KR101293289B1 - Noncontact feed apparatus using vacuum pad - Google Patents

Noncontact feed apparatus using vacuum pad Download PDF

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Publication number
KR101293289B1
KR101293289B1 KR1020100052817A KR20100052817A KR101293289B1 KR 101293289 B1 KR101293289 B1 KR 101293289B1 KR 1020100052817 A KR1020100052817 A KR 1020100052817A KR 20100052817 A KR20100052817 A KR 20100052817A KR 101293289 B1 KR101293289 B1 KR 101293289B1
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KR
South Korea
Prior art keywords
contact
nozzle
transfer
repulsive force
coupling hole
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KR1020100052817A
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Korean (ko)
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KR20110133212A (en
Inventor
장영배
Original Assignee
김영태
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Priority to KR1020100052817A priority Critical patent/KR101293289B1/en
Priority to PCT/KR2010/004314 priority patent/WO2011152587A1/en
Publication of KR20110133212A publication Critical patent/KR20110133212A/en
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Publication of KR101293289B1 publication Critical patent/KR101293289B1/en

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    • BPERFORMING OPERATIONS; TRANSPORTING
    • B65CONVEYING; PACKING; STORING; HANDLING THIN OR FILAMENTARY MATERIAL
    • B65GTRANSPORT OR STORAGE DEVICES, e.g. CONVEYORS FOR LOADING OR TIPPING, SHOP CONVEYOR SYSTEMS OR PNEUMATIC TUBE CONVEYORS
    • B65G51/00Conveying articles through pipes or tubes by fluid flow or pressure; Conveying articles over a flat surface, e.g. the base of a trough, by jets located in the surface
    • B65G51/02Directly conveying the articles, e.g. slips, sheets, stockings, containers or workpieces, by flowing gases
    • B65G51/03Directly conveying the articles, e.g. slips, sheets, stockings, containers or workpieces, by flowing gases over a flat surface or in troughs
    • BPERFORMING OPERATIONS; TRANSPORTING
    • B65CONVEYING; PACKING; STORING; HANDLING THIN OR FILAMENTARY MATERIAL
    • B65GTRANSPORT OR STORAGE DEVICES, e.g. CONVEYORS FOR LOADING OR TIPPING, SHOP CONVEYOR SYSTEMS OR PNEUMATIC TUBE CONVEYORS
    • B65G49/00Conveying systems characterised by their application for specified purposes not otherwise provided for
    • B65G49/05Conveying systems characterised by their application for specified purposes not otherwise provided for for fragile or damageable materials or articles
    • B65G49/06Conveying systems characterised by their application for specified purposes not otherwise provided for for fragile or damageable materials or articles for fragile sheets, e.g. glass
    • B65G49/063Transporting devices for sheet glass
    • HELECTRICITY
    • H01ELECTRIC ELEMENTS
    • H01LSEMICONDUCTOR DEVICES NOT COVERED BY CLASS H10
    • H01L21/00Processes or apparatus adapted for the manufacture or treatment of semiconductor or solid state devices or of parts thereof
    • H01L21/67Apparatus specially adapted for handling semiconductor or electric solid state devices during manufacture or treatment thereof; Apparatus specially adapted for handling wafers during manufacture or treatment of semiconductor or electric solid state devices or components ; Apparatus not specifically provided for elsewhere
    • H01L21/677Apparatus specially adapted for handling semiconductor or electric solid state devices during manufacture or treatment thereof; Apparatus specially adapted for handling wafers during manufacture or treatment of semiconductor or electric solid state devices or components ; Apparatus not specifically provided for elsewhere for conveying, e.g. between different workstations
    • H01L21/67703Apparatus specially adapted for handling semiconductor or electric solid state devices during manufacture or treatment thereof; Apparatus specially adapted for handling wafers during manufacture or treatment of semiconductor or electric solid state devices or components ; Apparatus not specifically provided for elsewhere for conveying, e.g. between different workstations between different workstations
    • H01L21/67712Apparatus specially adapted for handling semiconductor or electric solid state devices during manufacture or treatment thereof; Apparatus specially adapted for handling wafers during manufacture or treatment of semiconductor or electric solid state devices or components ; Apparatus not specifically provided for elsewhere for conveying, e.g. between different workstations between different workstations the substrate being handled substantially vertically
    • HELECTRICITY
    • H01ELECTRIC ELEMENTS
    • H01LSEMICONDUCTOR DEVICES NOT COVERED BY CLASS H10
    • H01L21/00Processes or apparatus adapted for the manufacture or treatment of semiconductor or solid state devices or of parts thereof
    • H01L21/67Apparatus specially adapted for handling semiconductor or electric solid state devices during manufacture or treatment thereof; Apparatus specially adapted for handling wafers during manufacture or treatment of semiconductor or electric solid state devices or components ; Apparatus not specifically provided for elsewhere
    • H01L21/677Apparatus specially adapted for handling semiconductor or electric solid state devices during manufacture or treatment thereof; Apparatus specially adapted for handling wafers during manufacture or treatment of semiconductor or electric solid state devices or components ; Apparatus not specifically provided for elsewhere for conveying, e.g. between different workstations
    • H01L21/67784Apparatus specially adapted for handling semiconductor or electric solid state devices during manufacture or treatment thereof; Apparatus specially adapted for handling wafers during manufacture or treatment of semiconductor or electric solid state devices or components ; Apparatus not specifically provided for elsewhere for conveying, e.g. between different workstations using air tracks
    • BPERFORMING OPERATIONS; TRANSPORTING
    • B65CONVEYING; PACKING; STORING; HANDLING THIN OR FILAMENTARY MATERIAL
    • B65GTRANSPORT OR STORAGE DEVICES, e.g. CONVEYORS FOR LOADING OR TIPPING, SHOP CONVEYOR SYSTEMS OR PNEUMATIC TUBE CONVEYORS
    • B65G2249/00Aspects relating to conveying systems for the manufacture of fragile sheets
    • B65G2249/04Arrangements of vacuum systems or suction cups
    • B65G2249/045Details of suction cups suction cups

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  • Engineering & Computer Science (AREA)
  • Physics & Mathematics (AREA)
  • General Physics & Mathematics (AREA)
  • Manufacturing & Machinery (AREA)
  • Condensed Matter Physics & Semiconductors (AREA)
  • Computer Hardware Design (AREA)
  • Microelectronics & Electronic Packaging (AREA)
  • Power Engineering (AREA)
  • Mechanical Engineering (AREA)
  • Fluid Mechanics (AREA)
  • Nonlinear Science (AREA)
  • Chemical & Material Sciences (AREA)
  • Crystallography & Structural Chemistry (AREA)
  • Optics & Photonics (AREA)
  • Feeding Of Articles By Means Other Than Belts Or Rollers (AREA)
  • Container, Conveyance, Adherence, Positioning, Of Wafer (AREA)

Abstract

The present invention is to arrange the attraction and repulsion generating unit in the non-contact plate so that the attraction and repulsive force is generated at the same time to the object to be transported in parallel so that the object is not inclined to one side during the non-contact transfer of the object and At the same time, the present invention relates to a non-contact conveying device capable of safely conveying a conveying object by a fluid discharged from the conveying means without a shaking phenomenon of the conveying object.
That is, the present invention provides a non-contact plate, the bottom surface is installed in parallel with the upper surface of the transfer object; At the same time, the attraction force and the repulsive force are simultaneously generated toward the object to be conveyed by the fluid discharged by being arranged inside the non-contact plate, so that the object to be conveyed can be conveyed in parallel with the non-contact plate without tilting to either side. A manpower generating unit and a repulsive force generating unit; It is installed inside the non-contact plate, so as not to interfere with the attraction of the attraction of the attraction portion and the generation of repulsive force of the repulsive force generation portion is arranged in the arrangement between the arrangement and the arrangement of the attraction force generation portion and the repulsion force is arranged in a non-contact manner by the fluid discharged Transfer means for transferring a transfer object; Characterized in that configured to include.

Description

NONCONTACT FEED APPARATUS USING VACUUM PAD}

The present invention is to arrange the attraction and repulsion generating unit in the non-contact plate so that the attraction and repulsive force is generated at the same time to the object to be transported in parallel so that the object is not inclined to one side during the non-contact transfer of the object and At the same time, the present invention relates to a non-contact conveying device capable of safely conveying a conveying object by a fluid discharged from the conveying means without a shaking phenomenon of the conveying object.

In general, in-line FPD automatic optical inspection captures an image of an inspection object using an optical lens and a CCD camera while guiding a display panel such as a TFT LCD panel, a PDP, a color filter, etc. It is a device that detects various defects that a user wants to find by applying an image processing algorithm. The inline inspection equipment is largely divided into a scan section, a review section and an unlaod section for detecting a defect. In order to serve as an inspection system, it is important to accurately determine the location and size of the detected defect, but the role of the conveying means for guiding the carrier from the scanning section to the unloading section is also important. Recently, as a conveying means for guiding a carrier, an air-floating flat panel conveying apparatus configured to convey and convey a flat panel such as LCD, PDP, DLP, FPD, etc. It is put to practical use.

As a related art, Korean Patent Registration No. 10-0876337 discloses `` A lower plate having a chamber formed thereon, a middle plate having a plurality of coupling holes overlapping on the upper surface of the lower plate and communicating with the chamber, and overlapping the upper surface of the middle plate. A non-contact conveying plate having a suction force including a top plate having an air ejection hole communicating with the coupling holes, and an air ejection bolt inserted into and fixed to the air ejection hole and receiving air in the chamber and leading to a gap between the air ejection holes and the air ejection hole. In the upper end of the air ejection bolt is formed with a head so that the air is ejected in the upper oblique direction, the lower surface of the head portion is formed as a diagonal line is formed as it extends upward, the top of the air ejection hole is rounded, Non-contact type having a suction force, characterized in that the concave groove is formed on the upper surface of the air ejection bolt This technology has been posted on the Bar Song plate ".

In addition, as a related technology, Korean Patent Registration No. 10-0913298 discloses that “a vacuum chamber is formed in the longitudinal direction at the center of the upper surface, and a ejection chamber is formed on both sides thereof to apply suction force from an external vacuum pump to the vacuum chamber. A base receiving compressed air from an external compressor; An ejection plate mounted on the ejection chamber, the ejection plate having a plurality of ejection passages communicating with the ejection chamber therein, the ejection plate penetrating upwards to eject compressed air; And a vacuum plate having both sides mounted on the vacuum chamber to be in contact with the jet plate to form a gap, and a plurality of suction paths communicating with the vacuum chamber open to both sides, so that suction force is applied to the gap. The description of the carrier plate, characterized in that it has been published.

In addition, the Republic of Korea Utility Model Registration No. 20-0386532 as a related technology `` In the air-floating flat panel conveying device configured to supply the air sucked through the air suction box in the blower through the filter body to the air blower box, While having a plurality of air injection nozzles along the inclined surface constituting the front side of the air blowing box is provided on the upper side of the air suction box so that a plurality of transfer drive rollers are located on the lower side of the inclined surface, the air spray nozzles Air is supplied to the flat panel by injecting air in a direction perpendicular to each other, the conveying drive roller conveys the air-flat flat panel, characterized in that the central axis has the same inclination angle and the support jaw on the outer peripheral surface The device has been published.

However, a conventional conveying apparatus is a device for conveying a conveying object in a non-contact manner so as to generate a repulsive force in the discharge direction of the fluid to support the conveying object and then not damage the abnormal object. There is a problem in that the transfer of the transfer object is unstable, because the object is injured, the balance of the transfer object is not balanced, or tilting to one side or shaking of the supported transfer object occurs.

The present invention has been invented to solve the above problems, by arranging the manpower generating unit and the repulsive force generating unit in the non-contact plate to cause the attraction and repulsive force to occur at the same time the transfer object is a non-contact transfer of the transfer object It is an object of the present invention to provide a non-contact conveying apparatus which allows the conveying object to be safely transported by the fluid discharged from the conveying means without parallelism and at the same time without the inclination of the conveying object.

In addition, it is an object to solve the problem to provide a non-contact transfer device to install a non-contact transfer device inclined to significantly reduce the installation space of the non-contact transfer device.

In addition, a vertical section formed of a vertical plane perpendicular to the bottom surface of the non-contact plate parallel to the object to be transported to form a closed curved surface when in contact with one surface of the object to be conveyed and an arc surface connecting between the bottom surface and the vertical section of the non-contact plate. A coupling hole consisting of an arc section, a fluid supply path perforated inside the non-contact plate to communicate with the coupling hole, and is installed in the coupling hole, the circumference is installed opposite to the arc section and the fluid supplied from the fluid supply passage passes through Non-contact conveying apparatus capable of generating a human attraction by arranging a manpower generating unit formed in the non-contact plate, including a nozzle unit for forming a Coanda nozzle and a nozzle member consisting of a nozzle neck extending upwardly from the nozzle unit To solve what is provided It is zero.

In addition, a vertical section formed of a vertical plane perpendicular to the bottom surface of the non-contact plate parallel to the object to be transported to form a closed curved surface in contact with one surface of the object to be transferred and the width of the inner diameter is narrower toward the upper side toward the bottom of the non-contact plate A coupling hole formed of an acute inclined section formed of an acute inclined surface that forms an acute angle with a high center line, and an arc section consisting of an arc surface connecting between the acute inclined section and the bottom surface of the non-contact plate, and a perforation inside the non-contact plate to communicate with the coupling hole And a nozzle portion which is inserted into the coupling hole, the circumference of which is installed opposite to the circular arc section and forms a coanda nozzle through which the fluid supplied from the fluid supply passage passes, and extends upwardly from the nozzle portion. It includes a nozzle member consisting of a nozzle neck And a problem to be solved is to provide a non-contact transfer device to generate a force by disposing the internal contact plate force generating unit is configured open.

In addition, the object of the present invention is to provide a non-contact transfer device provided with a screw head in the upper part of the nozzle neck and a screw part corresponding to the screw hole formed in the upper part of the coupling hole directly below it so that the nozzle member can be easily fastened. do.

In addition, it is an object of the present invention to provide a non-contact conveying device which can be fastened to the nozzle member by forming a screw portion which is coupled from the upper surface of the non-contact plate by the fastening nut while being fastened.

In addition, it is an object to solve the problem to provide a non-contact transfer device that the end of the nozzle portion is in close contact with the inner wall of the coupling hole to adjust the flow rate of the fluid through the space area between the tooth and the tooth. .

In addition, to solve the problem of providing a non-contact transfer device in which one end of the nozzle neck is provided with a support part whose outer end is in close contact with the inner wall of the coupling hole so that the nozzle member is installed at the center of the coupling hole. Let's do the task.

In addition, at the outer periphery of the support, a non-contact conveying device is formed so that the end is in close contact with the inner wall of the coupling hole to install the nozzle member at the center of the coupling hole and to control the flow rate of the fluid through the space area between the teeth and the teeth. The task is to solve the problem.

In addition, the object of the present invention is to provide a non-contact transfer device in which a coupling portion extending downward from an upper portion of the coupling hole is formed in the center of the coupling hole so that the nozzle neck of the nozzle member can be easily coupled inside the coupling portion. .

In addition, to solve the problem to provide a non-contact conveying device configured to generate a repulsive force by discharging the fluid to the conveying object by forming a repulsive force generating portion with a pinhole or repulsive force forming unit.

Further, the repulsive force forming portion has a bottom flat portion that is parallel to the conveying direction of the conveying object and forms a non-contact gap with the conveying object, and has an upper periphery formed by a rounded portion, the outer periphery of the coanda bar above the round portion of the coanda bar. It is composed of a nozzle block to be discharged to the object to be transported along the round portion of the coanda bar through the Koanda nozzle is formed by being installed in close proximity along the coanda nozzle to generate a repulsive force to the object It is an object of the present invention to provide a non-contact transfer device.

The conveying means may further include a conveying block having an input end formed in a normal direction with respect to the conveying direction of the conveying object, the lower part of which is formed as a round part over the entire section, and a coanda nozzle of a normal with respect to the conveying direction of the conveying object. The lower end is formed closer to the input end than the bottom of the transfer block and discharges the fluid through the Coanda nozzle in contact with the outer side of the input end to induce fluid to flow to the bottom of the transfer block along the round part of the input end. An object of the present invention is to provide a non-contact conveying device configured to simultaneously convey a conveying object in a flow direction of a fluid, comprising a nozzle block for simultaneously applying repulsive force and a conveying force to a conveying object opposite to the block.

The present invention to solve the above technical problem, the bottom surface is a non-contact plate is installed in parallel with the upper surface of the transfer object; At the same time, the attraction force and the repulsive force are simultaneously generated toward the object to be conveyed by the fluid discharged by being arranged inside the non-contact plate, so that the object to be conveyed can be conveyed in parallel with the non-contact plate without tilting to either side. A manpower generating unit and a repulsive force generating unit; It is installed inside the non-contact plate, so as not to interfere with the attraction of the attraction of the attraction portion and the generation of repulsive force of the repulsive force generation portion is arranged in the arrangement between the arrangement and the arrangement of the attraction force generation portion and the repulsion force is arranged in a non-contact manner by the fluid discharged Transfer means for transferring a transfer object; The contactless transfer device, characterized in that configured to include as a solution to the problem.

In addition, the manpower generating unit and the repulsive force generating unit is arranged alternately, at least one or more of the same type of manpower generating unit or repulsive force generating unit is repeatedly installed, and both the manpower generating unit and the repulsive force generating unit at both ends of the manpower generating unit or repulsive force generating unit The non-contact transfer apparatus, characterized in that the same type is installed corresponding to each other as a solution to the problem.

In addition, the non-contact conveying device, the upper surface of the non-contact plate is installed at an inclination inclined to either of the left, right so as to form an acute angle with the horizontal ground, the object to be transported by the attraction force generated in the manpower generating unit and the repulsive force generated in the repulsive force generating unit While maintaining the inclined state from the bottom of the non-contact plate and simultaneously discharging the fluid from the conveying means to transfer the conveyed object in the fluid ejection direction, and to support the lower surface of the conveyed object while supporting the lower surface of the conveyed object. A non-contact transfer device characterized in that the feed roller is provided as a means for solving the problem.

In addition, the attraction unit, the vertical section is formed with a vertical plane perpendicular to the bottom surface of the non-contact plate parallel to the transfer object to form a closed curved surface in contact with one surface of the transfer object, between the bottom surface and the vertical section of the non-contact plate Coupling hole consisting of an arc section consisting of an arc surface for connecting the; A fluid supply passage drilled inside the non-contact plate to communicate with the coupling hole; Inserted into the coupling hole, the circumference is installed in the circumferentially opposed to the arc section and the nozzle portion for forming a Coanda nozzle through which the fluid supplied from the fluid supply passage passes, and the nozzle neck extending upward from the nozzle portion Nozzle member; The contactless transfer device, characterized in that configured to include as a solution to the problem.

In addition, the attraction force unit, the vertical section is formed in a vertical plane perpendicular to the bottom surface of the non-contact plate parallel to the transfer object to form a closed curved surface in contact with one surface of the transfer object, and upwards with respect to the bottom surface of the non-contact plate An engaging hole consisting of an arcuate section formed of an acute inclined section formed of an acute inclined surface that forms an acute angle with a center line and a circular arc section connecting an acute inclined section and a bottom surface of a non-contact plate; A fluid supply passage drilled inside the non-contact plate to communicate with the coupling hole; Inserted into the coupling hole, the circumference is installed in the circumferentially opposed to the arc section and the nozzle portion for forming a Coanda nozzle through which the fluid supplied from the fluid supply passage passes, and the nozzle neck extending upward from the nozzle portion Nozzle member; The contactless transfer device, characterized in that configured to include as a solution to the problem.

In addition, the non-contact transfer device, characterized in that the screw head is provided on the nozzle neck and a screw portion corresponding to the screw hole formed in the upper portion of the coupling hole directly below it is formed as a solution for the problem.

In addition, the non-contact conveying device, characterized in that the upper portion of the nozzle neck is protruded from the upper surface of the non-contact plate is coupled by the fastening nut is formed as a solution to the problem.

In addition, a non-contact conveying device, characterized in that the tooth is formed in the peripheral edge of the nozzle portion in close contact with the inner wall of the coupling hole as a means for solving the problem.

In addition, one end of the nozzle neck is a non-contact conveying device, characterized in that the outer peripheral end is in close contact with the inner wall of the coupling hole is installed so that the nozzle member is installed in the center of the coupling hole as a means for solving the problem.

In addition, a non-contact transfer device, characterized in that the teeth are formed on the outer circumference of the support portion is in close contact with the inner wall of the coupling hole as a means for solving the problem.

In addition, a non-contact conveying apparatus characterized in that the nozzle neck of the nozzle member to be coupled to the inside of the coupling hole to form a coupling portion extending downward from the upper portion of the coupling hole to solve the problem. .

In addition, the repulsive force generating unit, a non-contact conveying device, characterized in that consisting of a pinhole or repulsive force forming unit to discharge the fluid to the transfer object to generate a repulsive force as a means for solving the problem.

In addition, the repulsive force forming portion, having a bottom flat portion parallel to the conveying direction of the conveying object and forming a non-contact interval with the conveying object, the lower periphery is formed with a round portion; A nozzle for allowing fluid supplied to a coanda nozzle formed by being installed closer to the outer periphery of the coanda bar than above the round portion of the coanda bar to be discharged to the object to be transferred along the round portion of the coanda bar through the coanda nozzle. Blocks; The contactless transfer device, characterized in that configured to include as a solution to the problem.

The conveying means may further include: a conveying block having an input end formed in a normal direction with respect to a conveying direction of the object to be conveyed, and a lower portion of the input end formed as a round part over the entire section; The lower end is formed along the input end above the bottom of the transfer block so as to form a normal coanda nozzle with respect to the transfer direction of the object to be transferred, and the fluid is discharged in a direction in contact with the outer surface of the input end through the coanda nozzle. A nozzle block for simultaneously applying repulsive force and a transfer force to a transfer object opposite to the transfer block by inducing it to flow to the bottom of the transfer block along the round portion of the input end; The contactless transfer device, characterized in that configured to include as a solution to the problem.

The non-contact conveying apparatus according to the present invention is arranged so that the attraction and repulsive force is generated at the same time by arranging the attraction and retraction force in the non-contact plate without causing the object to be inclined to one side during non-contact transfer of the object to be conveyed. At the same time, it is possible to safely transport the object to be transported by the fluid discharged from the conveying means without the shaking of the object to be conveyed.

In addition, by installing the non-contact transfer device inclined, it is possible to significantly reduce the installation space of the non-contact transfer device.

In addition, a vertical section formed of a vertical plane perpendicular to the bottom surface of the non-contact plate parallel to the object to be transported to form a closed curved surface when in contact with one surface of the object to be conveyed and an arc surface connecting between the bottom surface and the vertical section of the non-contact plate. A coupling hole consisting of an arc section, a fluid supply path perforated inside the non-contact plate to communicate with the coupling hole, and is installed in the coupling hole, the circumference is installed opposite to the arc section and the fluid supplied from the fluid supply passage passes through The attraction force can be generated by arranging the attraction force generating portion, which includes a nozzle portion that forms a Coanda nozzle and a nozzle member formed of a nozzle neck extending upwardly from the nozzle portion, inside the non-contact plate.

In addition, a vertical section formed of a vertical plane perpendicular to the bottom surface of the non-contact plate parallel to the object to be transported to form a closed curved surface in contact with one surface of the object to be transferred and the width of the inner diameter is narrower toward the upper side toward the bottom of the non-contact plate A coupling hole formed of an acute inclined section formed of an acute inclined surface that forms an acute angle with a high center line, and an arc section consisting of an arc surface connecting between the acute inclined section and the bottom surface of the non-contact plate, and a perforation inside the non-contact plate to communicate with the coupling hole And a nozzle portion which is inserted into the coupling hole, the circumference of which is installed opposite to the circular arc section and forms a coanda nozzle through which the fluid supplied from the fluid supply passage passes, and extends upwardly from the nozzle portion. It includes a nozzle member consisting of a nozzle neck W by arranging installed inside the non-contact plate force generating unit is configured can produce the force.

In addition, a screw head is provided on the upper part of the nozzle neck, and a screw part corresponding to the threaded hole formed on the upper part of the coupling hole is directly formed below the nozzle neck, so that the nozzle member can be easily fastened.

In addition, the upper part of the nozzle neck protrudes from the upper surface of the non-contact plate to form a screw portion that is coupled by the fastening nut, so that the nozzle member can be easily fastened. The space area between the teeth and the teeth can regulate the flow rate of the fluid.

In addition, one end of the nozzle neck may be installed in the center of the coupling hole by installing a support portion in which the outer peripheral end is in close contact with the inner wall of the coupling hole so that the nozzle member is installed in the center of the coupling hole.

In addition, the outer periphery of the support to form a tooth that the end is in close contact with the inner wall of the coupling hole to install the nozzle member in the center of the coupling hole, as well as to control the flow rate of the fluid through the space area between the tooth and the tooth.

In addition, in the center of the coupling hole to form a coupling extending downward from the upper portion of the coupling hole can easily couple the nozzle neck of the nozzle member in the coupling portion, by forming a repulsive force generating portion with a pinhole or repulsive force forming portion to the transfer object Repulsive forces can be generated by discharging the fluid.

Further, the repulsive force forming portion has a bottom flat portion that is parallel to the conveying direction of the conveying object and forms a non-contact interval with the conveying object, and has a coanda bar having an upper circumference formed by a round portion, and coda above the round portion of the coanda bar. Fluid supplied to the Coanda nozzle formed by being installed along the outer periphery of the bar is composed of a nozzle block which is discharged to the object to be transported along the round part of the Coanda Bar through this Coanda nozzle to generate a repulsive force on the object to be transported. Can be.

In addition, the conveying means includes a conveying block having an input end formed in a normal direction with respect to the conveying direction of the conveying object, the lower part of the input end being formed into a rounded portion over the entire section, and a coordinating direction of the normal with respect to the conveying direction of the conveying object. The lower end is formed closer to the input end than the bottom of the transfer block to form a nozzle, and the fluid is discharged in a direction contacting the outer surface of the input end through the Coanda nozzle to induce the fluid to flow to the bottom of the transfer block along the round part of the input end. As a result, it is composed of a nozzle block for imparting repulsive force and a conveying force to the conveying object opposite to the conveying block at the same time to convey the conveying object in the flow direction of the fluid.

1 is a bottom perspective view according to an embodiment of the present invention.
2 is a side cross-sectional view according to an embodiment of the present invention.
3 is a block diagram according to another embodiment of the present invention.
4 is a first embodiment of the attraction force generating unit of FIGS.
5 is a second embodiment of the attraction force generating unit of FIGS.
6 is a third embodiment of the attraction force generating unit of FIGS.
7 is a fourth embodiment of the attraction force generating unit of FIGS.
8 is a fifth embodiment of the attraction force generating unit of FIGS.
9 is a sixth embodiment of the attraction force generation unit of FIGS.
10 is a perspective view of the support according to FIG. 9;
11 is a seventh embodiment of the attraction force generation unit of FIGS.
12 is a first embodiment of the repulsive force generation unit of FIGS.
13 is a second embodiment of the repulsive force generation unit of FIGS.
14 is an enlarged cross-sectional view of the conveying means of FIGS.
15 is a perspective view of the conveying means according to FIG. 14;

The present invention provides a non-contact plate, the bottom surface of which is installed in parallel with the upper surface of the transfer object; At the same time, the attraction force and the repulsive force are simultaneously generated toward the object to be conveyed by the fluid discharged by being arranged inside the non-contact plate, so that the object to be conveyed can be conveyed in parallel with the non-contact plate without tilting to either side. A manpower generating unit and a repulsive force generating unit; It is installed inside the non-contact plate, so as not to interfere with the attraction of the attraction of the attraction portion and the generation of repulsive force of the repulsive force generation portion is arranged in the arrangement between the arrangement and the arrangement of the attraction force generation portion and the repulsion force is arranged in a non-contact manner by the fluid discharged Transfer means for transferring a transfer object; The non-contact transfer device, characterized in that configured to include a feature of the technical configuration.

In addition, the manpower generating unit and the repulsive force generating unit is arranged alternately, at least one or more of the same type of manpower generating unit or repulsive force generating unit is repeatedly installed, and both the manpower generating unit and the repulsive force generating unit at both ends of the manpower generating unit or repulsive force generating unit Non-contact transfer device, characterized in that the same type is installed among the features of the technical configuration.

In addition, the non-contact conveying device, the upper surface of the non-contact plate is installed at an inclination inclined to either of the left, right so as to form an acute angle with the horizontal ground, the object to be transported by the attraction force generated in the manpower generating unit and the repulsive force generated in the repulsive force generating unit While maintaining the inclined state from the bottom of the non-contact plate and simultaneously discharging the fluid from the conveying means to transfer the conveyed object in the fluid ejection direction, and to support the lower surface of the conveyed object while supporting the lower surface of the conveyed object. A non-contact transfer device characterized in that the feed roller is provided is characterized by a technical configuration.

In addition, the attraction unit, the vertical section is formed with a vertical plane perpendicular to the bottom surface of the non-contact plate parallel to the transfer object to form a closed curved surface in contact with one surface of the transfer object, between the bottom surface and the vertical section of the non-contact plate Coupling hole consisting of an arc section consisting of an arc surface for connecting the; A fluid supply passage drilled inside the non-contact plate to communicate with the coupling hole; Inserted into the coupling hole, the circumference is installed in the circumferentially opposed to the arc section and the nozzle portion for forming a Coanda nozzle through which the fluid supplied from the fluid supply passage passes, and the nozzle neck extending upward from the nozzle portion Nozzle member; The non-contact transfer device, characterized in that configured to include a feature of the technical configuration.

In addition, the attraction force unit, the vertical section is formed in a vertical plane perpendicular to the bottom surface of the non-contact plate parallel to the transfer object to form a closed curved surface in contact with one surface of the transfer object, and upwards with respect to the bottom surface of the non-contact plate An engaging hole consisting of an arcuate section formed of an acute inclined section formed of an acute inclined surface that forms an acute angle with a center line and a circular arc section connecting an acute inclined section and a bottom surface of a non-contact plate; A fluid supply passage drilled inside the non-contact plate to communicate with the coupling hole; A nozzle which is inserted into the coupling hole and has a circumference opposite to the circular arc section, the nozzle part forming a coanda nozzle through which the fluid supplied from the fluid supply passage passes and the nozzle neck extending upward from the nozzle part; Absence; The non-contact transfer device, characterized in that configured to include a feature of the technical configuration.

In addition, the nozzle neck is provided with a screw head and a non-contact conveying device, characterized in that the screw portion corresponding to the screw hole formed in the upper coupling hole is formed directly below it, characterized in that the technical configuration.

In addition, the non-contact conveying device is characterized in that the technical configuration of the nozzle neck is formed on the top of the nozzle neck is protruded from the upper surface of the non-contact plate is coupled by the fastening nut.

In addition, the non-contact conveying device, characterized in that the end of the nozzle is in close contact with the inner wall of the coupling hole is formed around the lower portion of the technical feature.

In addition, one end of the nozzle neck is characterized in that the non-contact conveying device, characterized in that the technical configuration is characterized in that the support portion is installed in close contact with the inner wall of the coupling hole so that the nozzle member is installed in the center of the coupling hole.

In addition, the outer circumference of the support portion is characterized in that the non-contact transfer device characterized in that the tooth is formed in close contact with the inner wall of the coupling hole.

In addition, in the center of the coupling hole is characterized in that the non-contact transfer device characterized in that the coupling portion extending downward from the upper portion of the coupling hole so that the nozzle neck of the nozzle member can be coupled inside the coupling portion. .

In addition, the repulsive force generating unit, characterized in that the non-contact conveying device characterized in that consisting of a pinhole or a repulsive force forming unit to discharge the fluid to the transfer object to generate a repulsive force.

In addition, the repulsive force forming portion, having a bottom flat portion parallel to the conveying direction of the conveying object and forming a non-contact interval with the conveying object, the lower periphery is formed with a round portion; A nozzle for allowing fluid supplied to a coanda nozzle formed by being installed closer to the outer periphery of the coanda bar than above the round portion of the coanda bar to be discharged to the object to be transferred along the round portion of the coanda bar through the coanda nozzle. Blocks; The non-contact transfer device, characterized in that configured to include a feature of the technical configuration.

The conveying means may further include: a conveying block having an input end formed in a normal direction with respect to a conveying direction of the object to be conveyed, and a lower portion of the input end formed as a round part over the entire section; The lower end is formed along the input end above the bottom of the transfer block so as to form a normal coanda nozzle with respect to the transfer direction of the object to be transferred, and the fluid is discharged in a direction in contact with the outer surface of the input end through the coanda nozzle. A nozzle block for simultaneously applying repulsive force and a transfer force to a transfer object opposite to the transfer block by inducing it to flow to the bottom of the transfer block along the round portion of the input end; The non-contact transfer device, characterized in that configured to include a feature of the technical configuration.

Referring to the configuration of the non-contact transfer device according to the present invention with reference to the accompanying drawings in detail as follows.

As shown in FIGS. 1 and 2, the non-contact conveying apparatus according to the present invention includes a lower surface 11 of the conveying object 50 so as to face one surface of the conveying object 50 such as a steel or a flexible object having a flat or curved surface. A non-contact plate 10 installed above and a manpower generating unit 20 arranged in the non-contact plate 10 while communicating toward the bottom 11 so as to discharge the fluid to the bottom 11 of the non-contact plate 10. And a repulsive force generating unit 30 and a conveying means 40 installed inside the non-contact plate 10 to be positioned between the arrangement and the arrangement thereof.

Looking at the configuration in more detail, the non-contact plate 10 is formed in a flat plate shape while the bottom surface 11 is parallel to the upper surface of the transfer object 50 by the attraction and repulsive force during non-contact transfer. At this time, the attraction force generation unit 20 and the repulsive force generation unit 30 is arranged in the non-contact plate 10 so that the discharge direction of the fluid toward the bottom surface 11 of the non-contact plate 10.

The attraction force generation unit 20 and the repulsion force generation unit 30 discharge the fluid to the upper surface of the transfer object 50 and simultaneously issue the attraction force and the repulsive force so that the transfer object 50 does not incline to either side. At the same time as pulling parallel to the () can be stably maintained the gap between the non-contact plate 10 and the transfer object (50).

In addition, the transfer means 40 of the attraction force generation unit 20 and the repulsion force generation unit 30 as shown in Figure 1 so as not to affect the attraction force generation of the attraction force generation unit 20 and the repulsive force generation of the repulsive force generation unit 30 It is installed inside the non-contact plate 10 to be positioned between the array and the arrangement.

Here, the attraction force generation unit 20 and the repulsive force generation unit 30 are alternately installed on the non-contact plate 10 so as to discharge the fluid to the bottom 11, the attraction force generation unit 20 and the repulsion force generation unit ( 30 are arranged in plurality in at least one of the same kind. For example, an arrangement structure or repulsive force generating unit 30 in which two manpower generating units 20 are installed, and then two repulsive force generating units 30 are installed, and then two manpower generating units 20 are installed. For example, an arrangement structure in which three are installed, next, three attraction force generation units 20 are installed, and then three repulsion force generation units 30 are installed.

As described above, in the non-contact transfer apparatus according to the present invention, since the attraction force generation unit 20 and the repulsive force generation unit 30 are alternately installed, the attraction force and the repulsion force alternately act on the transfer object 50 and the transfer object 50. The non-contact distance can be stably maintained, as well as the attraction force generation unit 20 or the repulsion force generation unit 30 are installed at least one or more of the same type alternately the attraction force generation unit 20 and the repulsion force generation unit 30 alternately Compared to the one-by-one arrangement, the attraction force and repulsive force acting on the conveying object 50 are improved, so that the suction object can be gripped more stably.

In addition, in arranging the attraction force generation unit 20 and the repulsion force generation unit 30, the same type of the attraction force generation unit 20 and the repulsion force generation unit 30 are arranged to correspond to each other at both ends of the arrangement. Stable gripping of the transfer object 50 can be made. That is, if two manpower generating units 20 are installed in the middle, the two repulsive force generating units 30 are arranged at opposite ends thereof, and if three middle repulsive force generating units 30 are installed, three manpower at each end thereof is installed. The generator 20 is arranged to face each other.

As such, when the same type of the attraction force generating portion 20 and the repulsive force generating portion 30 are opposed to each other at the ends of the arrangement, the same force as the attraction force or repulsive force to pull the transfer object 50 to both edges of the transfer object 50. This action allows the conveying object 50 to remain parallel without being inclined to either side. If one of the two ends of the arrangement of the attraction force generation unit 20 and the repulsive force generation unit 30 has the attraction force generation unit 20 and the other side has a repulsion force generation unit 30 on one edge of the transfer object 50 Since the attraction force to pull the transfer object 50 acts and the opposite force acts on the other edge of the transfer object 50 such that a repulsive force for pushing the transfer object 50 acts, so that stable parallel transfer of the transfer object 50 occurs. May adversely affect

The non-contact transfer device according to the present invention simultaneously generates a attraction force and a repulsive force by the attraction force generating unit 20 and the repulsive force generating unit 30 arranged in the non-contact plate 10 while at the same time suction grip the transfer object 50 Transfer means 40 is installed to transfer the object (50). The transfer means 40 discharges the fluid in one direction through the Coanda nozzle 422 to transfer the transfer object 50 by the flow of the fluid.

Here, when the transfer means 40 is installed in the same arrangement of the attraction force generation unit 20 and the repulsion force generation unit 30 side by side when the non-contact plate 10 is installed in the attraction force generation unit 20 and the repulsion force generation unit 30 Since the discharged fluid and the fluid discharged from the conveying means 40 may collide with each other and affect the generation of attraction and repulsive force, as shown in FIG. By installing the conveying means 40 between the manpower generating unit 20 and the repulsive force generating unit 30 and the fluid discharged from the conveying means 40 can be safely transported to the conveying object 50 Make sure

3 is a block diagram according to another embodiment of the present invention. As shown in FIG. 1, the attraction force generating unit 20 generating the attraction force and the repulsive force generating unit 30 generating the repulsive force are arranged and discharged in the conveying direction of the transfer object 50. The non-contact plate 10 provided with the conveying means 40 for conveying 50 is inclinedly installed.

That is, the upper surface 12 of the non-contact plate 10 is inclined so as to form an inclination angle of the horizontal plane with an acute angle to either one of the left and right so that the bottom surface 11 from which the fluid is discharged faces the conveying object 50. Lifting the transfer object 50 in an inclined state to be in parallel with the non-contact plate 10 by the attraction force and the repulsive force generated toward the bottom surface 11 of the non-contact plate 10 from the generating unit 20 and the repulsive force generating unit 30 To transfer the transfer object (50).

At this time, since the force acts intensively on the lower surface of the inclined transfer object 50, the feed roller 60 is installed to guide the transfer of the transfer object 50 while supporting the bottom of the transfer object 50. Of course, the transfer roller 60 supporting the bottom 11 of the non-contact plate 10 and the inclined surface of the transfer object 50 forms a right angle for smooth transfer of the transfer object 50.

4 is a first embodiment of the attraction force generating unit of FIGS. As shown in the drawing, the first embodiment of the attraction force generating unit 20 is configured in the form of a vacuum pad, and has a coupling hole 21 arranged in the non-contact plate 10 and non-contacting to communicate with the upper portion of the coupling hole 21. It is composed of a fluid supply path 22 is installed in the plate 10 and the nozzle member 23 is coupled to the coupling hole 21 inside.

That is, the coupling hole 21 is a vertical plane perpendicular to the bottom surface 11 of the non-contact plate 10 forming a closed curved surface when in contact with one surface of the transfer object 50, such as steel or a flexible object having a flat curved surface. It consists of an arc section 212 connecting the vertical section 211 and the bottom surface 11 and the vertical section 211 of the non-contact plate 10 to be formed.

In addition, the nozzle member 23 coupled to the inside of the coupling hole 21, the nozzle portion 231 having a funnel shape is installed at intervals through which the fluid can pass along the inner wall of the coupling hole 21. A fluid flows through the coanda nozzle 232 and the nozzle neck 233 is extended upward from the top of the nozzle unit 231.

On the other hand, the Coanda effect (coanda effect) is the bottom surface 11 of the non-contact plate 10, the arc section 212, the vertical section 211 and the nozzle member 23, the non-contact plate 10 Bottom 11 forms a closed curved surface with one surface of the transfer object (50).

In addition, the nozzle portion 231 is located above the bottom surface 11 of the non-contact plate 10 in order to apply the attraction force to the transfer object 50 in the closed curved surface formed by the bottom surface 11 of the non-contact plate 10. By positioning, the space is formed by the arc section 212, the vertical section 211 and the nozzle member (23). In order to more reliably implement the Coanda effect, the nozzle unit 231 is installed at a position closer to the vertical section 211 based on the boundary point between the arc section 212 and the vertical section 211 of the coupling hole 21. Be sure to

The fluid supplied to the fluid supply path 22 communicating with the coupling hole 21 flows along the inclined surface of the nozzle part 231 and passes between the outer circumference of the nozzle part 231 and the inner wall of the coupling hole 21. The coanda effect is exhibited by flowing along the arc section 212 to the bottom of the non-contact plate 10.

The coanda effect refers to an effect that the fluid flows along the curved surface, and the attraction unit 20 uses the coanda effect to supply the fluid supplied from the fluid supply passage 22 to the arc section of the coupling hole 21 ( By inducing flow along 212), attraction and repulsive force are generated in the transfer object 50.

When the fluid supplied from the fluid supply passage 22 to the coupling hole 21 flows, the pressure in the inner space formed by the transfer object 50, the coupling hole 21 and the nozzle part 231 surface is lower than the pressure around. In this region, an attraction force for pulling the transfer object 50 to the attraction force generation unit 20 is generated. On the other hand, due to the flow of fluid flowing through the arc section 212 to the bottom face 11 of the non-contact plate 10, the pressure of this portion is formed higher than the pressure around. That is, when the fluid passes through the arc section 212 and passes through the bottom face 11 of the non-contact plate 10, repulsive force is generated in this region to push the transfer object 50 from the bottom of the non-contact plate 10.

The non-contact transfer device according to the present invention, by using the fluid injected through the fluid injection hose 70 is connected to the fluid supply passage 22 as shown in FIG. The 50 can be lifted in a non-contact state.

5 is a second embodiment of the attraction force generating unit of FIGS. As shown, the second embodiment of the attraction force generation unit 20 is the same as the configuration of the first embodiment of the attraction force generation unit 20 of FIG. 4 except that an acute inclination section 213 is further formed.

That is, in the second embodiment of the attraction force unit 20, the contact hole 21 arranged in the non-contact plate 10 and the contact hole 21 so as to be in communication with the coupling hole 21 to supply fluid to the coupling hole 21 are not in contact. It consists of a fluid supply passage 22 which is perforated in the plate 10 and a nozzle member 23 coupled to the inside of the coupling hole 21.

More specifically, the coupling hole 21 is formed in a vertical plane perpendicular to the bottom surface 11 of the non-contact plate 10 in parallel with the transfer object 50 to form a closed curved surface in contact with one surface of the transfer object 50. The upper section is connected to the vertical section 211 in a structure different from the first embodiment of the vertical section 211 and the attraction force unit 20, and the inner diameter of the vertical section 211 toward the upper surface 11 of the non-contact plate 10 is increased upward. A circular arc formed of an acute inclined section 213 formed of an acute inclined surface that is narrow and forms an acute angle with the center line, and an arc surface connecting the acute inclined section 213 and the bottom surface 11 of the non-contact plate 10. Section 212.

The nozzle member 23 is inserted into the coupling hole 21, and the periphery of the nozzle member 23 is installed to face the arc section 212 to form a Coanda nozzle 232 through which the fluid supplied from the fluid supply passage 22 passes. And a nozzle neck 233 extending upward from the nozzle part 231.

An acute inclined section 213 is an acute inclined surface that forms an acute angle when the center line is vertically drawn from the center of the coupling hole 21 to form an acute angle smaller than a right angle, and the fluid supplied to the fluid supply passage 22 is a coanda effect. As a result, the acute inclined section 213, the arc section 212, and the bottom surface 11 of the non-contact plate 10 flow. Since the angle formed with the center line of the coupling hole 21 is inclined at an acute angle of 90 ° or less, the acute angle inclination section 213 is formed in the vertical section of the inner wall of the coupling hole 21 as in the first embodiment of the attraction force unit 20. The movement distance of the fluid is shorter than that of the structure of 211), thereby minimizing the loss of the fluid.

6 is a third embodiment of the attraction force generating unit of FIGS. 1 to 3; As shown in the drawing, the third embodiment of the attraction force generation unit 20 forms a threaded portion 235 in the nozzle neck 233 of the nozzle member 23 so as to be screwed onto the corresponding coupling hole 21. do.

That is, the screw head 234 is formed on the nozzle neck 233 of the nozzle member 23 so that the nozzle member 23 can be coupled from the upper surface 12 of the non-contact plate 10 toward the coupling hole 21. Under the screw head 234 is formed a screw portion 235 to be screwed corresponding to the screw hole formed in the upper portion of the coupling hole (21).

At this time, a spot facing corresponding to the screw head 234 is formed on the upper surface 12 of the non-contact plate 10 corresponding to the coupling hole 21 to be stably placed. In the center of the spot facing, a threaded hole communicating with the coupling hole 21 is formed to allow the threaded portion 235 of the nozzle member 23 to be screwed together.

7 is a fourth exemplary embodiment of the attraction force generating unit of FIGS. 1 to 3. As shown in the drawing, the fourth embodiment of the attraction force unit 20 forms a thread 235 on the nozzle neck 233 of the nozzle member 23 to be coupled with the fastening nut.

That is, the screw 235 formed on the nozzle neck 233 of the nozzle member 23 is inserted into the coupling hole 21 penetrating through the bottom surface 11 of the non-contact plate 10 so that the non-contact plate 10 The screw portion 235 protrudes from the upper surface 12, and then, the fastening nut is coupled to the screw portion 235 to fix the nozzle member 23. Of course, the upper surface 12 of the non-contact plate 10 corresponding to the coupling hole 21 drills a through hole communicating with the coupling hole 21, so that the threaded portion 235 of the nozzle neck 233 is connected to the non-contact plate 10. It is exposed from the upper surface 12 so that the fastening nut corresponding to the screw portion 235 can be coupled.

8 is a fifth embodiment of the attraction force generating unit of FIGS. 1 to 3. As shown in FIG. 5, the fifth embodiment of the attraction force generation unit 20 forms teeth on the outer circumference of the nozzle unit 231 of the nozzle member 23 by forming a tooth 236 whose end is in close contact with the inner wall of the coupling hole 21. It is possible to control the flow rate of the fluid through the space between the (236) and the tooth (236). At this time, as the space area between the teeth 236 and the teeth 236 increases, the flow rate of the fluid passing through increases, and as the space area between the teeth 236 and the teeth 236 decreases, the flow rate of the passing fluid decreases. The flow rate of the fluid may be adjusted according to the space area between the tooth 236 and the tooth 236.

On the contrary, a tooth 236 is formed integrally with the inner wall around the inner wall of the coupling hole 21 at the position corresponding to the outer circumference of the nozzle 231 so that the end of the tooth 236 is in close contact with the outer circumference of the nozzle 231. As a result, the flow rate of the fluid may be adjusted through the space between the tooth 236 and the tooth 236.

FIG. 9 is a sixth embodiment of the attraction force generating part of FIGS. 1 to 3, and FIG. 10 is a perspective view of the supporting part according to FIG. 9. As shown in the drawing, a support part 24 closely contacting the inner wall of the coupling hole 21 is formed at one end of the nozzle neck 233 of the nozzle member 23 so that the nozzle member 23 is installed at the center of the coupling hole 21. .

The support part 24 is to be installed at the center of the coupling hole 21 of the nozzle member 23. The support part 24 may be provided at any part of the nozzle neck 233, but the support part 24 is shown in FIG. ) Is installed at the lower end of the nozzle neck 233 directly above the nozzle unit 231, or is installed on the nozzle neck 233 upper portion.

In addition, a tooth 241 is formed on the outer circumference of the support part 24 so that the nozzle member 23 is installed at the center of the coupling hole 21 and the space area of the tooth 241 and the tooth 241 is formed. The flow rate of the fluid can be adjusted accordingly. At this time, the shape of the tooth 241 may be formed in various forms such as a triangular shape, a square shape, a trapezoidal shape that becomes narrower toward the end as shown in FIG.

FIG. 11 is a seventh embodiment of the attraction force generating unit of FIGS. 1 to 3; As shown in the upper portion of the coupling hole 21 is formed in the upper portion of the coupling hole 21 is formed in the coupling portion 214 extending downward to couple the nozzle member 23 to the coupling portion 214.

Coupling portion 214 may be formed in a bivalent type, the first is that the coupling portion 214 is formed from the upper portion of the coupling hole 21 to the bottom and the through hole is formed in the center of the coupling portion 214 and , Second, the coupling part 214 extends from the upper part of the coupling hole 21 to the lower part, and a screw hole is formed in the lower end of the coupling part 214.

In the case of the first type of coupling part 214, the nozzle member 23 coupled to the coupling part 214 may use a screw part 235 formed on the nozzle neck 233, wherein the nozzle member 23 is The coupling method is such that the through-holes of the nozzle neck 233 and the coupling part 214 coincide through the coupling hole 21, and then the screw part 235 of the upper part of the nozzle neck 233 is not in contact with the plate 10. The fastening nut is coupled to the threaded portion 235 by the protrusion.

Secondly, in the case of the coupling part 214 of the type, the nozzle member 23 that is coupled to the coupling part 214 is formed by using a threaded part 235 formed thereon while the nozzle neck 233 is short. The coupling method of (23) is made to match the screw hole of the screw portion 235 and the coupling portion 214 of the nozzle neck 233 through the coupling hole 21 and then screwing. When the structure is fastened in such a manner that the screw portion 235 of the nozzle neck 233 is rotated and released, the nozzle part 231 of the nozzle member 23 is lowered, and the screw part 235 of the nozzle neck 233 is released. Rotating the nozzle unit can adjust the position of the nozzle unit 23 such that the nozzle unit 231 of the nozzle member 23 rises.

Particularly, in the case of the coupling hole 21 provided with the acute inclination section 213, the width of the inner diameter of the acute inclination section 213 becomes wider as it goes down and becomes narrower as it goes upward. If the lowering in the acute inclined section 213, the gap between the acute inclined section 213 and the nozzle portion 231 is widened to allow a large amount of fluid to pass through, and tighten the screw portion 235 to acute the nozzle portion 231. Ascending in the inclined section 213, the gap between the acute inclined section 213 and the nozzle portion 231 is narrowed to pass a small amount of fluid.

On the other hand, in the case of a manpower generating unit 20 in which the coupling portion 214 is formed in the coupling hole 21, it is preferable to form the fluid supply path 22 opposite to both sides of the coupling portion 214, in which the fluid supply The shape of the furnace 22 may be square, such as a circle or a square, as needed.

12 illustrates a first embodiment of the repulsive force generating unit of FIGS. 1 to 3. As shown in the drawing, the first embodiment of the repulsive force generating unit has a pinhole shape and discharges the fluid supplied through the pinhole to one surface of the transfer object 50 so as not to be in contact with the transfer object 50 when suction gripping the transfer object 50. The gap can be kept stable.

13 is a second embodiment of the repulsive force generating unit of FIGS. As shown in FIG. 2, the second embodiment of the repulsive force generating unit 30 has a structure of a pinhole and another repulsive force forming unit, and the bottom surface of the transfer object 50 is parallel to the transfer direction and forms a non-contact gap with the transfer object 50. A coanda bar 31 having a portion 311 and having a lower circumference formed by a round portion 312, and along the outer periphery of the coanda bar 31 above the round portion 312 of the coanda bar 31. The nozzle block which allows the fluid supplied to the coanda nozzle 322 formed by being installed to be discharged to the transfer object 50 along the round portion 312 of the coanda bar 31 through the coanda nozzle 322. It consists of 32.

Therefore, the supplied fluid flows along the round portion 312 of the coanda bar 31 through the coanda nozzle 322, and at this time, a repulsive force for pushing the transfer object 50 is provided in the area of the bottom flat portion 311. It can be generated to maintain a stable non-contact interval with the transfer object (50).

14 is an enlarged view of the conveying means of FIGS. 1 to 3, and FIG. 15 is a perspective view of the conveying means according to FIG. 14. As shown, the conveying means 40 has an input end 411 formed in a normal direction with respect to the conveying direction of the conveying object 50 and the lower portion of the input end 411 is formed as a round part 412 over the entire section. The lower end is formed along the input end 411 above the bottom of the transfer block 41 so as to form a normal coanda nozzle 422 with respect to the transfer block 41 and the transfer direction of the transfer object 50. Discharge fluid in the direction in contact with the outer surface of the input terminal 411 through the nozzle 422 to induce the fluid to flow along the round portion 412 of the input terminal 411 to the bottom surface of the transfer block 41 It is composed of a nozzle block 42 for simultaneously imparting a repulsive force and a conveying force to the object to be conveyed (50) opposed to.

The nozzle block 42 may be formed integrally with the transfer block 41. The transfer block 41 is horizontally installed along the transfer direction of the transfer object 50 and has a horizontal bottom surface. In addition, when the front end of the fluid is discharged in the transfer block 41 is referred to as the input terminal 411, the lower part of the input terminal 411 is formed as a round portion 412. The curvature of the round portion 412 can be appropriately adjusted in consideration of the repulsive force and the transfer force for the transfer object (50).

The nozzle block 42 is a block having a horizontal bottom surface, the lower end of which is disposed closer to the input end 411 of the transfer block 41 than the bottom of the transfer block 41 with respect to the transfer direction of the transfer object 50. A normal coanda nozzle 422 is formed.

That is, the coanda nozzle 422 is connected to a fluid supply means such as a blower for supplying a fluid. The fluid supplied by the fluid supply means is discharged in the direction of contact with the input end 411 through the coanda nozzle 422. At this time, the fluid discharged through the coanda nozzle 422 flows to the bottom surface of the transfer block 41 along the round portion 412 of the input terminal 411 by the Coanda effect and in this process the transfer block ( 41) A resilient fluid layer is formed between the bottom surface and the top surface of the transfer object 50, and a repulsive force and a transfer force are simultaneously applied to the transfer object 50.

Therefore, the fluid discharged through the coanda nozzle 422 flows in the horizontal direction along the bottom surface of the transfer block 41 due to the coanda effect. No shock occurs. In addition, the attraction block and the repulsive force between the transfer block 41 and the transfer object 50 is always maintained a constant non-contact interval can be transferred to the transfer object 50 in a stable non-contact state.

Although not shown in the drawing, a bottom surface of the transfer block 41 may be further provided with a fluid suction port for discharging the fluid discharged from the coanda nozzle 422 to the outside while being formed in parallel with the coanda nozzle 422. The fluid suction port is connected to a fluid suction means such as a blower capable of sucking the fluid, and the repulsive force by the fluid discharged through the Coanda nozzle 422 acts on the transfer object 50 being transferred and at the same time the transfer object 50 ), The attraction force due to the fluid exiting through the fluid inlet is applied to the transfer object 50 has a non-contact interval in a very stable state as a whole.

As described above, in the non-contact transfer apparatus according to the present invention, the attraction force generation unit 20 and the repulsion force generation unit 30 are arranged in the non-contact plate 10, and the attraction force generation unit 20 and the repulsion force generation unit ( By providing the transfer means 40 between the arrangement and arrangement of 30, the suction means grips the transfer object 50 while maintaining the non-contact distance by generating attraction and repulsive force on the bottom of the non-contact plate 10, and at the same time the transfer means 40 In order to stably transport the transfer object 50 by the fluid discharged from the), the operation of the non-contact transfer device according to the present invention with reference to the accompanying drawings as follows.

As shown in FIGS. 1 and 2, the non-contact transfer device according to the present invention is lifted because the attraction and repulsion are simultaneously generated by the attraction generation unit 20 and the repulsion generation unit 30 arranged inside the non-contact plate 10. There is no fear that the contact object 50 will collide with the non-contact plate 10 because the noncontact distance with the conveying object 50 is stably maintained.

That is, the manpower generating unit 20 and the repulsive force generating unit 30 alternately installed in the non-contact plate 10 and the manpower pulling the transfer object 50 and the repulsive force pushing the transfer object 50 alternately transfer object Since it works evenly on the front surface of the 50, there is no fear of collision with the non-contact plate 10 while the transfer object 50 is inclined to either side when suction gripping the transfer object 50.

In addition, since the manpower generating unit 20 and the repulsive force generating unit 30 are alternately installed, one or more of the same type may be installed to generate more powerful manpower and repulsive force, and the manpower generating unit 20 and the repulsive force generating unit ( Since the same type is installed at both ends of the 30, the transfer object 50 can be maintained in parallel with the non-contact plate 10 to maintain a stable non-contact distance. In addition, since the fluid is discharged from the conveying means 40 while the conveying object 50 is suction gripped, the conveying object 50 is safely transported in the conveying direction.

3 is a side cross-sectional view according to an embodiment of the present invention. As shown in the drawing, when the fluid is supplied to the attractive force generating unit 20 and the repulsive force generating unit 30 of the bottom surface 11 of the inclined non-contact plate 10 in a state in which the non-contact conveying apparatus according to the present invention is inclined, the attractive force generating unit ( 20) and the attraction force and the repulsive force generated by the repulsive force generating unit 30 is to be carried in parallel with the bottom surface of the inclined non-contact plate 10 to support the transfer object (50).

At the same time, the fluid is discharged from the conveying means 40 to convey the conveying object 50 in an inclined state. At this time, the lower surface of the conveying object 50 is provided with a conveying roller 60, the conveying object 50 is moved while sliding the conveying roller 60. As such, when the non-contact transfer apparatus according to the present invention is installed inclined, the installation width when installed horizontally may be reduced to more than half.

4 is a first embodiment of the attraction force generating unit of FIGS. As shown, when the fluid is supplied into the coupling hole 21 through the fluid supply passage 22, the fluid flows along the bottom surface of the arc section 212 and the non-contact plate 10 through the Coanda nozzle 232. . At this time, since the fluid moves the arc section 212 at a high speed, a vacuum state is formed in the lower region of the nozzle unit 231 to generate an attraction force for pulling the transfer object 50. Therefore, the transfer object 50 can be attracted by this coanda effect.

5 is a second embodiment of the attraction force generating unit of FIGS. As shown, when the fluid is supplied into the coupling hole 21 through the fluid supply path 22, the fluid passes through the coanda nozzle 232 and the acute inclined section 213 and the arc section 212. It flows along the bottom face 11 of the non-contact plate 10. At this time, since the fluid moves the arc section 212 at a high speed, a vacuum state is formed in the lower region of the nozzle unit 231 to generate an attraction force for pulling the transfer object 50. Therefore, the transfer object 50 can be attracted by this coanda effect. At this time, the acute inclination section 213 serves to minimize the loss of the fluid by shortening the moving distance of the fluid.

6 is a third embodiment of the attraction force generating unit of FIGS. 1 to 3; As shown in FIG. 1, the attraction force to pull the transfer object 50 upward by the Coanda effect is generated. When the nozzle member 23 is coupled to the coupling hole 21, it is formed on the upper surface 12 of the non-contact plate 10. The nozzle member 23 is pushed into the screw hole at the center of the spot facing and the screw hole 235 of the nozzle neck 233 coincides with each other.

As such, when the screw head 234 is formed on the nozzle neck 233 of the nozzle member 23 and the screw portion 235 is formed thereunder, the nozzle member 23 can be easily coupled to the coupling hole 21. .

After coupling the nozzle member 23 to the coupling hole 21, the screw head 234 is located inside the spot facing there is no fear of interference with other devices.

7 is a fourth exemplary embodiment of the attraction force generating unit of FIGS. 1 to 3. As shown in FIG. 1, the coupling hole is formed by drilling a through hole communicating with the coupling hole 21 on the upper surface 12 of the non-contact plate 10 as a force capable of pulling upward the transfer object 50 by the Coanda effect. When the nozzle member 23 is combined with the nozzle member 23, the nozzle member 23 is pushed into the lower part of the coupling hole 21 so that the screw part 235 of the upper part of the nozzle neck 233 passes through the through hole, and then the screw part 235. The coupling nut is coupled to the nozzle member 23 to complete the coupling.

8 is a fifth embodiment of the attraction force generating unit of FIGS. 1 to 3. As shown in the figure, a tooth 236 is formed on the outer circumference of the nozzle unit 231 of the nozzle member 23 to closely contact the inner wall of the coupling hole 21 to adjust the flow rate of the fluid. That is, when the space area between the tooth 236 and the tooth 236 is large, the flow rate of the fluid increases, and when the space area between the tooth 236 and the tooth 236 is narrow, the flow rate of the fluid decreases.

FIG. 9 is a sixth embodiment of the attraction force generating part of FIGS. 1 to 3, and FIG. 10 is a perspective view of the supporting part according to FIG. 9. As shown in the drawing, in order for the nozzle member 23 to generate a high-quality attraction through the Coanda effect, it is preferable to install the nozzle member 23 so that the nozzle unit 231 is located at the center of the coupling hole 21. For example, when a certain portion of the outer circumference of the nozzle unit 231 is biased to the inner wall of the coupling hole 21, the flow rate of the fluid is different.

Therefore, in order to solve this technical problem, the support part 24 is formed at one end of the nozzle neck 233 so that the end of the support part 24 is coupled to the coupling hole 21 when the nozzle member 23 is coupled to the coupling hole 21. By being in close contact with the inner wall, the nozzle unit 231 is installed at the center of the coupling hole 21.

In addition, the teeth 241 are formed on the outer circumference of the support part 24 so that the end of the teeth 241 is in close contact with the inner wall of the coupling hole 21, so that the nozzle part 231 is located at the center of the coupling hole 21. And at the same time the fluid flow rate can be adjusted through the space between the tooth 241 and the tooth 241.

FIG. 11 is a seventh embodiment of the attraction force generating unit of FIGS. 1 to 3; As shown, the coupling part 214 is formed at the center of the coupling hole 21 to allow the nozzle neck 233 to be coupled thereto.

The coupling method of the nozzle neck 233 forms a threaded portion 235 on the nozzle neck 233 so that the threaded portion 235 protrudes through the coupling portion 214 to the upper surface 12 of the non-contact plate 10. Next, there is a method of coupling the fastening nut to the threaded portion 235, and a method of forming a threaded hole corresponding to the threaded portion 235 formed on the nozzle neck 233 in the lower portion of the coupling portion 214, whereby The nozzle neck 233 is made short so that the nozzle part 231 may be located in the coupling hole 21.

12 is a first embodiment of the repulsive force generation unit of FIGS. 1 to 3. As shown in the drawing, the repulsive force generating unit 30 may be formed in the shape of a hole of a pinhole to discharge the fluid through the pinhole, thereby generating a repulsive force to push the transfer object 50.

13 is a second embodiment of the repulsive force generating unit of FIGS. As shown, the repulsive force generating unit 30 may be formed as a repulsive force forming unit to discharge the fluid to the transfer object 50, thereby generating repulsive force for pushing the transfer object 50.

That is, when the fluid is supplied into the repulsive force forming portion, the supplied fluid passes through the coanda nozzle 322 between the coanda bar 31 and the nozzle block 32 and the round portion 312 of the coanda bar 31. Along the bottom flat portion 311 to act to generate a repulsive force to push the transfer object (50).

14 is an enlarged view of the conveying means of FIGS. 1 to 3, and FIG. 15 is a perspective view of the conveying means according to FIG. 14. When the fluid is supplied to the transfer means 40 as shown, the fluid flows through the coanda nozzle 422 along the round portion 412 of the input end 411 to the bottom of the transfer block 41.

As the fluid flows, the transfer object 50 moves in the flow direction of the fluid.

10: Non-contact plate 11: Bottom 12: Top
20: manpower generator 21: coupling hole 22: fluid supply passage
23: nozzle member 24: support portion 30: repulsion generating portion
31: Coanda Bar 32: Nozzle Block 40: Transportation
41: transfer block 42: nozzle block 50: transfer object
60: Feed roller 70: Fluid injection hose 211: Vertical section
212: arc section 213: acute inclined section 214: coupling part
231: Nozzle part 232: Coanda nozzle 233: Nozzles
234: screw 235: screw 236: toothed
241: tooth 311: bottom flat portion 312: round
322: Coanda nozzle 411: Input stage 412: Round part
422: Coanda nozzle

Claims (14)

A non-contact plate having a bottom surface installed in parallel with an upper surface of the object to be conveyed;
At the same time, the attraction force and the repulsive force are simultaneously generated toward the object to be conveyed by the fluid discharged by being arranged inside the non-contact plate, so that the object to be conveyed can be conveyed in parallel with the non-contact plate without tilting to either side. A manpower generating unit and a repulsive force generating unit;
It is installed inside the non-contact plate, so as not to interfere with the attraction of the attraction of the attraction portion and the generation of repulsive force of the repulsive force generation portion is arranged in the arrangement between the arrangement and the arrangement of the attraction force generation portion and the repulsion force is arranged in a non-contact manner by the fluid discharged Transfer means for transferring a transfer object; Non-contact transfer device, characterized in that configured to include.
The method according to claim 1,
The manpower generating unit and the repulsive force generating unit are arranged alternately, at least one or more of the same type of manpower generating unit or repulsive force generating unit is repeatedly installed, and both the manpower generating unit and the repulsive force generating unit are arranged at both ends of the manpower generating unit and the repulsive force generating unit. Non-contact transfer device, characterized in that the same type is installed correspondingly.
The method according to claim 1,
The non-contact conveying apparatus is installed at an inclination inclined to either of the left and right so that the upper surface of the non-contact plate to form an acute angle with the horizontal ground, the non-contact conveying device is in contact with the object to be conveyed by the attraction force generated in the manpower generating unit and the repulsive force generated in the repulsive force generating unit At the same time as supporting the lower side of the plate and conveying the conveyed object in the fluid ejection direction by discharging the fluid from the conveying means, while supporting the lower surface of the conveyed object while supporting the lower surface of the conveyed object. Non-contact transfer device characterized in that the provided.
The method according to claim 1,
The manpower generation unit,
A vertical section formed of a vertical plane perpendicular to the bottom surface of the non-contact plate parallel to the transfer object so as to form a closed curved surface when contacted with one surface of the transfer object, and an arc surface connecting between the bottom surface and the vertical section of the non-contact plate. A coupling hole formed of an arc section;
A fluid supply passage drilled inside the non-contact plate to communicate with the coupling hole;
Inserted into the coupling hole, the circumference is installed in the circumferentially opposed to the arc section and the nozzle portion for forming a Coanda nozzle through which the fluid supplied from the fluid supply passage passes, and the nozzle neck extending upward from the nozzle portion Nozzle member; Non-contact transfer device, characterized in that configured to include.
The method according to claim 1,
The manpower generation unit,
The vertical section is formed into a vertical plane perpendicular to the bottom surface of the non-contact plate parallel to the object to be transported to form a closed curved surface in contact with one surface of the object to be transferred, and the width of the inner diameter becomes narrower toward the upper side with respect to the bottom surface of the non-contact plate. A coupling hole formed of an acute inclined section formed of an acute inclined surface forming an acute angle with a center line, and an arc section consisting of an arc surface connecting between the acute inclined section and the bottom surface of the non-contact plate;
A fluid supply passage drilled inside the non-contact plate to communicate with the coupling hole;
Inserted into the coupling hole, the circumference is installed in the circumferentially opposed to the arc section and the nozzle portion for forming a Coanda nozzle through which the fluid supplied from the fluid supply passage passes, and the nozzle neck extending upward from the nozzle portion Nozzle member; Non-contact transfer device, characterized in that configured to include.
The method according to claim 4 or 5,
The nozzle neck is provided with a screw head on the upper portion of the non-contact transfer device, characterized in that the threaded portion corresponding to the screw hole formed in the upper coupling hole is formed directly below it.
The method according to claim 4 or 5,
The non-contact transfer device, characterized in that the upper portion of the nozzle neck is formed with a screw portion which is protruded from the upper surface of the non-contact plate coupled by a fastening nut.
The method according to claim 4 or 5,
Non-contact conveying device, characterized in that the tooth is formed around the lower end of the nozzle is in close contact with the inner wall of the coupling hole.
The method according to claim 4 or 5,
One end of the nozzle neck is a non-contact transfer device, characterized in that the support is installed so that the outer end is in close contact with the inner wall of the coupling hole so that the nozzle member is installed in the center of the coupling hole.
The method according to claim 9,
Non-contact transfer device characterized in that the tooth is formed on the outer periphery of the support portion is in close contact with the inner wall of the coupling hole.
The method according to claim 4 or 5,
A non-contact transfer device, characterized in that the center of the coupling hole to form a coupling portion extending downward from the upper portion of the coupling hole so that the nozzle neck of the nozzle member can be coupled to the coupling portion.
The method according to any one of claims 1 to 3,
The repulsive force generating unit is a non-contact conveying apparatus, characterized in that consisting of a pinhole or repulsive force forming portion to discharge the fluid to the transfer object to generate a repulsive force.
The method of claim 12,
The repulsive force forming unit,
A coanda bar having a bottom flat portion parallel to the conveying direction of the conveying object and forming a non-contact gap with the conveying object, the lower periphery being formed as a round portion;
A nozzle for allowing fluid supplied to a coanda nozzle formed by being installed closer to the outer periphery of the coanda bar than above the round portion of the coanda bar to be discharged to the object to be transferred along the round portion of the coanda bar through the coanda nozzle. Blocks; Non-contact transfer device, characterized in that configured to include.
The method according to any one of claims 1 to 3,
The conveying means
A transfer block having an input end formed in a normal direction with respect to a conveying direction of the object to be conveyed, and a lower portion of the input end formed as a round part over the entire section;
The lower end is formed along the input end above the bottom of the transfer block so as to form a normal coanda nozzle with respect to the transfer direction of the object to be transferred, and the fluid is discharged in a direction in contact with the outer surface of the input end through the coanda nozzle. A nozzle block for simultaneously applying repulsive force and a transfer force to a transfer object opposite to the transfer block by inducing it to flow to the bottom of the transfer block along the round portion of the input end; Non-contact transfer device, characterized in that configured to include.
KR1020100052817A 2010-06-04 2010-06-04 Noncontact feed apparatus using vacuum pad KR101293289B1 (en)

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KR1020100052817A KR101293289B1 (en) 2010-06-04 2010-06-04 Noncontact feed apparatus using vacuum pad
PCT/KR2010/004314 WO2011152587A1 (en) 2010-06-04 2010-07-02 Non-contact conveying device using vacuum pad

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WO2011152587A1 (en) 2011-12-08

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