Device and method for swinging power generation and vibration suppression by using arc-shaped wing plates with rough surfaces

A device for swinging power generation and vibration suppression by using arc-shaped wing plates with rough surfaces, comprising:

• a rotary swinging system, comprising a collector riser (1), two steering bearings (9) consisting of an upper steering bearing and a lower steering bearing, two nanometer material arc-shaped power generation wing plates (2), and two flexible tail plates (3);
• and
• a collector system, comprising three telescopic power generation cylinders, a waterproof electric slip ring (4), and a waterproof power transmission line (10),
• wherein the steering bearing (9) is of an inner-outer ring structure embedded with a cylindrical roller;
• an inside diameter of the steering bearing (9) is equal to an outside diameter of the collector riser (1);
• the two steering bearings (9) are mounted on an outer wall of the collector riser (1) at an interval of a height of each of the nanometer material arc-shaped power generation wing plates (2);
• two first cylindrical holes are symmetrically formed in an outer wall of each of the steering bearings (9);
• first cylindrical rotating shafts are respectively inserted into the two first cylindrical holes of each of the steering bearings (9);
• one end of each of the nanometer material arc-shaped power generation wing plates (2) are mounted on the first cylindrical rotating shafts in a sleeving manner, such that the nanometer material arc-shaped power generation wing plates (2) are symmetrically mounted on two sides of the outer walls of the steering bearings (9) and concave surfaces of the nanometer material arc-shaped power generation wing plates face each other, and the convex surfaces of the nanometer material arc-shaped power generation wing plates face outside;
• the nanometer material arc-shaped power generation wing plates (2) drive outer rings of the steering bearings (9) to rotate around the collector riser (1), and also swing around the first cylindrical rotating shafts;
• second cylindrical holes are formed in one end of each of the flexible tail plates (3);
• second cylindrical rotating shafts are respectively inserted into the second cylindrical holes;
• the flexible tail plates (3) are mounted at tail ends of respective nanometer material arc-shaped power generation wing plates (2) in a sleeving manner through the second cylindrical rotating shafts, such that the flexible tail plates (3) swing around the second cylindrical rotating shafts;
• a height and a thickness of each of the flexible tail plates (3) are respectively equal to the height and a thickness of each of the nanometer material arc-shaped power generation wing plates (2);
• the waterproof electric slip ring (4) is mounted in a middle of the collector riser (1) between the two steering bearings (9);
• electric brush orbits and an electric energy transmission channel are formed in an outer wall of an inner ring of the waterproof electric slip ring (4);
• electric brushes arranged in two rows consisting of a female row and a male row are disposed on an inner wall of an outer ring of the waterproof electric slip ring (4);
• the electric brushes are in contact with the electric brush orbits in the outer wall of the inner ring;
• a first circuit channel interface is formed in an outer wall of the outer ring of the waterproof electric slip ring (4);
• each telescopic power generation cylinder comprises a magnetic pole sleeve (12), four arc-shaped magnets (7), a spring (8), and two wing plate struts (11) each wound with a coil;
• a second circuit channel interface of the magnetic pole sleeve (12) is connected to the first circuit channel interface of the waterproof electric slip ring (4) through the waterproof power transmission line (10);
• wherein the nanometer material arc-shaped power generation wing plates (2) are made of a zinc oxide material;
• four rows of trumpet-shaped deflector holes (5) are uniformly formed in a plate surface of each of the nanometer material arc-shaped power generation wing plates in a horizontal direction, such that hole openings in the concave surfaces of nanometer material arc-shaped power generation wing plates (2) are smaller than and hole openings in the convex surfaces of the corresponding nanometer material arc-shaped power generation wing plates (2);
• hemispherical bulges (6) are formed between every two rows of the trumpet-shaped deflector holes (5) in the convex surfaces of the nanometer material arc-shaped power generation wing plates (2);
• radiuses of the hemispherical bulges (6) are twice radiuses of the hole openings of the trumpet-shaped deflector holes (5) in the convex surfaces;
• the hemispherical bulges (6) are filled with zinc oxide material;
• cylindrical rotating shaft inserting holes are formed in both ends of each of the nanometer material arc-shaped power generation wing plates (2);
• three telescopic power generation cylinders are mounted in middles of the nanometer material arc-shaped power generation wing plates (2) at equal distances in a vertical direction;
• the magnetic pole sleeve (12) is hollow, and has one spring (8) placed therein;
• two arc-shaped holes are symmetrically formed in an end surface of each side of the magnetic pole sleeve (12);
• arc-shaped magnets (7) are placed in arc-shaped holes respectively;
• magnetic poles of the arc-shaped magnets (7) in the two arc-shaped holes in a same end surface are opposite;
• the circuit channel interface is formed in a middle of the magnetic pole sleeve (12);
• and
• diameters of the wing plate struts (11) each wound with the coil is equal to an inner diameter of the magnetic pole sleeve (12);
• the wing plate struts (11) are respectively connected to two ends of the spring (8) in the magnetic pole sleeve (12);
• other ends of the wing plate struts (11) away from the spring (8) are respectively fixed to the concave surfaces of the nanometer material arc-shaped power generation wing plates (2) that are arranged opposite to each other.