TWI564133B - Broken wire processing device and broken wire processing method - Google Patents

Description

Disconnection processing device and disconnection processing method

The present invention relates to a wire breakage processing device and a wire breakage processing method, and more particularly to a wire breakage processing device and a wire breakage processing method for a wire cutting device.

With the rise of environmental awareness, the concept of energy conservation and carbon reduction has gradually attracted the attention of the audience. The development and utilization of renewable energy has become the focus of active development in all countries of the world. Among the renewable energy sources, because solar energy is available everywhere, and unlike other energy sources (such as petrochemical energy and nuclear energy), it will generally pollute the earth. Therefore, solar energy and various devices that can convert sunlight into electric energy are currently the star industry. .

In the process of solar wafers, the elongated ingots are passed through a wire cutting device to cut a plurality of solar wafers. In general, the wire cutting device includes a plurality of rollers and a cutting line uniformly wound around the rollers. During the conveying process, the cutting wires may be broken due to wear and tear caused by abrasion between the cutting wires and the guide rollers. The line, even at different positions of the guide wheel, is broken. In the event of a disconnection After that, the cutting line will be pulled away after the broken line, so that the guide wheel will only be wound by the cutting line in the partial section, and the remaining section will not be wound by the cutting line. Therefore, when the ingot passes through the remaining cutting line in the wire cutting device, the portion of the ingot that does not pass through the cutting line is not cut, so that the ingot of this segment must be discarded, resulting in an overall cost increase.

The present invention provides a wire breakage processing apparatus adapted to be placed on an inline cutting device. The wire cutting device includes a plurality of guide wheels and a cutting line wound around the guide wheels. The wire breaking processing device includes a first fixing bracket, a first outgoing roller, a second fixing bracket, a first tension providing roller, a third fixing bracket and a first wire feeding roller. The first fixing bracket and the third fixing bracket are adapted to be fixed to the wire cutting device and located on one side of the rollers. The first outgoing roller and the first incoming roller are respectively adjustably disposed on the first fixed bracket and the third fixed bracket at a first disconnection of the cutting line. The second fixing bracket is adapted to be fixed to the wire cutting device away from the guide wheels. The first tension providing roller is adjustably disposed on the second fixing bracket. The re-connected cutting line after the initial disconnection bypasses the first outgoing guide pulley, the first tension providing guide pulley, and the first incoming guide pulley to maintain the required tension of the cutting line.

In an embodiment of the invention, the second outgoing roller, the second tension providing roller and the second incoming roller are further included. The second outlet roller and the second inlet roller are respectively adapted to be adjustably fixed to the second disconnection of the wire cutting device near the cutting line. a second tension providing roller adapted to be adjustably disposed on the wire cutting device away from the guides At the wheel. The re-connected cutting line after the second disconnection bypasses the second outgoing guide wheel, the second tension providing roller and the second incoming roller to maintain the required tension of the cutting line.

In an embodiment of the invention, the fourth fixing bracket and the fifth fixing bracket are further included. The fourth fixing bracket and the fifth fixing bracket are respectively fixed on the wire cutting device and located on the side of the guiding wheels. The second outlet roller and the second inlet roller are respectively adjustably disposed on the fourth fixing bracket and the fifth fixing bracket.

In an embodiment of the invention, the method further includes a plurality of fixing bars vertically fixed to at least one of the first fixing bracket and the third fixing bracket, wherein at least one of the fourth fixing bracket and the fifth fixing bracket The inline cutting device is configured through these fixed bars.

In an embodiment of the invention, each of the fixed bars includes a screw and a plurality of nuts that are screwed into the screw.

In an embodiment of the invention, the second tension providing roller is adjustably disposed on the second fixing bracket.

In an embodiment of the invention, the wire cutting device comprises a cutting chamber and a spool chamber, wherein the guide wheel, the first outgoing roller and the first incoming roller are located in the cutting chamber, and the first tension providing roller is located in the spool chamber, and is re- A portion of the connected cutting line is pulled from the cutting chamber to the spool chamber and bypasses the first tension providing roller.

In an embodiment of the invention, the wire cutting device comprises an original incoming roller and an original outgoing roller fixed to the wire cutting device on the side of the roller, and the cutting wire passes before and after being wound around the guide wheel. The original incoming roller and the original outgoing roller, the first incoming roller is parallel to the original incoming roller, and the first outgoing line The roller is parallel to the original take-up roller to cause the re-connected cutting line to wrap around and exit the guide wheel at a particular angle.

In an embodiment of the present invention, a sixth fixing bracket is further disposed on the wire cutting device and located on the side of the guide wheel, wherein the original wire feeding roller is fixed to the first fixing bracket, and the original wire roller is fixed to the wire. The sixth fixed bracket.

In an embodiment of the invention, the first fixing bracket, the second fixing bracket and the third fixing bracket respectively comprise a first multidirectional bearing, a second multidirectional bearing and a third multidirectional bearing to adjust the first fixing bracket The angle of the second fixing bracket and the third fixing bracket.

The invention further provides a wire breaking processing method suitable for a wire cutting device. The wire cutting device includes a plurality of guide wheels and a cutting line wound on the guide wheels and initially disconnected. The wire breaking processing method comprises the following steps: pulling out the two ends of the cutting wire for the first time and engaging the two ends of the cutting wire; fixing the first fixing bracket, the second fixing bracket, and the third fixing bracket of the wire breaking processing device to the wire cutting In the device, the first fixing bracket and the third fixing bracket are located at one side of the rollers, and the second fixing bracket is located away from the guiding wheels; the first outgoing roller, the first tension of the disconnecting device is adjustably configured Providing a roller and a first inlet roller on the first fixing bracket, the second fixing bracket and the third fixing bracket, wherein the first outgoing roller and the first incoming roller are located at a first disconnecting line close to the cutting line; and the first breaking The re-connected cutting line after the wire bypasses the first outgoing roller, the first tension providing roller and the first incoming roller to maintain the desired tension of the cutting wire.

In an embodiment of the invention, the cutting line is disconnected a second time, and the wire is broken. The processing method further comprises the steps of: pulling out the two ends of the cutting line for the second time and engaging the cutting line at the two ends of the second disconnection; adjusting the second outgoing roller of the disconnecting device, The two tension providing roller and the second incoming roller are on the wire cutting device, wherein the second outgoing roller and the second incoming roller are located at a second disconnection near the cutting line; the second disconnected wire is reconnected after being disconnected The cutting line bypasses the second take-up roller, the second tension providing roller and the second incoming roller to maintain the desired tension of the cutting line.

In an embodiment of the invention, the fourth fixing bracket and the fifth fixing bracket of the fixed wire breaking processing device are further included on the wire cutting device, so that the second wire guide wheel and the second wire guide wheel are adjustably arranged.

In an embodiment of the invention, the wire breaking processing device further includes a plurality of fixing bars vertically fixed to at least one of the first fixing bracket and the third fixing bracket, wherein the fourth fixing bracket and the fifth fixing bracket At least one of the fixing brackets is disposed on the inline cutting device through the fixing bars.

In an embodiment of the invention, each of the fixed bars includes a screw and a plurality of nuts that are screwed into the screw.

In an embodiment of the invention, the second tension providing roller is adjustably disposed on the second fixing bracket.

In an embodiment of the invention, the wire cutting device comprises a cutting chamber and a spool chamber, wherein the guide wheel, the first outgoing roller and the first incoming roller are located in the cutting chamber, and the first tension providing roller is located in the spool chamber, and is re- A portion of the connected cutting line is pulled from the cutting chamber to the spool chamber and bypasses the first tension providing roller.

In an embodiment of the invention, the wire cutting device comprises an original wire feeding roller and an original wire roller fixed on the wire cutting device on the side of the wire guide, and the cutting wire is respectively wound before and after being wound around the guide wheel. After the original incoming roller and the original outgoing roller, the first incoming roller is parallel to the original incoming roller, and the first outgoing roller is parallel to the original outgoing roller, so that the reconnected cutting wire is wound into and out of the guide wheel at a specific angle. .

In an embodiment of the present invention, the wire breaking device further includes a sixth fixing bracket adapted to be fixed to the wire cutting device and located on the side of the guide wheel, wherein the original wire feeding roller is fixed to the third fixing bracket, and The original take-up roller is fixed to the sixth fixed bracket.

In an embodiment of the invention, the first fixing bracket, the second fixing bracket and the third fixing bracket respectively comprise a first multidirectional bearing, a second multidirectional bearing and a third multidirectional bearing to adjust the first fixing The angle of the bracket, the second fixing bracket and the third fixing bracket.

Based on the above, when the cutting line is broken for the first time, both ends of the broken line of the cutting line are pulled out and welded, and then the wire breaking processing device of the present invention passes through the first, in order to maintain a specific tension of the entire cutting line. The third fixing bracket is fixed on the online cutting device, and the first outlet roller and the first inlet roller are respectively disposed on the first fixing bracket and the third fixing bracket at the first breaking line of the cutting line, and then fixed by the second fixing bracket. The wire is cut away from the guide wheel (for example, the spool chamber), and the first tension of the second fixing bracket is used to provide the roller for adjusting the line tension. The first tension provides the roller to adjust the distance according to the required tension of the cutting line. Disposed on the second fixed bracket, The drawn cutting line bypasses the first take-up roller, the first tension providing roller and the first incoming roller, and is supplied with sufficient tension. Similarly, when the cutting line is broken twice, the wire breaking processing device of the present invention can dispose the second outgoing roller and the second incoming roller at a secondary breaking line close to the cutting line, and the second tension providing roller Depending on the required tension of the cutting line, it is disposed at a far position, and the section where the cutting line is joined after the second breaking can be entangled by the second outgoing roller, the second tension providing roller and the second incoming roller, and Being supplied with sufficient tension. Through the wire breaking processing device of the present invention, the wire cutting device does not need to discard the cutting line at the broken position, and the cutting line is evenly distributed on the guide wheel, so that the ingots passing through the wire cutting device can be cut without wasting Ingot.

The above described features and advantages of the invention will be apparent from the following description.

10‧‧‧Wire cutting device

11‧‧‧ cutting room

12‧‧‧ spool room

13‧‧‧guide wheel

14‧‧‧ Original incoming line wheel

15‧‧‧Original outlet roller

16‧‧‧ cutting line

100‧‧‧Disconnection processing device

110‧‧‧First fixed bracket

112‧‧‧ Guide groove

114‧‧‧First multidirectional bearing

115‧‧‧First outlet roller

120‧‧‧Second fixed bracket

125‧‧‧First tension providing roller

130‧‧‧ third fixed bracket

135‧‧‧First entry wheel

140‧‧‧Second outlet roller

145‧‧‧Four fixed bracket

150‧‧‧Second tension supply roller

160‧‧‧Second entry roller

165‧‧‧Fix fixed bracket

170‧‧‧Fixed bars

172‧‧‧ screw

174‧‧‧ Nuts

180‧‧‧6th fixed bracket

200‧‧‧Wire breaking method

210~270‧‧‧Steps

1 is a schematic diagram of a portion of a wire breakage processing device configured with a cutting chamber of an inline cutting device, in accordance with an embodiment of the present invention.

2 is a schematic diagram of another portion of a wire breakage processing device configured with a spool chamber of an inline cutting device in accordance with an embodiment of the present invention.

3 is a schematic view of a first fixing bracket of the wire breaking processing device of FIG. 1.

Figure 4 is a schematic exploded view of Figure 3.

5 is a schematic view of the first fixing bracket, the fourth fixing bracket and the fixing bar of the wire breaking processing device of FIG. 1.

FIG. 6 is a schematic flow chart of a disconnection processing method according to an embodiment of the invention.

1 is a schematic diagram of a portion of a wire breakage processing device configured with a cutting chamber of an inline cutting device, in accordance with an embodiment of the present invention. 2 is a schematic diagram of another portion of a wire breakage processing device configured with a spool chamber of an inline cutting device in accordance with an embodiment of the present invention.

Referring to FIG. 1 and FIG. 2, the wire breaking processing device 100 of the present embodiment is adapted to be disposed on the wire cutting device 10. In the present embodiment, the wire cutting device 10 has a cutting chamber 11 as shown in Fig. 1 and a spool chamber 12 as shown in Fig. 2. In the cutting chamber 11, the wire cutting device 10 includes a plurality of guide wheels 13, an original incoming roller 14, an original take-up roller 15, and a cutting line 16 that bypasses the original incoming roller 14, the guide wheels 13, and the original take-up roller 15. In detail, after the roll cutting line 16 is pulled out from a take-up device (not shown), the original wire feed roller 14 is evenly wound around the guide wheels 13 from the left side of FIG. 1 at a specific angle, and then The right side of Fig. 1 passes through the original take-up roller 15, and is then wound into a winding device (not shown). During the cutting process, the cutting line 16 is continuously discharged from the above-described unwinding device and retracted to the winding device described above, so that the ingot (not shown) passing through the cutting line 16 is cut into a plurality of wafers (not drawn) Show).

During the operation of the wire cutting device 10, the cutting wire 16 may be broken due to wear of the cutting wire 16 and the guide wheel 13 or the ingot. In this embodiment, when the cutting line 16 is broken, the ends of the cutting line 16 can be pulled at the broken ends. The welding is performed so that the broken wire can be used after being joined. However, since the section of the cutting line 16 at the original broken line has been pulled out, the entire cutting line 16 cannot maintain the original tension to perform the cutting operation. In the present embodiment, the disconnection processing device 100 is disposed on the in-line cutting device 10 so that the entire cutting line 16 after the bonding can maintain the required tension, and the original cutting operation can be performed.

The disconnection processing apparatus 100 will be described in detail below. Referring to FIG. 1 and FIG. 2 simultaneously, the wire breaking processing device 100 includes a first fixing bracket 110, a first outgoing roller 115, a second fixing bracket 120, a first tension providing roller 125, a third fixing bracket 130, and a first access line. Roller 135.

The first fixing bracket 110 and the third fixing bracket 130 are adapted to be fixed on the wire cutting device 10 in the cutting chamber 11 and on one side of the guide wheels 13. The first outgoing roller 115 and the first incoming roller 135 are respectively adjustably disposed on the first fixing bracket 110 and the third fixing bracket 130 at a first disconnection of the cutting line 16 .

3 is a schematic view of a first fixing bracket of the wire breaking processing device of FIG. 1. In the embodiment, the first fixing bracket 110 has a guiding groove 112 for the first outgoing roller 115 to slide and be fixed thereon. In this embodiment, the second fixing bracket 120 and the third fixing bracket 130 are also fixed in the same manner as the first fixing bracket 110 for the first tension providing roller 125 and the first threading roller 135 to be slid to a desired position. I will not repeat them here.

Referring back to FIG. 1, the operator can set the first outgoing roller 115 and the first incoming roller 135 to be close to the original broken line, depending on the position of the first disconnection, to guide the cutting line 16 of the segment. In addition, in this embodiment, the first incoming roller 135 is flat. The original take-up roller 14 is run, and the first outgoing roller 115 is parallel to the original outgoing roller 15 so that the cutting line 16 can be wound into and out of the guide wheel 13 at the same angle as the other segments. , to reduce the impact on the cutting of the ingot due to different angles.

Furthermore, the second fixing bracket 120 is adapted to be fixed to the wire cutting device 10 away from the guide wheel 13, such as the spool chamber 12 shown in FIG. The first tension providing roller 125 is disposed on the second fixing bracket 120 to be adjusted far and near. Since the cutting line 16 is to be pulled away from the cutting wheel 16 for a certain length, in order to provide sufficient tension of the cutting line 16, the second fixing bracket 120 of the present embodiment is intentionally disposed in the cutting chamber 11 Next to the spool chamber 12, and the first tension providing roller 125 adjusts the relative position on the second fixed bracket 120 according to the required tension of the cutting line 16. In this way, the cutting line 16 that is reconnected and pulled out of the guide wheel 13 bypasses the first outgoing roller 115, the first tension providing roller 125 and the first incoming roller 135, so that the section is The cutting line 16 is capable of achieving the desired degree of tightness, thereby providing the entire cutting line 16 with sufficient tension.

Of course, in other embodiments, the second fixing bracket 120 and the first tension providing roller 125 may also be located at a position farther away from the guide wheel 13 in the cutting chamber 11, and need not be disposed in an area other than the cutting chamber 11, as long as the cutting line After the first outgoing roller 115, the first tension providing roller 125, and the first incoming roller 135 are bypassed, the required tension can be achieved.

In the embodiment, the disconnection processing device 100 further includes a second outlet roller 140, a second tension providing roller 150, and a second incoming roller 160. Due to wire cutting When the device 10 is in operation, there may be a situation in which the cutting line 16 of other parts is broken. When such a secondary disconnection occurs, the operator can similarly use the second outgoing roller 140 and the second. The incoming roller 160 is disposed on the inline cutting device 10 proximate to the position where the cutting line 16 is at the second broken line to guide the cutting line 16 near the second broken line. Further, the position at which the second tension providing roller 150 is disposed in the spool chamber 12 is adjusted in accordance with the tension required for the cutting line 16. The re-connected cutting line 16 after the second disconnection bypasses the second take-up roller 140, the second tension providing roller 150, and the second incoming roller 160 to maintain the tension required for the cutting line.

In this embodiment, as shown in FIG. 1 , the wire breaking processing device 100 further includes a fourth fixing bracket 145 and a fifth fixing bracket 165 . The fourth fixing bracket 145 and the fifth fixing bracket 165 are respectively fixed to the wire cutting device 10 and located on the side of the guide wheels 13. The second outgoing roller 140 and the second incoming roller 160 are respectively adjustably disposed on the fourth fixing bracket 145 and the fifth fixing bracket 165 to be disposed at a position close to the cutting line 16 at the second disconnection. Further, as shown in FIG. 2, in the present embodiment, the second tension providing roller 150 in the spool chamber 12 is fixed to the second fixing bracket 120 in the same manner as the first tension providing roller 125.

Of course, in other embodiments, the operator can determine whether to let the first outgoing roller 115 and the second outgoing roller 140 share the first one, depending on factors such as the position of the first disconnection and the secondary disconnection, and the supportability of the fixed bracket. The fixing bracket 110 or the first wire feeding roller 135 and the second wire feeding roller 160 share the third fixing bracket 130. In other words, in the cutting chamber, the number of fixing brackets does not have to be the same or different from the number of rollers. In addition, the first tension in the spool chamber 12 provides the roller 125 and the second tension provides a roll The wheel 150 can also be placed on a different fixed bracket and is not limited to the above.

It is to be noted that, in this embodiment, since the second tension providing roller 150 and the first tension providing roller 125 are both fixed on the second fixing bracket 120, in order to avoid hooking the first tension providing roller 125 and the second The cutting lines 16 of the tension providing roller 150 interfere with each other, and the first tension providing roller 125 and the second tension providing roller 150 are respectively disposed on different sides of the second fixing bracket 120, more precisely, in this embodiment, the first The tension providing roller 125 is disposed on the left side of the second fixing bracket 120 on the left side of the drawing, and the second tension providing roller 150 is disposed on the right side of the second fixing bracket 120 on the drawing surface to cut the two Lines 16 can be separated by a distance.

Further, when a plurality of fixing brackets are disposed on this side of the guide wheel 13, FIG. 4 is an exploded view of FIG. 3 in order to avoid structural interference with each other due to space constraints. Referring to FIG. 4, the first fixing bracket 110 includes a first multidirectional bearing 114. In the embodiment, the first multidirectional bearing 114 is a ball bearing, which can provide universal rotation to adjust the angle of the first fixing bracket 110. . Similarly, the second fixing bracket 120 and the third fixing bracket 130 may also include a second multi-directional bearing (not shown) and a third multi-directional bearing (not shown), respectively, so that the second fixing bracket 120 and the third The angle of the fixed bracket 130 can be adjusted as needed, and will not be described here.

In addition, due to space limitations, the wire cutting device 10 may not have sufficient space on this side of the guide wheel 13 to directly lock the mounting brackets thereto, and another way to provide the mounting bracket is provided below. 5 is a schematic view of the first fixing bracket, the fourth fixing bracket and the fixing bar of the wire breaking processing device of FIG. 1. Please Referring to FIG. 1 and FIG. 5 , the wire breaking processing device 100 further includes a plurality of fixing bars 170 vertically fixed to at least one of the first fixing bracket 110 and the third fixing bracket 130 . At least one of the fourth fixing bracket 145 and the fifth fixing bracket 165 is disposed on the inline cutting device 10 through the fixing bars 170.

In detail, in the present embodiment, the wire breaking processing device 10 includes two fixing bars 170, and each fixing bar 170 includes a screw 172 and a plurality of nuts 174 screwed into the screw 172. The screw 172 can penetrate into the guide groove 112 of the first fixing bracket 110 and fix the position of the screw 172 relative to the first fixing bracket 110 through the upper and lower nuts 174. In addition, the screw 172 can pass through the guide groove of the fourth fixing bracket 145 and fix the position of the fourth fixing bracket 145 relative to the screw 172 through the nut 174 above and below the guiding groove. In the above manner, the fourth fixing bracket 145 can be fixed to the first fixing bracket 110 through the fixing bar 170.

Of course, in other embodiments, the fourth fixing bracket 145 can also be in the same form as the first fixing bracket 110 to directly lock the inline cutting device 10 without passing through the fixing bar 170 and the first fixing bracket 110. To be fixed to the wire cutting device 10, the form of the fourth fixing bracket 145 is not limited to the above.

Returning to FIG. 1 , in the embodiment, the first fixing bracket 110 and the third fixing bracket 130 are located at different horizontal planes, that is, the first outgoing roller 115 and the first incoming roller 135 are located at different horizontal planes. In addition, the original incoming roller 14 and the first incoming roller 135 are fixed at different positions on the third fixed bracket 130 such that the original incoming roller 14 and the first incoming roller 135 are substantially at the same horizontal plane. The second incoming roller 160 is located at a lower level due to space constraints. In addition, the first A fixing bracket 110 and a sixth fixing bracket 180 are substantially at the same horizontal plane, and the original outgoing roller 15 is fixed to the sixth fixing bracket 180. Therefore, the original outgoing roller 15 and the first outgoing roller 115 are substantially at the same horizontal plane. The second outlet roller 140 is limited to the space and is located at a higher level.

Of course, in other embodiments, the relative position between the original incoming roller 14, the first incoming roller 135 and the second incoming roller 160, and the original outgoing roller 15, the first outgoing roller 115 and the second outgoing roller 140 The relative position between the two can be adjusted according to the actual space, and is not limited to the above. In addition, if the length of the first fixing bracket 110 is sufficient, the original outgoing roller 15 can also be fixed on the first fixing bracket 110, and the manner in which the original outgoing roller 15 is fixed to the wire cutting device 10 is not limited to the above.

FIG. 6 is a schematic flow chart of a disconnection processing method according to an embodiment of the invention. Referring to FIG. 6 , the wire break processing method 200 of the present embodiment is applicable to the above-described wire cutting device 10 , but is not limited thereto. The wire break processing method 200 includes the steps of pulling out both ends of the cutting wire 16 for the first time and engaging the two ends of the cutting line 16 (step 210). The first fixing bracket 110, the second fixing bracket 120, and the third fixing bracket 130 of the wire breaking device 100 are fixed to the wire cutting device 10, wherein the first fixing bracket 110 and the third fixing bracket 130 are located at one of the guiding wheels 13 The side, and the second fixing bracket 120 is located away from the guide wheels 13 (step 220). Then, the first outgoing roller 115, the first tension providing roller 125, and the first incoming roller 135 of the disconnection processing device 100 are adjustably disposed on the first fixing bracket 110, the second fixing bracket 120, and the third fixing bracket 130. , wherein the first outgoing roller 115 and the first incoming roller The 135th position is near the first break of the cutting line 16 (step 230). Thereafter, the re-connected cutting line 16 after the initial disconnection bypasses the first outgoing roller 115, the first tension providing roller 125 and the first incoming roller 135, so that the cutting line 16 can maintain the required tension (steps) 240).

In other embodiments, when the cutting line 16 is broken a second time, the wire breaking processing method further comprises the steps of: pulling out the two ends of the cutting wire 16 for the second time and engaging the cutting line 16 for the second time. Both ends of the opening (step 250). Then, the second outgoing roller 140, the second tension providing roller 150 and the second incoming roller 160 of the disconnection processing device 100 are adjustably disposed on the wire cutting device 10, wherein the second outgoing roller 140 and the second incoming roller The 160th position is near the second break of the cutting line 16 (step 260). In step 260, the method further includes the following steps: fixing the fourth fixing bracket 145 and the fifth fixing bracket 165 of the wire breaking processing device 100 to the wire cutting device 10, so that the second wire roller 140 and the second wire roller 160 can be Adjusted configuration (step 265). Finally, the re-connected cutting line 16 after the second disconnection bypasses the second outgoing roller 140, the second tension providing roller 150 and the second incoming roller 160 to maintain the required tension of the cutting line 16 ( Step 270).

It should be noted that the order of joining the cutting lines 16 in step 210 may precede steps 220 and 230, or later than steps 220 and 230, and the order of joining the cutting lines 16 in step 250 may precede step 260. Step 265, or later than steps 260 and 265, is not limited in order. Further, although the first disconnection and the secondary disconnection are taken as an example, the same operation can be performed even in the case of three or more disconnections. In other words, the disconnection processing apparatus 100 and the disconnection processing in the present case are handled. square The method 200 can be applied to multiple disconnections, and the number of disconnections is not limited by the above.

In summary, when the cutting line is broken for the first time, both ends of the broken line of the cutting line are pulled out and welded, and thereafter, in order to maintain a specific tension of the entire cutting line, the wire breaking processing device of the present invention transmits the first First, the third fixing bracket is fixed on the online cutting device, and the first outgoing roller and the first incoming roller are respectively disposed on the first fixing bracket and the third fixing bracket near the first breaking line of the cutting line, and then through the second fixing The bracket is fixed on the wire cutting device away from the guide wheel (for example, a spool chamber), and the first tension providing roller adjusts the required tension of the cutting line to be disposed on the second fixing bracket, and the drawn cutting wire bypasses The first take-up roller, the first tension providing roller and the first incoming roller are provided with sufficient tension. Similarly, when the cutting line is broken twice, the wire breaking processing device of the present invention can dispose the second outgoing roller and the second incoming roller at a secondary breaking line close to the cutting line, and the second tension providing roller Depending on the required tension of the cutting line, it is disposed at a far position, and the section where the cutting line is joined after the second breaking can be entangled by the second outgoing roller, the second tension providing roller and the second incoming roller, and Being supplied with sufficient tension. Through the wire breaking processing device of the present invention, the wire cutting device does not need to discard the cutting line at the broken position, and the cutting line is evenly distributed on the guide wheel, so that the ingots passing through the wire cutting device can be cut without wasting Ingot. In addition, in order to enable the cutting line near the original break to be pulled out and enter the guide wheel at a specific angle (the same angle as the other portions of the cutting wire wound on the guide wheel), so that the first incoming roller is parallel to the original incoming line The roller, and the first outlet roller is parallel to the original outlet roller, so that the cutting line can be wound into and out of the guide wheel at the same angle as other parts at the reconnected portion to provide a uniform cutting angle of the ingot.

Although the present invention has been disclosed in the above embodiments, it is not intended to limit the invention, and any one of ordinary skill in the art can make some modifications and refinements without departing from the spirit and scope of the invention. The scope of the invention is defined by the scope of the appended claims.

10‧‧‧Wire cutting device

11‧‧‧ cutting room

13‧‧‧guide wheel

14‧‧‧ Original incoming line wheel

15‧‧‧Original outlet roller

16‧‧‧ cutting line

100‧‧‧Disconnection processing device

110‧‧‧First fixed bracket

112‧‧‧ Guide groove

115‧‧‧First outlet roller

130‧‧‧ third fixed bracket

135‧‧‧First entry wheel

140‧‧‧Second outlet roller

145‧‧‧Four fixed bracket

160‧‧‧Second entry roller

165‧‧‧Fix fixed bracket

170‧‧‧Fixed bars

172‧‧‧ screw

174‧‧‧ Nuts

180‧‧‧6th fixed bracket

Claims (18)

A wire breakage processing device is adapted to be disposed on a wire cutting device, the wire cutting device comprising a plurality of guide wheels and a cutting wire wound around the guide wheels, the wire breakage processing device comprising: a first fixing bracket, suitable for Fixed on the wire cutting device and located on one side of the guide wheels; a first wire take-up roller is adjustably disposed on the first fixing bracket near the first break of the cutting line; a second fixing The bracket is adapted to be fixed on the wire cutting device away from the guide wheels; a first tension providing roller is adjustably disposed on the second fixing bracket; and a third fixing bracket is adapted to be fixed to the wire cutting a first access roller disposed on the third fixing bracket near the first disconnection of the cutting line, wherein the cutting is reconnected after the initial disconnection a wire bypassing the first wire take-up roller, the first tension providing roller and the first wire feed roller to maintain a tension required for the cutting line; and a second wire take-up roller adapted to be adjustably fixed to the wire cutting Close to the device a second break line of the secant line; a second tension providing roller adapted to be adjustably disposed on the wire cutting device away from the guide wheels; and a second wire entry roller adapted to be adjustably fixed to the wire Close on the wire cutting device a second disconnection of the cutting line, wherein the re-connected cutting line after the second disconnection bypasses the second outgoing roller, the second tension providing roller and the second incoming roller to maintain the The tension required to cut the line. The wire breaking device of claim 1, further comprising: a fourth fixing bracket fixed to the wire cutting device and located on the side of the guiding wheels, wherein the second wire roller is adjustable The second fixing bracket is disposed on the wire fixing device and is located on the side of the wire guiding device, wherein the second wire feeding roller is adjustably disposed on the fifth fixing bracket on. The wire breaking processing device of claim 2, further comprising: a plurality of fixing bars vertically fixed to at least one of the first fixing bracket and the third fixing bracket, wherein the fourth fixing At least one of the bracket and the fifth fixing bracket is disposed on the wire cutting device through the fixing bars. The wire breaking device of claim 3, wherein each of the fixing bars comprises a screw and a plurality of nuts screwed into the screw. The disconnection processing device of claim 1, wherein the second tension providing roller is adjustably disposed on the second fixing bracket. The wire breaking device of claim 1, wherein the wire cutting device comprises a cutting chamber and a spool chamber, wherein the guide wheels, the first outlet roller and the first incoming roller are located in the cutting chamber The first tension providing roller is located in the spool chamber, and a portion of the re-connected cutting line is pulled from the cutting chamber to the spool chamber and bypasses the first tension providing roller. The wire breaking device of claim 1, wherein the wire cutting device comprises an original wire feeding roller and an original wire roller fixed to the wire cutting device on the side of the wire guides, The cutting line passes through the original incoming roller and the original outgoing roller before and after being wound around the guide wheels, the first incoming roller is parallel to the original incoming roller, and the first outgoing roller is parallel to the original outgoing line Rollers to cause the re-connected cutting line to wrap around and exit the guide wheels at a particular angle. The wire breaking processing device of claim 7, further comprising: a sixth fixing bracket adapted to be fixed on the wire cutting device and located on the side of the guiding wheels, wherein the original wire feeding roller is fixed to The first fixing bracket is fixed to the sixth fixing bracket. The wire breaking device of claim 1, wherein the first fixing bracket, the second fixing bracket and the third fixing bracket respectively comprise a first multidirectional bearing, a second multidirectional bearing and a a third multi-directional bearing to adjust an angle of the first fixing bracket, the second fixing bracket and the third fixing bracket. A wire breaking processing method is applicable to a wire cutting device, comprising: a plurality of guide wheels; and a cutting line wound on the guide wheels and disconnected, the wire breaking processing method comprises: when the cutting line occurs for the first time When disconnected, pull out the first ends of the cutting line and engage the two ends of the cutting line; fix a first fixing bracket, a second fixing bracket and a third fixing bracket of the wire breaking device to The wire cutting device, wherein the first fixing bracket and the first The third fixing bracket is located at one side of the guiding wheels, and the second fixing bracket is located away from the guiding wheels; an first outgoing roller of the disconnecting processing device, a first tension providing roller and a first wire feeding roller is disposed on the first fixing bracket, the second fixing bracket and the third fixing bracket, wherein the first outgoing roller and the first incoming roller are located at a first breaking point close to the cutting line; The cutting line reconnected after the first disconnection bypasses the first outgoing roller, the first tension providing roller and the first incoming roller to enable the cutting line to maintain a desired tension; when the cutting line When the second disconnection occurs, both ends of the second disconnection of the cutting line are pulled out and the two ends of the cutting line are engaged at the second disconnection; a second of the disconnection processing device is adjustably disposed An output roller, a second tension providing roller and a second incoming roller are disposed on the wire cutting device, wherein the second outgoing roller and the second incoming roller are located at a second disconnection near the cutting line; And will be reconnected after the second disconnection The second cut line bypass line roller, the second roller to provide tension in wire and said second roller, so that the cutting line to maintain a desired tension. The disconnection processing method according to claim 10, wherein the step of disposing the second outgoing roller and the second incoming roller of the disconnection processing device further comprises: fixing one of the disconnection processing devices a fourth fixing bracket and a fifth fixing bracket to The wire cutting device is configured to adjustably adjust the second outgoing roller and the second incoming roller. The wire breaking processing method of claim 11, wherein the wire breaking processing device further comprises a plurality of fixing bars vertically fixed to at least one of the first fixing bracket and the third fixing bracket, The at least one of the fourth fixing bracket and the fifth fixing bracket are disposed on the wire cutting device through the fixing bars. The wire breaking method of claim 12, wherein each of the fixing bars comprises a screw and a plurality of nuts screwed into the screw. The disconnection processing method of claim 10, wherein the second tension providing roller is adjustably disposed on the second fixing bracket. The wire breaking method of claim 10, wherein the wire cutting device comprises a cutting chamber and a spool chamber, wherein the guide wheels, the first outlet roller and the first incoming roller are located in the cutting chamber The first tension providing roller is located in the spool chamber, and a portion of the re-connected cutting line is pulled from the cutting chamber to the spool chamber and bypasses the first tension providing roller. The wire breaking device of claim 10, wherein the wire cutting device comprises an original wire feeding roller and an original wire roller fixed to the wire cutting device on the side of the wire guides, The cutting line passes through the original incoming roller and the original outgoing roller before and after being wound around the guide wheels, the first incoming roller is parallel to the original incoming roller, and the first outgoing roller is parallel to the original outgoing line Rollers to cause the re-connected cutting line to wrap around and exit the guide wheels at a particular angle. The wire breaking processing method of claim 16, wherein the wire breaking processing device further comprises a sixth fixing bracket adapted to be fixed on the wire cutting device and located on the side of the guiding wheels, wherein The original incoming roller is fixed to the first fixing bracket, and the original outgoing roller is fixed to the sixth fixing bracket. The disconnection processing method of claim 10, wherein the first fixing bracket, the second fixing bracket and the third fixing bracket respectively comprise a first multidirectional bearing, a second multidirectional bearing and a a third multi-directional bearing to adjust an angle of the first fixing bracket, the second fixing bracket and the third fixing bracket.