SUMMERY OF THE UTILITY MODEL
To the above situation, for overcoming the defect of prior art, the utility model provides an automatic cutting type safety protection edge tool box, be equipped with detachable on this edge tool box and cut the mechanism and will treat to cut the hose and put into to collecting the box in the time, can realize the shearing to the hose automatically, can realize fast when collecting the box in the waste gas syringe needle and can realize carrying out quick dismantlement to the blade that sets up on cutting the mechanism with the separation of collecting the box and under the condition of contactless blade when filling with waste gas syringe needle, whole process medical personnel can not contact the position that is infected with medical waste liquid easily, make this edge tool box use safelyr.
The automatic cutting type safety protection sharps box comprises a collecting box and is characterized in that a feeding hole is formed in the upper end of the collecting box, a plugging plate matched with the feeding hole is rotatably installed on the upper end face of the collecting box, a shearing cover is detachably installed on the upper end face of the collecting box, a shearing rod is rotatably installed on the shearing cover, a blade is vertically and slidably installed at the bottom of the shearing rod, a limiting device for limiting the blade is arranged on the shearing rod, a first arc-shaped hole is formed in the upper end face of the shearing cover, and a butting plate matched with the blade is arranged on one side of the first arc-shaped hole;
collect box up end and be equipped with special-shaped hole and special-shaped hole one end diameter and be greater than other end diameter, it is equipped with the round hole with special-shaped hole matched with to cut the lid up end, be equipped with the second arc hole on the shutoff board.
Preferably, the center of the lower end face of the shearing cover is rotatably provided with an unlocking gear, two sides of the unlocking gear are respectively matched with an unlocking rack which is slidably arranged on the shearing cover, two axial sides of the collecting box are respectively provided with a locking hole matched with the unlocking rack, and a locking spring is connected between the unlocking rack and the shearing cover.
Preferably, the bottom of the shearing rod is integrally connected with a rectangular block, the blade is vertically and slidably mounted on the rectangular block, the limiting device comprises a pressing rod which is vertically and slidably mounted in the shearing rod and coaxially arranged with the shearing rod, a pressing spring is connected between the pressing rod and the shearing rod, connecting rods are respectively rotatably mounted on two sides of the bottom of the pressing rod, limiting columns which are slidably mounted with the rectangular block are rotatably mounted at the other ends of the two connecting rods, and the limiting columns extend out of the lower end face of one end of the rectangular block to be chamfered;
the shearing rod is located the rectangular block top and installs with the axle center butt ring and the distance is the same with blade thickness between the terminal surface under the butt ring and two spacing post up end.
Preferably, the pressing rod upwards stretches out shear bar one end and is equipped with handle and handle lower terminal surface and is connected with the touch bar, the vertical slidable mounting of touch bar lower extreme has telescopic link and is connected with expanding spring between the touch bar.
Preferably, the upper end face of the shearing cover is provided with an arc-shaped groove matched with the abutting rod.
Preferably, a deflector rod is integrally arranged on an unlocking rack which is connected with a locking spring between the shearing cover and the unlocking rack;
preferably, the shearing cover is provided with a motor, the motor drives an incomplete gear which is rotatably arranged on the shearing cover, and the incomplete gear is matched with a shearing gear which is sleeved and fixed on the shearing rod.
The beneficial effects of the technical scheme are as follows:
be equipped with detachable on this edge tool box and cut the mechanism and will treat to cut the hose and put into to collecting the box in the time, can realize automatically through setting up the shearing of the blade on cutting the mechanism to the hose, fill with waste gas syringe needle and need throw away when collecting the box in, we can realize fast will cutting the mechanism and collect the separation of box and can realize carrying out quick dismantlement to the blade that sets up on cutting the mechanism under the condition of contactless blade, whole process medical personnel can not contact the position that is infected with easily and has medical waste liquid, make this edge tool box use safer, medical personnel have also been reduced simultaneously and have produced cross infection's risk at the shearing in-process.
Detailed Description
The foregoing and other technical matters, features and effects of the present invention will be apparent from the following detailed description of the embodiments with reference to the accompanying drawings in which fig. 1 to 11 are incorporated, and the structural matters in the embodiments are all referred to in the following description.
Example 1 this example provides an automatic cutting safety guard sharps container, as shown with reference to fig. 1, comprising a collection container 1, it is characterized in that as shown in figure 3, a feed inlet 2 is arranged at the upper end of a collecting box 1, a plugging plate 3 matched with the feed inlet 2 is rotatably arranged on the upper end surface of the collecting box 1, a second arc-shaped hole 27 matched with the feed inlet 2 is arranged on the plugging plate 3 (when the collecting box 1 is in a use state, the second arc-shaped hole 27 arranged on the plugging plate 3 and the feed inlet 2 arranged at the upper end of the collecting box 1 are in a corresponding state), preferably, a friction damping mechanism (the friction damping mechanism can be a friction damping ring or a friction damping washer) is arranged at the rotatably arranged part of the plugging plate 3 and the upper end surface of the collecting box 1, the device is used for increasing the rotational friction resistance between the plugging plate 3 and the lower end surface of the collecting box 1 so as to ensure that the plugging plate 3 cannot easily rotate relative to the collecting box 1;
a shearing cover 4 coaxially arranged with a collecting box 1 is detachably arranged on the upper end surface of the collecting box 1 (a first arc-shaped hole 7 is arranged on the shearing cover 4, when the shearing cover 4 is loaded on the collecting box 1, the first arc-shaped hole 7 arranged on the shearing cover 4 corresponds to a feed inlet 2 arranged on the upper end of the collecting box 1), a shearing rod 5 is rotatably arranged at the central position of the shearing cover 4, a blade 6 is vertically and slidably arranged at the lower end of the shearing rod 5, a limiting device for the blade 6 is arranged on the shearing rod 5, when the blade 6 is arranged on the shearing rod 5 from bottom to top, the limiting device can realize the limiting effect on the blade 6, as shown in figure 5, an abutting plate 9 is arranged on the shearing cover 4 (the abutting plate 9 is arranged in the shearing cover 4 positioned on one side of the first arc-shaped hole 7), as shown in figure 1, the blade 6 is initially positioned at a position close to one side of the first arc-shaped hole 7, when the medical staff uses the edge tool box, one end, with a needle, of a used infusion tube is firstly placed into the collection box 1 through the first arc-shaped hole 7, the second arc-shaped hole 27 and the feed inlet 2, then the cutting rod 5 is rotated to further synchronously drive the blade 6 to rotate from the position shown in the attached drawing 1 to the position shown in the attached drawing 2, so that the infusion hose is extruded to the position abutting against the abutting plate 9 under the action of the blade 6, then the infusion hose is cut under the action of the blade 6, and the needle connected with the infusion hose falls downwards into the collection box 1, so that the effect of collecting the infusion needle is achieved (the phenomenon that the infusion needle is placed randomly to cause puncture or other secondary injuries is avoided);
when the collection box 1 is filled with infusion needles, the collection box 1 and the waste needles in the collection box 1 need to be thrown away together (i.e. the collection box 1 and the needles in the collection box 1 are uniformly treated according to corresponding standards), at this time, the cutting cover 4 and the collection box 1 body need to be separated, and then the limiting device arranged on the cutting cover 4 is controlled to release the limiting on the blade 6, so that the blade 6 falls into the collection box 1 from top to bottom under the action of the self gravity;
the medical staff is not required to directly contact with the blade 6 in the whole process of shearing the transfusion hose and disassembling the blade 6, and further the part which is easily contaminated by waste liquid is not contacted, so that the medical staff is safer in the process of using the edge tool box, and the occurrence of cross infection is avoided;
referring to fig. 3, after we finish separating shearing lid 4 and collection box 1, we rotated closure plate 3 afterwards and made closure plate 3 not offer second arc hole 27 position and will set up in the feed inlet 2 of collecting box 1 up end and carry out the shutoff (we rotated the installation position at closure plate 3 and collection box 1 up end and were equipped with friction damping mechanism, can realize the locate effect to closure plate 3 certain degree), thereby avoid producing the emergence of rotating and leading to collecting the syringe needle and the outside condition of revealing of waste liquid in the box 1 to collection box 1 transportation in closure plate 3.
Referring to fig. 3, we have a special-shaped hole 14 on the upper end face of the collecting box 1, and the diameter of one end of the special-shaped hole 14 is larger than that of the other end, we have a round hole 8 corresponding to the special-shaped hole 14 on the cutting cover 4, we can recover the needle directly connected with the needle tube through the special-shaped hole 14, i.e. we insert the end of the needle tube where the needle is installed into the collecting box 1 through the round hole 8, the second arc-shaped hole 27 and the end with larger diameter of the special-shaped hole 14, then we take the needle tube along the special-shaped hole 14 and make the needle installed on the needle tube move along the special-shaped hole 14 towards the end with smaller diameter, at this time, the upper end face of the needle tube near one end of the needle tube is abutted against the wall of the special-shaped hole 14 and can not move upwards from the end with smaller diameter of the special-shaped hole 14, at this time, we lift the needle tube upwards and then withdraw the needle installed on the needle tube downwards under the action of the special-shaped hole 14, therefore, the effect of taking down the needle head mounted on the needle tube under the condition of not contacting the needle tube and the needle head is realized.
Embodiment 2, on the basis of embodiment 1, referring to fig. 4, we rotatably install an unlocking gear 10 at the center position of the lower end surface of a shear cover 4, and respectively match with unlocking racks 11 slidably installed on the shear cover 4 at both sides of the unlocking gear 10, referring to fig. 3, we respectively install locking holes 12 matched with the unlocking racks 11 at both axial sides of the upper end of a collection box 1, referring to fig. 6, we connect a locking spring 13 between one unlocking rack 11 and the shear cover 4, in specific use, referring to fig. 3, when we install the shear cover 4 on the collection box 1, we first pull one unlocking rack 11 and make the locking spring 13 connected between the unlocking rack 11 and the shear cover 4 in a compressed state (at this time, both ends of the two unlocking racks 11 are respectively retracted into the shear cover 4), then, the shearing cover 4 is placed on the upper end face of the collecting box 1, then the acting force applied to one of the unlocking racks 11 is removed, at the moment, one ends, far away from the unlocking gears 10, of the two unlocking racks 11 are respectively abutted to the upper end face of the collecting box 1 under the action of the locking springs 13, then the shearing cover 4 is slowly rotated, so that when one ends, far away from the unlocking gears 10, of the two unlocking racks 11 are rotated to positions corresponding to the two locking holes 12 formed in the upper end face of the collecting box 1, one ends, far away from the unlocking gears 10, of the two unlocking racks 11 are respectively inserted into the corresponding locking holes 12 under the action of the locking springs 13, and the effect of installing the shearing cover 4 on the upper end face of the collecting box 1 is achieved;
when the collection box 1 is filled with needles and the collection box 1 and the needles in the collection box 1 need to be processed in a unified manner, the shearing cover 4 needs to be separated from the collection box 1, and at the moment, only one unlocking rack 11 needs to be pulled to drive the two unlocking racks 11 to synchronously move in opposite directions through the unlocking gear 10 (as shown in the attached drawing 6), so that one end of the two unlocking racks 11, which is matched with the locking hole 12, is driven to withdraw from the locking hole 12, and the effect of rapidly completing separation of the shearing cover 4 and the collection box 1 is achieved.
Embodiment 3, on the basis of embodiment 2, referring to fig. 8, we integrally connect a rectangular block 15 to the bottom of a shear bar 5, and vertically slide-mount a blade 6 on the rectangular block 15 (we have a square hole matching with the rectangular block 15 at a corresponding position on the blade 6), when we need to mount the blade 6 on the shear bar 5, referring to fig. 9, we first adjust the square hole on the blade 6 and the rectangular block 15 to a corresponding position, and then drive the blade 6 to slide upward along the rectangular block 15 from bottom to top so that the upper end surface of the blade 6 touches the limiting posts 19 slidably mounted on both sides of the rectangular block 15, and force the two limiting posts 19 to retract into the rectangular block 15 (we set the lower end surfaces of the two limiting posts 19 with rounded corners, when the upper end surface of the blade 6 contacts the limiting posts 19, the limiting posts 19 are forced to retract into the rectangular block 15, when the two limit posts 19 shrink into the rectangular block 15, the pressing rod 16 is driven by the connecting rod 18 which is rotatably installed with the rectangular block to synchronously move downwards along the shearing rod 5, so that the pressing spring 17 connected between the pressing rod 16 and the shear rod 5 is in a compressed state), so that when the two limit posts 19 are completely contracted into the rectangular block 15, the blade 6 is continuously moved upwards to enable the lower end of the blade 6 to face upwards and completely cross the limit posts 19, the two limit posts 19 start to synchronously extend outwards from the rectangular block 15 towards the direction away from each other under the action of the pressing spring 17, as shown in fig. 9, we have fixedly mounted coaxially on the shear bar 5 an abutment ring 20 so that when the blade 6 moves up just beyond the two restraining posts 19, the upper end surface of the blade 6 and the lower end surface of the abutting ring 20 are mutually abutted (as shown in fig. 8), and at this time, the blade 6 is just in a limited state (the installation of the blade 6 is realized) under the action of the two limiting columns 19 and the abutting ring 20;
when the blade limiting device is arranged, the distance between the abutting ring 20 and the upper end faces of the two limiting columns 19 is the same as the thickness of the blade 6, and therefore a good limiting effect on the blade 6 can be achieved;
when we need to dismantle blade 6 and abandon, we only need press down press bar 16 and then drive two spacing posts 19 through the connecting rod 18 with press the rotation installation of press bar 16 bottom and contract in this case rectangular block 15 to when two spacing posts 19 contract completely to rectangular block 15 in, blade 6 no longer receives spacing and begin to drop downwards under its self action of gravity, finally drop to collecting box 1 in, whole operation process medical personnel need not with used blade 6 direct contact, improved medical personnel's safety protection.
Embodiment 4, on the basis of embodiment 3, referring to fig. 8, we have a handle 21 at one end of the pressing rod 16 extending upward out of the cutting rod 5, and a contact rod 22 is connected to the lower end surface of the handle 21, so that we have a handle 21 at one end of the pressing rod 16 extending upward out of the cutting rod 5 in order to make the medical staff better operate the pressing rod 16 (increasing the force-bearing area, making the medical staff feel more comfortable when pressing the pressing rod 16);
we fix a vertically extending abutting rod 22 on the lower end face of the handle 21, and the abutting rod 22 is engaged with a telescopic rod 23 whose lower end face abuts against the upper end face of the blade 6 through a telescopic spring 24, as shown in fig. 10, when we press the pressing rod 16 downwards and further make the two limit posts 19 completely contract into the rectangular block 15, in order to prevent the blade 6 from falling down smoothly under its own gravity action, we drive the abutting rod 22 to move downwards synchronously when pressing the pressing rod 16 downwards, because initially, the lower end face of the telescopic rod 23 contacts with the upper end face of the blade 6, the telescopic spring 24 connected between the telescopic rod 23 and the abutting rod 22 is compressed along with the downward movement of the pressing rod 16, so that when the two limit posts 19 completely contract into the rectangular block 15, at this time, the blade 6 receives a downward acting force from the telescopic spring 24, the blade 6 can be smoothly dropped downward.
Embodiment 5, on the basis of embodiment 4, referring to fig. 7, we have an arc-shaped slot 25 on the upper end surface of the shear cover 4, which is matched with the interference rod 22, and we can synchronously drive the interference rod 22 to rotate when we rotate the shear rod 5, so we have an arc-shaped slot 25 on the shear cover 4, which is matched with the rotation path of the interference rod 22, to match the rotation of the interference rod 22 with the shear cover 4.
Embodiment 6, on the basis of embodiment 2, referring to fig. 2, a shift lever 26 is integrally arranged on an unlocking rack 11 connected with a locking spring 13 between the shear cover 4 and the shift lever 26, and the shift lever 26 is shifted to drive the two unlocking racks 11 to synchronously move towards or away from each other;
in this embodiment, the cutting cover 4 is not a complete circular cover, and as shown in fig. 2, a portion of the cover body is provided with a notch for exposing the driving lever 26 to the outside, which is convenient for the medical staff to operate.
Embodiment 7, on the basis of embodiment 1, in order to automatically realize the cutting of the infusion hose, we have a motor 28 (only a micro motor) on the cutting cover 4, the motor 28 drives an incomplete gear 30 rotatably mounted on the cutting cover 4, the incomplete gear 30 is matched with a cutting gear 29 fixedly sleeved on the cutting rod 5, when the infusion hose needs to be cut, we control the motor 28 to start working through a controller, and drive the cutting gear 29 fixedly sleeved on the cutting rod 5 to rotate through the incomplete gear 30, so as to drive the cutting rod 5 to rotate, and finally realize the effect of driving the blade 6 to rotate, we control the rotation angle and the forward and reverse rotation of the motor 28 through the motor 28 controller (the motor 28 controller is an integrated circuit which controls the motor 28 to work according to the set direction, speed, angle and response time through active working), so that when the blade 6 moves from the initial position (as shown in fig. 2) to the position of the abutting plate 9 (as shown in fig. 1), the motor 28 stops working, the cutting of the infusion hose is completed, and then the controller of the motor 28 controls the motor 28 to rotate reversely by the same angle, so that the blade 6 is reset.
Be equipped with detachable on this edge tool box and cut the mechanism and will treat to cut the hose and put into to collecting box 1 in the time, can realize the shearing to the hose automatically through setting up blade 6 on cutting the mechanism, when collecting box 1 in full waste gas syringe needle and need throw away, we can realize fast will cutting the mechanism and collect box 1's separation and can realize carrying out quick dismantlement to the blade 6 that sets up on cutting the mechanism under the condition of contactless blade 6, whole process medical personnel can not contact the position that is infected with easily and has medical waste liquid, make this edge tool box use safer, medical personnel's the risk that produces cross infection at the shearing in-process has also been reduced simultaneously.
The above description is only for the purpose of illustration, and it should be understood that the present invention is not limited to the above embodiments, and various modifications conforming to the spirit of the present invention are within the scope of the present invention.