consists of only the real or i t current used by the induction machine to do its work as such this new branch winding can be sized in cross sectional area to be equal to approximately two thirds the area required by the prior art machine illustrated vectorially in fig5 a this reduced winding still needs to be electrically insulated to withstand the high voltage potential applied to it and hence the preferred winding would also be that shown in fig1 but would use up much less of the total or available slot or winding concavity versus that used by the primary winding of prior art induction motor designs upon separation of the real and reactive currents the induced emf of the tertiary or floating branch 21 can be substantially lower than that of the high voltage primary winding 23 another advantage of the new tertiary branch is that it is not subject to the mechanical stresses of the primary winding caused by starting and loading currents the tertiary branch therefore does not require as much insulation as such a random winding is used for the tertiary winding wb x in place of a form coil as used by the primary winding wa x the preferred method of winding the tertiary branch would be to use a random or stranded winding technique as shown in fig1.