Press Suppliers
Products
Markets
Support
Know how
Career
About us
Events
Motion
Contact
Press Suppliers
Stepper Motors
AM DM-Micro DM-Dynamic DM-Ring
Start Drive Calculator
FAULHABER AM Series AM0820 by FAULHABER
FAULHABER AM Series AM0820 by FAULHABER
FAULHABER AM Series AM0820 by FAULHABER
Thumbnail FAULHABER AM Series AM0820 by FAULHABER
Thumbnail FAULHABER AM Series AM0820 by FAULHABER
Thumbnail FAULHABER AM Series AM0820 by FAULHABER
Downloads
Datasheet
Variants

Stepper Motors Series AM0820

Two phase, 20 steps per revolution

Key Features
Holding torque at boosted current:
1 mNm
Step angle (full step):
18 °
Diameter:
8 mm
Length:
13.8 mm
Advantages
Cost effective positioning drive without encoder
High power density
Very high acceleration
Extremely fast change of direction possible
Long-lasting
Wide operating temperature range
Full-, half- and micro-stepping operation possible
Extremely low rotor inertia
Variants:
Series AM08202R008001
MH Boost : Holding torque at boosted current : 1 mNm |∡ angle : Step angle (full step) : 18 ° |Ø : Diameter : 8 mm |L : Length : 13.8 mm
Series AM08202R015001
MH Boost : Holding torque at boosted current : 1 mNm |∡ angle : Step angle (full step) : 18 ° |Ø : Diameter : 8 mm |L : Length : 13.8 mm
Series AM08202R022501
MH Boost : Holding torque at boosted current : 1 mNm |∡ angle : Step angle (full step) : 18 ° |Ø : Diameter : 8 mm |L : Length : 13.8 mm

Values at 22° and nominal voltageValue
Nominal current per phase (both phases ON) 0.08 A
Boosted current per phase (both phases ON) 0.16 A
Phase resistance 56 Ω
Phase inductance (1 kHz) 12.6 mH
Holding torque (at nominal current in both phases) 0.65 mNm
Holding torque at boosted current 1 mNm
Residual torque, typ. 0.13 mNm
Back-EMF amplitude 2.4 V/k step/s
Electrical time constant 0.21 ms
Rotor inertia 2.75 ·10⁻⁹ kgm²
Step angle (full step) 18 °
Angular accuracy, typ. 10 %
Angular acceleration, max. 363 ·10³ rad/s²
Resonance frequency (at no load) 75 Hz
Thermal resistance 4.1 / 65.3 K/W
Thermal time constant 3.5 / 160 s
Operating temperature range -30 ... 70 °C
Winding temperature, max. 130 °C
Housing material aluminium, black anodized
Mass 3.3 g
Magnet material NdFeB

Values at 22° and nominal voltageValue
Nominal current per phase (both phases ON) 0.08 A
Boosted current per phase (both phases ON) 0.16 A
Phase resistance 56 Ω
Phase inductance (1 kHz) 12.6 mH
Holding torque (at nominal current in both phases) 0.65 mNm
Holding torque at boosted current 1 mNm
Residual torque, typ. 0.13 mNm
Back-EMF amplitude 2.4 V/k step/s
Electrical time constant 0.21 ms
Rotor inertia 2.75 ·10⁻⁹ kgm²
Step angle (full step) 18 °
Angular accuracy, typ. 10 %
Angular acceleration, max. 363 ·10³ rad/s²
Resonance frequency (at no load) 75 Hz
Thermal resistance 4.1 / 65.3 K/W
Thermal time constant 3.5 / 160 s
Operating temperature range -30 ... 70 °C
Winding temperature, max. 130 °C
Housing material aluminium, black anodized
Mass 3.3 g
Magnet material NdFeB

Values at 22° and nominal voltageValue
Nominal current per phase (both phases ON) 0.08 A
Boosted current per phase (both phases ON) 0.16 A
Phase resistance 56 Ω
Phase inductance (1 kHz) 12.6 mH
Holding torque (at nominal current in both phases) 0.65 mNm
Holding torque at boosted current 1 mNm
Residual torque, typ. 0.13 mNm
Back-EMF amplitude 2.4 V/k step/s
Electrical time constant 0.21 ms
Rotor inertia 2.75 ·10⁻⁹ kgm²
Step angle (full step) 18 °
Angular accuracy, typ. 10 %
Angular acceleration, max. 363 ·10³ rad/s²
Resonance frequency (at no load) 75 Hz
Thermal resistance 4.1 / 65.3 K/W
Thermal time constant 3.5 / 160 s
Operating temperature range -30 ... 70 °C
Winding temperature, max. 130 °C
Housing material aluminium, black anodized
Mass 3.3 g
Magnet material NdFeB

Values at 22° and nominal voltageValue
Nominal current per phase (both phases ON) 0.08 A
Boosted current per phase (both phases ON) 0.16 A
Phase resistance 56 Ω
Phase inductance (1 kHz) 12.6 mH
Holding torque (at nominal current in both phases) 0.65 mNm
Holding torque at boosted current 1 mNm
Residual torque, typ. 0.13 mNm
Back-EMF amplitude 2.4 V/k step/s
Electrical time constant 0.21 ms
Rotor inertia 2.75 ·10⁻⁹ kgm²
Step angle (full step) 18 °
Angular accuracy, typ. 10 %
Angular acceleration, max. 363 ·10³ rad/s²
Resonance frequency (at no load) 75 Hz
Thermal resistance 4.1 / 65.3 K/W
Thermal time constant 3.5 / 160 s
Operating temperature range -30 ... 70 °C
Winding temperature, max. 130 °C
Housing material aluminium, black anodized
Mass 3.3 g
Magnet material NdFeB

Values at 22° and nominal voltageValue
Nominal current per phase (both phases ON) 0.08 A
Boosted current per phase (both phases ON) 0.16 A
Phase resistance 56 Ω
Phase inductance (1 kHz) 12.6 mH
Holding torque (at nominal current in both phases) 0.65 mNm
Holding torque at boosted current 1 mNm
Residual torque, typ. 0.13 mNm
Back-EMF amplitude 2.4 V/k step/s
Electrical time constant 0.21 ms
Rotor inertia 2.75 ·10⁻⁹ kgm²
Step angle (full step) 18 °
Angular accuracy, typ. 10 %
Angular acceleration, max. 363 ·10³ rad/s²
Resonance frequency (at no load) 75 Hz
Thermal resistance 4.1 / 65.3 K/W
Thermal time constant 3.5 / 160 s
Operating temperature range -30 ... 70 °C
Winding temperature, max. 130 °C
Housing material aluminium, black anodized
Mass 3.3 g
Magnet material NdFeB

Values at 22° and nominal voltageValue
Nominal current per phase (both phases ON) 0.08 A
Boosted current per phase (both phases ON) 0.16 A
Phase resistance 56 Ω
Phase inductance (1 kHz) 12.6 mH
Holding torque (at nominal current in both phases) 0.65 mNm
Holding torque at boosted current 1 mNm
Residual torque, typ. 0.13 mNm
Back-EMF amplitude 2.4 V/k step/s
Electrical time constant 0.21 ms
Rotor inertia 2.75 ·10⁻⁹ kgm²
Step angle (full step) 18 °
Angular accuracy, typ. 10 %
Angular acceleration, max. 363 ·10³ rad/s²
Resonance frequency (at no load) 75 Hz
Thermal resistance 4.1 / 65.3 K/W
Thermal time constant 3.5 / 160 s
Operating temperature range -30 ... 70 °C
Winding temperature, max. 130 °C
Housing material aluminium, black anodized
Mass 3.3 g
Magnet material NdFeB

Values at 22° and nominal voltageValue
Nominal current per phase (both phases ON) 0.08 A
Boosted current per phase (both phases ON) 0.16 A
Phase resistance 56 Ω
Phase inductance (1 kHz) 12.6 mH
Holding torque (at nominal current in both phases) 0.65 mNm
Holding torque at boosted current 1 mNm
Residual torque, typ. 0.13 mNm
Back-EMF amplitude 2.4 V/k step/s
Electrical time constant 0.21 ms
Rotor inertia 2.75 ·10⁻⁹ kgm²
Step angle (full step) 18 °
Angular accuracy, typ. 10 %
Angular acceleration, max. 363 ·10³ rad/s²
Resonance frequency (at no load) 75 Hz
Thermal resistance 4.1 / 65.3 K/W
Thermal time constant 3.5 / 160 s
Operating temperature range -30 ... 70 °C
Winding temperature, max. 130 °C
Housing material aluminium, black anodized
Mass 3.3 g
Magnet material NdFeB

Values at 22° and nominal voltageValue
Nominal current per phase (both phases ON) 0.15 A
Boosted current per phase (both phases ON) 0.3 A
Phase resistance 18 Ω
Phase inductance (1 kHz) 3.9 mH
Holding torque (at nominal current in both phases) 0.65 mNm
Holding torque at boosted current 1 mNm
Residual torque, typ. 0.13 mNm
Back-EMF amplitude 1.3 V/k step/s
Electrical time constant 0.21 ms
Rotor inertia 2.75 ·10⁻⁹ kgm²
Step angle (full step) 18 °
Angular accuracy, typ. 10 %
Angular acceleration, max. 363 ·10³ rad/s²
Resonance frequency (at no load) 75 Hz
Thermal resistance 4.1 / 65.3 K/W
Thermal time constant 3.5 / 160 s
Operating temperature range -30 ... 70 °C
Winding temperature, max. 130 °C
Housing material aluminium, black anodized
Mass 3.3 g
Magnet material NdFeB

Values at 22° and nominal voltageValue
Nominal current per phase (both phases ON) 0.15 A
Boosted current per phase (both phases ON) 0.3 A
Phase resistance 18 Ω
Phase inductance (1 kHz) 3.9 mH
Holding torque (at nominal current in both phases) 0.65 mNm
Holding torque at boosted current 1 mNm
Residual torque, typ. 0.13 mNm
Back-EMF amplitude 1.3 V/k step/s
Electrical time constant 0.21 ms
Rotor inertia 2.75 ·10⁻⁹ kgm²
Step angle (full step) 18 °
Angular accuracy, typ. 10 %
Angular acceleration, max. 363 ·10³ rad/s²
Resonance frequency (at no load) 75 Hz
Thermal resistance 4.1 / 65.3 K/W
Thermal time constant 3.5 / 160 s
Operating temperature range -30 ... 70 °C
Winding temperature, max. 130 °C
Housing material aluminium, black anodized
Mass 3.3 g
Magnet material NdFeB

Values at 22° and nominal voltageValue
Nominal current per phase (both phases ON) 0.15 A
Boosted current per phase (both phases ON) 0.3 A
Phase resistance 18 Ω
Phase inductance (1 kHz) 3.9 mH
Holding torque (at nominal current in both phases) 0.65 mNm
Holding torque at boosted current 1 mNm
Residual torque, typ. 0.13 mNm
Back-EMF amplitude 1.3 V/k step/s
Electrical time constant 0.21 ms
Rotor inertia 2.75 ·10⁻⁹ kgm²
Step angle (full step) 18 °
Angular accuracy, typ. 10 %
Angular acceleration, max. 363 ·10³ rad/s²
Resonance frequency (at no load) 75 Hz
Thermal resistance 4.1 / 65.3 K/W
Thermal time constant 3.5 / 160 s
Operating temperature range -30 ... 70 °C
Winding temperature, max. 130 °C
Housing material aluminium, black anodized
Mass 3.3 g
Magnet material NdFeB

Values at 22° and nominal voltageValue
Nominal current per phase (both phases ON) 0.15 A
Boosted current per phase (both phases ON) 0.3 A
Phase resistance 18 Ω
Phase inductance (1 kHz) 3.9 mH
Holding torque (at nominal current in both phases) 0.65 mNm
Holding torque at boosted current 1 mNm
Residual torque, typ. 0.13 mNm
Back-EMF amplitude 1.3 V/k step/s
Electrical time constant 0.21 ms
Rotor inertia 2.75 ·10⁻⁹ kgm²
Step angle (full step) 18 °
Angular accuracy, typ. 10 %
Angular acceleration, max. 363 ·10³ rad/s²
Resonance frequency (at no load) 75 Hz
Thermal resistance 4.1 / 65.3 K/W
Thermal time constant 3.5 / 160 s
Operating temperature range -30 ... 70 °C
Winding temperature, max. 130 °C
Housing material aluminium, black anodized
Mass 3.3 g
Magnet material NdFeB

Values at 22° and nominal voltageValue
Nominal current per phase (both phases ON) 0.15 A
Boosted current per phase (both phases ON) 0.3 A
Phase resistance 18 Ω
Phase inductance (1 kHz) 3.9 mH
Holding torque (at nominal current in both phases) 0.65 mNm
Holding torque at boosted current 1 mNm
Residual torque, typ. 0.13 mNm
Back-EMF amplitude 1.3 V/k step/s
Electrical time constant 0.21 ms
Rotor inertia 2.75 ·10⁻⁹ kgm²
Step angle (full step) 18 °
Angular accuracy, typ. 10 %
Angular acceleration, max. 363 ·10³ rad/s²
Resonance frequency (at no load) 75 Hz
Thermal resistance 4.1 / 65.3 K/W
Thermal time constant 3.5 / 160 s
Operating temperature range -30 ... 70 °C
Winding temperature, max. 130 °C
Housing material aluminium, black anodized
Mass 3.3 g
Magnet material NdFeB

Values at 22° and nominal voltageValue
Nominal current per phase (both phases ON) 0.15 A
Boosted current per phase (both phases ON) 0.3 A
Phase resistance 18 Ω
Phase inductance (1 kHz) 3.9 mH
Holding torque (at nominal current in both phases) 0.65 mNm
Holding torque at boosted current 1 mNm
Residual torque, typ. 0.13 mNm
Back-EMF amplitude 1.3 V/k step/s
Electrical time constant 0.21 ms
Rotor inertia 2.75 ·10⁻⁹ kgm²
Step angle (full step) 18 °
Angular accuracy, typ. 10 %
Angular acceleration, max. 363 ·10³ rad/s²
Resonance frequency (at no load) 75 Hz
Thermal resistance 4.1 / 65.3 K/W
Thermal time constant 3.5 / 160 s
Operating temperature range -30 ... 70 °C
Winding temperature, max. 130 °C
Housing material aluminium, black anodized
Mass 3.3 g
Magnet material NdFeB

Values at 22° and nominal voltageValue
Nominal current per phase (both phases ON) 0.15 A
Boosted current per phase (both phases ON) 0.3 A
Phase resistance 18 Ω
Phase inductance (1 kHz) 3.9 mH
Holding torque (at nominal current in both phases) 0.65 mNm
Holding torque at boosted current 1 mNm
Residual torque, typ. 0.13 mNm
Back-EMF amplitude 1.3 V/k step/s
Electrical time constant 0.21 ms
Rotor inertia 2.75 ·10⁻⁹ kgm²
Step angle (full step) 18 °
Angular accuracy, typ. 10 %
Angular acceleration, max. 363 ·10³ rad/s²
Resonance frequency (at no load) 75 Hz
Thermal resistance 4.1 / 65.3 K/W
Thermal time constant 3.5 / 160 s
Operating temperature range -30 ... 70 °C
Winding temperature, max. 130 °C
Housing material aluminium, black anodized
Mass 3.3 g
Magnet material NdFeB

Values at 22° and nominal voltageValue
Nominal current per phase (both phases ON) 0.225 A
Boosted current per phase (both phases ON) 0.45 A
Phase resistance 7.3 Ω
Phase inductance (1 kHz) 1.4 mH
Holding torque (at nominal current in both phases) 0.65 mNm
Holding torque at boosted current 1 mNm
Residual torque, typ. 0.13 mNm
Back-EMF amplitude 0.8 V/k step/s
Electrical time constant 0.21 ms
Rotor inertia 2.75 ·10⁻⁹ kgm²
Step angle (full step) 18 °
Angular accuracy, typ. 10 %
Angular acceleration, max. 363 ·10³ rad/s²
Resonance frequency (at no load) 75 Hz
Thermal resistance 4.1 / 65.3 K/W
Thermal time constant 3.5 / 160 s
Operating temperature range -30 ... 70 °C
Winding temperature, max. 130 °C
Housing material aluminium, black anodized
Mass 3.3 g
Magnet material NdFeB

Values at 22° and nominal voltageValue
Nominal current per phase (both phases ON) 0.225 A
Boosted current per phase (both phases ON) 0.45 A
Phase resistance 7.3 Ω
Phase inductance (1 kHz) 1.4 mH
Holding torque (at nominal current in both phases) 0.65 mNm
Holding torque at boosted current 1 mNm
Residual torque, typ. 0.13 mNm
Back-EMF amplitude 0.8 V/k step/s
Electrical time constant 0.21 ms
Rotor inertia 2.75 ·10⁻⁹ kgm²
Step angle (full step) 18 °
Angular accuracy, typ. 10 %
Angular acceleration, max. 363 ·10³ rad/s²
Resonance frequency (at no load) 75 Hz
Thermal resistance 4.1 / 65.3 K/W
Thermal time constant 3.5 / 160 s
Operating temperature range -30 ... 70 °C
Winding temperature, max. 130 °C
Housing material aluminium, black anodized
Mass 3.3 g
Magnet material NdFeB

Values at 22° and nominal voltageValue
Nominal current per phase (both phases ON) 0.225 A
Boosted current per phase (both phases ON) 0.45 A
Phase resistance 7.3 Ω
Phase inductance (1 kHz) 1.4 mH
Holding torque (at nominal current in both phases) 0.65 mNm
Holding torque at boosted current 1 mNm
Residual torque, typ. 0.13 mNm
Back-EMF amplitude 0.8 V/k step/s
Electrical time constant 0.21 ms
Rotor inertia 2.75 ·10⁻⁹ kgm²
Step angle (full step) 18 °
Angular accuracy, typ. 10 %
Angular acceleration, max. 363 ·10³ rad/s²
Resonance frequency (at no load) 75 Hz
Thermal resistance 4.1 / 65.3 K/W
Thermal time constant 3.5 / 160 s
Operating temperature range -30 ... 70 °C
Winding temperature, max. 130 °C
Housing material aluminium, black anodized
Mass 3.3 g
Magnet material NdFeB

Values at 22° and nominal voltageValue
Nominal current per phase (both phases ON) 0.225 A
Boosted current per phase (both phases ON) 0.45 A
Phase resistance 7.3 Ω
Phase inductance (1 kHz) 1.4 mH
Holding torque (at nominal current in both phases) 0.65 mNm
Holding torque at boosted current 1 mNm
Residual torque, typ. 0.13 mNm
Back-EMF amplitude 0.8 V/k step/s
Electrical time constant 0.21 ms
Rotor inertia 2.75 ·10⁻⁹ kgm²
Step angle (full step) 18 °
Angular accuracy, typ. 10 %
Angular acceleration, max. 363 ·10³ rad/s²
Resonance frequency (at no load) 75 Hz
Thermal resistance 4.1 / 65.3 K/W
Thermal time constant 3.5 / 160 s
Operating temperature range -30 ... 70 °C
Winding temperature, max. 130 °C
Housing material aluminium, black anodized
Mass 3.3 g
Magnet material NdFeB

Values at 22° and nominal voltageValue
Nominal current per phase (both phases ON) 0.225 A
Boosted current per phase (both phases ON) 0.45 A
Phase resistance 7.3 Ω
Phase inductance (1 kHz) 1.4 mH
Holding torque (at nominal current in both phases) 0.65 mNm
Holding torque at boosted current 1 mNm
Residual torque, typ. 0.13 mNm
Back-EMF amplitude 0.8 V/k step/s
Electrical time constant 0.21 ms
Rotor inertia 2.75 ·10⁻⁹ kgm²
Step angle (full step) 18 °
Angular accuracy, typ. 10 %
Angular acceleration, max. 363 ·10³ rad/s²
Resonance frequency (at no load) 75 Hz
Thermal resistance 4.1 / 65.3 K/W
Thermal time constant 3.5 / 160 s
Operating temperature range -30 ... 70 °C
Winding temperature, max. 130 °C
Housing material aluminium, black anodized
Mass 3.3 g
Magnet material NdFeB

Values at 22° and nominal voltageValue
Nominal current per phase (both phases ON) 0.225 A
Boosted current per phase (both phases ON) 0.45 A
Phase resistance 7.3 Ω
Phase inductance (1 kHz) 1.4 mH
Holding torque (at nominal current in both phases) 0.65 mNm
Holding torque at boosted current 1 mNm
Residual torque, typ. 0.13 mNm
Back-EMF amplitude 0.8 V/k step/s
Electrical time constant 0.21 ms
Rotor inertia 2.75 ·10⁻⁹ kgm²
Step angle (full step) 18 °
Angular accuracy, typ. 10 %
Angular acceleration, max. 363 ·10³ rad/s²
Resonance frequency (at no load) 75 Hz
Thermal resistance 4.1 / 65.3 K/W
Thermal time constant 3.5 / 160 s
Operating temperature range -30 ... 70 °C
Winding temperature, max. 130 °C
Housing material aluminium, black anodized
Mass 3.3 g
Magnet material NdFeB

Values at 22° and nominal voltageValue
Nominal current per phase (both phases ON) 0.225 A
Boosted current per phase (both phases ON) 0.45 A
Phase resistance 7.3 Ω
Phase inductance (1 kHz) 1.4 mH
Holding torque (at nominal current in both phases) 0.65 mNm
Holding torque at boosted current 1 mNm
Residual torque, typ. 0.13 mNm
Back-EMF amplitude 0.8 V/k step/s
Electrical time constant 0.21 ms
Rotor inertia 2.75 ·10⁻⁹ kgm²
Step angle (full step) 18 °
Angular accuracy, typ. 10 %
Angular acceleration, max. 363 ·10³ rad/s²
Resonance frequency (at no load) 75 Hz
Thermal resistance 4.1 / 65.3 K/W
Thermal time constant 3.5 / 160 s
Operating temperature range -30 ... 70 °C
Winding temperature, max. 130 °C
Housing material aluminium, black anodized
Mass 3.3 g
Magnet material NdFeB

Relevant for 2 phases ON only. On PWM drivers or chopper (current mode), the current is set to the nominal value and the supply voltage is typically 2.5 to 5x higher than the nominal voltage.
Curves measured with a load inertia of 6·10-9 kgm2, in half-step mode for the “1 x nominal voltage” curve, in 1/4 microstepping mode for the other curves.

Relevant for 2 phases ON only. On PWM drivers or chopper (current mode), the current is set to the nominal value and the supply voltage is typically 2.5 to 5x higher than the nominal voltage.
Curves measured with a load inertia of 6·10-9 kgm2, in half-step mode for the “1 x nominal voltage” curve, in 1/4 microstepping mode for the other curves.

Relevant for 2 phases ON only. On PWM drivers or chopper (current mode), the current is set to the nominal value and the supply voltage is typically 2.5 to 5x higher than the nominal voltage.
Curves measured with a load inertia of 6·10-9 kgm2, in half-step mode for the “1 x nominal voltage” curve, in 1/4 microstepping mode for the other curves.

3D-CAD Files ZIP
FAULHABER AM Series AM0820 by FAULHABER
FAULHABER AM Series AM0820 by FAULHABER
FAULHABER AM Series AM0820 by FAULHABER
FAULHABER AM Series AM0820 by FAULHABER
FAULHABER AM Series AM0820 by FAULHABER
FAULHABER AM Series AM0820 by FAULHABER
FAULHABER AM Series AM0820 by FAULHABER
FAULHABER AM Series AM0820 by FAULHABER
FAULHABER AM Series AM0820 by FAULHABER
FAULHABER AM Series AM0820 by FAULHABER
FAULHABER AM Series AM0820 by FAULHABER
FAULHABER AM Series AM0820 by FAULHABER
FAULHABER AM Series AM0820 by FAULHABER
FAULHABER AM Series AM0820 by FAULHABER
FAULHABER AM Series AM0820 by FAULHABER
FAULHABER AM Series AM0820 by FAULHABER
FAULHABER AM Series AM0820 by FAULHABER
FAULHABER AM Series AM0820 by FAULHABER
FAULHABER AM Series AM0820 by FAULHABER
FAULHABER AM Series AM0820 by FAULHABER
FAULHABER AM Series AM0820 by FAULHABER
Precision Gearheads
Planetary Gearheads
08/1 Series by FAULHABER
Series 08/1
Product details Data sheet (PDF)
10/1 Series by FAULHABER
Series 10/1
Product details Data sheet (PDF)
Spur Gearheads
08/2 Series by FAULHABER
Series 08/2
Product details Data sheet (PDF)
Spur Gearheads, zero backlash
08/3 Series by FAULHABER
Series 08/3
Zero Backlash
Product details Data sheet (PDF)
Linear Actuators
FAULHABER L
08L ... HL Series by FAULHABER
Series 08L ... HL
Gearhead with integrated Lead Screw, high load
Product details Data sheet (PDF)
08L ... SL Series by FAULHABER
Series 08L ... SL
Gearhead with integrated Lead Screw, standard load
Product details Data sheet (PDF)
10L ... HL Series by FAULHABER
Series 10L ... HL
Gearhead with integrated Lead Screw, high load
Product details Data sheet (PDF)
10L ... SL Series by FAULHABER
Series 10L ... SL
Gearhead with integrated Lead Screw, standard load
Product details Data sheet (PDF)
Direct Drive Linear Actuators
M1,2 x 0,25 x L1 Series by FAULHABER
Series M1,2 x 0,25 x L1
Linear actuation for positioning tasks
Product details Data sheet (PDF)
M1,6 x 0,35 x L1 Series by FAULHABER
Series M1,6 x 0,35 x L1
Linear actuation for positioning tasks
Product details Data sheet (PDF)
M2 x 0,2 x L1 Series by FAULHABER
Series M2 x 0,2 x L1
Linear actuation for positioning tasks
Product details Data sheet (PDF)
M3 x 0,5 x L1 Series by FAULHABER
Series M3 x 0,5 x L1
Linear actuation for positioning tasks
Product details Data sheet (PDF)
Encoders
Incremental encoder
IEP3-4096 Series by FAULHABER
Series IEP3-4096
magnetic Encoder, digital outputs, 3 channels, 16 - 4096 lines per revolution
Product details Data sheet (PDF)
Drive Electronics
Motion Controllers
MC 3602 B Series by FAULHABER
Series MC 3602 B
CiA402 servo drive, 4-Quadrant PWM, with RS232, CANopen or EtherCAT interface
Product details Data sheet (PDF)
Stepper Controllers
MCST 3601 Series by FAULHABER
Series MCST 3601
1-Axis controller with microstepping, USB interface and reference input
Product details Data sheet (PDF)

Download

pdf
Datasheet
DE
EN
FR
JP
ZH
pdf
Technical Information
DE
EN
FR
JP
ZH
zip
3D-CAD Files
DE

Application note

pdf
AN 001 - Stepper motor basics
EN
FR
pdf
AN 002 - Reading and understanding a torque curve
EN
FR
pdf
AN 003 - Drivers and controllers: how to drive a stepper motor?
EN
FR
pdf
AN 004 - When and why using an encoder
EN
FR
pdf
AN 005 - Stepper motors and Gearheads
EN
FR
zip
AN 006 - How to get a linear motion from a stepper motor?
EN
FR
zip
AN 006 - Lead Screw
EN
FR
pdf
AN 007 - Recommendations for soldering a cable on a stepper motor
EN
FR
pdf
AN 008 - Thermal behavior of a stepper motor
EN
FR
pdf
AN 009 - Choosing the proper lubricant
EN
FR
pdf
AN 010 - Cables and connectors options
EN
pdf
AN 011 - Final quality control data
EN
FR
pdf
AN 012 - Custom solutions (A and E number)
EN
FR
pdf
AN 013 - Improving reliability: redundant stepper motor
EN
FR
zip
AN 014 - Using the stepper motor HTML animation
EN
FR
pdf
AN 015 - Microstepping
EN
FR
pdf
AN 020 - Large DM Steppers connection
EN
FR
zip
AN 022 - Torque and Temperature Calculator user guide
EN
FAULHABER AM Series AM0820 by FAULHABER
FAULHABER AM Series AM0820 by FAULHABER
FAULHABER AM Series AM0820 by FAULHABER
FAULHABER AM Series AM0820 by FAULHABER
FAULHABER AM Series AM0820 by FAULHABER
FAULHABER AM Series AM0820 by FAULHABER
FAULHABER AM Series AM0820 by FAULHABER
FAULHABER AM Series AM0820 by FAULHABER
FAULHABER AM Series AM0820 by FAULHABER
FAULHABER AM Series AM0820 by FAULHABER
FAULHABER AM Series AM0820 by FAULHABER
FAULHABER AM Series AM0820 by FAULHABER
FAULHABER AM Series AM0820 by FAULHABER
FAULHABER AM Series AM0820 by FAULHABER
FAULHABER AM Series AM0820 by FAULHABER
FAULHABER AM Series AM0820 by FAULHABER
FAULHABER AM Series AM0820 by FAULHABER
FAULHABER AM Series AM0820 by FAULHABER
FAULHABER AM Series AM0820 by FAULHABER
FAULHABER AM Series AM0820 by FAULHABER
FAULHABER AM Series AM0820 by FAULHABER
Your Choice
Selected Variant
Series AM08202R008001
Two phase, 20 steps per revolution
Key Features
Holding torque at boosted current: 1 mNm
Step angle (full step): 18 °
Diameter: 8 mm
Length: 13.8 mm
Start Drive Calculator
Selected Variant
Series AM08202R015001
Two phase, 20 steps per revolution
Key Features
Holding torque at boosted current: 1 mNm
Step angle (full step): 18 °
Diameter: 8 mm
Length: 13.8 mm
Start Drive Calculator
Selected Variant
Series AM08202R022501
Two phase, 20 steps per revolution
Key Features
Holding torque at boosted current: 1 mNm
Step angle (full step): 18 °
Diameter: 8 mm
Length: 13.8 mm
Start Drive Calculator

Recommended contents

Here you will find external YouTube contents for the article. Click to watch.

I consent to being shown external contents. I am aware that personal data may be shared with third-party platforms. For more information, refer to our privacy policy.