Abstract: The present invention relates improved device is provided for holding down textile the material on the platen of the digital printer. The inventive device includes a textile gripping material formed to define a border band on the periphery of the platen. The border material has a structure that engages/grips the textile and hold the textile in place. In operation, the textile is laid onto the platen surface and the edges are pulled taut to align the textile and remove wrinkles and the textile is next pressed onto the border material to be engaged by the border material. The border material grips and holds the textile in position, to provide a smooth textile surface on which the ink jets are applied. After the printing operation, the textile is lifted off of the border material and removed from the platen.

Abstract: A method of screen printing positionally synchronizes a plurality of pallet assemblies on a first screen printing machine with a plurality of pallet assemblies on a second screen printing machine. A screen printed garment having a properly aligned first image received from the first screen printing machine is transferred on a portion of one of the pallet assemblies on the first screen printing machine to one of the plurality of pallet assemblies on the second printing machine. The properly aligned first image on the garment is in proper positional alignment with a screen printing head on the second screen printing machine such that a second image complimentary to the first image is printed on the garment in proper position on the garment relative to the first image without user intervention to positionally locate the first image relative to the screen printing head on the second machine.

Abstract: The present invention relates to screen printing plate for a solar cell in which an electroconductive paste is used to simultaneously print a bus bar electrode and a finger electrode, the screen printing plate characterized in that the opening width of a finger electrode opening of the screen printing plate is less than 80 ?m and a bus bar electrode opening of the screen printing plate has a closed section. The use of this screen printing plate makes it possible to reduce the cost of manufacturing solar cells, prevent the connecting section between the bus bar electrode and the finger electrode from breaking without causing an increase in shadow loss or compromising the aesthetic quality of the solar cells, and manufacture highly reliable solar cells with good productivity.

Abstract: Disclosed is a printed circuit board production apparatus which comprises a first working unit, a second working unit, and a control section. The first working unit includes a board conveying section, and a working mechanism section for subjecting the board conveyed to a given working process, wherein the board conveying section and the working mechanism section are configured to be relatively displaceable between a machine-setup position where a gap defined between the board conveying section and the working mechanism section and leading to the second working unit becomes equal to or less than a given value, and a position where the gap becomes greater than the given value. The board conveying section and the working mechanism section are arranged in the machine-setup position by the control section when machine setup for the first working unit is performed during operation of the second working unit.

Abstract: A splicing machine having an alignment mechanism is provided for aligning an end edge of a web of paperboard in preparation for splicing two webs of paperboard. An image display device such as a mirror or display screen allow an operator to view images of the end edge of the web and the alignment position to facilitate aligning the end edge at the alignment position. The alignment position is typically marked by an alignment marker produced by light, such as a laser beam.

Abstract: A screen printer includes: a mask with a pattern hole; a substrate holder that clamps and holds a substrate at sides of the substrate by a pair of clamping members below the mask; a substrate holder elevation mechanism that moves the substrate holder up and down to contact the substrate with a lower surface of the mask; a paste filling unit that fills the pattern hole with a paste; a mask contact member that is provided in the clamp member and that contacts with the mask in a state in which the substrate contacts with the mask; and an urging portion that is provided in the clamp member and that includes an urging unit that urges the mask contact member upward.

Abstract: A method of screen printing positionally synchronizes a plurality of pallet assemblies on a first screen printing machine with a plurality of pallet assemblies on a second screen printing machine. A screen printed garment having a properly aligned first image received from the first screen printing machine is transferred on a portion of one of the pallet assemblies on the first screen printing machine to one of the plurality of pallet assemblies on the second printing machine. The properly aligned first image on the garment is in proper positional alignment with a screen printing head on the second screen printing machine such that a second image complimentary to the first image is printed on the garment in proper position on the garment relative to the first image without user intervention to positionally locate the first image relative to the screen printing head on the second machine.

Abstract: An electrode formation method for a solar cell to form an electrode of a base member, includes a screen printing process and a baking process. The screen printing process includes: mounting a metal mask on a surface of the base member, wherein the metal mask includes a covering portion configured to cover a part of a surface of the base member, opening portions configured to allow parts of the base member to be exposed therefrom, and bridge portions disposed along a direction intersecting with a longitudinal direction of circuit patterns between the opening portions; and supplying a paste to an upper surface of the metal mask by a squeegee head of a cartridge type, while relatively sliding a squeegee on the upper surface of the metal mask such that the squeegee travels relatively to the metal mask. In the baking process, the paste is baked to form the electrode.

Abstract: A screen printing machine including: a screen mask 1 detachably mounted to a mask mounting area set in advance; a squeegee, which is arranged above the screen mask mounted to the mask mounting area, and the squeegee reciprocates relative to the screen mask in a squeegee-movement direction; and a receptacle which is installed at a location so that the screen mask is allowed to be attached and detached and which catches applying material adhered to the squeegee.

Abstract: A system and method which allows for a pre-constructed article of clothing to having printing on substantially all of its external surface area. Specifically, an image may be simultaneously printed across multiple components of a clothing article. The method generally provides for transfer of a digital image, such as a digital photograph, to be applied to an article of clothing in a manner that prints an entire two-dimensional surface of the clothing with a coherent image, that maintains coherency when the article of clothing is worn. There is also provided an article of clothing produced using the systems and methods.

Abstract: At the two ends of a pair of clamping members (9a) which sandwich and clamp a board (10) from the Y direction, mask supporting members (9b) forming a rectangle frame are disposed, and a screen mask (12) is supported from below by the mask supporting members (9b) in a state that the board (10) abuts against the under surface of the screen mask (12). A downwards bending of the screen mask (12) can be prevented, and the time and labor of maintenance can be decreased by preventing the deposits of paste on the screen mask (12) that occur due to the bending.

Abstract: A screen printer 100 for paste material printing is disclosed herein. In a described embodiment, the screen printer 100 comprises a printing chamber 104; and a plurality of support members in the form of lifting tables 114, 116 arranged adjacent to one another along a single conveying path for individually supporting a respective PCB 202, 240 in the printing chamber 104. The screen printer 100 further includes a stencil 120 having a plurality of print patterns 124, 126 with each print pattern 124, 126 arranged adjacent to another print pattern to correspond to the positions of the lifting tables 114, 116 with each print pattern 124, 126 corresponding to a desired paste pattern to be printed onto the PCBs. The screen printer 100 also includes a paste printer arranged to print paste material on the at least one substrate using at least one of the print patterns. A screen printing method is also disclosed.

Abstract: Disclosed herein is an apparatus for depositing viscous material on an electronic substrate. The apparatus comprises a frame, an assembly material applicator coupled to the frame and configured to apply assembly material to the electronic substrate, a substrate support assembly, coupled to the frame, configured to support and secure the electronic substrate in a print position, and a transport system, coupled to the frame, to shuttle electronic substrates to and from the substrate support assembly, the transport system including a first track and a second track, the first track being mounted on a first displacement mechanism and the second track being mounted on a second displacement mechanism configured to laterally move the second track relative to the first track, the second displacement mechanism configured to raise the first track relative to the second track.

Abstract: A system and method for capturing three-dimensional image data for inspection, alignment and operations of a material applicator includes an imaging system configured to capture three-dimensional image data of an electronic substrate. The imaging system includes one or more illumination assembly configured to project a spectrum of light substantially along a first axis at an angle to the surface of the electronic substrate. The imaging system further includes an image sensor assembly configured to detect the spectrum of light reflected from an electronic substrate surface, with the image sensor assembly including a viewing plane. The material application includes a controller that is coupled to the imaging system. The controller is configured to control movement of the imaging system and to communicate with the image sensor assembly to produce a three-dimensional image of the topology of the electronic substrate.

Abstract: An improved screen printing machine is provided. The main body portion and the support table portion of the printer main body are constructed independently of each other, and the main body portion is supported by the support table portion so as to be movable forward. A feed screw is axially immovably and rotatably held by the main body portion so as to be parallel to the front and rear direction, and the feed screw is engaged with the nut provided on the support table portion. An operator rotates the handle attached to the feed screw to move the main body portion forward with respect to the support table portion so that the main body portion is drawn from the support table portion.

Abstract: Prior to a mark imaging process executed for the purpose of detecting a position of recognition marks for positioning the substrate and the mask, an optical axis calibration processing process of detecting a horizontal relative position between imaging optical axes, and a surface correction data creation processing process of detecting a local positional deviation of the imaging optical axes, which is caused by the travel of the imaging unit, are executed. Before starting production, a production pre-start precision evaluation process for evaluating a substrate positioning precision is executed by using a verification substrate and a verification mask, and after starting the production, a production post-start precision evaluation process for evaluating a substrate positioning precision after starting the production is executed by using a commercial production substrate and a commercial production mask.

Abstract: A template is provided to stretch socks out slightly so the surface of the socks are smooth and flat for printing. In order to make the process cost effective, the templates are designed to print either 2 or 3 pairs of socks at one time, the template comprises: a planar registration portion configured to assist a user to align the printing template with a printer tray; and first and second receiving portions orthogonally extending from the registration portion, each receiving portion configured to receive a garment opening and having a width configured to flatten a portion of the received sock for printing, wherein the first and second receiving portions extend in opposite direction of the planar registration portion.

Abstract: A transport table, comprising a transport web; an unwinding roller for unwinding the transport web therefrom; a first return element; a second return element; a winding roller for winding thereon the unwound transport web; a first frame with which the first and the second return element are connected; and a second frame with which the unwinding roller and the winding roller are rotatably connected, wherein the unwinding roller, the winding roller and the return elements together are designed for stretching the transport web such that between the first and the second return element a surface of the transport web is available as transport surface, and wherein the second frame is movable along a path substantially parallel to said transport surface with respect to the first frame. The invention also discloses a method for the use of the transport table.

Abstract: A screen printing apparatus including two screen printers, each including a substrate introduction portion by which a substrate is introduced from an upstream side of a component mounting line, a printing portion which performs a screen printing to the introduced substrate, a substrate discharge portion by which the substrate is discharged to a downstream side, and a substrate moving stage which receives the substrate to position the substrate with respect to the printing portion and to move the substrate to the substrate discharge portion. The two substrate introduction portions, the two printing portions, and the two substrate discharge portions are arranged symmetrically to each other with respect to a perpendicular symmetrical plane extending in a transportation direction of the substrate in the component mounting line, respectively. Each printing portion is provided at a position further from the perpendicular symmetrical plane than the substrate discharge portion.

Abstract: A screen printing apparatus includes a printing execution unit that performs screen printing on a substrate. At least one substrate support table that is provided movably along a specific direction orthogonal to the conveying direction. A table drive mechanism that moves the substrate support table at least between substrate entry and exit positions along a specific direction. The substrate entry and exit positions are set asymmetrically with respect to the specific direction. A printing execution unit drive mechanism is provided to drive the printing execution unit along the specific direction. A control unit is provided to control the printing execution unit drive mechanism so that the printing execution unit is driven to set the printing position on a substrate conveying path needed for the substrate support table to move from the substrate entry to the substrate exit.

Abstract: Screen printing system with positional alignment for aligning a substrate with a screen mask. The substrate and the screen mask have two registration holes for facilitating the positional alignment. The positional alignment method includes calculating alignment values for correcting the position of the substrate based on the determined offsets between the registration holes of the substrate and the screen mask. The position of the substrate is corrected based on the calculated alignment values so that registration holes of the substrate are vertically aligned with the registration holes of the screen mask.

Abstract: There are provided an operating knob 42 capable of movement operation in a front-back direction with respect to a right and left side support part 31, a rod member 45 whose front end is joined to the operating knob 42, a back edge stopper 47 which is moved in the front-back direction through the rod member 45 and also is abutted on the back edge of the mask 15 by fixing operation of the rod member 45 by the operating knob 42, and a front edge stopper 53 abutted on the front edge of the mask 15.

Abstract: Prior to a mark imaging process executed for the purpose of detecting a position of recognition marks for positioning the substrate and the mask, an optical axis calibration processing process of detecting a horizontal relative position between imaging optical axes, and a surface correction data creation processing process of detecting a local positional deviation of the imaging optical axes, which is caused by the travel of the imaging unit, are executed. Before starting production, a production pre-start precision evaluation process for evaluating a substrate positioning precision is executed by using a verification substrate and a verification mask, and after starting the production, a production post-start precision evaluation process for evaluating a substrate positioning precision after starting the production is executed by using a commercial production substrate and a commercial production mask.

Abstract: The screen printing apparatus includes two screen printers 11A and 11B each including a substrate introduction portion 12 by which a substrate 4 is introduced from the upstream side of the component mounting line 3, a printing portion 13 which performs a screen printing to the introduced substrate 4, a substrate discharge portion 14 by which the substrate 4 subjected to the screen printing is discharged to the downstream side, and a substrate moving stage 15 which receives the introduced substrate 4 so as to position the substrate 4 with respect to the printing portion 13 and to move the substrate 4 subjected to the screen printing to the substrate discharge portion 14. The two substrate introduction portions 12, the two printing portions 13, and the two substrate discharge portions 14 are arranged symmetrically to each other with respect to a perpendicular symmetrical plane S extending in a transportation direction of the substrate 4 in the component mounting line 3, respectively.

Abstract: Prior to a mark imaging process executed for the purpose of detecting a position of recognition marks for positioning the substrate and the mask, an optical axis calibration processing process of detecting a horizontal relative position between imaging optical axes, and a surface correction data creation processing process of detecting a local positional deviation of the imaging optical axes, which is caused by the travel of the imaging unit, are executed. Before starting production, a production pre-start precision evaluation process for evaluating a substrate positioning precision is executed by using a verification substrate and a verification mask, and after starting the production, a production post-start precision evaluation process for evaluating a substrate positioning precision after starting the production is executed by using a commercial production substrate and a commercial production mask.

Abstract: Pallets for flat-printing multiple areas of a 3-dimensional object, especially in a single print job as received by the printing system, and methods for printing the same.

Abstract: A screen printing apparatus in which two printing units are provided in a production line which transports boards from a single board exit position set on a downstream side in a conveyance direction. One printing unit being disposed is available for set-up tasks while the other printing unit is working. Since set-up tasks can be conducted in one printing unit while the other printing unit is working, then it is possible to improve through-put dramatically even in cases where small-volume diverse-component production is carried out in a single lane.

Abstract: A printing apparatus operatively connectable to a mounting arm that comprises an interchangeable pallet unit with a longitudinal axis and operatively connectable to the mounting arm for movement along the longitudinal axis, an indexing mechanism operatively connected to the interchangeable pallet so as to permit the interchangeable pallet indexed movement in a direction transverse to said longitudinal axis, and a bar unit operatively connectable to the mounting arm configured to receive a printing screen.

Abstract: Device and process for producing indicia comprising magnetically oriented magnetic or magnetizable particles in ink or coating composition on a sheet of substrate material. Device includes a flat-bed screen-printing unit having a flat printing screen and a printing platen for receiving a sheet. Printing platen has an upper surface facing the printing screen and a first direction along its upper surface along which said sheet is unloadable, and a magnetic orienting unit having multiple magnet assemblies. Magnetic orienting unit is disposed below upper surface of the printing platen, the multiple magnet assemblies are disposed along first direction, and all of the magnet assemblies are concomitantly movable from a first position away from the upper surface of the printing platen to a second position close to the upper surface of the printing platen. The magnetic orienting unit having one or more magnet assemblies is usable as a stand-alone flat-bed magnetization device.

Abstract: The method for screen printing improves accuracy during a plurality of screen printing steps. After a first layer and an alignment mark are printed on a workpiece, the alignment mark is imaged by a camera so that the alignment mark is stored as image data in an image processing device adapted to deliver reference data for subsequent printing, and the image data is used to renew the reference data in the image processing device.

Abstract: A screen printing apparatus including two screen printers, each including a substrate introduction portion by which a substrate is introduced from an upstream side of a component mounting line, a printing portion which performs a screen printing to the introduced substrate, a substrate discharge portion by which the substrate is discharged to a downstream side, and a substrate moving stage which receives the substrate to position the substrate with respect to the printing portion and to move the substrate to the substrate discharge portion. The two substrate introduction portions, the two printing portions, and the two substrate discharge portions are arranged symmetrically to each other with respect to a perpendicular symmetrical plane extending in a transportation direction of the substrate in the component mounting line, respectively. Each printing portion is provided at a position further from the perpendicular symmetrical plane than the substrate discharge portion.

Abstract: The Automated Cutting System for Customized Field Stencils (“ACSCFS”) is a device designed to implement an automated field stencil creation process. The ACSCFS is comprised of a computer system and an automated cutting table, wherein said automated cutting table is further comprised of a cutting surface, an automated means for placing sheet material onto said cutting surface, and an automated cutting implement. The computer analyzes a color logo image and translates it into a line drawing. The drawing is then scaled, and guideline aperture locations are placed along each line. The computer then transmits instructions to the automated cutting table, directing the creation of a field stencil with a dotted guideline hole pattern. Such field stencils allow for the reproduction of multi-color logos using a single stencil.

Abstract: A screen printing apparatus includes print executing parts, first and second substrate loading parts and a substrate unloading part, and first and second substrate support tables for supporting a substrate. The first substrate support table moves between a first receiving position where the substrate loaded from the first substrate loading part is received, and a sending position where the substrate is unloaded from the substrate unloading part. The second substrate support table moves between a second receiving position where the substrate loaded from the second substrate loading part is received, and the sending position. The print executing parts are respectively placed at positions on the substrate support tables where printing on the substrate is enabled.

Abstract: A liner is inserted into the well of a silkscreen printing frame, enabling the printing process to be carried out considerably faster and more efficiently. The liner bridges the interface between the interior periphery of the frame and a screen stencil stretched across the bottom of the frame. The liner includes generally vertical sidewalls disposed adjacent the inner periphery of the frame and an integral inwardly depending base that overlaps the margins of the screen stencil. An adhesive coating on the bottom surface of the liner base securely adheres the liner base to an emulsion layer covering the margins of the screen stencil. The base of the liner is otherwise open so that ink deposited in the well contacts the non-marginal region of the screen stencil, while the liner isolates the ink from the interface between the screen stencil and the inner periphery of the frame.

Abstract: A screen mask for screen printing includes a mask, and a frame configured to support the mask with a tension; the frame including a fixing frame and a moving frame configured to support the mask and movably mounted on the fixing frame, wherein the tension is controlled by the moving frame.

Abstract: A combination stencil printer and dispenser includes a frame, a stencil coupled to the frame, a substrate support coupled to the frame to support a substrate in a print position, and a print head coupled to the frame to deposit and print viscous material over the stencil. The combination stencil printer and dispenser further includes a dispenser mounted on an independent gantry to dispense viscous material on the substrate when the substrate is in the print position. In other embodiments, the dispenser can be mounted on a stencil wiper assembly or a movable stencil provided within the combination stencil printer and dispenser.

Abstract: A combination stencil printer and dispenser includes a frame, a movable stencil coupled to the frame, a substrate support coupled to the frame to support a substrate in a print position, and a print head coupled to the frame to deposit and print viscous material over the stencil. The combination stencil printer and dispenser further includes a dispenser mounted on the movable stencil to dispense viscous material on the substrate when the substrate is in the print position. In other embodiments, the dispenser can be mounted on a stencil wiper or on an independent gantry provided within the combination stencil printer and dispenser.

Abstract: In a printing system in which a roll film is rolled out to be printed by a printer and the film is rolled up after printing and drying, there is a possibility that wrinkles of the film are generated when printing, and printed materials are scratched because the printed film is positioned near the printer. Both end side of a suction stage in the film delivery direction are formed in a circular arc shape, and auxiliary stages are provided near the end portions to suck and hold a film, the auxiliary stages are allowed to be moved lower than a surface of the suction stage in the state to closely attach the film to the suction stage while applying tension to the film, and the film is sucked and held on the suction stage in the state to be printed after position adjustment to a surface of a mask.

Abstract: A method of depositing viscous material on a substrate includes positioning the substrate in a print position, performing a print operation on the substrate with a print head and a stencil to deposit viscous material on the substrate, and inspecting the substrate with a vision system to detect a defect with the deposit of viscous material on the substrate. The method further includes, in the event of a defect, re-working the substrate by depositing viscous material on the substrate with a dispenser attached to a cleaning assembly, the stencil, or an independent gantry to correct the defect.

Abstract: This is a jig that uses the inside of the screen print frame instead of the outside that is used now. It is a improvement because there is only 1 part, and can be used very easily. It can be made any size. It is made by cutting the foam to fit inside the screen print frame. Drawing the grid ½ inch to 1 inch on one side. Applying the directions on the other side. Then coating the whole jig with epoxy resin.

Abstract: The present invention provides a screen printing apparatus and screen printing method which, in screen printing that is to be performed on the upper surface of a circuit board, and the bottom surfaces of recess openings in the upper surface, can efficiently perform a printing work while ensuring an excellent printing quality. In a screen printing apparatus which prints a paste for bonding an electronic component on an upper surface and a bottom-surface of a recess, a printing apparatus 2(1) and a printing apparatus 2(2) which sequentially 10 print the paste in two steps on the circuit board are placed in series. The printing apparatus 2(1) on the upstream side includes a bottom-surface printing mask which is provided in correspondence with the bottom surface of the recess, and a closed squeegee mechanism 36A which butts against and slides over an upper surface of the bottom-surface printing mask to 15 pressurize and supply the paste.

Abstract: A screen printing apparatus provided with a print executing part, a substrate loading part, a substrate unloading part and a transferring and holding device. The transferring and holding device includes a clamp unit. The transferring and holding device is configured to transfer the substrate to a print executing position upon holding the substrate with the clamp unit so that the print executing part enables performing printing at a substrate standby position. A substrate recognition camera enables imaging in the course of the transfer of the substrate.

Abstract: A moving-out and adjustment device for screens is revealed. The moving-out and adjustment device is applied to screen printing machines and having a frame, two sliding member and an adjustment mechanism. The frame consists of an upper frame and a lower frame. The two sliding members are disposed on two sides of the upper frame symmetrically and a screen is mounted between the two sliding members. Thus the screen is moved from a printing position of a screen printing machine horizontally by the sliding members. The bending and deformation of the screen can be avoided. The adjustment mechanism is arranged at the frame and having a first moving unit and a second moving unit. By operating the first moving unit and the second moving unit, the upper frame is moved in both the X direction and the Y direction in the X-Y plane in relation to the lower frame.

Abstract: A screen printing device includes a supporting base, a stencil, and an imaging alignment device. The supporting base includes a supporting surface and defines a blind hole in the supporting surface for receiving an optic, with a gap therebetween less than 0.1 mm. The stencil is positioned on the supporting base and defines an open pattern and forms at least three marks on a surface of the stencil facing away the supporting base. The imaging alignment device is positioned above the stencil and configured to capture a number of images of the stencil, analyze the images, and reposition the stencil according to analyzing results of the images so that images of the marks reach predetermined positions. The imaging alignment device, the stencil, and the supporting base are pre-aligned such that when the images of the marks reach the predetermined positions, the open pattern aligns with the blind hole.

Abstract: A screen printing machine includes a supporting member, a printing mechanism, and a spraying mechanism. The supporting member includes a supporting surface, a number of cavities defined in the supporting surface to receive a number of substrates, and a number of screens detachably covering the plurality of cavities. The printing mechanism includes a guide plate located above the screens, a sliding device slidably connected to the guide plate, a roller rotatably connected to the sliding device, and a squeegee. The sliding device is configured to drive the roller to roll across and the squeegee to slide across the screens. The spraying mechanism is located at one side of the supporting member for dispensing printing material onto the press roller.

Abstract: A screen printing apparatus includes a substrate for receiving a sheet of material thereon and a support frame releasably coupled to a master frame for securing a print screen. The print screen configured to impart an imprint on the sheet of material. The screen printing apparatus further includes a plurality of uprights coupled to the support frame and a plurality of servomechanisms coupled to the plurality of uprights and configured to contact the support frame to selectively position the print screen in respect of the substrate.

Abstract: To provide a screen printing apparatus and a screen printing method which can enhance a plate separating property after a printing operation regardless of a type of a mask, thereby suppressing occurrence of printing failure. A screen printing apparatus includes mask supporting means 6 for supporting a mask 2 from the rear surface thereof, holding means 20 for holding a printing medium 3, posture changing means 30 for changing a posture of the printing medium 3 held by the holding means 20 between a parallel posture parallel to the mask 2 and a tilted posture tilted about the mask 2, and lifting means for lifting the holding means 20 so as to contact and separate the surface of the printing medium 3 with or from the rear surface of the mask 2. Here, the printing medium 3 having been subjected to a pattern printing operation is separated from the mask 2 from one end of the printing medium to the other end thereof.

Abstract: A cap platen to securely hold headwear, such as caps, hats, and the like, so that graphics, including custom graphics, can be printed on the cap automatically. The platen has a vise plate to support the bill of a cap and a face plate attached to the vise plate to hold the crown of cap. Arms can be attached to the vise plate or the face plate to apply a biasing force against the sides of the cap pushed the sides of the cap outwardly away from the face plate.

Abstract: Disclosed herein is an apparatus for depositing viscous material on an electronic substrate. The apparatus comprises a frame, an assembly material applicator coupled to the frame and configured to apply assembly material to the electronic substrate, a substrate support assembly, coupled to the frame, configured to support and secure the electronic substrate in a material application position, and a transport system, coupled to the frame, to shuttle electronic substrates to and from the substrate support assembly, the transport system including an upper track and a lower track disposed below the upper track.

Abstract: Disclosed herein is an apparatus for depositing viscous material on an electronic substrate. The apparatus comprises a frame, an assembly material applicator coupled to the frame and configured to apply assembly material to the electronic substrate, a substrate support assembly, coupled to the frame, configured to support and secure the electronic substrate in a material application position, and a transport system, coupled to the frame, to shuttle electronic substrates to and from the substrate support assembly, the transport system including an upper track and a lower track disposed below the upper track.