Factor Or Distribution First
A distribution factor is a ratio that represents the proportion of an individual load to the total load. It is often used in engineering, logistics, and financial planning to allocate resources, costs, or workloads among various components or units. First, determine the total load TL in units. Next, determine the individual load IL in
The distribution factor is, Putting the value of equations 4 and 5 in the above equation, The distribution factor, Kd, is solely dependent on the number of distributed slots under a given pole, irrespective of the winding type lap or wave or the number of turns per coil. As the number of slots per pole increases, the distribution factor
So this method amounts to first assuming each joint is fixed for rotation locked. Then by locking and unlocking each joint in succession, the internal moments at the joints are slowly distributed and balanced until each joint reaches a final equilibrium condition. The distribution factor for a fixed end support will be zero, and the
These distribution factors that we previously calculated tell us what percentage of moment goes in to each connected member. In this case the counteracting end moment in member BA is 0.516-25 -12.9 and in member BC is 0.484-25-12.1. The first step again is to unlockrelease the node and balance the unbalanced moment. At node C
Distribution Factor But, in order to obtain a better wave shape i.e., more sinusoidal of the induced emf the coils are divided into a number of slots and distributed one each in three slots per-phase under each pole. The below figure shows the coils of one phase distributed in adjacent slots, and are connected in series.
The distribution factor Kd for a given number of phases is dependent only on the number of distributed slots under a given pole. It is independent of the type of the winding, lap or wave or the number of turns per coil, etc. the distribution factor decreases as the number of slots per pole increases.
This moment is then multiplied by the distribution factor of each beam meeting at that point so that each beam takes moment that is only proportional to its stiffness. At B the difference in moment is 225KNM 300 - 75, so this value 225 is afterwards multiplied by the distribution factors 0.333 and 0.667 to get 75 and 150 respectively.
Calculation of Distribution Factor. To get a general expression or formula of distribution factor, let us assume a 2 pole, 3 phase electrical machine having a total of 18 slots in its stator. These slots are distributed along the periphery of stator in 2 pole pitches. Therefore the angle between any two consecutive slots will be equal to 20
This distribution may be accomplished using the distribution factors. Tool 2 - Carry Over Factors. Let us examine more carefully the free body diagram ide-alization for one beam cut from the original structure. M A, required to cause a rotation, A, may be expressed as follows M A 4EI L A 8 When this is true we nd that M B 2EI L
Key learnings Winding Factor Definition Winding factor is defined as the product of the pitch factor and distribution factor. Pitch Factor The pitch factor is the ratio of the phasor sum of induced emfs to their arithmetic sum and is always less than unity. Full Pitched vs. Short Pitched Coils In full-pitched coils, emfs sum arithmetically due to a 180 phase angle, while in short