I don't understand the question. It would appear that you wish to compare a centrifugal compressor and an axial flow compressor operating at the same speed and delivering equal flow rates. What is the process fluid? What is the question? Is the "equal air flow" the mass flow rate? At what pressure differential would you like to consider these machines? What is it that you wish to compare? Is it weight, frontal area, mechanical efficiency, overall diameter, length, delivery temperature, input power or what?
Rotating axial compressor.
in a radial flow turbine the steam enters the turbine in the direction of its radius and leaves it in the direction of the axis of the shaft. in a axial flow turbine the steam enters the turbine in the direction of the axis of the shaft and leaves the turbine in the same direction.
The “load” is the force applied to a bearing. The “radial load” is the force applied perpendicular to the shaft. The “axial load” is the force applied in the same direction as the shaft. Deep groove ball bearings sustain both radial load and axial load coming from both directions at the same time.
Both radial and axial forces.
This relationship is the reason advances in turbines and axial compressors often find their way cutaway showing an axi-centrifugal compressor gas turbine.
An axial compressor uses many stages of "fans" with stators to compress air in the same direction as its original flow. An example of this is that of *most* turbojet engines' compressors. A radial (or centrifugal) compressor works at right angles to the airflow's original direction. An example of a radial compressor is the compressor on an automotive turbocharger.
the frontal area of a centrifugal compresor is more as compared to axial flow compressor for a given air flow. And for this reason axial compressors are being used in aircraft engines.
In axial bearing the most power force in the same direction as the axis of the shaft In radial bearing no.
Difrence is between lead positions. Axial one is -[]- and Radial =[] Axial ones are mutch pricier, but they are good choice for poin to point construction and low profile pcb's.
radial and axial
Rotating axial compressor.
what do you mean? axial compressor (or) axial turbine? Their missions are different. Design for axial compressor or turbine, must be consider their performance. The performance is characterized by - pressure ratio, rotational speed and efficiency. The details of how to design axial fan, are very complex.
Axial load (or thrust load) is a force applied parallel to the longitudinal axis, whereas, a radial load is a force applied transverse to this longitudinal axis.
A thrust bearing is designed to handle axial loads (parallel to the shaft), while a radial bearing is designed to handle radial loads (perpendicular to the shaft). These bearings have different internal structures to accommodate their respective load types. Thrust bearings usually have a series of balls or rollers to support axial loads, whereas radial bearings have a raceway to support radial loads.
Hey, the difference is quite clear! Radial is the distance between the two shaft axis and is quantified by measuring the radial distance between the centerline of one shaft if it were to be extended to overlap the other, but Axial misalignment is the variation in axial distance between the shafts of the driving and driven machinery. Good luck honey...
Yes. The inductance of a radial capacitor can be different than an axial capacitor, particularly at RF, so the reaction as a filter for EMF could well be different.
in a radial flow turbine the steam enters the turbine in the direction of its radius and leaves it in the direction of the axis of the shaft. in a axial flow turbine the steam enters the turbine in the direction of the axis of the shaft and leaves the turbine in the same direction.