Magnet vibration damper
A shock absorber and magnet technology, applied in the direction of spring/shock absorber, magnetic spring, spring, etc., can solve problems such as inability to control vibration in real time online, harmful mechanical vibration, etc., and achieve better effect and better vibration reduction effect
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Embodiment 1
[0019] Embodiment 1. The magnetic shock absorber of this embodiment, its structural diagram can be obtained from image 3 and Figure 4 See in, it contains inner core 1, outer bladder 2, magnet 3, fixed plate 4 and the adjustable magnetic flux magnet device that is installed on outer bladder 2 bottom surfaces.
[0020] When in use, the inner core 1 is fixed on the object to be damped, and the outer bladder 2 is fixed on the foundation. The magnets 3 on the front, back, left, right, and bottom sides of the inner core 1 are directly fixed by screws, and the magnets 3 on the outer tank 2 are first fixed on a fixed plate 4, and the inner core 1 is put into the outer tank 2. The inner core 1 and the outer tank 2 are connected with bolts and nuts, and then the fixed plate 4 with the magnet 3 is fixed on the front, rear, left, right and bottom surfaces of the outer tank 2 by screws, and its positions correspond to the positions on the inner core 1. face magnet. After installation,...
Embodiment 2
[0025] Embodiment 2. The magnetic shock absorber of this embodiment, its structural diagram can be obtained from Figure 5 Seen in, it differs from Embodiment 1 in that: the magnet 3 on the bottom surface of the outer bladder 2 is replaced with a DC electromagnet 9, and a gravity sensor 10 is installed on the inner core 1. The vibration frequency of the object to be damped can transmit the vibration signal to the microcomputer through the gravity sensor 10, and the microcomputer immediately adjusts the magnetic flux of the DC electromagnet 9 to change the repulsive force between the DC electromagnet 9 and the magnet 3 to reduce vibration. Real-time control, relatively speaking, can reduce the vibration frequency to zero, so that the vibration reduction can achieve the best effect.
Embodiment 3
[0026] Embodiment 3. A damping unit of the present embodiment series magnet shock absorber, its structural diagram can be from Figure 6 It can be seen from the above that it is different from Embodiment 1 and Embodiment 2 in that: the outer bladder 2 of the magnet damper in Embodiment 2 is made into an I-shaped shape, and the inside is a through hole, and the upper end is put into the upper inner core 1a, The lower end is put into the lower inner core 1b, and a set of magnets is added to the four sides of the outer tank 2, that is, a total of 8 pairs of magnets are installed on the outer tank 2, the DC electromagnet 9 is installed in the middle of the outer tank 2, and the gravity sensor 10 is placed on the upper inner core 1a. , at this time a vibration damping unit that can be connected in series can be formed. It can be used alone. When in use, the upper inner core 1a of this unit is fixed on the object to be damped, and the lower inner core 1b is fixed on the foundation. ...
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