Stacked plate stator system and device
A stacked plate stator device including a stator body with a plurality of stator teeth, a plurality of winding assemblies, each including a plurality of conductive plate assemblies interleafed and stacked one upon the other with each adjacent plate assembly, including first and second sub-plates and having a single continuous path of conductivity through the stator winding. Also disclosed is a stacked electrical device with a device housing, a stacked plate stator device, and an electrical rotor.
1 . A stacked plate stator device, comprising:
a) a stator body, comprising:
a stator support member; and
a plurality of stator teeth, wherein each stator tooth comprises:
a tooth body;
such that each stator tooth protrudes radially from the stator support member; and
such that stator slots are formed between consecutive stator teeth in the plurality of stator teeth; and
b) a plurality of winding assemblies, which each comprise:
a plurality of stacked plate assemblies, which each include:
a first sub-plate; and
a second sub-plate, such that a second end of the first sub-plate is mechanically and electrically connected to a first end of the second sub-plate;
such that each plate assembly forms an interior passageway, such that the plurality of stacked plate assemblies form a combined passageway of the plurality of winding assemblies;
such that the second end of the second sub-plate is electrically insulated from the first end of the first sub-plate;
wherein the second end of the second sub-plate is adjacent to the first end of the first sub-plate, such that the plate assembly forms a 360-degree turn around the interior passageway;
such that the tooth body protrudes through the combined passageway of the winding assembly;
such that each successive plate assembly is stacked after a prior plate assembly;
such that each successive plate assembly is electrically connected with an immediately preceding plate assembly, such that a front conductive entry portion of each successive plate assembly is electrically connected with a rear conductive exit portion of the immediately preceding plate assembly, such that each winding assembly forms a spiraling continuous path of conductivity, which spirals around the tooth body of the stator tooth;
wherein each plate assembly further comprises a connecting solder, such that the second end of the first sub-plate is connected to the first end of the second sub-plate with the connecting solder; and
wherein at least one portion of each plate assembly is configured with a pre-tension, such that the at least one portion of each plate assembly is pulled out of a corresponding winding assembly, when at least one portion of the connecting solder is melted, such that electrical connectivity of the spiraling continuous path of conductivity is broken.
2 . The stacked plate stator device of claim 1 , wherein each corresponding plate assembly is entirely electrically insulated from adjacent plate assemblies in each corresponding stator winding assembly, except for the front conductive entry portion and the rear conductive exit portion.
3 . The stacked plate stator device of claim 2 , wherein each corresponding plate assembly is at least partially coated with an electrical insulator, except for the front conductive entry portion and the rear conductive exit portion.
4 . The stacked plate stator device of claim 1 , wherein:
an inner side of the first end of the first sub-plate is configured with a first notch; and
an outer side of the second end of the second sub-plate is configured with a second notch;
such that the first notch and the second notch enable a connection of the spiraling continuous path of conductivity from the second sub-plate of the immediately preceding plate assembly to the first sub-plate of the successive plate assembly.
5 . The stacked plate stator device of claim 1 , further comprising:
a plurality of electromagnetic shields;
wherein each corresponding electromagnetic shield in the plurality of electromagnetic shields is made from a semi-magnetic material, which is configured with a relative magnetic permeability in a range of 4-30;
wherein each corresponding electromagnetic shield in the plurality of electromagnetic shields is electrically isolated from the stator body and the plurality of winding assemblies;
such that the corresponding electromagnetic shield is mounted between a prior stator tooth and a successive stator tooth, on an outer side of a prior winding assembly and a successive winding assembly;
such that the corresponding electromagnetic shield is configured to guide an electromagnetic field along a lateral length of the corresponding electromagnetic shield, such that the corresponding electromagnetic shield minimizes electromagnetic field interaction with any of the prior winding assembly and the successive winding assembly.
6 . The stacked plate stator device of claim 5 , wherein each stator tooth further comprises:
a tooth head, which is connected to an outer end of the tooth body;
wherein the tooth head is positioned on an outer side of the winding assembly and wherein the tooth head of each stator tooth is vertically elongated and radially widening, such that the tooth head widens from an inner end of the tooth head to an outer end of the tooth head; and each electromagnetic shield is vertically elongated and radially narrowing from an inner end of the electromagnetic shield to an outer end of the electromagnetic shield; such that a plurality of tooth heads of the plurality of stator teeth overlap radially with the plurality of electromagnetic shields to form an overlapping peripheral electromagnetic shield around an outer periphery of the stacked plate stator device.
7 . The stacked plate stator device of claim 1 , wherein each winding assembly further comprises:
at least one spring, which is connected to the at least one portion of each plate assembly, such that the at least one spring is configured with the pre-tension.
8 . The stacked plate stator device of claim 1 , wherein each winding assembly further comprises:
a plurality of springs, which are each configured with the pre-tension, wherein each corresponding spring in the plurality of springs is connected to a first sub-plate of a corresponding plate assembly in the plurality of stacked plate assemblies;
such that the first sub-plate is pulled out of the corresponding winding assembly, when the at least one portion of the connecting solder is melted.
9 . The stacked plate stator device of claim 1 , wherein the plurality of winding assemblies is configured to be concentrated, such that each winding assembly is mounted around solely one corresponding stator tooth.
10 . The stacked plate stator device of claim 1 , wherein the plurality of winding assemblies is configured to be distributed, such that each winding assembly is mounted around at least two adjacent stator teeth in the plurality of stator teeth.
11 . The stacked plate stator device of claim 10 , wherein the plurality of winding assemblies is further configured to be interleaved, such that successive plate assemblies of each successive winding assembly is radially interleaved with preceding plate assemblies of the prior winding assembly on the corresponding intermediate stator tooth.
12 . The stacked plate stator device of claim 11 , wherein the plurality of winding assemblies further comprises:
a) a plurality of first winding assemblies, each comprising a plurality of corresponding first plate assemblies; and
b) a plurality of second winding assemblies, each comprising a plurality of corresponding second plate assemblies;
wherein inner and outer ends of the corresponding second plate assemblies are configured to be bent and upward or downward tilted, such that the inner and outer ends are perpendicularly oriented and interleaving, relative to corresponding first winding assemblies in the plurality of first winding assemblies.
13 . The stacked plate stator device of claim 1 , wherein the stacked plate stator device is configured as a two-phase distributed and interleaved stacked plate stator device, such that each corresponding general winding assembly in the plurality of winding assemblies further comprises:
a) an outer plate assembly, which comprises:
an outer first sub-plate; and
an outer second sub-plate;
such that a second end of the outer first sub-plate is mechanically and electrically connected to a first end of the outer second sub-plate;
such that a second end of the outer second sub-plate is electrically insulated from a first end of the outer first sub-plate;
wherein the second end of the outer second sub-plate is adjacent to the first end of the outer first sub-plate, such that the outer plate assembly forms a 360-degree turn around a first outer interior passageway of the outer plate assembly; and
b) an inner plate assembly, which comprises:
an inner first sub-plate; and
an inner second sub-plate;
such that a second end of the inner first sub-plate is mechanically and electrically connected to a first end of the inner second sub-plate;
such that a second end of the inner second sub-plate is electrically insulated from a first end of the inner first sub-plate;
wherein the second end of the inner second sub-plate is adjacent to the first end of the inner first sub-plate, such that the inner plate assembly forms a 360-degree turn around a first inner interior passageway of the inner plate assembly;
such that the outer plate assembly and the inner plate assembly are stacked radially with a rear of the outer plate assembly positioned adjacent to a front of the inner plate assembly;
such that the outer plate assembly and the inner plate assembly form a general combined passageway of the corresponding general winding assembly;
such that the outer plate assembly is electrically connected with the inner plate assembly, such that a front conductive entry portion of the outer plate assembly is electrically connected with a rear conductive exit portion of an inner plate assembly, such that the corresponding general winding assembly forms the spiraling continuous path of conductivity, which spirals around a corresponding pair of two tooth bodies of the plurality of stator teeth;
such that the corresponding pair of two tooth bodies protrude through the general combined passageway of the corresponding general winding assembly;
wherein the plurality of winding assemblies comprises:
a first plurality of first winding assemblies, which are oriented in a first vertical orientation with the outer first sub-plate and the inner first sub-plate positioned on a top end of each corresponding first winding assembly;
such that the first winding assemblies are successively laterally electrically connected to conduct a first phase of electrical power; and
a second plurality of second winding assemblies, which are oriented in a vertically opposing second vertical orientation with the outer first sub-plate and the inner first sub-plate positioned on a bottom end of each corresponding second winding assembly;
such that the second winding assemblies are successively laterally electrically connected to conduct a second phase of electrical power;
such that the second plurality of second winding assemblies is interleaved with the first plurality of first winding assemblies.
14 . The stacked plate stator device of claim 13 , wherein the outer first sub-plate is configured as an outer convex horizontally curved segment and the outer second sub-plate is vertically u-shaped; and the inner first sub-plate is configured as an outer convex horizontally curved segment and the inner second sub-plate is vertically u-shaped.
15 . The stacked plate stator device of claim 14 , wherein each corresponding general winding assembly is configured such that:
the outer second sub-plate comprises:
a left outer vertical portion;
a right outer vertical portion; and
an outward bent outer horizontal portion, which is mounted between a lower end of the left outer vertical portion and a lower end of the right outer vertical portion; and
the inner second sub-plate comprises:
a left inner vertical portion;
a right inner vertical portion; and
an inward bent inner horizontal portion, which is mounted between a lower end of the left inner vertical portion and a lower end of the right inner vertical portion;
such that the outward bent outer horizontal portion and the inward bent inner horizontal portion in combination create an interleaving opening, which enables the interleaving of the second plurality of second winding assemblies with the first plurality of first winding assemblies.
16 . The stacked plate stator device of claim 15 , wherein the outward bent outer horizontal portion is configured as an outer convex horizontally curved segment, which is mounted between a front side of the lower end of the left outer vertical portion and a front side of the lower end of the right outer vertical portion; and
the inward bent inner horizontal portion is configured as an outer convex horizontally curved segment, which is mounted between a rear side of the lower end of the left inner vertical portion and a rear side of the lower end of the right inner vertical portion.
17 . A stacked plate stator device, comprising:
a) a stator body, comprising:
a plurality of stator teeth, wherein each stator tooth comprises:
a tooth body; and
b) a plurality of general winding assemblies, wherein each corresponding general winding assembly comprises:
an outer plate assembly, which comprises:
an outer first sub-plate; and
an outer second sub-plate;
such that a second end of the outer first sub-plate is mechanically and electrically connected to a first end of the outer second sub-plate;
such that a second end of the outer second sub-plate is electrically insulated from a first end of the outer first sub-plate; and
an inner plate assembly, which comprises:
an inner first sub-plate; and
an inner second sub-plate;
such that a second end of the inner first sub-plate is mechanically and electrically connected to a first end of the inner second sub-plate;
such that a second end of the inner second sub-plate is electrically insulated from a first end of the inner first sub-plate;
such that the outer plate assembly and the inner plate assembly are stacked radially with a rear of the outer plate assembly positioned adjacent to a front of the inner plate assembly;
such that the outer plate assembly and the inner plate assembly form a general combined passageway of the corresponding general winding assembly;
such that the outer plate assembly is electrically connected with the inner plate assembly, such that a front conductive entry portion of the outer plate assembly is electrically connected with a rear conductive exit portion of an inner plate assembly, such that the corresponding general winding assembly forms a first spiraling continuous path of conductivity, which spirals around a corresponding pair of two tooth bodies of the plurality of stator teeth;
wherein the plurality of general winding assemblies comprises:
a first plurality of first winding assemblies, which are oriented in a first vertical orientation with the outer first sub-plate and the inner first sub-plate positioned on a top end of each corresponding first winding assembly;
such that the first winding assemblies are successively laterally electrically connected to conduct a first phase of electrical power; and
a second plurality of second winding assemblies, which are oriented in a vertically opposing second vertical orientation with the outer first sub-plate and the inner first sub-plate positioned on a bottom end of each corresponding second winding assembly;
such that the second winding assemblies are successively electrically connected to conduct a second phase of electrical power;
such that the second plurality of second winding assemblies is interleaved with the first plurality of first winding assemblies.
18 . The stacked plate stator device of claim 17 , wherein the outer first sub-plate is configured as an outer convex horizontally curved segment and the outer second sub-plate is vertically u-shaped; and the inner first sub-plate is configured as an outer convex horizontally curved segment and the inner second sub-plate is vertically u-shaped.
19 . The stacked plate stator device of claim 18 , wherein each corresponding general winding assembly is configured such that:
the outer second sub-plate comprises:
a left outer vertical portion;
a right outer vertical portion; and
an outward bent outer horizontal portion, which is mounted between a lower end of the left outer vertical portion and a lower end of the right outer vertical portion; and
the inner second sub-plate comprises:
a left inner vertical portion;
a right inner vertical portion; and
an inward bent inner horizontal portion, which is mounted between a lower end of the left inner vertical portion and a lower end of the right inner vertical portion;
such that the outward bent outer horizontal portion and the inward bent inner horizontal portion in combination create an interleaving opening, which enables the interleaving of the second plurality of second winding assemblies with the first plurality of first winding assemblies.
20 . A stacked plate electrical device, comprising:
a) a device housing;
b) a stacked plate stator device, which is configured to be stationary relative to the device housing, wherein the stacked plate stator device comprises:
a plurality of winding assemblies, each comprising:
a plurality of stacked plate assemblies, each comprising a first sub-plate and a second sub-plate; and
c) an electrical rotor, wherein the electrical rotor is configured to be rotatable relative to the stacked plate stator device;
wherein the stacked plate stator device is configured to cause a rotation of the electrical rotor, when at least one electrical current is passed through the stacked plate stator device; and
wherein the stacked plate stator device is configured such that a rotation of the electrical rotor, induces at least one electrical current of the stacked plate stator device;
wherein the stacked plate stator device, further comprises:
a stator body, comprising:
a stator support member; and
a plurality of stator teeth, wherein each stator tooth comprises:
a tooth body; and
such that each stator tooth protrudes from the stator support member; and
such that stator slots are formed between consecutive stator teeth in the plurality of stator teeth; and
the plurality of winding assemblies, which each comprise:
the plurality of stacked plate assemblies, which each include:
the first sub-plate; and
the second sub-plate, such that a first end of the second sub-plate is mechanically connected to a second end of the first sub-plate;
such that each plate assembly forms an interior passageway, such that the plurality of stacked plate assemblies form a combined passageway of the at least one winding assembly;
such that the first end of the second sub-plate is electrically insulated from the second end of the first sub-plate and such that the second end of the second sub-plate is electrically connected to the first end of the first sub-plate, such that the plate assembly forms a 360-degree turn around the interior passageway;
such that the tooth body protrudes through the combined passageway of the at least one winding assembly;
such that each successive plate assembly is stacked upon a prior plate assembly;
such that each successive plate assembly is electrically connected with an immediately preceding plate assembly, such that a front conductive entry portion of each successive plate assembly is electrically connected with a rear conductive exit portion of the immediately preceding plate assembly, such that each winding assembly forms a spiraling continuous path of conductivity, which spirals around the tooth body of the stator tooth;
wherein each plate assembly further comprises a connecting solder, such that the second end of the first sub-plate is connected to the first end of the second sub-plate with the connecting solder; wherein at least one portion of each plate assembly is configured with a pre-tension, such that the at least one portion of each plate assembly is pulled out of a corresponding winding assembly, when at least one portion of the connecting solder is melted, such that electrical connectivity of the spiraling continuous path of conductivity is broken.
21 . The stacked plate electrical device of claim 20 , wherein:
an inner side of the first end of the first sub-plate is configured with a first notch;
a outer side of the second end of the second sub-plate is configured with a second notch;
such that the first notch and the second notch enable a connection of the spiraling continuous path of conductivity from the second sub-plate of the immediately preceding plate assembly to the first sub-plate of the successive plate assembly.
22 . The stacked plate electrical device of claim 20 , wherein each winding assembly further comprises:
at least one spring, which is connected to the at least one portion of each plate assembly, such that the at least one spring is configured with the pre-tension.
23 . The stacked plate electrical device of claim 20 , wherein each winding assembly further comprises:
a plurality of springs, which are each configured with the pre-tension, wherein each corresponding spring in the plurality of springs is connected to a first sub-plate of a corresponding plate assembly in the plurality of stacked plate assemblies;
such that the first sub-plate is pulled out of the corresponding winding assembly, when the at least one portion of the connecting solder is melted.
24 . The stacked plate electrical device of claim 20 , wherein the plurality of winding assemblies is further configured to be interleaved, such that successive plate assemblies of each successive winding assembly is radially interleaved with preceding plate assemblies of an immediately preceding winding assembly on a corresponding intermediate stator tooth.
25 . The stacked plate electrical device of claim 24 , wherein the plurality of winding assemblies further comprises:
a) a plurality of first winding assemblies, each comprising a plurality of corresponding first plate assemblies; and
b) a plurality of second winding assemblies, each comprising a plurality of corresponding second plate assemblies;
wherein inner and outer ends of the corresponding second plate assemblies are configured to be bent and upward or downward tilted, such that the inner and outer ends are perpendicularly oriented and interleaving, relative to corresponding first winding assemblies in the plurality of first winding assemblies.
26 . The stacked plate electrical device of claim 20 , wherein the stacked plate stator device is configured as a two-phase distributed and interleaved stacked plate stator device, such that the plurality of winding assemblies further comprises:
a) an outer plate assembly, which comprises:
an outer first sub-plate; and
an outer second sub-plate;
such that a second end of the outer first sub-plate is mechanically and electrically connected to a first end of the outer second sub-plate;
such that a second end of the outer second sub-plate is electrically insulated from a first end of the outer first sub-plate; and
b) an inner plate assembly, which comprises:
an inner first sub-plate; and
an inner second sub-plate;
such that a second end of the inner first sub-plate is mechanically and electrically connected to a first end of the inner second sub-plate;
such that a second end of the inner second sub-plate is electrically insulated from a first end of the inner first sub-plate;
such that the outer plate assembly and the inner plate assembly are stacked radially with a rear of the outer plate assembly positioned adjacent to a front of the inner plate assembly;
such that the outer plate assembly and the inner plate assembly form a general combined passageway of the corresponding general winding assembly;
such that the outer plate assembly is electrically connected with the inner plate assembly, such that a front conductive entry portion of the outer plate assembly is electrically connected with a rear conductive exit portion of an inner plate assembly, such that the corresponding general winding assembly forms a first spiraling continuous path of conductivity, which spirals around a corresponding pair of two tooth bodies of the plurality of stator teeth;
such that the corresponding pair of two tooth bodies protrude through the general combined passageway of the corresponding general winding assembly;
wherein the plurality of winding assemblies comprises:
a first plurality of first winding assemblies, which are oriented in a first vertical orientation with the outer first sub-plate and the inner first sub-plate positioned on a top end of each corresponding first winding assembly;
such that the first winding assemblies are successively laterally electrically connected to conduct a first phase of electrical power; and
a second plurality of second winding assemblies, which are oriented in a vertically opposing second vertical orientation with the outer first sub-plate and the inner first sub-plate positioned on a bottom end of each corresponding second winding assembly;
such that the second plurality of second winding assemblies are successively laterally electrically connected to conduct a second phase of electrical power;
such that the second plurality of second winding assemblies is interleaved with the first plurality of first winding assemblies.
27 . A stacked plate stator device, comprising:
a) a stator body, comprising:
a stator support member; and
a plurality of stator teeth, wherein each stator tooth comprises:
a tooth body;
such that each stator tooth protrudes radially from the stator support member; and
such that stator slots are formed between consecutive stator teeth in the plurality of stator teeth; and
b) a plurality of winding assemblies, which each comprise:
a plurality of stacked plate assemblies, which each include:
a first sub-plate; and
a second sub-plate, such that a second end of the first sub-plate is mechanically and electrically connected to a first end of the second sub-plate;
such that each plate assembly forms an interior passageway, such that the plurality of stacked plate assemblies form a combined passageway of the plurality of winding assemblies;
such that the second end of the second sub-plate is electrically insulated from the first end of the first sub-plate;
wherein the second end of the second sub-plate is adjacent to the first end of the first sub-plate, such that the plate assembly forms a 360-degree turn around the interior passageway;
such that the tooth body protrudes through the combined passageway of the winding assembly;
such that each successive plate assembly is stacked after a prior plate assembly;
such that each successive plate assembly is electrically connected with an immediately preceding plate assembly, such that a front conductive entry portion of each successive plate assembly is electrically connected with a rear conductive exit portion of the immediately preceding plate assembly, such that each winding assembly forms a spiraling continuous path of conductivity, which spirals around the tooth body of the stator tooth;
wherein the stacked plate stator device is configured as a two-phase distributed and interleaved stacked plate stator device, such that each corresponding general winding assembly in the plurality of winding assemblies further comprises:
an outer plate assembly, which comprises:
an outer first sub-plate; and
an outer second sub-plate;
such that a second end of the outer first sub-plate is mechanically and electrically connected to a first end of the outer second sub-plate;
such that a second end of the outer second sub-plate is electrically insulated from a first end of the outer first sub-plate;
wherein the second end of the outer second sub-plate is adjacent to the first end of the outer first sub-plate, such that the outer plate assembly forms a 360-degree turn around a first outer interior passageway of the outer plate assembly; and
an inner plate assembly, which comprises:
an inner first sub-plate; and
an inner second sub-plate;
such that a second end of the inner first sub-plate is mechanically and electrically connected to a first end of the inner second sub-plate;
such that a second end of the inner second sub-plate is electrically insulated from a first end of the inner first sub-plate;
wherein the second end of the inner second sub-plate is adjacent to the first end of the inner first sub-plate, such that the inner plate assembly forms a 360-degree turn around a first inner interior passageway of the inner plate assembly;
such that the outer plate assembly and the inner plate assembly are stacked radially with a rear of the outer plate assembly positioned adjacent to a front of the inner plate assembly;
such that the outer plate assembly and the inner plate assembly form a general combined passageway of the corresponding general winding assembly;
such that the outer plate assembly is electrically connected with the inner plate assembly, such that a front conductive entry portion of the outer plate assembly is electrically connected with a rear conductive exit portion of an inner plate assembly, such that the corresponding general winding assembly forms the spiraling continuous path of conductivity, which spirals around a corresponding pair of two tooth bodies of the plurality of stator teeth;
such that the corresponding pair of two tooth bodies protrude through the general combined passageway of the corresponding general winding assembly;
wherein the plurality of winding assemblies comprises:
a first plurality of first winding assemblies, which are oriented in a first vertical orientation with the outer first sub-plate and the inner first sub-plate positioned on a top end of each corresponding first winding assembly;
such that the first winding assemblies are successively laterally electrically connected to conduct a first phase of electrical power; and
a second plurality of second winding assemblies, which are oriented in a vertically opposing second vertical orientation with the outer first sub-plate and the inner first sub-plate positioned on a bottom end of each corresponding second winding assembly;
such that the second winding assemblies are successively laterally electrically connected to conduct a second phase of electrical power;
such that the second plurality of second winding assemblies is interleaved with the first plurality of first winding assemblies.
28 . A stacked plate electrical device, comprising:
a) a device housing;
b) a stacked plate stator device, which is configured to be stationary relative to the device housing, wherein the stacked plate stator device comprises:
a plurality of winding assemblies, each comprising:
a plurality of stacked plate assemblies, each comprising a first sub-plate and a second sub-plate; and
c) an electrical rotor, wherein the electrical rotor is configured to be rotatable relative to the stacked plate stator device;
wherein the stacked plate stator device is configured to cause a rotation of the electrical rotor, when at least one electrical current is passed through the stacked plate stator device; and
wherein the stacked plate stator device is configured such that a rotation of the electrical rotor, induces at least one electrical current of the stacked plate stator device;
wherein the stacked plate stator device, further comprises:
a stator body, comprising:
a stator support member; and
a plurality of stator teeth, wherein each stator tooth comprises:
a tooth body; and
such that each stator tooth protrudes from the stator support member; and
such that stator slots are formed between consecutive stator teeth in the plurality of stator teeth; and
the plurality of winding assemblies, which each comprise:
the plurality of stacked plate assemblies, which each include:
the first sub-plate; and
the second sub-plate, such that a first end of the second sub-plate is mechanically connected to a second end of the first sub-plate;
such that each plate assembly forms an interior passageway, such that the plurality of stacked plate assemblies form a combined passageway of the at least one winding assembly;
such that the first end of the second sub-plate is electrically insulated from the second end of the first sub-plate and such that the second end of the second sub-plate is electrically connected to the first end of the first sub-plate, such that the plate assembly forms a 360-degree turn around the interior passageway;
such that the tooth body protrudes through the combined passageway of the at least one winding assembly;
such that each successive plate assembly is stacked upon a prior plate assembly;
such that each successive plate assembly is electrically connected with an immediately preceding plate assembly, such that a front conductive entry portion of each successive plate assembly is electrically connected with a rear conductive exit portion of the immediately preceding plate assembly, such that each winding assembly forms a spiraling continuous path of conductivity, which spirals around the tooth body of the stator tooth;
wherein the plurality of winding assemblies is further configured to be interleaved, such that successive plate assemblies of each successive winding assembly is radially interleaved with preceding plate assemblies of an immediately preceding winding assembly on a corresponding intermediate stator tooth;
wherein the plurality of winding assemblies further comprises:
a plurality of first winding assemblies, each comprising a plurality of corresponding first plate assemblies; and
a plurality of second winding assemblies, each comprising a plurality of corresponding second plate assemblies;
wherein inner and outer ends of the corresponding second plate assemblies are configured to be bent and upward or downward tilted, such that the inner and outer ends are perpendicularly oriented and interleaving, relative to corresponding first winding assemblies in the plurality of first winding assemblies.