JP6972372B2 - Shaped film manufacturing method and shaped film manufacturing equipment - Google Patents

Description

The present disclosure relates to a method for producing a shaped film and an apparatus for producing a shaped film.

A shaped film having a structural pattern (that is, a functional shape) for exhibiting a specific function, such as a microlens or a taper, may be manufactured by a roll-to-roll method from the viewpoint of improving productivity. When a shaped film in which a structural pattern is shaped into a film or the like is manufactured by a roll-to-roll method, the desired structure is formed by shaping the uneven shape on the film unwound from the roll and then cutting the film. A film with a pattern is obtained in a specific size.

Techniques for producing shaped films have been studied conventionally, and for example, the techniques described below are known.

In Japanese Unexamined Patent Publication No. 2017-149033, an ultraviolet curable resin cured on the surface pattern layer of the mother plate was released from the mother plate to form an inverted surface pattern layer corresponding to the surface pattern layer of the mother plate. Shape modification to correct the shape of the inverted surface pattern layer generated during the mold release process of the mold plate manufacturing process by heating the inverted surface pattern layer formed on the mold plate with warm air. A process and a method for manufacturing a mold plate including the process are disclosed.

Japanese Unexamined Patent Publication No. 2017-30160 describes that an alignment mark is provided separately from the pattern and an image is taken with an alignment camera to monitor the position. Further, Japanese Patent Application Laid-Open No. 2012-96522 describes that the position of the first alignment mark appearing on the first resist matches the position of the second alignment mark on the mask.

As described above, in the conventional method for manufacturing a shaped film, in the case of punching by the roll-to-roll method, an alignment mark that serves as position information is previously provided in addition to the shaping of the target structural pattern. It has been customary to attach by printing or the like and perform alignment by reading the alignment mark. However, in the method using the alignment mark, not only the work of adding the originally unnecessary position information is indispensable, but also the accuracy of the punching position may be lowered due to the deviation of the printing position or the like.

A shaped film having a structural pattern (that is, a functional shape) for exhibiting a specific function requires that the structural pattern is formed, for example, on the surface of a transparent film in high definition and regularly. Further, from the viewpoint of further increasing the definition and brightness of the displayed image, it is necessary to highly align the arrangement position of the shaped film at the time of manufacturing the product. Therefore, it is assumed that even at the molding position of the structural pattern to be molded, the position accuracy in the submicron order or the nano order is required in contrast to the conventional position accuracy in the millimeter order. Considering this point, the accuracy of alignment performed in the shaping film manufacturing process is also extremely important.
Then, in the case of obtaining a single-wafer film to which a convex structure such as a microlens and a tapered structure are imparted, it is considered that the positional accuracy when cutting out from the film roll to form a single-wafer film is more important.

The present disclosure has been made in view of the above.
An object to be solved by the embodiment of the present disclosure is to provide a shaping film manufacturing method and a shaping film manufacturing apparatus in which the punching accuracy is high and the deviation of the punching position in the obtained shaped film is suppressed. It is in.

Specific means for solving the problem include the following aspects.
<1> The first step of forming a functional shape on the curable resin layer provided on the support, and
A second step of curing a curable resin layer having a functional shape formed into a laminate having a support and a cured layer containing the functional shape provided on the support.
A parallel light is incident on the cured layer, and a projection pattern is formed by the projected light based on the functional shape transmitted through the cured layer on the projection surface prepared in advance, and the formed projection pattern and the two-dimensional coordinates in the projection surface are used. The third step of collating with the provided alignment pattern,
The fourth step of adjusting the position of the laminated body by moving at least one of the laminated body and the cutting device for cutting the laminated body based on the amount of misalignment obtained by collation.
After the movement in the 4th step, the 5th step of cutting the laminated body according to the projection pattern and
It is a manufacturing method of a shaped film having.

<2> The projection surface prepared in advance is a photographing surface in which the cutting portion of the receiving blade member of the cutting device for cutting the laminated body by pressing the cutting blade against the blade receiving member is photographed by the photographing device.
The third step is the method for manufacturing a shaped film according to <1>, wherein the projection pattern and the alignment pattern provided at the two-dimensional coordinates set on the photographing surface are collated.
<3> The projection surface prepared in advance is the surface of the blade receiving member of the cutting device that cuts the laminated body by pressing the cutting blade against the blade receiving member.
The third step is the method for manufacturing a shaped film according to <1>, wherein the projection pattern and the alignment pattern provided on the surface of the blade receiving member are collated.
<4> The cutting blade of the cutting device is a punching blade.
Parallel light is emitted from a light source arranged inside the punching blade, and the cut portion of the blade receiving member is photographed from a position away from the laminated body in the width direction orthogonal to the transport direction of the laminated body. , <2> is the method for producing a shaped film.
<5> Further, according to any one of <1> to <4>, which has a sixth step of fixing the laminated body whose position has been adjusted in the fourth step with a fixing member in advance before cutting in the fifth step. This is a method for manufacturing a shaped film.
<6> The sixth step is the method for manufacturing a shaping film according to <5>, wherein the laminated body is brought into contact with the surface of the blade receiving member of the cutting device in a state of being fixed by the fixing member.
<7> The shaping film manufacturing method according to <1>, wherein the third step and the fourth step are performed on the upstream side of the position where the fifth step is performed in the transport direction of the laminated body.
<8> The projection pattern is the method for manufacturing a shaped film according to any one of <1> to <7>, which is a set pattern of a plurality of points.

<9> A shaping portion that shapes a functional shape on the curable resin layer provided on the support, and a shaping portion.
A cured portion that cures a curable resin layer having a shaped functional shape to form a laminate having a support and a cured layer containing the functional shape provided on the support, and a cured portion.
A parallel light is incident on the cured layer, and a projection pattern is formed by the projected light based on the functional shape transmitted through the cured layer on the projection surface prepared in advance, and the formed projection pattern and the two-dimensional coordinates in the projection surface are used. A collating unit that collates with the provided alignment pattern,
A position adjusting unit that adjusts the position of the laminated body by moving at least one of the laminated body and the cutting device that cuts the laminated body based on the amount of misalignment obtained by collation.
A cutting device equipped with a cutting blade that cuts the laminated body moved by the position adjustment unit according to the projection pattern.
It is a shaping film manufacturing apparatus equipped with.

<10> The cutting device includes a blade receiving member for pressing the cutting blade to cut the laminated body.
Equipped with a photographing device that photographs the cut part of the blade receiving member of the cutting device.
The projection plane prepared in advance is the shooting plane shot by the shooting device.
The collation unit is the shaping film manufacturing apparatus according to <9>, which collates the projection pattern with the alignment pattern provided at the two-dimensional coordinates set on the photographing surface.
<11> The cutting device includes a blade receiving member for pressing the cutting blade to cut the laminated body.
The projection surface prepared in advance is the surface of the blade receiving member.
The collating unit is the shaping film manufacturing apparatus according to <9>, which collates the projection pattern with the alignment pattern on the surface of the blade receiving member.
<12> The cutting blade of the cutting device is a punching blade, a light source that emits parallel light is arranged inside the punching blade, and a position away from the laminated body in the width direction orthogonal to the transport direction of the laminated body. The shooting device is located in
The shaping film manufacturing apparatus according to <10>, wherein a projection pattern is formed on a photographing surface in which a cut portion of a blade receiving member is photographed by a photographing device from a position away from the laminated body in the width direction.
<13> The shaping film manufacturing apparatus according to <10>, wherein the cutting blade of the cutting device is a punching blade, and a light source for emitting parallel light and a photographing device are provided inside the punching blade.
<14> The shaping film manufacturing apparatus according to any one of <9> to <13>, further comprising a fixing member for fixing the laminated body whose position has been adjusted by the position adjusting portion.
<15> A collating section is provided upstream of the cutting device in the transport direction of the laminated body.
The position adjusting unit is the shaping film manufacturing apparatus according to any one of <9> to <14>, which adjusts the position of the laminated body based on the position deviation information obtained by the collation of the collating unit.

According to the present disclosure, there is provided a method for producing a shaped film and an apparatus for producing a shaped film, in which the punching accuracy is high and the deviation of the punched position in the obtained shaped film is suppressed.

FIG. 1 is a schematic configuration diagram showing an example of a shaped film manufacturing apparatus according to the present disclosure. FIG. 2 is a diagram showing XY two-dimensional coordinates displayed on the display surface of the monitor. FIG. 3 is a diagram showing a diffracted light that is diffracted by incident parallel light on the cured layer of the laminated body as projected light on the projection surface (specifically, the photographing surface). FIG. 4 is a diagram showing a state in which diffracted light is formed on a projection surface (specifically, a photographing surface) as projected light. FIG. 5 is a schematic cross-sectional view showing a first embodiment of the present disclosure in which a light source is attached to the inside of a punching blade (for example, a Thomson blade) of a cutting device. FIG. 6 is an enlarged schematic view showing a projection pattern and an alignment pattern on a photographing surface. FIG. 7 is an enlarged perspective view showing the cutting device of the first embodiment. FIG. 8 is a schematic view showing an example of a laminate manufacturing apparatus used in the first step and the second step. FIG. 9 is a schematic cross-sectional view showing a place where the boundary portion between the shaped portion P and the non-shaped portion Q attached to the laminated body is detected and the position of the laminated body in the transport direction is confirmed. FIG. 10 is a schematic cross-sectional view showing a place where the laminated body is fixed by using two pairs of fixing members. FIG. 11 is a schematic cross-sectional view showing a place where the laminated body is brought into close contact with the surface of the blade receiving belt by the fixing member. FIG. 12 is a schematic view showing a place where the laminated body is punched out with a punching blade (Thomson blade) in a state where the laminated body is in close contact with the surface of the blade receiving belt. FIG. 13 is a cross-sectional view showing a place where a shaping film is produced by pulling out a punching blade from a laminated body. FIG. 14 is a schematic cross-sectional view showing a structure in which a light source and a photographing camera are provided inside the punching blade. FIG. 15 is a schematic cross-sectional view showing a second embodiment in which the collating device is arranged upstream of the cutting device. FIG. 16 is a schematic cross-sectional view showing a third embodiment in which the surface of the blade receiving belt is used as a projection surface. FIG. 17 is an enlarged perspective view showing the cutting device of the third embodiment. FIG. 18 is a schematic configuration diagram showing an example of a shaping film manufacturing apparatus equipped with a transport guide.

Hereinafter, the method for producing the shaped film and the embodiment of the apparatus for producing the shaped film of the present disclosure will be described in detail.

The term "process" in the present specification is not limited to an independent process, and even if it cannot be clearly distinguished from other processes, the term "process" will be used as long as the intended purpose of the process is achieved. included.
Further, in the present disclosure, a combination of two or more preferred embodiments is a more preferred embodiment.

Further, in the present specification, the numerical range indicated by using "~" indicates a range including the numerical values before and after "~" as the minimum value and the maximum value, respectively. In the numerical range described stepwise in the present disclosure, the upper limit value or the lower limit value described in one numerical range may be replaced with the upper limit value or the lower limit value of the numerical range described in another stepwise description. Further, in the numerical range described in the present disclosure, the upper limit value or the lower limit value described in a certain numerical range may be replaced with the value shown in the examples.

The support in the present disclosure and the laminate formed in the present disclosure may be in a single-wafer shape or a long shape.

The method for producing a shaped film according to an embodiment of the present invention includes a first step of shaping a functional shape on a curable resin layer provided on a support, and a curability on which the functional shape is shaped. The second step of curing the resin layer to form a laminate having a support and a cured layer including a functional shape provided on the support, and parallel light are incident on the cured layer to prepare in advance. The third step of forming a projection pattern with the projection light based on the functional shape transmitted through the cured layer on the projection surface and collating the formed projection pattern with the alignment pattern provided at the two-dimensional coordinates in the projection surface. In the fourth step and the fourth step of adjusting the position of the laminated body by moving at least one of the above-mentioned laminated body and the cutting device for cutting the laminated body based on the amount of misalignment obtained by collation. After moving, it has a fifth step of cutting the laminated body according to the projection pattern.
The method for producing the shaped film according to the embodiment of the present disclosure may be a method in which the first step to the fifth step are continuously performed, or a part of the steps in the first step to the fifth step is not performed. It may be a continuous method. In the latter case, for example, after the first step and the second step are performed to form the laminated body, the laminated body roll is once wound to produce a laminated body roll, and the third layer is unwound from the produced laminated body roll. A method of producing a shaping film by performing the steps to the fifth step may be used.
Further, in the method for producing a shaped film according to an embodiment of the present invention, in addition to the above steps, if necessary, there are other steps such as a winding step of winding the laminated body to produce a laminated body roll. You may be doing it.

Further, in the shaping film manufacturing apparatus according to another embodiment of the present invention, the shaping portion for shaping the functional shape on the curable resin layer provided on the support and the functional shape are shaped. The cured resin layer is cured to form a laminated body having a support and a cured layer including a functional shape provided on the support, and parallel light is incident on the cured layer to prepare in advance. A collation unit that forms a projection pattern with projected light based on the functional shape transmitted through the hardened layer on the formed projection surface, and collates the formed projection pattern with the alignment pattern provided at the two-dimensional coordinates in the projection surface. The position adjusting unit for adjusting the position of the laminated body and the cutting blade by moving at least one of the above-mentioned laminated body and the cutting device for cutting the laminated body based on the amount of misalignment obtained by collation. It is provided with a cutting device for cutting the laminated body moved by the position adjusting unit according to the projection pattern.
The shaping film manufacturing apparatus of one embodiment of the present disclosure includes a shaping section, a curing section, a collating section, a positioning section, and a cutting device, but the shaping is not limited to a mode in which each of them operates continuously. A part of the unit, the curing unit, the collating unit, the position adjusting unit, and the cutting device may be a device that operates discontinuously. In the latter case, for example, after forming a laminated body through a shaping part and a hardened part, the laminated body is once wound into a laminated body roll, and the laminated body unwound from the laminated body roll is used for a collating part, a position adjusting part, and a cutting device. It may be a device to be used.
In addition to the above, the shaping film manufacturing apparatus according to another embodiment of the present invention further includes other elements such as a winding device for winding the laminated body and a winding device for winding the laminated body roll, if necessary. May be provided.

In the conventional method for manufacturing a shaped film, an alignment method using an alignment mark has been used. That is, a method has been used in which an alignment mark is attached to the non-effective region of the film to be cut as alignment information, and the alignment mark is visually or detected to perform alignment. On the other hand, in the method for producing a shaped film and the apparatus for producing a shaped film of the present disclosure, a projection obtained by irradiating parallel light using a functional shape (for example, a lens) required for the function of the film is used. The light (for example, diffracted light) is collated with predetermined position information (for example, position information formed on the receiving member of the cutting blade, position information formed on the projection surface by a control device such as a computer, etc.). Align the position to make it the cutting position. As a result, unlike the conventional technique, it is not necessary to add position information that is originally unnecessary to the film to be cut. Further, the position of the film can be finely adjusted in light of the XY two-dimensional coordinate axes based on the amount of misalignment grasped by collation. Further, the shaping film can be cut with extremely high position accuracy as compared with the conventional method of detecting and performing the alignment mark.
Further, in the present disclosure, since the projection pattern is used, enlarged position information can be obtained, and the alignment between the cutting blade of the cutting device and the film can be performed more accurately based on the obtained position information. can.
Furthermore, a method in which diffracted light is applied as the projected light is possible, and by performing alignment using a plurality of projection patterns, the accuracy of alignment can be dramatically improved.

Hereinafter, the method for manufacturing the shaped film and the embodiment of the shaped film manufacturing apparatus of the present disclosure will be specifically described with reference to the drawings. However, the method for producing the shaped film and the apparatus for producing the shaped film of the present disclosure are not limited to the embodiments shown below. In each drawing, substantially the same or equivalent components are designated by the same reference numerals.

(First Embodiment)
The first embodiment of the method for producing a shaped film of the present disclosure will be described with reference to FIGS. 1 to 13. FIG. 1 shows a shaping film for producing a single-wafer shaped film having a functional shape formed by punching a film roll having a functional shape formed with high accuracy in the entire apparatus for producing a shaping film. It is a schematic block diagram which shows an example of the film manufacturing apparatus.
In the shaping film manufacturing apparatus of the present disclosure, a shaping portion for shaping a functional shape on a curable resin layer provided on a support and a curable resin layer on which the functional shape is shaped are provided. It is provided with a cured portion that is cured to form a laminate having a support and a cured layer including a cured layer provided on the support, and is a device for producing a shaped film shown in FIG. 1. The shaped portion and the cured portion are not shown in the above.
In the shaping film manufacturing apparatus shown in FIG. 1, a laminate manufactured through a shaping portion and a cured portion (not shown) is used.

The shaped film manufacturing apparatus 100 shown in FIG. 1 includes a laminated body manufacturing apparatus (not shown) and a collating device 30 which is an example of a collating unit that collates patterns using a laminated body manufactured by the laminated body manufacturing apparatus. It is provided with a position adjusting mechanism 10 which is an example of a position adjusting unit, a cutting device 15, and a photographing camera (CCD (Charge-Coupled Device) camera) 60 which is an example of a photographing device.
The production of the laminate using the laminate manufacturing apparatus and the laminate manufacturing apparatus will be described later.

In the present embodiment, the incident light incident on the laminated body collates the projected light transmitted through the laminated body with the alignment pattern provided in the two-dimensional coordinates set on the photographing surface photographed by the photographing camera 60. The position of the laminated body is adjusted based on the amount of misalignment obtained by collation, and cutting is performed. This makes it possible to perform high-precision positioning inexpensively and easily without using a high-definition photographing device, and it is possible to perform cutting with high accuracy.

The collation device 30 is connected to the photographing camera 60, captures an image captured by the photographing camera 60, and prepares a photographing surface (projection surface). Then, two-dimensional coordinates are set on the prepared shooting surface, and a predetermined alignment pattern is set on the two-dimensional coordinates. Specifically, as shown in FIG. 2, the photographing surface is projected on the display surface 33 of the monitor 31 (see FIG. 1) which is an example of the display device, the XY coordinate axes are set, and at least the XY coordinate axes are set. Two base points 35 are registered. By registering at least two points as the base point 35, it is possible to correct the position in the XY coordinate axes.
The base point 35 can be represented by (X, Y) on the coordinate axis, and for example, (0,10), (10,0), (-10,0), (-30, -10) and the like are registered. You may.

FIG. 2 shows a case where the XY coordinate axes are displayed on the monitor display surface, but the XY coordinate axes do not necessarily have to be displayed on the monitor display surface if the above-mentioned base point is registered. ..

The projection pattern to be collated can be formed on the photographing surface by injecting parallel light onto the laminated body. That is, when parallel light is incident on the cured layer of the laminated body and the projected light transmitted through the functional shape formed on the cured layer reaches the imaging surface, a projection pattern is formed on the imaging surface. Specifically, it will be described with reference to FIG.
As shown in FIG. 3, when the parallel light 51 is incident on the laminated body 40 having the support 41 and the cured layer 43 provided on the support 41 from the light source 50, the parallel light incident on the cured layer 43 is incident. Is diffracted by the functional shape of the cured layer 43, and the diffracted light 53 appears as projected light on the photographing surface which is the projection surface. This state is shown in FIG.
On the display surface 33 shown in FIG. 4, a projection pattern composed of a plurality of diffracted lights 53 appears. The projection pattern is composed of a plurality of diffracted lights, and the diffracted light and the projection pattern are substantially the same component. Therefore, in the following, the diffracted light and the projection pattern may be described using the same reference numerals 53 and 53a.

The projection pattern may be one point, but from the viewpoint of improving the position accuracy by collation, it is preferably a set pattern of a plurality of points, and it is preferably a set pattern of a plurality of three or more points. More preferred. As a specific example of the projection pattern, it is preferable that the pattern is a set of a plurality of diffracted lights.

As shown in FIG. 5, the light source for incidenting parallel light on the laminated body is attached to the inside of the endless punching blade (for example, Thomson blade) 17A of the cutting device 15, and is parallel to the laminated body by the light source 50. It is designed to be able to irradiate light. The light source 50 is an LED (light emitting diode).
Since the light source 50 is located inside the punching blade, parallel light can be incidented perpendicularly to the cured layer of the laminated body. As a result, it is possible to form diffracted light having a desired shape (for example, a circle), and it is easy to obtain an accurate shape close to the shape of the alignment pattern in the imaging surface set in advance, and it is easy to improve the collation accuracy. ..

The "punching blade" has an endless frame shape (for example, a ring shape, a square frame shape, a triangular frame shape) in which one end and the other end are connected by bending the blade, and the blade to be cut is cut. It is a blade for extracting in a shape that follows the frame shape of. Further, the “inside of the punching blade” refers to an area surrounded by a frame-shaped blade.

The light source may be any light source that can irradiate parallel light, and in addition to the LED, for example, a semiconductor light source such as an LD (laser diode), a laser light source that expresses a single wavelength laser, or the like can be used. ..

The wavelength of the light source is not particularly limited as long as it is a light source that emits light having a wavelength belonging to the visible light region, and may be arbitrarily selected from, for example, a wavelength range of 500 nm to 650 nm.

In the present disclosure, a punching blade can be used as the cutting blade of the cutting device.
Since the inside of the punching blade having a frame-shaped blade (blade frame) does not contribute to cutting, the light source can be arranged inside the punching blade.
Further, as in the present embodiment, a punching blade is used as the cutting blade of the cutting device, a light source 50 that emits parallel light is arranged inside the punching blade, and the laminated body is as shown in FIG. It is preferable that the photographing device 60 is arranged in the width direction orthogonal to the transport direction of the 40, and a projection pattern is formed on the photographing surface photographed by the photographing camera from a position away from the laminated body 40 in the width direction.

When collating with the collating device 30, first, a projection pattern consisting of a plurality of diffracted lights 53 appearing on the photographing surface on which the XY coordinate axes are set as described above is detected, and the projection pattern is detected on the XY coordinate axes. Detects the position of. Then, the detected projection pattern is collated with the alignment pattern preset in the XY two-dimensional coordinates in the photographing surface (third step).

The collation will be described with reference to FIG. FIG. 6 shows an enlarged schematic view of the projection pattern 53 and the alignment pattern 37 on the photographing surface.
As shown in FIG. 6, a preset alignment pattern 37 exists on the photographing surface, and the projection pattern 53 is projected on the surface on which the alignment pattern 37 is arranged. At this time, the projection pattern 53 may be projected at a position deviated from the alignment pattern 37. If the laminated body is cut as it is, the cutting position will not be appropriate, so the laminated body is aligned. The alignment can be performed by matching the positions of the projection pattern 53 and the alignment pattern 37. First, the projection pattern 53 projected on the photographing surface is detected, and the position on the XY coordinate axes is detected. After that, assuming that each diffracted light 53 is moved in each direction of the arrows XY in FIG. 6, the amount of deviation of the position of the projection pattern on the XY coordinate axes from the position of the alignment pattern. (Amount of misalignment) is calculated. The diffracted light 53a indicates the position after moving the diffracted light 53.

For the amount of misalignment, for example, the position of the diffracted light 53 before the movement (XY coordinates) is subtracted from the position of the diffracted light 53a after the projection pattern is moved until it matches the alignment pattern (XY coordinates). It is the amount that can be obtained.

As a collation method, as in the present embodiment, as a projection surface prepared in advance, the cutting portion of the receiving member of the cutting device for cutting the laminated body by pressing the cutting blade against the receiving member is photographed by the photographing device. It is preferable that the projected surface is collated with the alignment pattern provided at the two-dimensional coordinates set on the imaged surface.

In the present disclosure, the "cutting portion of the blade receiving member" is a contact portion of the surface of the receiving blade member on the side where the cutting blade is pressed, at least a contact portion with which the cutting blade (particularly a punching blade (for example, Thomson blade)) abuts. And the part where the shaped part (that is, the shaped film) obtained by cutting the laminate is located (for example, in the case of a Thomson blade, the inner part surrounded by the blade), and further around the blade (for example, In the case of a Thomson blade, it is preferable to refer to a portion including the outer circumference of the blade).
In the present disclosure, it is possible to set the "cutting portion of the blade receiving member" within a range in which the position can be satisfactorily adjusted in the fourth step described later. If the portion where the shaping portion (shape film) is located is included in the photographing surface as the projection surface, the position can be satisfactorily adjusted in the fourth step described later.

The position adjusting mechanism 10 adjusts the position of the laminated body based on the amount of misalignment obtained by collating with the collating device 30 (fourth step).
The position adjusting mechanism 10 of the present embodiment corrects the amount of misalignment of the projection pattern by moving one or two selected from the laminated body 40 and the cutting device 15 for cutting the laminated body 40. .. As a result, the position of the laminated body is adjusted so as to match the alignment pattern.
The specific method will be described below.

When the amount of misalignment of the projection pattern is corrected by moving the laminated body 40 itself, the laminated body 40 is moved by the shaping film manufacturing apparatus 100. That is, the laminated body 40 is moved by manually or automatically adjusting the position adjusting mechanism 10 of the specific transport roll included in the shaping film manufacturing apparatus 100 based on the acquired misalignment amount. The position adjusting mechanism 10 in this case is a mechanism for adjusting the position of each transport roll of the shaping film manufacturing apparatus 100.
In the present embodiment, among the transport rolls of the shaping film manufacturing apparatus 100, the width position control rolls 11 and 21 and the transport position control roll 13 can be used to adjust the position of the laminated body 40. ing.
The width position control rolls 11 and 21 are drive rolls for transporting the laminated body, and the width direction [MD: Machine Direction; Y direction (see FIG. 7)] orthogonal to the laminated body transport direction [MD: Machine Direction; TD: Traverse Direction; X direction (see FIG. 7)], the roll position can be changed in the range of -1 mm to 1 mm.
The transport position control roll 13 is a drive roll for transporting the laminated body, and the transport position of the laminated body can be changed in the range of −0.1 mm to 0.1 mm in the laminated body transport direction (MD).
Specifically, in FIG. 6, for example, the projection pattern 53 is set to the width position control roll 11 so that the projection pattern 53a after moving the projection pattern 53 projected on the photographing surface matches the alignment pattern 37. , 21 The laminated body 40 is moved in the X direction by changing the roll inclination in the gravity direction, the rotation number of the transport position control roll 13 is changed, and the distance calculated from the rotation number is adjusted to move the laminated body 40. Move in the Y direction. As a result, the laminated body can be moved to a position where the projection pattern 53 matches the alignment pattern 37, and the laminated body can be aligned with a desired position. As a result, the desired cutting is possible.

Next, when the misalignment amount of the projection pattern is corrected by moving the cutting device 15, the positions of the cutting blade and / or the receiving blade member that receives the cutting blade in the cutting device 15 are moved. In this case, the function of the position adjusting mechanism 10 is carried out by the position adjusting mechanism of the cutting device 15.

As shown in FIG. 7, the cutting device 15 has a punching member 17 having a punching blade, which is an example of a cutting blade, and an endless belt-shaped blade receiving belt, which is an example of a receiving blade member that presses the punching blade at the time of cutting. The transport conveyor 19 and the like are provided. FIG. 7 is an enlarged perspective view showing the cutting device 15 in FIG. 1.

As shown in FIG. 5, the punching member 17 of the cutting device 15 includes a punching blade 17A fixed to a base and a cushioning material 17B.
At the time of cutting, the punching blade 17A penetrates the laminated body 40 and moves to a position where it reaches the blade receiving belt 19A of the transport conveyor 19 arranged below the transport position of the laminated body 40 in the direction of gravity. Punch a shaped film of the desired size from. The punched shape film is carried out of the cutting device by the blade receiving belt 19A of the conveyor 19.

As shown in FIG. 5, the blade receiving belt 19A of the conveyor 19 which is a blade receiving member is provided with a blade collecting portion on the surface on which the punching blade 17A is accommodated when punching.
A 0.5 mm thick acrylic film or a 0.5 mm thick polyethylene terephthalate (PET) film is used for the blade receiving belt of this embodiment.
The material of the blade receiving belt is not particularly limited, and may be, for example, a relatively soft metal plate such as aluminum, or a resin plate having a certain degree of elasticity. Resins that can be used for the resin plate include polyethylene terephthalate (PET, PETG (Polyethylene terephthalate glycol-modified)), acrylic resin, silicone resin, polycarbonate resin, polystyrene resin, methacrylate-styrene copolymer resin (MS resin), and acrylonitrile. -Examples include styrene copolymer resin (AS resin), polyolefin resin, polyvinyl chloride resin (PVC) and the like.

The cushion material 17B is attached to the area other than the portion where the punching blade 17A is fixed, and is applied when the punching blade 17A is pulled out from the laminated body after the punching blade 17A reaches the blade receiving belt 19A at the time of cutting. It is possible to prevent the shape film from rising. As a result, the punching blade 17A can be easily pulled out from the laminated body 40, the punched shape film can be prevented from being lifted by the punching blade, and the cutting workability can be improved.
As the material for forming the cushion material, a material having elasticity may be appropriately selected, and examples thereof include rubber and urethane resin.

Further, the amount of misalignment of the projection pattern may be corrected by moving the photographing surface (projection surface) on which the alignment pattern is set. In this case, the position of the alignment pattern can be corrected by moving the shooting position of the shooting camera.
In this case, the correction of the misalignment amount of the projection pattern may be performed by combining two or more selected from the laminated body 40 and the cutting device 15 for cutting the laminated body 40. By combining two or more, advantages such as quick movement can be expected.

As the cutting device, it is preferable to use a punching machine with a punching posture correction function equipped with a CCD camera as in the present embodiment, and a general-purpose machine marketed by a punching machine manufacturer can be used. For example, image positioning press "IPA series" with CCD camera (manufactured by Fuji Shoko Machinery Co., Ltd.), roll material positioning die punching machine "SCP250E-APS series" (manufactured by Sakamoto Zoki Co., Ltd.), roll material die cutting machine "T261". Series "(manufactured by Yamaha Fine Technologies Co., Ltd.)" can be mentioned.

After adjusting the position of the laminated body as described above, the laminated body 40 is cut according to the projection pattern 53a by the cutting device 15 (fifth step).

As described above, the shaping film manufacturing apparatus 100 used in the present embodiment includes a laminate manufacturing apparatus having a shaping portion and a cured portion (not shown), and the laminate roll produced by the laminate manufacturing apparatus. Is used. The laminated body roll is a roll body in which a long laminated body formed through a shaping portion and a cured portion is once wound.
Here, the shaping portion and the curing portion will be described with reference to FIG.

FIG. 8 is a schematic view showing an example of the laminate manufacturing apparatus 200 used in the first step and the second step.
The laminate manufacturing apparatus 200 includes a supply roll 112, a take-up roll 132, a shaping roll 122 arranged between the supply roll 112 and the take-up roll 132, and a light source 130. The laminate 40A having the support 14 and the curable resin layer 118 provided on the support 14 is sent out by the supply roll 112. The curable resin layer 118 is shaped by the shaping roll 122 and is cured by irradiation with light from the light source 130. After that, the laminated body 40B having the cured layer including the support 14 and the functional shape 127 is wound on the winding roll 132. The cured layer is a cured resin layer 118. The laminated body 40 before the curable resin layer 118 is cured will be referred to as a “laminated body 40A”, and the laminated body 40 after the curable resin layer 118 is cured will be referred to as a “laminated body 40B”.

A curable composition is supplied to the support 14 supplied from the supply roll 112 by a coating device 116 arranged downstream of the supply roll 112, and the laminate 40A in which the curable resin layer 118 is formed on the support roll 14. Is obtained.
The obtained laminated body 40A is sent to the shaping roll 122 further downstream.

As shown in FIG. 8, a mold 124, which is an example of the shaping portion, is arranged on the surface of the shaping roll 122. The mold 124 has a functional shape imparting portion 126 for forming irregularities which are functional shapes on the surface, and can shape the shaped object.
The curable resin layer 118 in the laminate 40A sent to the shaping roll comes into contact with the mold 124 arranged on the shaping roll 122, and the mold 124 causes the surface of the curable resin layer 118 to have a functional shape. Unevenness is formed. As the shaping roll in which the mold is arranged, an embossed roll or the like may be used.
For example, as shown in FIG. 8, in the laminated body 40, the embossed roll 122A having the functional shape imparting portion 126 which is the inverted shape of the unevenness which is the functional shape formed on the surface is used, and the support 14 and the curable resin layer 118 are used. 40A of the laminated body having the above is narrowly pressed between the embossed roll 122A and the nip roll 122B. Due to the narrow pressure, the inverted shape of the uneven shape of the functional shape imparting portion 126 formed on the surface of the embossed roll 122A is transferred to the surface of the curable resin layer 118 and shaped (first step).

The method for shaping the curable resin layer is not limited to the embodiment illustrated in FIG. 8, and any known shaping method can be appropriately used as long as it is a method of pressing a mold against the curable resin layer to shape the uneven shape. Can be selected and applied. For example, the curable resin layer of the laminate is formed into a pair of molds having a single-wafer shape of the laminate of the support and the curable resin layer, an uneven structure on the first surface, and a planar structure on the second surface. May be in contact with the first surface of the mold and the laminate may be sandwiched and pressed to form a curable resin layer.

The shaped curable resin layer 118 is irradiated with light by a light source 130, which is an example of a cured portion arranged in the vicinity of the shaped roll 122. The curable resin layer 118 is cured by light irradiation, and a laminated body 40B having a support 14 and a cured layer including a functional shape 127 provided on the support 14 is obtained (second step).

A series of methods for producing a shaping film in the present embodiment will be described.
First, the laminated body roll produced by the laminated body manufacturing apparatus 200 is loaded into the supply device 62 of the shaping film manufacturing apparatus shown in FIG. 1, and the laminated body 40 is sent out from the laminated body roll. As shown in FIG. 1, the sent-out laminated body 40 is conveyed to the cutting device 15 by a plurality of conveying rolls. Then, at the cutting position of the cutting device, the rough adjustment of the position is performed once.
As shown in FIG. 9, the rough adjustment can be performed while confirming the position by detecting the boundary portion between the shaped portion P and the non-shaped portion Q attached to the laminated body with a photographing camera. The position may be confirmed visually.
The rough adjustment here can be performed by moving the laminated body by the position adjusting mechanism of the transport roll of the shaping film manufacturing apparatus 100. Specifically, for example, the laminated body is moved in the X direction by changing the roll inclination of the width position control rolls 11 and 21, the rotation number of the transport position control roll 13 is changed, and the distance calculated from the rotation number is adjusted. By moving the laminated body in the Y direction, the position of the laminated body is adjusted.

Next, the position of the laminated body is finely adjusted.
The image taken by the photographing camera 60 is captured and the imaged surface (projection surface) is prepared. Then, two-dimensional coordinates are set on the prepared shooting surface, and a predetermined alignment pattern is set on the XY coordinate axes of the two-dimensional coordinates. The photographing surface may be projected on the display surface 33 of the monitor 31 (see FIG. 1), which is an example of the display device. As shown in FIG. 5, parallel light 51 is incident on the cured layer of the laminated body 40 from the light source 50, and the projected light 52 transmitted through the functional shape formed on the cured layer reaches the imaging surface to reach the imaging surface. A projection pattern is formed in. A projection pattern consisting of a plurality of diffracted lights 53 appearing on a shooting surface (projection surface) on which the XY coordinate axes are set is detected, and a position on the XY coordinate axes is detected. Then, the detected projection pattern is collated with the alignment pattern preset in the photographing surface. As a result of collation, the amount of misalignment of the projection pattern is corrected based on the amount of misalignment obtained. In this way, the position of the laminated body 40 is adjusted so that the projection pattern and the alignment pattern match. After adjusting the position of the laminated body, the laminated body 40 is cut along the position of the projection pattern (that is, a collective pattern of a plurality of diffracted lights) 53a after the position adjustment.

When cutting the laminate, the laminate is fixed using two pairs of fixing members 65 as shown in FIG. 10 so that the laminate does not move to MD and / or TD after adjusting the position of the laminate (sixth step). .. The pair of fixing members 65 are movable in the normal direction of the laminated body 40, respectively, and can grip the end portion of the laminated body 40.
The fixing member 65 is composed of a fixed grip portion 65A and a butyl rubber grip portion 65B. For the grip portion 65B, it is preferable to use a soft material that does not easily damage the surface of the laminated body, and for example, rubber, resin, or the like can be appropriately selected and used.

As shown in FIG. 11, the laminated body 40 is arranged in the gravitational direction from the transport position of the laminated body 40 by moving the fixing member 65 in the gravitational direction while the laminated body 40 is fixed by the fixing member 65. The laminated body 40 is moved to the conveyor belt 19 and brought into close contact with the surface of the blade receiving belt 19A. Subsequently, after the laminated body 40 is in close contact with the surface of the blade receiving belt 19A, the punching member 17 is moved toward the conveyor 19 as shown in FIG. 12, and the laminated body 40 is moved to the punching blade (for example, Thomson blade) 17A. Punch out with.
It is preferable that the punching blade 17A maintains a stroke that reaches the blade receiving belt 19A but does not reach the belt support portion 19B.
After that, as shown in FIG. 13, the punching member 17 is moved in the antigravity direction to return to the original position, and the punching member 17 is separated from the conveyor 19. At this time, the punching blade is pulled out from the laminated body, and the portion of the laminated body (shaped portion) punched out from the laminated body 40 remains on the surface of the blade receiving belt 19A. Then, as shown in FIG. 1, the remaining portion of the laminated body after the shaped portion is punched out from the laminated body is further conveyed by a conveying roll, and is wound by a winding device 63 provided with a winding roll.
As described above, the shaped film 40S having a desired shape is produced.

At the time of cutting the laminated body as in the present embodiment, the shaping film manufacturing apparatus includes a fixing member for fixing the laminated body 40 after the position adjustment, and the laminated body 40 after the position adjustment is fixed in advance before cutting. It is preferable to fix with.
Then, it is preferable that the laminated body is brought into contact with the surface of the blade receiving member of the cutting device in a state of being fixed by the fixing member, and the laminated body is cut in a state of being in contact with the surface of the blade receiving member.

Further, in the present embodiment, the aspect of suppressing the misalignment of the laminated body at the time of cutting by using the fixing member for fixing the laminated body at the time of arranging the cutting device and performing the cutting has been described, but the position of the laminated body has been described. The method of suppressing the displacement is not limited to the method using a fixing member, and as shown in FIG. 18, for example, the displacement in the width direction of the laminated body is suppressed in the transport path where the cutting device 15 is arranged for cutting, and the displacement is suppressed. A transport guide 67 may be arranged to automatically return the.
The transport guide 67 can prevent meandering of the laminated body to be transported to the TD, and is arranged at a position where the movement of the laminated body in the TD (X direction) can be suppressed in the range of -1 mm to 1 mm, for example. It is possible to suppress the displacement of the body. Regarding the positional deviation of the laminated body in the MD (Y direction), the laminated body is made Y by changing the rotation speed of the transport position control roll 13 and adjusting the distance calculated from the rotation speed as in the first embodiment. The misalignment can be adjusted by moving it in the direction.

In the above, the mode in which the cutting device is provided with a conveyor as a blade receiving member has been mainly described, but any mode of the blade receiving member can be used as long as the shaped film produced by punching with a punching blade can be removed after punching. However, for example, a fixed receiving table for receiving the punching blade of the punching member may be arranged.

(Modification example)
Hereinafter, a modification different from the first embodiment will be described.
The shaping film manufacturing apparatus includes a punching blade 17A as a cutting blade of the cutting device 15, and as shown in FIG. 14, a light source 50 that emits parallel light inside the punching blade 17A and a photographing device. The structure may be configured to include the photographing camera 60.
By adopting such a structure, a projection pattern having an accurate shape close to the shape of the alignment pattern in the photographing surface can be obtained, and the projection pattern can be read in a more accurate shape.

(Second Embodiment)
A second embodiment of the modified film manufacturing apparatus and manufacturing method of the present disclosure will be described with reference to FIG.
In this embodiment, a collating device which is an example of a collating unit is arranged on the upstream side of the cutting device 15 in the stack transport direction, and a position adjusting mechanism which is an example of the position adjusting unit based on the collation result performed in advance on the upstream side. This is an alternative to the mode in which the position is adjusted by No. 10 and the cutting device 15 arranged downstream in the stack transport direction of the collating device 30 is used for cutting.
In this case, as in the first embodiment, collation (third step) is performed upstream in the laminate transport direction at the position where cutting (fifth step) is performed in the laminate transport direction of the transport path in which the laminate is transported. Then, the position adjustment (fourth step) is performed based on the amount of misalignment obtained as a result of collation.

The same reference numerals as those of the first embodiment are designated by the same reference numerals, and detailed description thereof will be omitted.

As shown in FIG. 15, the light source 50, the photographing camera 60, and the light source 50 and the photographing camera 60 are arranged upstream of the cutting device 15 in the transport direction of the laminated body 40 (the direction of the arrow in FIG. 15). A light transmissive screen 61 and the like are installed.
In this embodiment, when the parallel light 51 emitted from the light source 50 is incident on the cured layer of the laminated body 40, the parallel light incident on the cured layer is diffracted by the functional shape of the cured layer, and the diffracted light 53 is used as the projected light. It appears on the light transmissive screen 61 which is a projection surface. The photographing camera 60 uses an imaging surface obtained by photographing the light transmissive screen 61 as a projection surface, an XY coordinate axis is set on this imaging surface, and diffracted light is projected.

In this embodiment, since the projection surface is provided on the light transmissive screen, the photographing camera can be arranged at the lower part of the projection surface in the direction of gravity. As a result, it is easy to make the device configuration simpler, and the position of the photographing camera can be taken in the normal direction of the projection surface, so that the shape of the projection pattern can be grasped more accurately, which is effective in improving the position accuracy.

The light-transmitting screen is a polymer material having light-transmitting property, and for example, a plate-like body of a polymer such as polyethylene terephthalate and polypropylene can be used.
The thickness of the light transmissive screen is preferably 0.09 mm to 0.125 mm.
The light transmittance means a property that the ratio (that is, the transmittance) of the light amount λb of the light emitted from the other surface to the light amount λa of the light incident from one surface of the light transmissive screen is 50% or more. .. The transmittance is preferably high in terms of improving the alignment accuracy at the time of collation, and more preferably 75% or more.

In the present embodiment, the alignment of the laminated body 40 is performed upstream of the laminated body transport direction of the cutting device for cutting. That is, when collating with the collation device 30, first, a projection pattern consisting of a plurality of diffracted lights 53 appearing on the photographing surface on which the XY coordinate axes are set is detected, and the position on the XY coordinate axes is detected. do. Then, the detected projection pattern is collated with the alignment pattern preset in the photographing surface (third step). Then, the position of the laminated body is adjusted based on the amount of misalignment obtained by collating with the collating device 30 located upstream of the cutting device (fourth step). At this time, the position of the laminated body is adjusted by the position adjusting mechanism 10 based on the amount of misalignment obtained by the collating device 30 upstream in the laminated body transport direction. The position adjustment of the laminated body by the position adjustment mechanism 10 can be performed in the same manner as in the case of the first embodiment described above. After adjusting the position of the laminated body, the laminated body 40 is cut according to the projection pattern 53a (fifth step).

(Third Embodiment)
The third embodiment of the shaping film manufacturing apparatus and manufacturing method of the present disclosure will be described.
In this embodiment, the projection surface forming the projection pattern is replaced with the surface of the blade receiving belt of the transport conveyor, which is an example of the blade receiving member of the cutting device that cuts the laminated body.
In this case, when the collation (third step) is performed in the same manner as in the first embodiment, the projection pattern and the alignment pattern on the surface of the blade receiving belt of the conveyor (blade receiving member) are collated.

In the present embodiment, as shown in FIG. 16, the photographing camera is not arranged in the vicinity of the cutting device 15, and as shown in FIG. 17, the surface of the blade receiving belt 19A of the conveyor 19 in the cutting device 15 is projected. As a surface, an alignment pattern 37 is provided on the surface of the blade receiving belt 19A. In the present embodiment, when the parallel light 51 is incident on the laminated body 40 from the light source 50 as shown in FIG. 3, the diffracted light 53 is projected on the surface of the blade receiving belt 19A of the conveyor 19.
Then, the position of the projection pattern is adjusted so as to match the alignment pattern on the surface of the blade receiving belt 19A.

Specifically, the projection pattern is collated with the alignment pattern preset on the surface of the blade receiving belt 19A, and the position of the projection pattern is obtained (third step). Then, the misalignment amount of the projection pattern is corrected based on the misalignment amount obtained by collation with the collation device 30 (fourth step). In this way, the position of the laminated body 40 is adjusted so as to match the alignment pattern. After adjusting the position of the laminated body, the laminated body 40 is cut along the position of the projection pattern 53a after the position adjustment (fifth step).

The disclosure of Japanese patent application 2018-183827 filed on September 28, 2018 is incorporated herein by reference in its entirety. Also, all documents, patent applications and technical standards described herein are to the same extent as if the individual documents, patent applications and technical standards were specifically and individually stated to be incorporated by reference. , Incorporated by reference herein.

Claims (15)

The first step of forming a functional shape on the curable resin layer provided on the support, and
A second step of curing the curable resin layer on which the functional shape is formed to form a laminate having the support and the cured layer containing the functional shape provided on the support. ,
A parallel light is incident on the cured layer, and a projection pattern is formed by the projected light based on the functional shape transmitted through the cured layer on the projection surface prepared in advance, and the formed projection pattern and the projection surface in the projection surface. The third step of collating the alignment pattern provided in the two-dimensional coordinates, and
A fourth step of adjusting the position of the laminated body by moving at least one of the laminated body and a cutting device for cutting the laminated body based on the amount of misalignment obtained by collation.
After the movement in the fourth step, the fifth step of cutting the laminated body according to the projection pattern and the fifth step.
A method for producing a shaped film having. The projection surface prepared in advance is a photographing surface obtained by photographing the cutting portion of the blade receiving member of the cutting device for cutting the laminated body by pressing the cutting blade against the blade receiving member.
The method for manufacturing a shaped film according to claim 1, wherein the third step is to collate the projection pattern with the alignment pattern provided in the two-dimensional coordinates set on the photographing surface. The projection surface prepared in advance is the surface of the blade receiving member of the cutting device that presses the cutting blade against the blade receiving member to cut the laminated body.
The method for manufacturing a shaping film according to claim 1, wherein the third step is to collate the projection pattern with the alignment pattern provided on the surface of the blade receiving member. The cutting blade of the cutting device is a punching blade.
The parallel light is emitted from a light source arranged inside the punching blade, and the parallel light is emitted.
The method for manufacturing a shaped film according to claim 2, wherein the cut portion of the blade receiving member is photographed by the photographing apparatus from a position away from the laminated body in the width direction orthogonal to the transporting direction of the laminated body. Further, according to any one of claims 1 to 4, the sixth step of fixing the laminated body whose position has been adjusted in the fourth step with a fixing member in advance before cutting in the fifth step. How to make a shaped film. The sixth step is the method for manufacturing a shaping film according to claim 5, wherein the laminated body is brought into contact with the surface of a blade receiving member of the cutting device in a state of being fixed by the fixing member. The method for producing a shaped film according to claim 1, wherein the third step and the fourth step are performed on the upstream side of the position where the fifth step is performed in the transport direction of the laminated body. The method for manufacturing a shaped film according to any one of claims 1 to 7, wherein the projection pattern is a set pattern of a plurality of points. A shaping part that shapes the functional shape on the curable resin layer provided on the support, and
A cured portion obtained by curing a curable resin layer having the functional shape formed into a laminated body having the support and a cured layer containing the functional shape provided on the support.
A parallel light is incident on the cured layer, and a projection pattern is formed by the projection light based on the functional shape transmitted through the cured layer on the projection surface prepared in advance, and the formed projection pattern and the projection surface in the projection surface. A collation unit that collates the alignment pattern provided in the two-dimensional coordinates, and
A position adjusting unit that adjusts the position of the laminated body by moving at least one of the laminated body and a cutting device for cutting the laminated body based on the amount of misalignment obtained by collation.
A cutting device provided with a cutting blade and cutting the laminated body moved by the position adjusting unit according to the projection pattern.
A shaping film manufacturing device equipped with. The cutting device includes a blade receiving member for pressing the cutting blade to cut the laminated body.
A photographing device for photographing a cut portion of the blade receiving member of the cutting device is provided.
The projection surface prepared in advance is a photographing surface photographed by the photographing apparatus.
The shaping film manufacturing apparatus according to claim 9, wherein the collation unit collates the projection pattern with the alignment pattern provided at the two-dimensional coordinates set on the photographing surface. The cutting device includes a blade receiving member for pressing the cutting blade to cut the laminated body.
The projection surface prepared in advance is the surface of the blade receiving member.
The shaping film manufacturing apparatus according to claim 9, wherein the collation unit collates the projection pattern with the alignment pattern on the surface of the blade receiving member. The cutting blade of the cutting device is a punching blade.
A light source that emits the parallel light is arranged inside the punching blade, and the photographing apparatus is arranged at a position away from the laminated body in the width direction orthogonal to the transport direction of the laminated body.
The shaping film manufacturing apparatus according to claim 10, wherein the projection pattern is formed on the photographing surface in which the cut portion of the blade receiving member is photographed by the photographing apparatus from a position away from the laminated body in the width direction. The cutting blade of the cutting device is a punching blade.
The shaping film manufacturing apparatus according to claim 10, further comprising a light source that emits the parallel light and the photographing apparatus inside the punching blade. The shaping film manufacturing apparatus according to any one of claims 9 to 13, further comprising a fixing member for fixing the laminated body whose position has been adjusted by the position adjusting unit. The collating section is provided upstream of the cutting device in the transport direction of the laminated body.
The shaping film manufacturing apparatus according to any one of claims 9 to 14, wherein the position adjusting unit adjusts the position of the laminated body based on the positional deviation information obtained by the collation of the collating unit.

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