Hydrodynamic coupling K series
for electric motorstransmissionfor pump

Hydrodynamic coupling - K series - Transfluid - for electric motors / transmission / for pump
Hydrodynamic coupling - K series - Transfluid - for electric motors / transmission / for pump
Hydrodynamic coupling - K series - Transfluid - for electric motors / transmission / for pump - image - 2
Hydrodynamic coupling - K series - Transfluid - for electric motors / transmission / for pump - image - 3
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Characteristics

Type
hydrodynamic
Product applications
for electric motors, transmission, for pump, for marine applications, for the cement industry, turbine, for diesel engines, gearbox, for agitators, for furnaces and ovens, for wind turbine, fan, blower, for conveyor, for the food industry, for mixers, industrial, for heavy loads
Performance
heavy-duty
Torque

Min.: 0 Nm
(0 ft.lb)

Max.: 21,000 Nm
(15,488.8051 ft.lb)

Rotational speed

Min.: 600 rpm
(3,769.91 rad.min-1)

Max.: 4,000 rpm
(25,132.74 rad.min-1)

Description

HYDRAULIC COUPLING FOR ELECTRIC ENGINES – STARTER The TRANSFLUID coupling (K series) is a constant filling type comprising of three main elements: Driving impeller (pump) mounted on the input shaft. Driven impeller (turbine) mounted on the output shaft. Cover, flanged to the output impeller, with an oil-tight seal. The first two elements can work both as a pump and/or turbine. CONSTANT FILL FLUID COUPLINGS: OPERATING CONDITIONS The TRANSFLUID constant fill fluid coupling is a hydrokinetic transmission. The impellers perform like a centrifugal pump and a hydraulic turbine. An input drive to the pump (e.g. electric motor or Diesel engine) kinetic energy is imparted to the coupling oil. The oil moves by centrifugal force across the blades of the turbine towards the outside of the coupling. This absorbs the kinetic energy and develops a torque which is always equal to input torque, thus causing rotation of the output shaft. The wear is practically zero since there are no mechanical connections. The efficiency is influenced only by the speed difference (slip) between pump and turbine. The slip is essential to the functioning of the coupling: there could not be torque transmission without slip! The formula for slip, from which the power loss can be deduced is as follows: slip %=((input speed – out speed) / input speed) x 100 In normal conditions (standard duty) the slip can vary from 1,5% (large power) to 6% (small power). The TRANSFLUID constant fill fluid coupling follows the laws of all centrifugal machines: Transmitted torque is proportional to the square of input speed; Transmitted power is proportional to the cube of input speed;

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