Motors & Encoders

• • Part
  • Part Number
  • Manufacturer
  • Description
• • B&R X20MM2436
  • X20MM2436
  • B&R
  • The motor bridge module is used to control 2 DC motors with a nominal voltage of 24 to 39 VDC ±25% at a nominal current up to 3 A. The module can be reconfigured and used in current controller mode for controlling inductive loads. The module is also equipped with 4 digital inputs, which can be used as incremental counters. Each motor is controlled with a full-bridge (H-bridge). This enables the motors to be moved in both directions.
• • B&R X20MM3332
  • X20MM3332
  • B&R
  • The 3 outputs on the motor module are designed as full-bridge outputs. The continuous current per channel is 3 A at a peak current of up to 5 A. Integrated diagnostics offer the possibility to read back the output current for each channel using the application. The module offers extensive possibilities for controlling motors, valves or resistive loads and is particularly well suited for controlling brush DC motors. Because the outputs are designed as full-bridge outputs, the motors can be moved in both directions.
• • B&R X20MM4331
  • X20MM4331
  • B&R
  • The 4 outputs on the motor module are designed as half-bridge outputs. The continuous current per channel is 3 A at a peak current of up to 5 A. Integrated diagnostics offer the possibility to read back the output current for each channel using the application. The module offers extensive possibilities for controlling motors, valves or resistive loads and is particularly well suited for controlling brush DC motors. The outputs can be switched on/off and short-circuited.
• • B&R X20MM4455
  • X20MM4455
  • B&R
  • The PMW motor bridge module is used to control 4 DC motors with a nominal voltage of 24 to 48 VDC ±25% at a nominal current up to 6 A.
• • B&R X20MM4456
  • X20MM4456
  • B&R
  • The PMW motor bridge module is used to control 4 DC motors with a nominal voltage of 24 to 48 VDC ±25% at a nominal current up to 6 A.
• • B&R X20SM1426
  • X20SM1426
  • B&R
  • The stepper motor module is used to control stepper motors with a rated voltage of 24 VDC at a motor current up to 1 A (1.2 A peak). Additionally, this module has four digital inputs that can be used as limit switches or as encoder inputs. Due to the individual adjustment of the coil currents, the motor is only operated with the current it actually needs. This simplifies the selection of the available motors and prevents unnecessary heating. Because this affects energy consumption and thermal load, the effects are positive on the service life of the complete system. Complete flexibility is achieved through the use of independently adjustable holding, maximum and nominal current values. The current for microsteps is automatically adjusted to the configured current values. The automatic motor identification system is an enormous help during standstills. The stepper motor modules can identify the connected motors using their coil characteristics and generate feedback in the form of an analog value. This makes it possible to detect not only wiring errors, but also incorrect motor types being used mistakenly. "Stall detection" is integrated to analyze the motor load. Detection of the stall is defined via a configurable threshold. This allows an overload or motor standstill to be detected precisely in many different types of applications.
• • B&R X20SM1436
  • X20SM1436
  • B&R
  • The stepper motor module is used to control stepper motors with a nominal voltage of 24 to 39 VDC (±25%) at a motor current up to 3 A (3.5 A peak). In addition, this module has 4 digital inputs that can be used as limit switches or encoder inputs. Due to the individual adjustment of the coil currents, the motor is only operated with the current it actually needs. This simplifies the selection of the available motors and prevents unnecessary heating. Because this affects energy consumption and thermal load, the effects are positive on the service life of the complete system. Complete flexibility is achieved through the use of independently adjustable holding, maximum and nominal current values. The current for microsteps is automatically adjusted to the configured current values. The automatic motor identification system is an enormous help during standstills. The stepper motor modules can identify the connected motors using their coil characteristics and generate feedback in the form of an analog value. This makes it possible to detect not only wiring errors, but also incorrect motor types being used mistakenly. "Stall detection" is integrated to analyze the motor load. Detection of the stall is defined via a configurable threshold. This allows an overload or motor standstill to be detected precisely in many different types of applications.
• • B&R X20SM1436-1
  • X20SM1436-1
  • B&R
  • The stepper motor module is used to control stepper motors with a nominal voltage of 24 to 48 VDC (±25%) at a motor current up to 2.5 A (3.5 A peak). In addition, this module has 4 digital inputs that can be used as limit switches or encoder inputs. Due to the individual adjustment of the coil currents, the motor is only operated with the current it actually needs. This simplifies the selection of the available motors and prevents unnecessary heating. Because this affects energy consumption and thermal load, the effects are positive on the service life of the complete system. Complete flexibility is achieved through the use of independently adjustable holding, maximum and nominal current values. The current for microsteps is automatically adjusted to the configured current values. In addition, the module contains a sensorless, load-dependent current control. Depending on the operating situation and load, the module regulates the current downwards. Energy savings up to 75% are possible in this way. The automatic motor identification system is an enormous help during standstills. The stepper motor modules can identify the connected motors using their coil characteristics and generate feedback in the form of an analog value. This makes it possible to detect not only wiring errors, but also incorrect motor types being used mistakenly. "Stall detection" is integrated to analyze the motor load. Detection of the stall is defined via a configurable threshold. This allows an overload or motor standstill to be detected precisely in many different types of applications.
• • B&R X20SM1444-1
  • X20SM1444-1
  • B&R
  • The stepper motor module is used to control stepper motors with a nominal voltage of 24 to 48 VDC (±25%) at a motor current up to 5 A (10 A peak). ABR outputs R+ and R- can also be used as digital inputs. Due to the individual adjustment of the coil currents, the motor is only operated with the current it actually needs. This simplifies the selection of the available motors and prevents unnecessary heating. Because this affects energy consumption and thermal load, the effects are positive on the service life of the complete system. Complete flexibility is achieved through the use of independently adjustable holding, maximum and nominal current values. The current for microsteps is automatically adjusted to the configured current values. In addition, the module contains a sensorless, load-dependent current control. Depending on the operating situation and load, the module regulates the current downwards. Energy savings up to 75% are possible in this way. The automatic motor identification system is an enormous help during standstills. The stepper motor modules can identify the connected motors using their coil characteristics and generate feedback in the form of an analog value. This makes it possible to detect not only wiring errors, but also incorrect motor types being used mistakenly. "Stall detection" is integrated to analyze the motor load. Detection of the stall is defined via a configurable threshold. This allows an overload or motor standstill to be detected precisely in many different types of applications.
• • B&R X20SM1446-1
  • X20SM1446-1
  • B&R
  • The stepper motor module is used to control stepper motors with a nominal voltage of 24 to 48 VDC (±25%) at a motor current up to 5 A (10 A peak). In addition, this module has 4 digital inputs that can be used as limit switches or encoder inputs. Due to the individual adjustment of the coil currents, the motor is only operated with the current it actually needs. This simplifies the selection of the available motors and prevents unnecessary heating. Because this affects energy consumption and thermal load, the effects are positive on the service life of the complete system. Complete flexibility is achieved through the use of independently adjustable holding, maximum and nominal current values. The current for microsteps is automatically adjusted to the configured current values. In addition, the module contains a sensorless, load-dependent current control. Depending on the operating situation and load, the module controls the current downwards. Energy savings up to 75% are possible in this way. The automatic motor identification system is an enormous help during standstills. The stepper motor modules can identify the connected motors using their coil characteristics and generate feedback in the form of an analog value. This makes it possible to detect not only wiring errors, but also incorrect motor types being used mistakenly. "Stall detection" is integrated to analyze the motor load. Detection of the stall is defined via a configurable threshold. This allows an overload or motor standstill to be detected precisely in many different types of applications.
• • B&R X67AC0M08
  • X67AC0M08
  • B&R
  • X67 M8 threaded caps, 50 pcs.
• • B&R X67DC1198
  • X67DC1198
  • B&R
  • The possibilities are almost endless with this digital counter module. Connectors 1 and 3 are 12-pin M12 connectors. Each of these can be used to connect 1 incremental encoder or SSI encoder with 5 V differential signals. In addition, there are 2 digital channels available on the same output which, when configured as inputs, can be used with incremental encoders with status outputs (e.g. alarms). When configured as outputs, they act as preset and count direction switching functions when used together with SSI encoders, for example. 2 more sockets and 2 more configurable digital channels are available on female connectors 2 and 4. The inputs can be used as latch, gate, or home enable switches, while the outputs can be used as comparator outputs, for example.
• • B&R X67MM2436
  • X67MM2436
  • B&R
  • This motor bridge module is used to control 2 DC motors with a nominal voltage of 24 to 38.5 VDC ±25% at a nominal current up to 3 A. The module can be reconfigured and used in current controller mode for controlling inductive loads. The module is also equipped with 6 digital inputs, which can be used as incremental counters. Each motor is controlled with a full-bridge (H-bridge). This enables the motors to be moved in both directions.
• • B&R X67SM2436
  • X67SM2436
  • B&R
  • The stepper motor module is used to control up to 2 stepper motors with a nominal voltage of 24 to 38.5 VDC ±25% at a motor current up to 3 A (5 A peak). In addition, this module has 6 digital inputs that can be used as limit switches or encoder inputs. Due to the individual adjustment of the coil currents, the motor is only operated with the current it actually needs. This simplifies the selection of the available motors and prevents unnecessary heating. Because this affects energy consumption and thermal load, the effects are positive on the service life of the complete system. Complete flexibility is achieved through the use of independently adjustable holding, boost and nominal current values. The current for microsteps is automatically adjusted to the configured current values. The automatic motor identification system is an enormous help during standstills. The stepper motor modules can identify the connected motors using their coil characteristics and generate feedback in the form of an analog value. This makes it possible to detect not only wiring errors, but also incorrect motor types being used mistakenly. A stall detection mechanism is integrated to analyze the motor load. Detection of the stall is defined via a configurable threshold. This allows an overload or motor standstill to be detected precisely in many different types of applications.
• • B&R X67SM2446-1
  • X67SM2446-1
  • B&R
  • The stepper motor module is used to control stepper motors with a nominal voltage of 24 to 48 VDC (±25%) at a motor current up to 4 A (8 A peak). In addition, this module has 6 digital inputs that can be used as limit switches or encoder inputs. Due to the individual adjustment of the coil currents, the motor is only operated with the current it actually needs. This simplifies the selection of the available motors and prevents unnecessary heating. Because this affects energy consumption and thermal load, the effects are positive on the service life of the complete system. Complete flexibility is achieved through the use of independently adjustable holding, maximum and nominal current values. The current for microsteps is automatically adjusted to the configured current values. In addition, the module contains a sensorless, load-dependent current control. Depending on the operating situation and load, the module controls the current downwards. Energy savings up to 75% are possible in this way. The automatic motor identification system is an enormous help during standstills. The stepper motor modules can identify the connected motors using their coil characteristics and generate feedback in the form of an analog value. This makes it possible to detect not only wiring errors, but also incorrect motor types being used mistakenly. "Stall detection" is integrated to analyze the motor load. Detection of the stall is defined via a configurable threshold. This allows an overload or motor standstill to be detected precisely in many different types of applications.
• • B&R X67SM4320
  • X67SM4320
  • B&R
  • This stepper motor module is used to control up to 4 stepper motors with a rated voltage of 24 VDC ±25% at a motor current up to 1 A (1.5 A peak). By individually adjusting the coil currents, the motor is only operated with the current it actually needs. This simplifies selection of the available motors and prevents unnecessary heating. Because the latter reduces energy consumption and thermal load, the effects are positive on the lifespan of the complete system. Complete flexibility is achieved by using the values for holding current, boost current and continuous current, which are completely independent of each other. The current for microsteps is automatically adjusted to the configured current values. A stall detection mechanism is integrated to analyze the motor load. The stall is recognized using a configurable threshold. This allows an overload or motor standstill to be detected precisely in many different types of applications.
• • B&R X90SM546.01-00
  • X90SM546.01-00
  • B&R
  • X90 stepper motor module, with current reduction function, module power supply 15 to 60 VDC, 1 motor connection, 4 A continuous current, 8 A peak current, 4 digital inputs, NetTime function
• • B&R X90SM546.02-00
  • X90SM546.02-00
  • B&R
  • The SM option board offers the possibility of connecting two 4 A stepper motors with 15 to 60 V. Communication with the mainboard is made possible via X2X Link.
• • Allen-Bradley XA10018
  • XA10018
  • Allen-Bradley
  • Y-AXIS MOTOR COIL ASSEMBLY (LCK-S-1-NC-T
• • Allen-Bradley XA10020
  • XA10020
  • Allen-Bradley
  • Y-AXIS MOTOR COIL ASSEMBLY (LCK-S-3-NC-T
• • Allen-Bradley XA10096
  • XA10096
  • Allen-Bradley
  • X-axis Motor Coil Assembly (lea (b) -s-8-w.
• • Schneider Electric XBTZG9721
  • XBTZG9721
  • Schneider Electric
  • Harmony XBT, direct connection cable, for XBTGK, XBTGT, XBTGR, 2.5 m
• • Schneider Electric XBTZGUMP
  • XBTZGUMP
  • Schneider Electric
  • USB Gateway, For For XBTGK/XBTGT Terminal, Modbus Plus Bus
• • Telemecanique XCC1406CR03KS01
  • XCC1406CR03KS01
  • Telemecanique
  • NCREMENTAL ENCODER 40MM THROUGH 6MM AXE
• • Telemecanique XCC1406PR01K
  • XCC1406PR01K
  • Telemecanique
  • XCC opto-electronic incremental rotary encoder Ø 40, solid shaft 6 mm, 100 points, push pull