Wound repair material laser particle size analyzer

Abstract

The utility model discloses a wound repair material laser particle size analyzer which comprises a particle size analyzer body, an ultrasonic dispersion pool and a transmission frame are installed at the top of the particle size analyzer body, a rotating rod extending into the ultrasonic dispersion pool is installed at a frame seat at the tail end of the transmission frame through a transmission seat, and the particle size analyzer further comprises a stirring mechanism. The stirring mechanism comprises a main rod, an auxiliary rod, a C-shaped reverse plate, a C-shaped front plate, a bottom arc rod, an upper arc rod and an inward folding shifting plate, and the stirring mechanism is arranged at a rotating rod of the ultrasonic dispersion pool above the particle size analyzer body through improvement; the wound repair material particles and the dispersing agent which are placed in the ultrasonic dispersion pool can be efficiently stirred, mixed and contacted, so that the wound repair material particles can be quickly contacted with the dispersing agent in the ultrasonic dispersion pool for dispersion, and the wound repair material particles can be quickly treated at the particle size analyzer body for dispersion analysis.

Description

Technical Field

[0001] The utility model relates to the technical field of laser particle size analyzers, in particular to a laser particle size analyzer for wound repair materials. Background Art

[0002] Wound repair materials mainly refer to some biological materials or artificial materials. The simplest and most common ones are some dressings for changing dressings. Band-Aids are also a kind of material used for wound repair. When measuring and analyzing the physical particle abundance of wound repair materials, a laser particle size analyzer is used for analysis.

[0003] When the laser particle size analyzer of the prior art performs wound repair material analysis, a small amount of wound repair material particles will be taken and placed in the ultrasonic dispersion tank of the laser particle size analyzer, and then a dispersant will be added. The ultrasonic dispersion tank has a stirring structure driven by a stirring rod to stir the dispersion base and the wound repair material particles, and then the software of the laser particle size analyzer can cyclically test the particles dispersed in the ultrasonic dispersion tank. However, the stirring structure in the ultrasonic dispersion tank is relatively simple, and the stirring and dispersing time of the wound repair material is relatively long, thereby increasing the time required for dispersion of the wound repair material after the mixed contact with the dispersant, affecting the analysis efficiency of the wound repair material. For this reason, we propose a laser particle size analyzer for wound repair materials. Utility Model Content

[0004] The main purpose of the utility model is to provide a laser particle size analyzer for wound repair materials. By improving the stirring mechanism at the rotating rod of the ultrasonic dispersion tank above the particle size analyzer body, when the rotating rod rotates with the stirring mechanism, the wound repair material particles and the dispersant placed in the ultrasonic dispersion tank can be efficiently stirred, mixed and contacted, so that the wound repair material particles can be contacted with the dispersant in the ultrasonic dispersion tank more quickly for dispersion, which is convenient for the particle size analyzer body to quickly process the wound repair material particles for dispersion analysis, and can effectively solve the problems in the background technology.

[0005] In order to achieve the above purpose, the technical solution adopted by the utility model is:

[0006] A laser particle size analyzer for wound repair materials comprises a particle size analyzer body, an ultrasonic dispersion tank and a transmission frame are installed on the top of the particle size analyzer body, and a rotating rod extending into the ultrasonic dispersion tank is installed on the transmission seat at the end frame seat of the transmission frame, and also comprises a stirring mechanism, the stirring mechanism comprises a main rod, a secondary rod, a C-shaped reverse plate, a C-shaped positive plate, a bottom arc rod, an upper arc rod and an inner folding plate, the main rod and the secondary rod are symmetrically welded on the rod body of the rotating rod, and the C-shaped reverse plate and the C-shaped positive plate are respectively welded on the rod bodies of the main rod and the secondary rod, a bottom arc rod is welded between the lower rod surface of the main rod and the rotating rod, and a convex tooth plate is welded at the upper rod body of the main rod away from the bottom arc rod, the upper rod surface of the secondary rod is welded to the upper arc rod, and the inner folding plate is welded to the lower rod surface of the secondary rod.

[0007] Furthermore, the plate grooves of the C-shaped reverse plate and the C-shaped positive plate are opposite to each other on both sides of the rotating rod, and the upper half of the back arc plate surface of the C-shaped reverse plate is welded to the main rod, and the lower half of the back arc plate surface of the C-shaped positive plate is welded to the auxiliary rod; the C-shaped reverse plate and the C-shaped positive plate can be welded outside the rotating rod through the main rod and the auxiliary rod respectively to form a reverse-mouth stirring structure.

[0008] Furthermore, two groups of upper arc rods are welded on the upper surface of the auxiliary rod, and a group of large arc rods of the upper arc rods are located outside a group of small arc rods; two groups of upper arc rods are welded above the auxiliary rod to form a staggered stirring position.

[0009] Furthermore, two groups of bottom arc rods are welded on the lower surface of the main rod, and a group of large arc rods of the bottom arc rods are located outside a group of small arc rods; two groups of bottom arc rods are welded on the lower surface of the main rod to form a staggered stirring position.

[0010] Furthermore, the inner folding plate is folded upward to form a concave surface after being welded below the auxiliary rod; the concave surface of the inner folding plate can be used to draw the liquid and wound repair material in the ultrasonic dispersion tank.

[0011] Compared with the prior art, the utility model has the following beneficial effects:

[0012] The utility model improves and arranges a stirring mechanism at the rotating rod of the ultrasonic dispersion tank above the particle size analyzer body. When the rotating rod rotates with the stirring mechanism, the wound repair material particles and the dispersant placed in the ultrasonic dispersion tank can be efficiently stirred, mixed and contacted, so that the wound repair material particles can be contacted with the dispersant in the ultrasonic dispersion tank more quickly for dispersion, which is convenient for the particle size analyzer body to quickly process the wound repair material particles for dispersion analysis. BRIEF DESCRIPTION OF THE DRAWINGS

[0013] Figure 1 This is a schematic diagram of the overall structure of the laser particle size analyzer for wound repair materials of the utility model.

[0014] Figure 2This is an exploded view of the stirring mechanism of the laser particle size analyzer for wound repair materials of the utility model.

[0015] Figure 3 This is an enlarged view of the stirring mechanism of the laser particle size analyzer for wound repair materials of the utility model.

[0016] In the figure: 1. Particle size analyzer body; 2. Ultrasonic dispersion tank; 3. Transmission frame; 4. Transmission seat; 5. Rotating rod; 6. Stirring mechanism; 7. Main rod; 8. Auxiliary rod; 9. C-shaped reverse plate; 10. C-shaped positive plate; 11. Bottom arc rod; 12. Upper arc rod; 13. Inner folding plate; 14. Convex tooth plate. DETAILED DESCRIPTION

[0017] In order to make the technical means, creative features, objectives and effects achieved by the present invention easy to understand, the present invention is further described below in conjunction with specific implementation methods.

[0018] like Figure 1-3 As shown, the laser particle size analyzer for wound repair materials includes a particle size analyzer body 1, an ultrasonic dispersion pool 2 and a transmission frame 3 are installed on the top of the particle size analyzer body 1, and a rotating rod 5 extending into the ultrasonic dispersion pool 2 is installed at the transmission seat 4 at the end frame seat of the transmission frame 3, and also includes a stirring mechanism 6, the stirring mechanism 6 includes a main rod 7, a secondary rod 8, a C-shaped reverse plate 9, a C-shaped positive plate 10, a bottom arc rod 11, an upper arc rod 12 and an inner folding plate 13, the main rod 7 and the secondary rod 8 are symmetrically welded on the rod body of the rotating rod 5, and the C-shaped reverse plate 9 and the C-shaped positive plate 10 are respectively welded on the rod bodies of the main rod 7 and the secondary rod 8, a bottom arc rod 11 is welded between the lower rod surface of the main rod 7 and the rotating rod 5, and a convex tooth plate 14 is welded at the upper rod body of the main rod 7 away from the bottom arc rod 11, the upper rod surface of the secondary rod 8 is welded with the upper arc rod 12, and the lower rod surface of the secondary rod 8 is welded with the inner folding plate 13.

[0019] Among them, the plate body grooves of the C-shaped reverse plate 9 and the C-shaped positive plate 10 are opposite to each other on both sides of the rotating rod 5, and the upper half of the back arc plate surface of the C-shaped reverse plate 9 is welded to the main rod 7, and the lower half of the back arc plate surface of the C-shaped positive plate 10 is welded to the auxiliary rod 8; the C-shaped reverse plate 9 and the C-shaped positive plate 10 can be welded outside the rotating rod 5 through the main rod 7 and the auxiliary rod 8 respectively to form a reverse-mouth stirring structure.

[0020] Among them, two groups of upper arc rods 12 are welded on the upper surface of the auxiliary rod 8, and a group of large arc rods of the upper arc rods 12 are located outside a group of small arc rods; two groups of upper arc rods 12 are welded above the auxiliary rod 8 to form a staggered stirring position.

[0021] Among them, two groups of bottom arc rods 11 are welded on the lower surface of the main rod 7, and a group of large arc rods of the bottom arc rods 11 are located outside a group of small arc rods; two groups of bottom arc rods 11 are welded on the lower surface of the main rod 7 to form a staggered stirring position.

[0022] The inner folding plate 13 is welded below the auxiliary rod 8 and then folded upward to form a concave surface; the concave surface of the inner folding plate 13 can be used to draw the liquid and wound repair material in the ultrasonic dispersion tank 2.

[0023] It should be noted that the utility model is a laser particle size analyzer for wound repair materials. After a stirring mechanism 6 is arranged at the rotating rod 5 of the ultrasonic dispersion pool 2 above the particle size analyzer body 1, the wound repair material particles can be poured into the ultrasonic dispersion pool 2 placed in the liquid together with the dispersant, and then the transmission frame 3 is driven by a motor in the particle size analyzer body 1 to drive the rotating rod 5 at the transmission seat 4 to rotate, and the rotating rod 5 can drive the main rod 7 and the auxiliary rod 8 to rotate and stir the wound repair material particles and the dispersant, and the main rod 7 and the auxiliary rod 8 are respectively provided with a bottom arc rod 11 and an upper arc rod 12 to form a staggered layer. The wound repair material particles and the dispersant are stirred and mixed, and the convex tooth plate 14 on the main rod 7 can form an upper disturbing position, cooperate with the stirring position formed by the inner folding plate 13 under the auxiliary rod 8, and then assist with the C-shaped reverse plate 9 and the C-shaped positive plate 10 to push the liquid outward, so that the wound repair material particles and the dispersant in the ultrasonic dispersion tank 2 can be efficiently stirred and mixed, so that the wound repair material particles can be quickly contacted with the dispersant in the ultrasonic dispersion tank 2 for dispersion, which is convenient for the particle size analyzer body 1 to quickly process the wound repair material particles for dispersion analysis.

[0024] It should be noted that the utility model is a laser particle size analyzer for wound repair materials. The components in the utility model are all components known to those skilled in the art, and their structures and principles can be known to those skilled in the art through technical manuals or conventional experimental methods.

[0025] The above shows and describes the basic principle and main features of the utility model and the advantages of the utility model. It should be understood by technicians in this industry that the utility model is not subject to the above

[0026] The above embodiments and descriptions are only for the purpose of explaining the principles of the present invention. Without departing from the spirit and scope of the present invention, the present invention may be subject to various changes and improvements, which are within the scope of the present invention. The scope of protection of the present invention is defined by the attached claims and their equivalents.

Claims

1. A laser particle size analyzer for wound repair materials, comprising a particle size analyzer body (1), wherein an ultrasonic dispersion pool (2) and a transmission frame (3) are installed on the top of the particle size analyzer body (1), and a rotating rod (5) extending into the ultrasonic dispersion pool (2) is installed at a transmission seat (4) at the end of the transmission frame (3). Features: The invention also comprises a stirring mechanism (6), wherein the stirring mechanism (6) comprises a main rod (7), a secondary rod (8), a C-shaped reverse plate (9), a C-shaped positive plate (10), a bottom arc rod (11), an upper arc rod (12) and an inner folding plate (13); the main rod (7) and the secondary rod (8) are symmetrically welded to the outside of the rod body of the rotating rod (5); the C-shaped reverse plate (9) and the C-shaped positive plate (10) are respectively welded to the outside of the rod bodies of the main rod (7) and the secondary rod (8); a bottom arc rod (11) is welded between the lower rod surface of the main rod (7) and the rotating rod (5); a convex tooth plate (14) is welded to the upper rod body of the main rod (7) away from the bottom arc rod (11); the upper arc rod (12) is welded to the upper rod surface of the secondary rod (8); and the inner folding plate (13) is welded to the lower rod surface of the secondary rod (8).

2. The laser particle size analyzer for wound repair materials according to claim 1, Features: The plate body notches of the C-shaped reverse plate (9) and the C-shaped positive plate (10) are opposite to each other on both sides of the rotating rod (5), and the upper half of the back arc plate surface of the C-shaped reverse plate (9) is welded to the main rod (7), and the lower half of the back arc plate surface of the C-shaped positive plate (10) is welded to the auxiliary rod (8).

3. The laser particle size analyzer for wound repair materials according to claim 1, Features: Two groups of upper arc rods (12) are welded on the upper surface of the auxiliary rod (8), and a group of large arc rods of the upper arc rods (12) are located outside a group of small arc rods.

4. The laser particle size analyzer for wound repair materials according to claim 1, Features: Two groups of bottom arc rods (11) are welded on the lower surface of the main rod (7), and a group of large arc rods of the bottom arc rods (11) are located outside a group of small arc rods.

5. The laser particle size analyzer for wound repair materials according to claim 1, Features: The inner folding plate (13) is welded below the auxiliary rod (8) and then folded upward to form a concave folded surface.

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