A probiotic vortex constant temperature oscillator

Abstract

The utility model discloses a probiotic vortex constant temperature oscillator, including an oscillator control base, the oscillator control base is fixedly connected to a placement plate through an internal output shaft, the top center of the placement plate is fixedly connected to a center tube, the top of the placement plate is slidably connected to an adjustment plate, the bottom center of the adjustment plate is fixedly connected to an adjustment mechanism, and the adjustment mechanism extends to the inside of the center tube and is snap-connected therewith. The utility model is provided with an adjustment plate on the upper part of the placement plate of the oscillator, which can adjust the height of the test tube required to be oscillated, thereby freeing both hands, so that the test tube can be stably and rapidly oscillated and mixed inside the adjustment plate, and a protective cover is provided inside the placement plate hole at the bottom, so that the bottom of the placed test tube can be flexibly connected to the inside of the hole of the placement plate, preventing damage to the bottom or side wall of the test tube during high-speed oscillation processing, thereby ensuring the protection effect of the test tube.

Description

Technical Field

[0001] The utility model relates to the technical field of probiotics processing and application, in particular to a probiotics vortex constant temperature oscillator. Background Art

[0002] Vortex oscillators are mainly used in research fields such as medicine, bioengineering, chemistry, and pharmaceuticals. They are essential conventional instruments for fixing, oscillating, and mixing various reagents, solutions, and chemical substances in biological laboratories. Vortex oscillators use eccentric rotation to produce vortexes in liquids in containers such as test tubes, thereby achieving the purpose of fully mixing the solutions. Vortex oscillators mix quickly and thoroughly, and the vortex-shaped liquid can mix all the test solutions attached to the tube wall.

[0003] At present, an oscillator is needed to oscillate and mix the materials in the production process of probiotics. When operating a traditional oscillator, a worker generally directly presses a section of a test tube against the inside of a placement plate of the oscillator. In the pressing operation of the test tube, different workers press with different strengths, and the internal holes of the placement plate are generally in hard direct contact with the bottom of the test tube, which may cause certain safety hazards in high-speed oscillation processing. In addition, the storage depth of the placement plate is generally fixed and cannot be adjusted according to the size of the test tube, which makes the efficiency of the worker holding the test tube for oscillation processing low. Therefore, the utility model proposes a probiotic vortex constant temperature oscillator. Utility Model Content

[0004] The technical problem to be solved by the utility model is to provide a probiotic vortex constant temperature oscillator, in which an adjusting disk is arranged on the upper part of the placement disk of the oscillator, so that the height of the test tube that needs to be oscillated can be adjusted and fixed during use, so that both hands can be released, so that the test tube can be stably and quickly oscillated and mixed inside the adjusting disk, and shock-absorbing cotton is arranged inside the placement disk hole at the bottom, so that the bottom of the placed test tube can be softly connected with the inside of the placement disk hole, thereby preventing damage to the bottom or side wall of the test tube during high-speed oscillation processing, thereby improving the protection effect on the test tube.

[0005] In order to solve the above technical problems, a technical solution adopted by the utility model is: to provide a probiotic vortex constant temperature oscillator, including an oscillator control base, the oscillator control base is fixedly connected to a placement plate through an internal output shaft, the top center of the placement plate is fixedly connected to a center tube, the top of the placement plate is slidably connected to an adjustment plate, the bottom center of the adjustment plate is fixedly connected to an adjustment mechanism, and the adjustment mechanism extends to the interior of the center tube and is snap-connected thereto.

[0006] The utility model is further configured as follows: the bottom of the oscillator control base is fixedly connected with an anti-slip support near the corners, the top inclined surface of the oscillator control base is fixedly connected with an adjustment knob near the bottom position, and the front inclined surface of the oscillator control base is fixedly connected with a control panel near the adjustment knob position.

[0007] Through the above technical solution, the oscillator is used to control the multiple anti-skid supports at the bottom of the base to position and fix the entire device, and the adjustment knob can be used to control and adjust the required working requirements.

[0008] The utility model is further configured as follows: a plurality of positioning grooves are evenly fixedly connected to the inner part of the placing plate near the outer wall, a plurality of positioning rods are evenly fixedly connected to the bottom of the adjusting plate near the outer wall, and the plurality of positioning rods are respectively slidably connected to the plurality of positioning grooves.

[0009] Through the above technical solution, when the adjusting disk is adjusted to different heights, it can stably slide on the inner wall of the positioning groove through the positioning rod, thereby improving the stability of the adjusting disk during use.

[0010] The utility model is further configured as follows: a plurality of positioning holes are evenly opened on the inner bottom of the placement plate, and the inner walls of the plurality of positioning holes are fixedly connected with protective sleeves; a plurality of auxiliary holes are evenly opened away from the middle of the adjustment plate, and the plurality of auxiliary holes are respectively arranged corresponding to the plurality of positioning holes.

[0011] Through the above technical solution, when the test tube is oscillated and mixed, it can be inserted into the bottom positioning hole through the auxiliary control, and under the protection of the protective cover, the bottom of the test tube can be protected to prevent damage.

[0012] The utility model is further configured as follows: the adjusting mechanism includes an adjusting frame installed at the bottom center of the adjusting disk and snap-connected to the center tube, the bottom of the adjusting frame is fixedly connected to an extension column, the outer wall of the extension column is threadedly connected to a damping spring, the inner wall of the adjusting frame is symmetrically rotatably connected to a clamping block near the side wall, the opposite surfaces of the two clamping blocks are fixedly connected to bevel teeth, the opposite surfaces of the two bevel teeth are meshingly connected to an operating rod, the outer wall of the operating rod is fixedly connected to a limiting plate near the top position, and the top of the limiting plate is symmetrically fixedly connected to a reset spring near the end surface position.

[0013] Through the above technical scheme, the operating rod is pulled to drive the return spring on the limit plate to be squeezed, and the tooth groove drives the block on the meshing bevel tooth to rotate, so that it can be away from the slot opened on the inner wall of the central tube, so that the adjusting frame can slide on the inner wall of the central tube, and when pressure is applied or released, the damping spring at the bottom can be used to move the adjusting frame up and down, so that after the operating rod is released, the internal return spring can be used to reset the operating rod, so that it drives the two blocks to be engaged and connected to the inside of the slot, thereby achieving the fixing effect of the adjusting frame.

[0014] The utility model is further configured as follows: the side wall of the adjustment frame is symmetrically provided with side grooves near the bottom, the inner side wall of the central tube is symmetrically provided with a plurality of clamping grooves, and the end surface of the clamping block is connected with the clamping groove by penetrating the side groove.

[0015] Through the above technical solution, the clamping blocks at the corresponding positions can be moved, and then the extended part of the side groove can be clamped and connected with the clamping groove to achieve the clamping effect of the adjustment frame.

[0016] The utility model is further configured as follows: the outer wall of the operating rod is symmetrically provided with tooth grooves near the bottom, and the tooth grooves are meshedly connected with two bevel teeth, the top of the operating rod passes through the top of the adjustment frame and is slidably connected thereto, and the end face is fixedly connected with a pull block.

[0017] Through the above technical solution, the operating rod can drive the block to rotate through the tooth grooves on both sides through the bevel teeth, so as to facilitate the engagement or disengagement of the block with the slot, thereby achieving the adjustment and fixation of the adjustment frame.

[0018] The beneficial effects of the utility model are as follows:

[0019] 1. The utility model proposes a probiotic vortex constant temperature oscillator. An adjustment disk is arranged on the upper part of the oscillator's placement disk, so that the height of the test tube to be oscillated can be adjusted and fixed during use, thereby freeing both hands, so that the test tube can be stably and quickly oscillated and mixed inside the adjustment disk;

[0020] 2. The utility model proposes a probiotic vortex constant temperature oscillator, in which shock-absorbing cotton is arranged inside the hole of the placement plate at the bottom, so that the bottom of the placed test tube can be softly connected with the inside of the hole of the placement plate, thereby preventing damage to the bottom or side wall of the test tube during high-speed oscillation processing, thereby improving the protection effect of the test tube. BRIEF DESCRIPTION OF THE DRAWINGS

[0021] Figure 1 This is a structural diagram of a probiotic vortex constant temperature oscillator of the utility model;

[0022] Figure 2 This is an exploded view of a probiotic vortex constant temperature oscillator of the utility model;

[0023] Figure 3 This is a cross-sectional structural diagram of a probiotic vortex constant temperature oscillator of the utility model;

[0024] Figure 4 This is a structural diagram of a probiotic vortex constant temperature oscillator placed in the utility model;

[0025] Figure 5 This is a structural diagram of an adjusting disk in a probiotic vortex constant temperature oscillator of the utility model;

[0026] Figure 6 for Figure 5 The enlarged view of point A in the middle;

[0027] Figure 7 for Figure 5 Enlarged view of point B in the middle.

[0028] In the figure:

[0029] 1. Oscillator control base; 11. Anti-slip support; 12. Adjustment knob; 13. Control panel; 2. Placement plate; 21. Positioning slot; 22. Positioning hole; 23. Protective cover; 3. Center tube; 31. Card slot; 4. Adjustment plate; 41. Auxiliary hole; 42. Positioning rod; 5. Adjustment mechanism; 51. Adjustment frame; 511. Side slot; 52. Extension column; 53. Damping spring; 54. Block; 55. Bevel gear; 56. Operating lever; 561. Tooth slot; 562. Limit plate; 563. Reset spring. DETAILED DESCRIPTION

[0030] The preferred embodiments of the present invention are described in detail below in conjunction with the accompanying drawings so that the advantages and features of the present invention can be more easily understood by those skilled in the art, thereby making a clearer and more definite definition of the protection scope of the present invention.

[0031] like Figure 1 As shown, a probiotic vortex constant temperature oscillator includes an oscillator control base 1, the bottom of the oscillator control base 1 is fixedly connected with anti-skid supports 11 near the corners, the top inclined surface of the oscillator control base 1 is fixedly connected with an adjusting knob 12 near the bottom position, and the front inclined surface of the oscillator control base 1 is fixedly connected with a control panel 13 near the adjusting knob 12. The multiple anti-skid supports 11 at the bottom of the oscillator control base 1 can be used to position and fix the position of the entire device, and the adjusting knob 12 can be used to control and adjust the required working requirements.

[0032] like Figure 2-Figure 5As shown, the oscillator control base 1 is fixedly connected with the placement plate 2 through the internal output shaft, and the inner part of the placement plate 2 is evenly fixedly connected with a plurality of positioning grooves 21 near the outer wall, and the bottom of the adjustment plate 4 is evenly fixedly connected with a plurality of positioning rods 42 near the outer wall. The plurality of positioning rods 42 are respectively slidably connected with the plurality of positioning grooves 21, so that when the adjustment plate 4 is adjusted to different heights, it can slide stably on the inner wall of the positioning groove 21 through the positioning rods 42, thereby improving the stability of the adjustment plate 4 in use. The inner bottom of the placement plate 2 is evenly opened with a plurality of positioning rods 42. The top of the placing plate 2 is fixedly connected with a central tube 3, and the top of the placing plate 2 is slidably connected with an adjusting plate 4. The adjusting plate 4 is evenly provided with a plurality of auxiliary holes 41 away from the middle, and the plurality of auxiliary holes 41 are respectively arranged corresponding to the plurality of positioning holes 22, so that when the test tube is oscillated and mixed, it can be inserted into the interior of the positioning hole 22 at the bottom through the auxiliary holes 41, and under the protection of the protective cover 23, the bottom of the test tube can be protected to prevent damage.

[0033] like Figure 5-Figure 7As shown, an adjusting mechanism 5 is fixedly connected to the bottom center of the adjusting disk 4, and the adjusting mechanism 5 extends to the inside of the center tube 3 and is snap-connected therewith. The adjusting mechanism 5 includes an adjusting frame 51 installed at the bottom center of the adjusting disk 4 and snap-connected to the center tube 3. The side wall of the adjusting frame 51 is symmetrically provided with side grooves 511 near the bottom, and the inner side wall of the center tube 3 is symmetrically provided with a plurality of snap-in grooves 31. The end surface of the card block 54 is snap-connected with the card groove 31 by penetrating the side groove 511, so that the card block 54 at the corresponding position can move, and then the side groove 511 can be extended to the card groove. 31 is engaged and connected to achieve the engaging effect of the adjusting frame 51. The bottom of the adjusting frame 51 is fixedly connected with an extension column 52. The outer wall of the extension column 52 is threadedly connected with a damping spring 53. The inner wall of the adjusting frame 51 is symmetrically rotatably connected with a clamping block 54 near the side wall. The opposite surfaces of the two clamping blocks 54 are fixedly connected with bevel teeth 55. The opposite surfaces of the two bevel teeth 55 are meshedly connected with an operating rod 56. The outer wall of the operating rod 56 is symmetrically provided with tooth grooves 561 near the bottom, and the tooth grooves 561 are meshedly connected with the two bevel teeth 55. The top of the operating rod 56 passes through the adjusting frame 51. The top of the operating rod 56 is slidably connected to it, and the end face is fixedly connected with a pulling block, which is convenient for the operating rod 56 to drive the rotation of the card block 54 through the tooth grooves 561 on both sides through the bevel teeth 55, so as to facilitate it to engage with or fall off the card slot 31, thereby realizing the adjustment and fixation of the adjustment frame 51, the outer wall of the operating rod 56 is fixedly connected to the limit plate 562 near the top position, and the top of the limit plate 562 is symmetrically fixedly connected with a return spring 563 near the end face position, and the operating rod 56 is used to pull it to drive the return spring 563 on the limit plate 562 to be squeezed, and through The tooth groove 561 drives the block 54 on the meshing bevel tooth 55 to rotate, so that it can move away from the slot 31 opened on the inner wall of the center tube 3, so that the adjustment frame 51 can slide on the inner wall of the center tube 3, and when pressure is applied or released, the damping spring 53 at the bottom can be used to move the adjustment frame 51 up and down, so that after the operating rod 56 is released, the internal reset spring 563 can be used to reset the operating rod 56, so that it drives the two blocks 54 to be engaged and connected to the inside of the slot 31, thereby achieving the fixing effect of the adjustment frame 51.

[0034] When the utility model is in use, the adjusting disk 4 is first adjusted and fixed according to the size of the test tube, and the operating rod 56 is pulled to drive the block 54 on the meshing bevel tooth 55 to rotate through the tooth groove 561, so that it can be away from the groove 31 opened on the inner wall of the central tube 3, so that the adjusting frame 51 can slide on the inner wall of the central tube 3, and at the same time drive the return spring 563 on the limit plate 562 to be squeezed, and then the adjusting disk 4 is stably slid and adjusted in the positioning groove 21 through the positioning rod 42 and when pressure is applied or released, the damping spring 53 at the bottom can be used to move the adjusting frame 51 up and down, and finally the operating rod 56 is released, and the internal return spring 563 can be used to reset the operating rod 56, so that it drives the two blocks 54 to be engaged and connected to the inside of the groove 31, so that the adjusted adjusting disk 4 can be fixed, and the test tube is inserted into the positioning hole 22 at the bottom through the auxiliary hole 41, and the oscillator is started to drive the entire placement disk 2 to shake regularly, so as to realize the vortex mixing operation of the probiotics.

[0035] The above description is only an embodiment of the present invention, and does not limit the patent scope of the present invention. Any equivalent structure or equivalent process transformation made by using the contents of the specification and drawings of the present invention, or directly or indirectly applied in other related technical fields, are also included in the patent protection scope of the present invention.

Claims

1. A probiotic vortex constant temperature oscillator, comprising an oscillator control base (1), characterized in that: The oscillator control base (1) is fixedly connected to a placement plate (2) via an internal output shaft, a center tube (3) is fixedly connected to the top center of the placement plate (2), an adjustment plate (4) is slidably connected to the top of the placement plate (2), an adjustment mechanism (5) is fixedly connected to the bottom center of the adjustment plate (4), and the adjustment mechanism (5) extends to the interior of the center tube (3) and is snap-connected thereto; The adjustment mechanism (5) comprises an adjustment frame (51) mounted at the bottom center of the adjustment disk (4) and snap-connected to the center tube (3); an extension column (52) is fixedly connected to the bottom of the adjustment frame (51); a damping spring (53) is threadedly connected to the outer wall of the extension column (52); a clamping block (54) is symmetrically rotatably connected to the inner wall of the adjustment frame (51) near the side wall; two opposing surfaces of the clamping blocks (54) are fixedly connected to bevel teeth (55); two opposing surfaces of the bevel teeth (55) are meshingly connected to an operating rod (56); a limiting plate (562) is fixedly connected to the outer wall of the operating rod (56) near the top; and a return spring (563) is symmetrically fixedly connected to the top of the limiting plate (562) near the end surface.

2. A probiotic vortex constant temperature oscillator according to claim 1, characterized in that: The bottom of the oscillator control base (1) is fixedly connected to an anti-slip support (11) near the corners, the top inclined surface of the oscillator control base (1) is fixedly connected to an adjustment knob (12) near the bottom, and the front inclined surface of the oscillator control base (1) is fixedly connected to a control panel (13) near the adjustment knob (12).

3. A probiotic vortex constant temperature oscillator according to claim 1, characterized in that: The placement plate (2) has multiple positioning grooves (21) fixedly connected evenly at positions near the outer wall inside, and the adjustment plate (4) has multiple positioning rods (42) fixedly connected evenly at positions near the outer wall at the bottom, and the multiple positioning rods (42) are respectively slidably connected to the multiple positioning grooves (21).

4. A probiotic vortex constant temperature oscillator according to claim 1, characterized in that: The inner bottom of the placement plate (2) is evenly provided with a plurality of positioning holes (22), and the inner walls of the plurality of positioning holes (22) are all fixedly connected with protective sleeves (23); the adjustment plate (4) is evenly provided with a plurality of auxiliary holes (41) away from the middle, and the plurality of auxiliary holes (41) are respectively arranged corresponding to the plurality of positioning holes (22).

5. A probiotic vortex constant temperature oscillator according to claim 1, characterized in that: The side wall of the adjustment frame (51) is symmetrically provided with side grooves (511) near the bottom, the inner side wall of the central tube (3) is symmetrically provided with a plurality of clamping grooves (31), and the end surface of the clamping block (54) is connected to the clamping groove (31) by penetrating the side groove (511).

6. A probiotic vortex constant temperature oscillator according to claim 1, characterized in that: The outer wall of the operating rod (56) is symmetrically provided with tooth grooves (561) near the bottom, and the tooth grooves (561) are meshingly connected with the two bevel teeth (55); the top of the operating rod (56) passes through the top of the adjustment frame (51) and is slidably connected thereto, and the end surface is fixedly connected with a pull block.

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