Integrated intravenous catheter and method of use thereof

Abstract

The present invention relates to the technical field of medical instruments, and in particular to an integrated intravenous catheter and a method of using the same, comprising a connecting plate and a needle, and further comprising: a first connecting tube connected to one end of the needle, the end of the first connecting tube away from the needle being connected to a connecting tube, and one end of the connecting tube being connected to a balloon; the present invention drives a transmission rod, a rotating rod and an elliptical wheel to rotate by turning on a micro motor, and with the cooperation of a compression spring, a movable column, etc., makes a ferrule and a connecting tube reciprocate up and down, and shakes the liquid medicine flowing inside the connecting tube up and down, so that the liquid medicine is fully premixed before entering the patient's body, and during the shaking of the connecting tube, the internal rotating rod and blades can also rotate, playing a role similar to stirring, further improving the premixing effect, so that the concentration distribution of the liquid medicine in the blood is more uniform, ensuring the medicinal properties, and avoiding the situation where the concentration distribution of the liquid medicine in the blood is uneven and affects the treatment effect.

Description

Technical Field

[0001] The present invention relates to the technical field of medical appliances, in particular to an integrated intravenous catheter and a method for using the same. Background Art

[0002] The core advantage of the integrated intravenous catheter lies in its multi-channel design, which allows medical personnel to connect multiple infusion or drug delivery lines at the same time. This feature is particularly important in complex treatment scenarios because it can ensure that multiple liquids or fluids are delivered to the patient at the same time in precise proportions and speeds. This not only simplifies the treatment process and reduces the risk of infection caused by frequent replacement of infusion lines, but also greatly improves the flexibility and accuracy of treatment. During the treatment process, patients may need to receive combined treatment of multiple liquids according to changes in their condition. The multifunctional characteristics of the integrated intravenous catheter make this combined treatment easy and efficient. As a highly specialized medical device, the integrated intravenous catheter plays an indispensable role in the treatment of patients with cardiovascular diseases. Such patients are often highly dependent on and sensitive to vasoactive liquids because vasoactive liquids can directly affect the contraction and relaxation of blood vessels, thereby regulating key physiological parameters such as blood pressure and blood flow. Through the application of integrated intravenous catheters, these complex treatment needs have been achieved more efficiently, safely and accurately. The design essence of the integrated intravenous catheter lies in its multi-channel or multifunctionality, which enables medical staff to connect multiple infusion or drug delivery lines at the same time. For patients with cardiovascular disease, this means that multiple vasoactive drugs, such as pressors, antihypertensive drugs, vasodilators or inotropes, can be infused at the same time to meet their complex and changing condition needs.

[0003] In the actual application of integrated intravenous catheters, although their original design intention is to improve the flexibility and efficiency of treatment, there is indeed a potential risk that the drug solution is not fully premixed during the flow in the catheter, but only merges and enters the patient's venous system together when it approaches the end of the catheter. This situation may lead to uneven distribution of drug concentration in the blood, which in turn has an adverse effect on the efficacy of the drug. The temperature of the drug should not be ignored. Since the drug is usually at a lower temperature during storage and transportation, when it enters the patient's body through an integrated intravenous catheter, if the temperature is not adjusted in advance, a large temperature difference will be formed with the patient's body temperature. This temperature difference will not only cause discomfort to the patient, such as local cold stimulation or chills, but may also affect the solubility and stability of the drug, thereby affecting its efficacy. Moreover, after the injection of the drug in a bottle is completed, a new bottle of drug is replaced. During the dressing process, the drug needs to go through a necessary transmission time to reach the end of the extension tube while flowing through the extension tube. During this period, the newly injected drug is still in a preliminary distribution state in the extension tube and has not yet been fully mixed. This non-uniform distribution state, coupled with the uneven flow rate that may occur during the subsequent drug discharge process or the time lag in the dressing operation, may cause significant fluctuations in the patient's heart rate and blood pressure, specifically manifested as a downward trend, which has a potential impact on the patient's physiological stability. Summary of the invention

[0004] The purpose of the present invention is to provide an integrated intravenous catheter, which can utilize the shaking of the pipeline to shake the medicine up and down to mix it, so that the medicine can enter the human body and be fully mixed, so that the distribution of the medicine in the blood is more uniform, and it can utilize the up and down reciprocating motion to generate heat to heat the medicine liquid flowing inside the pipeline to prevent the medicine liquid temperature from being too low to cause discomfort to the patient. At the same time, in the process of changing the medicine liquid, it can accelerate the flow of subsequent medicine liquid to further achieve full mixing of the medicine liquid, and prevent the time lag in the dressing change operation, which will cause the patient's heart rate and blood pressure to fluctuate significantly.

[0005] To achieve the above object, the present invention provides the following technical solution: an integrated intravenous catheter, comprising a connecting plate and a needle, and further comprising:

[0006] A first connecting tube connected to one end of the needle, wherein the end of the first connecting tube away from the needle is connected to a connecting tube, and one end of the connecting tube is connected to a balloon;

[0007] A second connecting tube is connected to the end of the balloon away from the connecting tube, the other end of the second connecting tube is connected to a multi-joint, and the inlet end of the multi-joint is connected to a plurality of third connecting tubes;

[0008] A first through ring fixed to the inlet end of the balloon, a first one-way cover being hingedly provided on the surface of the first through ring, a second through ring being hingedly provided on the outlet end of the balloon, a second one-way cover being hingedly provided on the surface of the second through ring;

[0009] A ferrule is arranged above the connecting plate, the ferrule is sleeved on the surface of the connecting tube, and a shaking mechanism for driving the ferrule to move up and down is also arranged on the surface of the connecting plate;

[0010] A heat generating mechanism for generating heat in cooperation with the shaking mechanism;

[0011] an auxiliary mixing mechanism used in conjunction with the shaking mechanism to perform mixing;

[0012] A strapping assembly that secures the connection plate to the patient's arm.

[0013] Preferably, the shaking mechanism includes a micro motor, a first gear and a second gear, the micro motor is bolted to the top of the connecting plate, the first gear and the output shaft of the micro motor are fixed to each other, the top of the connecting plate is also bolted to the first vertical plate and the second vertical plate respectively, the surface of the first vertical plate is rotatably connected to the transmission rod, the surface of the second vertical plate is rotatably connected to the rotating rod, the surface of the transmission rod is fixed with a second gear, and the second gear and the first gear are meshed with each other, both ends of the surface of the rotating rod are bolted with elliptical wheels, the end of the transmission rod close to the rotating rod is fixed with a second bevel gear, the surface of the rotating rod is fixed with a first bevel gear meshed with the second bevel gear, and the first bevel gear and the second bevel gear are meshed with each other, the shaking mechanism also includes a fixed rod bolted to the top of the connecting plate, the other end of the fixed rod is integrally designed with a collar, the bottom of the ferrule is also bolted with a movable column, and the movable column is slidably connected to the inner wall of the collar, the bottom end of the movable column is bolted with a circular plate, the top of the circular plate is fixed with a compression spring, and the other end of the compression spring is fixed to the collar, and the bottom of the ferrule is also fixed with a roller.

[0014] Preferably, the compression spring is sleeved on the surface of the movable column, and the diameter of the circular plate is larger than the outer diameter of the compression spring.

[0015] Preferably, the heat generating mechanism comprises a fixed plate, a friction plate and a heat conducting block, the fixed plate is bolted to the top of the connecting plate, the friction plate is bolted to the surface of the fixed plate, and the heat conducting block is arranged through the surface of the ferrule.

[0016] Preferably, the auxiliary mixing mechanism includes a bearing seat and a rotating rod, the bearing seat is fixed inside the connecting tube, the rotating rod is rotatably connected to the bearing seat, and the surface of the rotating rod is also integrated with blades, and the surface of the blades is penetrated by a plurality of circular holes.

[0017] Preferably, a soft pad is bonded to the bottom of the connecting plate, a plurality of first through holes are formed through the surface of the soft pad, and a second through hole interconnected with the first through holes is formed through the surface of the connecting plate.

[0018] Preferably, the binding assembly comprises a first strap and a second strap, the width of the first strap is the same as the width of the second strap, the surface of the first strap is sewn with a Velcro thorn surface, and the surface of the second strap is sewn with a Velcro fleece surface.

[0019] Preferably, a box body is bolted to the top of the connecting plate and on one side of the micro motor, a battery is arranged inside the box body, a charging socket is arranged through the surface of the box body, an operation button is also arranged on the top of the box body, and the operation button is electrically connected to the micro motor.

[0020] Preferably, the ferrule is designed to be semi-arc-shaped, and the material of the ferrule is elastic plastic.

[0021] Compared with the prior art, the present invention has the following beneficial effects:

[0022] 1. The present invention drives the transmission rod, the rotating rod and the elliptical wheel to rotate by turning on the micro motor, and with the cooperation of the compression spring, the movable column, etc., the ferrule and the connecting tube are reciprocated up and down, and the liquid medicine flowing inside the connecting tube is shaken up and down, so that the liquid medicine can be fully premixed before entering the patient's body. In addition, during the shaking of the connecting tube, the internal rotating rod and the blades can also rotate, playing a similar stirring role, further improving the premixing effect, so that the concentration distribution of the liquid medicine in the blood is more uniform, ensuring the medicinal properties, and avoiding the situation where the concentration distribution of the liquid medicine in the blood is uneven and affects the treatment effect.

[0023] 2. The present invention generates friction by shaking the sleeve up and down to drive the heat-conducting block to slide repeatedly along the surface of the friction plate. The frictional heat generation method is used to increase the temperature of the heat-conducting block, and the heat-conducting block transfers the heat to the inside of the connecting tube, slightly heating the medicine liquid flowing inside, so that the temperature of the medicine liquid rises and approaches the patient's own body temperature, preventing the patient from feeling uncomfortable due to the low temperature of the medicine liquid, improving the patient's comfort during the treatment process, and facilitating rehabilitation treatment.

[0024] 3. The present invention presses the balloon during the dressing change process, and then, with the cooperation of the first one-way cover and the second one-way cover, adopts a principle similar to a reciprocating pump to accelerate the flow of the medicine inside the first connecting tube and the second connecting tube, so that the subsequent dressing can quickly enter the connecting tube in the pipeline and be pre-mixed with other medicines, thereby reducing the delay of dressing change, further improving the pre-mixing effect, and preventing the time lag in the dressing change operation, which may cause significant fluctuations in the patient's heart rate and blood pressure. BRIEF DESCRIPTION OF THE DRAWINGS

[0025] Figure 1 It is a schematic diagram of the three-dimensional structure of the present invention;

[0026] Figure 2 It is a structural schematic diagram of another side viewing angle in the present invention;

[0027] Figure 3 It is a schematic diagram of the local structure of the present invention;

[0028] Figure 4 It is a structural schematic diagram of the connecting plate and its surroundings in the present invention;

[0029] Figure 5 For the present invention Figure 4 A schematic diagram of the enlarged structure at A in the middle;

[0030] Figure 6 It is a schematic diagram of the local structure of the connecting plate and its surface in the present invention;

[0031] Figure 7 It is a structural schematic diagram of the binding assembly in the present invention;

[0032] Figure 8 It is a schematic diagram of the heat conducting block and the ferrule after being separated in the present invention;

[0033] Fig. 9 It is a structural schematic diagram of the ferrule and its surface in the present invention;

[0034] Fig.10 is a cross-sectional view of the connecting tube in the present invention;

[0035] Fig.11 is a cross-sectional view of the balloon of the present invention;

[0036] Fig.12 It is a cross-sectional view of the box body in the present invention.

[0037] In the figure: 1, connecting plate; 2, needle; 3, first connecting tube; 4, connecting tube; 5, balloon; 6, second connecting tube; 7, multi-joint; 8, third connecting tube; 9, first through ring; 10, first one-way cover; 11, second through ring; 12, second one-way cover; 13, ferrule; 14, shaking mechanism; 141, micro motor; 142, first gear; 143, second gear; 144, first vertical plate; 145, transmission rod; 146, second vertical plate; 147, rotating rod; 148, first bevel gear; 149, elliptical wheel; 1410, roller; 1411, second bevel gear; 1412, fixed Rod; 1413, collar; 1414, movable column; 1415, compression spring; 1416, circular plate; 15, heat generating mechanism; 151, fixing plate; 152, friction plate; 153, heat conducting block; 16, auxiliary mixing mechanism; 161, bearing seat; 162, rotating rod; 163, blade; 164, circular hole; 17, box body; 18, binding assembly; 181, first binding strap; 182, Velcro thorn surface; 183, second binding strap; 184, Velcro fleece surface; 19, cushion; 20, first through hole; 21, second through hole; 22, battery; 23, charging socket; 24, operation button. DETAILED DESCRIPTION

[0038] The following will be combined with the drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention.

[0039] See also Figure 1-12, an integrated intravenous catheter, comprising a connecting plate 1 and a needle 2, the catheter also comprising a heat generating mechanism 15, an auxiliary mixing mechanism 16 and a binding assembly 18, one end of the needle 2 is connected with a first connecting tube 3, the end of the first connecting tube 3 away from the needle 2 is connected with a connecting tube 4, one end of the connecting tube 4 is connected with a balloon 5, the end of the balloon 5 away from the connecting tube 4 is connected with a second connecting tube 6, the other end of the second connecting tube 6 is connected with a multi-connector 7, the number of inlets of the multi-connector 7 is 2 or more, which is used to enter different liquid medicines, the inlet end of the multi-connector 7 is connected with a plurality of third connecting tubes 8, a first through ring 9 is fixed inside the inlet end of the balloon 5, a first one-way cover 10 is hingedly provided on the surface of the first through ring 9, the first one-way cover 10 can only be opened toward the inside of the balloon 5, and the outlet end of the balloon 5 is provided with a A second through ring 11 is provided, and a second one-way cover 12 is hingedly provided on the surface of the second through ring 11. The second one-way cover 12 can only be opened in the direction away from the balloon 5. A ferrule 13 is provided above the connecting plate 1. The ferrule 13 is designed in a semi-arc shape. The material of the ferrule 13 is elastic plastic. The ferrule 13 is sleeved on the surface of the connecting tube 4. The connecting tube 4 can be removed from the surface of the ferrule 13, together with other structures on the surface of the connecting plate 1 and below, can be detached from the connecting tube 4. The needle 2, the first connecting tube 3, the connecting tube 4, the balloon 5, the second connecting tube 6, the multi-joint 7, the third connecting tube 8 and the structure in the connecting tube 4 are all disposable items and are discarded after use. Other structures can be reused after sterilization to reduce the cost of use. The surface of the connecting plate 1 is also provided with a shaking mechanism 14 for driving the ferrule 13 to move up and down.

[0040] The binding assembly 18 includes a first binding strap 181 and a second binding strap 183. The width of the first binding strap 181 is the same as that of the second binding strap 183. Both the first binding strap 181 and the second binding strap 183 are made of elastic antibacterial fabrics, such as synthetic fibers such as polyester, polypropylene, and nylon. Antibacterial agents are added during the spinning process or in the subsequent processing process to make antibacterial fabrics. Such fabrics can inhibit the growth of bacteria through the action of antibacterial agents while maintaining the original elasticity of the fibers. The surface of the first binding strap 181 is sewn with a Velcro thorn surface 182, and the surface of the second binding strap 183 is sewn with a Velcro fur surface 184 , wrap the first strap 181 and the second strap 183 around the patient's arm, and then fix the connecting plate 1 on the patient's arm through the Velcro fur surface 184 and the Velcro thorn surface 182. A cushion 19 is also bonded to the bottom of the connecting plate 1. The cushion 19 is designed in an arc shape. The cushion 19 contacts the patient's arm to increase comfort. A plurality of first through holes 20 are penetrated on the surface of the cushion 19. A second through hole 21 that is interconnected with the first through hole 20 is penetrated on the surface of the connecting plate 1. The first through hole 20 and the second through hole 21 play a role of ventilation, thereby increasing the comfort of the patient when wearing it.

[0041] The shaking mechanism 14 includes a micro motor 141, a first gear 142 and a second gear 143. The micro motor 141 is bolted to the top of the connecting plate 1. The first gear 142 and the output shaft of the micro motor 141 are fixed to each other. The top of the connecting plate 1 is also bolted to the first vertical plate 144 and the second vertical plate 146 respectively. The surface of the first vertical plate 144 is rotatably connected to a transmission rod 145. The surface of the second vertical plate 146 is rotatably connected to a rotating rod 147. The surface of the transmission rod 145 is fixed with a second gear 143, and the second gear 143 is meshed with the first gear 142. Both ends of the surface of the rotating rod 147 are bolted to elliptical The circular wheel 149, the transmission rod 145 is fixed with a second bevel gear 1411 at one end close to the rotating rod 147, the first bevel gear 148 is fixed to the surface of the rotating rod 147, and the first bevel gear 148 and the second bevel gear 1411 are meshed with each other, the shaking mechanism 14 also includes a fixed rod 1412, and the fixed rod 1412 is bolted to the top of the connecting plate 1, and the other end of the fixed rod 1412 is integrally designed with a collar 1413, and the bottom of the ferrule 13 is also bolted with a movable column 1414, and the movable column 1414 is slidably connected to the inner wall of the collar 1413, and the bottom end of the movable column 1414 is bolted with a circular plate 1416, and the circular plate A compression spring 1415 is fixed to the top of 1416, and the other end of the compression spring 1415 is fixed to the ring 1413. The compression spring 1415 is sleeved on the surface of the movable column 1414. The diameter of the circular plate 1416 is larger than the outer diameter of the compression spring 1415. A roller 1410 is also fixed to the bottom of the sleeve 13. The compression spring 1415 gives a downward reaction force to the movable column 1414 and the circular plate 1416, which makes the roller 1410 close to the surface of the elliptical wheel 149, turning on the micro motor 141. The output shaft of the micro motor 141 drives the transmission rod 149 through the first gear 142 and the second gear 143. 45 rotates, and then the transmission rod 145 drives the rotating rod 147 to rotate through the second bevel gear 1411 and the first bevel gear 148, which drives the elliptical wheel 149 to rotate together, and makes the long radius end and the short radius end of the elliptical wheel 149 contact with the roller 1410 in turn. When the long end of the elliptical wheel 149 contacts with the roller 1410, the sleeve 13 moves upward, and drives the movable column 1414 and the circular plate 1416 to move upward, so that the compression spring 1415 is in a compressed state. When the short radius end of the elliptical wheel 149 contacts with the roller 1410, the sleeve 13 moves downward, thereby making the sleeve 13 reciprocate up and down.

[0042] A box body 17 is bolted to the top of the connecting plate 1 and on one side of the micro motor 141. A battery 22 is arranged inside the box body 17. A charging socket 23 is arranged on the surface of the box body 17. The charging socket 23 is used to charge the battery 22. The battery 22 is used to supply power to the micro motor 141. An operation button 24 is also arranged on the top of the box body 17, and the operation button 24 is electrically connected to the micro motor 141. The operation button 24 can control the opening or closing of the micro motor 141.

[0043] The heat generating mechanism 15 includes a fixed plate 151, a friction plate 152 and a heat conducting block 153. The fixed plate 151 is bolted to the top of the connecting plate 1, the friction plate 152 is bolted to the surface of the fixed plate 151, and the heat conducting block 153 is arranged through the surface of the ferrule 13. The surface of the heat conducting block 153 located on the inner side of the ferrule 13 is designed in an arc shape so as to adapt to the surface of the connecting tube 4. During the up and down movement of the ferrule 13, it can drive the heat conducting block 153 to reciprocate along the surface of the friction plate 152. The heat conducting block 153 and the friction plate 152 are both made of metal, while other components such as the first vertical plate 144, the first gear 142, the box body 17, the transmission rod 145, etc. can be made of plastic materials, such as plastic gears and plastic rods, to reduce the overall weight of the surface of the connecting plate 1. The heat conducting block 153 and the friction plate 152 are repeatedly rubbed to generate heat.

[0044] The auxiliary mixing mechanism 16 includes a bearing seat 161 and a rotating rod 162. The bearing seat 161 is fixed inside the connecting tube 4. The rotating rod 162 is rotatably connected to the bearing seat 161. The surface of the rotating rod 162 is also integrated with a blade 163. The surface of the blade 163 is penetrated by a plurality of circular holes 164. When the ferrule 13 shakes up and down, it can drive the connecting tube 4 to shake up and down together, so that the internal blades 163 and the rotating rod 162 tend to rotate, thereby achieving the effect of auxiliary mixing of the liquid medicine.

[0045] When working, first use the first strap 181 and the second strap 183 to surround the patient's arm, and fix the connecting plate 1 on the patient's arm with the Velcro thorn surface 182 and the Velcro fur surface 184. If the fixation is unstable, you can use medical tape to assist in fixing it. Then pick up the connecting tube 4 and press it into the inner side of the ferrule 13 to fix the connecting tube 4 and the ferrule 13. Then connect the third connecting tube 8 to different medicine bottles, and pick up the needle 2 and insert it into the patient's skin for intravenous injection. During the intravenous injection, turn on the micro motor 141, which drives the transmission rod 145 to rotate with the cooperation of the first gear 142 and the second gear 143, and can drive the rotating rod 147 to rotate with the cooperation of the first bevel gear 148 and the second bevel gear 1411, so that the elliptical wheel 149 rotates, and the ferrule 13 is pressed against the roller 1410 under the action of the compression spring 1415. The cooperation between the surface ring 1413 of the elliptical wheel 149 and the movable column 1414 enables the ferrule 13 to have space for up and down movement. The ferrule 13 reciprocates up and down and drives the connecting tube 4 to shake up and down, so that the different medicines entering the connecting tube 4 shake up and down to achieve mixing. In addition, during the shaking process, the rotating rod 162 and the blade 163 can also deflect slightly and slowly to achieve further auxiliary mixing, thereby achieving premixing of different medicines, making the concentration distribution of the medicines in the blood more uniform and ensuring the medicinal properties. In addition, the ferrule 13 drives the heat conducting block 153 to follow the up and down reciprocating movement. The heat conducting block 153 repeatedly rubs against the friction plate 152 to generate heat, which increases the temperature of the heat conducting block 153. In this way, the heat is transferred to the connecting tube 4 to heat the flowing medicine. Although the heating amplitude is not large, the temperature of the medicine is close to the human body temperature to prevent the medicine from being too cold and causing discomfort to the patient.

[0046] During the process of replacing the drug solution, after the subsequent drug solution bottle is connected, the balloon 5 is pressed to deflate the balloon 5, and the internal drug solution flows faster. During the normal flow of the drug solution, the first one-way cover 10 and the second one-way cover 12 can also be pushed open. At this time, the drug solution hits the first one-way cover 10 outward and cannot be opened, but the second one-way cover 12 can be opened. Then the balloon 5 is released, and a space is generated inside. However, the drug solution flowing from the inside of the second connecting tube 6 will subsequently flow faster and fill the balloon 5. The cooperation between the balloon 5, the first one-way cover 10 and the second one-way cover 12 is A principle similar to that of a reciprocating pump is formed, and the medicine liquid entering the connecting tube 4 will not flow back, so that the medicine liquid to be replaced subsequently enters the interior of the connecting tube 4 from the third connecting tube 8, the multi-connector 7, and the second connecting tube 6. In the process of replacing the medicine bottle, the entry of subsequent medicine liquid is accelerated, the delay in changing the medicine is reduced, and the patient's heart rate and blood pressure are prevented from fluctuating significantly during the dressing change process. At the same time, a flow regulator (existing technology, no further description is given here) is also arranged on the surface of the first connecting tube 3 and the third connecting tube 8 to independently adjust the flow rate to prevent discomfort caused by the accelerated flow of the medicine liquid.

[0047] It should be noted that, in this article, relational terms such as first and second, etc. are only used to distinguish one entity or operation from another entity or operation, and do not necessarily require or imply any such actual relationship or order between these entities or operations. Moreover, the terms "include", "comprise" or any other variants thereof are intended to cover non-exclusive inclusion, so that a process, method, article or device including a series of elements includes not only those elements, but also other elements not explicitly listed, or also includes elements inherent to such process, method, article or device. In the absence of further restrictions, the elements defined by the sentence "comprise a ..." do not exclude the existence of other identical elements in the process, method, article or device including the elements.

[0048] 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

1. An integrated intravenous catheter, comprising a connecting plate (1) and a needle (2), characterized in that: Also includes: A first connecting tube (3) connected to one end of the needle (2), an end of the first connecting tube (3) away from the needle (2) being connected to a connecting tube (4), and one end of the connecting tube (4) being connected to a balloon (5); A second connecting tube (6) is connected to the end of the balloon (5) away from the connecting tube (4), the other end of the second connecting tube (6) is connected to a multi-connector (7), and the inlet end of the multi-connector (7) is connected to a plurality of third connecting tubes (8); A first through ring (9) fixed to the inlet end of the balloon (5), a first one-way cover (10) being hingedly provided on the surface of the first through ring (9), a second through ring (11) being hingedly provided on the outlet end of the balloon (5), a second one-way cover (12) being hingedly provided on the surface of the second through ring (11); A ferrule (13) is arranged above the connecting plate (1), the ferrule (13) being sleeved on the surface of the connecting tube (4), and a shaking mechanism (14) for driving the ferrule (13) to move up and down is also arranged on the surface of the connecting plate (1), the shaking mechanism (14) comprising a micro motor (141), a first gear (142) and a second gear (143), the micro motor (141) being bolted to the top of the connecting plate (1), the first gear (142) and the output shaft of the micro motor (141) being fixed to each other, and the connecting tube (4) being provided with a plurality of gears (141) and a plurality of gears (142) being provided with a plurality of gears (143) and a plurality of gears (143 ...3) being provided with a plurality of gears (141) and a plurality of gears (143) being provided with a plurality of gears (1 The top of the connecting plate (1) is also bolted to a first vertical plate (144) and a second vertical plate (146), respectively; the surface of the first vertical plate (144) is rotatably connected to a transmission rod (145); the surface of the second vertical plate (146) is rotatably connected to a rotation rod (147); a second gear (143) is fixed to the surface of the transmission rod (145), and the second gear (143) and the first gear (142) are meshed with each other; both ends of the surface of the rotation rod (147) are bolted to elliptical wheels (149); the transmission rod (145) is close to the rotation rod (14 A second bevel gear (1411) is fixed to one end of the connecting plate (7), a first bevel gear (148) meshing with the second bevel gear (1411) is fixed to the surface of the rotating rod (147), and the first bevel gear (148) and the second bevel gear (1411) are meshed with each other, the shaking mechanism (14) further includes a fixing rod (1412) bolted to the top of the connecting plate (1), the other end of the fixing rod (1412) is integrally designed with a collar (1413), and a movable column (1414) is also bolted to the bottom of the clamping sleeve (13), and the movable column (1414) is movable to the bottom of the clamping sleeve (13). The column (1414) is slidably connected to the inner wall of the collar (1413); a circular plate (1416) is bolted to the bottom end of the movable column (1414); a compression spring (1415) is fixed to the top of the circular plate (1416); and the other end of the compression spring (1415) is fixed to the collar (1413); a roller (1410) is also fixed to the bottom of the clamping sleeve (13); the compression spring (1415) is sleeved on the surface of the movable column (1414); and the diameter of the circular plate (1416) is larger than the outer diameter of the compression spring (1415); A heat generating mechanism (15) for generating heat in cooperation with the shaking mechanism (14), the heat generating mechanism (15) comprising a fixing plate (151), a friction plate (152) and a heat conducting block (153), the fixing plate (151) being bolted to the top of the connecting plate (1), the friction plate (152) being bolted to the surface of the fixing plate (151), and the heat conducting block (153) being arranged through the surface of the ferrule (13); an auxiliary mixing mechanism (16) used in conjunction with the shaking mechanism (14) to perform mixing; A binding assembly (18) is used to fix the connecting plate (1) to the patient's arm.

2. An integrated intravenous catheter according to claim 1, characterized in that: The auxiliary mixing mechanism (16) comprises a bearing seat (161) and a rotating rod (162); the bearing seat (161) is fixed inside the connecting tube (4); the rotating rod (162) is rotatably connected to the bearing seat (161); a blade (163) is integrally designed on the surface of the rotating rod (162); and a plurality of circular holes (164) are formed through the surface of the blade (163).

3. The integrated intravenous catheter according to claim 1, characterized in that: A soft pad (19) is also bonded to the bottom of the connection plate (1), a plurality of first through holes (20) are formed through the surface of the soft pad (19), and a second through hole (21) communicating with the first through holes (20) is formed through the surface of the connection plate (1).

4. The integrated intravenous catheter according to claim 1, characterized in that: The binding assembly (18) comprises a first binding strap (181) and a second binding strap (183); the width of the first binding strap (181) is the same as the width of the second binding strap (183); a Velcro thorn surface (182) is sewn on the surface of the first binding strap (181); and a Velcro fleece surface (184) is sewn on the surface of the second binding strap (183).

5. The integrated intravenous catheter according to claim 1, characterized in that: A box body (17) is bolted to the top of the connecting plate (1) and located on one side of the micro motor (141); a storage battery (22) is arranged inside the box body (17); a charging socket (23) is arranged through the surface of the box body (17); an operating button (24) is also arranged on the top of the box body (17); and the operating button (24) is electrically connected to the micro motor (141).

6. The integrated intravenous catheter according to claim 1, characterized in that: The clamping sleeve (13) is designed to be semi-arc-shaped, and the material of the clamping sleeve (13) is elastic plastic.

Images