Author: claimsbot

1. A wind optimized solar panel system, comprising:
a first rail and a second rail;
a first support leg coupled to the first rail and a second support leg coupled to the second rail;
a solar panel module coupled to the first rail with a first clamp, the second rail with a second clamp, the first support leg with a third clamp, and the second support leg with a fourth clamp;
a windscreen coupled to the first support leg and the second support leg;
a ballast weight supported by the windscreen; and
a top wind grate disposed between a top edge of the solar panel module and a top edge of the windscreen, wherein the top wind grate is configured to allow air to escape from the top of the wind optimized solar panel system for reducing lift on the solar panel system.
2. The wind optimized solar panel system of claim 1, comprising a plurality of feet coupled to the first rail and the second rail, wherein each foot of the plurality of feet comprises a flat portion configured to rest on an installation surface and a vertical portion configured to couple to a rail.
3. The wind optimized solar panel system of claim 2, wherein the first rail and the second rail comprise flanges configured to snap into notches in the vertical portion of a foot of the plurality of feet.
4. The wind optimized solar panel system of claim 1, wherein the first support leg and the second support leg each comprise a top section, a rail section, and a base section, and wherein the base section of the first support leg is coupled to the first rail and the base section of the second support leg is coupled to the second rail.
5. The wind optimized solar panel system of claim 4, wherein the solar panel module is coupled to the top section of the first support leg with the third clamp and the top section of the second support leg with the fourth clamp.
6. The wind optimized solar panel system of claim 4, wherein the rail section of each support leg extends obliquely from a corresponding rail of the first rail and the second rail at a predetermined angle.
7. The wind optimized solar panel system of claim 6, wherein a length of the support leg and the predetermined angle are configured to optimize an angle for coupling the solar panel module to the wind optimized solar panel system.
8. The wind optimized solar panel system of claim 7, wherein the angle for coupling the solar panel module is optimized based on at least one of a latitude and wind conditions at an installation site.
9. The wind optimized solar panel system of claim 1, further comprising a ballast support tray extending from the windscreen to form a ledge for supporting the ballast weight.
10. The wind optimized solar panel system of claim 9, wherein the ballast support tray, the top wind grate, and the windscreen are one contiguous part.
11. The wind optimized solar panel system of claim 10, wherein the ballast support tray, the top wind grate, and the windscreen are each one section of a ZEE-shaped roll-form part.
12. The wind optimized solar panel system of claim 9, wherein the ballast support tray is separate from and coupled to the windscreen.
13. The wind optimized solar panel system of claim 1, further comprising:
a first side windscreen coupled to the first rail, the first support member, and a first side edge of the solar panel module; and
a second side windscreen coupled to the second rail, the second support member, and a second side edge of the solar panel module.
14. The wind optimized solar panel system of claim 13, further comprising a first trim piece coupled to the first rail, a second trim piece coupled to the first support leg, a third trim piece coupled to the first edge side of the solar panel module, a fourth trim piece coupled to the second rail, a fifth trim piece coupled to the second support leg, a sixth trim piece coupled to the second edge side of the solar panel module, wherein each trim piece comprises a slot configured to receive and securely retain an edge of a side windscreen of the first side windscreen and the second side windscreen.
15. The wind optimized solar panel system of claim 1, further comprising at least one horizontal ballast support tray disposed beneath at least one of the solar panel module and the windscreen and coupled to the first rail and the second rail.
16. The wind optimized solar panel system of claim 1, further comprising:
an anchor rail extending perpendicularly between the first rail and the second rail;
a standoff attachment coupled to the anchor rail; and
a mechanical anchor coupled to the standoff attachment, wherein the mechanical anchor is configured to be coupled to an installation surface for the wind optimized solar panel system.
17. The wind optimized solar panel system of claim 16, further comprising a standoff bracket for coupling the standoff to the anchor rail, wherein the standoff bracket comprises:
a riser section coupled to anchor rail;
a spacer section extending obliquely in a direction away from both the anchor rail installation surface; and
a standoff section coupled to the standoff attachment.
18. A wind optimized solar panel system, comprising:
a plurality of rails running parallel with respect to each other;
a plurality of support legs, each support leg comprising a top section, a rail section, and a base section, the base section of each support leg coupled to each rail of the plurality of rails, and wherein the support legs form a plurality of rows perpendicular to the plurality of rails;
a plurality of rectangular solar panel modules, wherein each solar panel module is coupled to at least two adjacent rails and to the top section of at least two adjacent support legs; and
a plurality of windscreens, wherein each windscreen is parallel to and coupled to at least two adjacent support legs, and wherein each windscreen comprises a ballast support tray for supporting a ballast weight.
19. The wind optimized solar panel system of claim 18, wherein the plurality solar panel modules form an array of solar panel modules comprising a plurality of rows perpendicular to the plurality of rails and a plurality of columns parallel to the plurality of rails.
20. The wind optimized solar panel system of claim 19, further comprising a plurality of side windscreens, wherein each side windscreen is coupled to a side of a solar panel module that is not adjacent to any other solar panel module.
21. The wind optimized solar panel system of claim 19, further comprising:
a plurality of self-adjusting end clamps that couple a side of a solar panel module that is not adjacent to any other solar panel module to a top section of a support leg;
a plurality of mid clamps that couple a side of a solar panel module that is adjacent to another solar panel module to a top section of a support leg, wherein each mid clamp is shared by two adjacent solar panel modules.
22. The wind optimized solar panel system of claim 19, further comprising support feet coupled to the rails, wherein the each support foot comprises a flat section that rests on an installation surface.
23. The wind optimized solar panel system of claim 19, wherein each windscreen comprises a ZEE-shaped roll-formed steel member.
24. The wind optimized solar panel system of claim 23, wherein:
a top section of the windscreen is vented to allow for passive cooling of the module and pressure equalization to mitigate wind loading;
a main section of the windscreen directs wind around the wind optimized solar panel system; and
a bottom section forms a ledge for supporting ballast weight
25. The wind optimized solar panel system of claim 24, wherein the adjacent windscreens overlap to increase structural integrity of the wind optimized solar panel system.

The claims below are in addition to those above.
All refrences to claim(s) which appear below refer to the numbering after this setence.

1. An adhesive film obtained by a method comprising a step of molding a thermosetting resin composition comprising component (A) and component (B) into a film, and a step of irradiating the film with an electron beam:
(A): a polyvalent carboxylic acid containing two or more carboxyl groups, or anhydride thereof;
(B): an ethylene copolymer containing epoxy group obtained by addition polymerization of at least one of monomer (b1) and monomer (b2):
monomer(b1): at least one of ethylene and propylene;
monomer(b2): a monomer represented by the following formula (1):
(wherein R represents a hydrocarbon group of from 2 to 18 carbon number having one or more double bond(s), wherein a hydrogen atom of the hydrocarbon group may be substituted with a halogen atom, a hydroxyl group or a carboxyl group, and X represents a single bond or a carbonyl group).
2. The adhesive film according to claim 1, wherein the polyvalent carboxylic acid is aliphatic polyvalent carboxylic acid.
3. The adhesive film according to claim 1, wherein the polyvalent carboxylic anhydride is aliphatic polyvalent carboxylic anhydride.
4. The adhesive film according to any one of claims 1 to 3, wherein a content of a repeating unit derived from the (b2) is from 1 to 30 parts by weight relative to 100 parts by weight of the component (B).
5. The adhesive film according to any one of claim 1, wherein the component (B) is a copolymer obtained by addition polymerization of the (b1), the (b2) and the following monomer (b3):
(b3) monomer: a monomer has a functional group copolymerizable with ethylene without a functional group capable of reacting with an epoxy group, and is different from the (b1) and the (b2).
6. The adhesive film according to any one of claims 1 or 5, wherein a content of an ethylene unit derived from the (b1) is 30 to 75 parts by weight relative to 100 parts by weight of the component (B).
7. The adhesive film according to any one of claims 1, wherein a weight ratio of the component (A) and the component (B) is 0.0199.99 to 595.
8. The adhesive film according to any one of claims 1, wherein the thermosetting resin component further contains the following component (C):
component (C): Antioxidant.
9. The adhesive film according to claim 8, wherein the component (C) is at least one antioxidant selected from the group consisting of a phenolic antioxidant, a phosphoric antioxidant and a sulfuric antioxidant.
10. An adhesive film obtained by a method comprising a step of coating on a supporting substrate a thermosetting resin composition which comprises the component (A), the component (B) and the following component (D), a step of removing the component (D), and a step of irradiating the resulting composition on a supporting substrate with an electron beam; component (D): at least one of organic solvent and water.
11. The adhesive film according to claim 10, wherein the thermosetting resin composition further comprises the component (C).
12. The adhesive film according to claim 10 or 11, wherein a total weight of the component (A) and the component (B) is 10 to 150 parts by weight relative to 100 parts by weight of the component (D).
13. The adhesive film according to claim 1 or 8, wherein the film is molded by extruding.
14. A cured laminate obtained by the method comprising a step of laminating the adhesive film according to any one of claim 1, 8, 10 or 11, and an adherend, and a step of thermally curing the laminate.
15. A devise for a semiconductor apparatus obtained by by the method comprising a step of laminating the adhesive film according to any one of claim 1, 8, 10 or 11, and an adherend, and a step of thermally curing the laminate.
16. A semiconductor apparatus, which comprises the device according to claim 15.

1. A brushless electric motorgenerator comprising:
a) a stator having a central axis, an inner circumferential surface, and an outer circumferential surface,
b) an induction structure of magnetically permeable material, juxtaposed the outer circumferential surface of the stator, the induction structure comprising at least two independent induction modules mounted in a radial array around and perpendicular to the central axis of the stator, each induction module having at least one wire wound coil segment, the at least one wire wound coil segment having two opposed ends and the at least one wire wound coil segment being wound around its respective induction module,
c) a rotor having an inner surface,
d) at least two spaced apart annular rings each having an inner surface and outer surface, the annular rings having a permanent magnet structure comprising a plurality of circumferentially spaced apart magnets, the magnets being disposed between the inner surface and outer surface of the annular rings, the respective North and South poles of the magnets placed adjacent one another and disposed proximate the induction structure in reversing polarities,
e) means for mounting the rotor and stator to one another for relative coaxial rotation about the central axis and in a manner such that there is at least two spaced apart radial gaps, the first gap between the first annular ring and the induction structure and the second gap between the second annular ring and the induction structure, the stator being disposed between the gaps,
f) a heat sink disposed about and encircling one end of induction structure,
g) a polymer over mold of thermally conductive material, and wherein the polymer over mold secures the at least two induction modules, corresponding wire wound segments, and the heat sink in relative position, the polymer defining a thermal link from the wound segments to the heat sink.
2. The brushless electric DC motorgenerator of claim 1 wherein the plurality of circumferentially spaced apart magnets forming the permanent magnet structure are embedded within at least one annular ring.
3. The brushless electric DC motorgenerator of claim 1 wherein at least one of the annular rings have a plurality of slots formed between their respective inner surface and outer surface, one of the plurality of circumferentially spaced apart magnets of the permanent magnet structure being disposed and fittedly secured within an associated one of the plurality of slots.
4. The brushless electric DC motorgenerator of claim 1 wherein the at least two induction modules are substantially \u201cI\u201d shaped having a linear vertical portion and two opposed linear horizontal portions.
5. The brushless electric DC motorgenerator of claim 1 wherein the at least one wire wound coil segment is generally linear in shape, the at least one wire wound coil segment having its linear length dimension disposed axially, forming overlapping portions which form a succession of angularly separated axial recesses.
6. The brushless electric DC motorgenerator of claim 1 wherein the motorgenerator is a motor having a cavity provided in the housing, the motor further comprising an electronic drivecontroller, the drivecontroller being disposed in the cavity.
7. The brushless electric DC motor of claim 6 wherein the cavity is lined with a thermally insulating material to thermally isolate and protect the electronic components.
8. The brushless electric DC motorgenerator of claim 1 wherein the opposed ends of the at least one wire wound coil segments project from the same side of the corresponding induction module after winding.
9. The brushless electric DC motorgenerator of claim 1 further comprising: a printed circuit board having tracks and track termination holes, wherein the opposed ends of the at least one wire wound coil segment project from the same side of the corresponding induction module after winding, and further wherein the opposed ends of the at least one wire wound coil segment fittedly attach to the printed circuit board at the track termination holes.
10. The brushless electric DC motor of claim 1 further comprising a modifiable printed circuit board, the board having tracks and track termination holes, the tracks being modifiable to determine the motor phase and type based upon the connection pattern established by the track layout and connection sequence between each of the individual coils within the coil array.
11. The brushless electric DC motorgenerator of claim 1 wherein the at least two induction modules are substantially \u201cI\u201d shaped, each having a linear vertical portion and two opposed linear horizontal portions, and wherein the at least one wire wound coil segment is of a grain oriented electrical steel, with the grain of the steel being orientated along the line of the linear vertical portion of each induction module.
12. The brushless electric DC motorgenerator of claim 1 wherein the inner surface of the rotor is a cylindrical inner surface.

The claims below are in addition to those above.
All refrences to claim(s) which appear below refer to the numbering after this setence.

1. A heat integrated distillation apparatus comprising:
a rectifying column including a trayed section or a packed bed section, which is used as a rectifying section;
a stripping column located higher than said rectifying column and including a trayed section or a packed bed section, which is used as a stripping section;
a first pipe that connects a top space of said stripping column with a bottom space of said rectifying column;
a compressor installed in said first pipe and configured to compress vapor from the top space of said stripping column and then feeding the compressed vapor to the bottom space of said rectifying column;
a heat exchanger located at the trayed section or the packed bed section of said rectifying column;
a liquid withdrawal unit located at the trayed section or the packed bed section of said stripping column and configured to remove a part of liquid from the trayed section or the packed bed section of said stripping column to an outside of the column;
a second pipe that introduces the liquid from said liquid withdrawal unit to said heat exchanger; and
a third pipe that introduces fluids introduced through said second pipe to said heat exchanger and then discharged from the heat exchanger, to a stage directly below said liquid withdrawal unit of the stripping section,
wherein a bottom space of said stripping column and a top space of said rectifying column are located in positions at a same column elevation.
2. The heat integrated distillation apparatus according to claim 1,
wherein said rectifying column and said stripping column are formed by a partition wall that divides an inside of one column into two, and the partition wall partitions the inside of the column so that the bottom space of said stripping column and the top space of said rectifying column are located in the positions at the same column elevation.
3. The heat integrated distillation apparatus according to claim 1, further comprising a raw material supply pipe that supplies a raw material to at least one of the top space of said stripping column and one of the trayed section of said stripping column and the packed bed section of said stripping column.
4. The heat integrated distillation apparatus according to claim 3, further comprising a pump and a pipe that pressure-feeds liquid in the bottom space of said rectifying column to said raw material supply pipe.
5. The heat integrated distillation apparatus according to claim 1, further comprising a reboiler that heats liquid in the bottom space, outside the bottom space of said stripping column.
6. The heat integrated distillation apparatus according to claim 1, further comprising a condenser that cools vapor in the top space, outside the top space of said rectifying column.