TWM446402U - Metal sheet electric resistor welding and china shell arranging machine - Google Patents

Description

Metal sheet resistance welding and inserting porcelain shell alignment machine

The present invention refers to a sheet metal resistance welding and insertion ceramic shell alignment machine, which relates to a device for stamping and forming a sheet metal resistance into a porcelain shell and automatically collecting the material through the discharge tray after detecting the resistance value.

According to the vertical porcelain shell cement resistor semi-finished product, it becomes the vertical porcelain shell cement resistor. After checking the assembly method of the vertical porcelain shell cement resistor, the sheet metal resistance is bent manually to make the sheet metal resistance The two sides have a bent portion and then inserted into the porcelain shell, and then the defective resistance is detected, and then the defective product is removed, and then collected, and the aforementioned sheet metal resistance is manually welded to both sides of the metal piece of the desired length. It consists of wires, although the creator has designed a sheet metal resistance welding device that automatically cuts the metal into the required length and automatically welds the wires on both sides, but as previously described, the sheet metal resistor is bent and inserted into the porcelain shell. Related operations such as inspection and discharge are all dependent on labor, and the relative non-performing rate is high, the production speed is slow, and the labor and man-hours are lacking.

In view of this, the creator has finally created and designed a metal sheet resistance welding and inserting porcelain shell alignment machine through continuous research, improvement and testing.

The main purpose of this creation is to provide a metal sheet resistance welding and inserting a porcelain shell alignment machine. The sheet metal resistor can be stamped into a sheet metal resistor with bent portions on both sides through the upper and lower punches of the air pressure forming module. And accurately insert the positioning groove of the porcelain shell to complete the vertical ceramic shell cement resistor semi-finished product to achieve precision and automation group The purpose of loading, and relatively saving the advantages of manpower and working hours.

The second purpose of the present invention is to provide a metal sheet resistance welding and inserting a porcelain shell alignment machine, which can further perform resistance on the assembled vertical porcelain shell cement resistor semi-finished product through the front feed seat and the detection rear seat through the transverse feed rail. The resistance value is detected, and the defective products detected by the active gate are excluded, and the practicality of saving labor and working hours is further achieved.

A further object of the present invention is to provide a metal sheet resistance welding and inserting a ceramic shell arranging machine, which can further automatically collect and detect the vertical ceramic shell cement resistor semi-finished product through the arranging disc of the aligning device, thereby further saving manpower and reducing Working hours and the purpose of automated production.

A sheet metal resistance welding and inserting ceramic shell alignment machine comprises a metal sheet resistance welding device and a metal sheet resistor inserted into the porcelain shell and the arranging device, wherein the metal sheet resistor is inserted into the porcelain shell and the arranging device comprises a second jaw group, a third clamping jaw set, a pneumatic forming module, a fourth clamping jaw set, a porcelain shell auxiliary positioning group, a vibrating feeding group, a transverse feeding rail, a shifting shifting rod set, and a half finished product pushed into the cylinder, A discharge device and the like are formed by the upper and lower dies of the air pressure forming module, and the sheet metal resistance is stamped into a sheet metal resistance having bent portions on both sides, and is accurately inserted into the positioning groove of the porcelain shell to complete The vertical porcelain shell cement resistor semi-finished product, in order to achieve the purpose of precise and automatic assembly, and the advantages of manpower and man-hour are saved, the creation can further pass the lateral feeding track to detect the front seat and the detection rear seat to complete the assembly. Porcelain shell cement resistor semi-finished product for resistance resistance detection and matching with the active gate The detected defective products are eliminated, and the practicality of saving labor and man-hours is further achieved; the creation can further automatically collect the detected vertical porcelain shell cement resistor semi-finished products through the alignment plate of the aligning device, thereby further saving. Manpower, reduced working hours and the purpose of automated production.

Please refer to the detailed description of the drawings as follows.

As shown in FIG. 1 to FIG. 10, the present invention provides a metal sheet resistance welding and inserting ceramic shell alignment machine, comprising a metal sheet resistance welding device 1 (refer to FIG. 1 and FIG. 2) and a metal sheet resistor inserted into the porcelain shell and the aligning device. A, wherein: the sheet metal resistance welding device 1 (refer to FIG. 1 and FIG. 2) is configured to process a sheet metal resistor to provide a sheet metal resistor into the porcelain shell and the aligning device A, comprising: a metal sheet feeding group 11, The metal plate 100 is supplied to the metal plate straightening group 12; a metal plate straightening group 12 is used for straightening the metal plate 100; and a feeding clamping and wire feeding length setting group 13 is for transferring the metal plate 100 of the required length. To the first jaw group 14, the feed clamping and wire length setting group 13 is provided with a centimeter card (MICROMETER) 131; a first jaw group 14 for holding the metal plate 100 to be cut; a gas pressure cutting group 15 cuts a metal plate of a desired length, and then transfers the metal plate 100 cut to a desired length through the first jaw group 14 to the spot welding group 17; a left wire feed The group 161 and the right wire feeding group 162 (refer to FIG. 1 and FIG. 2) respectively guide the wire 101 to the spot welding group. a left and right side of the 17; a welding group 17 for spot welding the metal plate 100 to the left and right wires 101; a left and right wire shearing group 18 for cutting the metal plate 100 and the outer end of the wire 101 welded to the left and right sides thereof; the metal piece resistor is inserted into the porcelain casing and the aligning device A, comprising: A second jaw set 2 (refer to FIG. 4 and FIG. 5) includes a second transverse drive cylinder 21 (see FIG. 10), a second slide 22, a 90° rotary cylinder 23, and a second clamp. The second sliding seat 22 is laterally sleeved on the second lateral sliding rail 201 disposed on the front side of the machine table 20, and the cylinder shaft 211 of the second lateral transmission cylinder 21 is engaged with the second sliding seat 22, The second sliding seat 22 is above the 90° rotating cylinder 23, and the second clamping seat 23 is pivoted above the 90° rotating cylinder 23, and the second clamping seat 24 is combined with a high pressure gas source (Fig. Connected to connect a pair of second jaws 241 (refer to FIG. 5) provided on one side of the second jaw holder 24 through a high pressure gas source, and the cylinder shaft 211 of the second lateral transmission cylinder 21 The second sliding seat 22 can be driven to slide laterally along the second lateral sliding rail 201 to the spot welding group 17 of the sheet metal resistance welding device 1 (refer to FIG. 4), and the high pressure gas source is controlled. The second jaw holder 24 holds the spot-welded sheet metal resistor 10 (see also FIG. 11), and then slides inwardly and then controls the 90° rotation cylinder 23 to drive the second jaw holder 24 (refer to FIG. Rotating 90° so that the held sheet metal resistance 10 faces the third jaw group 3 (refer to FIG. 5); a third jaw group 3 (refer to FIG. 2 to FIG. 5), including the third lateral transmission cylinder 31 (Refer to FIG. 2), the third sliding seat 32, the front and rear direction sliding cylinder 33 (SLIDE CYLINDER), and the third clamping seat 34. The third sliding seat 32 is a third sliding sleeve which is disposed on the front side of the machine table 20. a lateral slide 202, and the third slide 32 is engaged with the cylinder shaft 311 of the third transverse transmission cylinder 31, above the third slide 32 and engaging the front a rear direction slide cylinder 33, above the front and rear direction slide cylinder 33 and engaging the third jaw seat 34 to drive the third jaw seat 34 to slide in the front and rear directions, and the third jaw seat 34 is Connected to a high-pressure gas source (not shown) to connect a pair of third jaws 341 disposed on one side of the high-pressure gas source, and the third jaw block 34 can be driven backward through the front-back direction slide cylinder 33. Moving, and controlling the high-pressure gas source to drive the third jaw 341 to clamp the sheet metal resistor 10 clamped by the second jaw group 2, and then controlling the front and rear direction slide cylinder 33 to drive the third jaw holder 34 toward After the front slip, the third lateral drive cylinder 31 can be controlled to laterally slide the third slide 32 to the air pressure forming group 4, and the sheet metal resistor 10 clamped by the third jaw 341 is located in the air pressure forming group. 4 between the upper and lower dies 44, 42 (refer to FIG. 2); the air pressure forming module 4 includes a lower die base 41, a lower die 42, an upper die block 43, an upper die 44, an upper die drive cylinder 45, and a lower die The die drive cylinder 46 (also referred to FIG. 8), the lower die base 41 is fixed on the front side of the machine table 20 (refer to FIG. 2). The die holder 41 is described as being coupled to the upper die holder 43 through a plurality of cylinders 411 which engage the upper die drive cylinder 45 and are driven by the cylinder shaft 451 of the upper die drive cylinder 45 (see also FIG. Passing through an upper module 452 to engage the upper die 44, the lower die holder 41 engages the lower die drive cylinder 46 (see also FIG. 8), and is passed through the lower module 462 by the cylinder shaft 461 of the lower die drive cylinder 46. The lower die 42 is engaged, and when the cylinder shafts 451, 461 of the upper and lower die driving cylinders 45, 46 are controlled to simultaneously extend downward and upward, the metal piece held by the third jaw 341 is relatively opposed. The resistor 10 is stamped so that the sheet metal resistor 10 (refer to FIG. 11) is stamped. Formed into a sheet metal resistor 10' having a bent portion 100' on both sides (refer to FIG. 12); the fourth jaw group 5 (refer to FIG. 2) includes a front and rear transmission cylinder 51, an upper and lower transmission cylinder 52, a fourth jaw block 53 , the front and rear transmission cylinders 51 are disposed on the machine table 20 and located at the rear side of the air pressure forming module 4 , and the cylinder shaft 511 of the front and rear transmission cylinders 51 is engaged with the upper and lower transmission cylinders 52 . The cylinder shaft 521 of the upper and lower transmission cylinders 52 (refer to FIG. 1) is again engaged with the fourth jaw base 53 (refer to FIG. 2), and the fourth jaw base 53 is connected to a high-pressure gas source (not shown) to take a high voltage. The gas source drives the fourth jaw 531 disposed on the front side of the fourth jaw base 53, and the upper and lower transmission cylinders 52 are controlled to slide the cylinder shaft 521 to relatively move the fourth clamping seat 53 to the required height, and then The front and rear drive cylinders 51 can be controlled such that the cylinder shaft 511 drives the fourth jaw base 53 forwardly between the upper and lower dies 44, 42 of the air pressure forming module 4, and then controls the high pressure gas source to interlock the fourth jaw seat. The fourth jaw 531 of 53 clamps the metal sheet resistor 10' having the bent portion 100' on both sides, and then can control the front and rear transmission The cylinder 51 causes the cylinder shaft 511 to drive the upper and lower transmission cylinders 52 and the fourth jaw base 53 to be displaced rearward and exit the air pressure forming module 4, and then the upper and lower transmission cylinders 52 can be controlled to extend the cylinder shaft 521 downward. The fourth jaw 531 of the fourth jaw holder 53 clamps the two-sided bent portion 100' sheet metal resistor 10' downwardly into the porcelain shell facing the transverse feeding rail 8 (refer to FIG. 3). 103 (refer to Figure 12) positioning groove 1031 (refer to Figure 13), and complete the vertical porcelain shell cement resistor semi-finished product 10" (refer to Figure 13); a porcelain shell auxiliary positioning group 6 (refer to Figure 3) , including a positioning frame transmission cylinder 61, a positioning frame 62, the positioning frame transmission cylinder 61 is disposed on the machine table 20 and located between the air pressure forming module 4 and the fourth jaw group 5, and the cylinder shaft 611 of the positioning frame transmission cylinder 61 is above it. The positioning frame 62 is engaged to make the cylinder shaft 611 move up and down, that is, to move the positioning frame 62 downward and downward, and the positioning frame transmission cylinder 61 can be controlled by the downward movement. The engaged positioning frame 62 presses against the porcelain shell 103 facing the lateral feed rail 8 to facilitate the clamping of the fourth jaw 531 of the fourth jaw seat 53 of the fourth jaw set 5 The U-shaped sheet metal resistor 10' having the bent portion 100' is stably and correctly inserted into the positioning groove 1031 of the porcelain shell 103; a vibrating feeding group 7 sequentially guides and feeds the porcelain shell 103 through the material. The track 71 is guided into the 90° column separation group 72; a transverse feed rail 8 (refer to FIG. 3) is disposed on the front side of the machine table 20 and has a lateral chute 81, and one side open end 811 of the lateral chute 81 can be received by Transfer the porcelain shell 103 loaded by the shift lever set 86, and fix one above the side of the lateral feed rail 8 The front seat 83 (refer to FIG. 7) can be combined with the machine 20 to detect the rear seat 84 to perform resistance resistance detection on the passed vertical porcelain shell cement resistor semi-finished product 10", and the transverse feed rail 8 is provided with a movable gate. 85. The active gate 85 is connected to a high-pressure gas source (not shown), and the high-pressure gas source can be controlled to open the active shutter 85 as needed, and the defective resistance is blown away and excluded from the transverse feeding track. 8. The other outlet end of the lateral feed rail 8 is further provided with an opening 812 (refer to FIG. 6 and FIG. 7); a transfer lever set 86 including a transfer lever 861 and a transfer drive cylinder 862 (refer to FIG. 3), the cylinder shaft 8621 of the transfer drive cylinder 862 is engaged with the transfer lever 861, so that the transfer drive cylinder 862 can drive the transfer lever 861 to the 90°. The porcelain casing 103 in the entire column separating device 72 is moved into the open end 811 on the side of the lateral chute 81 of the lateral feed rail 8, and the transfer drive cylinder 862 is joined to the rear side of the transverse feed rail 8 or the machine A suitable position above 20; half of the finished product is pushed into the cylinder 87 (refer to FIG. 2), and is fixed on the front side of the machine table 20, and a pusher member 872 is engaged by the cylinder shaft 871 thereof, and the pusher member 872 faces the The other side opening 812 of the transverse feed rail 8 and the semi-finished product pushed into the cylinder shaft 871 of the cylinder 87 can push the vertical porcelain cement resistor semi-finished product 10′′ located at the other side opening 812 of the transverse feed rail 8 The discharge device 9 (refer to FIG. 6) is disposed in the discharge tray 92; a discharge device 9 includes a discharge rack 91, a plurality of discharge trays 92, a push-in positioning positioning rodless cylinder 90, and a full tray transverse direction. The cylinder 93 (refer to FIG. 7), at least one spacer positioning cylinder 94 (refer to FIG. 9), and a row of trays are pushed forward and backward into the rodless cylinder 95, The discharge tray is laterally pushed into the rodless cylinder 96, and the discharge rack 91 is provided with a plurality of partitions 910, 911, 912 for discharging the plurality of discharge trays 92, and at least one perforation 913 is provided on one side thereof for the spacers The spacer 941 to which the cylinder shaft of the positioning cylinder 94 is engaged protrudes upwardly, and a discharge tray 92 is positioned through the spacer 941. The discharge rack 91 has a lateral slot 914 on the other side, and the plurality of trays One side of each of the discharge trays 92 of 92 is an open end 921 for pushing the semi-finished product into the cylinder-engaged pusher member 872 to push the vertical porcelain shell cement resistor semi-finished product 10" into the discharge tray 92; Pushing material positioning rodless cylinder 90 The first longitudinal sliding rod 916 disposed in the front section of the discharge rack 91 is slidably disposed in a front-rear direction, and the push-in material is positioned to the rod-free cylinder 90 and engages a positioning bracket 901 for insertion. In a row of trays 92, and just as the positioning bracket 901 abuts against the vertical porcelain shell cement resistor semi-finished product 10" pushed into the discharge tray 92, the vertical type pushed into the discharge tray 92 The position of the porcelain shell cement resistor semi-finished product 10", the push-in material positioning rodless cylinder 90 can also be controlled to slide backwards in a timely manner, and the full-disk lateral push-out cylinder 93 is disposed at the bottom or the machine of the discharge rack 91. Other suitable portions of the table 20, and the full plate laterally pushes out the cylinder shaft 931 of the cylinder 93 and engages a laterally ejecting bracket 932, so that the cylinder shaft 931 of the cylinder 93 can be pushed out through the full disk to interlock the laterally ejecting bracket 932 to be fully aligned. The discharge tray 92 of the porcelain-resin cement resistor semi-finished product 10" is laterally pushed out, and the spacer positioning cylinder 94 is disposed at the bottom of the discharge rack 91, and the cylinder shaft of the spacer positioning cylinder 94 is relatively movable when reciprocatingly expanding and contracting. The spacer 941 extends upwardly from the perforation 913 of the discharge rack 91 or is retracted downward The full-disc laterally pushing the cylinder 93 is required to control the cylinder shaft of the spacer positioning cylinder 94 to drive the spacer 941 downwardly to avoid interference before laterally pushing out the discharge tray 92. The discharge tray is pushed laterally into the rodless cylinder. The 96-slide is disposed in a laterally slidable state with the lateral shaft 915 disposed at the bottom of the discharge rack 91. The discharge tray is laterally pushed into the rodless cylinder 96 to engage a push-in bracket 961. The push-in bracket The 961 includes an arm 9611 that is movable within the transverse slot 914 of the discharge rack 91 and a push plate 9612 that can be moved through the discharge tray 92. The rodless cylinder 96 can be pushed laterally through the discharge tray to drive the push-in bracket 961. Pushing the empty discharge tray 92 laterally and pushing the discharge tray forward and backward into the rodless cylinder 95, the discharge tray is pushed forward and backward into the rodless cylinder 95, and the slide is arranged on the discharge rack. The second longitudinal shaft 917 provided in cooperation with the 91 is slidable in the front-rear direction, and the discharge tray is pushed forward and backward into the rodless cylinder 95 to engage the front and rear push-in bracket 951, and the front and rear of the discharge tray are pushed through the discharge tray. The rod cylinder 95 can push the empty discharge tray 92 from the rear to the front side of the discharge rack 91 together with its front and rear push-in brackets 951 so as not to continue to be pushed into the position pushed into the cylinder 87 by the semi-finished product. a porcelain shell cement resistor semi-finished product 10"; further, as shown in FIG. 5, the second jaw 241 of the second jaw seat 24 of the second jaw group 2 includes a source of high pressure gas (Fig. Shown by the two movable claws 2412.

In addition, referring to FIG. 4 and FIG. 5 , the third jaw 341 of the third jaw holder 34 of the third jaw group 3 includes two movable claws 3412 that can be driven by a high-pressure gas source.

Moreover, referring to FIG. 1 , the fourth jaw 531 of the fourth jaw seat 53 of the fourth jaw set 5 includes two fixing claws 5311 and two movable claws 5312 .

In summary, this creation can be summarized as having the following enhancements:

1. The sheet metal resistor 100 can be stamped into the sheet metal resistor 10' having the bent portion 100' on both sides through the upper and lower dies 44, 42 of the air pressure forming module 4, and accurately inserted into the positioning concave of the porcelain shell 103. The vertical porcelain shell cement resistor semi-finished product 10" is completed by the groove 1031 to achieve the purpose of precise and automatic assembly, and the advantages of manpower and man-hour are relatively saved.

2. The resistance of the assembled vertical porcelain shell cement resistor semi-finished product 10" can be further measured by the front seat 83 and the rear seat 84 by the lateral feed rail 8 The detection and the activity gate 85 are used to exclude the detected defective products, thereby further achieving the practicality of saving manpower and working hours.

3. The detected vertical porcelain shell cement resistor semi-finished product 10" can be automatically collected through the array disk 92 of the aligning device 9, so as to further save manpower, reduce man-hours and automated production.

Therefore, the creation of this case does have its practical and effective effect. It is a new type of patent application. It is requested that the review board of the bureau should examine and grant the patent in detail.

However, the above is only the preferred embodiment of the present invention. When it is not possible to limit the scope of this creation, the equivalent changes and modifications made by the scope of the patent application should remain the patents covered by this creation. Within the scope.

(1)‧‧‧Metal sheet resistance welding device

(10) (10') ‧ ‧ sheet metal resistance

(10")‧‧‧Vertical porcelain shell cement resistor semi-finished products

(100)‧‧‧Metal plates

(100’) ‧ ‧ bends

(101)‧‧‧Wire

(103)‧‧‧ porcelain shell

(1031)‧‧‧ positioning groove

(11)‧‧‧Metal sheet feeding group

(12)‧‧‧Metal sheet straightening group

(13)‧‧‧Feed clamping and wire length setting group

(131) ‧ ‧ cents card

(14)‧‧‧First jaw group

(15) ‧‧‧Pneumatic cut-off group

(161)‧‧‧Left wire feeding group

(162)‧‧‧Right wire feeding group

(17) ‧‧‧ spot welding group

(18)‧‧‧Left and right wire cutting groups

(2) ‧‧‧Second jaw group

(20)‧‧‧ Machines

(201)‧‧‧Second horizontal rails

(202) ‧‧‧ Third transverse rail

(21)‧‧‧Second transverse drive cylinder

(22)‧‧‧Second slide

(211) (311) (451) (461) (511) (521) (611) (8621) (871) (931) ‧ ‧ cylinder shaft

(23) ‧‧90° rotating cylinder

(24)‧‧‧Second jaw seat

(241)‧‧‧second jaw

(2412) (3412) (5312) ‧ ‧ movable claws

(3) ‧‧‧third jaw group

(31)‧‧‧ Third transverse drive cylinder

(32)‧‧‧ Third slide

(33) ‧‧‧ front and rear direction slide cylinders

(34) ‧‧‧third jaw seat

(341)‧‧‧ Third jaw

(4) ‧‧‧Air pressure forming module

(41) ‧‧‧ lower mold base

(411) ‧‧‧Cylinder

(42) ‧‧‧下模

(43)‧‧‧上模座

(44) ‧‧‧Upper die

(45) ‧‧‧Upper die drive cylinder

(452) ‧‧‧Upper module

(46) ‧‧‧ Lower die drive cylinder

(462)‧‧‧Next module

(5) ‧‧‧Four jaw group

(51) ‧‧‧ front and rear drive cylinders

(52) ‧‧‧Up and down drive cylinders

(53)‧‧‧Four gripper seat

(531)‧‧‧ Fourth jaw

(5311)‧‧‧Fixed claws

(6)‧‧‧ porcelain shell assisted positioning group

(61)‧‧‧ Positioning frame drive cylinder

(62) ‧ ‧ positioning frame

(7) ‧‧‧Vibration feeding group

(71) ‧‧‧Feed Track

(72) ‧‧‧90° whole separation group

(8) ‧‧‧Horizontal feed track

(81)‧‧‧Transverse chute

(811) (921) ‧ ‧ open end

(812) ‧ ‧ openings

(83)‧‧‧Detecting the front seat

(84) ‧‧‧Detecting the back seat

(85) ‧‧‧ activity gate

(86)‧‧‧Transfer lever set

(861)‧‧‧Transfer lever

(862)‧‧‧Transfer drive cylinder

(87) ‧‧‧ semi-finished products pushed into the cylinder

(872)‧‧‧ Pushing parts

(9)‧‧‧Discharge device

(90)‧‧‧ Pushing material positioning rodless cylinder

(901)‧‧‧ Positioning bracket

(91)‧‧‧Disc rack

(910) (911) (912) ‧ ‧ partition

(913)‧‧‧Perforation

(914)‧‧‧ transverse slots

(915)‧‧‧Horizontal shaft

(916)‧‧‧First longitudinal slider

(917)‧‧‧Second longitudinal shaft

(92)‧‧‧Discharge tray

(93) ‧‧‧ Fully horizontally pushed out of the cylinder

(932)‧‧‧ Horizontally launched bracket

(94) ‧‧‧Separate column positioning cylinder

(941)‧‧‧ spacer

(95) ‧‧‧Pushing trays are pushed into the rodless cylinders before and after

(951) ‧ ‧ push-in bracket

(96) ‧‧‧Drawer tray laterally pushed into the rodless cylinder

(961)‧‧‧ Push into the bracket

(9611)‧‧‧ Arms

(9612)‧‧‧ Push board

(A)‧‧‧Metal sheet resistors inserted into porcelain shells and alignment devices

Figure 1 is a perspective view of the present embodiment.

Figure 2 is a perspective view of a portion of the present embodiment.

Figure 3 is a perspective enlarged view of another angle after the present embodiment.

Figure 4 is a perspective enlarged view of another angle portion of the present embodiment.

Figure 5 is a partial enlarged view of the second jaw group rotated 90° in the present embodiment.

Figure 6 is a perspective enlarged view of another angle after the present embodiment.

Figure 7 is a perspective enlarged view of another embodiment of the present embodiment.

Figure 8 is a plan view showing the stamping state of the pneumatic forming group in the present embodiment.

Figure 9 is a partial side elevational plan view showing the positioning cylinder of the spacer in the present embodiment.

Figure 10 is a top plan enlarged view of the second jaw set in the present embodiment.

Figure 11 is a plan view showing the sheet metal resistance processed by the sheet metal resistance welding apparatus in the present embodiment.

Figure 12 is a front perspective exploded view of the metal sheet resistor after being stamped and formed without being inserted into the porcelain shell in the present embodiment.

Figure 13 is a front plan view showing the vertical form of the vertical porcelain cement resistor after the metal sheet resistor is inserted into the porcelain shell in the present embodiment.

(1)‧‧‧Metal sheet resistance welding device

(101)‧‧‧Wire

(161)‧‧‧Left wire feeding group

(2) ‧‧‧Second jaw group

(201)‧‧‧Second horizontal rails

(202) ‧‧‧ Third transverse rail

(22)‧‧‧Second slide

(3) ‧‧‧third jaw group

(311)(461)(521)(611)(871)‧‧‧Cylinder shaft

(32)‧‧‧ Third slide

(33) ‧‧‧ front and rear direction slide cylinders

(34) ‧‧‧third jaw seat

(4) ‧‧‧Air pressure forming module

(41) ‧‧‧ lower mold base

(411) ‧‧‧Cylinder

(42) ‧‧‧下模

(43)‧‧‧上模座

(44) ‧‧‧Upper die

(45) ‧‧‧Upper die drive cylinder

(452) ‧‧‧Upper module

(462)‧‧‧Next module

(5) ‧‧‧Four jaw group

(51) ‧‧‧ front and rear drive cylinders

(52) ‧‧‧Up and down drive cylinders

(53)‧‧‧Four gripper seat

(531)‧‧‧ Fourth jaw

(5311)‧‧‧Fixed claws

(5312)‧‧‧ Activity claws

(6)‧‧‧ porcelain shell assisted positioning group

(62) ‧ ‧ positioning frame

(7) ‧‧‧Vibration feeding group

(71) ‧‧‧Feed Track

(72) ‧‧‧90° whole separation group

(8) ‧‧‧Horizontal feed track

(81)‧‧‧Transverse chute

(811)‧‧‧Open end

(812) ‧ ‧ openings

(87) ‧‧‧ semi-finished products pushed into the cylinder

(872)‧‧‧ Pushing parts

(9)‧‧‧Discharge device

(91)‧‧‧Disc rack

(910)‧‧‧ 隔块

(916)‧‧‧First longitudinal slider

Claims (4)

A metal sheet resistance welding and inserting porcelain shell alignment machine comprises a metal sheet resistance welding device and a metal sheet resistor inserted into the porcelain shell and the arranging device, wherein the metal sheet resistance welding device is for processing the sheet metal resistance to provide the metal sheet The resistor is inserted into the porcelain shell and the aligning device; and the metal sheet resistor is inserted into the porcelain shell and the aligning device, comprising: a second jaw group comprising a second transversely driven cylinder, a second sliding seat, and a 90° rotation a cylinder, a second jaw seat, the second sliding seat is laterally sleeved on a second lateral rail disposed on the front side of the machine, and the cylinder shaft of the second laterally driven cylinder is coupled to the second sliding seat And the second sliding seat is engaged with the 90° rotating cylinder, and the second clamping seat is pivoted above the 90° rotating cylinder, and the second clamping seat is connected to the high pressure gas source to transmit the high pressure gas source. Linking a pair of second jaws disposed on one side of the second jaw seat, the cylinder shaft of the second lateral transmission cylinder can drive the second carriage to slide laterally to the metal along the second lateral rail Piece of resistance welding device and control The pressure gas source drives the second jaw seat to hold the spot-welded sheet metal resistance, and then slides inwardly and then controls the 90° rotation cylinder to drive the second jaw seat to rotate 90° to clamp the metal. The sheet resistance is toward the third jaw group; a third jaw group includes a third lateral transmission cylinder, a third sliding seat, a front and rear direction sliding cylinder (SLIDE CYLINDER), a third clamping seat, the third sliding seat The third sliding rail is disposed on the front side of the machine, and the third sliding seat is Engaging with a cylinder shaft of a third laterally driven cylinder, above the third carriage and engaging the front and rear direction slide cylinders, above and below the front and rear direction slide cylinders and engaging the third jaw seat to drive the third The jaw block slides in front and rear directions, and the third jaw seat is connected to the high-pressure gas source to connect a pair of third jaws disposed on one side of the high-pressure gas source through the high-pressure gas source, and is slidable through the front and rear directions. The cylinder drives the third jaw seat to slide backward, and cooperates with the control of the high-pressure gas source to drive the third jaw to clamp the resistance of the metal sheet held by the second jaw group, and then controls the front and rear direction of the sliding cylinder to drive the cylinder. After the three jaws slide forward, the third transverse drive cylinder can be controlled to send the third slide laterally to the air pressure forming group, and the metal sheet resistance clamped by the third jaw is located in the air pressure forming group. Between the upper and lower dies; the air pressure forming module includes a lower die base, a lower die, an upper die block, an upper die, an upper die drive cylinder, and a lower die drive cylinder, and the lower die base is fixed on the machine The front side, the lower mold base and the number of columns Engaging with the upper die holder, the upper die holder engaging the upper die drive cylinder, and the cylinder shaft of the upper die drive cylinder is engaged with the upper die through an upper module, the lower die block engaging the lower die drive a cylinder, and the cylinder shaft of the lower die drive cylinder is engaged with the lower die through a lower module, and when the cylinder shafts of the upper and lower die drive cylinders are simultaneously extended downward and upward, the third can be relatively The sheet metal resistor held by the jaws is stamped, so that the sheet metal resistor is stamped and formed into a sheet metal resistor having bent portions on both sides; the fourth jaw group includes a front and rear drive cylinder, an upper and lower drive cylinder, One fourth a clamping seat, the front and rear transmission cylinders are disposed on the machine platform and located at a rear side of the air pressure forming module, and the cylinder shafts of the front and rear transmission cylinders are engaged with the upper and lower transmission cylinders, and the cylinder shaft of the upper and lower transmission cylinders is further The fourth jaw seat is engaged, and the fourth jaw seat is connected to the high pressure gas source to drive the fourth jaw provided on the front side of the fourth jaw seat by the high pressure gas source, and the upper and lower transmission cylinders can be controlled to be the cylinder shaft Sliding and relatively moving the fourth clamping seat to the required height, and then controlling the front and rear transmission cylinders to cause the cylinder shaft to drive the fourth clamping jaw forwardly into the upper and lower dies of the air pressure forming module, and then control The high pressure gas source interlocks the fourth jaw of the fourth jaw seat to clamp the sheet metal resistance of the bent portion on both sides, and then controls the front and rear transmission cylinders to drive the cylinder shaft to drive the upper and lower drive cylinders and the fourth jaw seat backward Displace and exit the air pressure forming module, and then control the upper and lower transfer cylinders to extend the cylinder axially downward, and clamp the fourth jaw of the fourth jaw seat to the metal with the bent portion on both sides The sheet resistance is inserted downward into the lateral feed rail The positioning hole of the porcelain shell is completed, and the vertical ceramic shell cement resistor semi-finished product is completed; the porcelain shell auxiliary positioning group comprises a positioning frame transmission cylinder and a positioning frame, and the positioning frame transmission cylinder is arranged on the machine table and located in the air pressure forming mold Between the group and the fourth jaw set, the cylinder shaft of the positioning frame transmission cylinder is engaged with the positioning frame above the cylinder frame, so that the cylinder shaft is relatively moved up and down when the cylinder shaft is extended and lowered. After the positioning frame transmission cylinder is controlled to slide down, the positioning frame that is engaged by the positioning frame can be pressed against the porcelain shell facing the lateral feeding rail to facilitate the fourth of the fourth clamping jaw group. The fourth jaw of the jaw seat stabilizes the resistance of the U-shaped metal piece with the bent portion on both sides of the clamp Indeed, it is inserted downward into the positioning groove of the porcelain shell; a vibrating feeding group sequentially guides the porcelain shell and conducts it through the feeding rail into the 90° integral separation group; a transverse feeding rail is arranged in front of the machine The side has a lateral chute, and one open end of the lateral chute can receive the porcelain shell loaded by the transfer lever set, and a detecting front seat is fixed on one side of the lateral feeding rail. The detection machine is additionally provided with a detection rear seat for performing resistance resistance detection on the passed vertical porcelain shell cement resistor semi-finished product, and the lateral feeding rail is matched with a movable gate, which is connected with a high-pressure gas source, and can control the high voltage as needed. The gas source is linked to open the movable gate, and the defective product is blown away to be excluded from the lateral feeding rail, and the other outlet end of the horizontal feeding rail is further provided with an opening; a transfer lever group includes a transfer lever and a transfer drive cylinder, the cylinder shaft of the transfer drive cylinder is engaged with the transfer lever, so that the transfer drive cylinder can drive the transfer lever to the 90° Whole column separation The inner porcelain shell is loaded into the open end of the lateral chute side of the transverse feed rail, and the transfer drive cylinder is engaged at the rear side of the transverse feed rail or at a suitable position above the machine; half of the finished product is pushed into the cylinder, Fixing on the front side of the machine, and engaging a pusher member by the cylinder shaft thereof, the pusher member facing the other side opening of the transverse feed rail, and then the semi-finished product is pushed into the cylinder shaft extension of the cylinder When it is out, the vertical porcelain cement resistor semi-finished product which is open on the other side of the transverse feed rail can be pushed into the discharge device. In the discharge tray; a discharge device, comprising a discharge rack, a plurality of discharge trays, a push-in positioning positioning rodless cylinder, a full tray laterally pushing out the cylinder, at least one spacer positioning cylinder, and a discharge tray before and after pushing a rodless cylinder, a row of trays laterally pushed into the rodless cylinder, the discharge rack is provided with a plurality of spacers for discharging a plurality of discharge trays, and at least one perforation is provided on one side thereof for positioning the cylinders of the spacers a spacer engaged by the cylinder shaft projects upwardly and positions a discharge tray through the spacer, the other side of the discharge rack has a transverse slot, and one side of each of the plurality of discharge trays For the open end, the vertical porcelain shell cement resistor semi-finished product is pushed into the discharge tray by the pusher for pushing the semi-finished product into the cylinder joint; the push-in material positioning rodless cylinder system is slidably disposed on the discharge material The first longitudinal sliding rod disposed in front of the frame is in a front-rear direction, and the pushing material is positioned to be a rodless cylinder and engages a positioning bracket for extending into a discharge tray, and the positioning bracket is just Abutting the vertical porcelain cement resistor semi-finished product pushed into the discharge tray, and pushing it into the row The position of the vertical porcelain shell cement resistor semi-finished product in the disc is arranged, and the push-in material positioning rodless cylinder can also be controlled to slide backwards in time, and the full-disc laterally-expressing cylinder is disposed at the bottom of the discharge rack or the machine Other suitable parts of the table, and the full plate laterally pushes out the cylinder shaft of the cylinder and engages a laterally protruding bracket, so that the cylinder shaft of the cylinder can be pushed out laterally through the full disk to laterally push out the bracket to be filled with the vertical ceramic cement resistor semi-finished product. The discharge tray is laterally pushed out, and the spacer positioning cylinder is disposed at the bottom of the discharge rack, and when the cylinder shaft of the spacer positioning cylinder reciprocates and retracts, the spacer can be driven upward to protrude upward or downward of the discharge rack. Retracted, the full plate laterally pushes out the cylinder to be lateral Before the discharge tray is pushed out, the cylinder shaft of the positioning cylinder of the spacer is first controlled to drive the spacer to be retracted downward to avoid interference, and the discharge tray is laterally pushed into the horizontal direction of the rodless cylinder system which is arranged at the bottom of the discharge rack. The shaft is laterally slidable, the discharge tray is laterally pushed into the rodless cylinder system to engage a push-in bracket, and the push-in bracket includes an arm movable in a lateral slot of the discharge rack and is movable Pushing plate of the discharge tray, pushing the rodless cylinder laterally through the discharge tray, driving the push-in bracket to push the empty discharge tray laterally and pushing the rod-free cylinder forward and backward near the discharge tray, the discharge The second longitudinal shaft of the disc is disposed in the front and rear direction of the second longitudinal shaft which is arranged in the discharge rack, and the discharge tray is pushed forward and backward into the rodless cylinder system to engage the front and rear brackets. Pushing the rodless cylinder forward and backward through the discharge tray, the empty discharge tray can be pushed from the back to the front side of the discharge rack together with the front and rear push-in brackets thereof, so as not to continue to be pushed into the cylinder by the semi-finished product The semi-finished product of the vertical porcelain shell cement resistor that was pushed in. The sheet metal resistance welding and inserting porcelain shell sorting machine according to claim 1, wherein the second jaw of the second jaw set of the second jaw group comprises two rollers that can be driven by a high pressure gas source. Active claws. The sheet metal resistance welding and inserting porcelain shell sorting machine according to claim 1, wherein the third jaw provided by the third jaw block of the third jaw group comprises two gases that can be driven by a high pressure gas source. Active claws. The sheet metal resistance welding and inserting porcelain shell sorting machine according to claim 1, wherein the fourth jaw of the fourth jaw set of the fourth jaw set includes two fixing claws and two movable claws. .