TWM639013U - Power output saver - Google Patents

Abstract

A power output economizer, which is a labor economizer, includes a circular swivel body and a round body support frame; when the rotating output end of a power source is connected to the power connection part of the circular swivel body, the rotation is output from the output connection part When power is given to a load, the circular rotating body is suspended and supported by the circular support frame, so that when the power source drives the gravity circular body to rotate, the gravity circular body can be free from friction and contact with the bearing frame In the form of the round support frame, there is no wear and tear on the rotating motion, and when the gravity round body rotates at high speed, the gravity inertia effect generated by it can make the power source drive the load with lower energy consumption, achieving labor saving or energy saving benefits.

Description

power saver

This invention relates to a gravity circular body that does not wear and rotate, and can enable a power source to drive a load with relatively low energy consumption.

Press, most of the energy sources such as electric power, water power, wind power and fire power are converted or rotated shaft power output to the load. Taking the electric power consumed by the motor to drive the load as an example, if there is an instantaneous high-low load and high-frequency change at the load end, the high-frequency instantaneous counter electromotive force will increase (heat), and consume more electric energy; moreover, water power, wind power and other energy sources It is not easy to convert into steady-state rotational power (differences in torque or rotational speed). Even if the load end is in a stable load state, the unsteady rotational power will be due to the difference in power output energy, so that energy efficiency cannot be fully utilized. If the rotary power output can resist the height change of the load, or the unstable rotary power can be stored and output, the above problems should be improved, and the energy efficiency can be improved.

The main purpose of this creation is to provide a power output power saver, which is a power saver, including:

A circular swivel part, tied at the center of both ends of a cylindrical gravity body, is respectively provided with a power connection part and an output connection part, and the circumferential surface of the gravity body at the end of the power connection part and the output connection part is respectively provided with There is a set of first magnets, the radially outer surface end of the set of first magnets The magnetic pole is either the south pole (S pole) or the north pole (N pole);

A round support frame, which is provided with a pair of bearing frames relative to the positions of the first magnets at the two ends of the gravity circle, and the pair of bearing frames are respectively matched with the outer diameter of the gravity circle, each forming a larger aperture The nested circular hole, the nested circular hole frame is set on the periphery of the group of first magnets, a group of second magnets are arranged on the wall of the hole, and the magnetic poles of the radial inner surface end of the group of second magnets are aligned with the group of first magnets. A magnet with the same pole repelling each other enables the pair of bearing frames to suspend and support the two ends of the gravity circle;

When the rotating output end of a power source is connected to the power connecting part of the circular rotating body, and when the rotating power is output from the output connecting part to a load, the circular rotating body is suspended and supported by the circular support frame, When the power source drives the gravity circle to rotate, the gravity circle can rotate on the circle support frame without friction and contact with the bearing frame, and the gravity circle rotates at a high speed Among them, the gravitational inertia generated by it can enable the power source to drive the load with lower energy consumption, achieving labor-saving or energy-saving benefits.

The second purpose of this creation is to provide a power output power saver, wherein a ring groove is formed on the circumferential surface at both ends of the gravity circle, and the first magnets of this group are composed of a plurality of magnet blocks, and are arranged and fixed on the In the ring groove; the group of second magnets on the nested round hole of the pair of bearing frames are each composed of a plurality of magnet blocks, and are arranged and fixed on the hole wall of the nested round hole, and on the ring The repulsive magnetic force is formed with the group of first magnets in the groove; the group of second magnets is limited in the ring groove, matching the group of first magnets, so that the two ends of the gravity circle are supported by the pair of bearing frames Support, can obtain the positioning effect of preventing axial detachment.

Another purpose of this creation is to provide a power output power saver, wherein, at least one of the two axial sides of the pair of bearing frames facing each other or/not facing each other is respectively provided with a group of third magnets, and the group of third magnets The magnetic pole on the axial outer surface of the magnet is the south pole (S pole) Or any pole in the north pole (N pole); the two ends of the gravity circle are respectively provided with a magnet installation end face relative to the third magnet of the group, and the magnet installation end face is corresponding to the third magnet of the group, and a group of the third magnets is provided. Four magnets, the axially outer surface end magnetic poles of the group of fourth magnets are the same poles that repel each other with the third magnets of the group; the two ends of the gravitational circle have axial and opposite repelling magnetic forces to each other Containment and balance, so that the gravity circle can be limited to rotate on the pair of bearing frames without contacting the pair of bearing frames in the form of not axially retreating; and the above-mentioned group of third magnets and the group of magnets The fourth magnets are composed of a plurality of magnet columns or/magnet blocks, and are arranged and fixed respectively on one side of the bearing frame and the end surface of the magnet installation in a manner that the magnetic poles repel each other, so that the end surface of the magnet installation does not Exposure to the effect of the hosting box.

Another purpose of this creation is to provide a power output power saver, wherein the pair of bearing frames are respectively connected by a pair of half-frames to form the sleeved round hole, and the radially outer edges of the two butt joints of the pair of half-frames Each set of butt fittings is provided to limit the separation of the pair of half-frames, so that the pair of half-frames can be released from the two sets of butt joints, which facilitates the installation or removal of the circular swivel on the circular support frame; And the two butt joints of the above-mentioned pair of half-frame bodies are respectively a set of hinge-type butt joints and a lug lock screw-type another set of butt joints, which can be released by using the set of lug lock screw-type butt joints. One place of the pair of half-frames is docked so that the pair of half-frames can be installed or disassembled in the form of unfolding a joint.

Another purpose of this creation is to provide a power output power saver, wherein, the output connecting part of the circular rotating body is connected with a clutch, and the clutch outputs rotational power through a power output end; when the power source drives the gravity When the circular body rotates initially, the power output end of the clutch is selected not to output rotational power to the load, so that the power source can drive the gravity circular body to start rotating without bearing the load; and the above-mentioned clutch is composed of A controller controls its The power output timing of the power output end, and the controller detects the rotation speed of the gravity circle through a speed detector, so that when the gravity circle reaches a predetermined high speed, the controller can automatically control the clutch. The power output terminal outputs power, otherwise, when the predetermined high speed is not reached, the power output terminal output power is suspended.

10: Labor saver

20: Round swivel pieces

21: Gravity circle

210: ring groove

211: Magnet installation end face

22: Power connection part

23: Output connection part

24: First magnet

25: Fourth magnet

30: round support frame

31: Bearing frame

31A, 31B: half frame

32: Set round hole

33: Second magnet

34: The third magnet

35A, 35B: Butt joint

40: power source

50: load

60: Clutch

61: Power output terminal

70: Controller

71: Speed detector

Figure 1 is a three-dimensional view of the appearance of this creative combination

Figure 2 is the three-dimensional view of the state before and after the installation of the circular swivel body of this creation

Figure 3 is a three-dimensional exploded view of the round support frame of this creation

Fig. 4 is the exploded schematic diagram of the first magnet of the circular swivel part of this creation

Figure 5 is the plan view of the section structure of this creation

Figure 6 is another section structure plan view of this creation

Figure 7 is an example diagram of the state of use of this creation

Fig. 8 is another usage state embodiment figure of this creation

In order to achieve the above-mentioned purpose, the present work specially cites preferred embodiments, and cooperates with the attached drawings, which are described in detail as follows:

A power saver for power output, as shown in Figures 1 to 6, is a power saver 10, including:

A circular swivel part 20 is tied to the center of both ends of a cylindrical non-magnetic (such as 304 or 316 stainless steel) gravity circle 21, and is respectively provided with a power connection part 22 (which can be a rotating shaft or a shaft hole) and an output connection part 23 (can be a rotating shaft or a shaft hole), and the circumferential surface of the gravity circle 21 at the end of the power connection part 22 and the output connection part 23 is respectively provided with a group of first magnets 2 4. The magnetic pole of the radially outer surface end of the group of first magnets 24 is any pole in the south pole (S pole) or the north pole (N pole);

A round support frame 30, it is provided with a pair of non-magnetic (as 304 or 316 stainless steel) bearing frames 31 relative to the position of the group of first magnets 24 at the two ends of the gravity circle 21, and the pair of bearing frames 31 are respectively matched with the The outer diameter of the gravity circle 21 is each formed with a nested circular hole 32 with a larger aperture. The nested circular hole 32 is framed on the periphery of the group of first magnets 24, and a group of second magnets are arranged on the hole wall. 33. The magnetic poles on the radially inner surface of the group of second magnets 33 are the same poles that repel each other with the group of first magnets 24, so that the pair of bearing frames 31 are suspended to support the two ends of the gravity circle 21;

As shown in Figures 5, 6 and 7, when the rotating output end of a power source 40 is connected to the power connecting part 22 of the circular rotating body part 20, and the rotating power is output from the output connecting part 23 to a load 50 (not shown). , the circular swivel member 20 is suspended and supported by the circular body support frame 30, so that when the power source 40 drives the gravity circular body 21 to rotate, the gravity circular body 21 can be free from friction and contact with the bearing The form of the frame 31 does not wear and rotate on the circular support frame 30, and the gravity circular body 21 rotates at a high speed, and the gravity inertia effect generated by it can make the power source 40 drive with lower energy consumption. The load 50 achieves labor saving or energy saving benefits.

According to the above embodiment, as shown in Figures 2 to 6, a ring groove 210 is formed on the circumferential surface at both ends of the gravitational body 21, and the first magnet 24 of the group is composed of a plurality of magnet blocks, and is arranged and fixed on the surface. In the ring groove 210; the set of second magnets 33 on the nested round hole 32 of the pair of bearing frames 31 are each composed of a plurality of magnet blocks, and are sorted and fixed on the hole wall of the nested round hole 32, And in the ring groove 210 and the group of first magnets 24 form a repelling magnetic force; by the group of second magnets 33 being limited in the ring groove 210, matching the group of first magnets Iron 24, so that the two ends of the gravity circle 21 are supported by the pair of bearing frames 31, the positioning effect of preventing axial separation can be obtained.

According to the above-mentioned embodiment, as shown in Fig. 2, 3, 4, 6, wherein, at least one side surface of the pair of bearing frames 31 is provided with a group of third magnets 34 facing each other or/not facing each other in the axial direction. The magnetic pole of the axially outer surface end of the third magnet 34 is any pole in the south pole (S pole) or the north pole (N pole); End face 211, corresponding to this group of third magnets 34 on this magnet installation end face 211, be provided with a group of fourth magnets 25, the magnetic pole of the axially outer surface end of this group of fourth magnets 25, for phase with this group of third magnets 34 The same poles of repulsion; by the two ends of the gravity circle 21, there are axial and opposite repelling magnetic forces to check and balance each other, so that the gravity circle 21 can not touch the pair of bearing frames 31 state, the ones that do not withdraw axially are limited to the pair of bearing frames 31 for rotational movement; ), and are arranged and fixed on one side of the bearing frame 31 and the magnet installation end surface 211 respectively in a magnetic pole repelling manner, so as to achieve the effect that the magnet installation end surface 211 does not touch the bearing frame 31.

According to the above-mentioned embodiment, as shown in Figures 2, 3, and 5, the pair of bearing frames 31 are respectively connected by a pair of half-frame bodies 31A, 31B to form the sleeved round hole 32, and the two sides of the pair of half-frame bodies 31A, 31B A group of butt joints 35A, 35B are respectively provided on the radially outer edge of the butt joint to limit the separation of the pair of half frames 31A, 31B, as shown in Figures 1 and 2, so that the pair of half frames can be released by the two sets of butt joints 35A, 35B. The docking combination of 31A, 31B is beneficial to the installation or disassembly of the circular swivel member 20 on the circular body support frame 30; as shown in Figures 2, 3, 5, and the mutual two butt joints of the above-mentioned pair of half frame bodies 31A, 31B, The set of butt joints, each of which is a hinge 35A and another group of butt joints 35B of a lug lock screw type, the butt joint of the pair of half frame bodies 31A, 31B can be released by using the group of butt joint members 35B of the lug lock screw type, so that the pair of half frames The frame bodies 31A and 31B can be mounted or dismounted in the form of swinging and unfolding a joint.

According to the above-mentioned embodiment, as shown in Fig. 8, wherein, the output connection portion 23 of the circular swivel body part 20 is connected with a clutch 60, and the clutch 60 outputs rotational power with a power output end 61; when the power source 40 drives the gravity When the circular body 21 initially rotates, the clutch 60 selects its power output end 61 not to output rotational power to the load 50, so that the power source 40 can drive the gravity circular body 21 to start rotating without bearing the load of the load 50 , reduce the initial rotational resistance; and the above-mentioned clutch 60 is an electronically controlled clutch, and a controller 70 controls the power output timing of its power output terminal 61, and the controller 70 detects the gravity through a speed detector 71 The rotating speed of the circular body 21 is such that when the gravity circular body 21 reaches a predetermined high rotational speed, the controller 70 can automatically control the power output end 61 of the clutch 60 to output power; The power output port 61 outputs power.

The above description is only illustrative, rather than restrictive, for this creation. Those of ordinary skill in the art understand that many modifications, changes, or the like can be made without departing from the spirit and scope of the attached description. However, they will all fall within the scope of protection of this creation.

10: Labor saver

20: Round swivel pieces

21: Gravity circle

210: ring groove

211: Magnet installation end face

22: Power connection part

23: Output connection part

24: First magnet

25: Fourth magnet

30: round support frame

31: Bearing frame

31A, 31B: half frame

32: Set round hole

33: Second magnet

34: The third magnet

35A, 35B: Butt joint

Claims (8)

A power output power saver, which is a power saver, includes: a circular swivel part, which is tied to the center of the two ends of a cylindrical gravity circle, and is respectively provided with a power connection part and an output connection part, and the power connection part and the The circumferential surface of the gravity circle at the end of the output connection part is respectively provided with a group of first magnets, and the magnetic pole of the radially outer surface end of the group of first magnets is either the south pole (S pole) or the north pole (N pole); A round support frame, which is provided with a pair of bearing frames relative to the positions of the first magnets at the two ends of the gravity circle, and the pair of bearing frames are respectively matched with the outer diameter of the gravity circle, each forming a larger aperture The nested circular hole, the nested circular hole frame is set on the periphery of the group of first magnets, a group of second magnets are arranged on the wall of the hole, and the magnetic poles of the radial inner surface end of the group of second magnets are aligned with the group of first magnets. The same polarities of a magnet repelling each other enable the pair of bearing frames to suspend and support the two ends of the gravity circle. The power output power saver as described in Claim 1, wherein a ring groove is formed on the circumferential surface at both ends of the gravity circle, and the first magnet group is composed of a plurality of magnet blocks, which are arranged and fixed in the ring groove In the slot; the group of second magnets on the nested round hole of the pair of bearing frames are each composed of a plurality of magnet blocks, and are sorted and fixed on the hole wall of the nested round hole, and in the ring groove Form a repulsive magnetic force with the group of first magnets. The power output power saver as described in Claim 1, wherein, on the two axial sides of the pair of bearing frames, at least one side faces each other or/does not face each other and is respectively provided with a group of third magnets, and the axis of the group of third magnets The magnetic pole on the outer surface is any pole in the south pole (S pole) or the north pole (N pole); the two ends of the gravity circle are respectively provided with a magnet installation end surface relative to the third magnet of the group, and the magnet installation end surface Corresponding to the group of third magnets, a group of fourth magnets is provided, and the magnetic poles of the axially outer surface ends of the group of fourth magnets are the same poles that repel the group of third magnets. The power saver as described in claim 3, wherein the set of third magnets and the group of fourth magnets are all composed of a plurality of magnet columns or/magnet blocks, and are arranged and fixed respectively on one side of the bearing frame and the end surface of the magnet installation in the manner that the magnetic poles repel each other. The power output labor saver as described in claim 1, wherein, the pair of bearing frames are respectively connected by a pair of half frames to form the nested round hole, and the radial outer edges of the two butt joints of the pair of half frames are each provided with a A set of butt joints limits separation of the frame halves. The power output power saver as described in Claim 5, wherein the two butt joints of the pair of half frames are respectively a set of hinged joints and a lug lock screw type another set of joints. The power output power saver as described in Claim 1, wherein a clutch is connected to the output connecting portion of the circular swivel body, and the clutch outputs rotational power through a power output end. The power saver as described in Claim 7, wherein the power output timing of the clutch is controlled by a controller, and the controller detects the rotation speed of the gravity circle through a rotation speed detector.

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