56results about "Lamination plant layout" patented technology

To provide a technology that can reduce the footprint of a joining system. [Solution] A bonding system according to one aspect of the present disclosure includes a processing station that performs a given process on a first substrate and a second substrate, and a load / unload station that loads the first substrate, the second substrate, and an overlapped substrate formed by bonding the first substrate and the second substrate into and out of the processing station. The processing station includes a transport device that transports the first substrate, the second substrate, and the overlapped substrate, a transfer section that transfers the first substrate, the second substrate, and the overlapped substrate between the load / unload station and the transport device, an application device that applies adhesive to the first substrate, a bonding device that bonds the adhesive-coated first substrate and the second substrate to form the overlapped substrate, and a heat treatment device that heat-treats the first substrate, the second substrate, and the overlapped substrate. The heat treatment device and the bonding device are arranged in a stacked configuration.

Press machine (1 ) for producing multi-layer products (3) comprising feed means, plane operation means (2) and a pressure regulator (4). The feed means are configured to introduce a base product and one or more films into a workstation. The plane operation means (2), active in the workstation, are configured to exert a force on the base product and on one or more films to produce multi-layer products (3). The pressure regulator (4), associated to the plane operation means (2), is configured to set the force exerted by the plane operation means (2). The plane operation means (2) are also configured to exert a time-varying force that can be modulated by the pressure regulator (4).

A three-in-one production line selectively combining a flat position dry method and a solvent-free composite technology comprises a first unit, a second unit and a third unit, the second unit is arranged between the first unit and the third unit, a first connecting plate is arranged between the top of the first unit and the top of the second unit, and a second connecting plate is arranged between the top of the second unit. A second connecting plate is arranged between the top of the second unit and the top of the third unit; the first unit comprises a second unwinding unit and a first coating unit, the second unit comprises a first unwinding unit, a winding unit, a first compounding unit and a second compounding unit, the third unit comprises a third unwinding unit and a second coating unit, a first drying oven is arranged on a first connecting plate, and a second drying oven is arranged on a second connecting plate. And a second drying oven is arranged on the second connecting plate. According to the principle of the utility model, the coating unit and the drying oven are selectively started, and different coating units are replaced, so that a dry method and a solvent-free three-in-one composite process can be freely switched, and the coating process requirements of different composite materials are met.

A first treatment plant (100) and a second treatment plant (200) for respectively performing a first and a second surface treatment of a laminar support (1) for producing a multilayer laminar product (6). The first treatment plant (100) provides an outlet winding assembly (114) for winding on a transfer reel (400) the strip of laminar element (4) coupled with the treated laminar support (1), while the second treatment plant (200) comprises at the inlet an unwinding assembly (201) configured to unwind the transfer reel (400) of the first treatment plant (100) so as to perform a second treatment on said laminar support (1).

An apparatus having a first treatment module and a second treatment module positionable in proximity to the first treatment module, wherein at least one of the first treatment module and the second treatment module includes a welding device for treating one or more workpieces. The apparatus has a controller arranged to: receive a real-time amplitude signal of ultrasonic vibration of at least one of the first treatment module and the second treatment module during a treatment cycle; segment the amplitude signal into a plurality of amplitude segments for the treatment cycle; monitor an amplitude value of each of the plurality of amplitude segments during the treatment cycle; operate a plurality of closed-loop control algorithms to determine a plurality of amplitude adjustment values, each of the plurality of amplitude adjustment values corresponding to a respective one of the plurality of amplitude segments; and apply each amplitude adjustment value to the corresponding respective one of the plurality of amplitude segments during the subsequent treatment cycle in real-time. The treatment cycle comprises treating a single workpiece in a plurality of workpieces, and the treating including a bonding operation, a welding operation, a soldering operation, a fusing operation, or a cutting operation.

The present invention relates to a method for manufacturing a multilayer circuit board. First, within the scope of the assembly method steps, multiple functional layers (5) and at least one insulating layer (4) of the circuit board to be manufactured are arranged layer by layer between a lower mold (2) and an upper mold (1) of a multi-part mold, and at least one measuring value encoder is positioned between the upper mold (1) and the lower mold (2) such that the measuring value encoder is abutting against at least one functional layer (5) and / or insulating layer (4) of the circuit board to be manufactured. Then, within the scope of the assembly method steps, the mold together with the multiple functional layers (5), the at least one insulating layer (4) and the measuring value encoder are loaded into a thermal compression cavity (20). Then, further within the scope of the manufacturing method steps, the upper mold (1) and the lower mold (2) together with the multiple functional layers (5) and the at least one insulating layer (4) disposed therebetween and the measuring value encoder are pressed and heated against each other in the thermal compression cavity (20), and the measuring value encoder is used to detect the measuring value. Here, the measured values ​​and / or the data obtained therefrom are transmitted to the manufacturing control device (13) during the ongoing manufacturing method steps, and the manufacturing control device (13) processes the measured values ​​and / or the data obtained therefrom with reference to predetermined values ​​of the measurement parameters for the measured value encoder, for monitoring the ongoing manufacturing method steps and / or for controlling the ongoing manufacturing method steps.

The utility model relates to a four-in-one and series connection production line with selective combination of a flat position dry method and a solvent-free composite process, which sequentially comprises a first unit, a second unit, a third unit, a fourth unit and a fifth unit from left to right, the first unit comprises a first unwinding unit, a first coating unit and a first compounding unit, the second unit comprises a first unwinding unit, a first coating unit and a first compounding unit, the third unit comprises a first winding unit, a second compounding unit and a third compounding unit, the fourth unit comprises a fourth unwinding unit and a third coating unit, and the fifth unit comprises a third unwinding unit and a second coating unit. A first drying oven is arranged on the second connecting plate, a second drying oven is arranged on the third connecting plate, and a third drying oven is arranged above the second drying oven. By selectively starting the coating unit and the drying oven and replacing different coating units, a dry method and a solvent-free four-in-one compounding process can be freely switched, meanwhile, two-in-one compounding of series-connection double machines can be realized, the production cost is reduced, and the equipment utilization rate is improved.

A bonding system includes a processing station that performs a required processing on a first substrate and a second substrate; and a carry-in / out station that carries the first substrate, the second substrate, and a combined substrate, which is formed by bonding the first substrate and the second substrate, to / from the processing station. The processing station includes a transfer device that transfers the first substrate, the second substrate, and the combined substrate; a delivery module that delivers the first substrate, the second substrate, and the combined substrate between the carry-in / out station and the transfer device; a coating apparatus that applies an adhesive to the first substrate; a bonding apparatus that bonds the first substrate and the second substrate; and a heat treating apparatus that heat-treats the first substrate, the second substrate, and the combined substrate. The heat treating apparatus and the bonding apparatus are arranged in a stacked manner.

The invention provides a bonding system, and provides a technology capable of reducing the occupied area of the bonding system. A bonding system according to one embodiment of the present disclosure is provided with: a processing station for performing a predetermined process on a first substrate and a second substrate; and a feeding and discharging station for feeding and discharging the first substrate, the second substrate, and the superimposed substrate formed by bonding the first substrate and the second substrate to the processing station. The processing station includes: a transport device that transports a first substrate, a second substrate, and a superposed substrate; a transfer unit that transfers the first substrate, the second substrate, and the superimposed substrate between the feed / discharge station and the transport device; a coating device that coats an adhesive on the first substrate; a bonding device for bonding a second substrate and the first substrate coated with the adhesive to form a superposed substrate; and a heat treatment device that heat-treats the first substrate, the second substrate, and the superimposed substrate. In addition, the heat treatment device and the bonding device are arranged in a stacked manner.

A first treatment plant (100) and a second treatment plant (200) for respectively performing a first and a second surface treatment of a laminar support (1) for producing a multilayer laminar product (6). The first treatment plant (100) provides an outlet winding assembly (114) for winding on a transfer reel (400) the strip of laminar element (4) coupled with the treated laminar support (1), while the second treatment plant (200) comprises at the inlet an unwinding assembly (201) configured to unwind the transfer reel (400) of the first treatment plant (100) so as to perform a second treatment on said laminar support (1).

The present application provides an image forming system and a storage medium that can easily set conditions for lamination processing. An image forming system (1) includes: an image forming section (13) that forms an image on a recording medium (paper); a lamination processing section (26) that performs lamination processing on a film (F) on a surface of the recording medium on which the image is formed by the image forming section (13); and a control section (11) that acquires information related to image formation by the image forming section (13), and determines conditions for lamination processing by the lamination processing section (26) based on the acquired information related to image formation.

This design reduces the likelihood of sheets getting caught in the outlet when removing sheets loaded onto the sheet loading unit from the outlet to the outside of the equipment. [Solution] A mounting section 61 is provided, which has a mounting surface 61a inclined at a predetermined angle θ2 with respect to a horizontal plane, and on which a plurality of polymer sheets PJ' discharged from above can be loaded onto the mounting surface 61a. A fence section 62 is also provided, which has an upright surface 62a that stands upright relative to the lower edge H of the mounting surface 61a, and on which the sheet edges of the polymer sheets PJ placed on the mounting surface 61a can abut against the upright surface 62a. Furthermore, a guide surface 64 is provided that guides the polymer sheets PJ', which have been moved along the lower edge H, to the lower end of the outlet D, which opens in the exterior of the laminating processing device 50 and allows the plurality of polymer sheets PJ' loaded on the mounting section 61 to be removed to the outside of the laminating processing device 50.

The invention belongs to the technical field of sensor lamination manufacturing, and discloses a low-magnetic-loss automatic gluing method for a lamination part, which comprises the following steps of: placing pieces, spraying glue, drying the surface, separating or overturning (spraying glue again and drying the surface), pre-laminating, precisely laminating, pre-pressing, pressing, curing, removing the mould and marking, and obtaining the part. The problems that in the existing stator and rotor lamination gluing process, parameters are difficult to quantify and solidify, and the magnetic performance loss of parts is large are solved, and the magnetic performance loss of magnetically soft alloy punching parts in the gluing machining process can be reduced.

Disclosed in the present invention is a multi-layer multi-cavity laminating machine, comprising a multi-layer feeding device, at least two multi-layer laminating devices and a multi-layer finished product conveying device which are connected in sequence. In the present invention, by increasing the number of the multi-layer laminating devices, the laminating steps are carried out step by step. After a first laminating step of a solar cell module is completed, the solar cell module can be conveyed to a subsequent multi-layer laminating device, so that the next solar cell module can be conveyed to a preceding multi-layer laminating device, thereby improving the production efficiency. The production quantity can be increased within the same production time, or the production time for producing the same quantity of products can be reduced.

A method for producing multi-layer circuit boards, wherein, in an assembly method step, multiple functional layers and at least one insulating layer of a circuit board to be produced are arranged in layers between a tool lower part and a tool upper part of a multi-part tool. At least one measuring transducer is positioned between the tool upper part and the tool lower part such that the measuring transducer is in contact with at least one functional layer and / or insulating layer of the circuit board to be produced. The tool is then introduced into a thermo-compression chamber. The tool upper part and the tool lower part, along with the multiple functional layers and the at least one insulating layer and the measuring transducer provided between same, are then pressed against one another in the thermo-compression chamber and heated and measurement values are detected with the measuring transducer.

The present disclosure provides a continuous and fully-automatic energy-saving production line and method for vacuum glass, and belongs to the field of vacuum glass manufacture. The production line includes conveying roller tables that run through the entire production line, and includes a feeding platform (1), a low-vacuum pumping chamber (2), a high-vacuum pumping chamber (3), a main processing chamber (4), a high-vacuum automatic cooling chamber, a first-stage boosting and automatic cooling chamber (5), and a second-stage boosting and automatic cooling chamber (6) in sequence. The main processing chamber (4) is integrally welded, and cylindrical in shape, with two sides respectively provided with inspection holes (43); the low-vacuum pumping chamber (2) and the high-vacuum pumping chamber (3) are connected to form a degassing section; the high-vacuum automatic cooling chamber, the first-stage boosting and automatic cooling chamber (5), and the second-stage boosting and automatic cooling chamber (6) form a cooling section; the degassing section and the cooling section are respectively connected to two ends of the main processing chamber (4) through sealing doors; and the low-vacuum pumping chamber (2), the high-vacuum pumping chamber (3), the high-vacuum automatic cooling chamber, the first-stage boosting and automatic cooling chamber (5), and the second-stage boosting and automatic cooling chamber (6) form a rectangular-solid structure. The production line changes a conventional production line processing method, saving labor costs, and improving production efficiency.

A continuous and fully-automatic energy-saving production line and method for vacuum glass are provided. The production line includes conveying roller tables that run through the entire production line, and includes a feeding platform, a low-vacuum pumping chamber, a high-vacuum pumping chamber, a main processing chamber, a high-vacuum automatic cooling chamber, a first-stage boosting and automatic cooling chamber, and a second-stage boosting and automatic cooling chamber in sequence. The main processing chamber is integrally welded, and cylindrical in shape, with two sides respectively provided with inspection holes; the low-vacuum pumping chamber and the high-vacuum pumping chamber are connected to form a degassing section; the high-vacuum automatic cooling chamber, the first-stage boosting and automatic cooling chamber, and the second-stage boosting and automatic cooling chamber form a cooling section; and the degassing section and the cooling section are respectively connected to two ends of the main processing chamber through sealing doors.

A membrane device for manufacturing a crash pad for a vehicle including a real wood sheet includes a vacuum device main body having a plurality of vacuum holes such that a real wood sheet to be temporarily attached to a core is mounted in the vacuum device main body, a cover having a silicone film to define a vacuum space together with the vacuum device main body, a vacuum module to suck air in the vacuum device main body through the vacuum holes, and a control unit to compress the real wood sheet and the core, which are temporarily attached and mounted on the vacuum device main body, for a preset time by sucking air in the vacuum space through the vacuum holes in a state in which the vacuum device main body is covered by the cover.

A high-position dry method and solvent-free composite process selective combined three-in-one production line comprises a first unit, a second unit and a third unit, the second unit is located between the first unit and the third unit, and a first connecting plate is arranged between the top of the first unit and the top of the second unit. A second connecting plate is arranged between the top of the second unit and the top of the third unit; the first unit comprises a first unwinding unit and a first coating unit, the second unit comprises a winding unit, a first compounding unit, a second compounding unit and a second unwinding unit located at a high position, the third unit comprises a third unwinding unit and a second coating unit, and a drying oven is arranged on a second connecting plate. A material lifting device is arranged between the first unit and the second unit, and the second unwinding unit is higher than the first connecting plate and the second connecting plate. According to the principle, the coating unit and the drying oven are selectively started, and a dry method and a solvent-free composite process can be freely switched, so that the coating process requirements of different composite materials are met.

A high-rigidity multilayer substrate-based laminating apparatus and method. The laminating apparatus includes a frame (26) and sequentially arranged a first station (1), a second station (2), a third station (3), and a fourth station (4) from left to right. The upper left side of the frame (26) is equipped with a tunnel-type drying oven (5), and the upper part of the third unit (3) is equipped with a high-position unwinding unit (6). The suitable laminator model and web path will be choosen according to the substrate type and layer permutation of the high-regidity structures to be laminated, and then solvent-based or water-based adhesive is applied with gravure-coating or flexo-coating for between the surface and intermediate layers, and with solventless coating for between the intermediate and interior layers, so that the three-layer laminating accomplished inline in one pass, forming a composite product with a three-layer laminated structure with a high-rigidity substrate. The production of high-rigidity substrate-based three-layer structure using the method of this invention reduces startup frequency, shortens auxiliary, transfer, and curing times, minimizes material handling and employee work hours, shortens the production cycle, and lowers defect rate and overall production costs.

In an electrode production apparatus disclosed herein an electrode material supplied between a circumferential surface of a first roll and a circumferential surface of a second roll is transferred to a surface of a separately supplied electrode collector, to thereby form an electrode mix layer on the electrode collector. A predetermined textured shape is formed on the circumferential surfaces of the first roll and of the second roll, the textured shape being formed through repetition of a predetermined relief pattern, at a given pitch, in a running direction. The pitch (smallest repeating unit) and a recess depth of the relief pattern are designed so that the following expression y ≤ 0.2x - 20 holds, where x (µm) denotes the pitch and y (µm) denotes the recess depth.

This invention relates to a method of producing a laminated metal sheet (9) for packaging applications and laminated metal sheet (9) for packaging applications produced thereby. The invention also relates to the use of the laminated metal sheet (9) produced by the method according to the invention for making a seamless container body by drawing from the laminated metal sheet (9).

The present disclosure relates to a laminate molding system and a method of manufacturing a laminate molded article, in which the laminate molding system according to the present disclosure comprises: a pair of carrier films for sandwiching an object to be laminated between the pair of carrier films from above and below and conveying the object to be laminated in a conveying direction; the film unwinding machine is used for unwinding the carrier film; a laminating machine for pressing an object to be laminated to form a laminated molded article, the laminating machine being disposed on a downstream side with respect to the film unwinding machine; and a cooling part designed to cool the laminated molded article, the cooling part being provided on a downstream side with respect to the laminating machine. The cooling portion includes an airflow generating portion designed to flow the cooling air in a direction inclined at a predetermined angle toward a downstream side of the conveying direction with respect to a direction substantially perpendicular to the conveying direction.

To provide a highly efficient lamination machine that can significantly improve lamination efficiency and shorten the production cycle. [Solution] The high-efficiency laminating machine comprises a machine base 100, a film supply mechanism A 200, a film supply mechanism B 300, a first single hydraulic cylinder laminating and holding pressure mechanism 400, a second single hydraulic cylinder laminating and holding pressure mechanism 500, a first slide rail, and a first slider. The first single hydraulic cylinder laminating and holding pressure mechanism and the second single hydraulic cylinder laminating and holding pressure mechanism include a frame, a hydraulic cylinder, a lower die, and an upper die. The frame is mounted on the machine base, the hydraulic cylinder is mounted at the bottom of the frame, and a housing space is formed in the center of the frame. The lower die is slidably mounted vertically at the bottom of the housing space, and the lower end of the lower die is fixedly connected to the piston rod of the hydraulic cylinder. Both ends of the first slide rail extend into the housing space and are fixedly connected to both sides of the upper end of the frame, and the first slider is slidably connected to the first slide rail. Both sides of the upper die are fixedly connected to the first slider, and the upper die is slidably mounted along the housing space.

An article having a printed image and an embossed in register (EIR) layer is disclosed, the article having a longitudinal axis and a transverse axis that is perpendicular to the longitudinal axis. The article comprises a substrate having a first side. The printed image is positioned on the first side of the substrate. The printed image comprises at least one identifier. The printed image is positioned between the EIR layer and the substrate. The printed image has a pattern, and the EIR layer has a corresponding pattern that is aligned with the pattern of the printed image along the longitudinal axis and the transverse axis.