TECO MOTOVARIO M Series User manual

SERIES
M
distributed by
LVED
Low voltage European Design
IE3 from 0,37 to 400 kW
AESV3E
AESU3E

Table of Contents
1 General 6
1.1 Standards and regulations 6
1.2 Basics, terms and denitions 9
1.2.1 Power rating 9
1.2.2 Frame size 9
1.2.3 Mounting arrangement 9
1.2.4 Construction and construction material 10
1.2.5 Cooling
11
1.2.6 Degrees of protection 11
1.2.7 Performance characteristics: Speed, torque 11
1.2.8 Electrical performance characteristics 12
2 AC Motors, European Design 14
2.1 Range of motors covered by this catalogue; variety of characteristics 14
2.2 TECO type code (“Motor Identication Code”) 15
3 Mechanical design 16
3.1 Housing, mounting arrangement 16
3.2 Terminal box and cable entry 21
3.3 Cooling
26
3.4 Rotor assembly (active part, shaft, bearings) 27
3.4.1 General
27
3.4.2 Shaft
28
3.4.3 Bearings
28
3.4.4 Regreasing
32
3.5 Degree of protection 33
3.6 Others
34
3.6.1 Grounding terminals 34
3.6.2 Lifting eyes 34
3.6.3 SPM provision 35
3.6.4 Painting, corrosion protection 35
3.6.5 Rating plate and labelling 36
4 Electrical design 37
4.1 Stator winding 37
4.2 Thermal protection 39
5 Performance data 40
5.1 Duty type 40
5.2 Environmental conditions, performance 40
5.2.1 Operation at high ambient temperature/high altitude 40
5.2.2 Operation at low temperature/high humidity 41
5.2.3 Operation at severe mechanical conditions 42
5.3 Mechanical performance 42
5.3.1 Torque characteristic; starting performance 42
5.3.2 Maximum operational speed. 43
5.3.3 Permissible radial shaft forces 44
5.3.4 Permissible axial shaft forces 46
5.3.5 Vibration
47
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5.4 Motor performance (line operated) 47
5.4.1 Requirements for supply voltage and frequency 48
5.4.2 Current, power factor and eciency at partial load 48
5.4.3 Current during starting, limitations 49
5.5 Motor performance (inverter operated) 51
5.5.1 General
51
5.5.2 Operational range; principle 52
5.5.3 Operational range for continuous operation 53
5.5.4 Winding insulation stress 55
5.5.5 Inverter caused bearing currents 56
5.5.6 Electromagnetic compatibility 57
5.5.7 Additional acoustic noise 57
6 Technical data 49
6.1 General data; tolerances (acc. to IEC 60034-1) 49
6.2 Type data for cast iron version 50
6.2.1 Cast iron; 400 V; 50 Hz; Class IE3 50
6.2.2 Cast iron; 460 V; 60 Hz; Class IE3 54
7 Outline drawings 58
7.1 Cast iron design 58
7.1.1 Cast iron design; feet version (B3) 58
7.1.2 Cast iron design; ange version (B5) 66
7.1.3 Cast iron design; version with feet and ange (B35) 72
7.1.4 Cast iron design; version with feet and ange (B14) 80
7.1.4 Cast iron design; version with feet and ange (B34) 82
8 Spare parts 84
8.1 Cast iron motors 84
9 Packing, labelling 86
9.1 Packing design 86
9.1.1 Motors up to frame size 90 86
9.1.2 Motors frame size 100 to 315 86
9.2 Labelling 87
10 Quality assurance 87
11 Documentation 88
12 Sales conditions 89
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TECO History
1956 Company foundation and start of production in the rst TECO factory in San-Chung, TAIWAN
1965 Production capacity increased by opening new factory in Shin-Chuan, TAIWAN
1966 Start of close technical co-operation with Hitachi, Yaskawa and Taiyo
1979 Increased production capacity by opening factory in Chung Li, TAIWAN Plant I (Heavy Motor Plant)
1987 Opened Chung Li Plant II for serial motor production (Small Motor Plant), TAIWAN
1987 Started Joint Venture with Westinghouse Motor Company, USA, one of the leading motor
manufacturers in North America
1991 Founded TECO Perai, Penang Provence, MALAYSIA, low voltage motors for local market
1993 Established TECO Electric Europe in Manchester, UNITED KINGDOM to start presence in Europe
1995 100% take over of Westinghouse motor business by TECO. Established TECO-Westinghouse
Motor Company, USA
2000 Opened TECO factory for low voltage motors in Suzhou, Jiangsu Provence, CHINA
2003 Opened TECO factory for low and medium voltage motors in Wuxi, CHINA
2005 Opened third TECO factory in Nanchang, Jiangxi Provence, CHINA
2006 Opened factory in Huyen Long Thanh, Tinh Dong Nai Provence, VIETNAM
2008 Opened TECO repair plant in Dammam, KINGDOM OF SAUDI ARABIA, on joint venture basis
2009 Established TECO Fuan in Fujian Provence, CHINA
2010 Starting the production of aluminium motors and semi nished aluminium parts at TECO Fuan factory
in Fujian Provence, CHINA
2012 Established India branch oce
2013 Established Turkey branch oce
2014 Founding of“ HunanTeco Wind Power Co.,Ltd”
2015 Acquisition of major Italian gear reducers manufacturer Motovario S.p.A., inroads into power transmission
system
2016 Inauguration of the lamination center in Wuxi green plant
2017 Inauguration of“automated production center of motor stator” at the Chungli plant
2018 Ground breaking on Vietnamese motor plant, making Vietnam a major production base of TECO Group in
Southeast Asia
Inking of memorandum of cooperation with Mitsubishi Heavy Industries for production of oshore
wind-power systems
2019 Join hands with Taiwan Sugar in forging Taiwan’s rst smart green-energy residential park
Inauguration of IE3 small-motor plant in Becamex industrial park III in Vietnam’s Binh Duong Province
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TECO General
TECO operates in 45 countries worldwide and aliates gained a turnover of 1.9 Billion EURO, with approximately
20.000 employees worldwide. More than 50% of the turnover was generated by the Electric Motor business. TECO
is listed in the stock exchange in Taipei, TAIWAN. Detailed nancial data can be downloaded from the TECO websi-
te hiip://www.teco.com.tw/en_version, under“Investor Relations”.
TECO is mainly focused on
• Sustainable development with new competitive advantages
• Enhancing service quality
• Development and education of experienced employees
• Creating outstanding products
TECO has
• Signicant Experience in the Motor Industry
• Experienced Engineering and Manufacturing Sta
• State of the art factories in the most important manufacturing markets
• State of the art Testing Facilities for the full power and voltage range of its motors
In Europe, along with well-known TECO-Westinghouse Medium Voltage Motors, TECO manufactures full range
Low Voltage Stock Motors to IE3 standard, with cast iron and aluminium cases. With the recently released 510
Series, TECO oers high performance and cost eective wide range of Variable Speed Drives that t virtually all
applications. So whatever your motor and drive requirement our experienced engineering team can help and
advise on the correct products to suit your applications.
References in this catalogue:
• TECO Manual“INSTALLATION, OPERATION and MAINTENANCE INSTRUCTIONS FOR TECO LOW VOLTAGE MOTORS
Type AESV3E and AESU3E”
• TECO short form safety instructions

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TECO Scope of Supply:
Low Voltage
0,12 to 1000 kW
Three Phase Asynchronous Motors
Cast Iron
Aluminium
Open Drip Proo
High Eciency Motors
IE3 Cast Iron
IE2 Aluminium
IE3 Aluminium
NEMA Premium Eciency
Single Phase Motors
Capacitor-Start
Capacitor-Start, Capacitor Run
Split Phase Start
Explosion Proof Motors
Non Sparking
Flameproof
Increased Safety
Dust Ignition Proof
Vertical Motors Solid Shaft High Thrust
Hollow Shaft High Thrust
Special Purpose Motors
Inverter Duty
Pole Changing
Smoke Extraction
Brake Motor
Marine Duty
Extended Shaft End
Double Shaft End
Hollow Shaft
Crusher Duty
Submersible
Crane Duty
Wind Generator
Cooling Fan Design
Pump jack (Oil Well) Design
3 Phase Drives
0.4–1000kW
200, 400, 690V
Constant/Variable Torque models
IP00, IP20, IP54, IP65
V/F and Flux Vector
Single Phase Drives
0.18–2.2kW
IP20 and IP65
V/F and Flux Vector
High Voltage
0,315 to 45 MW
3 Phase Motors
Asynchronous
Synchronous
Slip ring
Explosion Proof Motors
Non Sparking
Flameproof
Increased Safety
Dust Ignition Proof
Vertical Motors Solid Shaft High Thrust
Hollow Shaft High Thrust
Special Purpose
Inverter Duty
Pole Changing
Marine Duty
Extended Shaft End
Double Shaft End
Crusher Duty
Wind Generator
Special
Design
Wound Rotor
Induction Motors
Permanent Magnet Motors
DC Motors
Series Type
Shunt Type
Compound Type

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1 General
1.1 Standards and regulations
There are dierent international standards for electrical machines, e.g.
• the international“IEC” standard or
• the North American“NEMA”-standard and others.
The motors covered by this catalogue are designed and manufactured according to the latest IEC standards.
Furthermore they full the relevant regulations of the European Community (“EC Regulations”).
List of national and international standards and regulations applied:
Title International IEC Europe EN/Directive Germany DIN/VDE
Rotating electrical machines – Part 1:
Rating and performance 60034-1 60034-1 DIN EN 60034-1
VDE 0530 Part 1
Rotating electrical machines – Part 2-1:
Standard methods for determining losses
and eciency from tests
60034-2-1 60034-2-1 DIN EN 60 034-2
VDE 0530 Part 2
Rotating electrical machines –
Part 5: Degrees of protection provided by
the integral design of rotating electrical
machines (IP code) – Classication
60034-5 60034-5 DIN EN 60 034-5
VDE 0530 Part 5
Rotating electrical machines –
Part 6: Methods of cooling (IC Code 60034-6 60034-6 DIN EN 60034-6
VDE 0530 Part 6
Rotating electrical machines –
Part 7: Classication of types of
construction, mounting arrangements and
terminal box position (IM Code
60034-7 60034-7 DIN EN 60034-7
VDE 0530 Part 7
Rotating electrical machines –
Part 8: Terminal markings and direction of
rotation
60034-8 60034-8 DIN EN 60034-8
VDE 0530 Part 8
Rotating electrical machines –
Part 9: Noise limits 60034-9 60034-9 DIN EN 60034-9
VDE 0530 Part 9
Rotating electrical machines –
Part 11: Thermal protection 60034-11 60034-11
Thermistors, PTC - - DIN 44081:1980-6
Rotating electrical machines –
Part 12: Starting performance of single-
speed three-phase cage induction motors
60034-12 60034-12 DIN EN 60034-12
VDE 0530 Part 12
Rotating electrical machines –
Part 14: Mechanical vibration of certain
machines with shaft heights 56 mm and hi-
gher – Measurement, evaluation and limits
of vibration severity
60034-14 60034-14 DIN EN 60034-14
VDE 0530 Part 14
Cage induction motors when fed from
converters-Application guide TS 60034-17 - -
Mechanical vibration; balancing shaft and
tment key convention - - DIN ISO 8821
Mechanical vibration – Balance quality
requirements for rotors in a constant (rigid)
state – Part 1: Specication and verication
of balance tolerances
- - DIN ISO 1940-1:
2004-04

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Conformity with Community Directives
The standard electric motors are in conformity with the following Directives:
• Low Voltage Directive 2014/35/UE;
• Directive EMC 2014/30/UE regarding intrinsic characteristics in relation to emissions and levels of immunity;
• Directive RoHS 2015/863/UE relating to the prohibition or limitation of use of noxious substances in electrical and
electronic equipment;
• ErP Directive 2009/125 / EC regarding eco-compatible design and its implementing regulation n ° 640/2009.
The manufacturer of the machine is exclusively responsible for the conformity with the Machinery Directive and
EMC Directive of a complete installation. Electric motors may not be commissioned until the machines to which
they are coupled have themselves been declared conforming with the Machinery Directive (Certicate of Incorpo-
ration – Directive 2006/42/CE).
Title International IEC Europe EN/Directive Germany DIN/VDE
Rotating electrical machines – Part 30:
Eciency classes of single-speed, three-
phase, cage-induction motors (IE-code
60034-30 - -
IEC standard voltages 60038 - DIN IEC 60038
Dimensions and output series for rotating
electrical machines –
Part 1: Frame numbers 56 to 400
and ange numbers 55 to 1080
60072-1 1) 50347 DIN EN 50347 2)
Electrical insulation –
Thermal evaluation and designation 60085 - DIN IEC 60085
Safety of electrical Machines – Electrical
equipment of Machines Part 1: Common
Requirements
60204-1 60204-1 DIN EN 60204-1
VDE 0113-1
Electro technical graphical symbols 60617-2 60617-2 DIN EN 60617-2
Drive Type Fastenings without Taper
Action; Parallel Keys, Keyways, Deep
Pattern
DIN 6885-1
Hexagonal screws - - DIN EN ISO 4014
Hexagonal nuts - - DIN EN ISO 4032
Lubricating nipples; button head - - DIN 3404
Protection of steel structures from corro-
sion by organic and metallic coatings - - DIN 55928
Table 1-1: Standards and regulations applied

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Remarkable latest innovations in above mentioned standards are:
• IEC 60034-2-1 (standard methods for determining losses and eciency from tests) and
• IEC 60034-30 (eciency classes of single-speed, three-phase cage-induction motors; IE-code).
By IEC 60034-2-1 an improved procedure for testing of the eciency is described. In general the nominal eciency
evaluated by this method is slightly lower than the value based on the formerly used procedure. IEC 60034-30 de-
nes classes of eciency for standard motors (“International Eciency”):
“IE1”(Standard Eciency),
“IE2”(High Eciency),
“IE3”(Premium Eciency) and
“IE4”(Super Premium eciency).
These eciency class denitions demand a minimum eciency value depending on power rating and pole num-
ber of the motor. (This classication replaces the formerly used eciency class denitions like e.g. “e1”.) The mo-
tors in this catalogue (IE3) full or override these minimum levels.
The European Union published on 25 October 2019 the result of the revision of the Commission Regulation (EC)
640/2009 for electric motors. The new Commission Regulation (EU) 2019/1781 will require minimum requirements
for a wider scope of motors (0.12 kW - 1000 kW), will also include 8-pole motors and will abolish the former requi-
rement of an IE2 motor plus a converter instead of IE3. Also, maximum losses for converters between 0.12 kW and
1000 kW at IE2 are requested. From 2023, IE4 will be required for motors between 75 kW and 200 kW.
• 01/01 2017: eciency class IE3 for all motors from 0,75 kW up to 375 kW (or IE2 if inverter operated).
• 01/07/2021: eciency class IE3 for all motors from 0,75 kW up to 1000 kW
• 01/07/2021: eciency class IE2 for all motors from 0,12 kW up to 0,55 kW
• 01/07/2023: eciency class IE4 for all motors from 75 kW up to 200 kW in 2,4,6 pole
A sample for eciency requirements is showed in the gure below
2011 2014 2015 2017 20212009
OCTOBER
EU adopted
direcve
2009/125/EC.
This is a
framework
Direcve which
does not itself
set minimum
requirements.
These are
introduced by
implemenng
measures like
motor
Regulaon EC
640/2009,
which entered
into force on a
phased basis
from 2011 to
2017.
16 JUNE
STAGE 1:
Motors must
meet the IE2
eciency
level.
1 JANUARY
STAGE 2
Motors with a
rated output
of 7.5 kW-375
kW must be
either the IE3
eciency level
(driven direct
on line) or the
IE2 level if
ed with a
variable speed
drive.
1 JANUARY
STAGE 3:
Motors with a
rated output
of 0.75 -375
kW must meet
either the IE3
eciency level
(driven direct
on line) or the
IE2 level if
ed with a
variable speed
drive.
1 JULY
The current
legislaon will
be repealed and
replaced with
commission
regulaon (EU)
2019/1781.
Under the new
regulaon
motors that
were previously
not covered, will
be regulated.
Motors with a
rated output of
0.75-1000 kW
will be required
to be at least IE3
eciency and
motors with a
rated output
0.12-0.75 kW
will be required
to have at least
an IE2 eciency.
27 JULY
Amendment
Commission
Regulaon EU
4/2014 issued
to amend the
original
Regulaon EC
640/2009. The
amendment
changes the
details
concerning
which motors
are excluded
from EU MEPS,
as well as
relaxing the
marking
requirements
for small
motors.
Timeline of Changes

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1 Eciency (IE) classes for single speed electric motors according to IEC 60034-30-1
1.2 Basics, terms and denitions
Induction machines are the commonly most used motor type for general drive applications. They are extremely
durable and robust and provide an economic drive solution, even under severe environmental conditions. They
can be used for direct line operation (xed speed) or in combination with a frequency inverter (variable speed drive
system). They are available in a lot of varieties. Some typical characteristics are listed below:
1.2.1 Power rating
The power rating of electrical motors refers to the mechanical shaft output power (in opposite: for electrical
generators the rating refers to the electrical power at the terminals). Within the IEC standard range (up to 315 kW)
standardized values for the rating are dened (e.g. 37 kW, 45 kW etc.).
1.2.2 Frame size
The frame size is dened as the distance [mm] between the mounting level and the centre of the shaft (in case
of oor mounted arrangement; accordingly a denition is stated for ange mounted arrangement). Standard
values for the frame sizes are dened for the IEC standard range (e.g. frame size 200, 225 etc.). In addition a xed
coordination between power rating and frame size is dened in IEC 60072-1. Within a dened frame size several
types can be designed with dierent lengths.
1.2.3 Mounting arrangement
Rotating electrical machines can be delivered in a large variety of possible physical arrangements. In IEC 60034-7
the construction and arrangement is classied, (IM code as e.g.“IM B3”). Mechanical interface dimensions and their
tolerances are standardized for each frame size. Table of some typical arrangements:
Eciency %
100
90
80
70
60
50
0.12 0.37 0.75 1.5 3 7.5 15 37 90 160 400 1000
IE1
IE2
IE3
IE4

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Table 1-2: Relevant IM arrangements (selection)
1.2.4 Construction and construction material
The relevant components are:
• Stator housing with active stator parts inside (magnetic core, stator winding),
• End shields with bearings,
• Shaft with active rotor parts (magnetic core, squirrel cage),
• Cooling system,
• Terminal box.
1.2.5 Cooling
Cooling can be carried out either with ambient air or with cooling water with a large variety of detailed constructions.
Principle arrangements of the cooling are dened in IEC 60034-6 (IC code). In the range of IEC standard motors as
presented in this catalogue the cooling system in general is “IC 411”: Totally Enclosed Surface Fan cooled (“TEFC”)
as shown in the sample picture below.
IC411
Note: Contact our technical service for other cooling systems
Option: As option is possible to provide IC416 and IC410 cooling system.
Mounting Code acc.
IEC 60034-7 Description
Diagram Code I Code II Feet Flange
Horizontal use:
IM B3 IM 1001 with feet —
IM B5 IM 3001 — with ange
(clearance xing holes)
IM B14 IM 3601 — with ange
(tapped xing holes)
IM B34 IM 2101 with feet with ange
(tapped xing holes)
IM B35 IM 2001 with feet with ange
(clearance xing holes)
Vertical use:
IM V1 IM 3011 —
with ange
(clearance xing holes)
shaft up

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1.2.6 Degrees of protection
The level of protection against environmental conditions like water, dust, etc. is dened in 60034-5 (IP code as e.g.
“IP55”). The user has to choose a sucient degree of protection according to his environmental conditions. It does
not account for protection against mechanical damage or special conditions, including humidity (for example, as
caused by condensation), corrosive vapours, mould, insects or explosive atmospheres. The code indicating the
protection rating is composed of the letters IP followed by two characteristic digits which indicate conformity
with the conditions indicated in the table. The TECO electric motors in standard operation have an IP55 degree of
protection; optionals include executions with IP56, IP65 and IP66 degrees of protection.
The rst digit indicates the degree of protection against ingress of solid matter and approach to or contact
with live components
0no protection
1protection against ingress of solid bodies of diameter greater than 50mm. (e.g. involuntary contact with the hands)
2protection against ingress of solid bodies of diameter greater than 12mm. (e.g. nger)
3protection against ingress of solid bodies of diameter greater than 2.5mm
4protection against ingress of solid bodies of diameter greater than 1mm
5protection against ingress of dust; penetration by dust is not completely eliminated, but it may not enter in amounts sucient to compromise the
operation of the motor
6total protection against ingress of dust
The second digit indicates the degree of protection against ingress of water
0no protection
1drops of water falling vertically may not cause damage (e.g. condensation)
2drops of water falling vertically may not cause damage when the machine is inclined at any angle up to 15° from its normal position
3water fall- ing at an angle to the vertical of up to 60° may not cause damage
4water sprayed onto the machine from any direction may not cause damage
5water sprayed onto the machine with a nozzle from any direction may not cause damage
6waves or jets of water may not penetrate into the machine in amounts sucient to cause damage
7water may not penetrate into the machine in amounts sucient to cause damage when it is submerged in given conditions of pressure
and duration
8the motor may remain submerged perma- nently in water in the conditions indicated by the manufacturer
1.2.7 Performance characteristics: Speed, torque
(Only induction motors with a rotor in“squirrel cage” design regarded here; no“wound rotor”types). If operated at
a grid with xed voltage and frequency the nominal speed (“full load speed”) is near to the “no-load speed” (also
called “synchronous speed”): this is dened by the grid frequency and the “pole number” of the motor (also called
“2p”with“p”as the number of pole pairs):
Motor design 2-pole 4-pole 6-pole 8-pole
No load speed at 50 Hz grid 3000 rpm 1500 rpm 1000 rpm 750 rpm
No load speed at 60 Hz grid 3600 rpm 1800 rpm 1200 rpm 900 rpm
Table 1-3: No load speed

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The starting performance is standardized by IEC 60034-12 (“Starting performance of single-speed three-phase
cage induction motors”). The motors covered by this catalogue comply with “IEC 60034-12, Design N”. The typical
characteristic of the torque versus speed is shown in the diagram below:
Figure 1-2: Typical characteristic for induction motors: Torque versus speed
Characteristic points which are content of the type data:
• Full load speed (“nominal speed”)
• Full load torque (“nominal torque”)
• Locked rotor torque (“starting torque”); as a multiple of nominal
• Pull up torque; as a multiple of nominal
• Breakdown torque; as a multiple of nominal.
1.2.8 Electrical performance characteristics
According to 1.2.7 Performance characteristics: Speed, torque the typical characteristic of current and power factor
is shown in the diagram below:
Figure 1-3: Typical characteristic for induction motors: Torque and current versus speed
breackdown torque
torque
no load speed
locked rotor torque
pull up torque
full load torque
full load speed
speed
breackdown torque
torque
no load speed
locked rotor torque
pull up torque
full load torque
full load speed
speed
locked rotor current

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Characteristic points which are content of the type data (see 6 Technical data, starting page 58):
• Full load current (“nominal current”)
• Full load power factor
• Locked rotor current; as a multiple of nominal.
At dierent load points (partial load, overload) the values for current, power factor and eciency are varying; a
typical characteristic is shown in diagram below. The values of power factor and eciency for each motor type are
listed in section 6 for the load points 1/4; 2/4 and 3/4 partial load.
100,00
90,00
80,00
70,00
60,00
50,00
40,00
eciency and power factor (%) versus load
0,00
Figure 1-4: Typical characteristics for a TECO motor (30 kW): power factor and eciency at partial load
0,25 0,50 0,75 1,00 1,25 partial load
Eciency
Power factor

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2 AC Motors, European Design
2.1 Range of motors covered by this catalogue;
variety of characteristics
Common characteristics Three phase low voltage motors according to IEC standard, single speed,
totally enclosed, for Standard Safe Area
Power rating 0,18 kW – 400 kW (50 Hz) or 0,21 kW- 460kW (60 Hz)
Frame size 80M–355C
Pole number 2-poles; 4-poles; 6-poles; 8-poles
Line Frequency 50 Hz; 60 Hz
Type of mounting Feet version, ange version and combinations
Construction material Cast Iron
Eciency class acc. IEC IE3
Accessories Standard or with options (see options page)
Standards
IEC standards,
*European directives (CE marking)+UL CSA
EAC (Russian, Belarussian and Kazakh market)
Table 2-1: Motors covered by this catalogue
* As standard, every motor has the CE and UL CSA marking except for the following: 132 kW-4p, 1,1kW-6p, 1,5kW-6p
and 2,2kW-6p which have only CE marking
2.2 TECO type code (“Motor Identication Code”)
The type code covers the overall range of TECO induction motors.When placing an order, please state the following
minimum data in the order as in the example
AESV (foot mounted) - Cast Iron Motors
Series Frame Poles Power [kW] Voltage [V] Frequency [Hz] Mounting Pos. Design Other Options
AESV3E 80M 2 0,37 230/400 50 B3 NDF **
÷ 4 ÷ 400/690 60 B34 SDF
355C 6 400 B35 ADF *
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AESU (ange mounted) - Cast Iron Motors
Series Frame Poles Power [kW] Voltage [V] Frequency [Hz] Mounting Pos. Design Other Options
AESU3E 80M 2 0,37 230/400 50 B5 NDF **
÷ 4 ÷ 400/690 60 B14 SDF
355C 6 400 V1 ADF *
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Table 2-2: TECO type code * Special product on request ** See other options page
A low voltage 3 phase AC motor; frame size 80; 4-pole, power 0.75kW; voltage 230/400,frequency 50Hz, mounting
B3, design NDF and no other option, the type code is:
AESV3E 80M4 0,75 230/400-50 B3 NDF

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All construction components are shown for a sample motor in the gure below:
3 Mechanical design
3.1 Housing, mounting arrangement
01 Shaft cover
02 Oil Seal
03 Outer bearing cover
04 Grease drain cover
05 End shield DE
06 Grease nipple
07 Bearing
08 Bearing stop ring
09 Inner bearing cover
10 Shaft
11 Key
12 Rotor
13 Stator
14 Frame
15 Feet
16 Washer
17 Eye bolt
18 Name plate carrier
19 Name plate
20 Terminal box plate
21 Blind plug
22 Terminal box housing
23 Fixed seat
24 Power connecting assy
25 Internal Earth terminal assy
26 Power terminals
27 Hex nut
28 Star-Delta jumpers
29 Terminal box gasket
30 Terminal box cover
31 External Earth terminal assy
32 Inner bearing cover
33 Bearing stop ring
34 Bearing
35 Pre-load spring
36 End shield NDE
37 Grease nipple
38 Grease drain cover
39 Outer bearing cover
40 Oil seal
41 External fan
42 Fan cowl
43 Detachable gland plate Gasket
44 Detachable gland plate
Figure 3-1: “Exploded” drawing of a sample TECO motor

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The motors are available in the versions:
• Cast iron housing
Table 3-1: Motor versions available
Power ratings
Frame size 80 90 100 112 132 160 180 200 225 250 280 315 355
Cast iron XXXXXXXXXXXXX
The motors can be delivered for many types of mounting:
• Feet version (IM code B3); with top mounted terminal box (standard conguration)
• Flange version with clearance xing holes (IM code B5, suitable for arrangements V1) or
• Flange version with tapped xing holes (IM code B14)
• Version with feet and ange with clearance xing holes (IM code B35)
• Version with feet and ange with tapped xing holes (IM code B34).
To be regarded only for motors with frame size 315; 2-pole:Vertical use (V-mountings) is only admissible in a special
design; this has to be dened in the order.
Figure 3-2: Sample of a TECO motor (feet version) Figure 3-3: Sample of a TECO motor (ange version)
Dimensions:
The dimensions and tolerances for the mechanical interface (e.g.positions of feet holes) are dened by IEC 600721.
Multi-mount symmetric design – Axial direction:
Themotorhousingisdesignedtoallowforalargevarietyofmounting
arrangements. It is symmetric in axial direction (DE – NDE), except
of the asymmetric position of the terminal box. Therefore the user
can change the axial position of the terminal box according to the
individual spatial conditions at his construction (front or back) by
changing the position of the rotor including DE and NDE end shield.
Due to a special design of the DE end shield this modication can be
carried out without dismantling the NDE assembly. (To be regarded
when carrying out this modication: the rotational direction of
the motor is no longer acc. to IEC 60034-8 then. Precautions shall
be made to prevent disturbances. Modication of mounting
arrangement shall only be carried out by qualied personnel; regard
the guidelines in the TECO manual “INSTALLATION, OPERATION and
MAINTENANCE INSTRUCTIONS. ... ”)
Figure 3-4: Multi-mount design (in axial direction);
terminal box “Drive End”

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SDF
As a standard the“feet” – in SDF version (B3; B34; B35) are delivered with a top mounted terminal box.
In the “Standard Detachable Feet” (SDF) version; the feet can be detached if required.
ADF (Special Version)
As a special version“Advanced Detachable Feet”; (ADF) the housing is machined to be able to move the feet in
3 x 90° positions. Therefore the feet can easily be mounted in each of the 3 rotational positions and the 2 axial
positions. All surfaces and all xing holes for mounting the feet are machined, drilled, tapped and plugged. The
holes (as well as others e.g. for lifting lugs, etc.) are designed as blind holes. If using the original feet a change of the
feet position is possible without new alignment of the motor when feet are xed in the new position.
Figure 3-5: Multi-mount design (in axial direction); terminal box “Non drive end”
Figure 3-6: Multi-mount design (top mounted terminal box)
Figure 3-7: Multi-mount design (terminal box in left hand side position) Figure 3-8: Multi-mount design (terminal box in right hand side position)

distributed by
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3.2 Terminal box and cable entry
As a standard the motors are delivered with a top mounted terminal box; located at the drive end, with cable
entry to the right hand side. As described in 3.1 Housing, mounting arrangement, the position of the terminal box
can easily be varied (left, right, front or back). Furthermore the terminal box itself is able to be rotated by steps of
90° to every direction to enable power cable entry from 4 directions (front, rear, left, right). (Guidelines for proper
modication of the terminal box position: see TECO manual “INSTALLATION, OPERATION and MAINTENANCE
INSTRUCTIONS. .... ”).
Figure 3-9: Cable entry front Figure 3-10: Cable entry back Figure 3-11: Cable entry left Figure 3-12: Cable entry right
There are two cable entry holes for the power supply cable(s) and one entry hole for the cable for auxiliary devices,
e. g. for thermistor connection. They are drilled, tapped and properly sealed; with threads according to table below.
(The applicable cable outer diameter is dependent on the customer’s cable gland type.)
All six winding lead ends from the windings are brought out and connected to a terminal block with metric threaded
bolts for smaller motors or to metric duct connection bolts for bigger motors. Screws and nuts are hexagonal with
metric thread and with ISO wrench sizes acc. to DIN EN ISO 4014 (screws) and DIN EN ISO 4032 (nuts).Three jumpers
are attached to enable the customer a simple star or delta connection (see 4 Electrical design).
The lead ends of the standard thermistors (as well as optional accessories like space heaters) are connected to
terminals (luster terminals or spring loaded serial terminals, see table below).
Frame
size
Power Supply Thermistor
Threads Power connector bolts Threads Type of Connector
80 2 x M25 x 1.5
U-clamp
M20 x 1.5
Luster terminal
90
100
112
132
160
2 x M32 x 1.5
2 x M40 x 1.5
Bolts Serial terminal
180
200
225 2 x M50 x 1.5
250
2 x M63 x 1.5
280
315
355 2 x M72 x 1.5
Table 3-4: Cable entries and connectors
Detailed mechanical dimensions depending on motor type: see 7 Outline drawings, starting page 82.

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Options, on request:
From frame size 160 to 250 an optional attachment of one and from frame size 280 to 400 of two separate accessory
terminal boxes is available (e.g.: dierent terminal boxes for dierent voltage levels may be demanded by customer
specications).
The motors can also be delivered without a terminal box on request. In this case we provide a blind plate with
bushing for direct entry of customer specied cable(s).
terminal box
frame size 80 to 132
thermistor cable
entry
top view
power
cable entry
front view
Figure 3-13: Position of cable entries (up to frame size 132)
Frame size 160 and above are equipped with a detachable steel plate on one side of the terminal box (cable entry
plate). This is to enable customers an easy power supply connection and simple replacement of the motors with
bulky cables as well as for later exibility if customer asks for special amount of cable entry holes with special
threads (special cable size or number of cables).
In these cases TECO can manufacture customized entry plates or blank plates on demand. Customer’s cable glands:
Insure the cable glands used are rated to an equal or better protection class than the motor.
terminal box
frame size 160 to 355
thermistor cable
entry
top view
power
cable entry
front view
Figure 3-14: Position of cable entries
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