Fuse shell feeding mechanism

Abstract

The utility model discloses a fuse shell feeding mechanism which comprises a material distributing assembly, the material distributing assembly is provided with a bin wheel, a servo motor assembly, a blanking connector and a bin groove cover, the servo motor assembly drives the bin wheel to rotate, bin grooves used for containing fuse shells are formed in the periphery of the bin wheel, and the bin grooves are evenly distributed in the circumferential direction. The bin groove cover is attached to the outer portion of one side of the bin wheel, the blanking connector forms a blanking channel used for being connected with an output groove channel of the vibration disc, the lower end of the blanking channel can be aligned with the position of the corresponding bin groove, air nozzles are correspondingly formed in one end of the bin wheel, and at least four air nozzles are arranged around the rotating axis of the bin wheel at equal intervals. The other corresponding end of the bin wheel is correspondingly provided with a discharging opening used for being connected with a material conveying hose in a communicating mode, and the discharging opening is aligned with the corresponding air spraying opening in position. The fuse shell feeding mechanism disclosed by the utility model is beneficial to improving the production efficiency.

Description

Technical Field

[0001] The utility model relates to the field of fuse turntable type automatic assembly equipment, in particular to a feeding mechanism for a fuse shell. Background Art

[0002] At present, the turntable type automatic assembly equipment has been widely used in the assembly of electronic components. There is a kind of fuse that needs to be assembled by the turntable type automatic assembly equipment. This fuse is also called a thermal fuse. For example, reference can be made to the "Thermosensitive Particle Type Thermal Fuse" with the Chinese utility model patent publication number CN111105964B and the "Wafer for Thermal Fuse and Thermal Fuse Thereof" with the Chinese utility model patent publication number CN203521349U. The above-mentioned fuse is provided with a fuse shell. Figure 12 Fig. shows the fuse shell 99. The fuse shell 99 is sorted and output to the diverter through the vibrating bowl. The air cylinder drives the diverter to push away and separate the fuse shell 99 at the forefront position in the queue of the fuse shells 99 in a direction perpendicular to the queue of the fuse shells 99. Then, the separated fuse shell 99 is blown into the conveying hose by compressed air. The compressed air is used to push the fuse shell 99 to run in the conveying hose. The conveying hose is connected to the feeding die. Since the fixture on the station turntable of the turntable type automatic assembly equipment has rotated to the lower part of the above-mentioned feeding die, the fuse shell 99 can vertically fall into the fixture on the station turntable under the action of gravity. However, the above-mentioned feeding structure can only convey one fuse shell 99 each time. If it is necessary to arrange and place four fuse shells 99 on the fixture on the station turntable to improve the production efficiency, it is necessary to shift the above-mentioned feeding die in the tangential direction of the station turntable so that four fuse shells 99 can be arranged on the above-mentioned fixture. During this period, it is necessary for the above-mentioned feeding die to move tangentially with high precision, which not only makes the equipment structure complex, but also results in low feeding efficiency. Therefore, it is necessary to improve the feeding structure of the above-mentioned fuse shell. Summary of the Invention

[0003] The purpose of the utility model is to overcome the deficiencies of the prior art and provide a feeding mechanism for a fuse shell, which is beneficial to improving the production efficiency.

[0004] The purpose of the utility model is achieved by the following technical solutions.

[0005] The fuse housing feeding mechanism disclosed by the present utility model includes a material distribution component, the material distribution component is provided with a bin wheel, a servo motor component, a blanking connector and a bin cover. The rotation axis of the bin wheel is horizontally arranged, the servo motor component drives the bin wheel to rotate. A bin groove for accommodating the fuse housing is formed on the outer circumference of the bin wheel. The bin groove penetrates the bin wheel along a direction parallel to the rotation axis of the bin wheel. The bin grooves are evenly distributed circumferentially. The bin cover is attached to the outer side of one side of the bin wheel. The blanking connector is formed with a blanking channel for connecting the output channel of the vibrating disk. The blanking channel extends in the up and down direction. The lower end of the blanking channel is attached to the bin wheel. The lower end of the blanking channel can be aligned with the corresponding bin groove. One end of the bin wheel is correspondingly provided with a jet port. At least four jet ports are arranged at equal intervals around the rotation axis of the bin wheel. The jet port can be aligned and communicated with the corresponding bin groove. The other end of the bin wheel corresponding to it is correspondingly provided with a discharge port for connecting the feeding hose. The discharge ports are respectively aligned with the corresponding jet ports.

[0006] Preferably, the material distribution component further includes a left support plate, a right support plate and a bottom plate. The left end of the bin wheel is rotatably connected to the left support plate. The right end of the bin wheel is rotatably connected to the right support plate. The lower ends of the left support plate and the right support plate are installed on the bottom plate. The jet port is formed on the left support plate. The discharge port is formed on the right support plate. The material distribution component further includes a connecting pipe plate. The connecting pipe plate is formed with a clamping hole for clamping the feeding hose. The connecting pipe plate is attached to the right side of the right support plate. The clamping hole is coaxially arranged with the corresponding discharge port. The connecting pipe plate is formed with a through slot. The through slot penetrates the clamping hole. The connecting pipe plate includes a plate body and a clamping plate part. The plate body and the clamping plate part are separated by the through slot. The plate body is screwed with a clamping screw. The clamping screw passes through the clamping plate part.

[0007] Preferably, the bottom plate is formed with a discharge hole. The discharge hole is located directly below the rotation axis of the bin wheel.

[0008] Preferably, the blanking channel includes a first through slot for the cup part of the fuse housing to pass through and a second through slot for the rod part of the fuse housing to pass through. The first through slot and the second through slot are communicated. The width of the second through slot gradually increases along the direction away from the first through slot.

[0009] Preferably, the upper end of the bin cover is attached to one side of the blanking connector.

[0010] Compared with the prior art, the utility model has the following beneficial effects: a material distributing assembly is provided with a bin wheel, a servo motor assembly, a blanking connector and a bin slot cover, the servo motor assembly drives the bin wheel to rotate, a bin slot for accommodating a fuse housing is formed on the outer periphery of the bin wheel, the bin slot is evenly distributed in the circumference, the bin slot cover is abutted against the outer side of one side of the bin wheel, a blanking connector is formed with a blanking channel for connecting an output slot of a vibrating disk, the lower end of the blanking channel can be aligned with the corresponding bin slot position, one end of the bin wheel is correspondingly provided with an air jet, at least four air jets are arranged at equal intervals around the rotation axis of the bin wheel, the air jets can be aligned and connected with the corresponding bin slot, the other end of the bin wheel is correspondingly provided with a discharge port for connecting a feeding hose, the discharge ports are respectively aligned with the corresponding air jet positions, the servo motor assembly drives the bin wheel to realize a rotary cyclic material distributing function, which is beneficial to fast and accurate material distributing, so that the bin wheel can temporarily store at least four fuse housings, so that the fuse housings in four adjacent bin slots on the bin wheel can be blown to the corresponding feeding hoses at the same time, thereby facilitating improving production efficiency. BRIEF DESCRIPTION OF THE DRAWINGS

[0011] Figure 1 It is a three-dimensional structural schematic diagram of the material dividing component of the utility model.

[0012] Figure 2 It is a three-dimensional structural schematic diagram of the feeding mechanism and the vibration plate combination of the utility model.

[0013] Figure 3 for Figure 2 Schematic diagram of the local structure.

[0014] Figure 4 It is a schematic diagram of the cross-sectional structure of the material dividing component of the utility model in the front view direction.

[0015] Figure 5 It is a schematic diagram of the partial structure of the cross-section of the material distribution component of the utility model in the top view direction.

[0016] Figure 6 It is a schematic diagram of the partial structure of the sectional view of the material dividing assembly of the utility model from the right side.

[0017] Figure 7 It is an exploded schematic diagram of the material dividing component of the utility model.

[0018] Figure 8 It is a three-dimensional structural schematic diagram of the warehouse wheel of the utility model.

[0019] Figure 9 It is a three-dimensional structural schematic diagram of the blanking connector of the utility model.

[0020] Figure 10 It is a three-dimensional structural schematic diagram of the connecting pipe plate of the utility model.

[0021] Figure 11 It is a schematic diagram of the connecting plate of the utility model clamping the material delivery hose.

[0022] Figure 12 It is a schematic diagram of the three-dimensional structure of the fuse housing.

[0023] Explanation of reference numerals: material dividing assembly 10; bin wheel 1; bin slot 101; servo motor assembly 2; blanking connector 3; blanking channel 301; first through slot 3011; second through slot 3012; bin slot cover 4; left support plate 5; air jet 501; right support plate 6; discharge port 601; connecting pipe plate 7; clamping hole 701; through slit 7011; plate body 71; clamping plate portion 72; clamping screw 73; bottom plate 8; discharge hole 801; fuse housing 99; cup portion 991; rod portion 992; stand 98; vibration disk 97; output channel 971; material delivery hose 96. DETAILED DESCRIPTION

[0024] The utility model is further described below in conjunction with the accompanying drawings.

[0025] The fuse housing feeding mechanism of the utility model is as follows: Figures 1 to 3 As shown, it includes a material distribution component 10, such as Figure 1 , Figure 4 and Figure 7 As shown, the material dividing assembly 10 is provided with a bin wheel 1, a servo motor assembly 2, a blanking connector 3 and a bin slot cover 4. The rotating axis of the bin wheel 1 is horizontally arranged. Figure 1 In the visual direction, the rotation axis of the warehouse wheel 1 is extended in the left-right direction, and the servo motor assembly 2 drives the warehouse wheel 1 to rotate. Figure 8 As shown, the outer periphery of the storage wheel 1 is formed with a storage groove 101 for accommodating the fuse housing 99, and the storage groove 101 passes through the storage wheel 1 in a direction parallel to the rotation axis of the storage wheel 1. Figure 6 and Figure 8 As shown, the fuse housing 99 can be completely sunk into the corresponding slot 101, that is, the depth of the slot 101 in the radial direction of the slot wheel 1 is slightly larger than the outer diameter of the cup portion 991 of the fuse housing 99, as shown in FIG. Figure 6 and Figure 8 As shown, the bin grooves 101 are evenly distributed in the circumferential direction, and the bin groove cover 4 is close to the outside of one side of the bin wheel 1. Specifically, the bin groove cover 4 is close to the front side of the bin wheel 1. Specifically, the rear side of the bin groove cover 4 is formed with an inner arc surface, and the inner arc surface is concentrically arranged with the outer cylindrical surface of the bin wheel 1. A gap of about 0.1 mm is provided between the inner arc surface and the outer cylindrical surface of the bin wheel 1. The bin groove cover 4 covers the inferior arc range of the bin wheel 1; Figure 9 As shown, the blanking connector 3 is formed with a blanking channel 301 for connecting the output channel 971 of the vibration plate 97, as shown in FIG. Figure 6 and Figure 9As shown, the blanking channel 301 extends in the up and down direction, and the lower end of the blanking channel 301 abuts against the bin wheel 1. That is to say, as Figure 3 shown, the upper end of the blanking channel 301 is connected to the end (lower end) of the output channel 971 of the vibrating disk 97. As Figure 6 shown, the lower end of the blanking channel 301 can be aligned with the corresponding bin slot 101. Specifically, the servo motor assembly 2 is equipped with an absolute encoder, and the servo motor assembly 2 drives the bin wheel 1 to rotate by indexing. Specifically, the output rotating shaft of the servo motor assembly 2 is coaxially arranged with the bin wheel 1, and the output rotating shaft of the servo motor assembly 2 is connected to the left end of the bin wheel 1 through a coupling. When the servo motor assembly 2 rotates the bin wheel 1 by the spacing angle between adjacent bin slots 101, it will pause for a short time, so that when the bin slot 101 is aligned with the lower end of the blanking channel 301, it will pause for a short time, so that the fuse housing 99 located in the blanking connector 3 can stably fall into the bin slot 101 that is currently aligned and connected to the blanking channel 301 by gravity. As Figure 5 shown, one end of the bin wheel 1 is correspondingly provided with an air jet port 501, and at least four air jet ports 501 are arranged at equal intervals around the rotation axis of the bin wheel 1. For example, as Figure 6 shown, there are sixteen bin slots 101 formed on the bin wheel 1, and the bin slot cover 4 can cover seven bin slots 101 at the same time. For example, the number of air jet ports 501 is set to four. As Figure 5 shown, the air jet port 501 can be aligned and connected with the corresponding bin slot 101. The other end of the bin wheel 1 corresponding to it is correspondingly provided with a discharge port 601 for connecting the feeding hose 96. The discharge ports 601 are respectively aligned with the corresponding air jet ports 501. That is to say, at least four discharge ports 601 are also arranged at equal intervals around the rotation axis of the bin wheel 1.

[0026] The working principle of the feeding mechanism of the present invention is briefly described as follows: As Figure 2 and Figure 3 shown, the end of the output channel 971 of the vibrating disk 97 abuts against and is connected to the upper end of the blanking channel 301. As Figure 5 shown, the upper end of the feeding hose 96 is connected to the discharge port 601, and the lower end of the feeding hose 96 is connected to the feeding die. Since the number of air jet ports 501 and discharge ports 601 is at least four, for example, four discharge ports 601 can each be connected to a feeding hose 96. Correspondingly, four vertically arranged blanking through holes are formed on the above-mentioned feeding die, and the lower ends of the feeding hoses 96 are respectively connected to the corresponding blanking through holes; the fuse housing feeding mechanism further includes an air inlet pipe for connecting a compressed air source, and the four air inlet pipes are respectively connected to the corresponding air jet ports 501. As Figure 2 and Figure 3As shown, the vibrating disk 97 arranges and outputs the fuse housings 99 to the output chute 971. The cup part 991 of the fuse housing 99 is located within the output chute 971, and the rod part 992 of the fuse housing 99 extends horizontally outside the output chute 971. The output chute 971 is bent downward so that the fuse housing 99 can fall by gravity onto the blanking connector 3. Subsequently, the fuse housing 99 passes through the blanking channel 301 in a horizontal form and drops into the corresponding bin slot 101, as Figure 6 shown. The servo motor assembly 2 drives the bin wheel 1 to rotate counterclockwise, causing the fuse housing 99 to rotate around the rotation axis of the bin wheel 1 into the coverage range of the bin slot cover 4. During this period, the outer cylindrical surface of the bin wheel 1 intercepts the next fuse housing 99 in the blanking channel 301. Later, an adjacent bin slot 101 rotates to align with the position of the blanking channel 301, and the servo motor assembly 2 stops briefly, allowing the next fuse housing 99 in the blanking channel 301 to have enough time to drop into the adjacent bin slot 101. And so on, so that the last air jet port 501 also corresponds to a fuse housing 99. Specifically, since the control system obtains the real-time position of each bin slot 101 based on the data of the above absolute encoder, it can then determine that each of the four air jet ports 501 corresponds to a fuse housing 99. The control system controls the solenoid valve corresponding to the intake pipe to output compressed air from the intake pipe to the air jet port 501. The air jet port 501 jets compressed air onto the cup part 991 of the fuse housing 99, blowing the corresponding fuse housing 99 away from the bin slot 101 and discharging it through the discharge port 601 into the corresponding conveying hose 96. Thus, the fuse housings 99 in the four bin slots 101 can be blown into the conveying hose 96 simultaneously. The fuse housings 99 in the conveying hose 96 are pushed by the compressed air and transferred along the conveying hose 96 to the above loading die. Thus, the four fuse housings 99 can be injected into the fixtures on the station turntable of the rotary automatic assembly equipment approximately synchronously. Since the fuse housings 99 in the adjacent four bin slots 101 are blown away simultaneously, subsequently, the servo motor assembly 2 drives the bin wheel 1 to rotate counterclockwise four times (each rotation is the angular distance between adjacent bin slots 101), and the control system controls the intake pipe to blow air once again. And so on. During the interval between air blows, the station turntable of the rotary automatic assembly equipment switches stations. As can be seen from the above, the loading mechanism of the present utility model can load and process at least four fuse housings 99 each time, which is beneficial to improving production efficiency. Since a rotary cyclic material distribution structure of the bin wheel 1 is adopted, it is avoided that the servo motor assembly 2 needs to convert rotation into linear movement through a ball screw pair, which is beneficial to simplifying the transmission structure. Moreover, the rotation of the bin wheel 1 is always in the counterclockwise direction, avoiding the need for a reset rotation, which is beneficial to simple and stable material distribution actions. Since the bin slot cover 4 is attached to the outer side of one side of the bin wheel 1, that is to say, there is no obstruction at the lower end of the bin wheel 1. So if occasionally a fuse housing 99 is not blown away, as Figure 6As shown, as the bin wheel 1 rotates counterclockwise, the fuse housing 99 that has not been blown away will be transferred to the lower end of the bin wheel 1. Since the opening of the bin slot 101 corresponding to the fuse housing 99 that has not been blown away has been turned downward, the fuse housing 99 will then fall off the corresponding bin slot 101 due to gravity, preventing the retained fuse housing 99 from rotating and being transferred back to the corresponding position of the blanking channel 301 and blocking the fuse housing 99 inside the lower end of the blanking channel 301. If the fall of the fuse housing 99 inside the lower end of the blanking channel 301 is blocked, the bin wheel 1 will be jammed. Since the bin wheel 1 is driven by the servo motor assembly 2 to rotate by indexing, it is beneficial for the bin slot 101 to rotate and be accurately positioned. By providing the bin slot cover 4, it is avoided that the fuse housing 99 to be blown away detaches from the bin slot 101 due to centrifugal force.

[0027] Furthermore, as Figure 4 and Figure 7 shown, the material distribution assembly 10 further includes a left support plate 5, a right support plate 6 and a bottom plate 8. The left end of the bin wheel 1 is rotatably connected to the left support plate 5. Specifically, the shaft head at the left end of the bin wheel 1 is installed in the rotating support hole of the left support plate 5 through the corresponding bearing, and the shaft head at the left end of the bin wheel 1 is connected to the output rotating shaft of the servo motor assembly 2 through a coupling. The right end of the bin wheel 1 is rotatably connected to the right support plate 6. The lower ends of the left support plate 5 and the right support plate 6 are installed on the bottom plate 8. As Figure 2 shown, the fuse housing feeding mechanism of the present utility model further includes a bench 98. The bottom plate 8 is installed on the top of the bench 98 to make the position of the bin wheel 1 significantly higher than the above-mentioned station turntable, and the vibrating disk 97 is also arranged on the top of the bench 98. As Figure 5 and Figure 7 shown, the air jet port 501 is formed on the left support plate 5, and the discharge port 601 is formed on the right support plate 6. Axially, the main body of the bin wheel 1 is adaptively arranged between the left support plate 5 and the right support plate 6 to prevent obvious leakage of compressed air between the right end of the air jet port 501 and the left end of the bin slot 101, and to prevent obvious leakage of compressed air between the left end of the discharge port 601 and the right end of the bin slot 101. The left end of the air jet port 501 is formed with an internal thread for installing a pneumatic joint. As Figure 5 and Figure 7 shown, the material distribution assembly 10 further includes a connection pipe plate 7. As Figure 10 and Figure 11 shown, the connection pipe plate 7 is formed with a clamping hole 701 for clamping the material conveying hose 96. As Figure 5 shown, the connection pipe plate 7 is abutted against the right side of the right support plate 6. The connection pipe plate 7 is installed and connected to the right support plate 6 through the corresponding screws. The clamping hole 701 is coaxially arranged with the corresponding discharge port 601. As Figure 10As shown, the adapter plate 7 is formed with a through slot 7011, and the through slot 7011 penetrates the clamping hole 701. The adapter plate 7 includes a plate body 71 and a clamping plate portion 72. The plate body 71 and the clamping plate portion 72 are separated by the through slot 7011, as Figure 11 shown, the plate body 71 is screwed with a clamping screw 73, and the clamping screw 73 passes through the clamping plate portion 72. Then, the end of the material conveying hose 96 is inserted into the corresponding clamping hole 701, and then the clamping screw 73 is rotated. The head of the clamping screw 73 pushes the clamping plate portion 72 against the plate body 71, so that the clamping hole 701 is narrowed to clamp the corresponding material conveying hose 96, as Figure 5 shown, the end of the material conveying hose 96 can be coaxially communicated with the discharge port 601, and the fuse housing 99 can slide over the discharge port 601 and enter the material conveying hose 96. The clamping structure of the above-mentioned material conveying hose 96 is relatively simple and easy to manufacture. One clamping plate portion 72 can clamp at least four material conveying hoses 96, which is beneficial to quick installation.

[0028] Furthermore, as Figure 6 and Figure 7 shown, the bottom plate 8 is formed with a discharge hole 801, and the discharge hole 801 is directly below the rotation axis of the bin wheel 1. As mentioned above, in some accidental cases, the fuse housing 99 that fails to be blown to the material conveying hose 96 by compressed air is rotated and transferred to the lower end of the bin wheel 1. The fuse housing 99 falls due to gravity, and the fallen fuse housing 99 passes through the discharge hole 801 and separates from the material distribution assembly 10, thus preventing the fuse housing 99 from accumulating on the upper side of the bottom plate 8. A cardboard box can be placed directly below the discharge hole 801 to collect the fallen fuse housing 99.

[0029] Furthermore, as Figure 9 shown, the blanking channel 301 includes a first through slot 3011 for the cup portion 991 of the fuse housing 99 to pass through and a second through slot 3012 for the rod portion 992 of the fuse housing 99 to pass through. The first through slot 3011 and the second through slot 3012 are communicated. The width of the second through slot 3012 gradually increases in the direction away from the first through slot 3011. The above-mentioned "width of the second through slot 3012" is Figure 9 the dimension "W" in Figure 9 shown, the width of the right end of the second through slot 3012 is greater than the width of the left end of the second through slot 3012, as Figure 3As shown, since the rod portion 992 of the fuse housing 99 in the output slot 971 extends out of the output slot 971, the right end of the rod portion 992 (the end relatively far away from the cup portion 991) can swing back and forth to a greater extent, so the width of the second through slot 3012 is correspondingly set to gradually increase in the direction away from the first through slot 3011, thereby preventing the rod portion 992 from being blocked by the edge of the second through slot 3012. Since the left end of the second through slot 3012 is set narrower, the left end of the second through slot 3012 can better limit the movable range of the fuse housing 99 during the process of falling in the second through slot 3012, so that the dropping channel 301 plays a better guiding role, so that the fuse housing 99 can stably fall into the storage slot 101.

[0030] Furthermore, if Figure 3 and Figure 6 As shown, the upper end of the slot cover 4 is abutted against one side (specifically the front side) of the blanking connector 3, so the fuse housing 99 in the slot 101 rotates counterclockwise to leave the blanking connector 3, and then the fuse housing 99 is blocked by the slot cover 4 in the radial direction of the rotation of the warehouse wheel 1, thereby preventing the fuse housing 99 from being obviously sunk into the gap between the upper end of the slot cover 4 and the blanking connector 3 due to the centrifugal force, and further preventing the fuse housing 99 to be blown away from being separated from the slot 101 due to the centrifugal force.

Claims

1. A fuse housing feeding mechanism, characterized in that: The invention comprises a material distribution component (10), wherein the material distribution component (10) is provided with a bin wheel (1), a servo motor component (2), a blanking connector (3) and a bin slot cover (4); the rotation axis of the bin wheel (1) is arranged horizontally; the servo motor component (2) drives the bin wheel (1) to rotate; a bin slot (101) for accommodating a fuse housing (99) is formed on the outer periphery of the bin wheel (1); the bin slot (101) passes through the bin wheel (1) in a direction parallel to the rotation axis of the bin wheel (1); the bin slot (101) is evenly distributed in the circumferential direction; the bin slot cover (4) is abutted against the outer side of one side of the bin wheel (1); the blanking connector (3) is formed with a blanking groove (971) for connecting to an output channel (971) of a vibration plate (97); A channel (301) is provided, wherein the material-dropping channel (301) is extended in the up-down direction, the lower end of the material-dropping channel (301) is close to the bin wheel (1), and the lower end of the material-dropping channel (301) can be aligned with the corresponding bin slot (101); one end of the bin wheel (1) is provided with a corresponding air jet (501), and at least four of the air jets (501) are arranged at equal intervals around the rotation axis of the bin wheel (1), and the air jets (501) can be aligned and communicated with the corresponding bin slot (101); the other end of the bin wheel (1) is provided with a corresponding material discharge port (601) for connecting to a material delivery hose (96), and the material discharge ports (601) are aligned with the corresponding positions of the air jet ports (501).

2. The fuse housing feeding mechanism according to claim 1, characterized in that: The material distribution assembly (10) further comprises a left support plate (5), a right support plate (6) and a bottom plate (8); the left end of the bin wheel (1) is rotatably connected to the left support plate (5), and the right end of the bin wheel (1) is rotatably connected to the right support plate (6); the lower end of the left support plate (5) and the lower end of the right support plate (6) are mounted on the bottom plate (8); the air jet (501) is formed on the left support plate (5), and the material discharge port (601) is formed on the right support plate (6); the material distribution assembly (10) further comprises a connecting plate (7), and the connecting plate (7) is formed with a material delivery hose ( 96), the connecting plate (7) is abutted against the right side of the right supporting plate (6), the connecting hole (701) is coaxially arranged with the corresponding discharge port (601), the connecting plate (7) is formed with a through slit (7011), the through slit (7011) passes through the connecting hole (701), the connecting plate (7) comprises a plate body (71) and a clamping plate portion (72), the plate body (71) and the clamping plate portion (72) are separated by the through slit (7011), the plate body (71) is screwed with a clamping screw (73), and the clamping screw (73) passes through the clamping plate portion (72).

3. The fuse housing feeding mechanism according to claim 2, characterized in that: The bottom plate (8) is formed with a discharge hole (801), and the discharge hole (801) is located directly below the rotation axis of the bin wheel (1).

4. The fuse housing feeding mechanism according to claim 1, characterized in that: The material dropping channel (301) comprises a first through slot (3011) for the cup portion (991) of the fuse housing (99) to pass through, and a second through slot (3012) for the rod portion (992) of the fuse housing (99) to pass through, the first through slot (3011) being connected to the second through slot (3012), and the width of the second through slot (3012) gradually increasing in a direction away from the first through slot (3011).

5. The fuse housing feeding mechanism according to claim 1, characterized in that: The upper end of the bin slot cover (4) is in contact with one side of the blanking connector (3).

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