threaded pins, lock nut, washers and Loctite 63
3.5 DRS 112 – 200 side connection
MA/NA
Bore hole arrangement
d8
a8
a7
h4
3
c3 a6 Wheel centre
c4 C
42092044.eps
1) Part no. includes: collared sleeve and zinc-coated bolted fastening parts
64 2) Torque bracket for pin connection
3.5 DRS 250 – 500 side connection (DRS 200 with AD. 50/WU. 60 gearbox)
MA/NA
Bore hole template for the connecting structure
C -C
l1 d14 (only for drive on connecting plate side)
c6 a5 d9 C
c5
a20
a8
a17
a7
h4
d13 3)
3
d8 C
c3 c4 a6
4)
D2 torque bracket
Drive on connecting plate side (W2)
not possible for combinations
- DRS 200 with AD.50
- DRS 250 with AD.40
in mounting position D1.1 and D1.3
Fitting of W angular gearbox with
torque arm on request
42092144.eps
1) Part no. includes: pins, spacer sleeve, retaining elements and zinc-coated bolted fastening parts
2) Part no. includes: pins, retaining elements and zinc-coated bolted fastening parts
3) Only required for relubrication option
4) Recess only for fitting guide roller arrangement
5) Part no. includes: collared sleeves, adapter sleeves, retaining elements and zinc-coated bolted fastening parts 65
3.6 DRS 112 – 200 pin connection
Bore hole template
Drive side for side plate with MA/MW torque
bracket for drive connection Non-driven side for side
plate without torque bracket
1)
1)
1)
1)
1)
Wheel centre Assembly bore hole for
central drive arrange-
Wheel centre ment
3
42278644.eps
(without tolerance)
42279044.eps 42279344.eps
Dimensions in mm
DRS wheel block
a4 a5 a7 a8 a9 a10 a11 a12 a13 a14 a15 a16
size
1) ± 0,05 ± 0,1 1) ± 0,1 ± 0,1 ± 0,1 ± 0,1 ± 0,1 ± 0,1
1)
3
see section 3.10 for welded plate see section 3.10 for welded plate
42278744.eps
3) 3)
42279144.eps 42279244.eps
Dimensions in mm
DRS wheel
a18 c1 d9 d10 d14 d15 d16 l1 2) l2 Hollow profile section to DIN
block size
3) D9/h8 1) min max min a19 a20
119,5 127,5
75 96 18,5 20 50 M10 M8 8 200 x 120 x 8 24 47 112
129,2 137,2
119,0 127,0
74 98 21 23 60 M10 M8 8 200 x 120 x 8 24 54 125
128,2 140,2
138,0 150,0
86 110 30 32 80 M12 M10 10 260 x 140 x 10 30 70 160
150,2 160,2
170,0 182,0
103 130 35 38 80 M12 M10 10 260 x 180 x 10 30 90 200
182,2 194,2
2033523a_en_250810.indd
A A
42091846.eps
Dimensions in mm
DRS wheel
a5 a7 a8 a18 a19 a20 c1 d9 d10 d14 l1 2) l2
block size
± 0,05 D9 max min
1)
a4 l1
l2 l2
a20
d15 c1
1)
d9
a9
a8
d9
3
a21
a7
d14 w
Wheel centre a5
a18 a19
3)
a18
When fitting guide rollers, dimensions a20, a21 and w must be complied with 42091844.eps
Dimensions in mm
DRS wheel
a4 a5 a7 a8 a9 a18 a19 a20 a21 c1 d9 d14 d15 l1 2) l2 w
block Size
± 0,05 D9 max min
118 134
250 310 310 95 80 135 200 10 150 40 100 M16 210 15 15o
120 132
139 162
315 360 370 120 80 155 250 15 180 50 120 M16 250 18 15o
142 159
160 185
400 450 450 150 130 210 320 50 210 65 150 M20 285 20 15o
162 183
179 206
500 580 580 190 160 250 390 70 240 70 165 M20 320 23 15o
180 205
2033523a_en_250810.indd
41756744.eps
3
Dimensions in mm Options
DRS
wheel Basic Welded Spacer
Part no. a5 a6 a7 a8 a16 d9 d14 b1 b2 h l t1 t2 w1 w2 w3 Pin set
block type plate plate set
size
1) 1) 1) 2)
Bore hole template for alignable end connection and axial securing arrangement with
threaded pins (by the customer)
Side with
welded plate
Dimensions in mm
1) After aligning and tacking, first weld on the inside and then the outside.
Welded connections to tolerance class DIN 8570 BF assessment group DIN EN 25817 C
70 2) Required to fit the torque bracket.
DRS 250 end connection
3
42282744.eps
Dimensions in mm Options
DRS
wheel Basic Spacer plate
Part no. a1 a2 a5 a6 b1 b2 d9 h h1 h2 L t1 t2 w w1 w2 w3 w4 Pin set
block type set
size 1) 1) 1) 1)
A 753 438 44
250 753 414 44 90 45 310 7 80 185 40 382 236 176 393 12 12 121° 4 4 5 5 752 143 44
NA/MA 753 437 44
2033523a_en_250810.indd
1) After aligning and tacking, first weld on the inside and then the outside.
Welded connections to tolerance class DIN 8570 BF assessment group DIN EN 25817 C 71
3.8 Axial retaining arrangement with track gauge adjustment
Spacer plates
Pin
3
Retaining ring
42275744.eps
DRS Part no. l max b max Max. adjusting range Number and thickness
Threaded pins
The zinc-coated threaded pins are used to align and then to fix the wheel block in the axial direction.
1) Threaded pin
DRS Part no. set
grade: 45 H
Tightening torque nut:
112 / 125 752 147 44 M10 x 40
M10: 060 Nm
160 / 200 2) 752 148 44 M12 x 50
M12: 104 Nm
250 / 315 752 937 44 M16 x 60 M16: 250 Nm
400 752 938 44 M20 x 75 M20: 490 Nm
500 752 929 44 M20 x 85
41757344.eps
72
3.9 Pin set
41752644.eps
3
4x DIN 471
753 737 44 S 00,6 42CrMo4+QT 143,5 119,5 127,5
112 18,5 4 8 – – – – 18 x 1,5
753 738 44 L 00,7 36NiCrMo16+QT 153 129,2 137,2
41751344.eps
DRS wheel block Part no. a4 a5 a8 a9 a10 a11 a12 a13 a14
size
74
3.11 Shaft system
The Demag shaft system for DRS wheel blocks with drives from the Demag modular geared motor system consists of various
shaft types:
3
Connecting shaft Type G for central drive units with offset or angular gearboxes in connection with a
coupling.
This shaft type must not be used as a drive shaft.
All shafts have a splined profile to DIN 5480 with the following dimensions and checking dimensions:
Splined shaft profile to DIN 5480 Diametral checking dimension Measuring pin diameter
(Pressure angle 30°) Me DM
75
3.11.1 Individual drive unit, consisting of:
a) Offset gearbox with journal shafts: Torque bracket set (3), corresponding to connection variant
b) Offset gearbox with hollow shaft: Torque bracket set (3), corresponding to connection variant and splined shaft
set (2)
42293244.eps 42293344.eps
DRS wheel Travel Toothed hub profile for journal or hollow shafts Individual drive unit
block size wheel hub
AM. and AD. offset gearboxes Journal shafts 1) Splined shaft set 2)
profile
10 20 30 40 50 60 70 80 90 K / W1 B / W2 K / W1, W2 / B
N30 N30 30 31 –
N35 N35 35 36 –
N45 N45 45 46 –
N50 N50 50 51 –
N65 N65 66 66 –
N75 N75 76 76 –
N90 N90 91 91 –
1) Output drive shaft code for individual drive unit, (..) output drive shaft code for central drive unit
Offset gearbox with hollow shaft
2) Part no. includes splined shaft, spacer rings and axial retaining elements
2033523a_en_250810.indd
K = Top connection
W = W1 (side connection with drive on wheel block side)
W2 (side connection with drive on connecting plate side)
76 B = Pin connection
3.11.2 Central drive unit inside arrangement (ZI), consisting of:
a) Offset gearbox with journal shafts on both sides: Set of torque brackets corresponding to connection vari-
ant (3) and set of central shafts (5) consisting of: coupling set (4) and connecting shaft G
b) Offset gearbox with hollow shaft: Set of torque brackets corresponding to connection variant (3) and set of
central shafts (6) consisting of: splined shaft (2), coupling (4) and connecting shaft G
3
42293444.eps 42293544.eps
753 796 44 753 796 44 753 797 44 752 15044 860 011 44 6) 860 012 46 6) 860 013 46 6) 860 014 46 6) 860 015 46 6)
752 396 44 752 396 44 752 397 44 860 101 46 5) 860 102 46 5) 860 103 46 5) 860 104 46 5) 860 105 46 5)
752 391 44 752 391 44 752 394 44 752 152 44 860 111 46 6) 860 112 46 6) 860 113 46 6) 860 114 46 6) 860 115 46 6)
752 691 44 752 691 44 752 694 44 860 201 46 5) 860 202 46 5) 860 203 46 5) 860 204 46 5) 860 205 46 5)
752 691 44 752 691 44 752 694 44 752 154 44 860 211 46 6) 860212 46 6) 860 213 46 6) 860 214 46 6) 860 215 46 6)
753 190 44 753 190 44 753 192 44 860 301 46 5) 860 302 46 5) 860 303 46 5) 860 304 46 5) 860 305 46 5)
753 191 44 753 193 44 753 193 44 752 156 44 860 311 46 6) 860 312 46 6) 860 313 46 6) 860 314 46 6) 860 315 46 6)
753 491 44 753 571 44 753 571 44 860 401 46 5) 860 402 46 5) 860 403 46 5) 860 404 46 5) 860 405 46 5)
753 492 44 753 572 44 753 572 44 752 950 44 860 411 46 6) 860 412 46 6) 860 413 46 6) 860 414 46 6) 860 415 46 6)
754 191 44 754 271 44 754 271 44 860 501 46 5) 860 502 46 5) 860 503 46 5) 860 504 46 5) 860 505 46 5)
754 192 44 754 272 44 754 272 44 752 952 44 860 511 46 6) 860 512 46 6) 860 513 46 6) 860 514 46 6) 860 515 46 6)
754 491 44 754 571 44 754 571 44 860 601 46 5) 860 602 46 5) 860 603 46 5) 860 604 46 5) 860 605 46 5)
754 492 44 754 572 44 754 572 44 752 954 44 860 611 46 6) 860 612 46 6) 860 613 44 6) 860 614 46 6) 860 615 46 6)
3) Part no. includes depending on type torque bracket, bolted fastening parts to the gearbox and retaining elements
4) Part no. includes coupling and heavy-duty roll pin
5) Part no. includes connecting shaft G, shims and axial retaining elements, coupling K1
6) Part no. includes splined shaft (2) with retaining elements, connecting shaft G with shims and axial retaining elements, coupling K1
7) Currently not planned
2033523a_en_250810.indd
8) Section 3.11.5
K = Top connection
W = W1 (side connection with drive on wheel block side)
W2 (side connection with drive on connecting plate side)
B = Pin connection 77
3.11.3 Individual drive unit, consisting of:
a) Angular gearbox with journal shafts: Torque bracket set (3), corresponding to connection variant
b) Angular gearbox with hollow shaft: Torque bracket set (3), corresponding to connection variant and splined
shaft set (2)
42275844.eps 42275944.eps
DRS wheel Travel Toothed hub profile for journal or hollow shafts Individual drive unit
block size wheel
WUE/WUK angular gearbox Journal shafts 1) Splined shaft set 2)
hub
profile 10 20 30 40 50 60 70 80 90 100 K / W1 B / W2 K / W1, W2 / B
N30 N30 30 (11) 30 (11) –
112
N30 N30 – – 860 095 46
N30 N30 30 31 –
125 N35 N35 35(11) 35(11) –
N35 N35 – – 860 195 46
N35 N35 35 36 –
160 N45 N45 45 (11) 45 (11) –
N45 N45 – – 860295 46
N45 N45 45 46 –
N50 N50 50 (11) 50 (11) –
200
N50 N50 – – 860 390 46
N50 N50 – – 860 390 46
N50 N50 50 51 –
N50 N50 – – 7)
1) Output drive shaft code for individual drive unit, (..) output drive shaft code for central drive unit
Angular gearbox with hollow shaft
2033523a_en_250810.indd
2) Part no. includes splined shaft, spacer rings and axial retaining elements
7) Currently not planned
K = Top connection
W = W1 (side connection with drive on wheel block side)
W2 (side connection with drive on connecting plate side)
78 B = Pin connection
3.11.4 Central drive unit inside arrangement (ZI), consisting of:
a) Angular gearbox with journal shafts on both sides: Torque bracket set (3), corresponding to connection vari-
ant, central shaft set (5) consisting of: coupling set (4) and connecting shaft G
b) Angular gearbox with hollow shaft: Torque bracket set (3), corresponding to connection variant, central shaft
set (6) consisting of: splined shaft set (2), coupling set (4) and connecting shaft G
3
42293644.eps 42293744.eps
753 891 44 753 891 44 753 894 44 752 150 44 860 031 46 6) 860 032 46 6) 860 03346 6) 860 034 46 6) 860 035 46 6)
752 491 44 752 491 44 752 494 44 860 121 46 5) 860 122 46 5) 860 123 46 5) 860 124 46 5) 860 125 46 5)
752 491 44 752 491 44 752 494 44 752 152 44 860 131 46 6) 860 132 46 6) 860 133 46 6) 860 134 46 6) 860 135 46 6)
752 790 44 752 790 44 752 792 44 860 221 46 5) 860 222 46 5) 860 223 46 5) 860 224 46 5) 860 225 46 5)
752 791 44 752 791 44 753 794 44 752 154 44 860 231 46 6) 860 232 46 6) 860 233 46 6) 860 234 46 6) 860 235 46 6)
753 291 44 753 291 44 753 294 44 860 321 46 5) 860 322 46 5) 860 323 46 5) 860 324 46 5) 860 325 46 5)
753 292 44 753 292 44 753 295 44 860 331 46 6) 860 332 46 6) 860 333 46 6) 860 334 46 6) 860 335 46 6)
753 296 46 753 297 44 753 297 44 752 156 44 860 331 46 6) 860 332 46 6) 860 333 46 6) 860 334 46 6) 860 335 46 6)
753 591 44 753 581 44 753 581 44 752 950 44 860 421 46 5) 860 422 46 5) 860 423 46 5) 860 424 46 5) 860 425 46 5)
753 592 44 753 582 44 753 582 44 860 421 46 5) 860 422 46 5) 860 423 46 5) 860 424 46 5) 860 425 46 5)
753 593 44 753 583 44 753 583 44 860 431 46 6) 860 432 46 6) 860 433 46 6) 860 434 46 6) 860 435 46 6)
752 950 44
754 290 44 754 280 44 754 280 44 7)
754 292 44 754 282 44 754 282 44 860 521 46 5) 860 522 46 5) 860 523 46 5) 860 524 46 5) 860 525 46 5)
754 293 44 754 283 44 754 283 44 752 952 44 860 531 46 6) 860 532 46 6) 860 533 46 6) 860 534 46 6) 860 535 46 6)
754 591 44 754 581 44 754 581 44 860 621 46 5) 860 622 46 5) 860 623 46 5) 860 624 46 5) 860 625 46 5)
754 592 44 754 582 44 754 582 44 752 954 44 860 631 46 6) 860 632 46 6) 860 633 46 6) 860 634 46 6) 860 635 46 6)
3) Part no. includes depending on type torque bracket, bolted fastening parts 5) Part no. includes connecting shaft G, shims and axial retaining elements,
to the gearbox and retaining elements coupling K1
4) 6)
2033523a_en_250810.indd
Part no. includes coupling and heavy-duty roll pin Part no. includes splined shaft (2) with retaining elements, connecting
shaft G with shims and axial retaining elements, coupling K1
7) Currently not planned
8) Section 3.11.5
K = Top connection
W = W1 (side connection with drive on wheel block side)
W2 (side connection with drive on connecting plate side)
B = Pin connection 79
3.11.5 Central drive unit inside arrangement (ZI) DRS 500
LG 41
2
1 4
6
5 5
5
3 L 6
6
3
Track gauge SPW
3
40
5 1 2
4
6 6
5
5
5
5
6
3 6 L
6
3
Track gauge SPW
min. 1500 / max. 3400
42661644.eps
Item Designation
Gearbox side journal shaft for ADE80/WUE90 gearbox or hollow shaft for AUK90/
1
WUK100 gearbox
3 Spacer rings
4 MA drive shaft
5 Retaining ring
6 Thrust washer
Dimensions
Track gauge Gearbox
[mm]
SPW
Type Output shaft code Set part no. 1) LG L
1) Consists of intermediate hollow shaft (2), drive shaft (1)(4), distance rings (3) and retaining ele-
80 ments (5/6)
2033523a_en_250810.indd
81
3
3.12 Splined shaft type A
42290844.eps
3
Track gauge A offset gearbox W angular gearbox
DRS wheel Shaft
Gearbox size in mm Part no. Dimensions in mm Part no. Dimensions in mm
block size profile
L L1 L2 L L1 L2
1000 752 060 44 740 752 040 44 700
1400 752 062 44 1140 752 042 44 1100
A 10/20
112 W30 2240 752 064 44 1980 48 100 752 044 44 1940 48 100
W 10/20
2800 752 066 44 2540 752 046 44 2500
3150 752 068 44 2890 752 048 44 2850
1000 752 070 44 715 752 120 44 665
1400 752 072 44 1115 752 122 44 1065
A 20/30
125 W35 2240 752 074 44 1955 48 98 752 124 44 1905 48 98
W 20/30
2800 752 076 44 2515 752 126 44 2465
3150 752 078 44 2865 752 128 44 2815
1000 752 080 44 670 752 160 44 605
1400 752 082 44 1070 752 162 44 1005
A 30/40
160 W45 2240 752 084 44 1910 106 – 752 164 44 1845 106 –
W 30/40
2800 752 086 44 2470 752 166 44 2405
3150 752 088 44 2820 752 168 44 2755
1000 752 090 44 630 752 170 44 550
1400 752 092 44 1030 752 172 44 950
A 40/50 1)
200 W50 2240 752 094 44 1870 122 – 752 174 44 1790 122 –
W 40/50/60 1)
2800 752 096 44 2430 752 176 44 2350
3150 752 098 44 2780 752 178 44 2700
1000 752 860 44 582 752 970 44 490
1400 752 862 44 982 752 972 44 890
A 50/60
250 W65 2240 752 864 44 1822 98 167 752 974 44 1730 98 167
W 50/60/70
2800 752 866 44 2382 752 976 44 2290
3150 752 868 44 2732 752 978 44 2640
1000 752 870 44 500 752 960 44 395
1400 752 872 44 900 752 962 44 795
A 60/70
315 W75 2240 752 874 44 1740 116 196 752 964 44 1635 116 196
W 70/80
2800 752 876 44 2300 752 966 44 2195
3150 752 878 44 2650 752 968 44 2545
1000 752 880 44 400 752 940 44 330
1400 752 882 44 800 752 942 44 730
A 70/80
400 W90 2240 752 884 44 1640 102,5 171 752 944 44 1570 129 249
W 80/90
2800 752 886 44 2200 752 946 44 2130
3150 752 888 44 2550 752 948 44 2480
– – – – – – – – – – –
2033523a_en_250810.indd
500
1) For standard central drive arrangement the shafts for the angular gearbox have to be used here. 83
3.15 Shafts – coupling K A-A
Ød2
Ød1
l1
3
41644944.eps
D d1 H11 d2 d3 H13 d4 l l1 l3 kg 1)
200 40/50/60 N 50 49,6 65 h11 8 59,4 125 62,5 7 1,7 752 156 44
Ød1
Ød4
+0,5
Ø111
l2
l1
l
42661444.eps
500 90/100 N110 109,4 160 150,3d9 320 227,5 127,5 151 27 752 844 44
2033523a_en_250810.indd
Material:
S 355 J2 G3
3
to DIN/EN 10025 41756644.eps
D5
D1
D4
C L9
Material:
S 355 J2 G3
to DIN/EN 10025 41756646.eps
85
3.16.2 Universal shaft F dimensions for DRS 112 – 200
Connecting plate
Bearing seat
Drive shaft F
42294044.eps
Section A-A
Connecting plate centred using
42293944.eps roll pins.
Connecting plate
Bearing seat
Drive shaft F
42294344.eps
Section A-A
Connecting plate centred using
42294244.eps adapter nut.
Connecting plate
Bearing seat
Drive shaft F
42278144.eps
Section A-A
Connecting plate centred using
42294444.eps pins.
R3
0
D5
D1
L9
3
L3 L5
L1
42293844.eps
D1 f8
87
3.16.4 Universal shaft F calculation
Force on the universal shaft Pin connection Side connection Top connection
M
F
+x -x -x +x -x
+x
z
3
Drive torque M in Nm
2033523a_en_250810.indd
Drive torque M in Nm
88
Table 1 Table 2
Permissible distance between DRS wall and bearing
plate rear side (see pin connection fig. 2)
Factor K at
z
DRS HF HDRS x = 0 mm DRS
in mm
z = 0 mm
112 54,5 58 0,940 112 24 ≥ z ≥ 0
125 63,5 59 1,076 125 26 ≥ z ≥ 0
160 86 66 1,303 160 28 ≥ z ≥ 0
200 119 76 1,566 200 38 ≥ z ≥ 0
250 162,5 75 2,167
3
400
HF
Fperm (DRS,x) = F(M) ·
HF + x
HF + x
Fperm (DRS,x,z) = F(M) ·
HDRS + z
K (DRS,x,z) = Factor for the force ratios on the universal shaft of the DRS de-
pending on the wheel block size and variables x and z (see table 1)
HF = Constant depending on the wheel block size
x = Variable for displacement of force F from the centre of the universal
shaft shoulder (see fig. 2 – 4)
z = Variable for additional distance between bearing plate and wheel
block, e. g. for pin connection (see fig. 2 – 4)
F · K(DRS,x,z) · cos(0,8 · α)
Rperm (DRS,x,z) = Rperm (catalogue) –
9,81
R perm (DRS,x,z) = Permissible residual load capacity of the wheel block for univer-
sal shaft application in kg
2033523a_en_250810.indd
See model code in geared motors catalogue 203 150 44 for shaft code and design overview
K = Top connection
W = W1 (side connection with drive on wheel block side)
W2 (side connection with drive on connecting plate side)
B = Pin connection,
90 Standard, using welded plate, end connection, DFW
DRS 250 – 500
Journal shaft
A offset gearbox W angular gearbox
3
Splined shaft, see page 82
42091445.eps
ADE 70 W 90x3x28 6g 203 237 252 286 200 245 462 496
400
WUE 70 W 75x3x24 6g 201 201 250 250 206 206 — —
WUE 80 W 90x3,0x28 6g 203 237 252 286 200 230 527 564
ADE 80 W 110x3,0x35 6g 231 271 285 325 220 260 532 572
500
WUE 80 W 90x3,0x28 6g 232 232 286 286 200 230 — —
WUE 90 W 110x3,0x35 6g 231 271 285 325 220 260 595 635
2033523a_en_250810.indd
See model code in geared motors catalogue 203 150 44 for shaft code and design overview
K = Top connection
W = W1 (side connection with drive on wheel block side)
W2 (side connection with drive on connecting plate side)
B = Pin connection,
Standard, using welded plate, end connection, DFW 91
3.18 Dimensions of travel drive with offset geared motor, direct input
3.18.1 DRS 112 – 200 wheel block with offset gearbox and ZBF/ZBA motor
3.18.1.1 DRS 112 – 200 with A 10 - A 40, 2 and 3-stages
63A/71A 63A/B/71A/B 501 – 336 140 124 140 161,5 142 4 x M20
AME 10 165 81 91,5 51 56 +5
80A 80A/B/90A 557 – 392 157 134 157 170 155 4 x M25
153 103
112 63A/71A 63A/B/71A/B 512 336 140 124 140 174 142 4 x M20
80A 80A/B/90A 568 392 157 134 157 –2
AMK 20 176 81 104 57,5 56 182,5 155 4 x M25
(+5)
2 x M25
90B/100A 90B/100A/B 612 – 436 196 152 196 202 179 167 133
2 x M32
63A/71A 63A/B/71A/B 507 – 336 140 124 140 161,5 142 4 x M20
AME 10 171 87 91,5 51 62,5 +12
80A 80A/B/90A 563 – 392 157 134 157 170 155 4 x M25
153
63A/71A 63A/B/71A/B 518 336 140 124 140 174 142 4 x M20
AME 20 80A 80A/B/90A 574 182 87 392 157 134 157 104 57,5 62,5 182,5 155 +5 103 4 x M25
2 x M25
90B/100A 90B/100A/B 618 – 436 196 152 196 202 168 167
2 x M32
125
63A/71A 63A/B/71A/B 527 336 140 124 160 209 142 4 x M20
153
80A 80/90A 583 392 157 134 157 207,5 155 4 x M25
2 x M25
AMK 30 90B/100A 90B/100A/B 627 191 88 436 196 152 196 129 75 62,5 227 168 167 –13 133
2 x M32
112A 112A 2 x M40
769 – 578 260 185 260 259 273 222 173
132A/B 132A/B/C 2 x M50
63A/71A 63A/B/71A/B 534 336 140 124 140 174 142 4 x M20
153
AME 20 80A 80A/B/90A 590 198 103 392 157 134 157 104 57,5 80 182,5 155 +23 4 x M25
2 x M25
90B/100A 90B/100A/B 634 – 436 196 152 196 202 168 167 103
2 x M32
63A/71A 63A/B/71A/B 543 336 140 124 160 209 142 4 x M20
153
80A 80A/B/90A 599 392 157 134 157 207,5 155 4 x M25
2 x M25
AME 30 90B/100A 90B/100A/B 643 207 104 436 196 152 196 129 75 80 227 168 167 +5 133
2 x M32
160 112A 112A 2 x M40
785 – 578 260 185 260 259 273 222 173
132A/B 132A/B/C 2 x M50
63A/71A 63A/B/71A/B 552 336 140 124 160 228 142 4 x M20
153 103
80A 80A/B/90A 608 392 157 134 157 226,5 155 4 x M25
2033523b_en_250810.indd
–10 2 x M25
AMK 40 90B/100A 90B/100A/B 652 216 104 436 196 152 196 148 90 80 246 168 167 133
(+5) 2 x M32
112A 112A 2 x M40
794 – 578 260 185 260 278 273 222 173
132A/B 132A/B/C 2 x M50
63A/71A 63A/B/71A/B 553 336 140 124 160 209 142 4 x M20
153 103
80A 80A/B/90A 609 392 157 134 157 207,5 155 4 x M25
2 x M25
AME 30 90B/100A 90B/100A/B 653 217 114 436 196 152 196 129 75 100 227 167 167 +25 133
2 x M32
112A 112A 2 x M40
795 – 578 260 185 260 259 273 222 173
132A/B 132A/B/C 2 x M50
200
63A/71A 63A/B/71A/B 562 336 140 124 140 218 142 4 x M20
153 103
80A 80A/B/90A 618 392 157 134 157 226,5 155 4 x M25
+10 2 x M25
AME 40 90B/100A 90B/100A/B 662 226 114 436 196 152 196 148 90 100 246 167 167 133
(+15) 2 x M32
112A 112A
3
2 x M40
804 578 260 185 260 278 273 222 173
132A/B 132A/B/C 2 x M50
80A 80A/B/90A 622 392 157 134 153 155 103 4 x M25
250 303 2 x M25
90B/100A 90B/100A/B 666 436 196 152 168 167 133
2 x M32
-15
200 ADK 50 112A 112A 230 98 178 115 100
(+15)
808 578 260 185 260 308 222 2 x M40
132A/B 132A/B/C 273 173
2 x M50
– 160A/B/180A 917 687 314 269 276 335 236
2033523b_en_250810.indd
93
3.18.2 DRS 250 – 500 wheel block with offset gearbox and ZBF/ZBA motor
3.18.2.1 DRS 250 – 500 with A 40 - A 90, 2 and 3-stages
63A/71A 63A/B/71A/B 556 336 140 124 160 218 142 4 x M20
153 103
80A 80A/B/90A 612 392 157 134 157 226,5 155 4 x M25
+35 2 x M25
ADE 40 90B/100A 90B/100A/B 656 220 108 436 196 152 196 148 90 125 246 168 167 133
(+20) 2 x M32
112A 112A 2 x M40
798 578 260 185 260 278 273 222 173
132A/B 132A/B/C 2 x M50
80A 80A/B/90A 632 392 157 134 153 155 103 4 x M25
250 303 2 x M25
90B/100A 90B/100A/B 676 436 196 152 168 167 133
2 x M32
+10
250 ADE 50 112A 112A 240 108 178 115 125
(+20)
818 578 260 185 260 308 222 2 x M40
132A/B 132A/B/C 273 173
2 x M50
– 160A/B/180A 927 687 314 269 276 335 236
80A 80A/B/90A 656 392 157 134 153 155 103 4 x M25
250 343 2 x M25
90B/100A 90B/100A/B 700 436 196 152 168 167 133
2 x M32
–15
ADK 60 112A 112A 265 108 218 140 125
(+20)
842 578 260 185 260 348 222 2 x M40
132A/B 132A/B/C 273 173
2 x M50
– 160A/B/180A 953 687 314 269 276 375 236
80A 80A/B/90A 654 392 157 134 153 155 103 4 x M25
250 303 2 x M25
90B/100A 90B/100A/B 698 436 196 152 168 167 133
2 x M32
+43
ADE 50 112A 112A 262 130 178 115 157,5
(+29)
840 578 260 185 260 308 222 2 x M40
132A/B 132A/B/C 273 173
2 x M50
– 160A/B/180A 949 687 314 269 276 335 236
315
80A 80A/B/90A 679 392 157 134 153 155 103 4 x M25
250 343
2033523b_en_250810.indd
2 x M25
90B/100A 90B/100A/B 723 436 196 152 168 167 133
2 x M32
+12
ADE 60 112A 112A 287 130 218 140 157,5
(+17)
865 578 260 185 260 348 222 2 x M40
132A/B 132A/B/C 273 173
2 x M50
– 160A/B/180A 974 687 314 269 276 375 236
80A 80A/B/90A 724 401 157 134 153 164 103 4 x M25
205 374,5 2 x M25
90B/100A 90B/100A 768 445 196 152 168 176 133
2 x M32
–8
315 ADK 70 112A 112A 322,5 130 272 165 157,5
(+29)
910 587 260 185 240 402 231 2 x M40
132A/B 132A/B/C 273 173
2 x M50
– 160A/B/180A 1019 696 314 269 276 429 245
80A 80A/B/90A 703 392 157 134 153 155 103 4 x M25
250 343 2 x M25
90B/100A 90B/100A 747 436 196 152 168 167 133
2 x M32
3
+60
ADE 60 112A 112A 311 154 218 140 200
(+55)
889 578 260 185 260 348 222 2 x M40
132A/B 132A/B/C 273 173
2 x M50
– 160A/B/180A 998 687 314 269 276 375 236
80A 80A/B/90A 748 401 157 134 153 164 103 4 x M25
205 374,5 2 x M25
90B/100A 90B/100A 792 445 196 152 168 176 133
2 x M32
+35
ADE 70 112A 112A 346,5 154 272 165 200
(+55)
934 587 260 185 240 402 231 2 x M40
400 132A/B 132A/B/C 273 173
2 x M50
– 160A/B/180A 1043 696 314 269 276 429 245
80A 80A/B/90A 769 396 157 134 153 159 103 4 x M25
240 448 2 x M25
90B/100A 90B/100A 813 440 196 152 168 171 133
2 x M32
112A 112A
955 582 260 185 260 458 226 –1
ADK 80 132A/B 132A/B/C 373 154 328 201 200
(+55)
2 x M40
– 160A/B/180A 1064 691 314 269 276 485 273 240 173
2 x M50
– 180B/200A/B 1191 818 394 311 347 525 249
80A 80A/B/90A 768 401 157 134 153 164 103 4 x M25
205 374,5 2 x M25
90B/100A 90B/100A 812 445 196 152 168 176 133
2 x M32
+85
ADE 70 112A 112A 366,5 174 272 165 250
(+82)
954 587 260 185 240 402 231 2 x M40
132A/B 132A/B/C 273 173
2 x M50
– 160A/B/180A 1063 696 314 269 276 429 245
80A 80A/B/90A 789 396 157 134 153 159 103 4 x M25
240 448 2 x M25
90B/100A 90B/100A 833 440 196 152 168 171 133
2 x M32
112A 112A
975 582 260 185 260 458 226 +49
ADE 80 132A/B 132A/B/C 393 174 328 201 250
500 (+82)
2 x M40
– 160A/B/180A 1084 691 314 269 276 485 273 240 173
2 x M50
– 180B/200A/B 1211 818 394 311 347 525 249
95
3.19 Dimensions of travel drive with angular geared motor, direct input
3.19.1 DRS 112 – 200 wheel block with angular gearbox and ZBF/ZBA motor
3.19.1.1 DRS 112 – 200 with W 10 – W 50, 2-stage
63A/71A 63A/B/71A/B 525 261 351 140 124 104 157 4 x M20
2033523b_en_250810.indd
153 103
80A 80A/B/90A 581 270 407 157 134 106 170 +10 4 x M25
200 WU. 30 174 114 271 27,5 100
(-5)
2 x M32
90B/100A 90B/100A/B 626 289 452 196 152 126 168 183 133
2 x M40
(...) Torque bracket obstacle edge
96
DRS Gearbox Motor k12 q12 b5 b6 b7 o g g1 h1 h21 h22 x xk x1 y dv
wheel size
block
size ZBF ZBA
63A/71A 63A/B/71A/B 545 276 351 140 124 157 4 x M20
112 153 103
80A 80A/B/90A 601 284 407 157 134 170 4 x M25
2 x M25
WU. 40 90B/100A 90B/100A/B 646 194 114 300,5 304 452 196 152 28,6 100 127 168 183 –5 133
2 x M32
112A 112A 2 x M32
788 336 594 260 185 159 273 238 173
200 132A/B 132A/B/C 2 x M40
80A 80A/B/90A 634 316 407 157 134 136 153 170 4 x M25
2 x M25
90B/100A 90B/100A/B 679 348 452 196 152 139 168 183 133
WU. 50 227 114 325,5 33,3 100 -20 2 x M32
112A 112A 2 x M32
821 375 594 260 185 163 273 238 173
2 x M40
3
132A/B 132A/B/C
63A/71A 63A/B/71A/B 567 252 351 140 124 104 153 157 103 4 x M20
160 WU. 30 236 104 261 27,5 80 –10
80A 80A/B/90A 623 260 407 157 134 106 170 4 x M25
63A/71A 63A/B/71A/B 567 261 351 140 124 104 157 +10 4 x M20
WU. 30 236 114 271 27,5 100
80A 80A/B/90A 623 270 407 157 134 106 170 (-5) 4 x M25
80A 80A/B/90A 604 292 401 157 134 153 164 –7 103 4 x M25
2 x M25
90B/100A 90B/100A/B 648 311 445 196 152 168 176 –7 133
2 x M32
200 WU. 60 112A 112A 203 98 331,5 11,5 100 205 2 x M32
790 343 587 260 185 231 –18,5
132A/B 132A/B/C 2 x M40
273 173
2 x M40
– 160A/B/180A 899 370 696 314 269 245 –45,5
98 2 x M50
3.19.1.4 DRS 200 with W 60, 4-stage
3
For travel wheel types E, C and F see section 3.1 42200144.eps
99
3.19.2 DRS 250 – 500 wheel block with angular gearbox and ZBF/ZBA motor
3.19.2.1 DRS 250 – 315 with W 40 – W 50 2-stage direct input
W 40 – W 50 2-stage direct input
3
100
W 40 – W 50 2-stage direct input
Note: This model offers greater ground clearance
3
For travel wheel types E, C and F see section 3.2 42096845.eps
101
3.19.2.2 DRS 250 – 315 with W 40 – W 50 3-stage direct input
2033523b_en_250810.indd
102
W 40 – W 50 3-stage direct input
Note: This model offers greater ground clearance
3
For travel wheel types E, C and F see section 3.2 42096945.eps
103
3.19.2.3 DRS 250 – 500 with W 60 – W 100 3-stage direct input
41674244.eps
For travel wheel types E, C and F see section 3.2
104
DRS Gearbox Motor k13 q13 b5 b6 b7 o g g1 h1 h21 h22 x xk x1 y dv
wheel size
block
size ZBF ZBA
80A 80A/B/90A 646 346 396 157 134 153 159 103 4 x M25
2 x M25
90B/100A 90B/100A/B 690 366 440 196 152 168 171 133
2 x M32
112A 112A 2 x M32
832 398 582 260 185 226
315 WU. 80 132A/B 132A/B/C 250 130 409 32 157,5 193 –118 2 x M40
3
2 x M25
90B/100A 90B/100A/B 671 387 440 196 152 168 171 133
2 x M32
112A 112A 2 x M32
813 419 582 260 185 226
WU. 70 132A/B 132A/B/C 231 154 428 6 200 240 – 45 2 x M40
WU. 100 – 160A/B/180A 1040 352 174 559 521 688 314 269 44 250 316 273 237 –140 173
2 x M40
– 180B/200A 1167 561 815 394 311 246
2 x M50
– 225A/B 1214 584 862 440 332 256
105
W 60 – W 100 3-stage direct input
Note: This model offers greater ground clearance
3
– 160A/B/180A 922 400 691 314 269 273 240 -26 173
2 x M40
– 180B/200A/B 1049 440 818 394 311 249 -66
2 x M50
– 225A/B 1096 463 865 440 332 259 -89
80A 80A/B/90A 604 324 401 157 134 153 164 103 4 x M25
2 x M25
90B/100A 90B/100A/B 648 343 445 196 152 168 176 133
+30 2 x M32
WU. 60 112A 112A 203 130 363,5 11,5 158 205 2 x M32
790 375 587 260 185 231
132A/B 132A/B/C 2 x M40
273 173
2 x M40
– 160A/B/180A 899 383 696 314 269 245 +12
2 x M50
80A 80A/B/90A 627 344 396 157 134 153 159 103 4 x M25
315
2 x M25
90B/100A 90B/100A/B 671 363 440 196 152 168 171 133
+29 2 x M32
112A 112A 2 x M32
813 395 582 260 185 226
WU. 70 132A/B 132A/B/C 231 130 404 6 158 245 2 x M40
2033523b_en_250810.indd
– 160A/B/180A 922 422 691 314 269 273 240 +6,5 173
2 x M40
– 180B/200A/B 1049 462 818 394 311 249 -33,5
2 x M50
– 225A/B 1096 485 865 440 332 259 -56,5
106
DRS Gearbox Motor k13 q13 b5 b6 b7 o g g1 h1 h21 h23 x xk x11 y dv
wheel size
block
size ZBF ZBA
80A 80A/B/90A 646 346 396 157 134 153 159 103 4 x M25
2 x M25
90B/100A 90B/100A/B 690 365,5 440 196 152 168 171 133
2 x M32
112A 112A +15,5
2 x M32
832 398 582 260 185 226
315 WU. 80 132A/B 132A/B/C 250 130 409 32 157,5 275 2 x M40
3
112A 112A 2 x M32
813 419 582 260 185 226
WU. 70 132A/B 132A/B/C 231 154 428 6 200 245 2 x M40
– 160A/B/180A 922 446 691 314 269 273 240 +49 173
2 x M40
– 180B/200A 1049 486 818 394 311 249 +9
2 x M50
– 225A/B 1096 509 865 440 332 259 -14
80A 80A/B/90A 646 370 396 157 134 153 159 103 4 x M25
2 x M25
90B/100A 90B/100A/B 690 389,5 440 196 152 168 171 133
2 x M32
112A 112A +55
400 2 x M32
832 421,5 582 260 185 226
WU. 80 132A/B 132A/B/C 250 154 433 32 200 275 2 x M40
WU. 100 – 160A/B/180A 1040 352 174 559 521 688 314 44 250 390 273 237 +44 173
2 x M40
– 180B/200A 1167 561 815 394 246
2033523b_en_250810.indd
2 x M50
– 225A/B 1214 584 862 440 256
107
3.19.2.4 DRS 250 – 500 with W 60 – W 100 4-stage direct input
108
DRS Gearbox Motor k14 q14 b5 b6 b7 o g g1 h1 h21 h22 x xk x1 y dv
wheel size
block
size
ZBF ZBA
80A 80A/B/90A 750 368 401 157 134 153 170 103 4 x M25
2 x M25
90B/100A 90B/100A/B 795 387 452 196 152 168 183 133
2 x M32
WU. 70 112A 112A 343 154 428 56 200 240 –45 2 x M32
937 419 594 260 185 238
132A/B 132A/B/C 2 x M40
273 173
2 x M40
– 160A/B/180A 1046 446 703 314 269 252
2 x M50
80A 80A/B/90A 769 370 407 157 134 153 170 103 4 x M25
2 x M25
90B/100A 90B/100A/B 814 390 452 196 152 168 183 133
2 x M32
3
400 WU. 80 112A 112A 362 154 433 82 200 240 –75 2 x M32
956 421,5 594 260 185 238
132A/B 132A/B/C 2 x M40
273 173
2 x M40
– 160A/B/180A 1065 449 703 314 269 252
2 x M50
80A 80A/B/90A 821 388 401 157 134 153 164 103 4 x M25
2 x M25
90B/100A 90B/100A/B 865 407 445 196 152 168 176 133
2 x M32
WU. 90 112A 112A 420 154 469 93 200 240 –115 2 x M32
1014 439 587 260 185 231
132A/B 132A/B/C 2 x M40
273 173
2 x M40
– 160A/B/180A 1116 466 696 314 269 245
2 x M50
80A 80A/B/90A 769 390 407 157 134 153 170 103 4 x M25
2 x M25
90B/100A 90B/100A/B 814 410 452 196 152 168 183 133
2 x M32
WU. 80 112A 112A 362 174 453 82 250 316 –25 2 x M32
956 442 594 260 185 238
132A/B 132A/B/C 2 x M40
273 173
2 x M40
– 160A/B/180A 1065 469 703 314 269 252
2 x M50
80A 80A/B/90A 821 408 401 157 134 153 164 103 4 x M25
2 x M25
90B/100A 90B/100A/B 865 427 445 196 152 168 176 133
2 x M32
WU. 90 112A 112A 420 174 489 93 250 316 –65 2 x M32
1014 459 587 260 185 231
500 132A/B 132A/B/C 2 x M40
273 173
2 x M40
– 160A/B/180A 1118 486 696 314 269 245
2 x M50
80A 80A/B/90A 886 443 396 157 134 153 159 103 4 x M25
2 x M25
90B/100A 90B/100A/B 930 462 440 196 152 168 171 133
2 x M32
112A 112A 2 x M32
1072 494 582 260 185 226
WU. 100 132A/B 132A/B/C 490 174 559 122 250 316 –140 2 x M40
109
W 60 – W 100 4-stage direct input
Note: This model offers greater ground clearance
3
110
DRS Gearbox Motor k14 q14 b5 b6 b7 o g g1 h1 h21 h23 x xk x11 y dv
wheel size
block
size
ZBF ZBA
80A 80A/B/90A 750 368 401 157 134 153 170 103 4 x M25
2 x M25
90B/100A 90B/100A/B 795 387 452 196 152 168 183 133
2 x M32
WU. 70 112A 112A 343 154 428 56 200 245 238 2 x M32
937 419 594 260 185
132A/B 132A/B/C 2 x M40
273 173
252 2 x M40
– 160A/B/180A 1046 446 703 314 269
2 x M50
+55
80A 80A/B/90A 769 370 407 157 134 153 170 103 4 x M25
2 x M25
90B/100A 90B/100A/B 814 389,5 452 196 152 168 183 133
2 x M32
3
400 WU. 80 112A 112A 362 154 433 82 200 275 2 x M32
956 422 594 260 185 238
132A/B 132A/B/C 2 x M40
273 173
2 x M40
– 160A/B/180A 1065 449 703 314 269 252
2 x M50
80A 80A/B/90A 821 388 401 157 134 153 164 103 4 x M25
2 x M25
90B/100A 90B/100A/B 865 407 445 196 152 168 176 133
2 x M32
WU. 90 112A 112A 420 154 469 93 200 315 +34 2 x M32
1014 439 587 260 185 231
132A/B 132A/B/C 2 x M40
273 173
2 x M40
– 160A/B/180A 1116 466 696 314 269 245
2 x M50
80A 80A/B/90A 769 390 407 157 134 153 170 103 4 x M25
2 x M25
90B/100A 90B/100A/B 814 410 452 196 152 168 183 133
2 x M32
WU. 80 112A 112A 362 174 453 82 250 275 2 x M32
956 442 594 260 185 238
132A/B 132A/B/C 2 x M40
273 173
2 x M40
– 160A/B/180A 1065 469 703 314 269 252
2 x M50
+82
80A 80A/B/90A 821 408 401 157 134 153 164 103 4 x M25
2 x M25
90B/100A 90B/100A/B 865 427 445 196 152 168 176 133
2 x M32
WU. 90 112A 112A 420 174 489 93 250 315 2 x M32
1014 459 587 260 185 231
500 132A/B 132A/B/C 2 x M40
273 173
2 x M40
– 160A/B/180A 1118 486 696 314 269 245
2 x M50
80A 80A/B/90A 886 443 396 157 134 153 159 103 4 x M25
2 x M25
90B/100A 90B/100A/B 930 462 440 196 152 168 171 133
2 x M32
112A 112A 2 x M32
1072 494 582 260 185 226
WU. 100 132A/B 132A/B/C 490 174 559 122 250 390 +44 2 x M40
111
3.20 Dimensions of travel drive with offset geared motor, coupling connection
3.20.1 DRS 112 – 200 wheel block with offset gearbox and KBF/KBA motor
3.20.1.1 DRS 112 – 200 with A 10 - A 40, 2 and 3-stages
A 10 – A 40 2 and 3-stage coupling design
3
KBF KBA D T
3
209
80A 80A 578 285
158 143 128 82 108 4 x M25
– 80B 593 300
A .. 30 275 104 129 75 80 +5
90A 90A 608 315
160 178 153 218 92
– 90B 624 331
113
3.20.1.2 DRS 200 with A 50 2 and 3-stage
KBF KBA D T
114
3.20.2 DRS 250 – 500 wheel block with offset gearbox and KBF/KBA motor
3.20.2.1 DRS 250 with A 40 – A 50 2 and 3-stage
3
For travel wheel types E, C and F see section 3.2 42013644.eps
KBF KBA D T
115
3.20.2.2 DRS 250 with A 60 2 and 3-stage
KBF KBA D T
116
3.20.2.3 DRS 315 with A 50 – A 60, 2 and 3-stage
3
For travel wheel types E, C and F see section 3.2 42013644.eps
KBF KBA D T
60
3
KBF KBA D T
KBF KBA D T
3
112A – 803 370
220 189 158 110 128 4 x M32
– 112B 822 389
119
3.20.2.5 DRS 500 with A 70 – A 90, 2 and 3-stage
KBF KBA D T
3
3.21 Dimensions of travel drive with angular geared motor, coupling connection
3.21.1 DRS 112 – 200 wheel block with angular gearbox and KBF/KBA motor
3.21.1.1 DRS 112 – 125 with W 20 – W 20, 2-stage
W 10 – W 20 2-stage coupling design
KBF KBA
KBF KBA
71A 71A 596 244
267 140 134 77
71B 71B 616 264
3
112A – 768 370
306 220 189 158 110 128 4 x M32
– 112B 787 389
366 131,6
125A – 820 420
319 246 200 122
– 125B 844 444
124
DRS Gearbox Motor k13 q13 b5 b6 b7 o g g1 h1 h21 h22 x xk x1 y dv
wheel size
block
size KBF KBA
71A 71A 617 244
241 140 134 77
71B 71B 637 264 0
WU . 20 361,5 103 240 24,5 80 111,5 128 108 4 x M25
80A 80A 660 285 (–2)
250 158 143 82
– 80B 675 300
3
71A 71A 666 244
267 140 134 77
71B 71B 686 264
WU . 40 406 104 290,5 28,6 80 118,6 128 –25 108 4 x M25
80A 80A 709 285
275 158 143 82
– 80B 724 300
125
3.21.1.4 DRS 200 with W 60, 3-stage
42013444.eps
126
3.21.1.5 DRS 200 with W 60, 4-stage
3
42200344.eps
42200444.eps
For travel wheel types E, C and F see section 3.1
127
3.21.2 DRS 250 – 500 wheel block with angular gearbox and KBF/KBA motor
3.21.2.1 DRS 250 with W 40 – W 50, 2-stage
W 40 – W 50 2-stage coupling design
3
128
3.21.2.2 DRS 250 with W 40 – W 50, 3-stage
3
For travel wheel types E, C and F see section 3.2 42014145.eps
129
3.21.2.3 DRS 315 with W 50, 2-stage
130
3.21.2.4 DRS 315 with W 50, 3-stage
3
For travel wheel types E, C and F see section 3.2 42014145.eps
131
3.21.2.5 DRS 250 – 400 with W 60 – W 80, 3-stage
140A 140B 913 382 511 274 250 174 173 2 x M40
273
160B 1024 402 586 314 269 221 2 x M50
132
DRS Gearbox Motor k13 q13 b5 b6 b7 o g g1 h1 h21 h22 x xk x1 y dv
wheel size
block
size KBF KBA
71A 71A 649 244
335 140 134 77
71B 71B 669 264
80A 80A 692 285
344 158 143 128 82 108 4 x M25
– 80B 707 300
387
90A 90A 722 315
354 178 153 92
– 90B 738 331
100A 100A 759 349
363 196 176 103
– 100B 776 366
WU . 70 130 404 6 157,5 193 –88
112A – 873 370
375 220 189 158 110 128 4 x M32
3
– 112B 892 389
125A – 925 420
388 246 200 122
– 125B 949 444
462
140A 140B 1016 402 511 274 250 174
– 160B 1127 422 586 314 269 221 2 x M40
273 173
– 180B 1204 442 663 354 293 237 2 x M50
273 173
– 180B 1204 466 663 354 293 237 2 x M50
133
3.21.2.6 DRS 400 – 500 with W 80 – W 100, 3-stage
134
DRS Gearbox Motor k13 q13 b5 b6 b7 o g g1 h1 h21 h22 x xk x1 y dv
wheel size
block
size
KBF KBA
3
WU. 80 174 453 32 250 316 –25
112A – 888 370
422 220 189 110
– 112B 907 389
103 128 4 x M32
125A – 940 420
435 246 200 122
– 125B 964 444
481
140A 140B 1031 449 511 274 250 174
WU. 90 140A 140B 1069 519 174 489 466 511 274 250 32 250 316 174 –65
WU. 100 140A 140B 1138 580 174 559 501 511 274 250 44 250 316 174 –140
135
3.21.2.7 DRS 250 – 315 with W 60 – W 80, 3-stage
140A 140B 913 360 511 274 250 174 -0,5 2 x M40
273 173
160B 1024 380 586 314 269 221 -21 2 x M50
3
375 220 189 110
– 112B 892 389
158 128 4 x M32
125A – 925 420
388 246 200 122
– 125B 949 444
462
140A 140B 1016 402 511 274 250 174 +26,5
137
3.21.2.8 DRS 400 – 500 with W 70 – W 100, 3-stage
KBF KBA
3
– 160B 1180 466 586 314 269 221
2 x M40
– 180B 1270 486 663 354 293 273 237 173
2 x M50
– 200B 1336 506 729 394 311 246
– 225B 1376 529 769 440 332 256 +12
71A 71A 664 244
382 140 134 77
71B 71B 684 264
80A 80A 707 285
391 158 143 82
– 80B 722 300
406 128 108 4 x M25
90A 90A 737 315
401 178 153 92
– 90B 753 331
100A 100A 773 349
410 196 176 103
– 100B 790 366
WU. 80 174 453 32 250 275
112A – 888 370
422 220 189 110
– 112B 907 389
158 128 4 x M32
125A – 940 420
435 246 200 122
– 125B 964 444
481 +82
140A 140B 1031 449 511 274 250 174
– 160B 1142 469 586 314 269 221 2 x M40
273 173
– 180B 1219 489 663 354 293 237 2 x M50
139
3.21.2.9 DRS 250 – 400 with W 60 – W 80, 4-stage
KBF KBA
KBF KBA
3
347 158 143 128 82 108 4 x M25
– 80B 822 300
315 504
90A 90A 837 315
357 178 153 92
– 90B 853 331
WU. 80 100A 100A 873 130 409 349 82 157,5 193 –118
366 196 176 103
– 100B 890 366
WU. 70 100A 100A 859 154 428 349 56 200 240 –45
387 196 176 103
– 100B 876 366
WU. 80 100A 100A 873 154 433 349 82 200 240 –75
390 196 176 103
– 100B 890 366
141
3.21.2.10 DRS 400 – 500 with W 90 – W 100, 4-stage
KBF KBA
142
DRS Gearbox Motor k14 q14 b5 b6 b7 o g g1 h1 h21 h22 x xk x1 y dv
wheel size
block size
KBF KBA
WU. 80 100A 100A 873 174 453 349 82 250 316 –25
410 196 176 103
– 100B 890 366
3
112A – 936 370
422 220 189 158 110 128 4 x M32
– 112B 955 389
143
3.21.2.11 DRS 250 – 400 with W 60 – W 80, 4-stage
KBF KBA
3
347 158 143 128 82 108 4 x M25
– 80B 822 300
315 504
90A 90A 837 315
357 178 153 92
– 90B 853 331
WU. 80 100A 100A 873 130 409 349 82 157,5 275 +15,5
366 196 176 103
– 100B 890 366
WU. 70 100A 100A 859 154 428 349 56 200 245 +55
387 196 176 103
– 100B 876 366
WU. 80 100A 100A 873 154 433 349 82 200 275 +55
390 196 176 103
– 100B 890 366
KBF KBA
146
DRS wheel Gearbox Motor k14 q14 b5 b6 b7 o g g1 h1 h21 h23 x xk x11 y dv
block size size
KBF KBA
WU. 80 100A 100A 873 174 453 349 82 250 275 +82
410 196 176 103
– 100B 890 366
3
112A – 936 370
422 220 189 158 110 128 4 x M32
– 112B 955 389
147
4 Demag DRS wheel block system
Options and accessories
MA112-1/MA125-1/MA160-1 MA125-2/MA160-2/MA200-1
41827844.eps 41827944.eps
4
MW112-1/MW112-2 MW125-1/MW125-2/MW160-1/MW160-2/
MW200-1/MW200-2/MW200-3
a5
ød1
a1
h1
a4
a6
7
2H
ød
a3
h2
ød3 a2 b2
b1
41828044.eps 41828144.eps
WU . 20/30 MW 160-1 95
75 97,5 56 90 110 12 246 45 11 105 82
WU . 40 MW 160-2 110 12,3 130
65
WU . 30 MW 200-1 95 10,3 85
11
WU . 40 MW 200-2 105 120 70 115 140 10 306 45 110 12,3 130 130 105
WU . 50 MW 200-3 11,5 85 130 16,3 330
148
MA/MW torque brackets
Material: GJS 500-2 Note: Dimensions d1, b2, b3 and b4 include damping elements 41832044.eps
MA torque bracket
Gearbox Designation Locking screw
MA in
a1 a4 b1 b2 b3 b4 d1 d2 d3 d4 Qty. h h2
Nm
4
AD . 50 MA 200-2 137,5 75 345 33 4 18 40,1 130 165 8 195 85
MW torque bracket
Gearbox Designation Locking screw
MA in
a1 a4 b1 b2 b3 b4 d1 d2 d3 d4 Qty. h h2
Nm
WU . 60 MW 200-4 137,5 75 345 33 4 18 40,1 130 165 8 195 85
13,5 130
WU . 40 MW 250-1 110 130
4
WU . 50 MW 250-2 17,5 165 330
155 80 380 33 4 18 40,1 130 230 105
WU . 60 MW 250-3 13,5 165 130
8
WU . 70 MW 250-4 180 17,5 215 330
KW B
AM . 10/20 MA112-1 753 796 44 753 797 44
112 WU . 10 MW112-1 753 890 44 753 892 44
WU . 20 MW112-2 753 891 44 753 894 44
AM . 10/20 MA125-1 752 396 44 752 397 44
AM . 30 MA125-2 752 39144 752 394 44
125
WU . 10 MW125-1 752 490 44 752 492 44
WU . 20/30 MW125-2 752 49144 752 494 44
AM . 20 MA160-1 752 696 44 752 697 44 not
AM . 30/40 MA160-2 752 69144 752 694 44 permissible
160
WU . 20/30 MW160-1 752 790 44 752 792 44
WU . 40 MW160-2 752 79144 752 794 44
AM . 30/40 MA200-1 753 190 44 753 192 44
AD . 50 MA200-2 753 191 44 753 193 44
WU . 30 MW200-1 753 290 44 753 293 44
4
200
WU . 40 MW200-2 753 291 44 753 294 44
WU . 50 MW200-3 753 292 44 753 295 44
WU . 60 MW200-4 753 296 44 753 297 44
AD . 40 MA250-1 753 490 44 753 570 44 818 649 44
AD . 50 MA250-2 753 49144 753 57144 811 208 44
AD . 60 MA250-3 753 492 44 753 572 44 787 989 44
250 WU . 40 MW250-1 753 590 44 753 580 44 -
WU . 50 MW250-2 753 591 44 753 581 44 -
WU . 60 MW250-3 753 592 44 753 582 44 -
WU . 70 MW250-4 753 593 44 753 583 44 -
AD . 50 MA315-1 754 190 44 754 270 44 811 208 44
AD . 60 MA315-2 754 19144 754 271 44 787 989 44
AD . 70 MA315-3 754 192 44 754 272 44 787 990 44
315 WU . 50 MW315-1 754 290 44 754 280 44 -
WU . 60 MW315-2 754 291 44 754 281 44 -
WU . 70 MW315-3 754 292 44 754 282 44 -
WU . 80 MW315-4 754 293 44 754 283 44 -
AD . 60 MA400-1 754 490 44 754 570 44 787 989 44
AD . 70 MA400-2 754 49144 754 57144 787 990 44
AD . 80 MA400-3 754 492 44 754 572 44 787 991 44
400
WU . 70 MW400-1 754 590 44 754 580 44 -
WU . 80 MW400-2 754 591 44 754 581 44 -
WU . 90 MW400-3 754 592 44 754 582 44 -
AD . 70 MA500-1 754 790 44 754 870 44 787 990 44
AD . 80 MA500-2 754 791 44 754 871 44 787 991 44
AU . 90 MA500-3 754 792 44 754 872 44 787 995 44
500
WU . 80 MW500-1 754 890 44 754 880 44 -
WU . 90 MW500-2 754 891 44 754 881 44 -
WU . 100 MW500-3 754 892 44 754 882 44 -
2033524a_en_250810.indd
1) Part no. includes depending on type torque bracket, bolted fastening parts and retaining elements
150 2) Check drive shafts fitted into hollow shafts for tight fit.
4.3 D2 torque bracket
Data for connection to the support structure
2)
A 40 - A 60 A 70 - A 80 A 90 X a
h2
h2
h2
d
h1 h1
d
h1
d
h1
h4
f f f
g
Detail X
Gearbox centre
Gearbox centre
u 1), 2)
Set nut,
centre
grade 8
4
41805946.eps
Gearbox Torque bracket Fastening bolts grade 10.9 Bore hole template
3)
82 163
60 135
7
45
63
200 Nm
17
20
145
60
39
17
65 49,5 25
135
41037843.eps
41037943.eps
41759544.eps 41759546.eps
205
20
550 Nm 159
10
70
100
M
180
40
80
29
49
90 18 28
184
220
41759545.eps 41759444.eps
2033524a_en_250810.indd
152
4.4 Buffers Buffers with a high energy absorption capacity are required to prevent any critical
deformation in structural steelwork resulting from travel units colliding with each
other or with the end of a track.
For cellular foam and rubber buffers, the complete volume of the buffer is utilised
as pressure is distributed over the whole section of the buffer. Lateral deformation
remains low even under maximum compression.
The favourable diameter-to-length ratio of this buffer ensures that any displace-
ment of the buffers due to play in the guidance of the crane rails has no adverse
effect.
4.4.1 Buffer dimensions For buffer impact special load situations, it is assumed that cranes, crabs and
travel carriages, etc. only rarely collide in normal operation.
The required buffer energy absorption capacity must be calculated:
• for the maximum possible buffer impact speed, however, at least k = 70 % of
the travel speed, if speed reduction devices are fitted
• with k = 85 % of the travel speed for cranes
• with k = 100 % of the travel speed for crabs, travel carriages, etc.
(k = buffer energy factor)
4
For an impact between two installations with identical buffers, calculate:
• mass acting on the buffer mpu
Masses acting on the buffer are the masses acting on the corresponding part of
the buffer depending on the distribution of masses of the structure when the buffer
is impacted. The masses acting on cellular and rubber buffers (DPZ, DPG) can be
doubled when a counterpart buffer of the same size is used.
mpu1 · mpu2
mpu =
mpu1 + mpu2
• Travel speed
v = l v1 l + l v2 l
v = Travel speed
v1 ... v2= Individual impact speeds of installations 1 and 2
2033524a_en_250810.indd
153
4.4.2 DPZ cellular plastic buffer Due to its excellent physical qualities as regards elasticity, cushioning and energy
absorption, the cellular polyurethane material is particularly well suited for buffers.
The buffer material is chemically resistant to ozone, oxygen, water, petrol and most
oils and industrial greases. The buffer is fully functional at operating temperatures
of – 20° C to + 80° C. In conditions of high humidity in conjunction with high tem-
peratures, the rubber buffer should be used.
Limit switch k=70% to 14,3 to 17,9 to 22,9 to 28,6 to 35,7 to 45,0 to 57,1 to 71,4 to 90,0 to 114,3 to 142,9 to 178,6 to 228,6
Long travel k=85% to 11,8 to 14,7 to 18,8 to 23,5 to 29,4 to 37,1 to 47,1 to 58,8 to 74,1 to 94,1 to 117,6 to 147,1 to 188,2
Cross travel k=100% to 10,0 to 12,5 to 16,0 to 20,0 to 25,0 to 31,5 to 40,0 to 50,0 to 63,0 to 80,0 to 100,0 to 125,0 to 160,0
DRS wheel
Buffer max. mass which can be buffered in kg without counterbuffer
block size
112 – 500 DPZ 70 6400 4170 2600 1710 1120 730 480
112 – 500 DPZ 100 22230 14500 9080 5980 2960 2610 1710 1160
160 – 500 DPZ 130 48480 31670 19660 12900 8500 5560 3610 2460
4
200 – 500 DPZ 160 87300 66760 34720 22740 14960 9760 6330 4270
315 – 500 DPZ 210 130140 84730 67730 34560 22760 14780 9660 6500 7360
With counterbuffer:
The maximum mass which can be buffered is doubled when a counterbuffer of the same size is used. Masses acting on the buffer are the masses acting on the
corresponding part of the buffer depending on the distribution of masses of the structure when the buffer is impacted. The masses acting on cellular and rubber
buffers (DPZ, DPG) can be doubled when a counterpart buffer of the same size is used.
The values given in the table are the maximum masses which can be buffered. It must be considered that deceleration must not exceed 3 g.
4.4.3 DPG rubber buffer The damping material consists of compact elastic rubber. This material has differ-
ent characteristics to that of the cellular plastic buffers.
This buffer material should preferably be used under conditions of high humidity.
The buffer is fully functional at operating temperatures of – 30° C to + 70° C.
DPG rubber buffer – masses acting on the buffer
Limit switch k=70% to 14,3 to 17,9 to 22,9 to 28,6 to 35,7 to 45,0 to 57,1 to 71,4 to 90,0 to 114,3 to 142,9 to 178,6 to 228,6
Long travel k=85% to 11,8 to 14,7 to 18,8 to 23,5 to 29,4 to 37,1 to 47,1 to 58,8 to 74,1 to 94,1 to 117,6 to 147,1 to 188,2
Cross travel k=100% to 10,0 to 12,5 to 16,0 to 20,0 to 25,0 to 31,5 to 40,0 to 50,0 to 63,0 to 80,0 to 100,0 to 125,0 to 160,0
DRS wheel
Buffer max. mass which can be buffered in kg without counterbuffer
block size
112 – 500 DPG 63 17490 11190 6830 4370 2790 1760 1090 690
112 – 125 27360 17510 10680 6840 4370 2750 1710 1090
DPG 80
160 – 500 36000 23040 14060 9000 5760 3620 2250 1440
160 – 200 66600 42620 26010 16650 10650 6710 4160 2660 1670
DPG 100
250 – 500 72000 460080 28120 18000 11520 7250 4500 2880 1810
250 – 315 136080 87090 53150 34020 21770 13710 8500 5440 3420
DPG 160
315 – 500 193680 123950 75650 48420 30980 19510 12100 7740 4870
315 – 500 280800 179710 109680 70200 44920 28290 17550 11230 7070
DPG 200
external 455760 291680 178030 113940 72920 45930 28480 18230 11480
2033524a_en_250810.indd
With counterbuffer:
The maximum mass which can be buffered is doubled when a counterbuffer of the same size is used.
The values given in the table only apply for buffers when fitted direct to the wheel block.
The maximum masses which can be buffered by the given buffer may be used when fitted to the connecting structure.
The values given in the table (max. masses which can be buffered by the relevant buffer) apply for buffers when fitted to the connecting structure and
154 when fitted direct to the wheel block.
4.4.4 DPH hydraulic buffer The buffer is an enclosed system consisting of maintenance-free hydraulic ele-
ments. Owing to almost uniform deceleration, this buffer makes it possible to
achieve the smallest possible braking force for the shortest possible brake path.
The permissible ambient operating temperatures range from -12 °C to +90 °C for
adjustable and + 65 °C for self-adjusting buffers; using special seals and special oil
from -40 °C to +120 °C.
The maximum axial deviation of the impact direction from the piston rod axis is ap-
prox. 3°. Hydraulic buffers can be installed in any position.
Limit switch k=70% to 14,3 to 17,9 to 22,9 to 28,6 to 35,7 to 45,0 to 57,1 to 71,4 to 90,0 to 114,3 to 142,9 to 178,6 to 228,6
Long travel k=85% to 11,8 to 14,7 to 18,8 to 23,5 to 29,4 to 37,1 to 47,1 to 58,8 to 74,1 to 94,1 to 117,6 to 147,1 to 188,2
Cross travel k=100% to 10,0 to 12,5 to 16,0 to 20,0 to 25,0 to 31,5 to 40,0 to 50,0 to 63,0 to 80,0 to 100,0 to 125,0 to 160,0
DRS wheel
Buffer max. mass which can be buffered in kg without counterbuffer
block size
4
112 – 500 DPH 80 8000 8000 8000 5000 3200 2010 1250 800
315 – 500 DPH 350 10000 10000 8800 7300 5000 3200 2040
The values given in the table are the maximum masses which can be buffered. It must be considered that the minimum mass to be buffered must not be less than
20 % of the table value due to the acceleration which occurs in the event of a buffer impact.
2033524a_en_250810.indd
155
4.5 Buffer dimensions
4.5.1 Buffer elements, DPZ cellular plastic buffer
Dimensions in mm
DPZ cellular plastic buffer
DRS wheel w/o guide rollers with guide rollers
Buffer
block size
d1 d2 l1 l2 Threaded pins (2)
DPZ 70 70 65 70 26 M12 x 30
41671244.eps
DPZ 100 100 95 100 26 M12 x 30
250 315
400 DPZ 130 130 122 120 26 M12 x 30
500
DPZ 160 160 155 150 40 M12 x 30
41828744.eps
DPZ 070
112 / 125 11 ± 0,5
DPZ 100
DPZ 070
DPZ 100
160 / 200 14 ± 0,5 41828644.eps
DPZ 130
DPZ 160
2033524a_en_250810.indd
41642344.eps
156
To ensure uniform buffer impact with a horizontal guide roller arrangement fitted to
only one wheel block, type E1/E2 spacers must be fitted between the buffer and
wheel block on the opposite side.
Spacer elements
DRS 112 – 125 – 160 – 200 DRS wheel
Buffer E1 E2
block size
s1 Part no. s2 Part no.
Stop
41642544.eps
4
Buffer set part no.
DRS wheel Solo fitting to DRS or connecting Compensating side incl. distance Guide roller arrangement incl. dis-
Buffer
block size structure w/o distance element element tance element
Stop
42017444.eps
2033524a_en_250810.indd
Dimensions in mm
DPG rubber buffer
DRS wheel w/o guide rollers with guide rollers
Buffer
block size
d1 d2 l1 l2 Threaded pin (2)
DPG 63 63 56 67 26 M12 x 30
41828744.eps
DRS wheel l4
Buffer
block size mm
DPG 063
112 / 125 11 ± 0,5
DPG 080
DPG 063
41642344.eps
158
To ensure uniform buffer impact with a horizontal guide roller arrangement fitted to
only one wheel block, type E1/E2 spacers must be fitted between the buffer and
wheel block on the opposite side.
Stop
41642544.eps
4
Buffer set part no.
DRS wheel Solo fitting to DRS or connecting Compensating side incl. distance Guide roller arrangement incl. dis-
Buffer
block size structure w/o distance element element tance element
Stop
42017444.eps
2033524a_en_250810.indd
41546801.eps 41546802.eps
500
DPH 25 UNF1¼
230 + 50,8 189 17 25,4 0,76 M 12 207 40 811 295 44
adjustable - 12
8000
54
DPH 80 UNF1¾
780 + 76 246 23 38 2,1 M 12 267 40 811 296 44
adjustable - 12
9500
1) Part no. includes hydraulic buffer, nut, adapter, threaded pin and set nut
160 2) Second nut required for installation variant II for foot or neck mounting configuration
2033524a_en_250810.indd
161
4
4.6 Guide rollers
Guide rollers must not be used with rails that have sloping head flank surfaces.
Ordering information:
If a guide roller arrangement is specified in the type key when ordering a single
wheel block, this is prepared for fitting before leaving the factory.
4
Attention! For fitting the horizontal guide roller arrangement, make sure it is suit-
able for application in conjunction with the rail fastening (see chapter 2.7) and the
type of rail. See chapter 2.7.5 for flat rails and chapter 2.7.6 for crane rails.
4.6.2 Horizontal guide rollers
DRS 112 – 200
s s
k = Rail width
42015744.eps
DRS 112 – 125 – 160 DRS 200
2033524a_en_250810.indd
41641644.eps
162
Tightening
Dimensions in mm
torques
DRS
in Nm
wheel
block
size Locking screw
112 130 1 5 80,5 4,5 30 70 20,6 52 126,5 38,2 76 180 5 60 125 24,5
160 330 130 1 5 109 7,5 30 80 23,8 72 162 65 93,5 230 6 72 173,5 29
4
125
E 98 752 310 44 752 311 44 752 310 44
1) Part no. includes roller guide arrangement and bolted fastening parts
2) Part no. includes roller guide arrangement, bolted fastening parts and roll pins 163
4.6.3 Horizontal guide rollers
DRS 250 – 500
l3
a
n
m1 s k s
m
4
42015245.eps
The four-point bearing is sealed at the top with a labyrinth Distance elements must be fitted
sealing washer and at the bottom with a metal plate. between the wheel block and roller
The bearing arrangement is lubricated for life. bracket for travel wheel type E
b2 l
a14
b3
d3
b4 d2
l4
l5
h1
h2
h3
b5
b1
b1
d4
d1
d b
164
DRS wheel block Dimensions in mm
size smin smax a a7 kmin kmax bmin bmax b1 b2 b3 b4 b5 d d1
Dimensions in mm
DRS wheel block
size a14
d2 d3 d4 h1 h2 h3 l l3 l4 l5 m m1 n
± 0,2
250 18 30 g6 95 46 40 15 296 70 65,5 3,5 20 218 128 38
4
DRS wheel block Travel wheel type a Retrofitting set part no.
size mm Fitted to wheel block Fitted to connecting structure 3)
1) Part no. includes roller guide arrangement and bolted fastening parts
2) Part no. includes roller guide arrangement, bolted fastening parts and distance element
3) If the horizontal guide roller arrangement is not fitted to the DRS wheel block, the corresponding connecting structure
must be provided with 2 counterpart bore holes: DRS 250 = dia. D30H8
DRS 315 = dia. D32H8
DRS 400 = dia. D44H8
DRS 500 = dia. D54H8 165
4.7 Shaft protection for central drive unit
Under normal conditions, the shaft protection tube used in combination with the greased splines offers protection against cor-
rosion and external damage.
1) Each part no. includes a long shaft protection tube which can be simply cut to the required lengths by the customer.
166
4.8 Options
4
Relubrication on inaccessible side surfaces, e.g. due to fitted drive or superstructure. Lubrication nipple part no. 350 580 99
can be used for the accessible side.
Detail X
Relubrication on inaccessible side surfaces, e.g. due to side connection or similar connecting structures. Lubrication nipple
part no. 350 580 99 can be used for the accessible side.
Detail Y
2033524a_en_250810.indd
4.8.3 Travel wheels with hardened For operating conditions in which increased wheel flange wear is likely (e.g. rails
treads and wheel flanges with extreme dirt accumulation), the running surfaces of the spheroidal graphite
cast iron travel wheel flanges can be specially hardened (penetration depth up to
3 mm). Hardening is then to 56 ± 2 HRc.
This does not apply to flanges turned at a later date beyond the standard tread,
e.g. DRS 112 to 62 mm.
4.8.5 Temperatures + 70 ºC – + 150 ºC High-temperature grease, V sealing ring of Viton and relubrication opening closed
DRS 250 – 500 with screws.
4.8.6 Bore holes through top If the wheel block is fitted with the running surface facing upwards, the bore hole
connection surface serves as a water drain opening, e.g. for operation outdoors.
2033524a_en_250810.indd
168
4.8.7 Rail cleaning system The on-board brush system largely keeps the rail clean. For fitting the rail cleaning
system, the wheel block must be prepared for fitting horizontal guide rollers, i.e.
threaded inserts on the end face are required. The rail-cleaning system can also
be fitted in combination with a buffer bracket. The maximum buffer size that can be
fitted to sizes DRS 125 - DRS 200 is DPZ 100 and DPG 100, respectively.
The rail-cleaning system in combination with horizontal guide rollers is not
possible.
4
42772044.eps 42791444.eps
4.8.8 Aligning device See section 1.9 for information on the aligning device.
2033524a_en_250810.indd
169
5 Demag DRS wheel block system
Specification
12 3 4 5 6
41629244.eps
12 3 4 5 6
5
41629344.eps
Duty factor
Duty factor
Duration of cycle
41631544.eps
170
Intermittent duty The ratio of load time to the duration of the cycle is called the relative duty fac-
tor (CDF). Recommended values to EN 600341 are 15, 25, 40 and 60 %. If a
10 minute duration of cycle is not exceeded, the relative duty factor is calculated
as follows:
Minimum values for starts per hour Minimum values for the starts per hour, the context for the minimum values be-
tween duty factor, number of load cycles per hour and starts per hour are given in
the table of minimum values (to FEM 9.683).
In practical operation, lower numbers of cycles may also occur in the lower groups
for the given number of starts and higher numbers of cycles, e.g. for automatic
operation, may occur in the higher groups. If travel motors are used in temporary
duty, e.g. for long travel paths, no more than 10 starts may occur. Minimum values
for the ON-time are given in the table of minimum values for the individual groups
of mechanisms.
5
1 Am M4 ³ 25 ³ 150 25 > 25 min 3,0 min
Temporary duty For special operating conditions (e.g. long travel path) the ON-time must only be
long enough for the permissible limit temperatures not to be exceeded. In such
cases, temporary duty is permitted in place of intermittent duty. In this operating
mode, a travel motor which has cooled down to the temperature of the coolant may
be operated for a certain time with the travel load.
Minimum values for the ON-time for low and high-pole windings are given for the
individual groups of mechanisms in the table of minimum values. No more than
10 starts may occur during this ON-time.
Mixed duty Intermittent duty and temporary duty alternate in mixed operation. The permissible
limit temperatures must not be exceeded for this duty type.
2033525a_en_250810.indd
The table of minimum values applies for travel drives with one travel speed for in-
termittent duty. In the case of travel motors for two travel speeds, the values apply
for both windings taken together.
171
The following conditions are assumed:
The values for starts according to the table of minimum values apply to equal dis-
tribution over an hour. Other calculations are required for flick-switching (inching
operation).
160
100
v [m/min]
80
F
63
50
40
31,5
25
20
16
10
5
1 2 3 4 5 6 8 10 20 30 40 50 60 80 100 200
s [m]
41416644.eps
The diagram shows the travel speed as a function of the average travel path for
speed efficiency η = 0,85 and acceleration/braking ≈ 0,2 m/s2.
2033525a_en_250810.indd
172
5.1.3 Combination:
Motor speed
travel wheel/travel speed/ Travel speed in m/min
in rpm
transmission ratio
4-pole 1450 5 6,3 8 10 12,5 16 20 25 31,5 40 50 63 80
2-pole 2900 10 12,5 16 20 25 31,5 40 50 63 80 100 125 160
Travel wheel
Required gearbox transmission ratio
dia. in mm
112 102 82 64 51 41 32 25 20 16 13 10 8 6
125 114 91 71 57 46 36 28 23 18 14 11 9 7
160 146 117 91 73 58 46 36 29 23 18 15 12 9
200 182 146 114 91 73 58 46 36 29 23 18 15 11
250 228 182 142 114 91 72 57 46 36 28 23 18 14
315 287 230 179 143 115 91 72 57 46 36 29 23 18
400 364 292 228 182 146 116 91 73 58 46 36 29 23
500 456 364 285 228 182 145 114 91 72 57 46 36 28
For inverter operation with 4-pole motors in 87 Hz operation, the required gearbox
transmission ratios must be multiplied with √3.
5.1.4 Full load hours based on the Group of mechanisms Calculated total running time in hours
group of mechanisms (full load hours)
FEM ISO
1 Bm M3 400
1 Am M4 800
2m M5 1600
5
3m M6 3200
4m M7 6300
5m M8 12500
2033525a_en_250810.indd
173
5.2 Travel resistance Travel wheel dia.
DRS wheel block Specific travel resistance in N/t
(friction bearings) in mm
112 155
5.2.1 GJS (GGG) spheroidal 112
126 140
graphite cast iron travel 125 141
125
wheels 145 123
160 112
160
183 099
200 092
200
226 082
250 075
250
270 070
315 061
315
340 057
400 049
400
440 045
500 040
500
545 037
5.2.2 Hydropur travel wheels Travel wheels with Hydropur-elastomer rims 94 ±2 Shore “A”
The traction resistance of travel wheels depends largely on the deformation at the
point on which the wheel stands. In the case of Hydropur-elastomer wheels, the
deformation varies as a function of load and time. The specific traction resistances
are given for 3 possible cases of operation:
Case A: Traction resistance in the travel wheel after several revolutions in opera-
tion. Deformation from the rest state has been smoothed out.
Case B: Traction resistance after being at rest for 10 minutes under full load (ini-
5
174
5.2.4 Travel wheels for V rails Travel wheel dia.
DRS wheel block Specific travel resistance in N/t
in mm
112 112
125 125
160 160
200 200
On request
250 250
315 315
400 400
500 500
5
2033525a_en_250810.indd
175
5.3 Determining the The maximum permissible wheel load for a wheel block is determined by the mini-
mum of:
maximum permissible
• the travel wheel – rail components, determined over the entire operating time in
wheel load hours;
• the wheel block and connection components, determined on the basis of the
number of load changes;
• the driven wheel block component at temperatures from 40° to 80° C
Rmax perm = Minimum [Rperm (temperature) : Rperm (rail) : Rperm (wheel block)]
5.3.1 Determining the mechanisms The mechanisms are classified in groups depending on duty in order to apply the
according to duty given calculation principles.
The group to which a mechanism belongs is determined by the factors
• Operating time class,
• Load spectrum,
• Load cycle ranges.
5
Operating time class The operating time class specifies the average operating time of a mechanism per
day (see table 1). A mechanism is considered to be in operation when it is in mo-
tion.
For mechanisms which are not used regularly throughout a year, the average oper-
ating time per day is defined by the ratio of the annual operating time to 250 work-
ing days per year.
Higher operating time classes are only reached in multiple-shift operation (see
example in section 5.5.3).
Table 1
Operating time class Average daily operating time in hours
V 0,06 T0 ≤00,12
V 0,12 T1 ≤ 00,25
V 0,25 T2 ≤ 00,5
V 0,5 T3 ≤ 01
V1 T4 ≤ 02
V2 T5 ≤ 04
V3 T6 ≤ 08
2033525a_en_250810.indd
V4 T7 ≤ 16
V5 T8 > 16
176
Load spectrum The load spectrum defines to what degree a mechanism or a part of it is subject to
its maximum load or only smaller loads.
The cubic average value k with reference to the load capacity is required for exact
classification in the group. This value is calculated using the following equation:
3
Raverage = √(R1 + R0)3 · t1 + (R3 + R0)3 · t2 + (R3 + R0)3 · t3 + ...+ R03 · t∆
Raverage
k=
Rmax
Table 2 A distinction is made between four load spectra which are defined and indicated in
table 2 by the ranges of the cubic average values k.
Cubic aver-
Load spectrum Definition
age value
L 1 (light)
5
Mechanisms or parts thereof, usually subject to
k ≤ 0,50
small partial load light loads and occasional maximum loads
small deadload
Load
Operating time
L 2 (medium)
Operating time
L 3 (heavy)
Operating time
L 4 (very heavy)
2033525a_en_250810.indd
Operating time
177
Load cycle ranges Depending on the operating conditions, the total number N of load cycles for the
wheel block may be equal to the number of operating cycles or a multiple thereof;
a load cycle is understood to be each single loading and unloading between pick-
up and depositing of a load and an operating cycle is understood to be the move-
ments required to carry out a complete handling operation.
Load cycle ranges N1 to N4 are taken from DIN 15018 (calculation of steel sup-
porting structures for cranes).
5.3.2 Determining according to the The group of mechanisms is determined for all parts of the wheel block whose
5
group of mechanisms failure parameters are measured according to the number of revolutions and/or the
total operating time.
Using the operating time classes and the load spectra, the mechanisms are classi-
fied in 8 groups as shown in table 5:
178
5.3.3 Estimating the wheel block Using section 5.1.4, it is possible to determine the wheel block service life on the
service life basis of the classification according to groups of mechanisms. This does not con-
sider special loads and other external influences.
La (DRS) = (FEM/ISO) ·
( Rperm
Raverage )
dA · taverage
5.3.4 Determining according to the The number of service life load cycles is determined for all parts of the wheel block
number of service life load whose failure parameters are measured according to the number of load changes.
5
cycles for wheel blocks and
connections to DIN 15018
Rperm (wheel block) = Permissible wheel load for wheel block and connections
Rmax = Maximum wheel load of the wheel block system (table 6)
fa = Degree of utilization of the wheel block system (table 7)
Determining the utilization factor fa on the basis of the load spectrum and the load
cycle range represents the relationship between FEM 9.511 and DIN 15018.
2033525a_en_250810.indd
179
Table 6 DRS wheel block size Rmax in kg
Maximum wheel loads of the wheel 112 3500
block system
125 5000
160 7000
200 10000
250 16000
315 22000
400 30000
500 40000
5.3.5 Determining the number of A number load changes x with pick-up and depositing of a load is assumed per op-
load cycles erating cycle. This results in the wheel block duration of utilization from the number
of load cycles as in section 5.3.4.
Table 7 N1 N2 N3 N4
Load spectrum
Utilization factor fa ≤ 2 · 105 ≤ 6 · 105 ≤ 2 · 106 ≤ 6 · 106
L1 1 1 0,95 0,7
L2 1 1 0,85 0,65
The utilization factor determines the maximum percentage utilization of the maxi-
mum wheel load as a function of load spectrum L and the number of load cycles
selected on the basis of the total service life.
2033525a_en_250810.indd
180
5.4 Selection example • DRS 125 with Rmax = 5000 kg
permissible wheel • Permissible wheel load R = 2500 kg from v = 40 m/min, FEM 3m and A55 rail,
St 60-2/E 355, 50° C ambient temperature
load
• Permissible horizontal force for roller guide FH = 15 % of 2500 kg = 375 kN
Group of mecha-
Permissible wheel load in kg
nisms
Travel speed in m/min
FEM ISO
12,5 16,0 20,0 25,0 31,5 40,0 50,0 63,0 80,0 100,0 125,0 160,0
2m M5 3970 3680 3410 3150 2920 2700 2500 2320 2150 1986
3m M6 3680 3390 3150 2920 2700 2500 2320 2150 1980 1840 1710 1576
4m M7 2940 2700 2510 2330 2160 1990 1850 1710 1580 1470 1360 1258
5m M8 2340 2150 2000 1850 1720 1580 1470 1360 1260 1170 1080 1001
for temperature fK A uniform temperature-dependent reduction factor fK is used for the entire wheel
block.
– 20 ºC
DRS wheel to to to to to to to to to to to
to
block size 50 ºC 60 ºC 70 ºC 80 ºC 90 ºC 100 ºC 110 ºC 120 ºC 130 ºC 140 ºC 150 ºC
+ 40 ºC
5
DRS 112 – 200
driven
1 0,85 0,8 0,75 0,6 a. A. a. A. a. A. – – – –
DRS 250 – 500 1 1 0,92 0,90 0,88 0,86 0,84 0,82 0,80 a. A. a. A. a. A.
a. A. = On request
for rail material fSt travel A reduction factor fST is introduced for linear or point contact depending on the
wheel material GJS-700-2 material of the rail.
(GGG 70)
Factor fSt
Material DIN EN 10025
Linear contact Point contact
St 70-2/E 360 1 1
Rail
St 60-2/E 335 1 0,44
181
Rail shape A rail
Rail shape Rail curve radius in mm
DIN 536 Part 1
A 045 400
A 55 400
A 065 400
A 075 500
A 100 500
A 120 600
41409244.eps A 150 800
≥ 665
≥ 790
≥ 1005
≥ 1260
182
5.5 Selection example
wheel block compo-
nents
5.5.1 Project description Project for a tool-changing carriage corresponding to the diagram below.
R6
Top connection
41805344.eps
5
The carriage is to transport casting tools of various weights. The carriage is to
have four wheels, the wheel load is to be distributed evenly over the four wheels.
Note: If the travel wheel and rail assignment is unknown, refer to the notes in section 2.7.
If the travel speed is unknown, select an efficient travel speed as in section 5.1.2.
2033525a_en_250810.indd
183
5.5.3 Determining the group of The permissible wheel loads (calculation according to the number of load cycles)
mechanisms and the number and FEM 9.511 (calculation according to revolutions) are determined on the basis
of service life load cycles of the group of mechanisms and the number of service life load cycles.
Determine the operating time class Time to load the carriage: tload = 20 sec.
Carriage travel time: trun = 25 sec.
Load transfer time: ttrans = 20 sec.
Carriage return trip without load: tret = 25 sec.
Pause between two cycles tpause = 60 sec.
This operating cycle is used in single-shift operation, i.e. the daily operating period
is tday = 8 hours
20
05
Load the car- Travel with Unload the Return Pause of 1 min
riage load carriage empty
0 m/min
0 20 25 20 25 Time
[sec]
41805544.eps
5
scycle
Total travel time of carriage per cycle: trun= = 50 s
vm
1h
Number of cycles per hour: ncycle = = 24
tcycle+ tpause
Average carriage daily operating time: taverage = trun · ncycle · tday = 2,67 h
V 0,12 T1 ≤ 0,25
V 0,25 T2 ≤ 0,5
V 0,5 T3 ≤1
V1 T4 ≤2
V2 T5 ≤4
V3 T6 ≤8
V4 T7 ≤ 16
V5 T8 > 16
2033525a_en_250810.indd
184
Determine the load spectrum The load spectrum indicates to what degree a mechanism is subject to its maxi-
mum load or smaller loads.
The cubic average value k with reference to the load capacity is required for exact
classification in the group. The ratio of the average cubic load, from the load spec-
trum, to the maximum load capacity must be calculated.
The wheel loads for operation of the carriage are to be distributed as follows:
8000 28
7200 20
2500 50
5800 02
Load [kg]
8000 kg
7200 kg
Average wheel
load
5800 kg
5
28% 20% 2% 50%
100% Time
[%]
41805444.eps
Raverage = 6124 kg
Wheel block selection The maximum wheel load for this application is 8000 kg. A DRS 250 is initially
selected from the load capacity tables with a max. load capacity Rmax = 10000 kg
(section 5.3.4, table 7).
Raverage 6124 kg
k= = = 0,612
Rmax 10000 kg
185
Determine the group of mechanisms According to FEM 9.511, classification into groups of mechanisms results in a
service life of approx. 10 years.
Group of mecha-
Permissible wheel load in kg
nisms Useful rail
head width in
mm Travel speed in m/min
FEM ISO
12,5 16 20 25 31 40 50 63 80 100 125 160
30 05750 05340 4990 04670 04360 04050 03790 03540 03290 03080 02880 02670
35 06710 06230 5830 05450 05080 04730 04420 04130 03840 03590 03360 03120
40 07670 07120 6660 06230 05810 05410 05060 04720 04390 04110 03840 03570
2m M5
45 08630 08010 7490 07010 06540 06080 05690 05310 04940 04620 04325 04010
50 09580 08900 8320 07780 07260 06760 06320 05900 05490 05130 04800 04460
³ 55 10000 09790 9160 08560 07990 07440 06950 06490 06040 05650 05280 04900
According to section 2.7.5 a maximum permissible wheel load from linear contact
is given Rperm (rail) = Rperm (line contact) x fSt
= 8320 kg x 1,0
= 8320 kg
Factor According to section 1.11 a maximum permissible wheel load from temperature is
Material
fSt given Rperm (temperature) = Rperm (line contact) x fK
St 70-2/E 360 1 = 8320 kg x 1,0
Rail St 60-2/E 335 1 = 8320 kg
St 52-3/S 355 J 2 G 3 1 This results in a maximum wheel load
St 37-2/ S 235 J R 0,25 Rmax perm = Minimum [ Rperm (rail) : Rperm (temperature)]
= Minimum [ 8320 kg : 8320 kg ]
2033525a_en_250810.indd
= 8320 kg
Rmax ≤ Rmax perm
8000 kg < 8320 kg.
186
Wheel block service life On the basis of 1600 hours of full load service life in group of mechanisms 2 m
(see section 5.1.4) acc. to section 5.3.3.
( Rmax
Raverage )
L a(DRS) = FEM/ISO · dA · taverage
3
L a(DRS) = FEM/ISO · ( Rmax
Raverage )
3
L a(DRS) = 1600 · ( 10000
6124 )
= 6966 h
6966
L a(DRS) =
250 · 2,67
= 10,5 years
5
The next larger wheel block must be selected if a higher service life is required.
= 504.630 cycles
Determine the number of service life A theoretical load changing operation with load pick-up and load depositing is car-
load cycles ried out for each operating cycle. For practical purposes (e.g. for aligning the tool
on the carriage and depositing it at an intermediate position) x = 3 load changing
operations per operating cycle is assumed.
187
5.5.6 Determining the permissible N1 N2 N3 N4
wheel load Load spectrum
≤ 2 · 105 ≤ 6 · 105 ≤ 2 · 106 ≤ 6 · 106
L1 1 1 0,95 0,7
L2 1 1 0,85 0,65
The maximum permissible wheel load for the DRS 200 is 10000 kg according to
section 5.3.4 table 6.
Accordingly, the maximum permissible load amounts to
5.5.7 Buffer selection DPZ cellular foam buffers are the standard buffers for the DRS wheel block sys-
tem. From section 4.4.2 this implies for:
Travel speed of 20 m/min
Cross travel (no speed reduction measures)
Maximum mass to be buffered 32000 kg distributed on 2 buffers per side:
without counterbuffer: Buffer size DPZ 160, 16000 kg
5
Long travel k=85% to 11,8 to 14,7 to 18,8 to 23,5 to 29,4 to 37,1 to 47,1 to 58,8 to 74,1 to 94,1 to 117,6 to 147,1 to 188,2
Cross travel k=100% to 10,0 to 12,5 to 16,0 to 20,0 to 25,0 to 31,5 to 40,0 to 50,0 to 63,0 to 80,0 to 100,0 to 125,0 to 160,0
DRS wheel
Buffer max. mass which can be buffered in kg without counterbuffer
block size
112 – 400 DPZ 70 6400 4170 2600 1710 1120 730 480
112 – 400 DPZ 100 22230 14500 9080 5980 2960 2610 1710 1160
160 – 400 DPZ 130 48480 31670 19660 12900 8500 5560 3610 2460
200 – 400 DPZ 160 87300 66760 34720 22740 14960 9760 6330 7270
400 DPZ 210 130140 84730 67730 34560 22760 14780 9660 6500 7360
With counterbuffer:
The maximum mass which can be buffered is doubled when a counterbuffer of the same size is used.
The values given in the table are the maximum masses which can be buffered. It must be considered that the minimum mass to be buffered must not be less than
20 % of the table value (40 % when a counterbuffer is used) due to the acceleration which occurs in the event of a buffer impact.
2033525a_en_250810.indd
188
5.5.8 Guide arrangement The carriage is to be fitted with travel wheels with flanges. A travel wheel tread of
b = 65 mm is required for a 55 x 30 flat rail.
to to 3) A D min. max. k
112 80 60 62 47, 60 47 1 5 40, 45, 50, 55, 60
5
315 130 90 96 65, 80, 90 80, 90 1 5 60, 70 75, 80, 90
65, 70, 75, 80, 90,
400 155 110 - 80, 90, 110 80, 110 1 5
100
500 170 110 - 90, 110 90, 110 1 5 70, 75, 80, 90, 100
100
1400 26 14 4 23 11 1 2 3
2800
4200
5600 5
7000
8400
9800 6
11200 12 5
12600
14000
15400 8 10 20 24 13
5
16800 7 9 19
18200 22
19600 16 20 15
21000 21
22400
23800
25200 17
26600 22 25
28000
29400 21
30800 28 30 32 18 20
32000
32200 29 19
Gearbox/motor combination 29
33600
35000
36400
37800 40 34 36 27 39 31 33
39200 35
40600
38 37
2033525a_en_250810.indd
Check the gearbox/motor combination as in section 2.5 ZI central drive unit, inside arrangement
ZBF ZBA
5
90B, 100A 90B, 100A/B ● ● ● ● ● ● ● ● ● ● ●
112A, 132A/B 112A, 132A/B/C ● ● ● ● ● ● ●
160A/B,180A ● ● ● ●
180B,200A ●
225A/B ●
191
Check the motor with the motor technical key data (see geared motor catalogue 203 150 44, section 5.2.3)
PN nN MN IN cos j N IA / IN MA / MN MH Jmot A
Brake Weight
Type 400 V
MB Std
kW rpm Nm A Nm kgm2 h-1 Type Kg
Nm
0,06 0675 0,85 0,66 0,59 1,40 2,20 1,7 720
ZBF 63 A 8/2 0,00459 B003 1,4 10
0,25 2745 0,87 0,95 0,71 2,65 2,10 1,5 550
0,09 0675 1,25 0,76 0,61 1,60 2,70 2,5 620
ZBF 71 A 8/2 0,00690 B003 1,9 12,2
0,34 2785 1,15 1,00 0,73 3,50 2,60 2,5 500
0,13 0630 1,95 1,20 0,64 1,20 2,10 3,5 620
ZBF 80 A 8/2 0,01275 B020 3,3 19,5
0,50 2790 1,70 1,40 0,73 4,50 2,60 4,0 500
0,20 0690 2,80 1,50 0,50 1,95 2,50 6,5 580
ZBF 90 B 8/2 0,02169 B020 4,4 28,2
0,80 2765 2,80 2,30 0,79 3,60 2,40 6,2 450
0,29 0685 4,00 2,10 0,50 1,80 2,50 9,0 460
ZBF 100 A 8/2 0,03092 B050 8,3 35
1,20 2760 4,20 3,20 0,82 4,00 2,50 9,5 350
0,46 0705 6,20 2,50 0,49 2,50 2,40 15 460
ZBF 112 A 8/2 0,04374 B050 11 56,4
1,90 2855 6,40 4,30 0,85 5,30 2,40 14,5 350
0,72 0700 9,80 3,10 0,53 2,45 2,00 20 400
ZBF 132 A 8/2 0,07267 B140 18 74
2,90 2815 9,80 6,70 0,91 5,50 2,40 23 320
0,88 0700 12,00 4,10 0,50 2,55 2,20 26 360
ZBF 132 B 8/2 0,09286 B140 23 76
3,50 2860 11,70 7,70 0,86 6,00 2,70 30 300
Required balancing power at full with a specific traction resistance for a DRS 200 GJS (GGG) of 92 N/t from sec-
5
DRS wheel block size Travel wheel dia. in mm Specific travel resistance in N/t
200 200 92
Wsp · m
FW =
1000
92 N / t · 32000 kg
FW =
1000
FW = 2944 N
η = 0,85
PBal for
FW · v
PBal =
6000 · η
2944 N · 5 m/min
2033525a_en_250810.indd
PBal1 = = 0,288 kW
6000 · 0,85
2944 N · 20 m/min
PBal2 = = 1,15 kW
6000 · 0,85
192
Acceleration and braking Certain intermediate calculations are required to calculate the acceleration and
deceleration rates:
n
Fa = AM · MH · ·2· ·η
v
685 rpm
Fa1 = 1 · 9 Nm · ·2· · 0,85 = 6585 N
5 m/min
2800 rpm
Fa2 = 1 · 9,5 Nm · ·2· · 0,85 = 7103 N
20 m/min
AM = Number of motors
MH = Average run-up torque
n 2
mM = 4 · 2 · AM · JMot · (v)
685 rpm 2
mM1 = 4 · 2 · 1 · 0,03092 kgm2 · ( 5 m/min ) = 22910 kg
2800 rpm 2
mM2 = 4 · 2 · 1 · 0,03092 kgm2 · ( 20 m/min ) = 23925 kg
5
mMH = mM · η
mM
mBr =
η
22910 kg
mBr1 = = 26953 kg
0,85
23925 kg
mBr2 = = 28147 kg
0,85
n 1
FBR = AM · MBr · ·2· ·
v η
685 rpm 1
FBR1 = 1 · 8,3 Nm · ·2· · = 8405 N
2033525a_en_250810.indd
5 m/min 0,85
2800 rpm 1
FBR2 = 1 · 8,3 Nm · ·2· · = 8589 N
20 m/min 0,85
193
results in an acceleration of
Fa – Fw
a=
mMH + m
FBr – Fw
aBr =
MMBr + m
8405 N – 2944 N
FBr1 – Fw aBr1 = = 0,19 m/s2
aBr1 = 26953 kg + 32000 kg
MMBr1 + m
Motor starting frequency Starting-up via the 8-pole winding (starting at slow speed) results in a starting-up
time from slow speed V1 to fast speed V2
V2 – V1
t=
60 · a2
20 m/min – 5 m/min
t=
60 · 0,08 m/s2
t = 3,1 s
A
c=
t
1
350 ·1s
h 1
c= = 113
3,1s h
V1
t1 =
60 · a1
2033525a_en_250810.indd
5 m/min
t1 =
60 · 0,066 m/s2
t1 = 1,26 s
194
results in the following possible starting frequency:
A
c=
t1
1
460 ·1s
h
c=
1,26 s
1
c = 365
h
A cycle time of 24 per hour was required in the application. This requires a starting
frequency for the 2-pole winding, i.e. for the high speed, of 48 per hour.
The motor is suitable for 113 starts per hour for the 2-pole winding and is, there-
fore, adequately dimensioned.
The final step is to check the brake, with the moment of inertia of the mass dis-
placed with reference to the motor shaft
m·v 2
JLoad
·η
= 4 · 2 · n2
5
Jtot = 0,03092 kgm2 + 0,0351 kgm2
PBal2 · η
ML = · 9550
n
1,15 kW
ML = · 9550
2880
ML = 3,92 Nm
resulting in friction of
Jtot · ∆n2 MB
WR = ·
182,4 MB + ML
0,066 kgm2 · (2800 rpm)2 8,3 Nm
WR = ·
182,4 8,3 Nm + 3,92 Nm
WR = 1927 Ws
With friction of approx. 2000 Ws and brake B050, the following diagram
2033525a_en_250810.indd
(n = 2000 – 3600 rpm) indicates approx. 700 permissible braking operations per
hour from maximum speed to standstill.
48 braking operations were required in the application. Additional braking opera-
tions from the low speed no longer have to be checked separately since the friction
energy is 16 times smaller than for braking from the high speed, which would result
in more than 1000 possible braking operations. 195
Permissible friction per braking operation depending on starting frequency per hour
100000
1000
Permissible friction WR per braking operation in J
100
10
1 10 100 1000 10000
Braking operation per hour 42505744.eps
5
Permissible friction per braking operation depending on starting frequency per hour
100000
10000
1000
Permissible friction WR per braking operation in J
100
2033525a_en_250810.indd
10
1 10 100 1000 10000
196 Braking operation per hour 42505844.eps
5.5.10 Travel wheel slip torque for For a geared motor selected in this way, the gearing is durable, the service life is
crane and cross travelling only limited by the friction bearings, the sealing rings or the lubricant.
In addition, the gearbox must be checked for a gearbox limit load which may occur
when the travel wheels slip or if the travel unit collides with the buffers.
With uniform distribution of the weight, this results in
Total weight
Rmax =
Number of wheels
32000 kg
Rmax = = 8000 kg
4
and, therefore, with an adhesion coefficient for GJS (GGG) cast iron travel wheels
of μ = 0,2,
d Number of wheels
Mp = Rmax · μ · 9,81 · ·
2 Number of motors
0,2 m 4
Mp = 8000 kg · 0,2 · 9,81 · · = 3140 Nm
2 2
The gearbox limit torque of the A...40 gearbox (from travel wheel slip torque) with
the transmission ratio of i = 91,1 (from geared travel motors catalogue Volume 3,
203 013 44, section 3) results in
5
A 40 A 50
perm. wheel perm. wheel
i gear M gear. limit i gear M gear. limit
load load
Without travel wheel slip torque Therefore, Mpu > Mlimit and the gearbox is not adequately dimensioned for the ap-
plication with travel wheel slip torque.
The perm. wheel load (10092 kg) is < than the total of the wheel loads (2x8000 kg)
of the drive chain for a central drive arrangement.
The load case “travel wheel slip torque” caused by, for example, buffer impact
must be excluded. It this cannot be guaranteed, a larger gearbox must be used. In
this case, select and check gearbox size A50.
Note
For reasons of simplification, a specified standard speed is assumed for this calcu-
lation. The actual speeds in the application are dependent on the actual transmis-
sion ratio, the motor load and, therefore, on the resulting motor speed. This results
in a speed of 688/2815 rpm at full load for this example. Therefore, the actual
2033525a_en_250810.indd
197
5.5.11 Select the drive shaft For the track gauge of 2100 mm and the drive selected in accordance with section
3.11.2, the following drive shaft set should be selected:
The intermediate shaft is suitable for a maximum track gauge of 2240 mm and can
be shortened appropriately to the actual track gauge dimension.
5.5.12 Determine the type key The following type key is selected for the four wheel blocks according to sec-
tion 2.7:
1 x DRS 200 – A 50 – A 65 – K – X – A40
1 x DRS 200 – MA 50 – A 65 – K – X – X
2 x DRS 200 – NA – A 65 – K – X – X
5.5.13 Special measures The tool-changing carriage is operated indoors at normal ambient temperatures
and under clean operating conditions. Therefore, special measures are not re-
quired.
1 Geared travel motor AME 40TD – M1 – 11 – 1 – 91,1 / ZBF 100 A 8/2 B050 R4
2033525a_en_250810.indd
198
6 Appendix
6.1 Notes on ordering Kindly read the following remarks concerning orders to ensure that your orders are
processed smoothly and rapidly.
If you have any questions, please contact your drive supplier or our technical de-
partment.
6.1.1 Ordering on the basis of a Please refer to our quote/calculation with project no. and date.
quote or drive calculation Please mark any changes or additions clearly.
6.1.2 Ordering drives selected by Please use the fax on the following pages to ensure that your order is complete
you or your customers and to avoid the need for any further clarification.
6.1.3 Replacement drive To clearly identify the original delivery, we require the serial/motor no. stamped on
the rating plate.
Further technical details are not required.
6
2033528a_en_250810.indd
199
6.2 Enquiry/order
Company
P.O. Box/street
Demag Cranes & Components Post code/town, city
Contact
Telephone/extension
Telefax
Connection type
Top connection Side connection Pin connection End connection
Mr./Ms.: Telephone:
Department: Telefax:
Address:
6
Connection variants: Top connection Side connection Pin connection
End connection
Drive variants: Individual drive unit Central drive unit Track gauge:
6.5 Terms and conditions The valid General Terms of Services and Delivery of Demag Cranes &
of sale and delivery Components GmbH can be found on the Demag Cranes & Components
GmbH homepage at
www.demagcranes.com / Corporate / News & Info / Terms and
Conditions / General Terms of Services and Delivery of Demag Cranes &
Components GmbH
6
2033528a_en_250810.indd
202
203352zz_en_250810.indd
203
Demag Cranes & Components GmbH
Drives
P.O. Box 67 · 58286 Wetter/Germany
Telephone +49 23 35 92-5550
Printed in Germany
Reproduction in whole or in part only with prior consent of Demag Cranes & Components, 58286 Wetter/Germany Subject to alteration. Not liable for errors or omissions