专利摘要:
A holder for a dip mold (?) Has a holding unit (14) and a relative to the holding unit (14) displaceable, acted upon by a spring (21) Andrückeinheit (20), wherein a portion of the dip mold (7) between the at least one clamping projection (14c, 14d) and a pressing surface (20e) of the pressing unit (20) can be clamped. The holder further comprises a connection unit (8) for connecting the holder to the support arm (5). The connecting unit (8) has an axle pin (11) au (on which the holding unit (14) about a rotational axis (6) is rotatably mounted.
公开号:AT520631A4
申请号:T41/2018
申请日:2018-02-20
公开日:2019-06-15
发明作者:
申请人:Faigle Kunststoffe Gmbh;
IPC主号:
专利说明:

The invention relates to a holder for a dip mold, which has a holding unit and a relative to the holding unit displaceable, acted upon by a spring pressure unit, wherein a portion of the dip mold between the at least one clamping projection and a pressing surface of the pressing unit can be clamped.
Dipping forms are used in particular for the production of latex products, such as gloves. For transporting the dipping forms through various stations of a production line, conveyor chains are used with which the dipping forms are connected via a carrying device. The stations of such a production line include i.a. Dipping baths containing polymer materials, in particular natural or synthetic latex materials, in which the molds are immersed.
Holders of the type mentioned above for immersion molding, for example, from WO 2015/142155 A1 and MY-163101 -A out. A respective holder has a holding unit which has a shank, at the front end of which protruding clamping projections are provided on opposite sides. On the shaft, a pressing unit is arranged displaceably, which is acted upon by a coil spring also arranged on the shaft. In order to mount a dipping mold on the holder, the pressing unit is pushed back against the force of the spring (by means of a special pneumatic pincer), whereupon a front end portion of the stem with the clamping projections can be inserted through an oblong opening in the bottom of the dipping mold. Subsequently, the dipping mold is rotated by 90 ° and the pressure unit is released, whereupon the bottom of the dipping mold between the clamping projections of the holding unit and a pressing surface of the pressing unit is clamped.
The holder is supported by an L-shaped support arm, wherein the shaft of the holding unit relative to the support arm about the longitudinal central axis of the shaft is rotatable. For this purpose, two ball bearings are arranged on a rear end portion of the shaft, which are inserted into a bushing portion of the support arm.
Two L-shaped support arms, which have the holder-carrying L-legs in opposite directions, are mounted together on a support shaft about a horizontal, parallel to the conveyor chain axis. Such support arms carrying support shafts are attached to the chain links at regular intervals on both sides of the conveyor chain.
A disadvantage of prior art holder of the type mentioned is that the ball bearings which support the holding units rotatably relative to the support arms are exposed to a considerable wear. However, an exchange of such ball bearings requires an interruption of the operation of the system to perform the appropriate maintenance.
The object of the invention is to provide an improved holder of the type mentioned. According to the invention, this is achieved by a holder having the features of claim 1.
In the holder according to the invention, a connection unit for connecting the holder is provided with a support arm carrying the holder, wherein the connection unit has an axle pin on which the holding unit is rotatably mounted about a rotation axis.
The connection unit may advantageously be adapted for connection to the socket portion of a conventionally formed support arm. An existing system is thus retrofitted in a simple manner with a holder according to the invention. The axle of the connection unit forms a rigid axle, on which a rotatable mounting of the holding unit is made possible with only a slight occurring wear.
In an advantageous embodiment, bearing elements for rotatably supporting the holding unit may be provided on the axle pin of the connecting unit at the two ends of the holding unit.
In a holder according to the invention, a relatively large distance between bearing elements for rotatably supporting the holding unit may be provided on the axle pin, whereby the moments acting on the bearing elements can be kept relatively small. In particular, the bearing elements may be plain bearing sleeves, which are inserted into a respective end portion of the penetrated by Achsstift passage opening through the holder. It is thereby a stable, low-wear and cost-effective training possible.
The pressing unit is advantageously arranged on a shaft of the holding unit, through which the passage opening extends through the holding unit. In particular, the spring acting upon the pressing unit can be a helical spring arranged on the shaft, which is supported on the one hand on the pressing unit, on the other hand on a supporting part arranged on the shaft. This support member may be attachable in an advantageous embodiment by a plug-in rotary movement on the shaft, wherein locking elements of the shaft engage with counter-locking elements of the support member. This makes it easy to install and, if necessary,
Dismantling possibility created. It is advantageously provided that a front end section of the holding unit, which has at least one clamping projection, can be inserted through an opening in a bottom of the immersion mold, wherein the bottom of the immersion mold can be clamped between the at least one clamping projection and the pressing surface of the pressure unit. Dipping forms of this type, which are formed in particular of ceramic, are usually used for the production of gloves.
The holding unit and the pressure unit can advantageously be made of plastic.
Further advantages and details of the invention are explained below with reference to the accompanying drawings. In this show:
Figure 1 shows a portion of a conveyor chain with attached supporting devices for diving forms for the production of gloves, in oblique view.
2 shows one of the support devices comprising holder according to the invention for immersion molding;
3 shows a section through the carrying device with parts of the dipping forms held by the holders, section line AA of FIG. 4;
4 shows a section along the section line BB of Figure 3, wherein the remaining part of the dip mold is indicated by a dashed line ..;
5 and 6 are exploded views of the holder from different angles; 7 and 8 are oblique views of the holder, wherein the arranged on the connection unit parts of the holder are shown removed from the connection unit;
Fig. 9 is a plan view of the top of the holder;
Fig. 10 is a section along the line CC of Fig. 9;
Fig. 11 is a section along the line DD of Fig. 9;
12 is an oblique view of the holder and a part of the dip mold, in the separate state of the holder form of the dip mold;
Fig. 13 is a view corresponding to Figure 12, the parts but partially cut.
Figs. 14-17 are views corresponding to Figs. 10-13, wherein the pressing unit is pushed back and in Figs. 16 and 17, the front end portion of the holding unit is inserted through the opening in the bottom of the dipping mold;
FIG. 18 is an illustration corresponding to FIG. 17, wherein the dip mold is rotated by 90 ° and pushed onto the centering projection of the pressure unit; FIG.
FIG. 19 is an illustration corresponding to FIG. 18, wherein the immersion mold is clamped to the holder, that is to say mounted on the holder; FIG.
Figures 20 and 21 are views corresponding to Figures 14 and 15, wherein the holder assumes the state of Figure 19, but without the dip mold.
Fig. 22 is a plan view of the parts of the holder to be mounted on the connection unit, before the connection of the support part to the holding unit;
Fig. 23 is a section along the line EE of Fig. 22;
Fig. 24 is an oblique view of the parts of Fig. 22, taken along the line FF in Fig. 22;
Fig. 25 is an oblique view of the parts of Fig. 22 from a different angle, cutting the parts apart from the holding unit along the line GG of Fig. 22;
Figures 26 and 27 are views corresponding to Figures 24 and 25, wherein the support member is pushed onto the shaft of the holding unit.
Figs. 28 and 29 are views corresponding to Figs. 26 and 27, wherein the support member is rotated by 90 ° with respect to the holding unit;
30 and 31 representations corresponding to FIGS. 28 and 29, wherein the
Supporting part is released and the locking elements of the shaft with the counter-locking elements of the support member are engaged.
The figures have different scales.
From a conveyor chain 1 for transporting immersion molds through various stations of a production plant for plastic gloves, in particular rubber gloves, a section is shown in FIG. The mentioned stations include i.a. Dipping baths in which the dipping forms are immersed, as is known.
The immersion forms, not shown in Fig. 1 are supported by supporting devices, which are connected to the conveyor chain 1. These support devices comprise support shafts 3 connected to the link plates of the conveyor chain 1, support arms 5 carried by the support shafts 3 and supports 2 for the immersion forms carried by the support arms 5. For example, 1 attachment stub can be welded to the chain straps of the conveyor chain, on which the support shafts 3 are attached.
At the free ends of the support shafts 3 are from these on opposite sides bearing pin 4 horizontally. The bearing pins 4 are in this case parallel to the longitudinal extent of the conveyor chain 1. On each of the bearing pin 4 is a here L-shaped support arm 5 is pivotally mounted about the longitudinal axis of the bearing pin 4. The support arms 5 are thus pivotable about horizontal, parallel to the longitudinal extent of the conveyor chain 1 axes.
At the ends remote from the support shaft 3, the support arms 5 each have a bushing section 5a, which serves for connection to a respective holder 2.
The immersion molds 7 held by the holders 2, which in particular are formed by ceramic molds, can be formed in a known manner. In Fig. 3 sections of the immersion molds 7 are shown in the region of their connection to the respective holder, in Fig. 4, the remaining part of a dip mold is shown schematically with dashed lines. Each of the immersion molds 7 has a bottom 7a, through which an elongated opening 7b leads into an inner cavity of the immersion mold 7, so that the bottom 7a of the immersion mold 7 is clamped to the holder 2 by means of clamping projections 14c, 14d of the holder inserted through the opening 7b can.
Guiding means of the system cooperating with the holders 2 in a known manner are not shown in the figures. By means of rail-shaped guide means, which act on the holder 2, when the holders 2 are moved by means of the conveyor chain, the support arms 5 can be pivoted about their horizontal axes. The holders 2 roll in this case with a circle-shaped support surface 20a on the rail-shaped guide means, wherein the immersion molds 7 are rotated about axes of rotation 6, which lie ko with the longitudinal center axis of the socket portion 5a
A respective holder 2 has a connection unit 8, via which it is connected to one of the support arms 5. For this purpose, a connection piece 8a of the connection unit 8 is inserted into the socket section 5a and held in the socket section 5a with a securing ring 10, which engages in a groove introduced in the inner wall of the socket section 5a. The connector 9 in this case has a support plate 9 a, which is supported on a bottom of the socket portion 5 a, and a clamp 9 b, which is inserted into the socket portion 5 a and whose outer peripheral contour is adapted to the inner peripheral contour of the socket portion 5 a and adapted to the Circlip 10 cooperates.
The connecting piece 9 is preferably made of plastic, in particular an injection-moldable thermoplastic.
With the connecting piece 9, an axle pin 11 is connected, which consists in particular of steel. For this purpose, the axle pin 11 is inserted into a through hole through the connecting piece 9 and a threaded portion 11 a of the axle pin 11 is screwed to a nut 12 made of metal, which is pressed into an end portion of the passage opening through the connector 9, the nut 12 by means of a a groove in the axle pin 11 snapped clips is secured against loosening. On the side facing away from the nut 12 side of the connecting piece 9 of the axle pin 11 is out of the connector 9 and forms a rigid axle for rotatably supporting a holding unit 14 of the holder 2. The holding unit 14 (with an attached to her immersion mold 7) is thus to the Rotary axis 6 relative to the connecting unit 8 and thus relative to the support arm 5 rotatable.
The holding unit 14 has, for rotatable mounting on the axle pin 11, an e through opening 14a, which is penetrated by the axle pin 11. At the two ends of the holding unit 14 14 serving for rotatable mounting of the holding unit 14 on the axle pin bearing elements 15, 16 are provided. In the exemplary embodiment, these are plain bearing sleeves, which are inserted into a respective end section of the passage opening 14a through the holding unit 14.
The holding unit 14 has a shank 14b on which clamping projections 14c, 14d are arranged in the region of its front end, that is to say remote from the connecting piece 9, which project radially beyond the shank 14b on opposite sides. For this purpose, in the exemplary embodiment, the holding unit has an end piece arranged on the shaft 14b (which is preferably formed integrally with the shaft 14b), which forms the clamping projections 14c, 14d.
In the exemplary embodiment, the holding unit 14 thus consists entirely of plastic. It would also be conceivable and possible, for example, for the clamping projections 14c, 14d to be formed by a metal plate arranged on the shank 14b, which has sections projecting from the shank 14b on both sides.
The clamping projections 14c, 14d serve to clamp the bottom 7a of the dip mold 7, as described in more detail below.
To secure the holding unit 14 on the axle pin 11, a nut 17 screwed onto a threaded portion 11b of the axle pin 11 is made of metal. This is secured by an up to a groove of the axle pin 11 clip 18 against unintentional release. The nut 17 is pressed into a nut 19 made of plastic. By turning the nut 19, the nut 17 thus (after overcoming the resistance by the clip 18) are unscrewed from the axle 11, whereby the rotatably mounted on the axle 11 unit from the axle pin 11 can be removed, see. Fig. 7 and 8. This unit can be advantageously also taken apart, see the
Description below.
On the shaft 14b, a pressing unit 20 is arranged, which is against the force of a spring 21 formed in the form of a helical spring relative to the shaft 14b in the axial direction of the shaft (ie in the direction of the axis of rotation 6) displaceable. The spring 21 is supported at one end on the pressing unit 20 and at the other end on a supporting part 22. The support member 22 is also disposed on the shaft 14b and secured against displacement toward the fitting 9 by cooperating latch members 14e, 14f and counter latch members 22a, 22b, as described in more detail below. The support member 22 is preferably made of plastic.
The rotatably mounted on the axle 11 unit thus comprises the holding unit 14, the pressing unit 20, the spring 21 and the support member 22. The rotatable mounting takes place by means of the already mentioned bearing elements 15, 16. A respective bearing element 15,16 simultaneously forms a radial bearing the axle pin 11 and a thrust bearing, which supports the rotatably mounted on the axle pin 11 unit in the axial direction of the axle pin 11. In this case, an axially aligned surface of the bearing element 15 cooperates with an end face, axially aligned surface of the connecting piece 9 (in the sense of a sliding bearing) and an axially aligned surface of the bearing element 16 cooperates with an end face, axially aligned surface of the nut 17 (in the sense of plain bearing).
The pressing unit 20 has a cylindrical wall whose outer surface forms the cylinder jacket-shaped bearing surface 20a, with which the holder 2 can roll on a rail-shaped guide means. In the exemplary embodiment, the pressing unit 20 has a base part 20b made of plastic, which has the support surface 20a. The base part 20b is covered to the front by a cover plate 20c, wherein the base part 20b has a centering projection 20d, which passes through a window opening in the cover plate 20c.
The operation of the holder 2 for holding a submersible mold 7 will be explained below with reference to FIGS. 9-21.
9 to 13 show a basic state of the holder 2, which this occupies when - apart from gravity - no external force acting on the holder 2 and no immersion mold 7 is held by the holder 2. In FIGS. 12 and 13, that section of a dip mold 7, in which the attachment of the dip mold 7 to the holder 2, is additionally shown below the holder 2, is shown.
In order to fix the immersion mold 7 on the holder 2, the pressure unit 20 is pushed back against the force of the spring 21, so that they are away from the clamping projections 14c, 14d, cf. 14 and 15, and the dip mold 7 is pushed with its opening 7b on the holding unit 14, so that the clamping projections 14c, 14d pass through the opening 7b in the bottom 7a in the interior of the dip mold 7, see. 16 and 17. In other words, a front end portion of the holding unit 14 having the clamping projections 14c, 14d is inserted through the opening 7b in the bottom 7a of the dip mold 7.
The immersion mold 7 is rotated in the sequence by 90 ° about its longitudinal axis. The longitudinal axis of the dip mold 7 is in this case with the axis of rotation 6 of the holding unit 14 on a common line. The opening 7b of the immersion mold 7 can now be pushed onto the centering projection 20d of the pressure unit 20, whereby the bottom 7a of the immersion mold 7 comes into contact with the pressure surface 20e of the pressure unit 20, cf. Fig. 18.
The pressing unit 20 is now released so that it is pressed by the spring 21 with the pressing surface 20e against the outside of the bottom 7a, which is pressed with its inside against the clamping projections 14c, 14d. In other words, the bottom 7a is clamped between the pressing surface 20e of the pressing unit 20 and the clamping projections 14c, 14d, cf. Fig. 19. The state which the holder 2 occupies when a submersible mold 7 is attached to it is also shown in Figs. 20 and 21 (for the sake of clarity, here without the immersion mold).
The removal of the dipping mold 7 from the holder 2 takes place in the reverse order, i. First, the pressing unit 20 is pushed back against the force of the spring 21, then the dipping mold 7 is lifted from the centering projection 20d and rotated by 90 °, after which the holding unit 40 with the clamping projections 40c, 40d can be pulled out through the opening 7b in the bottom 7a.
In the state attached to the holder 2, the immersion mold 7 is rotatable together with the holding unit 14 about the axis of rotation 6. The connecting unit 8 is in this case held non-rotatable relative to the support arm 5.
The assembly of the pivotable mounted on the axle 11 unit comprising the holding unit 14, the pressing unit 20, the spring 21 and the support member 22 will be explained below with reference to FIGS. 22 to 31.
22 to 25 show the state in which the pressing unit 20 and the spring 21 are pushed onto the holding unit, the support member 22 but only loosely rests on the remote from the pressing unit 20 end of the spring 21. The pressing unit 20 assumes its position as far advanced as possible, in which the centering projection 20d bears against the clamping projections 14c, 14d.
On the shaft 14b of the holding unit 14 locking elements 14e, 14f are arranged, which are formed by radially outwardly projecting projections. In the exemplary embodiment, two locking elements 14e, 14f arranged on opposite sides of the shaft 14b are present.
The support member 22 has counter-locking elements 22a, 22b, which are formed by radially inwardly projecting projections on the inner circumferential surface of the support member 22. In the exemplary embodiment, two opposing counter-locking elements 22a, 22b are present.
In the illustrated in FIGS. 22-25 rotational position of the support member 22 are the locking elements 14e, 14f and counter-locking elements 22a, 22b at different angular positions with respect to the direction of rotation about the axis of rotation 6, so that they press the support member 22 against the force of the spring 21st can be passed by each other. The position of the parts in the passing state of the locking elements 14e, 14f and counter locking elements 22a, 22b is shown in FIGS. 26 and 27.
As a result, the support member 22 is rotated by 90 ° (clockwise with respect to the rear view corresponding to FIG. 22). This position is shown in FIGS. 28 and 29. As a result, when the support member 22 is released, the counter-locking elements 22a, 22b come by the force of the spring 21 in abutment with the locking elements 14e, 14f and are pressed against this and the assembled state is prepared, in Figs. 30 and 31 is shown.
Advantageously, the rotational position of the support member 22 in the assembled state by interengaging cams 14g and recesses 22c of the locking elements 14e, 14f and counter locking elements 22a, 22b secured.
A disassembly of the unit can be done in the reverse order, ie first by pressing the support member 22, then rotation of the support member 22 by 90 ° (counterclockwise with respect to FIG. 22) and then releasing the support member 22nd
Stop webs 22d, 22e on the inner circumferential surface of the support member 22 limit the pressing of the support member 22 and the rotation of the support member 22 relative to the holding unit 14th
Due to the rotatable mounting of the holding unit 14 by means of the axle pin 11 as a rigid axle and arranged on the axle pin 11, spaced apart in the he direction bearing elements 15, 16 acting in operation on the bearing elements 15, 16 moments and thus their wear can be kept low.
Instead of sliding bearing elements, as described in the exemplary embodiment, and rolling bearings could be used, for example in the form of angular contact ball bearings. Various other modifications of the described embodiments are conceivable and possible without departing from the scope of the invention. Thus, for example, another clamping mechanism could be used to hold the immersion molds 7 under clamping of their bottom 7a.
A holder designed in accordance with the invention may also be designed to hold other types of dip molds, which for example may also be made of plastic. Thus, the dipping form, for example, from the holder have einklemmbare locking lugs on the outside.
Key to the reference numbers: 1 conveyor chain 15 bearing element 2 holder 16 bearing element 3 support shaft 17 nut 4 bearing pin 18 clip 5 support arm 19 nut 5a bushing section 20 pressure unit 6 rotation axis 20a support surface 7 dip mold 20b base part 7a bottom 20c cover plate 7b opening 20d centering projection 8 connection unit 20e Andrückfläche 9 Connecting piece 21 Spring 9a Supporting disk 22 Supporting part 9b Claw 22a Counter locking element 10 Circlip 22b Counter locking element 11 Axle pin 22c recess 11a Threaded section 22d Stopper web 11b Threaded section 22e Stopper web 12 Nut 13 Clip 14 Holding unit 14a Passage opening 14b Shaft 14c Clamping projection 14d Clamping projection 14e Latching element 14f Latching element 14g Cam
权利要求:
Claims (10)
[1]
claims
1. Holder for a dip mold (7), which has a holding unit (14) and a relative to the holding unit (14) displaceable by a spring (21) acted upon Andrückeinheit (20), wherein a portion of the dip mold (7) between the at least a clamping projection (14c, 14d) and a pressing surface (20e) of the pressing unit (20) can be clamped, characterized in that the holder further comprises a connecting unit (8) for connecting the holder with a support arm supporting the holder (5) the connecting unit (8) has an axle pin (11) on which the holding unit (14) is rotatably mounted about an axis of rotation (6).
[2]
2. Holder according to claim 1, characterized in that the holding unit (14) has an axial passage opening, which is penetrated by the axle pin (11).
[3]
3. Holder according to claim 1 or 2, characterized in that at the two axial ends of the holding unit (14) bearing elements (15, 16) for rotatably supporting the holding unit (14) on the axle pin (11) are provided.
[4]
4. Holder according to claim 3, characterized in that the bearing elements (15, 16) are sliding bearing sleeves which are inserted into a respective end portion of the passage opening through the holding unit (14).
[5]
5. Holder according to one of claims 1 to 4, characterized in that the pressing unit (20) is displaceably mounted on a parallel to the axis of rotation (6) extending shank (14 b) of the holding unit (14).
[6]
6. Holder according to claim 5, characterized in that the spring (21) is a on the shaft (14b) arranged coil spring, on the one hand on the pressing unit (20) and on the other hand on a on the shaft (14b) arranged supporting part (22 ) is supported.
[7]
7. Holder according to claim 6, characterized in that the supporting part (22) by a plug-rotational movement on the shaft (14 b) can be fastened, wherein locking elements (14 e, 14 f) of the shaft (14 b) with counter-locking elements (22 a, 22 b) of Supporting part (22) engage.
[8]
8. Holder according to one of claims 1 to 7, characterized in that the axle pin (11) consists of steel and with a plastic connector (9) of the connecting unit (8) is connected, which in a socket portion (5a) of the support arm (5) is fastened.
[9]
9. Holder according to one of claims 1 to 8, characterized in that a front end portion of the holding unit (14) having at least one clamping projection (14c, 14d) through an opening (7b) in a bottom (7a) of the dip mold ( 7) is insertable, wherein the bottom (7a) of the immersion mold (7) between the at least one clamping projection (14c, 14d) and the pressing surface (20e) of the pressing unit (20) can be clamped.
[10]
10. Supporting device for a dip mold (7) with a support shaft (3) for attachment to a conveyor chain (1), at least one with the support shaft (3) pivotally connected support arm (5), of which a holder (2) according to any one of claims 1 to 9 is worn.
类似技术:
公开号 | 公开日 | 专利标题
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同族专利:
公开号 | 公开日
AT520631B1|2019-06-15|
CN111712361A|2020-09-25|
WO2019161422A1|2019-08-29|
引用文献:
公开号 | 申请日 | 公开日 | 申请人 | 专利标题
DE1479564A1|1959-06-18|1969-04-03|Becton Dickinson Co|Method and device for producing plastic molded parts by dipping|
CN104802351A|2015-02-13|2015-07-29|张家港先锋自动化机械设备有限公司|Hand die holder provided with T-shaped connecting piece|
GB2217645A|1988-04-29|1989-11-01|Hwang Wei Jow|A glove mould mounting means|
MY121188A|2002-06-24|2006-01-28|Ecotherm Tft Sdn Bhd|Conveyor system for use in dipping process|
WO2015142155A1|2014-03-19|2015-09-24|Kossan Sdn Bhd|Improving the performance of double former holder configuration in high speed latex dipping process|
JP6898233B2|2014-11-13|2021-07-07|アレジアンス、コーポレイション|System including glove stripping and reversing mechanism and method for manufacturing elastomer gloves|
CN104802352A|2015-02-13|2015-07-29|张家港先锋自动化机械设备有限公司|Hand die holder provided with L-shaped suspension loop|
WO2017131508A1|2016-01-27|2017-08-03|Kossan Sdn. Bhd.|Former holder locking mechanism|
US11179908B2|2016-06-16|2021-11-23|Midori Anzen Co., Ltd.|Method of manufacturing gloves, glove, and emulsion composition for gloves|
CN205799993U|2016-07-12|2016-12-14|石家庄启腾机械制造有限公司|Hand die holder|WO2020218915A1|2019-04-24|2020-10-29|Tan Chaik Lee|A thermoplastic former holder for use in latex dipping process|
CN113056357A|2019-10-25|2021-06-29|Af方案有限公司|High density triple die holder assembly|
CN111434478A|2019-12-27|2020-07-21|重庆珂玥模具有限公司|Very convenient hand die holder that has T type connecting piece of dismouting|
法律状态:
优先权:
申请号 | 申请日 | 专利标题
ATA41/2018A|AT520631B1|2018-02-20|2018-02-20|Holder for a diving form|ATA41/2018A| AT520631B1|2018-02-20|2018-02-20|Holder for a diving form|
PCT/AT2018/000100| WO2019161422A1|2018-02-20|2018-12-21|Holder for a dipping mould|
CN201880089914.6A| CN111712361A|2018-02-20|2018-12-21|Holder for impregnation die|
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