Siemens
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Êàòàëîã ÑÀ01 2016
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(4872) 700-366
skenergo@mail.ru

Technical definitions
Regulations, standards and specifications

The motors comply with the appropriate standards and regulations, see table below.

As a result of the fact that in many countries the national regulations have been completely harmonized with the international IEC 60034?1 recommendation, there are no longer any differences with respect to coolant temperatures, temperature classes and temperature rise limits.

General specifications for rotating electrical machines

DIN IEC 60034?1

Terminal designations and direction of rotation for electrical machines

DIN IEC 60034?8

Types of construction of rotating electrical machines

DIN IEC 60034?7

Cooling methods of rotating electrical machines

DIN IEC 60034?6

Degrees of protection of rotating electrical machines

DIN IEC 60034?5

Vibration severity of rotating electrical machines

DIN IEC 60034?14

Noise limit values for rotating electrical machines

DIN IEC 60034?9

Cylindrical shaft extensions for electrical machines

DIN 748 part 3/DIN IEC 60072



The motors listed below are UL-approved by Underwriters Laboratories Inc. and also comply with Canadian cUR standards:
SIMOTICS S?1FK7/1FT7/SIMOTICS T?1FW3/1FW6/SIMOTICS M?1PH8 (without brake)/SIMOTICS L?1FN3/1FN6.

Degrees of protection for AC motors

A suitable degree of protection must be selected to protect the machine against the following hazards depending on the relevant operating and environmental conditions:

  • Ingress of water, dust and solid foreign objects
  • Contact with or approach to rotating parts inside a motor
  • Contact with or approach to live parts.

Degrees of protection of electric motors are specified by a code. This comprises 2 letters, 2 digits and, if required, an additional letter.

IP (International Protection)
Code letter designating the degree of protection against contact and the ingress of solid foreign objects and water

0 to 6
1st digit designating the degree of touch protection and protection against ingress of solid foreign objects

0 to 8
2nd digit designating the degree of protection against ingress of water (no oil protection)

W, S and M
Additional code letters for special degrees of protection

Most motors are supplied with the following degrees of protection:

Motor

Degree of protection

1st digit:
Touch protection

Protection against foreign objects

2nd digit:
Protection against water

Internally cooled

IP23

Protection against finger contact

Protection against medium-sized, solid foreign objects above 12 mm ?

Protection against spray water up to 60° from the vertical

Surface-cooled

IP54

Complete protection against accidental contact

Protection against harmful dust deposits

Splash water from any direction

IP55

Jet-water from any direction

IP64

Complete protection against accidental contact

Protection against dust ingress

Splash water from any direction

IP651)

Jet-water from any direction

IP671)

Motor under specified pressure and time conditions under water



1) DIN VDE 0530 Part 5 or EN 60034 Part 5 specifies that there are only 5 degrees of protection for the first digit code and 8 degrees of protection for the second digit code in relation to rotating electrical machinery. However, IP6 is included in DIN 40050 which generally applies to electrical equipment.

Recommended degrees of protection for AC motors

When cooling lubricants are used, protection against water alone is inadequate. The IP rating should only be considered here as a guideline. The motors may have to be protected by suitable covers. Attention must be paid to providing suitable sealing of the motor shaft for the selected degree of protection for the motor (for 1FT7: degree of protection IP67 and flange 0).

The table can serve as a decision aid for selecting the proper degree of protection for motors. A permanent covering of liquid on the flange must be avoided when the motor is mounted with the shaft extension facing upwards (IM V3, IM V19).

Liquids

General workshop environment

Water/
gen. cooling lubricant
(95 % water, 5 % oil)

Effect

  

Dry

IP64

Water-enriched environment/increased humidity

IP64

Mist

 

IP65

Spray

IP65

Jet

IP67

Splash/brief immersion/constant inundation

IP67



Radial eccentricity tolerance of shaft in relation to housing axis

(refers to cylindrical shaft extensions)

Shaft height

Tolerance N

Tolerance R

Tolerance SPECIAL

SH

mm (in)

mm (in)

mm (in)

28/36

0.035 (0.0014)

0.018 (0.0007)

?

48/63

0.04 (0.0016)

0.021 (0.0008)

?

80/100/132

0.05 (0.0020)

0.025 (0.0010)

0.01 (0.0004)

160/180/225

0.06 (0.0024)

0.03 (0.0012)

0.01/ ? / ?
(0.0004/ ? / ?)

280

0.07 (0.0028)

0.035 (0.0014)

?

355

0.08 (0.0031)

0.04 (0.0016)

?



Concentricity and axial eccentricity tolerance of the flange surface to the shaft axis

(referred to the centering diameter of the mounting flange)

Shaft height

Tolerance N

Tolerance R

Tolerance SPECIAL

SH

mm (in)

mm (in)

mm (in)

28/36/48

0.08 (0.0031)

0.04 (0.0016)

?

63/71/80/100

0.10 (0.0039)

0.05 (0.0020)

?/0.03/0.04

(?/0.0012/0.0016)

132/160/180/225

0.125 (0.0049)

0.063 (0.0025)

0.04/0.04/ ? / ?

(0.0016/0.0016/ ? / ?)

280/355

0.16 (0.0063)

0.08 (0.0031)

?



Vibration severity and vibration severity grade A according to IEC 60034?14

The vibration severity is the RMS value of the vibration velocity (frequency range from 10 to 1000 Hz). The vibration severity is measured using electrical measuring instruments in compliance with DIN 45666.

The values indicated refer only to the motor. These values can increase as a result of the overall system vibrational behavior due to installation.

Vibration severity limit values for shaft heights 20 to 132

The speeds of 1800 rpm and 3600 rpm and the associated limit values are defined in accordance with IEC 60034-14. Speeds of 4500 rpm and 6000 rpm and the specified values are defined by the motor manufacturer.

The motors maintain vibration magnitude grade A up to rated speed.

Vibration severity limit values for shaft heights 160 to 355

Balancing according to DIN ISO 8821

In addition to the balance quality of the motor, the vibration quality of motors with mounted belt pulleys and coupling is essentially determined by the balance quality of the mounted component.

If the motor and mounted component are separately balanced before they are assembled, then the process used to balance the belt pulley or coupling must be adapted to the motor balancing type. The following different balancing methods are used on motors of types SIMOTICS M?1PH8:

  • Half-key balancing
  • Full-key balancing
  • Plain shaft extension

The letter H (half key) or F (full key) is printed on the shaft extension face to identify a half-key balanced or a full-key balanced SIMOTICS M?1PH8 motor.

SIMOTICS S?1FT7/1FK7 motors with fitted key are always half-key balanced.

In general, motors with a plain shaft are recommended for systems with the most stringent vibrational quality requirements. For full-key balanced motors, we recommend belt pulleys with two opposite keyways, but only one fitted key in the shaft extension.

Vibration stress, immitted vibration values

The following maximum permissible vibration stress limits at full functionality apply only to the SIMOTICS S?1FT7/1FK7 permanent-magnet servomotors and SIMOTICA T?1FW3 torque motors.

Vibration stress in accordance with DIN ISO 10816:

g at 20 Hz to 2 kHz

For all main motors of type SIMOTICS M?1PH8, the following limits are valid for (immitted) vibration values introduced into the motor from outside:

Vibration frequency

Vibration values for
1PH808/1PH810/1PH813/1PH816

   

< 6.3 Hz

Vibration displacement s

? 0.16 mm (0.01 in)

6.3 ... 250 Hz

Vibration velocity Vrms

? 4.5 mm/s (0.18 in/s)

> 250 Hz

Vibration acceleration a

? 10 m/s2 (32.8 ft/s2)



Vibration frequency

Vibration values for
1PH818/1PH822/1PH828/1PH835
1PH718/1PH722/1PH728
1PL618/1PL622/1PL628

   

< 6.3 Hz

Vibration displacement s

? 0.25 mm (0.01 in)

6.3 ... 63 Hz

Vibration speed Vrms

? 7.1 mm/s (0.28 in/s)

> 63 Hz

Vibration acceleration a

? 4.0 m/s2 (13.1 ft/s2)



For all torque motors of type SIMOTICS T?1FW3, the following limits are valid for (immitted) vibration values introduced into the motor from outside:

Vibration frequency

Vibration values for
1FW3

< 6.3 Hz

Vibration displacement s

? 0.26 mm (0.01 in)

6.3 ... 63 Hz

Vibration speed Vam

? 7.1 mm/s (0.28 in/s)

> 63 Hz

Vibration acceleration a

? 4.0 m/s2 (13.1 ft/s2)



Coolant temperature (ambient temperature) and installation altitude

Operation (unrestricted): -15 °C to +40 °C (5 °F to 104 °F)

The rated power (rated torque) is applicable to continuous duty (S1) in accordance with EN 60034-1 at rated frequency, a coolant temperature of 40 °C (104 °F) and an installation altitude of 1000 m (3281 ft) above sea level.

Apart from the SIMOTICS M?1PH8 motors, all motors are in temperature class 155 (F) and utilized in accordance with temperature class 155 (F). The SIMOTICS M?1PH8 motors are designed for temperature class 180 (H). For all other conditions, the factors given in the table below must be applied to determine the permissible output (torque).

The coolant temperature and installation altitude are rounded to 5 °C and 500 m (1640 ft) respectively.

Installation altitude above sea level

Coolant temperature
(ambient temperature)

m (ft)

< 30 °C
(86 °F)

30 ... 40 °C
(86 ... 104 °F)

45 °C
(113 °F)

50 °C
(122 °F)

1000 (3281)

1.07

1.00

0.96

0.92

1500 (4922)

1.04

0.97

0.93

0.89

2000 (6562)

1.00

0.94

0.90

0.86

2500 (8203)

0.96

0.90

0.86

0.83

3000 (9843)

0.92

0.86

0.82

0.79

3500 (11484)

0.88

0.82

0.79

0.75

4000 (13124)

0.82

0.77

0.74

0.71



Duty types S1 and S6 in accordance with EN 60034?1
Rated torque

The torque supplied on the shaft is indicated in Nm (lbf-ft) in the selection and ordering data.

Mrated = 9.55 ? Prated ? 1000/nrated

Prated  Rated power in kW

nrated  Rated speed in rpm

Mrated Rated torque in Nm

Mrated = Prated ? (5250/nrated)

Prated  Rated power in HP

nrated  Rated speed in rpm

Mrated Rated torque in lbf-ft

DURIGNIT IR 2000 insulation system

The DURIGNIT IR 2000 insulation system consists of high-quality enamel wires and insulating sheeting in conjunction with a solvent-free resin impregnation.

The insulating material system ensures that these motors will have a high mechanical and electrical stability, high service value and a long service life.

The insulation system protects the winding to a large degree against aggressive gases, vapors, dust, oil and increased air humidity. It can withstand the usual vibration stressing.

Characteristic curves

Torque characteristic of a synchronous motor operating on a converter with field weakening (example)

nrated Rated speed

nmax Inv Maximum permissible electric speed limit

nmax mech Maximum permissible mechanical speed limit

M0 Static torque

Mrated Rated torque at rated speed

Mmax Inv Achievable maximum torque with recommended motor module

Mmax Maximum permissible torque

Motor protection

The KTY84?130 temperature sensor is used to measure the motor temperature for converter-fed motor operation.

This sensor is a semi-conductor that changes its resistance depending on temperature in accordance with a defined curve.

Siemens converters determine the motor temperature using the resistance of the temperature sensor.

Their parameters can be set for specific alarm and shutdown temperatures.

The SIMOTICS L?1FN3/?1FN6 and SIMOTICS T?1FW6 motors are additionally equipped with PTC sensors (PTC elements). In these motor series, evaluation is performed using the SME120/SME125 Sensor Module External or TM120 Terminal Module (see SINAMICS S120 drive system).

The KTY84?130 temperature sensor is embedded in the winding overhang of the motor like a PTC thermistor.

The sensor is evaluated in the SINAMICS S120 drive system as a standard function.

If the motors are operated on converters that do not feature a KTY84 evaluation circuit, the temperature can be measured with the external 3RS1040 temperature monitoring relay. For a detailed description, please see Catalog IC 10 or Siemens Industry Mall:

http://www.siemens.com/industrymall

Paint finish

Motors without a paint finish have an impregnated resin coating. Motors with primer have corrosion protection.

All motors can be painted over with commercially available paints. Up to 2 additional paint coats are permissible.

Version

Suitability of paint finish for climate group
in accordance with IEC 60721, Part 2 – 1

Paint finish

Moderate (expanded)
for indoor and outdoor installation with roof protection

Briefly up to 150 °C (302 °F)

Continuously up to 120 °C (248 °F)

Special paint finish

Worldwide (expanded)
for outdoor installation

Briefly up to 150 °C (302 °F)

Continuously up to 120 °C (248 °F)

Also for corrosive atmospheres up to 1 % acid and alkali concentration or permanent dampness in sheltered rooms



Built-in encoder systems without DRIVE?CLiQ interface

For motors without an integrated DRIVE?CLiQ interface, the analog encoder signal in the drive system is converted to a digital signal. For these motors as well as external encoders, the encoder signals must be connected to SINAMICS S120 via Sensor Modules.

Built-in encoder systems with DRIVE?CLiQ interface

For motors with an integrated DRIVE?CLiQ interface, the analog encoder signal is internally converted to a digital signal. There is no further conversion of the encoder signal in the drive system. The motor-internal encoders are the same encoders that are used for motors without a DRIVE?CLiQ interface. Motors with a DRIVE?CLiQ interface simplify the commissioning and diagnostics, for example, due to automatic identification of the encoder system.

The different encoder types, incremental, absolute or resolver, are uniformly connected with one type of MOTION-CONNECT DRIVE?CLiQ cable.

Short designations for the encoder systems

The first letters of the short designation define the encoder type. This is followed by the resolution in signals per revolution if S/R is specified (for encoders without DRIVE-CLiQ interface) or in bits if DQ is specified (for encoders with DRIVE-CLiQ interface).

Type

Resolution/interface

AM
AS
IC
IN
HTL

xxxxS/R

Encoder without DRIVE?CLiQ interface
Resolution = xxxx signals per revolution

AM
AS
IC
IN
R

xxDQ

Encoder with DRIVE?CLiQ interface
Resolution = 2xx bit

AM
AS
IC
IN
HTL
R

Multi-turn absolute encoder
Single-turn absolute encoder
Incremental encoder sin/cos with commutation position C and D tracks
Incremental encoder sin/cos without commutation position
Incremental encoder with HTL signal
Resolver



Overview of the motor encoder systems

Encoder without DRIVE?CLiQ interface

Encoder with DRIVE?CLiQ interface

Absolute position within a revolution (single-turn)

Absolute position over 4096 revolutions (multi-turn)

For use in Safety applications1)

 

Identification letter in the
motor order number

 

Identification letter in the motor order number

   

Encoder

1FT7

1FK7

1FW3

1PH8

Encoder

1FT7

1FK7

1FW3

1PH8

   

AM24DQI

C

C

Yes

Yes

Yes

AM20DQI

R

Yes

Yes

Yes

AS24DQI

B

B

Yes

No

Yes

AS20DQI

Q

Yes

No

Yes

AM2048S/R

M

E

E

E

AM22DQ

F

F

F

F

Yes

Yes

Yes

AM512S/R

H

AM20DQ

L

Yes

Yes

Yes

AM32S/R

G

AM16DQ

K

Yes

Yes

No

AM16S/R

J

AM15DQ

V

Yes

Yes

No

AS2048S/R

N

AS22DQ

P

Yes

No

No

IC2048S/R

N

A

A

M

IC22DQ

D

D

D

D

No

No

Yes

IN2048S/R

IN22DQ

Q

No

No

Yes

HTL1024S/R

H

No

No

No

HTL2048S/R

J

No

No

No

Resolver
p=1

T

R14DQ

P

Yes

No

No

Resolver
p=3

S

S

R15DQ

U

U

No

No

No

Resolver
p=4

S

S

R15DQ

U

U

No

No

No



1) Not for 1FW3 motors.

Not all encoders are available for every motor shaft height.

– Not possible

Multi-turn absolute encoder

Multi-turn absolute encoder

This encoder outputs an absolute angular position between 0° and 360° in the specified resolution. An internal measuring gearbox enables it to differentiate 4096 rotations. With a ball screw, for example, the absolute position of the slide can be determined over a long distance.

Single-turn absolute encoder

This encoder outputs an absolute angular position between 0° and 360° in the specified resolution. In contrast to the multi-turn absolute encoder, it has no measuring gearbox and can therefore only supply the position value within one revolution. It does not have a traversing range.

Absolute encoder without DRIVE?CLiQ interface

 

AM2048S/R

Absolute encoder 2048 S/R, 4096 revolutions
multi-turn, with EnDat interface

AM512S/R

Absolute encoder 512 S/R, 4096 revolutions
multi-turn, with EnDat interface

AM32S/R

Absolute encoder 32 S/R, 4096 revolutions
multi-turn, with EnDat interface

AM16S/R

Absolute encoder 16 S/R, 4096 revolutions
multi-turn, with EnDat interface

AS2048S/R

Absolute encoder single-turn 2048 S/R

Absolute encoder with DRIVE?CLiQ interface

 

AM24DQI
encoder

Absolute encoder 24 bit (resolution 16777216, internal 2048 S/R)+ 12 bit multi-turn (traversing range 4096 revolutions)

AM20DQI
encoder

Absolute encoder 20 bit (resolution 1048576, internal 512 S/R)+ 12 bit multi-turn (traversing range 4096 revolutions)

AM22DQ
encoder

Absolute encoder 22 bit (resolution 4194304, internal 2048 S/R)+ 12 bit multi-turn (traversing range 4096 revolutions)

AM20DQ
encoder

Absolute encoder 20 bit (resolution 1048576, internal 512 S/R)+ 12 bit multi-turn (traversing range 4096 revolutions)

AM16DQ
encoder

Absolute encoder 16 bit (resolution 65536, internal 32 S/R)+ 12 bit multi-turn (traversing range 4096 revolutions)

AM15DQ
encoder

Absolute encoder 15 bit (resolution 32768, internal 16 S/R)+ 12 bit multi-turn (traversing range 4096 revolutions)

AS24DQI
encoder2)

Single-turn absolute encoder 24 bit

AS20DQI
encoder2)

Single-turn absolute encoder 20 bit

AS22DQ
encoder

Single-turn absolute encoder 22 bit



Technical specifications

 

Absolute encoder without DRIVE?CLiQ interface

Supply voltage

5 V

Absolute position interface
via EnDat

 

Traversing range (multi-turn)1)

4096 revolutions

Incremental signals
(sinusoidal, 1 Vpp)

 

Signals per revolution

2048/512/32/16

Absolute encoder with DRIVE?CLiQ interface

 

Supply voltage

24 V

Absolute position via DRIVE-?LiQ

 

Resolution within one revolution

224/222/220/216/215 bit

Traversing range (multi-turn)1)

4096 revolutions



1) Not for absolute encoder, single-turn AS.

2) The single-turnabsolute encoder is used for the previous incremental encoders.

Incremental encoder

Incremental encoder IC/IN (sin/cos), commutation position for IC only

This encoder senses relative movements and does not supply absolute position information. In combination with evaluation logic, a zero point can be determined using the integrated reference mark, which can be used in turn to calculate the absolute position.

Incremental encoder IC/IN (sin/cos)

The encoder outputs sine and cosine signals. These can be interpolated using evaluation logic (usually 2048 points) and the direction of rotation can be determined.

In the version with DRIVE?CLiQ interface, this evaluation logic is already integrated in the encoder.

Commutation position

The position of the rotor is required for commutation of a synchronous motor. Encoders with commutation position (also termed C and D track) detect the angular position of the rotor.

Incremental encoder IC/CN (sin/cos), commutation position only for IC

HTL incremental encoder

Incremental encoder without DRIVE-CLiQ interface

 

IC2048S/R

Incremental encoder sin/cos 1 Vpp 2048 S/R
with C and D tracks

IN2048S/R

Incremental encoder sin/cos 1 Vpp 2048 S/R
without C and D tracks

Incremental encoder with DRIVE-CLiQ interface

 

IC22DQ

Incremental encoder 22 bit
(resolution 4194304, internal 2048 S/R)
+ commutation position 11 bit

IN22DQ

Incremental encoder 22 bit
(resolution  4194304, internal 2048 S/R)
without commutation position



Technical specifications

 

Angular error

 
  • IC2048S/R and IC22DQ

± 40''

  • IN2048S/R and IN22DQ

± 120''

Incremental encoder IC/IN (sin/cos) without DRIVE-CLiQ interface

Supply voltage

5 V

Incremental signals per revolution

 
  • Resolution sin/cos

2048

  • Commutation position (for IC only)

1 sin/cos

  • Reference signal

1

Incremental encoder IC/IN (sin/cos) with DRIVE-CLiQ interface

Supply voltage

24 V

Incremental signals per revolution

 
  • Resolution

222 bit

  • Commutation position (for IC only)

11 bit

  • Reference signal

1



HTL incremental encoder

The encoder outputs square wave signals. The direction of rotation can be evaluated by means of edge evaluation.

The resolution is four times the number of encoder pulses. This encoder type is preferred for long signal cables.

HTL incremental encoder

Incremental encoder without DRIVE?CLiQ interface

 

IC2048S/R
encoder

Incremental encoder sin/cos 1 Vpp 2048 S/R
with C and D tracks

IN2048S/R
encoder

Incremental encoder sin/cos 1 Vpp 2048 S/R
without C and D tracks

HTL2048S/R
encoder

Incremental encoder HTL 2048 S/R

HTL1024S/R
encoder

Incremental encoder HTL 1024 S/R

Incremental encoder without DRIVE?CLiQ interface

 

IC22DQ
encoder

Incremental encoder 22 bit
(resolution 4194304, internal 2048 S/R)
with commutation position 11 bit

IN22DQ
encoder

Incremental encoder 22 bit
(resolution 4194304, internal 2048 S/R)
without commutation position 11 bit



Technical specifications

 

Incremental encoders HTL without DRIVE?CLiQ interface

Supply voltage

5 V

Incremental signals
per revolution

 
  • Resolution (sin/cos)

2048

  • Commutation position
    (for IC only)

1 sin/cos

  • Reference signal

1

Incremental encoders HTL with DRIVE?CLiQ interface

 

Supply voltage

24 V

Incremental signals
per revolution

 
  • Resolution

222 bit

  • Commutation position
    (for IC only)

11 bit

  • Reference signal

1

Incremental encoders HTL without DRIVE?CLiQ interface

Supply voltage

10 ... 30 V

Incremental signals per revolution

 
  • Resolution (HTL)

2048/1024

  • Reference signal

1



1) Instead of the IC22DQ incremental encoder, the AS24DQI single-turn absolute encoder is used for SIMOTICS S?1FK7/1FT7.

Resolver

Resolver

The number of sine and cosine periods per revolution corresponds to the number of pole pairs of the resolver. In the case of a 2?pole resolver, the evaluation electronics may output an additional zero pulse per encoder revolution. This zero pulse ensures a unique assignment of the position information in relation to an encoder revolution. A 2?pole resolver can therefore be used as a single-turn encoder.

2?pole resolvers can be used for motors with any number of pairs of poles. In the case of multi-pole resolvers, the number of pairs of poles of the motor and resolver are always the same. The resolution is correspondingly higher than with 2?pole resolvers.

Resolver without DRIVE?CLiQ interface1)

 

Resolver p = 1

2-pole resolver

Resolver p = 3

6-pole resolver

Resolver p = 4

8-pole resolver

Resolver with DRIVE-CLiQ interface

 

R15DQ
encoder

Resolver 15 bit
(resolution 32768, internal, multi-pole)

R14DQ
encoder

Resolver 14 bit
(resolution 16384, internal, 2-pole)



Technical specifications

 

Resolver without DRIVE?CLiQ interface

Excitation voltage, rms

2 ... 8 V

Excitation frequency

5 ... 10 kHz

Output signals

Usine track = r ? Uexcitation ? sin ?

Ucosine track = r ? Uexcitation ? cos ?

? = arctan (Usine track/Ucosine track)

Transmission ratio

r = 0.5 ± 5 %

Resolver with DRIVE?CLiQ interface

Supply voltage

24 V

Resolution

215/214 bit



1) Output signals:

2-pole resolver: 1 sin/cos signal per revolution

6-pole resolver: 3 sin/cos signals per revolution

8-pole resolver: 4 sin/cos signals per revolution

















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Äàò÷èêè è èçìåðèòåëè

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Deprecated: Function eregi() is deprecated in /home/h101150-2/siemens71.ru/docs/kip/kip.php on line 30

Deprecated: Function eregi() is deprecated in /home/h101150-2/siemens71.ru/docs/kip/kip.php on line 30


Deprecated: Function eregi() is deprecated in /home/h101150-2/siemens71.ru/docs/kip/kip.php on line 30

Deprecated: Function eregi() is deprecated in /home/h101150-2/siemens71.ru/docs/kip/kip.php on line 30
Ðåãóëÿòîðû è ðåãèñòðàòîðû

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Deprecated: Function eregi() is deprecated in /home/h101150-2/siemens71.ru/docs/kip/kip.php on line 30

Deprecated: Function eregi() is deprecated in /home/h101150-2/siemens71.ru/docs/kip/kip.php on line 30

Deprecated: Function eregi() is deprecated in /home/h101150-2/siemens71.ru/docs/kip/kip.php on line 30


Deprecated: Function eregi() is deprecated in /home/h101150-2/siemens71.ru/docs/kip/kip.php on line 30

Deprecated: Function eregi() is deprecated in /home/h101150-2/siemens71.ru/docs/kip/kip.php on line 30
Ïíåâìàòè÷åñêîå îáîðóäîâàíèå

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Deprecated: Function eregi() is deprecated in /home/h101150-2/siemens71.ru/docs/kip/kip.php on line 30

Deprecated: Function eregi() is deprecated in /home/h101150-2/siemens71.ru/docs/kip/kip.php on line 30

Deprecated: Function eregi() is deprecated in /home/h101150-2/siemens71.ru/docs/kip/kip.php on line 30


Deprecated: Function eregi() is deprecated in /home/h101150-2/siemens71.ru/docs/kip/kip.php on line 30

Deprecated: Function eregi() is deprecated in /home/h101150-2/siemens71.ru/docs/kip/kip.php on line 30
Êðàíû è Êëàïàíû

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Deprecated: Function eregi() is deprecated in /home/h101150-2/siemens71.ru/docs/kip/kip.php on line 30

Deprecated: Function eregi() is deprecated in /home/h101150-2/siemens71.ru/docs/kip/kip.php on line 30

Deprecated: Function eregi() is deprecated in /home/h101150-2/siemens71.ru/docs/kip/kip.php on line 30


Deprecated: Function eregi() is deprecated in /home/h101150-2/siemens71.ru/docs/kip/kip.php on line 30

Deprecated: Function eregi() is deprecated in /home/h101150-2/siemens71.ru/docs/kip/kip.php on line 30
Èçìåðèòåëüíûå ïðèáîðû

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Deprecated: Function eregi() is deprecated in /home/h101150-2/siemens71.ru/docs/kip/kip.php on line 30

Deprecated: Function eregi() is deprecated in /home/h101150-2/siemens71.ru/docs/kip/kip.php on line 30

Deprecated: Function eregi() is deprecated in /home/h101150-2/siemens71.ru/docs/kip/kip.php on line 30


Deprecated: Function eregi() is deprecated in /home/h101150-2/siemens71.ru/docs/kip/kip.php on line 30

Deprecated: Function eregi() is deprecated in /home/h101150-2/siemens71.ru/docs/kip/kip.php on line 30
Ñèñòåìû áåñïðîâîäíîãî óïðàâëåíèÿ «óìíûé äîì»

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Deprecated: Function eregi() is deprecated in /home/h101150-2/siemens71.ru/docs/kip/kip.php on line 30

Deprecated: Function eregi() is deprecated in /home/h101150-2/siemens71.ru/docs/kip/kip.php on line 30

Deprecated: Function eregi() is deprecated in /home/h101150-2/siemens71.ru/docs/kip/kip.php on line 30


Deprecated: Function eregi() is deprecated in /home/h101150-2/siemens71.ru/docs/kip/kip.php on line 30

Deprecated: Function eregi() is deprecated in /home/h101150-2/siemens71.ru/docs/kip/kip.php on line 30
Áåñêîíòàêòíûå âûêëþ÷àòåëè Êîíå÷íûå âûêëþ÷àòåëè Îïòè÷åñêèå äàò÷èêè Ýíêîäåðû

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Deprecated: Function eregi() is deprecated in /home/h101150-2/siemens71.ru/docs/kip/kip.php on line 30

Deprecated: Function eregi() is deprecated in /home/h101150-2/siemens71.ru/docs/kip/kip.php on line 30

Deprecated: Function eregi() is deprecated in /home/h101150-2/siemens71.ru/docs/kip/kip.php on line 30

Deprecated: Function eregi() is deprecated in /home/h101150-2/siemens71.ru/docs/kip/kip.php on line 30


Deprecated: Function eregi() is deprecated in /home/h101150-2/siemens71.ru/docs/kip/kip.php on line 30
SKW-FS - Óñòàíîâêà óìÿã÷åíèÿ

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Deprecated: Function eregi() is deprecated in /home/h101150-2/siemens71.ru/docs/kip/kip.php on line 30

Deprecated: Function eregi() is deprecated in /home/h101150-2/siemens71.ru/docs/kip/kip.php on line 30

Deprecated: Function eregi() is deprecated in /home/h101150-2/siemens71.ru/docs/kip/kip.php on line 30

Deprecated: Function eregi() is deprecated in /home/h101150-2/siemens71.ru/docs/kip/kip.php on line 30


Deprecated: Function eregi() is deprecated in /home/h101150-2/siemens71.ru/docs/kip/kip.php on line 30
SKW-FK - Óñòàíîâêà îáåçæåëåçèâàíèÿ
Êàòàëîã îáîðóäîâàíèÿ 2016
Êàòàëîã ïðîäóêòîâ Siemens Industry Ïðèâîäíàÿ òåõíèêà Òåõíèêà àâòîìàòèçàöèè Àâòîìàòèçàöèÿ è áåçîïàñíîñòü çäàíèé Íèçêîâîëüòíàÿ êîììóòàöèîííàÿ òåõíèêà Òåõíîëîãèÿ áåçîïàñíîñòè Ñèñòåìíûå ðåøåíèÿ è ïðîäóêòû äëÿ îòðàñëåé Àâòîìîáèëüíàÿ ïðîìûøëåííîñòü Áèîòîïëèâî Õèìè÷åñêàÿ ïðîìûøëåííîñòü Ïèùåâàÿ ïðîìûøëåííîñòü Ïðîèçâîäñòâåííûå ìàøèíû Íåïðåðûâíîå ïðåîáðàçîâàíèå ëèñòîâîãî ìàòåðèàëà - Converting Ïå÷àòü Ìàíèïóëÿòîðû Ïëàñòèê Òåêñòèëü Îáðàáîòêà ìåòàëëîâ äàâëåíèåì Óïàêîâêà Êîìïîíåíòû àâòîìàòèçàöèè äëÿ ñòàíêîâ SINUMERIK 808 with SINAMICS V60/V70 SINUMERIK 828 with SINAMICS S120 SINUMERIK 840 with SINAMICS S120 Introduction SINUMERIK 840D sl with SINAMICS S120 SINUMERIK CNC control SINUMERIK Operate SINUMERIK Integrate SINAMICS S120 drive system SIMOTICS motors Technical definitions Feed motors Direct drives Main spindle motors Liquid cooling for SIMOTICS motors CAD CREATOR MOTION-CONNECT connection systems Lifecycle Services SINUMERIK Solution Partners Approvals List of abbreviations Ãîðíàÿ è ìåòàëëóðãè÷åñêàÿ ïðîìûøëåííîñòü Íåôòåãàçîâàÿ ïðîìûøëåííîñòü Ôàðìàöåâòè÷åñêàÿ ïðîìûøëåííîñòü Áóìàæíàÿ ïðîìûøëåííîñòü Ñîëíå÷íàÿ ýíåðãåòèêà Òðàíñïîðò, èíôðàñòðóêòóðà, ëîãèñòèêà Âîäà è âîäîïîäãîòîâêà Ñáûò ýëåêòðîýíåðãèè Âîçîáíîâëÿåìûå èñòî÷íèêè ýíåðãèè Îòðàñëåâûå ðåøåíèÿ Îòðàñëåâûå ïðîäóêòû Ñåðâèñ ... è âñå, ÷òî Âàì åùå íåîáõîäèìî




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