CN212603965U - Glass rubber tube heat transfer device - Google Patents
Glass rubber tube heat transfer device Download PDFInfo
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- CN212603965U CN212603965U CN202021703140.2U CN202021703140U CN212603965U CN 212603965 U CN212603965 U CN 212603965U CN 202021703140 U CN202021703140 U CN 202021703140U CN 212603965 U CN212603965 U CN 212603965U
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Abstract
The utility model relates to a glass rubber tube heat transfer device, which comprises a first clamping rotating assembly for clamping one part of a workpiece, a second clamping rotating assembly for clamping the other part of the workpiece, a first moving assembly for driving the first clamping rotating assembly to move, a second moving assembly for driving the second clamping rotating assembly to move, a workpiece transferring assembly for transferring the workpiece on the first clamping rotating assembly to the second clamping rotating assembly, two heat transfer printing ironing heads respectively corresponding to the first clamping rotating assembly and the second clamping rotating assembly, and two transfer printing belt winding and unwinding mechanisms respectively corresponding to the heat transfer printing ironing heads one by one; the two heat transfer printing iron heads are respectively provided with a heating transfer printing plane matched with the surfaces of the two parts of the workpiece; the thermal transfer printing operation of the workpiece formed by connecting the two parts can be realized.
Description
Technical Field
The utility model relates to a heat-transfer seal technical field, more specifically say, relate to a glass rubber tube heat-transfer seal device.
Background
The thermal transfer printing is a novel printing process, the printed patterns have rich layers, bright colors, great variability, small color difference and good reproducibility, can achieve the required effect of pattern designers, and is suitable for mass production; most of the currently used thermal transfer printing devices cannot perform good thermal transfer printing on a workpiece formed by connecting two parts, such as a rubber cylinder of AB glue, wherein the rubber cylinder is formed by connecting two side-by-side cylinder side surfaces, and the thermal transfer printing devices in the conventional mode cannot perform good thermal transfer printing processing on the workpiece.
SUMMERY OF THE UTILITY MODEL
The to-be-solved technical problem of the utility model lies in, to the above-mentioned defect of prior art, provide a glass rubber tube heat transfer device, still provide a glass rubber tube heat transfer method.
The utility model provides a technical scheme that its technical problem adopted is:
constructing a glass rubber tube heat transfer printing device, wherein the glass rubber tube heat transfer printing device comprises a first clamping rotating assembly for clamping one part of a workpiece, a second clamping rotating assembly for clamping the other part of the workpiece, a first moving assembly for driving the first clamping rotating assembly to move, a second moving assembly for driving the second clamping rotating assembly to move, a workpiece transfer assembly for transferring the workpiece on the first clamping rotating assembly to the second clamping rotating assembly, two heat transfer printing ironing heads respectively corresponding to the first clamping rotating assembly and the second clamping rotating assembly, and two transfer printing belt winding and unwinding mechanisms respectively corresponding to the heat transfer printing ironing heads one by one; and heating transfer printing planes matched with the surfaces of the two parts of the workpiece are respectively arranged on the two heat transfer printing ironing heads.
The glass rubber tube heat transfer device of the utility model comprises a feeding component; the feeding assembly comprises a feeding belt, and a stop block is arranged at the end part of the discharging end of the feeding belt; the glass rubber tube heat transfer device further comprises a material pressing cylinder which is attached to the upper material belt and used for longitudinally pressing and positioning a workpiece of the stop block, and the stop block is driven by the material pressing cylinder to move up and down.
The glass rubber tube heat transfer printing device of the utility model, wherein, the glass rubber tube heat transfer printing device also comprises a third clamping rotating component for clamping the workpiece which is longitudinally pressed and positioned by the pressing cylinder, a third moving component for driving the third clamping rotating component to move, and a workpiece placing and positioning table; the workpiece placing and positioning table is positioned between the first clamping rotating assembly and the third clamping rotating assembly and used for positioning and transferring workpieces.
The glass rubber tube heat transfer printing device of the utility model, wherein, the workpiece placing and positioning table comprises a positioning base for positioning the workpiece and a lifting cylinder for driving the workpiece to lift; and the upper surface of the positioning base is provided with a workpiece positioning groove.
The glass rubber tube heat transfer device of the utility model further comprises a cleaning component which is positioned on the moving path of the third clamping rotating component and used for cleaning the workpiece; the cleaning assembly comprises one or more air blowing assemblies positioned on the upper part and/or the side part of the workpiece and an air suction hopper positioned on the lower part of the workpiece.
Glass rubber tube heat-transfer seal device, wherein, glass rubber tube heat-transfer seal device is still including driving the heat-transfer seal scalds first longitudinal movement's lifting unit.
Glass rubber tube heat transfer device, wherein, first centre gripping rotating assembly with second centre gripping rotating assembly all includes the centre gripping subassembly to the work piece centre gripping, drives the rotatory rotary mechanism of centre gripping subassembly, and the mount pad.
The glass rubber tube heat transfer printing device of the utility model, wherein, the clamping component comprises a first clamping head and a second clamping head; the mounting seat is provided with a sliding seat and a clamping cylinder for driving the sliding seat in a sliding manner; the first clamping head is rotatably arranged on the sliding seat, and the second clamping head is driven by the rotating mechanism to rotate.
Glass rubber tube heat transfer device, wherein, first holding head with the second holding head supports the both ends of tight work piece respectively, and is provided with on at least one of them and stretches into the inside reference column that advances line location of work piece.
The glass rubber tube heat transfer printing device of the utility model, wherein the clamping component comprises a third clamping head and a fourth clamping head; the rotating mechanism comprises a first rotating motor for driving the third clamping head to rotate and a second rotating motor for driving the fourth clamping head to rotate; the mounting seat is provided with a first sliding seat for mounting the first rotating motor and a second sliding seat for mounting the second rotating motor in a sliding manner; the mounting seat is provided with a buffer connected with the first sliding seat and a sliding cylinder driving the second sliding seat to slide; and the second sliding seat is provided with a motor seat for mounting the second rotating motor and a synchronous wheel assembly for connecting and driving the fourth clamping head and the second rotating motor.
A glass rubber tube heat transfer printing method comprises the following steps:
the first step is as follows: the first clamping and rotating assembly clamps one part of the workpiece, the first moving assembly drives the first clamping and rotating assembly to move to the heat transfer printing head, and the workpiece is rotationally adjusted to enable the part of the workpiece to be attached to the edge of the heating and transfer printing plane;
the second step is that: the first moving assembly drives the first clamping rotating assembly to move along the heating transfer printing plane, and the first clamping rotating assembly drives the workpiece to rotate during moving until the thermal transfer printing of the part on the workpiece is completed;
the third step: the workpiece on the first clamping and rotating assembly is moved to a second clamping and rotating assembly through a workpiece transfer assembly, and the clamping position of the second clamping and rotating assembly is on the other part of the workpiece;
the fourth step: the second moving assembly drives the second clamping rotating assembly to move to the other heat transfer printing hot head, and the workpiece is rotationally adjusted to enable the part on the workpiece to be attached to the edge of the heating transfer printing plane;
the fifth step: the second moving assembly drives the second clamping rotating assembly to move along the heating transfer printing plane, and the second clamping rotating assembly drives the workpiece to rotate during moving until the heat transfer printing of the part on the workpiece is completed.
The beneficial effects of the utility model reside in that: when in processing, the first clamping and rotating assembly clamps one part of the workpiece, the first moving assembly drives the first clamping and rotating assembly to move to the heat transfer printing hot head, and the workpiece is rotationally adjusted to enable the part on the workpiece to be attached to the edge of the heating and transfer printing plane; the first moving assembly drives the first clamping rotating assembly to move along the heating transfer printing plane, and the first clamping rotating assembly drives the workpiece to rotate during moving until the thermal transfer printing of the part on the workpiece is completed; the workpiece on the first clamping and rotating assembly is moved to a second clamping and rotating assembly through a workpiece transfer assembly, and the clamping position of the second clamping and rotating assembly is on the other part of the workpiece; the second moving assembly drives the second clamping rotating assembly to move to the other heat transfer printing hot head, and the workpiece is rotationally adjusted to enable the part on the workpiece to be attached to the edge of the heating transfer printing plane; the second moving assembly drives the second clamping rotating assembly to move along the heating transfer printing plane, the second clamping rotating assembly drives the workpiece to rotate during moving, and when the heat transfer printing of the part on the workpiece is completed, the whole heat transfer printing operation can be completed, and the heat transfer printing operation of the workpiece formed by connecting the two parts is realized.
Drawings
In order to more clearly illustrate the embodiments of the present invention or the technical solutions in the prior art, the present invention will be further described below with reference to the accompanying drawings and embodiments, wherein the drawings in the following description are only some embodiments of the present invention, and for those skilled in the art, other drawings can be obtained without inventive work according to the drawings:
FIG. 1 is an overall view of a glass rubber tube heat transfer printing device according to a preferred embodiment of the present invention;
FIG. 2 is a schematic structural view of a workpiece transfer part of the glass-rubber tube thermal transfer printing device according to a preferred embodiment of the present invention;
fig. 3 is a schematic structural view of a thermal transfer printing ironing head and a transfer printing belt winding and unwinding mechanism of a glass rubber tube thermal transfer printing device according to a preferred embodiment of the present invention;
FIG. 4 is an enlarged view of the first clamping and rotating assembly of the glass-rubber tube thermal transfer device according to the preferred embodiment of the present invention;
FIG. 5 is a schematic view of a workpiece loading and cleaning structure of the glass rubber tube thermal transfer printing device according to the preferred embodiment of the present invention;
FIG. 6 is a schematic view of a first clamping and rotating assembly of the glass-rubber tube thermal transfer printing apparatus according to another preferred embodiment of the present invention;
fig. 7 is a schematic view of another angle structure of the first clamping and rotating assembly of the glass-rubber tube thermal transfer printing apparatus according to another preferred embodiment of the present invention;
fig. 8 is a flow chart of a heat transfer printing method for a glass rubber tube according to a preferred embodiment of the present invention.
Detailed Description
In order to make the objects, technical solutions and advantages of the embodiments of the present invention clearer, a clear and complete description will be given below with reference to the technical solutions of the embodiments of the present invention, and it is obvious that the described embodiments are some, but not all embodiments of the present invention. Based on the embodiments of the present invention, all other embodiments obtained by a person of ordinary skill in the art without creative efforts belong to the protection scope of the present invention.
The glass rubber tube heat transfer device of the preferred embodiment of the present invention, as shown in fig. 1, refer to fig. 2-5 simultaneously, including a first clamping rotating assembly 2 for clamping one part of the workpiece 1, a second clamping rotating assembly 3 for clamping another part of the workpiece 1, a first moving assembly 4 for driving the first clamping rotating assembly 2 to move, a second moving assembly 5 for driving the second clamping rotating assembly 3 to move, a workpiece transfer assembly 6 for transferring the workpiece 1 on the first clamping rotating assembly 2 to the second clamping rotating assembly 3, two heat transfer printing ironing heads 7 corresponding to the first clamping rotating assembly 2 and the second clamping rotating assembly 3 respectively, and two transfer printing belt winding and unwinding mechanisms 8 corresponding to the heat transfer ironing heads 7 one to one; the two thermal transfer printing iron heads 7 are respectively provided with a heating transfer printing plane 70 matched with the surfaces of two parts of the workpiece 1;
during processing, the first clamping and rotating assembly 2 clamps one part of the workpiece 1, the first moving assembly 4 drives the first clamping and rotating assembly 2 to move to the thermal transfer printing hot head 7, and the workpiece 1 is rotationally adjusted to enable the part of the workpiece to be attached to the edge of the heating and transfer printing plane 70; the first moving component 4 drives the first clamping and rotating component 2 to move along the heating and transfer printing plane 70, and the moving first clamping and rotating component 2 drives the workpiece 1 to rotate until the thermal transfer printing of the part on the workpiece is completed; the workpiece on the first clamping and rotating assembly 2 is moved to the second clamping and rotating assembly 3 through the workpiece transfer assembly 6, and the clamping position of the second clamping and rotating assembly 3 is on the other part of the workpiece 1; the second moving component 5 drives the second clamping and rotating component 3 to move to another heat transfer printing hot head 7, and the workpiece is rotationally adjusted to enable the part of the workpiece to be attached to the edge of the heating and transfer printing plane 70; the second moving component 5 drives the second clamping rotating component 3 to move along the heating transfer printing plane, the second clamping rotating component 3 drives the workpiece 1 to rotate during moving, and the whole heat transfer printing operation can be completed when the heat transfer printing of the part on the workpiece is completed, so that the heat transfer printing operation of the workpiece formed by connecting the two parts is realized;
it should be noted that the two portions constituting the workpiece may be in the shape of a circle, an ellipse, or the like, and the shape of the heat transfer plane 70 may be adjusted according to the corresponding shape;
the thermal transfer printing iron head 7 and the transfer printing belt winding and unwinding mechanism 8 adopt conventional mechanisms, and are not described again; the workpiece transfer assembly 6 can adopt a manipulator clamping type, a manipulator suction type or other forms; the first moving assembly and the second moving assembly can be replaced by a servo motor matched with a precise screw rod or a linear motor; the simple replacement described above all belong to the protection scope of the present application.
Preferably, the glass rubber tube heat transfer printing device further comprises a feeding assembly 9; the feeding assembly 9 comprises a feeding belt 90, and a stop block 91 is arranged at the end part of the discharging end of the feeding belt 90; the glass rubber tube heat transfer printing device also comprises a material pressing cylinder 10 for longitudinally pressing and positioning the workpiece 1 which is attached to the stop block on the feeding belt, and the stop block 91 is driven by the material pressing cylinder 10 to move up and down; the workpiece feeding device is convenient to feed workpieces, and the workpieces which are fed in place are limited in position at three angles through the feeding belt, the stop block and the material pressing cylinder so as to achieve the purposes of feeding in place and positioning.
Preferably, the glass rubber tube thermal transfer printing device further comprises a third clamping rotating assembly 11 for clamping the workpiece longitudinally pressed and positioned by the pressing air cylinder 10, a third moving assembly 12 for driving the third clamping rotating assembly 11 to move, and a workpiece placing and positioning table 13; the workpiece placing and positioning table 13 is positioned between the first clamping and rotating assembly 2 and the third clamping and rotating assembly 11 and is used for positioning and transferring workpieces; the workpiece is convenient to transfer from the feeding belt, and the continuity of workpiece feeding is guaranteed.
Preferably, the workpiece placing and positioning table 13 includes a positioning base 130 for positioning the workpiece and a lifting cylinder 131 for driving the workpiece to lift; the upper surface of the positioning base 130 is provided with a workpiece positioning groove 1300; the workpiece can be conveniently placed and positioned, and the positioning base 130 can be moved down to be separated from the workpiece when the workpiece needs to be transferred.
Preferably, the glass rubber tube heat transfer device further comprises a cleaning component which is positioned on the moving path of the third clamping rotating component and used for cleaning the workpiece; the cleaning assembly includes one or more blower assemblies (not shown) located above and/or to the side of the workpiece, and an air suction hopper 14 located below the workpiece; the workpiece is blown downwards or obliquely downwards to clean dust on the surface of the workpiece, and then the blown dust is sucked and collected by the air suction hopper so as to ensure the heat transfer printing effect.
Preferably, the glass rubber tube thermal transfer printing device further comprises a lifting assembly 15 for driving the thermal transfer printing hot head 7 to move longitudinally; the height of the thermal transfer printing iron head 7 can be conveniently adjusted to match the outer diameters of different objects, or the height of the thermal transfer printing iron head 7 can be adjusted in the thermal transfer printing process according to the surface shape of a workpiece to carry out adaptive thermal transfer printing.
Preferably, the first clamping rotating assembly 2 and the second clamping rotating assembly 3 each include a clamping assembly 20 for clamping a workpiece, a rotating mechanism 21 for rotating the clamping assembly 20, and a mounting seat 22.
Preferably, the gripper assembly 20 comprises a first gripper head 200 and a second gripper head 201; the mounting seat 22 is provided with a sliding seat 220 and a clamping cylinder 221 for driving the sliding seat 220 in a sliding manner; the first clamping head 200 is rotatably arranged on the sliding seat 220, and the second clamping head 201 is driven by the rotating mechanism 21 to rotate; the workpiece can be clamped conveniently, and the rotation adjustment operation after clamping is convenient.
Preferably, the first clamping head 200 and the second clamping head 201 respectively abut against two ends of the workpiece, and at least one of the first clamping head and the second clamping head is provided with a positioning column 2010 extending into the workpiece for positioning; the positioning column stretches into the inside of the workpiece to be positioned when being convenient for clamping, so that the precision is guaranteed.
The second clamping and rotating assembly and the third clamping and rotating assembly can be provided with the same structure; of course, it is understood that the first clamping rotating assembly, the second clamping rotating assembly and the third clamping rotating assembly can also adopt other existing structures;
preferably, a blanking belt 16 for blanking the processed workpiece is also arranged;
another alternative structure of the clamping assembly of the present invention, as shown in fig. 6 and 7, the clamping assembly 20 includes a third clamping head 202 and a fourth clamping head 203; the rotating mechanism 21 comprises a first rotating motor 210 for driving the third holding head 202 to rotate, and a second rotating motor 211 for driving the fourth holding head 203 to rotate; a first slide 222 for mounting the first rotating motor 210 and a second slide 223 for mounting the second rotating motor 211 are arranged on the mounting seat 22 in a sliding manner; the mounting seat 22 is provided with a buffer 224 connected with the first sliding seat 222 and a sliding cylinder 225 driving the second sliding seat 223 to slide; a motor base for mounting the second rotating motor 211 and a synchronous wheel assembly 2230 for connecting and driving the fourth clamping head and the second rotating motor are arranged on the second sliding base 223;
the first sliding seat and the second sliding seat are arranged on the mounting seat in a sliding mode, when clamping is conducted, the third clamping head and the fourth clamping head are aligned to two ends of a workpiece, the sliding cylinder pushes the second sliding seat to slide for clamping, elastic adaptive force is provided for the first sliding seat through the buffer, the workpiece is not prone to damage, meanwhile, the requirement for clamping precision can be lowered, when the first sliding seat and the second sliding seat rotate after clamping is conducted, the first rotating motor and the second rotating motor drive the third clamping head and the fourth clamping head to rotate synchronously in the same direction, and therefore the uniformity of stress of the workpiece during machining is guaranteed;
according to the glass rubber tube heat transfer printing method, as shown in fig. 8, the glass rubber tube heat transfer printing method comprises the following steps:
s01: the first clamping and rotating assembly clamps one part of the workpiece, the first moving assembly drives the first clamping and rotating assembly to move to the heat transfer printing head, and the workpiece is rotationally adjusted to enable the part of the workpiece to be attached to the edge of the heating and transfer printing plane;
s02: the first moving assembly drives the first clamping rotating assembly to move along the heating transfer printing plane, and the first clamping rotating assembly drives the workpiece to rotate during moving until the thermal transfer printing of the part on the workpiece is completed;
s03: the workpiece on the first clamping and rotating assembly is moved to a second clamping and rotating assembly through a workpiece transfer assembly, and the clamping position of the second clamping and rotating assembly is on the other part of the workpiece;
s04: the second moving assembly drives the second clamping rotating assembly to move to the other heat transfer printing hot head, and the workpiece is rotationally adjusted to enable the part on the workpiece to be attached to the edge of the heating transfer printing plane;
s05: the second moving assembly drives the second clamping rotating assembly to move along the heating transfer printing plane, and the second clamping rotating assembly drives the workpiece to rotate during moving until the thermal transfer printing of the part on the workpiece is completed;
the problem that the existing thermal transfer printing equipment cannot perform thermal transfer printing operation on the surface of a workpiece formed by combining two parts is solved.
Taking the rubber cylinder of AB glue as an example, the following concrete description is given:
1. feeding:
the rubber barrel is fed through the feeding belt, the rubber barrel can be stopped by the stop after contacting the stop block, then the rubber barrel is pressed down through the material pressing cylinder to be kept in a horizontal state, the rubber barrel is positioned for the first time, and then the rubber barrel is clamped through the third clamping and rotating assembly;
2. cleaning:
the third moving assembly drives the third clamping and rotating assembly to move to the cleaning assembly, the surface of the rubber cylinder is cleaned in an air blowing mode, and the third clamping and rotating assembly drives the rubber cylinder to rotate when the rubber cylinder is cleaned;
3. material moving and positioning:
after cleaning, the third moving assembly drives the third clamping rotating assembly to move to the workpiece placing and positioning table, and the lifting cylinder drives the positioning base to ascend to receive the rubber cylinder and position the rubber cylinder again;
4. primary thermal transfer printing:
the first moving assembly drives the first clamping rotating assembly to move to a workpiece placing and positioning table, the first clamping rotating assembly clamps the rubber cylinder A, the lifting cylinder drives the positioning base to descend to avoid, the first moving assembly drives the first clamping rotating assembly to move to a position where the first thermal transfer printing is hot, the first clamping rotating assembly rotationally adjusts the rubber cylinder A to enable the position, connected with the rubber cylinder B, on the rubber cylinder A to be attached to the edge of a heating transfer printing plane, the first moving assembly drives the first clamping rotating assembly to move along the heating transfer printing plane, and the first clamping rotating assembly drives the rubber cylinder A to rotate during moving until thermal transfer printing of the rubber cylinder A is completed;
5. transferring materials:
through the workpiece transfer component, the workpiece on the first clamping and rotating component is transferred to the second clamping and rotating component, and the second clamping and rotating component is clamped on the rubber cylinder B;
6. and (3) second heat transfer printing:
the second moving assembly drives the second clamping rotating assembly to move to the other thermal transfer printing hot head, and the rubber cylinder B is rotationally adjusted to enable the position, connected with the rubber cylinder A, on the rubber cylinder B to be attached to the edge of the heating transfer printing plane; the second moving assembly drives the second clamping rotating assembly to move along the heating transfer printing plane, and the second clamping rotating assembly drives the rubber cylinder B to rotate during moving until the thermal transfer printing of the rubber cylinder B is completed;
7. blanking;
it will be understood that modifications and variations can be made by persons skilled in the art in light of the above teachings and all such modifications and variations are considered to be within the scope of the invention as defined by the following claims.
Claims (9)
1. The glass rubber tube heat transfer printing device is characterized by comprising a first clamping rotating assembly for clamping one part of a workpiece, a second clamping rotating assembly for clamping the other part of the workpiece, a first moving assembly for driving the first clamping rotating assembly to move, a second moving assembly for driving the second clamping rotating assembly to move, a workpiece transferring assembly for transferring the workpiece on the first clamping rotating assembly to the second clamping rotating assembly, two heat transfer printing ironing heads respectively corresponding to the first clamping rotating assembly and the second clamping rotating assembly, and two transfer printing belt winding and unwinding mechanisms respectively corresponding to the heat transfer printing ironing heads one by one; and heating transfer printing planes matched with the surfaces of the two parts of the workpiece are respectively arranged on the two heat transfer printing ironing heads.
2. The glass hose thermal transfer printing apparatus of claim 1, further comprising a feeding assembly; the feeding assembly comprises a feeding belt, and a stop block is arranged at the end part of the discharging end of the feeding belt; the glass rubber tube heat transfer device further comprises a material pressing cylinder which is attached to the upper material belt and used for longitudinally pressing and positioning a workpiece of the stop block, and the stop block is driven by the material pressing cylinder to move up and down.
3. The glass rubber tube thermal transfer printing device according to claim 2, further comprising a third clamping rotating assembly for clamping the workpiece longitudinally pressed and positioned by the pressing cylinder, a third moving assembly for driving the third clamping rotating assembly to move, and a workpiece placing and positioning table; the workpiece placing and positioning table is positioned between the first clamping rotating assembly and the third clamping rotating assembly and used for positioning and transferring workpieces.
4. The glass-rubber tube thermal transfer printing device according to claim 3, wherein the workpiece placing and positioning table comprises a positioning base for positioning the workpiece and a lifting cylinder for driving the workpiece to lift; and the upper surface of the positioning base is provided with a workpiece positioning groove.
5. The glass-hose thermal transfer apparatus of claim 3, further comprising a cleaning assembly positioned on a path of movement of the third clamping rotating assembly to clean a workpiece; the cleaning assembly comprises one or more air blowing assemblies positioned on the upper part and/or the side part of the workpiece and an air suction hopper positioned on the lower part of the workpiece.
6. The thermal transfer printing device for glass rubber tubes according to any one of claims 1 to 5, further comprising a lifting assembly for driving the thermal transfer printing hot head to move longitudinally.
7. The apparatus according to any one of claims 1 to 5, wherein each of the first and second clamping and rotating assemblies comprises a clamping assembly for clamping a workpiece, a rotating mechanism for rotating the clamping assembly, and a mounting base.
8. The apparatus according to claim 7, wherein the clamping assembly comprises a first clamping head and a second clamping head; the mounting seat is provided with a sliding seat and a clamping cylinder for driving the sliding seat in a sliding manner; the first clamping head is rotatably arranged on the sliding seat, and the second clamping head is driven by the rotating mechanism to rotate; the first clamping head and the second clamping head respectively abut against two ends of the workpiece, and at least one of the first clamping head and the second clamping head is provided with a positioning column which extends into the workpiece for positioning.
9. The glass-hose thermal transfer printing apparatus of claim 7, wherein the clamping assembly comprises a third clamping head and a fourth clamping head; the rotating mechanism comprises a first rotating motor for driving the third clamping head to rotate and a second rotating motor for driving the fourth clamping head to rotate; the mounting seat is provided with a first sliding seat for mounting the first rotating motor and a second sliding seat for mounting the second rotating motor in a sliding manner; the mounting seat is provided with a buffer connected with the first sliding seat and a sliding cylinder driving the second sliding seat to slide; and the second sliding seat is provided with a motor seat for mounting the second rotating motor and a synchronous wheel assembly for connecting and driving the fourth clamping head and the second rotating motor.
Priority Applications (1)
| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| CN202021703140.2U CN212603965U (en) | 2020-08-13 | 2020-08-13 | Glass rubber tube heat transfer device |
Applications Claiming Priority (1)
| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| CN202021703140.2U CN212603965U (en) | 2020-08-13 | 2020-08-13 | Glass rubber tube heat transfer device |
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| Publication Number | Publication Date |
|---|---|
| CN212603965U true CN212603965U (en) | 2021-02-26 |
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| Application Number | Title | Priority Date | Filing Date |
|---|---|---|---|
| CN202021703140.2U Active CN212603965U (en) | 2020-08-13 | 2020-08-13 | Glass rubber tube heat transfer device |
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| Country | Link |
|---|---|
| CN (1) | CN212603965U (en) |
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2020
- 2020-08-13 CN CN202021703140.2U patent/CN212603965U/en active Active
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