CN202707895U - Rotating and shaft-driving fluid damper - Google Patents
Rotating and shaft-driving fluid damper Download PDFInfo
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- CN202707895U CN202707895U CN 201220055049 CN201220055049U CN202707895U CN 202707895 U CN202707895 U CN 202707895U CN 201220055049 CN201220055049 CN 201220055049 CN 201220055049 U CN201220055049 U CN 201220055049U CN 202707895 U CN202707895 U CN 202707895U
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- iron block
- permanent magnetic
- magnetic iron
- briquetting
- slot
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Abstract
Provided is a rotating and shaft-driving fluid damper. The rotating and shaft-driving fluid damper comprises an upper part and a lower part, wherein the upper part and the lower part are independent from each other. The upper part of the rotating and shaft-driving fluid damper comprises an upper disc flange (1), a first permanent magnet block (14), a first pressing block (13), a third permanent magnet block (6) and a third pressing block (7). The first permanent magnet block (14) is fixed inside the upper-portion disc flange (1) through the first pressing block (13), and the third permanent magnet block (6) is fixed inside the upper disc flange (1) through the third pressing block (7). The active line of resultant force of received magnetic force of the third permanent magnet block (6) coincides with the axis of a circular shaft (39). When a vibrating body vibrates, rotating blades inside the damper are driven to rotate by the magnetic force, and a piston inside the damper is driven to move by the magnetic force and a spring. When the rotating blades rotate and the piston moves, damping fluid flows through small round through holes in the rotating blades and the piston, and energy is consumed when the damping fluid flows through the small round through holes in the rotating blades and the piston.
Description
Technical field
The utility model proposes and rotate and the moving fluid damper of axle, belong to field of vibration control.
Background technique
Rotating with the moving fluid damper of axle is a kind of effective structural damping device, but rotate the possibility that has in the course of the work the fluid leaks in the moving fluid damper of rotation and axle with the moving fluid damper of axle, therefore in the occasion that does not allow leakage, rotation just is restricted with the use of the moving fluid damper of axle.If rotate and the moving fluid damper of axle in the occasion use that does not allow leakage, so just need to be a kind of without leakage rotating and the moving fluid damper of axle.
Summary of the invention
Technical problem: the purpose of this utility model provides a kind of without leakage rotating and the moving fluid damper of axle, the structural vibration control when being specially adapted to not allow leakage.
Technological scheme: the utility model selects nonmagnetic substance, damp liquid, permanent magnetic iron block as the stock of this rotation and the moving fluid damper of axle, and damp liquid is full of in the closed hydraulic pressure cylinder.Specifically utilize the motion of magnetic force moving rotor blade, utilize spring and magnetic force moving piston movement, when rotor blade and piston movement, damp liquid passes little round tube hole (damping hole) on the rotor blade and the upper little round tube hole (damping hole) on the piston plays dissipative structure vibrational energy effect; The moving fluid damper of this rotation and axle can be divided into two kinds of forms, is described below respectively:
The moving fluid damper of this rotation and axle comprises separate up and down two-part, and the moving fluid damper top of this rotation and axle is divided and comprised: top disc flange, the first permanent magnetic iron block, the first briquetting, the 3rd permanent magnetic iron block, the 3rd briquetting; The first permanent magnetic iron block is fixed in the disc flange of top by the first briquetting, and the 3rd permanent magnetic iron block is fixed in the disc flange of top by the 3rd briquetting; The line of action of making a concerted effort of the suffered magnetic force of the 3rd permanent magnetic iron block and the dead in line of circular shaft;
The moving fluid damper bottom of this rotation and axle is divided and is comprised: disk, the lower disk flange that is oppositely arranged with disk, the oil hydraulic cylinder that disk and lower disk flange are connected without leakage, lower disk flange, disk and oil hydraulic cylinder forming closed be without leakage space, and damp liquid is full of that this is closed without leakage space;
Part also comprises rotor blade, circular shaft, hollow cylinder, stator blade, the second permanent magnetic iron block, the second briquetting, piston, the first spring, the second spring, the 4th permanent magnetic iron block, the 4th briquetting under the moving fluid damper of this rotation and axle, is provided with circular hole at the circle centre position of piston; Circular shaft passes the circular hole of piston, and the lower end surface of circular shaft is connected without leaking with the lower disk flange, and the upper-end surface of circular shaft flushes with the outer surface of disk and is connected without leaking; The upper-end surface of hollow cylinder contacts with the lower surface of disk is smooth, the smooth contact of upper surface of the lower end surface of hollow cylinder and lower disk flange; Rotor blade one side is connected with hollow cylinder, and the rotor blade opposite side contacts with oil hydraulic cylinder is smooth, and the upper-end surface of rotor blade contacts with the lower surface of disk is smooth, the smooth contact of upper surface of the lower end surface of rotor blade and lower disk flange; Stator blade one side is connected with oil hydraulic cylinder, and the opposite side of stator blade contacts with hollow cylinder is smooth, and the upper-end surface of stator blade contacts with the lower surface of disk is smooth, the smooth contact of upper surface of the lower end surface of stator blade and lower disk flange; The second permanent magnetic iron block is fixed in the rotor blade by the second briquetting, when the first roundlet through hole distributes along the short transverse of rotor blade, and when rotor blade rotates, when the suffered reduction of force system of rotor blade is some to the hollow cylinder, rotor blade the main line of action of vowing of stressed system and the dead in line of hollow cylinder, rotor blade the acting surface of main square of stressed system vertical with the axis of hollow cylinder; Piston is along the hollow cylinder axial motion, the side of piston contacts with hollow cylinder is smooth, piston places the middle part of hollow cylinder by the first spring and the second spring, wherein the lower end of the first spring is connected with piston upper surface, the upper end of the first spring is connected with the top of circular shaft, one end of the second spring is connected with the piston lower surface, and the other end of the second spring is connected bottom with circular shaft; The 4th permanent magnetic iron block is fixed in the piston by the 4th briquetting, has the second little round tube hole on the piston, and the line of action of making a concerted effort of the damping force that produces when damp liquid flows through the second roundlet through hole and the dead in line of circular shaft.
Rotor blade and stator blade all are sector structure.The inside radius of rotor blade equals the outer radius of hollow cylinder.The outer radius of stator blade equals the inside radius of oil hydraulic cylinder.Rotor blade cylindrical contour about hollow cylinder in oil hydraulic cylinder is uniform, and stator blade inner circle contour about oil hydraulic cylinder in oil hydraulic cylinder is uniform, and every rotor blade is in the centre of two stator blades.
The distance that the upper-end surface of circular shaft is left in the upper end of the first spring is the thickness of disk.
The axis of the axis of the axis of top disc flange, the axis of disk, oil hydraulic cylinder, the axis of lower disk flange, hollow cylinder, the axis of piston and the dead in line of circular shaft; The first spring is to the effect line of action of force of piston and the dead in line of piston; The second spring is to the effect line of action of force of piston and the dead in line of piston; The line of action of making a concerted effort of the suffered magnetic force of the 3rd permanent magnetic iron block and the dead in line of circular shaft; The line of action of making a concerted effort of the suffered magnetic force of the 4th permanent magnetic iron block and the dead in line of circular shaft; When the suffered reduction of force system of the first permanent magnetic iron block is some to the hollow cylinder, the first permanent magnetic iron block the main line of action of vowing of stressed system and the dead in line of hollow cylinder, the first permanent magnetic iron block the acting surface of main square of stressed system vertical with the axis of hollow cylinder; When the suffered reduction of force system of the second permanent magnetic iron block is some to the hollow cylinder, the second permanent magnetic iron block the main line of action of vowing of stressed system and the dead in line of hollow cylinder, the second permanent magnetic iron block the acting surface of main square of stressed system vertical with the axis of hollow cylinder.
The shape of the shape of the shape of the shape of the 3rd permanent magnetic iron block, the 3rd briquetting, the 4th permanent magnetic iron block, the 4th briquetting can be that ring also can be column.
When keeping described rotation and axle to move the annexation of each parts of fluid damper and position relationship, when the shape of the shape of the shape of the shape of the 3rd permanent magnetic iron block, the 3rd briquetting, the 4th permanent magnetic iron block, the 4th briquetting is ring, can obtain rotating the first form of moving fluid damper with axle; When the shape of the shape of the shape of the shape of the 3rd permanent magnetic iron block, the 3rd briquetting, the 4th permanent magnetic iron block, the 4th briquetting is column, namely replace the 3rd permanent magnetic iron block with the 5th permanent magnetic iron block, replace the 3rd briquetting with the 5th briquetting, replace the 4th permanent magnetic iron block with the 6th permanent magnetic iron block, after replacing the 4th briquetting with the 6th briquetting, obtain the utility model and rotate the second form with the moving fluid damper of axle.The line of action of making a concerted effort of the suffered magnetic force of the 5th permanent magnetic iron block and the dead in line of circular shaft; The line of action of making a concerted effort of the suffered magnetic force of the 6th permanent magnetic iron block and the dead in line of circular shaft.
The distribution of the first little round tube hole also has following dual mode: a: the first little round tube hole only distributes b along the short transverse of stator blade: the first roundlet through hole distributes along the short transverse of rotor blade and stator blade simultaneously.
The moving fluid damper of the rotation of the first form and axle comprises independently up and down two-part, and part is comprised of top disc flange, the first permanent magnetic iron block, the first briquetting, the 3rd permanent magnetic iron block (ring), the 3rd briquetting (ring) on the moving fluid damper of this rotation and axle; The first permanent magnetic iron block is fixed in the disc flange of top by the first briquetting; The 3rd permanent magnetic iron block (ring) is fixed in the disc flange of top by the 3rd briquetting (ring);
The moving fluid damper bottom of this rotation and axle is divided and is comprised: disk, the lower disk flange that is oppositely arranged with disk, the oil hydraulic cylinder that disk and lower disk flange are connected without leakage, lower disk flange, disk and oil hydraulic cylinder forming closed be without leakage space, and damp liquid is full of that this is closed without leakage space;
Part also comprises rotor blade, circular shaft, hollow cylinder, stator blade, the second permanent magnetic iron block, the second briquetting, piston, the first spring, the second spring, the 4th permanent magnetic iron block (ring), the 4th briquetting (ring) under the moving fluid damper of this rotation and axle, the circular hole that is provided with at the circle centre position of piston; Circular shaft passes the circular hole of piston, and the lower end surface of circular shaft is connected without leaking with the lower disk flange, and the upper-end surface of circular shaft flushes with the outer surface of disk and is connected without leaking; The upper-end surface of hollow cylinder contacts with the lower surface of disk is smooth, the smooth contact of upper surface of the lower end surface of hollow cylinder and lower disk flange; Rotor blade one side is connected with hollow cylinder, and the rotor blade opposite side contacts with oil hydraulic cylinder is smooth, and the upper-end surface of rotor blade contacts with the lower surface of disk is smooth, the smooth contact of upper surface of the lower end surface of rotor blade and lower disk flange; Stator blade one side is connected with oil hydraulic cylinder, and the opposite side of stator blade contacts with hollow cylinder is smooth, and the upper-end surface of stator blade contacts with the lower surface of disk is smooth, the smooth contact of upper surface of the lower end surface of stator blade and lower disk flange; Rotor blade and stator blade are sector structure, and the inside radius of rotor blade equals the outer radius of hollow cylinder, and the outer radius of stator blade equals the inside radius of oil hydraulic cylinder.Rotor blade cylindrical contour about hollow cylinder in oil hydraulic cylinder is uniform, and stator blade inner circle contour about oil hydraulic cylinder in oil hydraulic cylinder is uniform, and every rotor blade is in the centre of two stator blades.The second permanent magnetic iron block is fixed in the rotor blade by the second briquetting, the three kinds of modes of the following stated that are distributed with of the first little round tube hole: (1) first little round tube hole only distributes along the short transverse of rotor blade, (2) first little round tube holes only distribute along the short transverse of stator blade, and (3) first roundlet through holes distribute along the short transverse of rotor blade and stator blade simultaneously; When rotor blade rotates, when the suffered reduction of force system of rotor blade is some to the hollow cylinder, rotor blade during the dead in line of the main line of action of vowing of stressed system and hollow cylinder, rotor blade the acting surface of main square of stressed system vertical with the axis of hollow cylinder.Piston is along the hollow cylinder axial motion, the side of piston contacts with hollow cylinder is smooth, piston places the middle part of hollow cylinder by the first spring and the second spring, wherein the lower end of the first spring is connected with piston upper surface, the upper end of the first spring is connected with the top of circular shaft, one end of the second spring is connected with the piston lower surface, and the other end of the second spring is connected bottom with circular shaft; The first spring is to the dead in line of piston action line of action of force and piston; The second spring is to the dead in line of piston action line of action of force and piston; The 4th permanent magnetic iron block (ring) is fixed in the piston by the 4th briquetting (ring), has the second little round tube hole on the piston, and the line of action of making a concerted effort of the damping force that produces when damp liquid flows through the second roundlet through hole and the dead in line of circular shaft.
The axis of the axis of the axis of top disc flange, the axis of disk, piston, the axis of oil hydraulic cylinder, lower disk flange, the axis of hollow cylinder and the dead in line of circular shaft.When the suffered reduction of force system of the first permanent magnetic iron block is some to the hollow cylinder, the first permanent magnetic iron block the main line of action of vowing of stressed system and the dead in line of hollow cylinder, the first permanent magnetic iron block the acting surface of main square of stressed system vertical with the axis of hollow cylinder; When the suffered reduction of force system of the second permanent magnetic iron block is some to the hollow cylinder, the second permanent magnetic iron block the main line of action of vowing of stressed system and the dead in line of hollow cylinder, the second permanent magnetic iron block the acting surface of main square of stressed system vertical with the axis of hollow cylinder; The line of action of making a concerted effort of the suffered magnetic force of the 3rd permanent magnetic iron block and the dead in line of circular shaft; The line of action of making a concerted effort of the suffered magnetic force of the 4th permanent magnetic iron block and the dead in line of circular shaft;
During use, top disc flange (or lower disk flange) is bolted on the rotor, and lower disk flange (or top disc flange) is bolted on the static basis.
The moving fluid damper of the rotation of the second form and axle is characterised in that: rotation and axle in the first form move on the basis of fluid damper, and the rotation that keeps the first form and axle are when moving each parts annexation of fluid damper and position relationship, replace the 3rd permanent magnetic iron block (ring) with the 5th permanent magnetic iron block (column), replace the 3rd briquetting (ring) with the 5th briquetting (column), replace the 4th permanent magnetic iron block (ring) with the 6th permanent magnetic iron block (column), replace the 4th briquetting (ring) with the 6th briquetting (column), can obtain the utility model and rotate the another kind of form of moving fluid damper with axle.The first spring is to the dead in line of piston action line of action of force and piston; The second spring is to the dead in line of piston action line of action of force and piston; The line of action of making a concerted effort of the suffered magnetic force of the 5th permanent magnetic iron block (column) and the dead in line of circular shaft; The line of action of making a concerted effort of the suffered magnetic force of the 6th permanent magnetic iron block (column) and the dead in line of circular shaft;
During use, top disc flange (or lower disk flange) is bolted on the oscillating body, and lower disk flange (or top disc flange) is bolted on the static basis.
Description of drawings
Fig. 1 be rotate with the moving fluid damper of axle face the sectional structure schematic representation;
Fig. 2 is the worm's eye view of Fig. 1 middle and upper part disc flange 1;
Fig. 3 is that the A-A of Fig. 2 middle and upper part disc flange 1 is to the sectional structure schematic representation
Fig. 4 is that Fig. 2 middle and upper part disc flange 1 is equipped with the A-A of the first permanent magnetic iron block 14 and the 3rd permanent magnetic iron block 6 and the first briquetting 13 and the 3rd briquetting 7 to the sectional structure schematic representation;
Fig. 5 is the structural representation of the 3rd T-slot 50 on Fig. 3 top disc flange 1;
Fig. 6 is the structural representation of the first T-slot 44 on Fig. 3 top disc flange 1;
Fig. 7 is the structural representation of piston 23 among Fig. 1;
Fig. 8 is the structural representation of the 4th T-slot 53 among Fig. 9;
Fig. 9 be among Fig. 7 piston 23 along the sectional structure schematic representation of B-B direction;
Figure 10 is that piston 23 is equipped with the B-B of the 4th permanent magnetic iron block 20 and the 4th briquetting 41 to the sectional structure schematic representation among Fig. 7;
Figure 11 be among Fig. 1 this rotation and axle dynamic damping device substructure along C-C to the sectional structure schematic representation;
Figure 12 is the structural representation of the second T-slot 47 among Figure 14;
Figure 13 is the plan structure schematic representation of rotor blade 18 among Figure 11;
Figure 14 be among Figure 11 rotor blade 18 along the structural representation of D-D direction;
Figure 15 is equipped with the rotor blade 18 of the second permanent magnetic iron block 36 and the second briquetting 35 along the structural representation of D-D direction among Figure 11;
Figure 16 is the rotation of the second form and the worm's eye view that axle moves the top disc flange 1 of fluid damper;
Figure 17 is the structural representation of the 5th T-slot in 18;
Figure 18 is the rotation of the second form and the structural representation of the 5th briquetting 57 on the moving fluid damper of axle;
Figure 19 is Figure 16 middle and upper part disc flange 1 structural representation along the A1-A1 direction;
Figure 20 is Figure 16 middle and upper part disc flange 1 structural representation along A1-A1 direction when the 5th permanent magnetic iron block 56 and the first permanent magnetic iron block 14 and the 5th briquetting 57 and the first briquetting 13 are installed;
Figure 21 is the plan structure schematic representation of the piston 23 of the rotation of the second form and axle dynamic damping device;
Figure 22 is the structural representation of the 6th T-slot among Figure 22;
Figure 23 is the rotation of the second form and the structural representation of the 6th briquetting 59 on the moving fluid damper of axle;
Figure 24 is that the piston 23 of the rotation of the second form among Figure 21 and axle dynamic damping device is along the sectional structure schematic representation of A1-A1 direction;
Figure 25 is that the piston 23 of the rotation of the second form when the 6th permanent magnetic iron block 58 and the 6th briquetting 59 are installed among Figure 21 and axle dynamic damping device is along the sectional structure schematic representation of A1-A1 direction;
Have among the above figure: top disc flange 1, the first bolt 2, the first unthreaded hole 3, the first tapped hole 4, the first outside bolts 5, the 3rd permanent magnetic iron block 6, the 3rd briquetting 7, the first inboard bolt 8, the first inboard unthreaded hole 9, the first inside thread hole 10, the first outside unthreaded hole 11, the first outside screw hole 12, the first briquetting 13, the first permanent magnetic iron block 14, the first bolt hole 15, the first roundlet through hole 16, the second roundlet through hole 17, rotor blade 18, oil hydraulic cylinder 19, the 4th permanent magnetic iron block 20, the second bolt hole 21, lower disk flange 22, piston 23, circular hole 24, the second spring 25, the second inside thread hole 26, the second outside screw hole 27, the second outside unthreaded hole 28, the second outside bolt 29, the second inboard unthreaded hole 30, the second inboard bolt 31, the second tapped hole 32, the second unthreaded hole 33, the second bolt 34, the second briquetting 35, the second permanent magnetic iron block 36, hollow cylinder 37, damp liquid 38, circular shaft 39, the first spring 40, the 4th briquetting 41, disk 42, stator blade 43, the first T-slot 44, the cylindrical slot 45 that the upper width of the first T-slot 44 is less, the cylindrical slot 46 that the lower width of the first T-slot 44 is larger, the second T-slot 47, the cylindrical slot 48 that the lower width of the 2nd T shape cylindrical slot 47 is less, the cylindrical slot 49 that the upper width of the second T-slot 47 is larger, the 3rd T-slot 50, the annular groove 51 that the 3rd T-slot 50 upper width are less, the annular groove 52 that the 3rd T-slot 50 lower width are larger, the 4th T-slot 53, the annular groove 54 that the upper width of the 4th T-slot 53 is larger, the annular groove 55 that the lower width of the 4th T-slot 53 is less, the 5th permanent magnetic iron block 56, the 5th briquetting 57, the 6th permanent magnetic iron block 58, the 6th briquetting 59, the 5th T-slot 60, the cylindrical slot 61 that the upper width of the 5th T-slot 60 is less, the cylindrical slot 62 that the lower width of the 5th T-slot 60 is larger, the 3rd unthreaded hole 63, the 3rd tapped hole 64, the 6th T-slot 65, the cylindrical slot 67 that the upper width of the 6th T-slot 65 is larger, the cylindrical slot 66 that the lower width of the 6th T-slot 65 is less, the 4th unthreaded hole 68, the 4th tapped hole 69.
Embodiment
Below in conjunction with accompanying drawing the utility model is described further.
The utility model proposes and rotate and the moving fluid damper of axle, utilize the rotor blade motion in the magnetic force moving damper, utilize the motion of magnetic force and spring pushing piston, when rotor blade and piston movement, damp liquid passes little round tube hole (damping hole) on the rotor blade and the upper little round tube hole (damping hole) on the piston plays dissipative structure vibrational energy effect.
Following explanation to embodiment of the present utility model in fact only is exemplary, and purpose never is to limit application of the present utility model or use.
The upper surface of the rotor blade 18 of the moving fluid damper of the rotation of this first form and axle has the second T-slot 47, the second T-slots 47 to be comprised of the larger cylindrical slot 49 of the upper width of the second T-slot 47 and the less cylindrical slot 48 of lower width of the second T-slot 47; The shape of the cylindrical slot 48 that the shape of the second permanent magnetic iron block 36 and the second T-slot 47 lower width are less is identical, the cylindrical slot 48 that the size of the second permanent magnetic iron block 36 and the second T-slot 47 lower width are less measure-alike; The second permanent magnetic iron block 36 places in the less cylindrical slot 48 of the second T-slot 47 lower width, the lower surface of the second permanent magnetic iron block 36 and the second T-slot 47 lower surfaces are fitted, and the lower surface of the cylindrical slot 48 that namely lower surface of the second permanent magnetic iron block 36 and the second T-slot 47 lower width are less is fitted; The magnetic pole of the second permanent magnetic iron block 36 is at two end faces up and down; The shape of the cylindrical slot 49 that the shape of the second briquetting 35 and the second T-slot 47 upper width are larger is identical, the cylindrical slot 49 that the size of the second briquetting 35 and the second T-slot 47 upper width are larger measure-alike; The second tapped hole 32 is uniform along a circumference of the larger cylindrical slot 49 of the second T-slot 47 upper width; The second unthreaded hole 33 is uniform along a circumference of the second briquetting 35; The second briquetting 35 places in the larger cylindrical slot 49 of the second T-slot 47 upper width, and the upper surface of the lower surface of the second briquetting 35 and the second permanent magnetic iron block 36 is fitted, the upper surface flush of the upper surface of the second briquetting 35 and rotor blade 18; The quantity of the second tapped hole 32 on the second T-slot 47 of the quantity of the second unthreaded hole 33 on the second briquetting 35 and rotor blade 18 is identical, the dead in line of the second tapped hole 32 of the second T-slot 47 of the axis of the second unthreaded hole 33 on the second briquetting 35 and rotor blade 18; When the threaded end of the second bolt 34 was passed the second unthreaded hole 33 and is screwed into the second tapped hole 32, the second bolts 34 and tightens, the second bolt 34 compressed the second briquetting 35; The first roundlet through hole 16 distributes along rotor blade 18 short transverses, and the first roundlet through hole 16 must not contact with the second T-slot 47; The upper surface of the piston 23 of the moving fluid damper of the rotation of this first form and axle has the 4th T-slot 53, the dead in line of the axis of the 4th T-slot 53 and piston 23, the 4th T-slot 53 is comprised of the less annular groove 55 of the lower width of the 4th T-slot 53 and the larger annular groove 54 of upper width of the 4th T-slot 53; The shape of the annular groove 55 that the shape of the 4th permanent magnetic iron block 20 and the lower width of the 4th T-slot 53 are less is identical, the annular groove 55 that the lower width of the size of the 4th permanent magnetic iron block 20 and the 4th T-slot 53 is less measure-alike; The 4th permanent magnetic iron block 20 places in the less annular groove 55 of the lower width of the 4th T-slot 53, the lower surface of the lower surface of the 4th permanent magnetic iron block 20 and the 4th T-slot 53 is fitted, and the lower surface of the annular groove 55 that namely lower width of the lower surface of the 4th permanent magnetic iron block 20 and the 4th T-slot 53 is less is fitted; The magnetic pole of the 4th permanent magnetic iron block 20 is at two end faces up and down; The shape of the annular groove 54 that the shape of the 4th briquetting 41 and the upper width of the 4th T-slot 53 are larger is identical, the annular groove 54 that the upper width of the size of the 4th briquetting 41 and the 4th T-slot 53 is larger measure-alike; The second inside thread hole 26 is uniform along the interior side ring surface of the larger annular groove 54 of the upper width of the 4th T-slot 53, and the second outside screw hole 27 is uniform along the outside anchor ring of the larger annular groove 54 of the upper width of the 4th T-slot 53; At inboard the uniform second inboard unthreaded hole 30 of the end face of the 4th briquetting 41, at uniform the second outside unthreaded hole 28 in the end face outside of the 4th briquetting 41; The 4th briquetting 41 places in the larger annular groove 54 of the upper width of the 4th T-slot 53, and the upper surface of the lower surface of the 4th briquetting 41 and the 4th permanent magnetic iron block 20 is fitted, the upper surface flush of the upper surface of the 4th briquetting 41 and piston 23; The quantity of the second inboard unthreaded hole 30 on the 4th briquetting 41 is identical with the quantity in the second inside thread hole 26 of the 4th T-slot 53 of piston 23, the dead in line in the second inside thread hole 26 of the 4th T-slot 53 of the axis of the second inboard unthreaded hole 30 on the 4th briquetting 41 and piston 23, the quantity of the second outside unthreaded hole 28 on the 4th briquetting 41 is identical with the quantity in the second outside screw hole 27 of the 4th T-slot 53 of piston 23, the dead in line in the second outside screw hole 27 of the 4th T-slot 53 of the axis of the second outside unthreaded hole 28 on the 4th briquetting 41 and piston 23; The threaded end of the second outside bolt 29 is passed the second outside unthreaded hole 28 and is screwed into the second outside screw hole 27, the threaded end of the second inboard bolt 31 is passed the second inboard unthreaded hole 30 and is screwed into the second inside thread hole 26, when the second outside bolt 29 and the second inboard bolt 31 were tightened, the second outside bolt 29 and the second inboard bolt 31 compressed the 4th briquetting 41; The second roundlet through hole 17 is uniform along a circumference on the piston 23, and the second roundlet through hole 17 must not be overlapping with the 4th T-slot 53; When damp liquid 38 flows through the second roundlet through hole 17 on the piston 23, the line of action of making a concerted effort of the damping force of generation and the dead in line of circular shaft 39.The lower surface of top disc flange 1 has the first T-slot 44, the first T-slots 44 to be comprised of the first T-slot 44 upper width less cylindrical slot 45 and the larger cylindrical slot 46 of the first T-slot 44 lower width; The shape of the cylindrical slot 45 that the shape of the first permanent magnetic iron block 14 and the first T-slot 44 upper width are less is identical, the cylindrical slot 45 that the size of the first permanent magnetic iron block 14 and the first T-slot 44 upper width are less measure-alike; The first permanent magnetic iron block 14 places in the less cylindrical slot 45 of the first T-slot 44 upper width, the upper surface of the upper surface of the first permanent magnetic iron block 14 and the first T-slot 44 is fitted, and the upper surface of the cylindrical slot 45 that namely upper surface of the first permanent magnetic iron block 14 and the first T-slot 44 upper width are less is fitted; Two magnetic poles of the first permanent magnetic iron block 14 are at two end faces up and down; The shape of the cylindrical slot 46 that the shape of the first briquetting 13 and the first T-slot 44 lower width are larger is identical, the cylindrical slot 46 that the size of the first briquetting 13 and the first T-slot 44 lower width are larger measure-alike; The first tapped hole 4 is uniform along a circumference of the larger cylindrical slot 46 of the first T-slot 44 lower width; At uniform the first unthreaded hole 3 of a circumference of the first briquetting 13; The first briquetting 13 places in the larger cylindrical slot 46 of the first T-slot 44 lower width, and the lower surface of the upper surface of the first briquetting 13 and the first permanent magnetic iron block 14 is fitted, and the lower surface of the first briquetting 13 flushes with the lower surface of top disc flange 1; The quantity of the first unthreaded hole 3 on the first briquetting 13 is identical with the quantity of the first tapped hole 4 of the first T-slot 44 of top disc flange 1, the dead in line of the first tapped hole 4 of the first T-slot 44 of the axis of the first unthreaded hole 3 on the first briquetting 13 and top disc flange 1; When the threaded end of the first bolt 2 was passed the first unthreaded hole 3 and is screwed into the first tapped hole 4, the first bolts 2 and tightens, the first bolt 2 compressed the first briquetting 13; The first bolt hole 15 is uniform along a circumference of top disc flange 1, and the first bolt hole 15 is distributed in beyond the first T-slot 44; The lower surface of top disc flange 1 has the 3rd T-slot 50, the dead in line of the axis of the 3rd T-slot 50 and top disc flange 1, the 3rd T-slot 50 is comprised of the less annular groove 51 of the upper width of the 3rd T-slot 50 and the larger annular groove 52 of lower width of the 3rd T-slot 50; The shape of the annular groove 51 that the shape of the 3rd permanent magnetic iron block 6 and the upper width of the 3rd T-slot 50 are less is identical, the annular groove 51 that the upper width of the size of the 3rd permanent magnetic iron block 6 and the 3rd T-slot 50 is less measure-alike; The 3rd permanent magnetic iron block 6 places in the less annular groove 51 of the upper width of the 3rd T-slot 50, the upper surface of the upper surface of the 3rd permanent magnetic iron block 6 and the 3rd T-slot 50 is fitted, and the upper surface of the annular groove 51 that namely upper width of the upper surface of the 3rd permanent magnetic iron block 6 and the 3rd T-slot 50 is less is fitted; Two magnetic poles of the 3rd permanent magnetic iron block 6 are respectively at up and down two end faces of annulus; The shape of the annular groove 52 that the shape of the 3rd briquetting 7 and the lower width of the 3rd T-slot 50 are larger is identical, the annular groove 52 that the lower width of the size of the 3rd briquetting 7 and the 3rd T-slot 50 is larger measure-alike; The first inside thread hole 10 is uniform along the interior side ring surface of the larger annular groove 52 of the lower width of the 3rd T-slot 50, and the first outside screw hole 12 is uniform along the outside anchor ring of the larger annular groove 52 of the lower width of the 3rd T-slot 50; At inboard the uniform first inboard unthreaded hole 9 of the end face of the 3rd briquetting 7, at uniform the first outside unthreaded hole 11 in the end face outside of the 3rd briquetting 7; The 3rd briquetting 7 places in the larger annular groove 52 of the lower width of the 3rd T-slot 50, and the lower surface of the upper surface of the 3rd briquetting 7 and the 3rd permanent magnetic iron block 6 is fitted, and the lower surface of the 3rd briquetting 7 flushes with the lower surface of top disc flange 1; The quantity of the first outside unthreaded hole 11 on the 3rd briquetting 7 is identical with the quantity in the first outside screw hole 12 of the 3rd T-slot 50 of top disc flange 1, the dead in line in the first outside screw hole 12 of the 3rd T-slot 50 of the axis of the first outside unthreaded hole 11 on the 3rd briquetting 7 and top disc flange 1, the quantity of the first inboard unthreaded hole 9 is identical with the quantity in the first inside thread hole 10 of the 3rd T-slot 50 of top disc flange 1 on the 3rd briquetting 7, the dead in line in the first inside thread hole 10 of the 3rd T-slot 50 of the axis of the first inboard unthreaded hole 9 and top disc flange 1 on the 3rd briquetting 7; The threaded end of the first outside bolt 5 is passed the first outside unthreaded hole 11 and is screwed into the first outside screw hole 12, the threaded end of the first inboard bolt 8 is passed the first inboard unthreaded hole 9 and is screwed into the first inside thread hole 10, when the first outside bolt 5 and the first inboard bolt 8 were tightened, the first outside bolt 5 and the first inboard bolt 8 compressed the 3rd briquetting 7; The upper surface of lower disk flange 22 is connected without leaking with the lower end surface of oil hydraulic cylinder 19, disk 42 is connected without leaking with the upper-end surface of oil hydraulic cylinder 19, circular shaft 39 lower end surfaces are connected without leaking with lower disk flange 22, the upper-end surface of circular shaft 39 flushes with the upper-end surface of disk 42 and is connected without leaking, and lower disk flange 22 seals out one with oil hydraulic cylinder 19, disk 42 and circular shaft 39 and is full of the closed without leakage space of damp liquid 38; The second bolt hole 21 is uniform along circumference on the lower disk flange 22, and the second bolt hole 21 is distributed in oil hydraulic cylinder 19 outsides; Circular shaft 39 passes piston 23, the first spring 40 and the second spring 25; Piston 23 is positioned at oil hydraulic cylinder 19 middle parts; The lower end of the first spring 40 is connected with piston 23 upper surfaces, and the upper end of the first spring 40 is connected with the top of the cylndrical surface of circular shaft 39, and the distance that the upper-end surface of circular shaft 39 is left in the upper end of the first spring 40 is the thickness of disk 42; One end of the second spring 25 is connected with piston 23 lower surfaces, being connected bottom of the cylndrical surface of the other end of the second spring 25 and circular shaft 39; The smooth contact of lower surface of the upper end of hollow cylinder 37 and disk 42, the smooth contact of upper surface of the lower end of hollow cylinder 37 and lower disk flange 22; Rotor blade 18 is sector structure, the radius of rotor blade 18 1 sides equals the outer radius of hollow cylinder 37, and this side of rotor blade 18 is connected with the outer end of hollow cylinder 37, the radius of rotor blade 18 opposite sides is slightly less than the inside radius of oil hydraulic cylinder 19, concrete size is according to the cylinder design of routine, and this side of rotor blade 18 contacts with the inner wall smooth of oil hydraulic cylinder 19; The smooth contact of lower surface of the upper-end surface of rotor blade 18 and disk 42, the smooth contact of upper surface of the lower end surface of rotor blade 18 and lower disk flange 22; Stator blade 43 is sector structure, the radius of stator blade 43 1 sides equals the inside radius of oil hydraulic cylinder 19, and this side of stator blade 43 is connected with the inwall of oil hydraulic cylinder 19, the radius of stator blade 43 opposite sides is slightly less than the outer radius of hollow cylinder 37, concrete size is according to the cylinder design of routine, and this side and the hollow cylinder 37 of stator blade 43 are smoothly connected, the smooth contact of lower surface of the upper-end surface of stator blade 43 and disk 42, the smooth contact of upper surface of the lower end surface of stator blade 43 and lower disk flange 22; Rotor blade 18 is uniform at 19 li axis about hollow cylinder 37 of oil hydraulic cylinder, and stator blade 43 is uniform at 19 li axis about circular shaft 39 of oil hydraulic cylinder, and every rotor blade 18 is in the centre of two stator blades 43; During use, top disc flange 1 is fixed by bolts on the oscillating body by the first bolt hole 15 on it, lower disk flange 22 is fixed by bolts on the static basis by the second bolt hole 21 on it, and the distance of the upper surface of the lower surface of top disc flange 1 and disk 42 is greater than the maximum vibration displacement of oscillating body with respect to the basis; Or lower disk flange 22 is fixed by bolts on the oscillating body by the second bolt hole 21 on it, top disc flange 1 is fixed by bolts on the static basis by the first bolt hole 15 on it, and the distance of the upper surface of the lower surface of lower disk flange 22 and top disc flange 1 is greater than the maximum vibration displacement of oscillating body with respect to the basis; The dead in line of the axis of the 3rd permanent magnetic iron block 6 and the 4th permanent magnetic iron block 20, the axis of the axis of the axis of the axis of top disc flange 1, lower disk flange 22, the axis of oil hydraulic cylinder 19, disk 42, the axis of piston 23, the first spring 40, the axis of the second spring 25 and the dead in line of circular shaft 39.Minute cylndrical surface in the name annulus, the axis of minute cylndrical surface and the dead in line of annulus in the annulus, the diameter of minute cylndrical surface is the average of annulus external diameter and internal diameter in the annulus; The axis of minute cylndrical surface in the annular groove 52 that the lower width of the 3rd T-slot 50 is larger, the axis of minute cylndrical surface in the annular groove 51 that the upper width of the 3rd T-slot 50 is less, the dead in line of minute cylndrical surface in the annular groove 55 that the lower width of the axis of minute cylndrical surface and the 4th T-slot 53 is less in the annular groove 54 that the upper width of the 4th T-slot 53 is larger.
Each parts of the moving fluid damper of the rotation of this first form and axle are except the first permanent magnetic iron block 14, the second permanent magnetic iron block 36, the 3rd permanent magnetic iron block 6 and the 4th permanent magnetic iron block 20, other parts are all with non-ferromagnetic metal or alloy material (aluminum alloy for example, stainless steel etc.) make, the first permanent magnetic iron block 14 and the second permanent magnetic iron block 36 are all chosen the cylindrical magnet iron block, and the 3rd permanent magnetic iron block 6 and the 4th permanent magnetic iron block 20 are all chosen the ring permanent magnetic iron block; The first spring 40 and the second spring 25 are all chosen the coil component spring form; The first roundlet through hole 16 evenly distributes along the short transverse of rotor blade 18; The process of the moving fluid damping implement body manufacturing of the rotation of the first form and axle can follow these steps to carry out:
The first step: according to the vibration control requirement, selected top disc flange 1, the first briquetting 13, circular shaft 39, hollow cylinder 37, the first permanent magnetic iron blocks 14, disk 42, oil hydraulic cylinder 19, the second briquettings 35, rotor blade 18, the second permanent magnetic iron block 36, lower disk flange 22, stator blade 43, the first T-slots 44 and the second T-slot 47, the 3rd briquetting 7, the first spring 40, the 3rd permanent magnetic iron block 6, the four briquettings 41, piston 23, the 4th permanent magnetic iron block 20, the size of the second spring 25, the three T-slots, 50, the four T-slots 53 and circular hole 24; Selected silicone oil is as damp liquid 38; According to the vibration control requirement, selected the first bolt hole 15, the first unthreaded hole 3, the first tapped hole 4, the second bolts hole 21, the second unthreaded holes 33, the second tapped hole 32 and the first roundlet through hole 16, the first outside bolt 5, the first outside unthreaded hole 11, the first inboard unthreaded hole 9, the first inside thread holes 10, the first inboard bolts 8, the first outside screw hole 12, the second outside bolt 29, the second inboard bolt 31, the second outside unthreaded holes 28, the second outside screw hole 27, the quantity of the second inside thread hole 26, the second bolts hole, 21, the second inboard unthreaded holes 30 and the second roundlet through hole 17, position and size.For example: after installing at damper, piston 23 is positioned at the installation requirement of the centre of oil hydraulic cylinder 19, after damper installs, piston 23 is in the equilibrium of forces state under the acting in conjunction of magnetic force and the first spring 40 and the second spring 25, determined the parameter of the first spring 40 and the second spring 25 by conventional Mechanics Calculation.When vibration was simple harmonic oscillation, the height of oil hydraulic cylinder 19 was not less than the twice of maximum vibration displacement of oscillating body and the thickness sum of piston 23.
Second step: the 4th permanent magnetic iron block 20 is placed in the less annular groove 55 of the lower width of the 4th T-slot 53 of piston 23, the arctic is down up in the magnetic pole South Pole of the 4th permanent magnetic iron block 20; The lower surface of the lower surface of the 4th permanent magnetic iron block 20 and the 4th T-slot 53 is fitted, and the lower surface of the annular groove 55 that namely lower width of the lower surface of the 4th permanent magnetic iron block 20 and the 4th T-slot 53 is less is fitted; The 4th briquetting 41 is placed in the larger annular groove 54 of the upper width of the 4th T-slot 53, and the upper surface of the lower surface of the 4th briquetting 41 and the 4th permanent magnetic iron block 20 is fitted, the upper surface flush of the upper surface of the 4th briquetting 41 and piston 23; With the axial alignment (coincidence) in the second inside thread hole 26 on the 4th T-slot 53 of the axis of the second inboard unthreaded hole 30 on the 4th briquetting 41 and piston 23, with the dead in line in the second outside screw hole 27 on the 4th T-slot 53 of the axis of the second outside unthreaded hole 28 on the 4th briquetting 41 and piston 23; The threaded end of the second outside bolt 29 is passed the second outside unthreaded hole 28 to be screwed into the second outside screw hole 27 and to tighten, the threaded end of the second inboard bolt 31 is passed the second inboard unthreaded hole 30 and is screwed into the second inside thread hole 26 and tightens, when the second outside bolt 29 and the second inboard bolt 31 were tightened, the second outside bolt 29 and the second inboard bolt 31 compressed the 4th briquetting 41.
The 3rd step: circular shaft 39 passes the circular hole 24 of piston 23, one end of the first spring 40 is welded on piston 23 upper surfaces, the other end of the first spring 40 is welded on the top of the cylndrical surface of circular shaft 39, and the upper end of the first spring 40 is the thickness of disk 42 from the distance of the upper-end surface of circular shaft 39; One end of the second spring 25 is welded on piston 23 lower surfaces, and the cylndrical surface that the other end of the second spring 25 is welded on circular shaft 39 bottom; All must guarantee the axis of piston 23, the axis of the first spring 40, the axis of the second spring 25 and the dead in line of circular shaft 39 before and after the welding.Must guarantee the effect line of action of force of 40 pairs of pistons 23 of the first spring and the dead in line of piston 23 after the welding; The effect line of action of force of 25 pairs of pistons 23 of the second spring and the dead in line of piston 23.
The 4th step: the lower end surface of circular shaft 39 is welded on the upper surface of lower disk flange 22, all must guarantees the dead in line of axis and the circular shaft 39 of lower disk flange 22 before and after the welding.
The 5th step: the side that rotor blade 18 radiuses are less is welded on the outer side surface of hollow cylinder 37, and guarantee that 18 welding of two rotor blades are rear uniform about a cylindrical contour of hollow cylinder 37, two larger sides of stator blade 43 radiuses are welded on the inner side surface of oil hydraulic cylinder 19, and guarantee that rear two stator blades 43 of welding are uniform about an inner circle contour of oil hydraulic cylinder 19;
The 6th step: the second permanent magnetic iron block 36 is placed in the less cylindrical slot 48 of the lower width of the second T-slot 47 of rotor blade 18, the arctic is down up in the magnetic pole South Pole of the second permanent magnetic iron block 36; The lower surface of the lower surface of the second permanent magnetic iron block 36 and the second T-slot 47 is fitted, and the lower surface of the cylindrical slot 48 that namely lower width of the lower surface of the second permanent magnetic iron block 36 and the second T-slot 47 is less is fitted; The second briquetting 35 is placed in the larger cylindrical slot 49 of the upper width of the second T-slot 47, and the upper surface of the lower surface of the second briquetting 35 and the second permanent magnetic iron block 36 is fitted, the upper surface flush of the upper surface of the second briquetting 35 and rotor blade 18; Axial alignment (coincidence) with the second tapped hole 32 on the second T-slot 47 of the axis of the second unthreaded hole 33 on the second briquetting 35 and rotor blade 18, the threaded end of the second bolt 34 is passed the second unthreaded hole 33 to be screwed into the second tapped hole 32 and to tighten, when the second bolt 34 was tightened, the second bolt 34 compressed the second briquetting 35.
The 7th step: the hollow cylinder 37 that is welded with two rotor blades 18 the 6th step is enclosed within on the piston 23, and piston 23 contacts with the inner wall smooth of hollow cylinder 37; The oil hydraulic cylinder 19 that is welded with two stator blades 43 the 6th step is enclosed within on the hollow cylinder 37, with the lower end surface of oil hydraulic cylinder 19 and the upper surface welding of lower disk flange 22, all must guarantee the dead in line of axis and the oil hydraulic cylinder 19 of lower disk flange 22 after the welding, and guarantee that there is a slice rotor blade 18 centre of per two stator blades 43; One side of rotor blade 18 contacts with the inner wall smooth of oil hydraulic cylinder 19, the smooth contact of outer wall of a side of stator blade 43 and hollow cylinder 37;
The 8th step: the circle centre position at disk 42 bores circular hole a, and the diameter of circular hole a is a bit larger tham the diameter (welding conditions are got concrete numerical value routinely) of circular shaft 39, the dead in line of the axis of circular hole a and disk 42; Axis symmetry about disk 42 is bored small sircle hole b and small sircle hole c on disk 42 again, small sircle hole b and small sircle hole c axis separately equal half of radius sum of the inside radius of oil hydraulic cylinder 19 and circular hole a from the distance of the axis of disk 42, half inside radius less than oil hydraulic cylinder 19 of small sircle hole b and small sircle hole c deduct circular hole a radius numerical value 1/2nd.
The 9th step: the 9th step was passed in the top of circular shaft 39 bore among the circular hole a, the lower surface of disk 42 is placed on the upper-end surface of oil hydraulic cylinder 19, with the upper-end surface of oil hydraulic cylinder 19 and the lower surface welding of disk 42, again with the upper-end surface of circular shaft 39 and disk 42 the 6th the step institute circular hole a place of boring weld, weld front and back and all must guarantee the axis of oil hydraulic cylinder 19, the axis of disk 42, the dead in line of circular shaft 39.
The tenth step: use first funnel that silicone oil is filled with oil hydraulic cylinder 19 as damp liquid by the 9th step small sircle hole b that bores, after observing damp liquid and filled with oil hydraulic cylinder 19 by small sircle hole b and small sircle hole c, again with the 9th go on foot the small sircle hole b that bores and small sircle hole c weld and block.
The 11 step: the first permanent magnetic iron block 14 is placed in the less cylindrical slot 45 of the upper width of the first T-slot 44 of top disc flange 1, the arctic is down up in the magnetic pole South Pole of the first permanent magnetic iron block 14; The upper surface of the upper surface of the first permanent magnetic iron block 14 and the first T-slot 44 is fitted, and the upper surface of the cylindrical slot 45 that namely upper width of the upper surface of the first permanent magnetic iron block 14 and the first T-slot 44 is less is fitted; The first briquetting 13 is placed in the larger cylindrical slot 46 of the lower width of the first T-slot 44, and the lower surface of the upper surface of the first briquetting 13 and the first permanent magnetic iron block 14 is fitted, and the lower surface of the first briquetting 13 flushes with the lower surface of top disc flange 1; Axial alignment (coincidence) with axis with first tapped hole 4 of the first T-slot 44 of top disc flange 1 of the first unthreaded hole 3 on the first briquetting 13; The threaded end of the first bolt 2 is passed the first unthreaded hole 3 be screwed into the first tapped hole 4 and tighten, when the first bolt 2 was tightened, the first bolt 2 compressed the first briquetting 13.The 3rd permanent magnetic iron block 6 is placed in the less annular groove 51 of the upper width of the 3rd T-slot 50 of top disc flange 1, the arctic is down up in the magnetic pole South Pole of the 3rd permanent magnetic iron block 6; The upper surface of the upper surface of the 3rd permanent magnetic iron block 6 and the 3rd T-slot 50 is fitted, and the upper surface of the annular groove 51 that namely upper width of the upper surface of the 3rd permanent magnetic iron block 6 and the 3rd T-slot 50 is less is fitted; The 3rd briquetting 7 is placed in the larger annular groove 52 of the lower width of the 3rd T-slot 50, and the lower surface of the upper surface of the 3rd briquetting 7 and the 3rd permanent magnetic iron block 6 is fitted, and the lower surface of the 3rd briquetting 7 flushes with the lower surface of top disc flange 1; With the axis of the first outside unthreaded hole 11 on the 3rd briquetting 7 and the axial alignment (coincidence) in the first outside screw hole 12 of the 3rd T-slot 50 of top disc flange 1, the axial alignment in the first inside thread hole 10 of the 3rd T-slot 50 of the axis of the first inboard unthreaded hole 9 on the 3rd briquetting 7 and top disc flange 1; The threaded end of the first outside bolt 5 is passed the first outside unthreaded hole 11 to be screwed into the first outside screw hole 12 and to tighten, the threaded end of the first inboard bolt 8 is passed the first inboard unthreaded hole 9 and is screwed into the first inside thread hole 10 and tightens, when the first outside bolt 5 and the first inboard bolt 8 were tightened, the first outside bolt 5 and the first inboard bolt 8 compressed the 3rd briquetting 7.
So far just can realize the rotation of the first form and the invention of the moving fluid damper of axle.
Rotation and axle in the first form move on the basis of fluid damper, and the rotation that keeps the first form and axle are when moving each parts annexation of fluid damper and position relationship, with the 5th permanent magnetic iron block 56(column) replacement the 3rd permanent magnetic iron block 6(ring), with the 5th briquetting 57(column) replacement the 3rd briquetting 7(ring), with the 6th permanent magnetic iron block 58(column) replacement the 4th permanent magnetic iron block 20(ring), with the 6th briquetting 59(column) replacement the 4th briquetting 41(ring) after, the first roundlet through hole 16 evenly distributes along the short transverse of rotor blade 18; Obtain the utility model and rotate the second form of moving fluid damper with axle.
Each parts of the moving fluid damper of the rotation of this second form and axle are except the first permanent magnetic iron block 14, the second permanent magnetic iron block 36, with the 5th permanent magnetic iron block 56 and the 6th permanent magnetic iron block 58, other parts are all with non-ferromagnetic metal or alloy material (aluminum alloy for example, stainless steels etc.) make, the first permanent magnetic iron block 14, the second permanent magnetic iron block 36, the 5th permanent magnetic iron block 56, the 6th permanent magnetic iron block 58 are all chosen the cylindrical magnet iron block; The first spring 40 and the second spring 25 are all chosen the coil component spring form; The process of the moving fluid damping implement body manufacturing of the rotation of the second form and axle can follow these steps to carry out:
The upper surface of the rotor blade 18 on the moving fluid damper of the rotation of the second form and axle has the second T-slot 47, the second T-slots 47 to be comprised of the larger cylindrical slot 49 of the upper width of the second T-slot 47 and the less cylindrical slot 48 of lower width of the second T-slot 47; The shape of the cylindrical slot 48 that the shape of the second permanent magnetic iron block 36 and the second T-slot 47 lower width are less is identical, the cylindrical slot 48 that the size of the second permanent magnetic iron block 36 and the second T-slot 47 lower width are less measure-alike; The second permanent magnetic iron block 36 places in the less cylindrical slot 48 of the second T-slot 47 lower width, the lower surface of the second permanent magnetic iron block 36 and the second T-slot 47 lower surfaces are fitted, and the lower surface of the cylindrical slot 48 that namely lower surface of the second permanent magnetic iron block 36 and the second T-slot 47 lower width are less is fitted; The magnetic pole of the second permanent magnetic iron block 36 is at two end faces up and down; The shape of the cylindrical slot 49 that the shape of the second briquetting 35 and the second T-slot 47 upper width are larger is identical, the cylindrical slot 49 that the size of the second briquetting 35 and the second T-slot 47 upper width are larger measure-alike; The second tapped hole 32 is uniform along a circumference of the larger cylindrical slot 49 of the second T-slot 47 upper width; The second unthreaded hole 33 is uniform along a circumference of the second briquetting 35; The second briquetting 35 places in the larger cylindrical slot 49 of the second T-slot 47 upper width, and the upper surface of the lower surface of the second briquetting 35 and the second permanent magnetic iron block 36 is fitted, the upper surface flush of the upper surface of the second briquetting 35 and rotor blade 18; The quantity of the second tapped hole 32 on the second T-slot 47 of the quantity of the second unthreaded hole 33 on the second briquetting 35 and rotor blade 18 is identical, the dead in line of the second tapped hole 32 of the second T-slot 47 of the axis of the second unthreaded hole 33 on the second briquetting 35 and rotor blade 18; When the threaded end of the second bolt 34 was passed the second unthreaded hole 33 and is screwed into the second tapped hole 32, the second bolts 34 and tightens, the second bolt 34 compressed the second briquetting 35; The first roundlet through hole 16 distributes along rotor blade 18 short transverses, and the first roundlet through hole 16 must not contact with the second T-slot 47; The upper surface of the piston 23 of the moving fluid damper of the rotation of this second form and axle has the 6th T-slot 65, the six T-slots 65 to be comprised of the less cylindrical slot 66 of the lower width of the 6th T-slot 65 and the larger cylindrical slot 67 of upper width of the 6th T-slot 65; The shape of the cylindrical slot 66 that the shape of the 6th permanent magnetic iron block 58 and the lower width of the 6th T-slot 65 are less is identical, the cylindrical slot 66 that the lower width of the size of the 6th permanent magnetic iron block 58 and the 6th T-slot 65 is less measure-alike; The 6th permanent magnetic iron block 58 places in the less cylindrical slot 66 of the lower width of the 6th T-slot 65, the lower surface of the lower surface of the 6th permanent magnetic iron block 58 and the 6th T-slot 65 is fitted, and the lower surface of the cylindrical slot 66 that namely lower width of the lower surface of the 6th permanent magnetic iron block 58 and the 6th T-slot 65 is less is fitted; The magnetic pole of the 6th permanent magnetic iron block 58 is at two end faces up and down; The shape of the cylindrical slot 67 that the shape of the 6th briquetting 59 and the upper width of the 6th T-slot 65 are larger is identical, the cylindrical slot 67 that the upper width of the size of the 6th briquetting 59 and the 6th T-slot 65 is larger measure-alike; The 4th tapped hole 69 along the larger cylindrical slot 67 of the upper width of the 6th T-slot 65 a circumference uniform; Uniform the 4th unthreaded hole 68 of a circumference at the end face of the 6th briquetting 59; The 6th briquetting 59 places in the larger cylindrical slot 67 of the upper width of the 6th T-slot 65, and the upper surface of the lower surface of the 6th briquetting 59 and the 6th permanent magnetic iron block 58 is fitted, the upper surface flush of the upper surface of the 6th briquetting 59 and piston 23; The quantity of the 4th unthreaded hole 68 on the 6th briquetting 59 is identical with the quantity of the 4th tapped hole 69 of the 6th T-slot 65 of piston 23, the dead in line of the 4th tapped hole 69 of the 6th T-slot 65 of the axis of the 4th unthreaded hole 68 on the 6th briquetting 59 and piston 23; Pass the 4th unthreaded hole 68 with bolt and be screwed into the 4th tapped hole 69 and tighten, the 6th briquetting 59 is compressed; The second roundlet through hole 17 is uniform along a circumference on the piston 23, and the second roundlet through hole 17 must not be overlapping with the 6th T-slot 65; When damp liquid 38 flows through the second roundlet through hole 17 on the piston 23, the line of action of making a concerted effort of the damping force of generation and the dead in line of circular shaft 39.The lower surface of top disc flange 1 has the first T-slot 44, the first T-slots 44 to be comprised of the first T-slot 44 upper width less cylindrical slot 45 and the larger cylindrical slot 46 of the first T-slot 44 lower width; The shape of the cylindrical slot 45 that the shape of the first permanent magnetic iron block 14 and the first T-slot 44 upper width are less is identical, the cylindrical slot 45 that the size of the first permanent magnetic iron block 14 and the first T-slot 44 upper width are less measure-alike; The first permanent magnetic iron block 14 places in the less cylindrical slot 45 of the first T-slot 44 upper width, the upper surface of the upper surface of the first permanent magnetic iron block 14 and the first T-slot 44 is fitted, and the upper surface of the cylindrical slot 45 that namely upper surface of the first permanent magnetic iron block 14 and the first T-slot 44 upper width are less is fitted; Two magnetic poles of the first permanent magnetic iron block 14 are at two end faces up and down; The shape of the cylindrical slot 46 that the shape of the first briquetting 13 and the first T-slot 44 lower width are larger is identical, the cylindrical slot 46 that the size of the first briquetting 13 and the first T-slot 44 lower width are larger measure-alike; The first tapped hole 4 is uniform along a circumference of the larger cylindrical slot 46 of the first T-slot 44 lower width; At uniform the first unthreaded hole 3 of a circumference of the first briquetting 13; The first briquetting 13 places in the larger cylindrical slot 46 of the first T-slot 44 lower width, and the lower surface of the upper surface of the first briquetting 13 and the first permanent magnetic iron block 14 is fitted, and the lower surface of the first briquetting 13 flushes with the lower surface of top disc flange 1; The quantity of the first unthreaded hole 3 on the first briquetting 13 is identical with the quantity of the first tapped hole 4 of the first T-slot 44 of top disc flange 1, the dead in line of the first tapped hole 4 of the first T-slot 44 of the axis of the first unthreaded hole 3 on the first briquetting 13 and top disc flange 1; When the threaded end of the first bolt 2 was passed the first unthreaded hole 3 and is screwed into the first tapped hole 4, the first bolts 2 and tightens, the first bolt 2 compressed the first briquetting 13; The first bolt hole 15 is uniform along a circumference of top disc flange 1, and the first bolt hole 15 is distributed in beyond the first T-slot 44; The lower surface of top disc flange 1 has the 5th T-slot 60, the five T-slots 60 to be comprised of the less cylindrical slot 61 of the upper width of the 5th T-slot 60 and the larger cylindrical slot 62 of lower width of the 5th T-slot 60; The shape of the cylindrical slot 61 that the shape of the 5th permanent magnetic iron block 56 and the upper width of the 5th T-slot 60 are less is identical, the cylindrical slot 61 that the upper width of the size of the 5th permanent magnetic iron block 56 and the 5th T-slot 60 is less measure-alike; The 5th permanent magnetic iron block 56 places in the less cylindrical slot 61 of the upper width of the 5th T-slot 60, the upper surface of the upper surface of the 5th permanent magnetic iron block 56 and the 5th T-slot 60 is fitted, and the upper surface of the cylindrical slot 61 that namely upper width of the upper surface of the 5th permanent magnetic iron block 56 and the 5th T-slot 60 is less is fitted; Two magnetic poles of the 5th permanent magnetic iron block 56 are respectively at up and down two end faces of annulus; The shape of the cylindrical slot 62 that the shape of the 5th briquetting 57 and the lower width of the 5th T shape groove 60 are larger is identical, the cylindrical slot 62 that the lower width of the size of the 5th briquetting 57 and the 5th T-slot 60 is larger measure-alike; The 3rd tapped hole 64 along the larger cylindrical slot 62 of the lower width of the 5th T-slot 60 a circumference uniform, at uniform the 3rd unthreaded hole 63 of a circumference of the 5th briquetting 57; The 5th briquetting 57 places in the larger cylindrical slot 62 of the lower width of the 5th T-slot 60, and the lower surface of the upper surface of the 5th briquetting 57 and the 5th permanent magnetic iron block 56 is fitted, and the lower surface of the 5th briquetting 57 flushes with the lower surface of top disc flange 1; The quantity of the 3rd unthreaded hole 63 is identical with the quantity of the 3rd tapped hole 64 of the 5th T-slot 60 of top disc flange 1 on the 5th briquetting 57, the dead in line of the 3rd tapped hole 64 of the 5th T-slot 60 of the axis of the 3rd unthreaded hole 63 and top disc flange 1 on the 5th briquetting 57; Pass the 3rd unthreaded hole 63 with bolt and be screwed into the 3rd tapped hole 64 and tighten, the 5th briquetting 57 can be compressed; The upper surface of lower disk flange 22 is connected without leaking with the lower end surface of oil hydraulic cylinder 19, disk 42 is connected without leaking with the upper-end surface of oil hydraulic cylinder 19, circular shaft 39 lower end surfaces are connected without leaking with lower disk flange 22, the upper-end surface of circular shaft 39 flushes with the upper-end surface of disk 42 and is connected without leaking, and lower disk flange 22 seals out one with oil hydraulic cylinder 19, disk 42 and circular shaft 39 and is full of the closed without leakage space of damp liquid 38; The second bolt hole 21 is uniform along circumference on the lower disk flange 22, and the second bolt hole 21 is distributed in oil hydraulic cylinder 19 outsides; Circular shaft 39 passes piston 23, the first spring 40 and the second spring 25; Piston 23 is positioned at oil hydraulic cylinder 19 middle parts; The lower end of the first spring 40 is connected with piston 23 upper surfaces, and the upper end of the first spring 40 is connected with the top of the cylndrical surface of circular shaft 39, and the distance that the upper-end surface of circular shaft 39 is left in the upper end of the first spring 40 is the thickness of disk 42; One end of the second spring 25 is connected with piston 23 lower surfaces, being connected bottom of the cylndrical surface of the other end of the second spring 25 and circular shaft 39; The smooth contact of lower surface of the upper end of hollow cylinder 37 and disk 42, the smooth contact of upper surface of the lower end of hollow cylinder 37 and lower disk flange 22; Rotor blade 18 is sector structure, the radius of rotor blade 18 1 sides equals the outer radius of hollow cylinder 37, and this side of rotor blade 18 is connected with the outer end of hollow cylinder 37, the radius of rotor blade 18 opposite sides is slightly less than the inside radius of oil hydraulic cylinder 19, concrete size is according to the cylinder design of routine, and this side of rotor blade 18 contacts with the inner wall smooth of oil hydraulic cylinder 19; The smooth contact of lower surface of the upper-end surface of rotor blade 18 and disk 42, the smooth contact of upper surface of the lower end surface of rotor blade 18 and lower disk flange 22; Stator blade 43 is sector structure, the radius of stator blade 43 1 sides equals the inside radius of oil hydraulic cylinder 19, and this side of stator blade 43 is connected with the inwall of oil hydraulic cylinder 19, the radius of stator blade 43 opposite sides is slightly less than the outer radius of hollow cylinder 37, concrete size is according to the cylinder design of routine, and this side and the hollow cylinder 37 of stator blade 43 are smoothly connected, the smooth contact of lower surface of the upper-end surface of stator blade 43 and disk 42, the smooth contact of upper surface of the lower end surface of stator blade 43 and lower disk flange 22; Rotor blade 18 is uniform at 19 li axis about hollow cylinder 37 of oil hydraulic cylinder, and stator blade 43 is uniform at 19 li axis about circular shaft 39 of oil hydraulic cylinder, and every rotor blade 18 is in the centre of two stator blades 43; During use, top disc flange 1 is fixed by bolts on the oscillating body by the first bolt hole 15 on it, lower disk flange 22 is fixed by bolts on the static basis by the second bolt hole 21 on it, and the distance of the upper surface of the lower surface of top disc flange 1 and disk 42 is greater than the maximum vibration displacement of oscillating body with respect to the basis; Or lower disk flange 22 is fixed by bolts on the oscillating body by the second bolt hole 21 on it, top disc flange 1 is fixed by bolts on the static basis by the first bolt hole 15 on it, and the distance of the upper surface of the lower surface of lower disk flange 22 and top disc flange 1 is greater than the maximum vibration displacement of oscillating body with respect to the basis; The dead in line of the axis of the 5th permanent magnetic iron block 56 and the 6th permanent magnetic iron block 58, the axis of the axis of the axis of the axis of top disc flange 1, lower disk flange 22, the axis of oil hydraulic cylinder 19, disk 42, the axis of piston 23, the first spring 40, the axis of the second spring 25 and the dead in line of circular shaft 39.
The first step: according to the vibration control requirement, selected top disc flange 1, the first briquetting 13, circular shaft 39, hollow cylinder 37, the first permanent magnetic iron blocks 14, disk 42, oil hydraulic cylinder 19, the second briquettings 35, rotor blade 18, the second permanent magnetic iron block 36, lower disk flange 22, stator blade 43, the first T-slots 44 and the second T-slot 47, the 5th briquetting 57, the first spring 40, the 5th permanent magnetic iron block 56, the six briquettings 59, piston 23, the 6th permanent magnetic iron block 58, the size of the second spring 25, the five T-slots, 60, the six T-slots 65 and circular hole 24; Selected silicone oil is as damp liquid 38; According to the vibration control requirement, selected the first bolt hole 15, the first unthreaded holes 3, the first tapped holes 4, the second bolt hole 21, the second unthreaded hole 33, the second tapped hole 32 and the first roundlet through hole 16, the first outside bolt 5, the first outside unthreaded holes 11, the three unthreaded holes 63, the 3rd tapped hole 64, quantity, position and the size of the 4th tapped hole 69, the second bolts hole, 21, the four unthreaded holes 68 and the second roundlet through hole 17.For example: after installing at damper, piston 23 is positioned at the installation requirement of the centre of oil hydraulic cylinder 19, after damper installs, piston 23 is in the equilibrium of forces state under the acting in conjunction of magnetic force and the first spring 40 and the second spring 25, determined the parameter of the first spring 40 and the second spring 25 by conventional Mechanics Calculation.When vibration was simple harmonic oscillation, the height of oil hydraulic cylinder 19 was not less than the twice of maximum vibration displacement of oscillating body and the thickness sum of piston 23.
Second step: circular shaft 39 passes the circular hole 24 of piston 23, one end of the first spring 40 is welded on piston 23 upper surfaces, the other end of the first spring 40 is welded on the top of the cylndrical surface of circular shaft 39, and the upper end of the first spring 40 is the thickness of disk 42 from the distance of the upper-end surface of circular shaft 39; One end of the second spring 25 is welded on piston 23 lower surfaces, and the cylndrical surface that the other end of the second spring 25 is welded on circular shaft 39 bottom; All must guarantee the axis of piston 23, the axis of the first spring 40, the axis of the second spring 25 and the dead in line of circular shaft 39 before and after the welding.Must guarantee the effect line of action of force of 40 pairs of pistons 23 of the first spring and the dead in line of piston 23 after the welding; The effect line of action of force of 25 pairs of pistons 23 of the second spring and the dead in line of piston 23.
The 3rd step: the 6th permanent magnetic iron block 58 is placed in the less cylindrical slot 66 of the lower width of the 6th T-slot 65 of piston 23, the arctic is down up in the magnetic pole South Pole of the 6th permanent magnetic iron block 58; The lower surface of the lower surface of the 6th permanent magnetic iron block 58 and the 6th T-slot 65 is fitted, and the lower surface of the cylindrical slot 66 that namely lower width of the lower surface of the 6th permanent magnetic iron block 58 and the 6th T-slot 65 is less is fitted; The 6th briquetting 59 is placed in the larger cylindrical slot 67 of the upper width of the 6th T-slot 65, and the upper surface of the lower surface of the 6th briquetting 59 and the 6th permanent magnetic iron block 58 is fitted, the upper surface flush of the upper surface of the 6th briquetting 59 and piston 23; Axial alignment (coincidence) with the 4th tapped hole 69 on the 6th T-slot 65 of the axis of the 4th unthreaded hole 68 on the 6th briquetting 59 and piston 23; Pass the 4th unthreaded hole 68 with bolt and be screwed into the 4th tapped hole 69 and tighten, the 6th briquetting 59 can be compressed.
The 4th step: the lower end surface of circular shaft 39 is welded on the upper surface of lower disk flange 22, all must guarantees the dead in line of axis and the circular shaft 39 of lower disk flange 22 before and after the welding.
The 5th step: the side that rotor blade 18 radiuses are less is welded on the outer side surface of hollow cylinder 37, and guarantee that 18 welding of two rotor blades are rear uniform about a cylindrical contour of hollow cylinder 37, two larger sides of stator blade 43 radiuses are welded on the inner side surface of oil hydraulic cylinder 19, and guarantee that rear two stator blades 43 of welding are uniform about an inner circle contour of oil hydraulic cylinder 19;
The 6th step: the second permanent magnetic iron block 36 is placed in the less cylindrical slot 48 of the lower width of the second T-slot 47 of rotor blade 18, the arctic is down up in the magnetic pole South Pole of the second permanent magnetic iron block 36; The lower surface of the lower surface of the second permanent magnetic iron block 36 and the second T-slot 47 is fitted, and the lower surface of the cylindrical slot 48 that namely lower width of the lower surface of the second permanent magnetic iron block 36 and the second T-slot 47 is less is fitted; The second briquetting 35 is placed in the larger cylindrical slot 49 of the upper width of the second T-slot 47, and the upper surface of the lower surface of the second briquetting 35 and the second permanent magnetic iron block 36 is fitted, the upper surface flush of the upper surface of the second briquetting 35 and rotor blade 18; Axial alignment (coincidence) with the second tapped hole 32 on the second T-slot 47 of the axis of the second unthreaded hole 33 on the second briquetting 35 and rotor blade 18, the threaded end of the second bolt 34 is passed the second unthreaded hole 33 to be screwed into the second tapped hole 32 and to tighten, when the second bolt 34 was tightened, the second bolt 34 compressed the second briquetting 35.
The 7th step: the hollow cylinder 37 that is welded with two rotor blades 18 the 6th step is enclosed within on the piston 23, and piston 23 contacts with the inner wall smooth of hollow cylinder 37; The oil hydraulic cylinder 19 that is welded with two stator blades 43 the 6th step is enclosed within on the hollow cylinder 37, with the lower end surface of oil hydraulic cylinder 19 and the upper surface welding of lower disk flange 22, all must guarantee the dead in line of axis and the oil hydraulic cylinder 19 of lower disk flange 22 after the welding, and guarantee that there is a slice rotor blade 18 centre of per two stator blades 43; One side of rotor blade 18 contacts with the inner wall smooth of oil hydraulic cylinder 19, the smooth contact of outer wall of a side of stator blade 43 and hollow cylinder 37;
The 8th step: the circle centre position at disk 42 bores circular hole a, and the diameter of circular hole a is a bit larger tham the diameter (welding conditions are got concrete numerical value routinely) of circular shaft 39, the dead in line of the axis of circular hole a and disk 42; Axis symmetry about disk 42 is bored small sircle hole b and small sircle hole c on disk 42 again, small sircle hole b and small sircle hole c axis separately equal half of radius sum of the inside radius of oil hydraulic cylinder 19 and circular hole a from the distance of the axis of disk 42, half inside radius less than oil hydraulic cylinder 19 of small sircle hole b and small sircle hole c deduct circular hole a radius numerical value 1/2nd.
The 9th step: the 9th step was passed in the top of circular shaft 39 bore among the circular hole a, the lower surface of disk 42 is placed on the upper-end surface of oil hydraulic cylinder 19, with the upper-end surface of oil hydraulic cylinder 19 and the lower surface welding of disk 42, again with the upper-end surface of circular shaft 39 and disk 42 the 6th the step institute circular hole a place of boring weld, weld front and back and all must guarantee the axis of oil hydraulic cylinder 19, the axis of disk 42, the dead in line of circular shaft 39.
The tenth step: use first funnel that silicone oil is filled with oil hydraulic cylinder 19 as damp liquid by the 9th step small sircle hole b that bores, after observing damp liquid and filled with oil hydraulic cylinder 19 by small sircle hole b and small sircle hole c, again with the 9th go on foot the small sircle hole b that bores and small sircle hole c weld and block.
The 11 step: the first permanent magnetic iron block 14 is placed in the less cylindrical slot 45 of the upper width of the first T-slot 44 of top disc flange 1, the arctic is down up in the magnetic pole South Pole of the first permanent magnetic iron block 14; The upper surface of the upper surface of the first permanent magnetic iron block 14 and the first T-slot 44 is fitted, and the upper surface of the cylindrical slot 45 that namely upper width of the upper surface of the first permanent magnetic iron block 14 and the first T-slot 44 is less is fitted; The first briquetting 13 is placed in the larger cylindrical slot 46 of the lower width of the first T-slot 44, and the lower surface of the upper surface of the first briquetting 13 and the first permanent magnetic iron block 14 is fitted, and the lower surface of the first briquetting 13 flushes with the lower surface of top disc flange 1; Axial alignment (coincidence) with axis with first tapped hole 4 of the first T-slot 44 of top disc flange 1 of the first unthreaded hole 3 on the first briquetting 13; The threaded end of the first bolt 2 is passed the first unthreaded hole 3 be screwed into the first tapped hole 4 and tighten, when the first bolt 2 was tightened, the first bolt 2 compressed the first briquetting 13.The 5th permanent magnetic iron block 56 is placed in the less cylindrical slot 61 of the upper width of the 5th T-slot 60 of top disc flange 1, the arctic is down up in the magnetic pole South Pole of the 5th permanent magnetic iron block 56; The upper surface of the upper surface of the 5th permanent magnetic iron block 56 and the 5th T-slot 60 is fitted, and the upper surface of the cylindrical slot 61 that namely upper width of the upper surface of the 5th permanent magnetic iron block 56 and the 5th T-slot 60 is less is fitted; The 5th briquetting 57 is placed in the larger cylindrical slot 62 of the lower width of the 5th T-slot 60, and the lower surface of the upper surface of the 5th briquetting 57 and the 5th permanent magnetic iron block 56 is fitted, and the lower surface of the 5th briquetting 57 flushes with the lower surface of top disc flange 1; Axial alignment with the 3rd tapped hole 64 of the 5th T-slot 60 of the axis of the 3rd unthreaded hole 63 on the 5th briquetting 57 and top disc flange 1; Pass the 3rd unthreaded hole 63 with bolt and be screwed into the 3rd tapped hole 64 and tighten, the 5th briquetting 57 can be compressed.
So far just can realize rotation and the moving fluid damper invention of axle of the second form.
Claims (7)
1. rotate and the moving fluid damper of axle, it is characterized in that: the moving fluid damper of this rotation and axle comprises separate up and down two-part, the moving fluid damper top of this rotation and axle is divided and is comprised: top disc flange (1), the first permanent magnetic iron block (14), the first briquetting (13), the 3rd permanent magnetic iron block (6), the 3rd briquetting (7); The first permanent magnetic iron block (14) is fixed in the top disc flange (1) by the first briquetting (13), and the 3rd permanent magnetic iron block (6) is fixed in the top disc flange (1) by the 3rd briquetting (7); The line of action of making a concerted effort of the suffered magnetic force of the 3rd permanent magnetic iron block (6) and the dead in line of circular shaft (39);
The moving fluid damper bottom of this rotation and axle is divided and is comprised: disk (42), the lower disk flange (22) that is oppositely arranged with disk (42), the oil hydraulic cylinder (19) that disk (42) is connected with the leakage of lower disk flange (22) nothing, lower disk flange (22), disk (42) and oil hydraulic cylinder (19) forming closed be without leakage space, and damp liquid (38) is full of that this is closed without leakage space;
The moving fluid damper bottom of this rotation and axle without also comprising rotor blade (18), circular shaft (39), hollow cylinder (37), stator blade (43), the second permanent magnetic iron block (36), the second briquetting (35), piston (23), the first spring (40), the second spring (25), the 4th permanent magnetic iron block (20), the 4th briquetting (41) in the leakage space, be provided with circular hole (24) at the circle centre position of piston (23); Circular shaft (39) passes the circular hole (24) of piston (23), and the lower end surface of circular shaft (39) is connected without leaking with lower disk flange (22), and the upper-end surface of circular shaft (39) flushes with the outer surface of disk (42) and is connected without leaking; The smooth contact of lower surface of the upper-end surface of hollow cylinder (37) and disk (42), the smooth contact of upper surface of the lower end surface of hollow cylinder (37) and lower disk flange (22); Rotor blade (18) one sides are connected with hollow cylinder (37), rotor blade (18) opposite side and smooth contact of oil hydraulic cylinder (19), the smooth contact of lower surface of the upper-end surface of rotor blade (18) and disk (42), the smooth contact of upper surface of the lower end surface of rotor blade (18) and lower disk flange (22); Stator blade (43) one sides are connected with oil hydraulic cylinder (19), the opposite side of stator blade (43) and smooth contact of hollow cylinder (37), the smooth contact of lower surface of the upper-end surface of stator blade (43) and disk (42), the smooth contact of upper surface of the lower end surface of stator blade (43) and lower disk flange (22); The second permanent magnetic iron block (36) is fixed in the rotor blade (18) by the second briquetting (35), when the first little round tube hole (16) distributes along the short transverse of rotor blade (18), and when rotor blade (18) rotates, the suffered reduction of force system of rotor blade (18) is upper when some to hollow cylinder (37), rotor blade (18) the main line of action of vowing of stressed system and the dead in line of hollow cylinder (37), rotor blade (18) the acting surface of main square of stressed system vertical with the axis of hollow cylinder (37); Piston (23) is along hollow cylinder (37) axial motion, the side of piston (23) and smooth contact of hollow cylinder (37), piston (23) places the middle part of hollow cylinder (37) by the first spring (40) and the second spring (25), wherein the lower end of the first spring (40) is connected with piston (23) upper surface, the upper end of the first spring (40) is connected with the top of circular shaft (39), one end of the second spring (25) is connected with piston (23) lower surface, and the other end of the second spring (25) is connected bottom with circular shaft (39); The 4th permanent magnetic iron block (20) is fixed in the piston (23) by the 4th briquetting (41), have the second little round tube hole (17) on the piston (23), and the line of action of making a concerted effort of the damping force that when damp liquid (38) flows through the second little round tube hole (17), produces and the dead in line of circular shaft (39).
2. rotation according to claim 1 and axle move fluid damper, it is characterized in that: rotor blade (18) and stator blade (43) all are sector structure, the inside radius of rotor blade (18) equals the outer radius of hollow cylinder (37), the outer radius of stator blade (43) equals the inside radius of oil hydraulic cylinder (19), rotor blade (18) is uniform at the inner cylindrical contour about hollow cylinder (37) of oil hydraulic cylinder (19), stator blade (22) is uniform at the inner inner circle contour about oil hydraulic cylinder (19) of oil hydraulic cylinder (19), and every rotor blade (18) is in the centre of two stator blades (43).
3. rotation according to claim 1 and axle move fluid damper, and it is characterized in that: the distance that the upper-end surface of circular shaft (39) is left in the upper end of the first spring (40) is the thickness of disk (42).
4. the moving fluid damper of rotation according to claim 1 and axle is characterized in that: the axis of the axis of the axis of top disc flange (1), disk (42), the axis of oil hydraulic cylinder (19), lower disk flange (22), the axis of hollow cylinder (37) and the axis of piston (23) and the dead in line of circular shaft (39); The first spring (40) is to the dead in line of effect line of action of force and the piston (23) of piston (23); The second spring (25) is to the dead in line of effect line of action of force and the piston (23) of piston (23); The line of action of making a concerted effort of the suffered magnetic force of the 3rd permanent magnetic iron block (6) and the dead in line of circular shaft (39); The line of action of making a concerted effort of the suffered magnetic force of the 4th permanent magnetic iron block (20) and the dead in line of circular shaft (39); The suffered reduction of force system of the first permanent magnetic iron block (14) is upper when some to hollow cylinder (37), the first permanent magnetic iron block (14) the main line of action of vowing of stressed system and the dead in line of hollow cylinder (37), the first permanent magnetic iron block (14) the acting surface of main square of stressed system vertical with the axis of hollow cylinder (37); The suffered reduction of force system of the second permanent magnetic iron block (36) is upper when some to hollow cylinder (37), the second permanent magnetic iron block (36) the main line of action of vowing of stressed system and the dead in line of hollow cylinder (37), the second permanent magnetic iron block (36) the acting surface of main square of stressed system vertical with the axis of hollow cylinder (37).
5. rotation according to claim 1 and axle move fluid damper, and it is characterized in that: the shape of the shape of the shape of the 3rd permanent magnetic iron block (6), the 3rd briquetting (7), the shape of the 4th permanent magnetic iron block (20) and the 4th briquetting (41) is ring or column.
6. according to claim 1, the moving fluid damper of 2,3,4 or 5 described rotations and axle, it is characterized in that: when keeping described rotation and axle to move the annexation of each parts of fluid damper and position relationship, when the shape of the shape of the shape of the shape of the 3rd permanent magnetic iron block (6), the 3rd briquetting (7), the 4th permanent magnetic iron block (20), the 4th briquetting (41) is ring, can obtain rotating the first form of moving fluid damper with axle; When the shape of the shape of the shape of the shape of the 3rd permanent magnetic iron block (6), the 3rd briquetting (7), the 4th permanent magnetic iron block (20), the 4th briquetting (41) is column, namely use the 5th permanent magnetic iron block (56) to replace the 3rd permanent magnetic iron block (6), replace the 3rd briquetting (7) with the 5th briquetting (57), replace the 4th permanent magnetic iron block (20) with the 6th permanent magnetic iron block (58), behind the 6th briquetting (59) replacement the 4th briquetting (41), obtain the utility model and rotate the second form of moving fluid damper with axle; The line of action of making a concerted effort of the suffered magnetic force of the 5th permanent magnetic iron block (56) and the dead in line of circular shaft (39); The line of action of making a concerted effort of the suffered magnetic force of the 6th permanent magnetic iron block (58) and the dead in line of circular shaft (39).
7. described rotation and axle move fluid damper according to claim 1, it is characterized in that: the distribution of the first little round tube hole (16) also has following dual mode: a: the first little round tube hole (16) only distributes b along the short transverse of stator blade (43): the first little round tube hole (16) distributes along the short transverse of rotor blade (18) with stator blade (43) simultaneously.
Priority Applications (1)
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CN 201220055049 CN202707895U (en) | 2012-02-20 | 2012-02-20 | Rotating and shaft-driving fluid damper |
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CN 201220055049 CN202707895U (en) | 2012-02-20 | 2012-02-20 | Rotating and shaft-driving fluid damper |
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CN 201220055049 Withdrawn - After Issue CN202707895U (en) | 2012-02-20 | 2012-02-20 | Rotating and shaft-driving fluid damper |
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Cited By (2)
Publication number | Priority date | Publication date | Assignee | Title |
---|---|---|---|---|
CN102588491A (en) * | 2012-02-20 | 2012-07-18 | 东南大学 | Rotating and shaft driving fluid damper |
CN112145172A (en) * | 2020-09-26 | 2020-12-29 | 倪国明 | Mining drilling machine vibration filtering device based on intelligent manufacturing concept |
-
2012
- 2012-02-20 CN CN 201220055049 patent/CN202707895U/en not_active Withdrawn - After Issue
Cited By (4)
Publication number | Priority date | Publication date | Assignee | Title |
---|---|---|---|---|
CN102588491A (en) * | 2012-02-20 | 2012-07-18 | 东南大学 | Rotating and shaft driving fluid damper |
CN102588491B (en) * | 2012-02-20 | 2013-09-18 | 东南大学 | Rotating and shaft driving fluid damper |
CN112145172A (en) * | 2020-09-26 | 2020-12-29 | 倪国明 | Mining drilling machine vibration filtering device based on intelligent manufacturing concept |
CN112145172B (en) * | 2020-09-26 | 2021-09-10 | 山东微山湖稀土有限公司 | Mining drilling machine filtering and vibrating device |
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