Automatic connecting equipment for laryngeal mask production

Abstract

The invention relates to the technical field of plastic connection, in particular to automatic connection equipment for laryngeal mask production. Comprising a machine base and a support on the machine base. The upper end of the bracket is fixedly connected with an electric push rod; a high-frequency wave source is arranged in the machine base; an output shaft of the electric push rod is fixedly connected with the upper seat; the lower part of the upper seat is connected with an upper mold; a lower mold corresponding to the upper mold is arranged on the upper surface of the machine base; a pressing part is convexly arranged on the lower surface of the upper mold; the upper mold is formed by combining a plurality of upper sub-molds which are laterally distributed; the adjacent upper sub-molds are in sliding sealing contact; an upper sliding hole is formed in the lower surface of the upper seat; an upper sliding rod is connected into the upper sliding hole in a sliding manner; according to the invention, the upper sub-mold and the lower sub-mold with odd and even digits are controlled to be separated from the air bag interface position before demolding, so that the unsticking is carried out under the condition that the air bag interface position is clamped, and the subsequent smooth demolding of the air bag under the condition of no mold sticking is ensured.

Description

Technical Field

[0001] The invention relates to the technical field of plastic connection, in particular to an automatic connection device for laryngeal mask production. Background Art

[0002] The laryngeal mask airway, also known as the laryngeal mask, was invented by a British anesthesiologist in the early 1980s and was officially approved by the US FDA and entered the market in 1991. The laryngeal mask has the advantages of easy insertion, high blind insertion success rate, little effect on hemodynamics, and few complications, and is becoming increasingly mature in clinical application.

[0003] The structure of the laryngeal mask is mainly composed of a ventilation tube, an air bag and an inflation tube. The air bag can be divided into a circular air bag body and a concave air bag bottom. In the production process of the laryngeal mask, the air bag body and the air bag bottom are produced separately, and then the two are connected, and glue is applied to the connection for bonding, and vulcanized in a high temperature and high humidity environment to finally obtain the air bag product.

[0004] Since the inner edge of the bladder and the bladder bottom in the airbag are bonded together, there is a risk of glue falling off during the use of the laryngeal mask, which may cause harm to the human body if it falls into the patient's mouth. With the iteration of technology, a technology that uses hot melting to connect the bladder and the bladder bottom in the airbag has appeared in the market. After searching, it was found that the patent number is CN111660570B, and the patent name is a laryngeal mask, hot melting welding method and hot melting welding equipment, which records the technical content. The technology is to use two molds to press and hot melt the overlapping part of the inner edge of the bladder and the upper surface of the bladder bottom in the airbag to achieve the airbag connection of the laryngeal mask. In the process of completing the connection between the bladder and the bladder bottom in the airbag, the mold and the connection position of the bladder and the bladder bottom in the airbag may stick to each other, which will make demolding difficult. In addition, since the connection position of the bladder and the bladder bottom in the airbag is unstable after the connection is just completed, forced demolding will cause the risk of tearing at the connection position of the bladder and the bladder bottom, affecting the quality of the airbag in the laryngeal mask after connection. Summary of the invention

[0005] In order to make up for the shortcomings of the prior art, the present invention proposes an automatic connection device for laryngeal mask production. The present invention controls the upper and lower sub-molds of odd and even digits to separate from the airbag interface position before demolding, thereby debonding the airbag interface position when it is clamped, thereby ensuring that the subsequent airbag can be demolded smoothly without sticking to the mold.

[0006] The technical solution adopted by the present invention to solve its technical problems is: the automatic connection equipment for laryngeal mask production described in the present invention comprises a machine base and a bracket on the machine base; the upper end of the bracket is fixedly connected to an electric push rod; a high-frequency source is arranged in the machine base; the output shaft of the electric push rod is fixedly connected to the upper seat; the lower part of the upper seat is connected to an upper mold; a lower mold corresponding to the upper mold is arranged on the upper surface of the machine base; a pressing part is convexly arranged on the lower surface of the upper mold; the upper mold is composed of a plurality of laterally distributed upper sub-molds; adjacent upper sub-molds are in sliding sealing contact; an upper sliding hole is arranged on the lower surface of the upper seat; an upper sliding rod is slidably connected in the upper sliding hole; the The upper end of the upper slide rod is connected to the bottom of the upper slide hole by an upper tension spring; the lower end of the upper slide rod is fixedly connected to the corresponding upper split mold; the same upper split mold is connected to two upper slide rods; the lower surface of the upper seat is provided with an upper rotating groove along the lateral direction; the upper motor is fixedly connected in the upper rotating groove; the output shaft of the upper motor is fixedly connected to the upper rotating rod; the outer wall of the upper rotating rod is provided with an upper top bar along the axial direction; the upper top bar spans over multiple upper split molds; the outer wall of the upper rotating rod is provided with multiple upper even blocks and multiple upper odd blocks along the axial direction; the upper even blocks are located directly above the upper split molds at the even positions in the lateral direction; the upper odd blocks are located directly above the upper split molds at the odd positions in the lateral direction.

[0007] Preferably, the upper even-numbered blocks and the upper odd-numbered blocks are staggered with the upper top bar on the circumferential outer wall of the upper rotating rod; the upper even-numbered blocks and the upper odd-numbered blocks are transitioned to the upper top bar through the upper transition blocks.

[0008] Preferably, the lower surface of the lower mold is provided with a first placement cavity and a second placement cavity; the lower mold is composed of a plurality of laterally distributed lower sub-molds; adjacent lower sub-molds are in sliding sealed contact; a lower slide hole is provided on the upper surface of the machine base; a lower slide rod is slidably connected in the lower slide hole; the lower end of the lower slide rod is connected to the bottom of the lower slide hole by a lower tension spring; the upper end of the lower slide rod is fixedly connected to the corresponding lower sub-mold; two lower slide rods are connected to the same lower sub-mold; the upper surface of the machine base is provided with a laterally penetrating A lower rotating groove is provided; a lower motor is fixedly connected to the lower rotating groove; an output shaft of the lower motor is fixedly connected to a lower rotating rod; a lower top bar is axially provided on the outer wall of the lower rotating rod; the lower top bar spans over a plurality of lower sub-moulds; a plurality of lower even blocks and a plurality of lower odd blocks are axially provided on the outer wall of the lower rotating rod; the lower top bar, the lower even blocks and the lower odd blocks can extend out of the lower rotating groove when the lower rotating rod rotates; the lower even blocks are located directly below the lower sub-moulds at the even positions in the lateral direction; the lower odd blocks are located directly below the lower sub-moulds at the odd positions in the lateral direction.

[0009] Preferably, the lower even-numbered blocks and the lower odd-numbered blocks are staggered with the lower top bar on the circumferential outer wall of the lower rotating rod; the lower even-numbered blocks and the lower odd-numbered blocks are transitioned to the lower top bar through the lower transition blocks.

[0010] Preferably, the lower odd-numbered blocks flip upwards while the upper odd-numbered blocks flip downwards; and the lower even-numbered blocks flip upwards while the upper even-numbered blocks flip downwards.

[0011] Preferably, the front sides of the upper sub-molds at odd-numbered positions laterally downward are commonly fixedly connected to the upper front connecting strip; and the rear sides of the upper sub-molds at even-numbered positions laterally downward are commonly fixedly connected to the upper rear connecting strip.

[0012] Preferably, the front sides of the lower sub-molds at the odd-numbered positions facing downward are commonly fixedly connected to the lower front connecting strip; and the rear sides of the lower sub-molds at the even-numbered positions facing downward are commonly fixedly connected to the lower rear connecting strip.

[0013] Preferably, the upper sliding hole is slidably sealed with the upper sliding rod; the upper sliding holes in odd positions are penetrated upward with upper odd holes; the upper sliding holes in even positions are penetrated upward with upper even holes; the apertures of the upper odd holes and the upper even holes increase as they move away from the upper mold.

[0014] Preferably, the downward sliding hole is slidably sealed with the downward sliding rod; the downward sliding holes at odd positions are penetrated downwardly with lower odd holes; the downward sliding holes at even positions are penetrated downwardly with lower even holes; the apertures of the lower odd holes and the lower even holes increase as they are away from the lower mold.

[0015] The beneficial effects of the present invention are as follows:

[0016] 1. The present invention controls the upper and lower sub-molds of odd and even numbers to separate from the airbag interface position before demoulding, thereby debonding the airbag interface position when it is clamped, thereby ensuring that the subsequent airbag can be demoulded smoothly without sticking to the mold.

[0017] 2. The present invention connects the odd-numbered upper sub-molds into a whole through the connection of the upper front connecting strip, so that the odd-numbered upper sub-molds can gather the odd-numbered tension springs to move upward together, thereby ensuring the debonding efficiency and effect of the odd-numbered upper sub-molds. After the airbag interface position is pressed tightly by the odd-numbered upper sub-molds and the lower sub-molds, the upper tension spring will synchronously pull the even-numbered upper sub-molds to move upward, and the lower tension spring will synchronously pull the even-numbered lower sub-molds to move downward, thereby ensuring the debonding efficiency and effect of the even-numbered upper sub-molds and the lower sub-molds.

[0018] 3. In the process of the upper slide bar sliding upward along the upper slide hole of the present invention, the gas in the upper slide hole can only be slowly discharged to the outside, so that the resistance formed by the upper slide bar moving downward in the upper slide hole is smaller, and the speed of the upper slide bar moving upward in the upper slide hole is slower. In this way, on the one hand, the resistance to the downward movement of the upper mold is reduced, and on the other hand, the upper mold can be separated from the airbag interface position at a slow speed, reducing the damage caused by the upper mold quickly separating from the airbag interface, thereby achieving the purpose of further protecting the airbag interface. BRIEF DESCRIPTION OF THE DRAWINGS

[0019] The present invention is further described below in conjunction with the accompanying drawings and implementation modes.

[0020] Figure 1 is a stereogram of the present invention;

[0021] Figure 2 yes Figure 1 A stereogram from another angle;

[0022] Figure 3 is a cross-sectional view of the present invention;

[0023] Figure 4 yes Figure 3 The enlarged view of point A in the middle;

[0024] Figure 5 yes Figure 3 The enlarged view of point B in the middle;

[0025] Figure 6 It is a three-dimensional diagram of the upper mold and the lower mold in the present invention;

[0026] Figure 7 yes Figure 6 A stereogram from another angle;

[0027] Figure 8 It is a three-dimensional diagram of the lower mold in the present invention;

[0028] Fig. 9 It is a three-dimensional diagram of the upper mold in the present invention.

[0029] In the figure: base 1, lower sliding hole 11, lower sliding rod 12, lower tension spring 13, lower rotating groove 14, lower motor 15, lower odd-numbered hole 16, lower even-numbered hole 17, bracket 2, electric push rod 21, upper seat 3, upper sliding hole 31, upper sliding rod 32, upper tension spring 33, upper rotating groove 34, upper motor 35, upper odd-numbered hole 36, upper even-numbered hole 37, upper mold 4, pressing part 41, upper split mold 42, upper front connecting strip 43, upper rear connecting strip 44, lower mold 5, first placement cavity 51, second placement cavity 52, lower split mold 53, lower front connecting strip 54, lower rear connecting strip 55, upper rotating rod 6, upper top strip 61, upper even-numbered block 62, upper odd-numbered block 63, upper transition block 64, lower rotating rod 7, lower top strip 71, lower even-numbered block 72, lower odd-numbered block 73, lower transition block 74. DETAILED DESCRIPTION

[0030] 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 explained below in conjunction with specific implementation methods.

[0031] like Figures 1 to 9 As shown, the present invention includes the following embodiments:

[0032] Embodiment 1: An automatic connection device for laryngeal mask production, comprising a machine base 1 and a bracket 2 on the machine base 1; the bracket 2 is fixedly connected to an electric push rod 21 at one end; a high-frequency source is provided in the machine base 1; the output shaft of the electric push rod 21 is fixedly connected to an upper seat 3; an upper mold 4 is connected below the upper seat 3; a lower mold 5 corresponding to the upper mold 4 is provided on the upper surface of the machine base 1; a pressing portion 41 is protruding from the lower surface of the upper mold 4; the upper mold 4 is composed of a plurality of laterally distributed upper sub-molds 42; adjacent upper sub-molds 42 are in sliding and sealing contact; an upper sliding hole 31 is provided on the lower surface of the upper seat 3; an upper sliding rod 32 is slidably connected in the upper sliding hole 31; the upper end of the upper sliding rod 32 is in contact with the bottom of the upper sliding hole 31 They are connected by an upper tension spring 33; the upper slide rod 32 is fixedly connected to the corresponding upper split mold 42 at the lower end; the same upper split mold 42 is connected to two upper slide rods 32; the lower surface of the upper seat 3 is provided with an upper rotation groove 34 along the lateral direction; the upper motor 35 is fixedly connected to the upper rotation groove 34; the output shaft of the upper motor 35 is fixedly connected to the upper rotating rod 6; the outer wall of the upper rotating rod 6 is provided with an upper top bar 61 along the axial direction; the upper top bar 61 spans over multiple upper split molds 42; the outer wall of the upper rotating rod 6 is provided with multiple upper even blocks 62 and multiple upper odd blocks 63 along the axial direction; the upper even blocks 62 are located directly above the upper split molds 42 at the even positions in the lateral direction; the upper odd blocks 63 are located directly above the upper split molds 42 at the odd positions in the lateral direction.

[0033] In this embodiment, the upper even blocks 62 and the upper odd blocks 63 are staggered with the upper top bar 61 on the circumferential outer wall of the upper rotating rod 6 ; the upper even blocks 62 and the upper odd blocks 63 transition to the upper top bar 61 through the upper transition blocks 64 .

[0034] In this embodiment, the lower surface of the lower mold 5 is provided with a first placement cavity 51 and a second placement cavity 52; the lower mold 5 is composed of a plurality of lower sub-molds 53 distributed laterally; the adjacent lower sub-molds 53 are in sliding and sealing contact; the upper surface of the machine base 1 is provided with a lower slide hole 11; a lower slide rod 12 is slidably connected in the lower slide hole 11; the lower end of the lower slide rod 12 is connected to the bottom of the lower slide hole 11 by a lower tension spring 13; the upper end of the lower slide rod 12 is fixedly connected to the corresponding lower sub-mold 53; the same lower sub-mold 53 is connected to two lower slide rods 12; the upper surface of the machine base 1 is provided with a A lower rotating groove 14; a lower motor 15 is fixedly connected to the lower rotating groove 14; an output shaft of the lower motor 15 is fixedly connected to the lower rotating rod 7; a lower top bar 71 is axially arranged on the outer wall of the lower rotating rod 7; the lower top bar 71 spans across a plurality of lower sub-moulds 53; a plurality of lower even blocks 72 and a plurality of lower odd blocks 73 are axially arranged on the outer wall of the lower rotating rod 7; the lower top bar 71, the lower even blocks 72 and the lower odd blocks 73 can extend out of the lower rotating groove 14 when the lower rotating rod 7 rotates; the lower even blocks 72 are located directly below the lower sub-moulds 53 at the even positions in the lateral direction; the lower odd blocks 73 are located directly below the lower sub-moulds 53 at the odd positions in the lateral direction.

[0035] In this embodiment, the lower even blocks 72 and the lower odd blocks 73 are staggered with the lower top bar 71 on the circumferential outer wall of the lower rotating rod 7 ; the lower even blocks 72 and the lower odd blocks 73 transition to the lower top bar 71 through the lower transition blocks 74 .

[0036] In this embodiment, the lower odd blocks 73 flip upwards while the upper odd blocks 63 flip downwards; and the lower even blocks 72 flip upwards while the upper even blocks 62 flip downwards.

[0037] In the initial state, the lower motor 15 rotates to drive the lower rotating rod 7 to rotate. During the rotation of the lower rotating rod 7, the lower top bar 71 of the outer wall will be driven to rotate, so that the lower top bar 71 will flip toward the outside in the lower rotating groove 14, and the lower top bar 71 will squeeze all the lower sub-die molds 53 to move upward during the upward flipping process. The lower sub-die mold 53 will drive the lower slide bar 12 to move upward during the upward movement. The lower slide bar 12 will slide and move upward in the lower slide hole 11 during the upward movement. The corresponding lower tension spring 13 will be pulled during the upward movement of the lower slide bar 12, and the lower slide bar 12 will not separate from the lower slide hole 11. After all the lower sub-die molds 53 are pushed upward by the lower top bar 71, a movable gap is formed between the lower surface of the lower sub-die mold 53 and the upper surface of the machine base 1, thus completing the preparation work of the lower die 5. ; Then, the bag bottom in the laryngeal mask airbag is placed in the first placement cavity 51, and the second placement cavity 52 is located on the outside of the first placement cavity 51 and is annular. After the bag bottom is placed in the first placement cavity 51, the upper port of the bag bottom is turned outward and falls on the upper port of the first placement cavity 51, and then the annular bag body in the laryngeal mask airbag is placed in the second placement cavity 52, and the annular connecting piece on the inner side of the bag body will fall on the upper port of the bag bottom, and the annular connecting piece and the upper port of the bag bottom are partially overlapped, and then the upper motor 35 will drive the upper rotating rod 6 to rotate, and the upper rotating rod 6 will drive the upper top bar 61 to flip downward during the rotation process, and the upper top bar 61 will squeeze the upper sub-mold 42 during the downward flipping process, and the upper surface of the upper sub-mold 42 will be pressed The entire upper mold 4 will move downward, and the upper sub-mold 4 During the downward movement, the upper slide rod 32 will be driven to slide in the upper slide hole 31 and pull the upper tension spring 33. The upper slide rod 32 will not be separated from the upper slide hole 31. After all the upper split molds 42 are pushed downward by the upper top bar 61, a movable gap is formed between the upper surface of the upper split mold 42 and the lower surface of the upper seat 3, thus completing the preparation of the upper mold 4; then the electric push rod 21 will drive the upper seat 3 to move downward. The electric push rod 21 can be replaced by a telescopic component such as a hydraulic cylinder. During the downward movement of the upper seat 3, the upper rotating rod 6 and the upper motor 35 will be driven downward. During the downward movement of the upper seat 3, the upper mold 4 pushed up by the upper top bar 61 will also be driven downward. During the downward movement of the upper mold 4, the pressing part 41 will be driven to move toward the inner side of the capsule until the pressing part 41 of the upper mold 4 is The annular connecting piece is pressed tightly, so that the annular connecting piece on the inner side of the capsule and the upper port of the capsule are clamped between the upper mold 4 and the lower mold 5. Then the high-frequency source works, the pressing part 41 on the lower surface of the upper mold 4 is the positive electrode, and the upper port position of the first placement cavity 51 of the lower mold 5 is the negative electrode. The high-frequency electromagnetic field is generated by the high-frequency source, and the object to be processed made of dielectric material is pressed between the positive and negative electrodes of the high-frequency electromagnetic field. Under the action of the high-frequency electric field, the dielectric material undergoes molecular polarization and is arranged in the direction of the electric field. Because the high-frequency electric field changes direction at a very fast speed, the internal molecules in the dielectric material are excited and move at a high speed to rub against each other and generate heat, thereby achieving the purpose of welding. After the welding is completed, wait for cooling and solidification to form;

[0038] Then, demoulding begins. Before demoulding, the upper motor 35 drives the upper rotating rod 6 to rotate. During the rotation of the upper rotating rod 6, the upper top bar 61 is driven to flip upward. During the rotation of the upper rotating rod 6, the upper even-numbered blocks 62 are driven to flip downward. Since the upper even-numbered blocks 62 transition to the upper top bar 61 through the upper transition block 64, under the transition of the upper transition block 64, the upper even-numbered blocks 62 flip downward to replace the position of the upper top bar 61. The width of the upper even-numbered blocks 62 in the lateral direction does not exceed the width of the upper sub-mold 42. 62 can make the upper sub-mold 42 of the even number position press against the interface position of the airbag without changing the position, and the upper sub-mold 42 of the odd number position drives the corresponding upper slide bar 32 to move upward under the pull of the corresponding upper tension spring 33, and the upper sub-mold 42 of the odd number position is separated from the contact with the airbag interface after moving up, so as to release the bonding between the upper sub-mold 42 of the odd number position and the airbag interface. Since the upper sub-mold 42 of the even number position presses against the airbag interface during the upward movement of the upper sub-mold 42 of the odd number position, the airbag interface is fixed. The lower even-numbered blocks 72 are pressed tightly, so that the upper sub-molds 42 of the odd-numbered positions can be smoothly separated from the bonding without damaging the airbag interface; during the downward flipping of the upper even-numbered blocks 62, the lower motor 15 synchronously drives the lower rotating rod 7 to rotate, and the lower rotating rod 7 synchronously drives the lower even-numbered blocks 72 to flip upward, and the lower even-numbered blocks 72 will replace the lower top strip 71 to abut against the lower surface of the lower sub-mold 53. After the lower even-numbered blocks 72 abut against the lower surface of the lower sub-mold 53 through the lower transition block 74, the upper even-numbered blocks 62 abut against the upper sub-mold 4 2 upper surface, to achieve the clamping of the airbag interface position, and the lower odd-numbered block 73 will slide in the lower slide hole 11 under the pull of the corresponding lower tension spring 13, so that the lower odd-numbered block 73 moves downward and separates from the airbag interface under the pull, so that the lower odd-numbered block 73 and the upper odd-numbered block 63 are synchronously separated from the airbag interface and released from the bonding. Since the airbag interface has been solidified and formed, the upper sub-mold 42 and the lower sub-mold 53 at the odd position will not form adhesion again when they contact the airbag interface position again after releasing the bonding;

[0039] After the upper sub-mold 42 and the lower sub-mold 53 at the odd-numbered positions are released from the bonding with the airbag interface, the upper rotating rod 6 and the lower rotating rod 7 will rotate synchronously in opposite directions, and the upper rotating rod 6 will drive the upper odd-numbered block 63 to flip downward, and the upper even-numbered block 62 will flip upward during the process of the upper odd-numbered block 63 flipping downward, until the upper odd-numbered block 63 flips to the lower limit position, and the upper odd-numbered block 63 will press the upper sub-mold 42 at the odd-numbered positions against the airbag interface position, and the upper sub-mold 42 at the even-numbered positions will move upward under the pulling of the corresponding upper tension spring 33, so as to release the bonding between the upper sub-mold 42 and the airbag interface position of the even-numbered positions, and during the rotation of the upper rotating rod 6, the lower rotating rod 7 will drive the lower odd-numbered block 73 to flip upward, and the lower even-numbered block 72 will flip downward during the process of the lower odd-numbered block 73 flipping upward, until the lower odd-numbered block 73 flips to the upper limit position, and the lower odd-numbered block 73 will press the upper sub-mold 42 at the odd-numbered positions against the airbag interface position. The lower sub-mold 53 of the even-numbered position is pressed against the airbag interface position, and the lower sub-mold 53 of the even-numbered position is pulled downward by the corresponding lower tension spring 13, so that the lower sub-mold 53 of the even-numbered position is debonded from the airbag interface position. In the process of the upper sub-mold 42 of the even-numbered position and the lower sub-mold 53 of the even-numbered position being separated from the airbag interface, the upper sub-mold 42 of the odd-numbered position and the lower sub-mold 53 of the odd-numbered position are pressed against the airbag interface position, so that the pulling damage of the airbag interface position will not be caused during the debonding process, and a good debonding process is achieved; finally, the upper rotating rod 6 presses the upper top strip 61 against the upper sub-mold 42, and the lower rotating rod 7 presses the lower top strip 71 against the lower sub-mold 53, and then the electric push rod 21 is directly controlled to shorten, and the electric push rod 21 will drive the upper seat 3 to move upward, and the upper seat 3 will drive the upper mold 4 to move upward and separate from the airbag, so that the airbag can be directly removed after being exposed;

[0040] The present invention controls the upper and lower sub-molds 42 and 53 of odd and even numbers to separate from the airbag interface position before demoulding, thereby debonding the airbag interface position when it is clamped, thereby ensuring that the subsequent airbag can be demoulded smoothly without sticking to the mold.

[0041] Embodiment 2: The front sides of the upper split molds 42 at odd-numbered positions laterally downward are fixedly connected to the upper front connecting strip 43 ; the rear sides of the upper split molds 42 at even-numbered positions laterally downward are fixedly connected to the upper rear connecting strip 44 .

[0042] In this embodiment, the front sides of the lower sub-molds 53 at the odd-numbered positions facing downward are commonly fixedly connected to the lower front connecting strip 54 ; the rear sides of the lower sub-molds 53 at the even-numbered positions facing downward are commonly fixedly connected to the lower rear connecting strip 55 .

[0043] After the airbag interface position is pressed tightly by the even-numbered upper sub-mold 42 and the lower sub-mold 53, the upper tension spring 33 will pull the odd-numbered upper sub-molds 42 to move upward. Since the front sides of the odd-numbered upper sub-molds 42 are commonly fixedly connected to the upper front connecting strip 43, all the odd-numbered upper sub-molds 42 will move upward synchronously, and the odd-numbered upper sub-molds 42 will move upward synchronously to separate from the airbag interface. The adhesion between the airbag interface and the upper sub-mold 42 at the contact position is not the same. For some upper sub-molds 42 with smaller adhesion, they can be quickly moved upward to achieve debonding under the pull of the corresponding upper tension spring 33, while for some upper sub-molds 42 with larger adhesion, it is more difficult to debond. By connecting the upper front connecting strip 43, the odd-numbered upper sub-molds 42 are connected as a whole, so that the odd-numbered upper sub-molds 42 can be assembled The odd-numbered upper pull springs 33 work together to achieve upward movement, ensuring the efficiency and effect of debonding the odd-numbered upper sub-molds 42; similarly, after the airbag interface position is pressed tightly by the even-numbered upper sub-molds 42 and the lower sub-molds 53, the lower pull springs 13 will also pull the odd-numbered lower sub-molds 53 to move downward synchronously, so that no matter how different the bonding resistances of the odd-numbered lower sub-molds 53 are, they can move downward smoothly, ensuring the efficiency and effect of debonding the odd-numbered lower sub-molds 53; similarly, after the airbag interface position is pressed tightly by the odd-numbered upper sub-molds 42 and the lower sub-molds 53, the upper pull springs 33 will synchronously pull the even-numbered upper sub-molds 42 to move upward, and the lower pull springs 13 will synchronously pull the even-numbered lower sub-molds 53 to move downward, thus ensuring the efficiency and effect of debonding the even-numbered upper sub-molds 42 and the lower sub-molds 53.

[0044] Embodiment 3: The upper sliding hole 31 is slidably and sealedly connected to the upper sliding rod 32; the upper sliding holes 31 at odd positions are penetrated upward with upper odd holes 36; the upper sliding holes 31 at even positions are penetrated upward with upper even holes 37; the apertures of the upper odd holes 36 and the upper even holes 37 increase as they move away from the upper mold 4.

[0045] In this embodiment, the lower sliding hole 11 is slidably and sealingly connected to the lower sliding rod 12; the lower sliding holes 11 at odd positions are penetrated downwardly by lower odd holes 16; the lower sliding holes 11 at even positions are penetrated downwardly by lower even holes 17; the apertures of the lower odd holes 16 and the lower even holes 17 increase as they move away from the lower mold 5.

[0046] Since the apertures of the upper odd-numbered holes 36 and the upper even-numbered holes 37 are arranged to increase as they move away from the upper mold 4, external gas can enter the upper sliding hole 31 more quickly during the downward movement of the upper sliding rod 32 in the upper sliding hole 31, and the gas in the upper sliding hole 31 can only be slowly discharged to the outside during the upward movement of the upper sliding rod 32 along the upper sliding hole 31. In this way, the resistance formed by the downward movement of the upper sliding rod 32 in the upper sliding hole 31 is small, and the upward movement speed of the upper sliding rod 32 in the upper sliding hole 31 is slow. On the one hand, this reduces the resistance to the downward movement of the upper sub-mold 42, and on the other hand, it allows the upper sub-mold 42 to detach from the airbag interface position at a slow speed, thereby reducing damage caused by the rapid detachment of the upper sub-mold 42 from the airbag interface, thereby achieving the purpose of further protecting the airbag interface. Similarly, since the apertures of the lower odd-numbered holes 16 and the lower even-numbered holes 17 are arranged to increase as they move away from the lower mold 5, during the process of the lower slide rod 12 moving upward in the lower slide hole 11, the outside gas can enter the lower slide hole 11 faster, and during the process of the lower slide rod 12 moving downward along the lower slide hole 11, the gas in the lower slide hole 11 can only be slowly discharged to the outside, so that the resistance of the lower slide rod 12 moving upward in the lower slide hole 11 is smaller, and the speed of the lower slide rod 12 moving downward in the lower slide hole 11 is slower. In this way, on the one hand, the resistance to the upward movement of the lower sub-mold 53 is reduced, and on the other hand, the lower sub-mold 53 can be separated from the airbag interface position at a slow speed, thereby reducing the damage caused by the rapid separation of the lower sub-mold 53 from the airbag interface, thereby protecting the airbag interface.

[0047] In the description of the present invention, it should be noted that the terms "center", "longitudinal", "lateral", "up", "down", "front", "back", "left", "right", "vertical", "horizontal", "top", "bottom", "inside", "outside" and the like indicate directions or positional relationships based on the attached Figure 1 The orientation or positional relationship shown is only for the convenience of describing the present invention and simplifying the description, and does not indicate or imply that the device or element referred to must have a specific orientation, be constructed and operate in a specific orientation. Therefore, it cannot be understood as limiting the scope of protection of the present invention. In addition, the terms "first", "second", "third", etc. are only used to distinguish the description and cannot be understood as indicating or implying relative importance.

[0048] The above shows and describes the basic principles, main features and advantages of the present invention. It should be understood by those skilled in the art that the present invention is not limited to the above embodiments. The above embodiments and descriptions are only for explaining the principles of the present invention. Without departing from the spirit and scope of the present invention, the present invention may have various changes and improvements, which fall 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. An automatic connection device for laryngeal mask production, comprising a machine base (1) and a bracket (2) on the machine base (1); the bracket (2) is fixedly connected to an electric push rod (21) at its upper end; a high-frequency source is provided in the machine base (1); the output shaft of the electric push rod (21) is fixedly connected to an upper base (3); an upper mold (4) is connected below the upper base (3); a lower mold (5) corresponding to the upper mold (4) is provided on the upper surface of the machine base (1); the characteristics are: The lower surface of the upper mold (4) is provided with a clamping portion (41); the upper mold (4) is composed of a plurality of upper sub-molds (42) distributed laterally; the adjacent upper sub-molds (42) are in sliding and sealing contact; the lower surface of the upper seat (3) is provided with an upper sliding hole (31); the upper sliding hole (31) is slidably connected to an upper sliding rod (32); the upper end of the upper sliding rod (32) is connected to the bottom of the upper sliding hole (31) through an upper tension spring (33); the lower end of the upper sliding rod (32) is fixedly connected to the corresponding upper sub-mold (42); the same upper sub-mold (42) is connected to two upper sliding rods (32); the upper seat (3) An upper rotating groove (34) is provided through the lower surface along the lateral direction; an upper motor (35) is fixedly connected inside the upper rotating groove (34); an output shaft of the upper motor (35) is fixedly connected to an upper rotating rod (6); an upper top bar (61) is provided along the axial direction on the outer wall of the upper rotating rod (6); the upper top bar (61) spans over a plurality of upper split molds (42); a plurality of upper even blocks (62) and a plurality of upper odd blocks (63) are provided along the axial direction on the outer wall of the upper rotating rod (6); the upper even blocks (62) are located directly above the upper split molds (42) at even positions in the lateral direction; and the upper odd blocks (63) are located directly above the upper split molds (42) at odd positions in the lateral direction.

2. The automatic connection device for laryngeal mask production according to claim 1, characterized in that: The upper even blocks (62) and the upper odd blocks (63) are arranged on the circumferential outer wall of the upper rotating rod (6) in a staggered manner with the upper top bar (61); the upper even blocks (62) and the upper odd blocks (63) transition to the upper top bar (61) via an upper transition block (64).

3. The automatic connection device for laryngeal mask production according to claim 1, characterized in that: The lower surface of the lower mold (5) is provided with a first placement cavity (51) and a second placement cavity (52); the lower mold (5) is composed of a plurality of lower sub-molds (53) distributed laterally; the adjacent lower sub-molds (53) are in sliding sealed contact; the upper surface of the machine base (1) is provided with a lower sliding hole (11); the lower sliding hole (11) is slidably connected to a lower sliding rod (12); the lower end of the lower sliding rod (12) is connected to the bottom of the lower sliding hole (11) by a lower tension spring (13); the upper end of the lower sliding rod (12) is fixedly connected to the corresponding lower sub-mold (53); the same lower sub-mold (53) is connected to two lower sliding rods (12); the upper surface of the machine base (1) is provided with a lower rotation groove (14) penetrating along the side. ); the lower motor (15) is fixedly connected to the lower rotating groove (14); the output shaft of the lower motor (15) is fixedly connected to the lower rotating rod (7); the outer wall of the lower rotating rod (7) is provided with a lower top bar (71) along the axial direction; the lower top bar (71) spans over a plurality of lower sub-moulds (53); the outer wall of the lower rotating rod (7) is provided with a plurality of lower even-numbered blocks (72) and a plurality of lower odd-numbered blocks (73) along the axial direction; the lower top bar (71), the lower even-numbered blocks (72) and the lower odd-numbered blocks (73) can extend out of the lower rotating groove (14) when the lower rotating rod (7) rotates; the lower even-numbered blocks (72) are located directly below the lower sub-moulds (53) at the even-numbered positions in the lateral direction; the lower odd-numbered blocks (73) are located directly below the lower sub-moulds (53) at the odd-numbered positions in the lateral direction.

4. The automatic connection device for laryngeal mask production according to claim 3, characterized in that: The lower even-numbered blocks (72) and the lower odd-numbered blocks (73) are arranged on the circumferential outer wall of the lower rotating rod (7) in a staggered manner with the lower top bar (71); the lower even-numbered blocks (72) and the lower odd-numbered blocks (73) transition to the lower top bar (71) via a lower transition block (74).

5. The automatic connection device for laryngeal mask production according to claim 3, characterized in that: During the process of the upper odd-numbered blocks (63) turning downward, the lower odd-numbered blocks (73) turn upward; during the process of the upper even-numbered blocks (62) turning downward, the lower even-numbered blocks (72) turn upward.

6. The automatic connection device for laryngeal mask production according to claim 1, characterized in that: The front sides of the upper split molds (42) at odd-numbered positions facing downward are fixedly connected to the upper front connecting strip (43); the rear sides of the upper split molds (42) at even-numbered positions facing downward are fixedly connected to the upper rear connecting strip (44).

7. The automatic connection device for laryngeal mask production according to claim 3, characterized in that: The front sides of the lower sub-moulds (53) at odd-numbered positions facing downward are fixedly connected to the lower front connecting strip (54); the rear sides of the lower sub-moulds (53) at even-numbered positions facing downward are fixedly connected to the lower rear connecting strip (55).

8. The automatic connection device for laryngeal mask production according to claim 1, characterized in that: The upper sliding holes (31) are slidably sealed with the upper sliding rods (32); the upper sliding holes (31) at odd positions are provided with upper odd holes (36) penetrating upward; the upper sliding holes (31) at even positions are provided with upper even holes (37) penetrating upward; the apertures of the upper odd holes (36) and the upper even holes (37) increase as they move away from the upper mold (4).

9. The automatic connection device for laryngeal mask production according to claim 3, characterized in that: The lower sliding holes (11) are slidably sealed with the lower sliding rod (12); the lower sliding holes (11) at odd positions are provided with lower odd holes (16) penetrating downward; the lower sliding holes (11) at even positions are provided with lower even holes (17) penetrating downward; the apertures of the lower odd holes (16) and the lower even holes (17) increase as they move away from the lower mold (5).

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