An operating room infusion heat preservation nursing device

Abstract

The utility model discloses an operating room infusion insulation nursing device, which belongs to the field of medical device technology, including an insulation frame, a hook, a slide B and a heat-conducting copper plate. A hook is fixedly installed on the top of the insulation frame, and slides B are embedded on both sides of the outer ring of the insulation frame, and the slides B are arranged in an arc shape. A heat-conducting copper plate is arranged on the upper part of the insulation frame through a bearing rotation, and an adjustment limit mechanism is arranged on the lower part of the insulation frame to limit the installation of infusion bottles of different specifications. In the utility model, the heat-conducting copper plate is driven to rotate repeatedly through a half circle counterclockwise and a half circle clockwise through a bearing, so that the heat around the heat-conducting copper plate and the electric heating tube are more evenly contacted, and the heat-conducting copper plate absorbs the heat more evenly around, so that the heat is evenly distributed, and the infusion bottle is more evenly insulated by the temperature rise around the heat-conducting copper plate, which can avoid uneven heat distribution, resulting in poor insulation effect on the medicine solution, and improve the effect of uniform insulation treatment on the infusion bottle.

Description

Technical Field

[0001] The utility model belongs to the technical field of medical equipment, in particular to an operating room infusion heat preservation nursing device. Background Art

[0002] Medical devices refer to equipment, instruments, materials or other items used to prevent, diagnose, treat, alleviate disease or injury, and to evaluate, compensate, improve or enhance human function, structure or physiological process. They provide strong support by providing accurate, reliable and safe diagnostic and treatment methods, and also bring better medical experience and treatment effects to patients.

[0003] Among them, after searching, it was found that the application number is CN202121966331.2, an automatic operating room infusion insulation nursing device, which is convenient for tightening and fixing infusion bottles of different diameters by setting a slide groove, an electric push rod, a slider and a protective plate, which is convenient for medical staff to use, and convenient for heating the liquid medicine in the infusion bottle by setting a storage groove, a heating belt and a heating rod. By setting a temperature monitor, it is convenient to measure the heating temperature, and convenient for timely adjustment of special liquid medicine to avoid loss or failure of the liquid medicine effect caused by excessive heating temperature. By setting a soft pad, it is convenient to transfer heat to the liquid medicine bottle to avoid direct contact with the liquid medicine bottle, which causes damage to some plastic liquid medicine bottles; among them, the shortcomings are as follows:

[0004] When the staff uses this automatic operating room infusion insulation and nursing device to insulate the liquid medicine in the medicine bottle, the liquid medicine bottle is hung at the bottom of the hook, and the two protective plates are close to each other, which is convenient for tightening the liquid medicine bottle. The controller controls the heating rod to heat the water in the heating bag. The heat passes through the soft pad to heat the infusion bottle, which is convenient for heating the liquid medicine for use. However, since the position of the heating rod is fixed, the soft pad close to the heating rod will absorb more heat than the soft pad far from the heating rod, which will make the insulation of the liquid medicine in the medicine bottle uneven, and easily lead to uneven temperature distribution of the liquid medicine in the medicine bottle, which affects the patient's infusion use. Utility Model Content

[0005] The purpose of the utility model is to provide an operating room infusion heat preservation and nursing device in order to solve the problem that the heat preservation effect of the above-mentioned automatic control operating room infusion heat preservation and nursing device is relatively poor.

[0006] The technical solution adopted by the utility model is as follows: an operating room infusion insulation nursing device, comprising a insulation frame, a hook, a slide groove B and a heat-conducting copper plate, a hook is fixedly installed on the top of the insulation frame, slide grooves B are embedded on both sides of the outer ring of the insulation frame, and the slide grooves B are arranged in an arc shape, a heat-conducting copper plate is rotatably arranged on the upper part of the insulation frame through a bearing, an adjustment limit mechanism that can limit the installation of infusion bottles of different specifications is arranged at the lower part of the insulation frame, movable insulation mechanisms that can uniformly insulate the infusion bottles are arranged on both sides of the insulation frame, and a rotating uniform insulation mechanism that can uniformly insulate the infusion bottles is arranged in the middle of the insulation frame.

[0007] Among them, the adjustment limit mechanism is composed of a slide groove A, an adjustment limit frame, a limit groove, a limit clamp frame, a damping telescopic rod A and a limit pressure plate. Slide grooves A are embedded on both sides of the insulation frame near the bottom of the slide groove B, and an adjustment limit frame is slidably arranged on the side of the slide groove A, and the opposite sides of the adjustment limit frame are arranged in an inclined arc shape. A limit groove is embedded above the adjustment limit frame. There are several limit grooves, which are equidistantly arranged in parallel in an arc shape. A limit clamp frame is rotatably arranged above the slide groove A through a bearing, and the limit clamp frame is slidably arranged on the inner side of the limit groove. Damping telescopic rods A are fixedly installed on both sides of the upper inner wall of the insulation frame, and a spring is matched on the outer side of the damping telescopic rod A, and a limit pressure plate is fixedly installed between the lower ends of the damping telescopic rod A.

[0008] Among them, the movable insulation mechanism is composed of a sliding frame, an electric roller, an electric heating tube and a sliding rheostat. A sliding frame is slidingly arranged on the side of the inner side of the slide groove B, a sliding rheostat is fixedly installed on the side of the inner wall of the sliding frame, an electric heating tube is fixedly installed on the side near the heat-conducting copper plate below the sliding frame, and electric rollers are arranged on both sides of the inner wall of the sliding frame to rotate relative to each other through bearings, and the electric rollers are contacted with the inner and outer ring surfaces of the insulation frame.

[0009] Among them, the uniformly rotating heat preservation mechanism is composed of teeth, a servo motor and gears. A servo motor is fixedly installed on the upper inner wall of the heat preservation rack near the side of the heat-conducting copper plate. The servo motor is connected to a gear through an output shaft. Teeth are fixedly installed on the outer ring of the heat-conducting copper plate. There are several teeth, which are equidistantly arranged in a trapezoidal shape, and the gear and the several teeth are arranged in a meshing transmission.

[0010] In summary, due to the adoption of the above technical solution, the beneficial effects of the utility model are:

[0011] 1. This operating room infusion insulation nursing device is provided with an adjustment limit mechanism, which allows the staff to cooperate between the slide groove A, the adjustment limit frame, the limit groove, the limit clamp frame, the damping telescopic rod A and the limit pressure plate, and use the limit clamp frame to rotate through the bearing to slide freely inside a plurality of limit grooves. The limit pressure plate generates a limit mode of reverse thrust through the contracted damping telescopic rod A and the outer spring, which is convenient for the staff to freely install and use infusion bottles of various specifications. At the same time, the infusion bottles fixed by the limit pressure plate can avoid contacting the heat-conducting copper plate of the insulation frame, which will affect the insulation of the infusion bottle later.

[0012] 2. This operating room infusion insulation nursing device is equipped with a mobile insulation mechanism, which allows the staff to coordinate the sliding frame, electric roller, electric heating pipe and sliding rheostat, use the electric roller to rotate on the inner and outer wall surfaces of the insulation frame, drive the sliding frame to move repeatedly, and make the heat pipe repeatedly move around the heat-conducting copper plate, thereby improving the effect of uniform insulation treatment of the infusion bottle.

[0013] 3. This operating room infusion insulation nursing device is equipped with a rotating uniform insulation mechanism, which allows the staff to coordinate the teeth, servo motor and gears, and use the servo motor to drive the gears to rotate rapidly several times clockwise and several times counterclockwise, so that the gears and several teeth engage in transmission to drive the heat-conducting copper plate to repeatedly rotate half a circle counterclockwise and half a circle clockwise through the bearing, thereby improving the effect of uniform insulation treatment of the infusion bottle. BRIEF DESCRIPTION OF THE DRAWINGS

[0014] Figure 1 This is a schematic diagram of the three-dimensional structure of the thermal insulation care device of the utility model;

[0015] Figure 2 This is a schematic diagram of the front cross-sectional structure of the heat preservation and nursing device of the utility model;

[0016] Figure 3 For the utility model Figure 2 The enlarged schematic diagram of the structure at A in the middle;

[0017] Figure 4 For the utility model Figure 2 The enlarged schematic diagram of the structure at B in the middle;

[0018] Figure 5 For the utility model Figure 2 The enlarged structural schematic diagram of Example 2 is shown at B.

[0019] Markings in the figure: 1. Insulation rack; 101. Slide A; 102. Adjustment limit rack; 103. Limit slot; 104. Limit bracket; 105. Hook; 106. Damping telescopic rod A; 107. Limit pressure plate; 2. Slide B; 201. Sliding rack; 202. Electric roller; 203. Electric heating pipe; 204. Sliding rheostat; 3. Thermal copper plate; 301. Teeth; 4. Servo motor; 401. Gear; 5. Limit block; 501. Damping telescopic rod B. DETAILED DESCRIPTION

[0020] The following will be combined with the drawings in the embodiments of the utility model to clearly and completely describe the technical solutions in the embodiments of the utility model. Obviously, the described embodiments are only part of the embodiments of the utility model, not all of the embodiments. Based on the embodiments in the utility model, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the utility model.

[0021] In the utility model:

[0022] Example 1: Reference Figure 1-Figure 4 A device for warming and nursing in transfusion in an operating room comprises a warming frame 1, a hook 105, a slide groove B2 and a heat-conducting copper plate 3, wherein a hook 105 is fixedly installed on the top of the warming frame 1, slide grooves B2 are embedded on both sides of the outer ring of the warming frame 1, and the slide grooves B2 are arranged in an arc shape, a heat-conducting copper plate 3 is rotatably arranged on the top of the warming frame 1 through a bearing, an adjusting limit mechanism for installing and limiting infusion bottles of different specifications is arranged at the bottom of the warming frame 1, movable warming mechanisms for uniformly insulating the infusion bottles are arranged on both sides of the warming frame 1, and a rotating uniform warming mechanism for uniformly insulating the infusion bottles is arranged in the middle of the warming frame 1.

[0023] Reference Figure 1-Figure 4 , further, the adjustment limit mechanism is composed of a slide slot A101, an adjustment limit frame 102, a limit slot 103, a limit clamp frame 104, a damping telescopic rod A106 and a limit pressure plate 107;

[0024] Slide grooves A101 are embedded and arranged near the bottom of the slide groove B2 on both sides of the heat preservation rack 1. Adjustment limit frames 102 are slidably arranged on the sides of the slide grooves A101, and the side opposite surfaces of the adjustment limit frames 102 are arranged in an inclined arc shape. Limiting grooves 103 are embedded and arranged above the adjustment limit frames 102. There are several limiting grooves 103, which are arranged equidistantly in an arc shape. A limiting card frame 104 is rotatably arranged above the slide groove A101 through a bearing, and the limiting card frame 104 is slidably arranged on the inner side of the limiting groove 103, and the upper part of the inner wall of the heat preservation rack 1 Damping telescopic rods A106 are fixedly installed on both sides, and springs are matched on the outside of the damping telescopic rods A106. A limit pressure plate 107 is fixedly installed between the lower ends of the damping telescopic rods A106. When the staff carries the infusion bottle to the designated patient ward and needs to perform infusion treatment on the patient, the staff pushes the two limit card frames 104 to slide out of the limit groove 103 through the bearing rotation, loosens and pushes the two adjustment limit frames 102 to expand laterally inside the slide groove A101, and then the staff puts the infusion bottle upside down into the insulation rack 1 and pushes the two limit card frames 104 to slide out of the limit groove 103. The adjusting limit frame 102 slides in the opposite direction inside the slide groove A101, so that the side inclined arc surface of the adjusting limit frame 102 contacts the two sides of the surface of the infusion bottle, and limits the infusion bottle inside the heat preservation rack 1, while contacting and squeezing the limit pressing plate 107 to drive the damping telescopic rod A106 and the outer spring to contract, so that the contracted damping telescopic rod A106 and the outer spring produce a reverse thrust on the limit pressing plate 107. After the infusion bottle is pressed and fixed, the staff pushes the two limit brackets 104 to rotate through the bearings, so that the limit brackets 104 slide into After the adjustment limit frame 102 is limited and fixed on the inner side of the relative limit groove 103, the limit installation of the infusion bottle is completed. If the staff needs to replace the infusion bottle of other specifications after installing the infusion bottle, the adjustment limit frame 102 is pushed open in the same way, the infusion bottle is taken out and the infusion bottle of other specifications is installed. This makes it convenient for the staff to freely install and use infusion bottles of various specifications. At the same time, the infusion bottle pressed by the limit pressure plate 107 can avoid contacting the heat-conducting copper plate 3 of the insulation frame 1, which will affect the insulation of the infusion bottle later.

[0025] Reference Figure 1-Figure 3 , further, the mobile heat preservation mechanism is composed of a sliding frame 201, an electric roller 202, an electric heating tube 203 and a sliding rheostat 204;

[0026] A sliding frame 201 is slidingly arranged on the side of the slide groove B2, a sliding rheostat 204 is fixedly installed on the side of the inner wall of the sliding frame 201, an electric heating pipe 203 is fixedly installed on the side near the heat-conducting copper plate 3 below the sliding frame 201, and electric rollers 202 are arranged on both sides of the inner wall of the sliding frame 201 to rotate relative to each other through bearings, and the electric rollers 202 are contacted with the inner and outer ring surfaces of the insulation frame 1. When the staff installs the infusion bottle in the insulation frame 1 and hangs it at a designated position in the patient's ward through the hook 105 for use, the staff pushes the sliding rheostat 204 to control the electric heating The temperature of the tube 203 is adjusted, and the servo motor matched with the electric roller 202 is turned on to drive the electric roller 202 to rotate on the surface of the insulation frame 1, and drive the sliding frame 201 to repeatedly rotate half a circle clockwise and half a circle counterclockwise on the side of the inner side of the slide groove B2, so that the electric heating tube 203 is constantly moving around the heat-conducting copper plate 3. The heat generated by the electric heating tube 203 will be absorbed by the heat-conducting copper plate 3, so that the temperature around the heat-conducting copper plate 3 rises, and the infusion bottle is evenly insulated. This can prevent the low-temperature liquid in the infusion bottle from causing discomfort to the patient's body, and improve the effect of uniformly insulating the infusion bottle.

[0027] Reference Figure 2-Figure 3 , further, the rotating uniform heat preservation mechanism is composed of teeth 301, a servo motor 4 and a gear 401;

[0028] A servo motor 4 is fixedly installed on the upper inner wall of the heat preservation frame 1 near the side of the heat-conducting copper plate 3. The servo motor 4 is connected to a gear 401 through an output shaft. A tooth 301 is fixedly installed on the outer ring of the heat-conducting copper plate 3. There are several teeth 301, which are arranged equidistantly around in a trapezoidal shape, and there is a meshing transmission arrangement between the gear 401 and the several teeth 301. When the electric heating tube 203 repeatedly rotates around the heat-conducting copper plate 3 in a half circle clockwise and a half circle counterclockwise, the staff turns on the servo motor 4 to drive the gear 401 to rotate several circles clockwise and counterclockwise. The dry ring rotates repeatedly, so that the gear 401 and the plurality of teeth 301 mesh and transmit, driving the heat-conducting copper plate 3 to rotate repeatedly through the bearing counterclockwise half a circle and clockwise half a circle, so that the heat around the heat-conducting copper plate 3 and the electric heating tube 203 is more evenly contacted, and the heat-conducting copper plate 3 absorbs the heat more evenly around, so that the heat is evenly distributed, and the temperature around the heat-conducting copper plate 3 rises to perform a more even insulation treatment on the infusion bottle, which can avoid uneven heat distribution, resulting in poor insulation effect on the medicine solution, and improve the effect of even insulation treatment on the infusion bottle.

[0029] Reference Figure 2-Figure 3 Furthermore, the electric heating tube 203 and the sliding rheostat 204 are electrically connected through a wire, the electric roller 202 is electrically connected to the battery through the matching servo motor and the control panel of the insulation rack 1, and the sliding rheostat 204 and the servo motor 4 are electrically connected to the battery through the control panel of the insulation rack 1.

[0030] Embodiment 2:

[0031] like Figure 4 , Figure 5 As shown, in addition to the embodiment in which a limiting groove 103 is embedded above the adjusting limiting frame 102, a plurality of limiting grooves 103 are arranged in parallel in an arc shape with equal distance, a limiting bracket 104 is rotatably arranged above the inner part of the slide groove A101 through a bearing, and the limiting bracket 104 is slidably arranged inside the limiting groove 103, there is another embodiment in which a limiting groove 103 is embedded above the adjusting limiting frame 102, a plurality of limiting grooves 103 are arranged in parallel with equal distance, and the limiting groove 104 is arranged in parallel in an arc shape with equal distance, and the limiting groove 104 is arranged in parallel in an arc shape with equal distance, and the limiting groove 104 is arranged in parallel in an arc shape with equal distance, and the limiting groove 103 ... 03 inner wall is inclined, a limit block 5 is slidably arranged on the upper part of the slide A101, and a corner below the limit block 5 is inclined, a damping telescopic rod B501 is fixedly installed between the upper part of the limit block 5 and the upper part of the inner wall of the slide A101, and a spring is matched with the outer side of the damping telescopic rod B501, and the limit block 5 is slidably arranged on the inner side of the limit slot 103. When the staff pushes the two adjustment limit frames 102 to expand on the inner side of the slide A101, the limit block 5 is squeezed and slidable. After the limit slot 103 drives the damping telescopic rod B501 and the outer spring to contract, and the adjustment limit frame 102 is unfolded, the damping telescopic rod B501 and the outer spring rebound limit block 5 slide into the relative inner side of the limit slot 103, the staff puts the infusion bottle upside down into the insulation rack 1, and pushes the two limit blocks 5 to slide out of the limit slot 103, driving the damping telescopic rod B501 and the outer spring to contract, and then pushes the adjustment limit frame 102 to slide in the relative direction inside the slide slot A101, so that the adjustment limit The inclined arc surface on the side of the rack 102 contacts both sides of the surface of the infusion bottle, and limits the infusion bottle inside the insulation rack 1. At the same time, it contacts and squeezes the limiting pressure plate 107 to drive the damping telescopic rod A106 and the outer spring to contract, so that the contracted damping telescopic rod A106 and the outer spring produce a reverse thrust on the limiting pressure plate 107, and the damping telescopic rod B501 and the outer spring rebound limiting block 5 slide into the inner side of the relative limiting groove 103 to press the infusion bottle. Compared with the first embodiment, the adjustment is more convenient and the limiting effect is better.

[0032] Working principle: First, the staff carries the infusion bottle to the designated patient ward. When the patient needs to be infused, the staff pushes the two limit brackets 104 to slide out of the limit slot 103 through the bearing rotation, loosens and pushes the two adjustment limit brackets 102 to unfold laterally inside the slide slot A101. Then, the staff puts the infusion bottle upside down into the insulation rack 1, and pushes the two adjustment limit brackets 102 to slide in opposite directions inside the slide slot A101, so that the side inclined arc surface of the adjustment limit bracket 102 contacts the two sides of the infusion bottle surface, and limits the infusion bottle in the insulation rack 1. When the infusion bottle is fixed, the staff pushes the two limit brackets 104 to rotate through the bearings, so that the limit brackets 104 slide into the inner side of the relative limit grooves 103 to limit and fix the limit bracket 102, and the limit installation of the infusion bottle is completed. If the staff needs to replace the infusion bottle of other specifications after installing the infusion bottle, they will push the limit bracket 102 in the same way to take it out. The staff then hangs the heat preservation rack 1 at the designated location in the patient's ward through the hook 105. The staff pushes the sliding rheostat 204 to control the temperature of the electric heating tube 203, and turns on the servo motor of the electric roller 202 to drive the electric roller 202 to rotate on the surface of the heat preservation rack 1, driving the sliding rack 201 to repeatedly rotate half a circle clockwise and half a circle counterclockwise on the side of the slide groove B2, so that the electric heating tube 203 continuously moves around the heat-conducting copper plate 3, and the heat generated by the electric heating tube 203 is transferred to the heat-conducting copper plate 3. 3 adsorption, so that the temperature around the heat-conducting copper plate 3 rises, and the infusion bottle is evenly insulated. Finally, the staff turns on the servo motor 4 to drive the gear 401 to rotate several times clockwise and several times counterclockwise, so that the gear 401 and several teeth 301 are engaged and driven, and the heat-conducting copper plate 3 is driven to rotate half a circle counterclockwise and half a circle clockwise through the bearing, so that the heat around the heat-conducting copper plate 3 and the electric heating tube 203 is more evenly contacted, and the heat-conducting copper plate 3 adsorbs the heat more evenly around, so that the heat is evenly distributed, and the infusion bottle is more evenly insulated by the temperature rise around the heat-conducting copper plate 3.

[0033] The above description is only a preferred embodiment of the present invention and is not intended to limit the present invention. Any modifications, equivalent substitutions and improvements made within the spirit and principles of the present invention should be included in the protection scope of the present invention.

Claims

1. An operating room infusion heat preservation nursing device, comprising a heat preservation frame (1), a hook (105), a slide groove B (2) and a heat-conducting copper plate (3), wherein the heat preservation frame (1) is fixedly mounted with a hook (105) on the top, the heat preservation frame (1) is embedded with slide grooves B (2) on both sides of the outer ring, and the slide grooves B (2) are arranged in an arc shape, and the heat-conducting copper plate (3) is rotatably arranged on the top of the heat preservation frame (1) through a bearing, characterized in that: An adjusting limit mechanism capable of installing and limiting infusion bottles of different specifications is arranged at the lower part of the interior of the heat preservation rack (1), movable heat preservation mechanisms capable of uniformly insulating infusion bottles are arranged on both sides of the interior of the heat preservation rack (1), and a rotating uniform heat preservation mechanism capable of uniformly insulating infusion bottles is arranged in the middle of the interior of the heat preservation rack (1).

2. The operating room infusion heat preservation nursing device according to claim 1, characterized in that: The adjustment and limiting mechanism is composed of a slide slot A (101), an adjustment and limiting frame (102), a limiting slot (103), a limiting clamping frame (104), a damping telescopic rod A (106) and a limiting pressure plate (107); Slide grooves A (101) are embedded on both sides of the heat preservation frame (1) near the bottom of the slide groove B (2); an adjustable limit frame (102) is slidably arranged on the side of the slide groove A (101); a limit groove (103) is embedded above the adjustable limit frame (102); a limit clamping frame (104) is rotatably arranged above the slide groove A (101) through a bearing, and the limit clamping frame (104) is slidably arranged inside the limit groove (103); damping telescopic rods A (106) are fixedly installed on both sides of the upper inner wall of the heat preservation frame (1); a spring is matched on the outer side of the damping telescopic rod A (106); and a limit pressing plate (107) is fixedly installed between the lower ends of the damping telescopic rod A (106).

3. The operating room infusion heat preservation nursing device according to claim 1, characterized in that: The mobile heat preservation mechanism is composed of a sliding frame (201), an electric roller (202), an electric heating pipe (203) and a sliding rheostat (204); A sliding frame (201) is slidably arranged on the side of the slide groove B (2), a sliding rheostat (204) is fixedly installed on the side of the inner wall of the sliding frame (201), an electric heating pipe (203) is fixedly installed on the side of the lower side of the sliding frame (201) close to the heat-conducting copper plate (3), and electric rollers (202) are arranged on both sides of the inner wall of the sliding frame (201) to rotate relative to each other through bearings, and the electric rollers (202) are arranged in contact with the inner and outer ring surfaces of the heat preservation frame (1).

4. The operating room infusion heat preservation nursing device according to claim 1, characterized in that: The rotating uniform heat preservation mechanism is composed of teeth (301), a servo motor (4) and a gear (401); A servo motor (4) is fixedly mounted on the upper inner wall of the heat-insulating frame (1) near the side of the heat-conducting copper plate (3); the servo motor (4) is connected to a gear (401) via an output shaft; teeth (301) are fixedly mounted on the outer ring of the heat-conducting copper plate (3); and the gear (401) and the plurality of teeth (301) are arranged in a meshing transmission arrangement.

5. The operating room infusion heat preservation nursing device according to claim 2, characterized in that: The side opposite surfaces of the adjustable limiting frame (102) are arranged in an inclined arc shape, and there are a plurality of limiting grooves (103) which are arranged in parallel at equal distances in an arc shape.

6. The operating room infusion heat preservation nursing device according to claim 4, characterized in that: There are a plurality of teeth (301) which are arranged in a trapezoidal shape and are equidistantly arranged around the teeth.

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