WO2024250543A1 - Carry-type shock-absorbing device for measuring startup value of electronic oscillator - Google Patents

Abstract

A carry-type shock-absorbing device for measuring a startup value of an electronic oscillator, comprising a shock-absorbing mechanism, the shock-absorbing mechanism being provided with a fixing assembly and a sound insulation component; the shock-absorbing mechanism comprises a mounting block, two first sliding blocks and a control panel, an upper surface of the mounting block being provided with a first clearance groove; multiple first round rods in a rectangular array are fixed on an inner bottom surface of the first clearance groove, and two groups of first round rods each penetrate a first slider on a same side and slide together, the first round rods being sleeved with damping springs, and two ends of a damping spring being fixed to an inner bottom surface of the mounting block and a corresponding first sliding block, respectively. By means of the described arrangement, the vibration generated by the oscillator when it is operating can be effectively reduced, to prevent the oscillator from being separated from a measuring device.

Description

A carry-type damping device for measuring the vibration value of an electronic oscillator Technical Field

The invention belongs to the technical field of oscillators, and in particular relates to a carry-type damping device for measuring the starting value of an electronic oscillator.

Background Art

An oscillator is an electronic component used to generate repetitive electronic signals (usually sine waves or square waves). The circuit it forms is called an oscillation circuit, which is an electronic circuit or device that can convert direct current into an alternating current signal with a certain frequency. There are many types of oscillators. According to the oscillation excitation method, they can be divided into self-excited oscillators and externally excited oscillators. According to the circuit structure, they can be divided into RC oscillators, LC oscillators, crystal oscillators and tuning fork oscillators. According to the output waveform, they can be divided into sine wave, square wave and sawtooth wave oscillators. They are mainly suitable for oscillation cultivation of various liquid or solid compounds such as biology, biochemistry, cells and bacteria in universities, colleges, medical, petrochemical, health and epidemic prevention and environmental monitoring and other scientific research departments. In the production process of oscillators, the oscillator start-up value is usually measured to detect whether the oscillator meets the standard. In the existing measurement process, the oscillator will be in the on state, so it will produce violent vibrations. Strong vibrations will cause the measuring equipment to fall off from the oscillator, which is not conducive to the normal measurement work.

In view of this, the utility model designs a carry-type damping device for measuring the vibration value of an electronic oscillator to solve the above problem.

Technical issues

The purpose of the present invention is to provide a carry-type shock absorbing device for measuring the vibration value of an electronic oscillator, and to solve the problems raised in the above-mentioned background technology through the design of a shock absorbing mechanism and a fixing component.

Technical Solutions

To achieve the above-mentioned purpose, the present invention provides the following technical solutions: a carry-type damping device for measuring the vibration value of an electronic oscillator, comprising an electronic oscillator body, a plurality of support columns are fixed at the bottom of the electronic oscillator body, and the plurality of support columns are in a rectangular array, and also comprises a damping mechanism, and a fixing component and a sound insulation component are provided on the damping mechanism;

The shock absorbing mechanism comprises a mounting block and two first sliding blocks, the upper surface of the mounting block is provided with a first giving way groove, a plurality of first round rods are fixed to the inner bottom surface of the first giving way groove and the plurality of first round rods are in a rectangular array, the two first sliding blocks are respectively arranged corresponding to the first round rods on both sides, two groups of the first round rods respectively penetrate the first sliding blocks on the same side and each group of the first round rods respectively slides with the corresponding first sliding blocks, a shock absorbing spring is sleeved on the circumferential side surface of the first round rod, the two ends of the shock absorbing spring are respectively fixed to the inner bottom surface of the mounting block and the corresponding first sliding block, a control panel is fixed to the upper surface of the mounting block, two first L-shaped blocks are fixed to one side of the mounting block, and two connecting columns are fixed to the other side of the mounting block;

The fixing assembly comprises two second sliders and two groups of third sliders, two sliding rods are symmetrically fixed between the two first sliders, a first screw rod is rotatably connected between the two first sliders, the first screw rod is located between the two sliders, a mounting plate is fixed to one side of the first slider, a motor is mounted on the mounting plate, the two sliding rods and the first screw rod respectively penetrate the two second sliders, the sliding rod is slidably matched with the second slider, the first screw rod is threadedly connected to the second slider, the two second sliders are symmetrically arranged, two groups of second L-shaped blocks and a third L-shaped block are fixed on the upper surface of the second slider, and the two groups of second L-shaped blocks are symmetrical about the third L-shaped block It is arranged that the third L-shaped block is rotatably connected with a second screw rod, one end of the second screw rod is fixed with a hand wheel, both ends of the second screw rod respectively pass through a group of third sliders and the two third sliders are symmetrically arranged, the second screw rod is respectively threadedly connected with the two third sliders, and the bottom end of the third slider is provided with two T-shaped grooves at positions corresponding to the two second L-shaped blocks on the same side, the second L-shaped block is located in the corresponding T-shaped grooves and the second L-shaped block is slidably matched with the third slider corresponding to the T-shaped groove, the two groups of the third sliders are arranged corresponding to a number of support columns, a U-shaped groove is provided at a side of the third slider corresponding to the position of the support column and the support column is located in the corresponding U-shaped groove;

The sound insulation component includes a sound insulation cover and two second round rods. A fourth make way groove is provided on the sound insulation cover. A receiving groove is provided on the inner wall of the fourth make way groove. Sound insulation glass is installed in the receiving groove and the sound insulation glass is double-layered. Two first fixing blocks are fixed at positions corresponding to the two first L-shaped blocks on one side of the sound insulation cover. The two first L-shaped blocks correspond to the two first fixing blocks one by one, and the corresponding first L-shaped blocks are rotatably connected to the first fixing blocks through a rotating shaft. Two second fixing blocks are fixed at positions corresponding to the two connecting columns on the other side of the sound insulation cover. The two second round rods penetrate the two second fixing blocks respectively, and the second round rod is threadedly connected to the corresponding second fixing block. One end of the second round rod penetrates the corresponding connecting column and the second round rod is threadedly connected to the connecting column. A knob is fixed to one end of the second round rod.

The plan needs to explain:

The shock absorbing spring and the motor are common components in the prior art, and the models used can be customized according to actual use requirements;

As a preferred embodiment, a second clearance groove is opened on the upper surface of the mounting block, the second clearance groove is located at the edge of the first clearance groove, a first gasket is arranged in the second clearance groove, and the sound insulation cover is fitted with the first gasket.

As a preferred embodiment, two guide blocks are fixed on the relative inner wall of the first give way groove, and the two guide blocks on both sides are symmetrically arranged, the two first round rods on the same side are located between the two guide blocks, and the two guide blocks and the two first round rods on the same side are located on the same straight line, and sliding grooves are opened at both ends of the first slider corresponding to the positions of the two guide blocks, the guide blocks are located in the corresponding sliding grooves, and the guide blocks are slidably matched with the first slider.

As a preferred embodiment, a first stopper is fixed to the top of the first round rod, two third clearance grooves are formed on the upper surface of the first sliding block at positions corresponding to the two first stoppers on the same side, and the first stopper is located in the corresponding third clearance grooves.

As a preferred implementation, a battery is provided in the mounting block, and the battery provides operating voltage for the control panel and the motor respectively.

As a preferred embodiment, two second stops are fixed to the side surface of the second screw rod, the two second stops are respectively located on both sides of the two third L-shaped blocks and the two second stops are respectively fitted with the third L-shaped blocks, and a limiting block is fixed to the other end of the second screw rod.

As a preferred implementation, a second gasket is provided on the upper surface of the third slider, and the second gasket is fitted with the bottom of the electronic oscillator body.

As a preferred implementation, two third washers are provided in the receiving groove, and the two third washers are respectively located on both sides of the soundproof glass and are in contact with the soundproof glass.

As a preferred implementation, a third stopper is fixed to the circumferential side surface of the second round rod, the third stopper is located between the connecting column and the second fixing block, and a plurality of reinforcing ribs are fixed to the inner wall of the soundproof glass.

Beneficial Effects

Compared with the prior art, the present invention provides a carry-type damping device for measuring the starting value of an electronic oscillator, which has at least the following beneficial effects:

(1) The present invention provides a shock absorbing mechanism and a fixing assembly, and the user can control the motor to start through the control panel. The motor drives the two second sliders to move closer to each other along the slider through the first screw rod, so that the distance between the two sets of third sliders is slightly smaller than the maximum spacing between the two support columns. The electronic oscillator body is placed on a plurality of third sliders, and then the two hand wheels are rotated in succession, and the two third sliders thereon are driven to move closer to or away from each other along the second L-shaped block through the second screw rod, so that the spacing between the two U-shaped grooves on the same side is equal to the minimum spacing between the two support columns. Then the motor is started, so that the two second sliders move closer to or away from each other along the second L-shaped block under the action of the first screw rod. The two sliders are close to each other and the support columns at the bottom of the electronic oscillator body are limited from both sides to complete the fixation of the electronic oscillator body. The device can fix oscillators of different models with support columns and has strong applicability. The electronic oscillator body is started and will vibrate violently when working. The vibration will be transmitted to the two first sliders through the second slider and the third slider. After the first slider is vibrated, the shock-absorbing spring on the first round rod will be deformed and the first slider will slide along the first round rod to reduce the vibration intensity of the electronic oscillator body and avoid the oscillator from being separated from the measuring equipment.

(2) The present invention provides a soundproof glass. First, the two knobs are rotated to disengage the second round rod from the connecting column, thereby releasing the lock of the second round rod on the soundproof cover. Then, the soundproof cover is turned over to rotate around the rotating shaft between the first L-shaped block and the first fixed block. After the electronic oscillator body is fixed, the soundproof cover is turned over to seal the electronic oscillator body in the soundproof cover. The knob is rotated to lock the soundproof cover. When the electronic oscillator is working, the noise generated cannot be transmitted from the inner wall of the soundproof cover, which is conducive to reducing noise.

BRIEF DESCRIPTION OF THE DRAWINGS

FIG1 is a schematic structural diagram of a carry-type damping device for measuring the starting value of an electronic oscillator;

FIG2 is a schematic diagram of the structure of the shock absorbing mechanism, the fixing assembly and the electronic oscillator body when they are connected;

FIG3 is a schematic diagram of the structure of the mounting block;

FIG4 is a schematic diagram of the structure when the first slider is connected to the second slider;

FIG5 is a schematic structural diagram of FIG4 from another angle;

FIG6 is a schematic diagram of the structure when the second slider, the second screw rod and the third slider are connected;

FIG7 is a schematic diagram of the structure of the sound insulation assembly;

FIG8 is a cross-sectional view of FIG7;

FIG9 is a schematic diagram of the structure when part A is enlarged;

FIG. 10 is a schematic diagram of the structure of the electronic oscillator body.

In the figure: 1. shock absorbing mechanism; 101. mounting block; 102. first clearance groove; 103. second clearance groove; 104. first washer; 105. guide block; 106. first round rod; 107. first stopper; 108. shock absorbing spring; 109. control panel; 110. first L-shaped block; 111. connecting column; 112. first slider; 113. third clearance groove; 114. slide groove; 2. fixing assembly; 201. slide rod; 202. first screw rod; 203. mounting plate; 204. motor; 205. second slider; 206. second L-shaped block; 207 , third L-shaped block; 208, second screw rod; 209, second stopper; 210, hand wheel; 211, limit block; 212, third slider; 213, T-shaped slot; 214, U-shaped slot; 215, second gasket; 3, sound insulation component; 301, sound insulation cover; 302, fourth make way slot; 303, sound insulation glass; 304, third gasket; 305, first fixed block; 306, second fixed block; 307, second round rod; 308, third stopper; 309, knob; 310, reinforcement rib; 311, receiving slot; 4, electronic oscillator body; 401, support column.

Best Mode for Carrying Out the Invention

The present invention will be further described below in conjunction with the embodiments.

The following examples are used to illustrate the present invention, but they cannot be used to limit the scope of protection of the present invention. The conditions in the examples can be further adjusted according to specific conditions. Simple improvements to the method of the present invention under the premise of the concept of the present invention belong to the scope of protection claimed in the present invention.

Please refer to Figures 1-10. The present invention provides a position-based damping device for measuring the vibration value of an electronic oscillator, including an electronic oscillator body 4, a plurality of support columns 401 are fixed to the bottom of the electronic oscillator body 4, and the plurality of support columns 401 are in a rectangular array, and also includes a damping mechanism 1, and a fixing component 2 and a sound insulation component 3 are provided on the damping mechanism 1;

The shock absorbing mechanism 1 comprises a mounting block 101 and two first sliders 112. A first clearance groove 102 is provided on the upper surface of the mounting block 101. A plurality of first round rods 106 are fixed to the inner bottom surface of the first clearance groove 102, and the plurality of first round rods 106 are arranged in a rectangular array. The two first sliders 112 are respectively arranged corresponding to the first round rods 106 on both sides. Two groups of first round rods 106 respectively penetrate the first sliders 112 on the same side, and each group of first round rods 106 respectively slides with the corresponding first sliders 112. Shock absorbing springs 108 are sleeved on the circumferential side surfaces of the first round rods 106. The two ends of the shock absorbing springs 108 are respectively fixed to the inner bottom surface of the mounting block 101 and the corresponding first sliders 112. A control panel 109 is fixed to the upper surface of the mounting block 101. Two first L-shaped blocks 110 are fixed to one side of the mounting block 101, and two connecting columns 111 are fixed to the other side of the mounting block 101.

The fixing assembly 2 includes two second sliders 205 and two groups of third sliders 212, two sliders 201 are symmetrically fixed between the two first sliders 112, a first screw rod 202 is rotatably connected between the two first sliders 112, the first screw rod 202 is located between the two sliders 201, a mounting plate 203 is fixed to one side of a first slider 112, a motor 204 is mounted on the mounting plate 203, the two sliders 201 and the first screw rod 202 respectively penetrate the two second sliders 205, the slider 201 and the second slider 205 are slidably matched, the first screw rod 202 is threadedly connected to the second slider 205, the two second sliders 205 are symmetrically arranged, two groups of second L-shaped blocks 206 and a third L-shaped block 207 are fixed on the upper surface of the second slider 205, and the two groups of second L-shaped blocks 206 are symmetrically arranged about the third L-shaped block 207 The third L-shaped block 207 is rotatably connected with a second screw rod 208, one end of the second screw rod 208 is fixed with a hand wheel 210, both ends of the second screw rod 208 respectively pass through a group of third sliders 212, and the two third sliders 212 are symmetrically arranged, the second screw rod 208 is respectively threadedly connected with the two third sliders 212, and the bottom end of the third slider 212 is provided with two T-shaped grooves 213 at the positions of the two second L-shaped blocks 206 on the same side, the second L-shaped block 206 is located in the corresponding T-shaped grooves 213, and the second L-shaped block 206 is slidably matched with the third slider 212 corresponding to the T-shaped grooves 213, the two groups of third sliders 212 are arranged corresponding to a plurality of support columns 401, a U-shaped groove 214 is provided at one side of the third slider 212 at the position corresponding to the support column 401, and the support column 401 is located in the corresponding U-shaped groove 214;

The sound insulation component 3 includes a sound insulation cover 301 and two second round rods 307. The sound insulation cover 301 is provided with a fourth clearance groove 302. The inner wall of the fourth clearance groove 302 is provided with a receiving groove 311. A sound insulation glass 303 is installed in the receiving groove 311, and the sound insulation glass 303 is double-layered. Two first fixing blocks 305 are fixed at the positions corresponding to the two first L-shaped blocks 110 on one side of the sound insulation cover 301. The two first L-shaped blocks 110 and the two first fixing blocks 305 correspond to each other one by one and the corresponding first L-shaped blocks 110 and the first fixed block 305 are rotatably connected via a rotating shaft, two second fixed blocks 306 are fixed at the positions corresponding to the two connecting columns 111 on the other side of the sound insulation cover 301, two second round rods 307 respectively penetrate the two second fixed blocks 306, the second round rods 307 are threadedly connected to the corresponding second fixed blocks 306, one end of the second round rod 307 penetrates the corresponding connecting column 111 and the second round rod 307 is threadedly connected to the connecting column 111, and a knob 309 is fixed to one end of the second round rod 307.

A second clearance groove 103 is provided on the upper surface of the mounting block 101, and the second clearance groove 103 is located at the edge of the first clearance groove 102. A first gasket 104 is provided in the second clearance groove 103, and the sound insulation cover 301 fits with the first gasket 104, so as to enhance the sealing between the mounting block 101 and the sound insulation cover 301 and improve the sound insulation effect.

Two guide blocks 105 are fixed to the relative inner walls of the first yielding groove 102, and the two guide blocks 105 on both sides are symmetrically arranged, the two first round rods 106 on the same side are located between the two guide blocks 105, and the two guide blocks 105 and the two first round rods 106 on the same side are located on the same straight line, and sliding grooves 114 are opened at the positions of the two guide blocks 105 at both ends of the first sliding block 112, the guide blocks 105 are located in the corresponding sliding grooves 114, and the guide blocks 105 and the first sliding block 112 are slidably matched, so as to improve the guidance of the first sliding block 112 and reduce the burden on the first round rod 106.

A first stopper 107 is fixed to the top of the first round rod 106 , and two third clearance grooves 113 are formed on the upper surface of the first sliding block 112 at positions corresponding to the two first stoppers 107 on the same side. The first stopper 107 is located in the corresponding third clearance grooves 113 , which is convenient for limiting the first sliding block 112 .

A battery is disposed in the mounting block 101 , and the battery provides operating voltage for the control panel 109 and the motor 204 .

Two second stops 209 are fixed on the side surfaces of the second screw rod 208. The two second stops 209 are respectively located on both sides of the two third L-shaped blocks 207 and the two second stops 209 are respectively fitted with the third L-shaped blocks 207 to facilitate limiting the second screw rod 208. A limiting block 211 is fixed on the other end of the second screw rod 208 to prevent the third slider 212 from detaching from the second screw rod 208.

A second washer 215 is disposed on the upper surface of the third slider 212 . The second washer 215 fits the bottom of the electronic oscillator body 4 , thereby avoiding direct contact between the third slider 212 and the electronic oscillator body 4 and preventing scratches on the electronic oscillator body 4 .

Two third washers 304 are provided in the receiving groove 311 . The two third washers 304 are respectively located on both sides of the soundproof glass 303 and fit with the soundproof glass 303 , so as to enhance the sealing between the soundproof cover 301 and the soundproof glass 303 and improve the soundproof effect.

A third stopper 308 is fixed to the side surface of the second round rod 307 , and the third stopper 308 is located between the connecting column 111 and the second fixing block 306 , so as to prevent the second round rod 307 from being separated from the second fixing block 306 . A plurality of reinforcing ribs 310 are fixed to the inner wall of the soundproof glass 303 , so as to enhance the strength of the soundproof glass 303 .

When the device is in use, the two knobs 309 need to be rotated first to disengage the second round rod 307 from the connecting column 111, thereby releasing the lock of the second round rod 307 on the soundproof cover 301, and then the soundproof cover 301 is turned over to rotate around the rotating shaft between the first L-shaped block 110 and the first fixed block 305, and then the motor 204 is started by controlling the control panel 109. The motor 204 will drive the two second sliders 205 to approach each other along the slider 201 through the first screw rod 202, so that the distance between the two groups of third sliders 212 is slightly smaller than the maximum spacing between the two support columns 401, and then the electronic oscillator body 4 is placed on a plurality of third sliders 212. At this time, the two hand wheels 210 are rotated successively, and the two third sliders 212 thereon are driven to approach or move away from each other along the second L-shaped block 206 through the second screw rod 208, so that the distance between the two U-shaped grooves 214 on the same side is The spacing distance is equal to the minimum spacing between the two support columns 401, and then the motor 204 is started, so that the two second sliders 205 are close to each other under the action of the first screw rod 202, and the support columns 401 at the bottom of the electronic oscillator body 4 are limited from both sides, and the electronic oscillator body 4 is started. Then, the sound insulation cover 301 is turned over to seal the electronic oscillator body 4 in the sound insulation cover 301, and the knob 309 is rotated to lock the sound insulation cover 301. The electronic oscillator body 4 will produce violent vibrations during operation, and the vibration will be transmitted to the two first sliders 112 through the second slider 205 and the third slider 212. After the first slider 112 is vibrated, the shock-absorbing spring 108 on the first round rod 106 will be deformed, and the first slider 112 will slide along the first round rod 106, so as to reduce the vibration intensity of the electronic oscillator body 4, providing convenience for measuring the vibration value of the electronic oscillator.

Although embodiments of the present invention have been shown and described, it will be appreciated by those skilled in the art that various changes, modifications, substitutions and variations may be made to the embodiments without departing from the principles and spirit of the present invention, and that the scope of the present invention is defined by the appended claims and their equivalents.

Claims (9)

A carry-type damping device for measuring the vibration value of an electronic oscillator, comprising an electronic oscillator body (4), a plurality of support columns (401) being fixed at the bottom of the electronic oscillator body (4), and the plurality of support columns (401) being arranged in a rectangular array, characterized in that: the device comprises a damping mechanism (1), and a fixing component (2) and a sound insulation component (3) are provided on the damping mechanism (1); The shock absorbing mechanism (1) comprises a mounting block (101) and two first sliding blocks (112); a first clearance groove (102) is provided on the upper surface of the mounting block (101); a plurality of first round rods (106) are fixed to the inner bottom surface of the first clearance groove (102); and the plurality of first round rods (106) are arranged in a rectangular array; the two first sliding blocks (112) are respectively arranged corresponding to the first round rods (106) on both sides; two groups of the first round rods (106) respectively penetrate the first sliding blocks (112) on the same side; and each group of the first round rods (106) 106) are respectively slidably matched with the corresponding first sliding blocks (112), a shock absorbing spring (108) is sleeved on the circumferential side surface of the first round rod (106), two ends of the shock absorbing spring (108) are respectively fixed to the inner bottom surface of the mounting block (101) and the corresponding first sliding block (112), a control panel (109) is fixed to the upper surface of the mounting block (101), two first L-shaped blocks (110) are fixed to one side of the mounting block (101), and two connecting columns (111) are fixed to the other side of the mounting block (101); The fixing assembly (2) comprises two second sliders (205) and two groups of third sliders (212); two sliders (201) are symmetrically fixed between the two first sliders (112); a first screw rod (202) is rotatably connected between the two first sliders (112); the first screw rod (202) is located between the two sliders (201); a mounting plate (203) is fixed on one side of the first slider (112); a motor (204) is mounted on the mounting plate (203); and the two sliders (112) are symmetrically fixed between the two first sliders (112); a first screw rod (202) is rotatably connected between the two first sliders (112); and the first screw rod (202) is located between the two sliders (201). The slide bar (201) and the first screw rod (202) respectively penetrate the two second sliders (205); the slide bar (201) and the second slider (205) are slidably matched; the first screw rod (202) and the second slider (205) are threadedly connected; the two second sliders (205) are symmetrically arranged; two groups of second L-shaped blocks (206) and a third L-shaped block (207) are fixed on the upper surface of the second slider (205); and the two groups of second L-shaped blocks (206) are axially spaced relative to the third L-shaped block (207). 7) symmetrically arranged, the third L-shaped block (207) is rotatably connected to a second screw rod (208), one end of the second screw rod (208) is fixed with a hand wheel (210), both ends of the second screw rod (208) respectively pass through a group of third sliders (212), and the two third sliders (212) are symmetrically arranged, the second screw rod (208) is respectively threadedly connected to the two third sliders (212), and the bottom end of the third slider (212) is opened at the position corresponding to the two second L-shaped blocks (206) on the same side Two T-shaped grooves (213) are provided, the second L-shaped block (206) is located in the corresponding T-shaped groove (213), and the second L-shaped block (206) is slidably matched with the third slider (212) corresponding to the T-shaped groove (213), two groups of the third sliders (212) are arranged corresponding to a plurality of support columns (401), a U-shaped groove (214) is opened at a position corresponding to the support column (401) on one side of the third slider (212), and the support column (401) is located in the corresponding U-shaped groove (214); The sound insulation component (3) comprises a sound insulation cover (301) and two second round rods (307); a fourth clearance groove (302) is provided on the sound insulation cover (301); a receiving groove (311) is provided on the inner wall of the fourth clearance groove (302); a sound insulation glass (303) is installed in the receiving groove (311); and the sound insulation glass (303) is double-layered; two first fixing blocks (305) are fixed at positions corresponding to the two first L-shaped blocks (110) on one side of the sound insulation cover (301); the two first L-shaped blocks (110) and the two first fixing blocks (305) correspond to each other one by one, and the corresponding first L-shaped The block (110) and the first fixed block (305) are rotatably connected via a rotating shaft; two second fixed blocks (306) are fixed at positions corresponding to the two connecting columns (111) on the other side of the soundproof cover (301); the two second round rods (307) respectively penetrate the two second fixed blocks (306); the second round rods (307) are threadedly connected to the corresponding second fixed blocks (306); one end of the second round rod (307) penetrates the corresponding connecting column (111) and the second round rod (307) is threadedly connected to the connecting column (111); and a knob (309) is fixed to one end of the second round rod (307). According to claim 1, a carry-type shock-absorbing device for measuring the vibration value of an electronic oscillator is characterized in that a second clearance groove (103) is opened on the upper surface of the mounting block (101), the second clearance groove (103) is located at the edge of the first clearance groove (102), a first gasket (104) is provided in the second clearance groove (103), and the sound insulation cover (301) is fitted with the first gasket (104). According to claim 1, a carry-type shock-absorbing device for measuring the vibration value of an electronic oscillator is characterized in that two guide blocks (105) are fixed to the relative inner walls of the first clearance groove (102), and the two guide blocks (105) on both sides are symmetrically arranged, the two first round rods (106) on the same side are located between the two guide blocks (105), and the two guide blocks (105) and the two first round rods (106) on the same side are located on the same straight line, and the first slider (112) is provided with a slide groove (114) at both ends corresponding to the positions of the two guide blocks (105), the guide block (105) is located in the corresponding slide groove (114), and the guide block (105) and the first slider (112) are slidably matched. According to claim 1, a carry-type shock-absorbing device for measuring the vibration value of an electronic oscillator is characterized in that a first stopper (107) is fixed to the top of the first round rod (106), and two third clearance grooves (113) are opened on the upper surface of the first sliding block (112) at the positions corresponding to the two first stoppers (107) on the same side, and the first stopper (107) is located in the corresponding third clearance grooves (113). According to claim 1, a carry-type shock-absorbing device for measuring the vibration value of an electronic oscillator is characterized in that a battery is provided in the mounting block (101), and the battery provides working voltage for the control panel (109) and the motor (204). According to claim 1, a position-adjusting shock-absorbing device for measuring the vibration value of an electronic oscillator is characterized in that two second stops (209) are fixed on the side surface of the second screw rod (208), the two second stops (209) are respectively located on both sides of the two third L-shaped blocks (207) and the two second stops (209) are respectively fitted with the third L-shaped blocks (207), and a limit block (211) is fixed on the other end of the second screw rod (208). According to claim 1, a carry-type shock-absorbing device for measuring the vibration value of an electronic oscillator is characterized in that a second gasket (215) is provided on the upper surface of the third slider (212), and the second gasket (215) is in contact with the bottom of the electronic oscillator body (4). According to claim 1, a carry-type shock-absorbing device for measuring the vibration value of an electronic oscillator is characterized in that two third washers (304) are provided in the accommodating groove (311), and the two third washers (304) are respectively located on both sides of the soundproof glass (303) and are in contact with the soundproof glass (303). According to claim 1, a step-type shock-absorbing device for measuring the vibration value of an electronic oscillator is characterized in that a third stopper (308) is fixed on the circumferential side of the second round rod (307), and the third stopper (308) is located between the connecting column (111) and the second fixed block (306), and a plurality of reinforcing ribs (310) are fixed on the inner wall of the soundproof glass (303).