Electric motors - dc - Import export

The standard firmware for all electronic systems provides precise control of speed and position. Other requirements can be programmed customer-specifically by KAG. Examples of implemented customer requirements: — Motor speed control for single-grain sowing unit — Valve control actuated via digital inputs — Automatic door control with temperature monitoring — Target position generator: Calculation of motor position according to customer-specific framework conditions — Speed control according to sensor input — Input of light barrier impulse signals — Reading a load balance via analogue inputs — Input of an external speed impulse

Features – DC permanent magnet motor – Graphit-copper brushes – Motor housing zinc plated – Ball bearings – Mounting holes to DIN standard 42016 General data – Nominal life 3000 h – Permissible shaft loads (axial): 40 N – Permissible shaft loads (radial): 100 N – Insulations class: DIN VDE 0530, E – Protectin class: DIN VDE 0530, IP 40 – RFI suppression: feasible

The standard firmware for all electronic systems provides precise control of speed and position. Other requirements can be programmed customer-specifically by KAG. Examples of implemented customer requirements: — Motor speed control for single-grain sowing unit — Valve control actuated via digital inputs — Automatic door control with temperature monitoring — Target position generator: Calculation of motor position according to customer-specific framework conditions — Speed control according to sensor input — Input of light barrier impulse signals — Reading a load balance via analogue inputs — Input of an external speed impulse

The standard firmware for all electronic systems provides precise control of speed and position. Other requirements can be programmed customer-specifically by KAG. Examples of implemented customer requirements: — Motor speed control for single-grain sowing unit — Valve control actuated via digital inputs — Automatic door control with temperature monitoring — Target position generator: Calculation of motor position according to customer-specific framework conditions — Speed control according to sensor input — Input of light barrier impulse signals — Reading a load balance via analogue inputs — Input of an external speed impulse

The standard firmware for all electronic systems provides precise control of speed and position. Other requirements can be programmed customer-specifically by KAG. Examples of implemented customer requirements: — Motor speed control for single-grain sowing unit — Valve control actuated via digital inputs — Automatic door control with temperature monitoring — Target position generator: Calculation of motor position according to customer-specific framework conditions — Speed control according to sensor input — Input of light barrier impulse signals — Reading a load balance via analogue inputs — Input of an external speed impulse

— Touchless and wear-resistant optical incremental encoder — Supplies 2 quadrative, TTL-compatible channels with phase 110° — Connectors e.g. Molex plug 5-pole type 5051 with contects type 2759 — Optional: reference pulse — Operating voltage = 5V

— Touchless and wear resistant magnetic incremental encoder — Symmetric amplitude corresponding to supply voltage — Open collector output — Integrated pull-up resistors — Operating voltage = 4,5V - 24V — Integrated design (IGMi) possible — LineDriver function possible (LD)

The standard firmware for all electronic systems provides precise control of speed and position. Other requirements can be programmed customer-specifically by KAG. Examples of implemented customer requirements: — Motor speed control for single-grain sowing unit — Valve control actuated via digital inputs — Automatic door control with temperature monitoring — Target position generator: Calculation of motor position according to customer-specific framework conditions — Speed control according to sensor input — Input of light barrier impulse signals — Reading a load balance via analogue inputs — Input of an external speed impulse

Features – DC permanent magnet motor – Graphit-copper brushes – Motor housing zinc plated and chromized – Ball bearings – Mounting holes to DIN standard 42016 General data – Nominal life 3000 h – Permissible shaft loads (axial): 110 N – Permissible shaft loads (radial): 300 N – Insulations class: DIN VDE 0530, E – Protectin class: DIN VDE 0530, IP 40 – RFI suppression: feasible

— Touchless and wear-resistant optical incremental encoder — Supplies 2 quadrative, TTL-compatible channels with phase 110° — Connectors e.g. Molex plug 5-pole type 5051 with contects type 2759 — Optional: reference pulse — Operating voltage = 5V

Features – 4-pole rotor with resin bonded NeFeB-magnets – 3-phase winding in delta-connexion – 3 inside hall sensors for rotor position detection – Housing made in aluminium – End shields in precision machined aluminium parts – Ballbearings on both sides electronics

— Touchless and wear resistant magnetic incremental encoder — Symmetric amplitude corresponding to supply voltage — Open collector output — Integrated pull-up resistors — Operating voltage = 4,5V - 24V — Integrated design (IGMi) possible — LineDriver function possible (LD)

Features – 4-pole rotor with resin bonded NeFeB-magnets – 3-phase winding in delta-connexion – 3 inside hall sensors for rotor position detection – Housing made in aluminium – End shields in precision machined aluminium parts – Ballbearings on both sides

Features – 4-pole rotor with resin bonded NeFeB-magnets – 3-phase winding in delta-connexion – 3 inside hall sensors for rotor position detection – Housing made in aluminium – End shields in precision machined aluminium parts – Ballbearings on both sides electronics

Features — 4-pole rotor with plastic-bonded magnets NeFeB — Threefold winding connected in delta — Internal Hall sensors for rotor position detection offest by 120° — Ball bearings — Multiple combination possibilities with gears, encoders, brakes — Power output in rated operation: 15,1 Watt — Multiple combination possibilities with gears, encoders, brakes and integrated electronics

Features – 4-pole rotor with resin bonded NeFeB-magnets – 3-phase winding in delta-connexion – 3 inside hall sensors for rotor position detection – Housing made in aluminium – End shields in precision machined aluminium parts – Ballbearings on both sides

The standard firmware for all electronic systems provides precise control of speed and position. Other requirements can be programmed customer-specifically by KAG. Examples of implemented customer requirements: — Motor speed control for single-grain sowing unit — Valve control actuated via digital inputs — Automatic door control with temperature monitoring — Target position generator: Calculation of motor position according to customer-specific framework conditions — Speed control according to sensor input — Input of light barrier impulse signals — Reading a load balance via analogue inputs — Input of an external speed impulse

Features – DC permanent magnet motor – Graphit-copper brushes – Motor housing zinc plated and chromized – Ball bearings – Mounting holes to DIN standard 42016 General data – Nominal life 3000 h – Permissible shaft loads (axial): 40 N – Permissible shaft loads (radial): 100 N – Insulations class: DIN VDE 0530, E – Protectin class: DIN VDE 0530, IP 40 – RFI suppression: feasible

Features – DC permanent magnet motor – Graphit-copper brushes General data – Nominal life 3000 h – RFI suppression: feasible

— Touchless and wear resistant magnetic incremental encoder — Symmetric amplitude corresponding to supply voltage — Open collector output — Integrated pull-up resistors — Operating voltage = 4,5V - 24V — Integrated design (IGMi) possible — LineDriver function possible (LD)

— Touchless and wear-resistant optical incremental encoder — Supplies 2 quadrative, TTL-compatible channels with phase 110° — Connectors e.g. Molex plug 5-pole type 5051 with contects type 2759 — Optional: reference pulse — Operating voltage = 5V

— Touchless and wear-resistant optical incremental encoder — Supplies 2 quadrative, TTL-compatible channels with phase 110° — Connectors e.g. Molex plug 5-pole type 5051 with contects type 2759 — Optional: reference pulse — Operating voltage = 5V

Features – DC permanent magnet motor – Graphit-copper brushes – Motor housing zinc plated and chromized – Ball bearings – Mounting holes to DIN standard 42016 General data – Nominal life 3000 h – Permissible shaft loads (axial): 40 N – Permissible shaft loads (radial): 100 N – Insulations class: DIN VDE 0530, E – Protectin class: DIN VDE 0530, IP 40 – RFI suppression: feasible

Features – DC permanent magnet motor – Graphit-copper brushes – Motor housing zinc plated and chromized – Ball bearings – Mounting holes to DIN standard 42016 General data – Nominal life 3000 h – Permissible shaft loads (axial): 180 N – Permissible shaft loads (radial): 350 N – Insulations class: DIN VDE 0530, E – Protectin class: DIN VDE 0530, IP 40 – RFI suppression: 2 x L(3 µH)

Features – 4-pole rotor with resin bonded NeFeB-magnets – 3-phase winding in delta-connexion – 3 inside hall sensors for rotor position detection – Housing made in aluminium – End shields in precision machined aluminium parts – Ballbearings on both sides

Features – DC permanent magnet motor – Graphit-copper brushes – Motor housing zinc plated – Ball bearings – Mounting holes to DIN standard 42016 General data – Nominal life 3000 h – Permissible shaft loads (axial): 30 N – Permissible shaft loads (radial): 80 N – Insulations class: DIN VDE 0530, E – Protectin class: DIN VDE 0530, IP 40 – RFI suppression: 2 x L (3,9 µH)

CEDS DC motors offer you special advantages: Very large speed control range, can also be expanded through a field weakening range Standstill loadable with nominal torque Short rise times due to small armature circuit inductance Very high rate of current change High overload capacity Cyclical operation with multiple nominal torque for acceleration possible without affecting the brush life Direct battery emergency drive in the event of a power failure High starting torque The DC motor consists of a stator and a rotating part, the armature, separated by an air gap. The armature is wound with coils that are connected to a commutator. The polarity of the armature winding is changed during the rotation via the sliding contacts (carbon brushes) that run on the commutator, thereby generating a constant torque