초록 ▼

The present invention provides an axial rotary energy device which is arranged in a multi-phase electric current configuration. The device includes a rotor having a plurality of permanent magnet poles secured thereto and further includes a stator formed by stacking a plurality of printed circuit bo

The present invention provides an axial rotary energy device which is arranged in a multi-phase electric current configuration. The device includes a rotor having a plurality of permanent magnet poles secured thereto and further includes a stator formed by stacking a plurality of printed circuit board working conductor layers together with a plurality of printed circuit board connecting layers. The stator having at least one working conductor layer for each phase of the electric current and at least one connecting conductor layer associated with one working conducting layer. The working conductor layer and the connecting conductor layer each having radial conductors extending from an inner diameter through-hole to an outer diameter through-hole. A plurality of via conductors are provided for electrically connecting selected ones of the radial connectors of the connecting conductor layer to selected ones of the radial connectors of the working conductor layers through the through-holes.

대표청구항 ▼

We claim: 1. An axial field rotary energy device having positive and negative polarity, multi-phase electric current terminals comprising: a rotor having a plurality of permanent magnet poles; and a stator having: a plurality of circuit board working conductor layers having at least one working con

We claim: 1. An axial field rotary energy device having positive and negative polarity, multi-phase electric current terminals comprising: a rotor having a plurality of permanent magnet poles; and a stator having: a plurality of circuit board working conductor layers having at least one working conductor layer for each phase of the electric current, each of said working conductor layers including a pattern of a plurality of radial conductors running between an inner through-hole and an outer through-hole, said inner through-holes being located at an inner diameter of said working conductor layer and said outer through-holes being located at an outer diameter of said working conductor layer; each working layer further having a pair of outer conductors for electrically connecting the positive and negative terminals of one phase of the electric current to selected outer through-holes and a plurality of inner conductors for electrically connecting selected inner through-holes together; a plurality of circuit board connecting conductor layers, at least one of which is associated with each working conductor layer, and each one including a pattern of a plurality of radial conductors running between an inner through-hole and an outer through-hole, said inner through-holes being located at an inner diameter of said connecting conductor layer and said outer through-holes being located at an outer diameter of said connecting conductor layer; each connecting layer further having a plurality of outer conductors for electrically connecting selected outer through-holes together and a plurality of inner connectors for electrically connecting selected inner through-holes together; and a plurality of via conductors, positioned within selected inner and outer through-holes of the working conductor layer and connecting layers, for electrically connecting selected ones of the radial connectors of the connecting conductor layer to selected ones of the radial connectors of the working conductor layer. 2. The rotary energy device according to claim 1 wherein each circuit board working conductor layer has a planar configuration and each circuit board connecting conductor layer has a planar configuration and the stator is formed by stacking the working conductor layers and the connecting conductor layers one upon the other with a substrate layer in between each layer. 3. The rotary energy device according to claim 2 wherein the stator has a central bore therethrough in a direction perpendicular to the planar configuration of the layers and further including a rotatable drive shaft extending through the central bore and further including a first rotor fixedly secured to the drive shaft on one side of the stator and a second rotor fixedly secured to the drive shaft on the opposite side of the stator. 4. The rotary energy device according to claim 3 further including a sensing means mounted to the stator for determining the rotational position of the permanent magnet poles. 5. The rotary energy device according to claim 3 wherein the permanent magnet poles of the first rotor are positioned with respect to the permanent magnet poles of the second rotor so that flux lines pass through the stator in a direction perpendicular to the planar configuration of the working conductor layers. 6. The rotary energy device according to claim 3 wherein each rotor has at least four permanent magnet poles. 7. The rotary energy device according to claim 1 configured for at least a three-phase electric circuit. 8. The rotary energy device according to claim 1 wherein the radial conductors of the working conductor layer and the connecting conductor layer have a preselected width and the outer and inner conductors of the working conductor layer and the outer and inner conductors of the connecting conductor layer have a width wider than the preselected width. 9. The rotary energy device according to claim 1 wherein each working conducting layer and each connecting conductor layer is divided into sectors with each sector associated with a positive or negative polarity of each phase of the electric current and with radial conductors running through each sector. 10. The rotary energy device according to claim 9 wherein the inner conductors of each working conductor layer together with the inner and outer conductors of each connecting conductor layer connect the radial connectors in each sector associated with a phase of the electric current together in series through the via conductors. 11. The rotary energy device according to claim 10 wherein the device is configured for at least three-phase electric current and wherein the rotor includes at least four permanent magnet poles and wherein each working conductor layer and each connecting layer is divided into at least twelve sectors and further wherein the working conductor layer includes at least one outer conductor for connecting a sector associated with the negative polarity of a phase to a sector associated with a positive polarity of this phase. 12. The rotary energy device according to claim 10 wherein the radial conductors of each working conductor layer and each connecting conductor layer are arranged in an identical pattern and wherein corresponding radial conductors in each layer are electrically connected in parallel with the via conductors.