TWI225227B - A displaying filter, a display device and a manufacturing method thereof - Google Patents

Abstract

A displaying filter is constructed by laminating in sequence a transparent binding layer (C) 31 having a coloring material, a polymer film (B) 20, a transparent conductive layer (D) 10, a transparent binding layer (E) 40, and a functional transparent layer (A) 60 being characterized by anti-reflection, hard coating, gas harrier, anti-static electrical charge and anti-fouling, and bound on a display screen 00, the transparent conductive layer (D) 10 is grounded via an electrode 50, a conductive copper foil binding tape 80 to a ground terminal of the display device.

Description

1225227 V. Description of the Invention (1) [Technical Field] The present invention relates to a device that is installed in, for example, a plasma display (p 1 asma D isplay) (PDP), a Braun Tube (CRT), and a liquid crystal display device (Liquid The display surface of a display such as a Crystal Display Device (LCD) has a filtering characteristic that shields the electromagnetic waves generated by the display surface of the display except visible light, and / or a display that can correct the filtering characteristic of the visible spectrum An optical filter, a display device equipped with the optical filter, and a manufacturing method thereof. With the high informationization of the society, the parts and components related to optoelectronics have significantly improved and spread. Among them, displays used in televisions, personal computers, etc. are very popular, and are required to be thinner and larger. Large and thin displays are attracted most attention by plasma displays. Plasma displays, based on their structure and operating principle, ’will generate a strong leaking electromagnetic field from the display surface, near-infrared. In recent years, discussions about the effects of leaking electromagnetic waves generated by electronic equipment on human bodies and other equipment have increased. For example, the leakage electromagnetic waves must be suppressed in accordance with Japan's VCCI (Voluntary control council fo r Interference by data Processing equipment ele -ctronic office machine : In the benchmark set by the Unpaid Evaluation Committee to control the interference of data processing equipment and electronic office equipment. In addition, near-infrared rays' generated on the display surface of the monitor may cause malfunction to peripheral electronic devices such as cord-less phones. Remote contr0l and transmission system -3- 1225227 V. Description of the invention (2) The optical communication system uses near-infrared light with a wavelength of 820nm, 880nm, 980nm, etc., so it must be near-infrared light. The level of light in the wavelength range of 800 to 1 100 nm (1 eve 1) is suppressed to a practically no problem. What is known about the reduction of near-infrared rays (c u t) is a near-infrared light absorption filter made of a near-infrared absorbing pigment. However, 'Near-infrared absorbing pigments are easily degraded by the surrounding environment such as humidity, heat, light, etc. The near-infrared absorbing filters using pigments reduce the infrared reduction ability with aging', so that they can produce filter transmission colors The tendency of the optical characteristics to change. In particular, plasma displays generate strong near-infrared rays over a wide range of wavelengths. Therefore, a near-infrared absorption filter with a large absorptivity in the near-infrared range over a wide range of wavelengths must be used. The near-infrared absorption filters realized in the past only belong to those with low visible light transmittance. In addition, to reduce the leakage of electromagnetic waves, the display surface of the display must be covered with a conductive material with high conductivity. The method used is a transparent conductive layer. This transparent conductive layer is largely divided into two types: conductive mesh and conductive film. The conductive mesh includes a grounded metal mesh, a metal coated on a synthetic fiber or a metal fiber mesh, or an etching film formed by applying an etching treatment to form a grid pattern after forming a metal film. There is also a method in which a transparent conductive film made of a metal thin film, an oxide semiconductor thin film, or the like is used instead of a conductive mesh as an electromagnetic wave shielding layer. Although the metal thin film can obtain good conductivity, it cannot obtain high visible light transmittance due to the reflection and absorption of the metal in a wide range of wavelengths. Compared with metal thin films, oxide semiconductor thin films have better transparency and poor conductivity, and have no near-infrared reflection ability. As described above, most of the transparent conductive layer for the purpose of reducing the leakage electromagnetic field is to use a conductive mesh when shielding performance is important, and a transparent conductive film when cost is important. In addition, a method of using a pigment to improve the color purity of a display is described in, for example, Japanese Patent Laid-Open No. Sho 5 8-1 5 3 904 and Japanese Patent Laid-Open No. 60-22102. No. Wait. Japanese Patent Application Laid-Open No. 58-153904 states that it is applicable to plasma display panels. However, these conventional technologies are used in the plasma display panel to shield electromagnetic waves from the transparent conductive layer and pigment. None of the combinations were mentioned, nor were the pigments used. The filter for the plasma display is formed separately from the display, and is provided as a front panel of the display for the protection of near-infrared rays and electromagnetic waves shielding the display surface. However, the method of the front panel has a high number of components due to the number of components and manufacturing steps, and is difficult to be thin and lightweight. Furthermore, the surface reflection of the display part of the plasma display is generally not reduced, and it has The reflectivity of the glass substrate, so from the perspective of thermal design, etc., when the front panel is set at a distance from the display, the reflected image becomes multiple due to light reflection outside the display surface and light outside the front panel. -5- 1225227 2. Description of the invention (4), thereby reducing the visibility of the display. In addition, the plasma display, due to the reflection of the glass on the display surface and the reflection of the phosphor, reduces the tone of the bright place (Con t r as t), and at the same time has the characteristics of narrow color reproduction range. In addition, the Japanese Patent Gazette JPA 1 0-1 5699 1, JPA 10-1 888 22, 2000-98131 and others have proposed to remove the front panel and directly attach an optical film on the surface of the display panel. However, in these conventional technologies, the total thickness of the transparent high-molecular film as a whole is not specified, and the impact resistance is not specifically described. In addition, JPA 1 0-2 1 1 668 proposes to stack an optical film for direct bonding on a transparent polymer sheet (Sheet) having a thickness of 1 mm or more. However, the transparent polymer sheet with a thickness of 1 mm or more is continuously applied in a roll form or directly attached to a display, which is difficult in practice. The embodiment of the aforementioned patent publication is attached to an acrylic base with a thickness of 3 mm. (Acryl) sheet is obviously to improve the conventional front-panel type filter. Generally, a transparent high-molecular film having various functions in the field of use of the present invention is used in the form of a roll, and from the viewpoint of working efficiency, it is generally a film having a thickness of 75 to 100 μm. Therefore, in the case of sticking two transparent polymer films having a simple function, the total thickness is less than 0.3 mm. In addition, the anti-reflection film even partially uses a film with a thickness of 188 μηι. The base film (poly film) is made of polyethylene terephtha-late (P ET). The base film of 80μπι triacetyl cellulose (-6-1225227 V. Description of the invention (5) triacetyl cellulose) (TAC) has poor anti-reflection properties, so it is not actively used in the lamination of film families. on. In addition, in the case where the film is directly stuck to the panel body of the display, the display itself is expensive, and the film must be peeled off when an abnormality occurs. This workability has not been mentioned in the above-mentioned prior patent publications. In addition, the application of a thin film to a display has been implemented on liquid crystal displays and flat-screen televisions (f 1 atte 1 evisi ο η). However, due to the large increase in area of the plasma display, it must be larger than the existing display. Peeling by the force of a peeling film is troublesome, and sticky paste is easy to remain on the surface of the display, resulting in problems in operation. Furthermore, on the electromagnetic wave shielding body, it is necessary to use an electrode to take out the electromagnetic wave in the form of an electric current to obtain the transparent conductive layer and the external conduction. The method may be to stick a thin film on the transparent conductive layer for the purpose of protection, and expose a part of the transparent conductive layer around the filter, and use this part as an electrode to perform conduction with the outside. Of the part. In the past, an electromagnetic wave shielding system obtained by pasting a film on a front panel was used to obtain conduction with the outside. In order to expose the transparent conductive layer, a method such as making the area of the thin film pasted on the transparent conductive layer smaller than the area of the transparent conductive layer can be used. Using this method, a film with a transparent conductive layer is pasted on a sheet with high rigidity one by one, and then a protective film of a smaller area is pasted on the film on the conductive layer one by one, so it is necessary to paste two sheets Steps so as to cause problems in productivity. -7-1225227 V. Description of the invention (6) In addition, in the past, the electromagnetic wave shielding system obtained by pasting a thin film on the front panel provided electrodes all around. In this method ', the steps of forming the electrodes one by one must be performed, so productivity is problematic. The object of the present invention is to provide the required filter characteristics to improve the electromagnetic wave shielding function and the near-infrared reduction function, the image quality improvement function in view of the above-mentioned conventional technology, and to achieve low cost, light weight and thinness, and improved surface protection. Performance, workability when abnormality occurs, display device equipped with the filter and manufacturing method thereof. (Disclosure of the invention) In order to solve the above problems, the inventors accumulated the results of an intensive review and found that 1) In order to shield the very strong electromagnetic waves generated from the plasma display, a transparent conductive layer with a surface resistance of 0.01 to 30 Ω / □ needs to be used 2) An electromagnetic wave shielding body having such a transparent conductive layer is directly formed on the surface of the plasma display, and an electromagnetic wave shielding function, a near-infrared reduction function, and an image visibility can be obtained. The display device of plasma display with excellent cost 3) has a specific layer structure, contains pigments, and directly forms a light-adjusting film with a visible light transmittance of 30 to 8 5% on the display surface to obtain a use image · The display device of the display with good visibility and cost. 4) The total thickness of the transparent polymer film constituting the optical filter is 0.3 mm or more, and the filter is directly pasted on the front of the display. In addition to reducing the thickness and the protection of the board surface, it also improves the workability. 5) Limit the position where the electrodes are formed. For example, if it is a rectangular optical filter, plan to make the electrodes only in a group of -8- 1225227 V. Description of the invention (7) The two sides facing each other and the shape of the electrode, whereby the formation of electrodes, etc. in a roll-to-roll (r 〇1 1 t 〇r ο 1 1) manner with high production efficiency can be performed, thereby Invented the invention. The present invention is a filter for a display that can be adhered to the display surface of a display and has predetermined filter characteristics, and is characterized in that it is provided on the outside air side and has the function of preventing reflection and / or anti-glare. The transparent layer (A) is provided on the display side, and the transparent adhesive layer (C) for adhering to the display surface is provided between the functional transparent layer (A) and the transparent adhesive layer (C) as the height of the substrate. Filter for display of molecular film (B). In addition, the present invention is preferably provided between the functional transparent layer (A) and the polymer film (B), and / or between the polymer film (B) and the transparent adhesive layer (C). □ The transparent conductive layer (D). Furthermore, it is favorable in the present invention that a part or all of the transparent conductive layer (D) is made of a conductive mesh. In addition, the present invention is good in that the transparent conductive layer (D) uses a combination (Dt) / (Dm) of a high refractive index transparent conductive film (Dt) and a metal thin film layer (Dm) as a repeating cycle unit, after 2 to 4 times After repeated stacking, a high refractive index thin film layer (D t) is stacked thereon. Furthermore, the present invention is favorable in that at least one of most of the high-refractive-index transparent thin-film layers (Dt) is formed of an oxide containing indium, tin, and zinc as one or more main components. In addition, the present invention is good in that most of the metal thin film layers (Dm) -9-1225227 V. At least one layer in the description of the invention (8) is formed by silver or a silver alloy. In addition, the present invention is advantageous in that the functional transparent layer (A) has at least one of functions of hard coatability, antistatic property, antifouling property, gas blocking property, and ultraviolet reducing property. Further, the present invention is advantageous in that an adhesive layer (E) is provided between the functional transparent layer (A) and the polymer film (B). Further, the present invention is advantageous in that a hard coat layer (F) is formed on both or one side of the polymer film (B). In addition, the present invention is good in functional transparent layer (A), polymer film (B), transparent adhesive layer (C), transparent conductive layer (D), adhesive layer (E), and hard coat layer ( F) At least one layer contains at least one pigment. In addition, the present invention is advantageous in that it contains a pigment having a great absorption of light in a wavelength range of 5 7 to 605 nm. In the present invention, it is preferable that the pigment is a t e trazaporphyrin compound, and it is also preferable that the present invention is that the tetrazoporphyrin compound is a compound represented by the following chemical formula (1).

-10- 1225227 V. Description of the invention (9) (where A1 to A8 respectively represent a hydrogen atom, a halogen atom, a nitro group, a cyano group, a hydroxyl group, a sulfonic acid group, an alkyl group having 1 to 20 carbon atoms, and halogenation Academies' Academic Oxygen 'Academies' Aminyl' Square Oxygen, Single Aminylamine Amine, One Aminylamine 'Aromatic Atomyl' Squaryl 'Heterosquare, Aminethio, or Arylthio, A1 And A2, A3 and A4, A5 and A6, A7 and A8 can also form a ring other than an aromatic ring through a linking group, respectively, where M represents M hydrogen atoms, a bivalent metal atom, and a trivalent replacement metal Atom, two quaternary substitution metal atoms, or hydroxyl (Oxy) metal atom). In addition, the present invention is advantageous in that it contains a near-infrared absorbing pigment having a maximum absorption of light in a wavelength range of 800 to 110 nm. In addition, the present invention is favorable in that the reflectance of visible light on the surface of the functional transparent layer (A) is 2% or less. In addition, the present invention is advantageous in that it has a visible light transmittance of 30 to 8 5%. In addition, the present invention is advantageous in that the transmittance in the wavelength range of 800 to 110 nm is extremely small at 20% or less. In addition, the present invention is good in that the total thickness of the polymer film of the entire filter is about 0.  Above 3 m m. In addition, the present invention is advantageous in that it has a polymer film having a thickness that can be contained in a pigment for heightening. In addition, the present invention is advantageous in forming an electrode electrically connected to the row of the transparent conductive layer (D). -11- 1225227 V. Description of the invention (1 o) In addition, it is good in the present invention that the electrode electrically connected to the transparent conductive layer (D) is continuously formed along the peripheral direction of the peripheral portion of the filter. In addition, the present invention is advantageous in that an electrode is formed on a partially exposed conductive portion. In addition, the present invention is advantageous in that the shape of the filter is rectangular, and electrodes are formed on the two peripheral edges facing each other. In addition, the present invention is advantageous in that an electrode system electrically connected to the row of the transparent conductive layer (D) is formed on the peripheral end surface of the filter. In addition, the present invention is good in forming a communication hole from the outermost surface to at least the transparent conductive layer (D) along the thickness direction of the filter, and within the communication hole, an electrical connection with the transparent conductive layer (D) is formed. Connected electrode. Further, the present invention is advantageous in that a conductive tape is interposed between the transparent conductive layer (D) and a layer adjacent thereto. In addition, the present invention is characterized by a display device including a display for displaying an image and a filter provided on the display surface of the display as the filter for the display. In addition, the present invention is characterized by including a step of pasting the above-mentioned filter for display via a transparent adhesive layer (C) on the display surface of the display of the display device, and attaching the ground conductor and the transparent conductive layer of the display device ( D) A method for manufacturing a display device in which the electrodes are electrically connected. In addition, the present invention is characterized by including a multilayer filter including a polymer film (B), -12-1225227 5. Description of the invention (彳 1) a transparent conductive layer (D), and a transparent adhesive layer (C) The transparent adhesive layer (C) is pasted on the display surface of the display device, and the functional transparent layer (A) having antireflection and / or anti-glare properties is disposed directly or via the second adhesive layer. The manufacturing method of the step of the laminated filter and the step of electrically connecting the ground conductor and the transparent conductive layer (D) of the display device. In addition, the present invention is characterized by including a step of providing an adhesive layer on a display surface of a display of a display device, including a polymer film (B), a transparent conductive layer (D), and having antireflection properties and / or Method for manufacturing a glare functional transparent layer (A) laminated filter through the aforementioned bonding layer, and a method for manufacturing a display device in which the ground conductor of the display device and the transparent conductive layer (D) are electrically connected . In addition, the present invention is characterized in that it includes a step of providing an adhesive layer on a display surface of a display of a display device, and a laminated filter including a polymer film (B) and a transparent conductive layer (D) is bonded as described above. The step of layer bonding, the step of disposing a functional transparent layer having antireflection and / or anti-glare properties on the multilayer filter directly or via a second bonding layer, and the ground conductor and the transparent of the display device A manufacturing method of a display device in which the conductive layer (D) is electrically connected. -13- 1225227 V. Description of the invention (12) (Simplified description of the drawings) The present invention, the above-mentioned objects and other objects' features and advantages will be made even more detailed by the following detailed description with reference to the accompanying drawings. .  FIG. 1 is a cross-sectional view showing an example of the polymer film (B) / transparent conductive layer (D) of the present invention. Fig. 2 is a plan view showing an example of an electromagnetic wave shielding body of the present invention. Fig. 3 is a cross-sectional view showing an example of an electromagnetic wave shielding body and its installation state (Embodiment 1) of the present invention. Fig. 4 is a sectional view showing an example of an electromagnetic wave shielding body and its installation state (Embodiment 2) of the present invention. Fig. 5 is a plan view showing an example of an electromagnetic wave shielding body of the present invention. Fig. 6 is a cross-sectional view showing an example of the electromagnetic wave shielding body and its installation state (Embodiment 3) of the present invention. Fig. 7 is a cross-sectional view showing an example of an electromagnetic wave shielding body and its installation state (Embodiment 4) according to the present invention. Fig. 8 is an X-y chromaticity diagram showing the color reproduction range before and after the electromagnetic shielding body is formed. Fig. 9 is a cross-sectional view showing an example of the light control film of the present invention and its installation state (Embodiment 5). Fig. 10 is a cross-sectional view showing an example of the light control film of the present invention and its installation state (Embodiment 6). -14- 1225227 V. Description of the invention (13) Figure 11 is an X-y chromaticity diagram showing the color reproduction range before and after the formation of the light control film. Fig. 12 is a sectional view showing an example of the configuration of a display filter according to the present invention. Fig. 13 is a sectional view showing an example of the configuration of a display filter according to the present invention. Fig. 14 is a sectional view showing an example of the configuration of a display filter according to the present invention. Fig. 15 is a sectional view showing an example of the configuration of a display filter according to the present invention. Fig. 16 is a sectional view showing an example of the configuration of a display filter according to the present invention. Fig. 17 is a sectional view showing an example of the configuration of a display filter according to the present invention. Fig. 18 is a sectional view showing the structure of the transparent polymer film (B) 23 showing the electromagnetic wave shielding function shown in Fig. 16. Fig. 19 is a sectional view showing the structure of a transparent polymer film (B) 26 showing the electromagnetic wave shielding function shown in Fig. 17. Fig. 20 is a plan view of the display filter shown in Fig. 16 or 17. Fig. 21 is a sectional view showing an example of the configuration of a display filter according to the present invention. Fig. 22 is a sectional view showing an example of the structure of a filter for a display according to the present invention. Fig. 23 is a sectional view showing an example of the configuration of a display filter according to the present invention. Fig. 24 is a sectional view showing an example of the configuration of a display filter according to the present invention. Fig. 25 is a sectional view showing an example of the configuration of a display filter according to the present invention. Fig. 26 is a plan view of the display filter shown in Figs. 21 to 25. Figs. FIG. 27 shows an example of a metal pattern. (Best Mode for Carrying Out the Invention) A preferred embodiment of a filter for a display, a display device, and a manufacturing method thereof according to the present invention will be described below with reference to the drawings. The display filter according to the present invention operates as a light-adjusting film having a filter characteristic that corrects the visible spectrum of both sides of the display by containing a pigment having a maximum absorption of light in a wavelength range of 570 to 60 5 nm. In addition, the filter for display related to the present invention has a surface resistance of 0. The transparent conductive layer of 01 to 30 Ω / □ operates as an electromagnetic wave shielding body having a filter characteristic that blocks electromagnetic waves emitted from the display surface of the display. In addition, the filter for a display according to the present invention contains a near-infrared absorbing pigment having a maximum absorption of light in a wavelength range of 800 to 100 nm as a near-infrared -16-1225227 that blocks the light emitted from the display surface of the display. V. Description of the invention (15) The characteristics of the line filter are near-infrared filters. By directly attaching a display filter with these functions to the display surface of a plasma display, etc., it can achieve low cost, light weight and thinness, and improve the protection of the board surface, workability when abnormality occurs, and productivity. . The electromagnetic wave shielding body according to the present invention contains at least a main surface formed on one side of the polymer film (B), and the surface resistance is at least 0. 〇1 ~ 30Ω / Π transparent conductive layer (D), and a transparent adhesive layer (C) formed on the main surface of the other side of the polymer film (B). The transparent conductive layer (D) has another Conducting portion, and a functional transparent layer (A) formed directly or via a transparent adhesive layer. In addition, the electromagnetic wave shielding body according to the present invention contains at least a main surface formed on one side of the polymer film (B), and the surface resistance is at least 0. 〇1 ~ 30 Ω / □ transparent conductive layer (D), and a functional transparent layer (A) formed on the main surface of the other side of the polymer film (B), and on the transparent conductive layer (D) A conductive adhesive layer and a transparent adhesive layer (C) are formed. In addition, the electromagnetic wave shielding body of the present invention has at least a polymer film (B) formed on a main surface of one side of the polymer film (B), and the sheet resistance is at least 0. A transparent conductive layer (D) of 01 to 30 Ω / □, a transparent adhesive layer (C) ', and a functional transparent layer (A) formed on the main surface of the other side of the polymer film (B). In addition, the light-adjusting film according to the present invention has at least a polymer film (B), and is formed on one main surface of the polymer film (B) and has a functional transparent layer having antireflection and / or antiglare properties ( A), a transparent adhesive layer (c) formed on the main surface of the other side of the polymer film-17-1225227 5. Description of the invention (16) (B), and containing pigment, the visible light transmittance is 5 5 ~ 90%. 1. Polymer film (B) The polymer film (B) is used as a substrate for a filter, for example, a substrate for forming a transparent conductive layer (B), and the filter for a display of the present invention is directly formed on On the surface of the display, a transparent polymer is used as the polymer film (B), as long as it is transparent in the visible wavelength range. Specifically, it may include polyethylene terephthalate, polyether sulfone, polystyrene, polyethylene naphthalate, polylate, Polyether eth erketone, polycarbonate (polycarbonate), polyethylene (polyolene), polypropylene (polypropylene), nylon-6 (Nylon 6) and other polyamines (polyamide) ), Fiber resins such as polyimide, triethyl cellulose, etc., polyurethane, polytetrafluoroethy lene, and fluororesin 'polyvinyl chloride ( p〇iyChl〇rinated vinyl) # of the ethylene-based compound 'polyacryl acid, polyacryl ester, polyacrylonitrile (polyacrylonitrile), acrylic compound Additive polymer 'polymethacryl, polyisomethacryl, polyvinylidene chloride (p〇iychlórina -18-1225227) V. Invention description (17) ted vinylidene) Ethylene vinylene compounds, fluorinated vinylidene / trif luoroethylene copolymers, ethylene / vinyl acetate (acetate) copolymers, such as ethylene compounds or fluorine compounds, polyethers, such as polyethylene oxide, epoxy resins, polyvinyl alcohol, polyvinyl alcohol, etc. butyral) and the like, but are not limited to these. The polymer film is usually 10 to 250 μm thick. If it is too thin, it is not easy to form a filter directly on the display surface, and the flexibility is also limited. Therefore, the thickness of the polymer film (B) is preferably 50 μm or more, and more preferably 75 μm or more. In addition, when the thickness exceeds 250 µm or more, the flexibility is too insufficient, and it is not suitable for rolling the film into a roll. In addition, as in the case of the present invention, a polymer film having a thickness of about 100 μm is widely used in a field requiring high transparency. The polymer film used in the present invention has flexibility and can be continuously formed by a roll-to-roll method. Therefore, the polymer film has high efficiency, and can also produce a long, large-area transparent laminated body. Moreover, the film-shaped filter can be easily formed directly on the display surface by a 1 am inate method. In addition, a filter using a polymer film directly adhered to the surface of the display as a substrate can prevent the glass from scattering when the substrate glass of the display is broken, which is ideal. In the present invention, the surface of the polymer film (B) can also be immersed by sputtering, corona treatment, flame treatment, ultraviolet irradiation, electron irradiation, etc.-19-1225227 V. Description of the invention (18) Etching treatment and The undercoat treatment improves the adhesion of the transparent conductive layer (D) formed on the polymer film (B) to the polymer film (B) in advance. In addition, an inorganic material layer such as any metal may be formed between the polymer film (B) and the transparent conductive layer (D). If necessary, solvent cleaning and ultrasonic cleaning may be applied before the transparent conductive film is formed. Protected against dust. In order to improve the scratch resistance of the transparent laminated body, a hard coat layer (F) may be formed on the main surface of at least one side of the polymer film (B). 2 Hard coating (F) The hard coating film as the hard coating (F) may include acrylic resin, silicon resin, melamine resin, urethane resin, alkyd ( Alky d) resins, thermosetting resins and photo-curing resins such as fluorine-based resins, but the types and formation methods are not particularly limited. The thickness of these films is about 1 to 100 μm. The hard coat layer (F) can contain one or more kinds of pigments described later. 3 · Transparent conductive layer (D) The electromagnetic wave shielding system of the present invention forms a transparent conductive layer (D) on the main surface of one side of the polymer film (B). The transparent conductive layer (D) of the present invention is a transparent conductive film made of a single layer or a multilayer film. In addition, in the present invention, the substance of the transparent conductive layer (D) formed on the main surface of the polymer film (B) is referred to as a transparent laminated body (Η). The single-layer transparent conductive film includes the aforementioned conductive metal meshes such as the metal mesh and the conductive grid-like pattern film, and transparent conductive films such as metal thin films and oxide semiconductor thin films. -20- 1225227 V. Description of the invention (19) The multilayer transparent conductive film contains a multilayer film formed by stacking a metal thin film and a transparent film with a high refractive index. A multilayer film made by stacking a metal film and a high-refractive-index film by virtue of the inherent conductivity of metals such as silver and its near-infrared reflection characteristics generated by free electrons, and the high-refractive-index transparent film is suitable for metals in a certain wavelength range. The prevention of the generated reflection has the characteristics of conductivity, near-infrared ray reduction ability, and visible light transmittance. In order to obtain an electromagnetic wave shielding capability and a near-infrared low-reduction display filter, a multilayer film is formed by stacking a metal film having a high conductivity for electromagnetic wave absorption and a reflective interface for electromagnetic wave reflection and a high refractive index transparent film Department is the most ideal. According to the regulations of VCCI, the Class A for office use is less than 50dBpV / m, and the Cl as s B for life use is less than 40dBuV / m. However, the intensity of the radiated electric field of the plasma display is within a frequency band of 20 to 90 MHz. A diagonal 20-inch type is greater than 40 dBpV / m, and a diagonal 40-inch type is greater than 50 d ΒμV / m. Therefore, the untreated system cannot be used in the home. The intensity of the radiated electric field of the plasma display increases with the size of the display surface and the larger the power consumption. The electromagnetic wave shielding material with a high shielding effect must be used. The results of the intensive review by the inventors and others, in order to have a high visible light transmittance In addition to the low visible light reflectivity, and the necessary electromagnetic wave shielding ability on the plasma display, it was found that the transparent conductive layer (D) must have a low -2 1-1225227. 5. Description of the invention (2) The electrical conductivity of the resistance, also That is, the area resistance is preferably 0.  〇 1 ~ 30 Ω / □, and 0. 1 ~ 15Ω / □ is better, 0. 1 ~ 5Ω / □ is more preferable. The visible light transmittance and visible light reflectance of the present invention are calculated in accordance with JIS (R-3106) self-transmittance and reflectance dependence on wavelength. In addition, the present inventors have discovered that in order to block the strong near-infrared light emitted by the plasma display to a level that does not cause practical problems, it is necessary to use a display filter in the near-infrared wavelength range of 8 0 to 1 1 0 The transmittance of light at 0nm is made to be less than 20%. In order to meet this requirement, the requirements of reducing the number of components and the limit of near-infrared absorption using pigments, the transparent conductive layer itself must have near-infrared reducing properties. The reduction of the near-infrared rays by the transparent conductive layer can be achieved by using the reflection of the free electrons of the metal. When the metal thin film layer is thick, the visible light transmittance becomes low, and when it is thin, the reflection of near-infrared rays becomes weak. However, if the laminated structure of a high-refractive-index transparent thin film layer sandwiched with a metal thin film layer having a certain thickness is overlapped for more than one stage, the visible light transmittance will be increased, and the thickness of the overall metal thin film can be increased. In addition, by controlling the number of layers and / or the thickness of each layer, the visible light transmittance, visible light reflectance, near-infrared transmittance, transmission color, and reflection color can be changed within a certain range. In general, if the reflectance of visible light is high, the reflection surface of a lighting device or the like becomes larger, which prevents reflection on the surface of the display portion, thereby reducing visibility and tone. The "reflective color" is preferably an inconspicuous color such as white, blue, or purple. From these matters, the transparent conductive layer -22-1225227 V. Description of the invention (21) It is best to be a multilayer buildup that is easy to design and control optically. The electromagnetic wave shielding body of the present invention is preferably a transparent laminated body (H) using a transparent conductive layer (D) in which a multilayer thin film is formed on the main surface of one side of the polymer film (B). The good transparent conductive layer (D) of the present invention is on the main surface of one side of the polymer film (B), in the order of high refractive index transparent thin film layer (D t), metal thin film layer (Dm), and (Dt ) / (Dm) is a repeating cycle unit, which is repeatedly stacked 2 to 4 times, and then is formed by laminating at least one high refractive index transparent thin film layer (Dt) thereon, and the surface resistance of the transparent conductive layer The characteristic is 0. 1 ~ 5Ω / □ It has the properties of low resistance, excellent near-infrared ray reduction ability, transparency, and visible light reflectance required for excellent electromagnetic wave shielding ability. Furthermore, in the present invention, unless otherwise specified, a multilayer film refers to a transparent conductive film of a multilayer laminated structure in which a high-refractive-index transparent thin-film layer is sandwiched by a metal thin-film layer and is laminated for more than one stage. In the transparent conductive layer of the present invention, the laminated layer is preferably repeated 2 to 4 times. That is, the transparent laminated system of the present invention in which a transparent conductive layer is laminated on the main surface of the polymer film (B) has (B) / (Dt) / (Dm) / (Dt) / (Dm) / (Dt) , Or (B) / (Dt) / (Dm) / (Dt) / (Dm) / (Dt) / (Dm) / (Dt), or (B) / (Dt) / (Dm) / (Dt) / (Dm) / (Dt) / (Dm) / (Dt) / (Dm) / (Dt). If the number of repeated laminations is 5 or more, the productivity will be increased due to the limitation of the production equipment. In addition, there is a tendency that the transmittance of visible light decreases and the reflectance of visible light increases. In addition, if the number of times is repeated, it is difficult to make it with sufficient low resistance at the same time. Nearly -23-1225227 V. Description of the invention (22) Infrared light reduction ability, visible light reflectance. Furthermore, the multilayer film with the number of repeated layers of 2 to 4 times, the present inventors found that in order to simultaneously reduce the near-infrared ray reduction ability, visible light transmittance, and visible light reflectance to make good characteristics suitable for plasma display, its surface resistance must be 0.  1 to 5 Ω / □. In addition, it is presumed that the electromagnetic waves emitted from the plasma display will decrease. In this case, it is estimated that even if the surface resistance of the electromagnetic wave shielding body is 5 to 15 Ω / □, sufficient electromagnetic wave blocking characteristics can be obtained. In addition, it is speculated that the electromagnetic waves emitted by the plasma display will be further reduced. In this case, it is presumed that even if the surface resistance of the electromagnetic wave shielding body is 15 to 30 Ω / □, sufficient electromagnetic wave blocking characteristics can be obtained. On the other hand, from a viewpoint different from the intensity of radiated electromagnetic waves, in order to pursue a larger and thinner display surface of the plasma display, it is estimated that the surface resistance of the electromagnetic wave shielding body must be 0.  01 to 1 Ω / □. The material of the metal thin film layer (Dm), silver is an ideal material because of its excellent electrical conductivity, infrared reflectivity, and visible light transmission after multilayer lamination. However, silver is not chemically or physically stable. Good, it will be degraded by the pollution of the environment, such as water vapor, heat, light, etc., but it can be used well in the addition of gold 'platinum', palladium, copper, indium, thallium, etc. More than one alloy of environmentally stable metals, and these environmentally stable metals can also be used well. In particular, gold and palladium have excellent environmental resistance 'optical characteristics and are ideal metals. -24- 1225227 V. Description of the invention (23) There is no particular limitation on the silver content in silver-containing alloys, but it is not intended to cause large changes in the electrical conductivity and optical properties of the silver thin film, and its content should be above 50% by weight , 100% by weight or less. However, if other metals are added to silver, its excellent electrical conductivity and optical properties will be impaired. Therefore, it is possible to have at least one layer of silver without using an alloy when there are most metal thin film layers. An alloy is used for the layer and / or the outermost layer. The thickness of the metal thin film layer (Dm) is determined by optical design and experiments based on conductivity and optical characteristics. Although there is no particular limitation as long as it has the characteristics required for a transparent conductive layer, it is considered in terms of conductivity and other aspects. Non-island structure must be continuous, and it is 4nni or more. In addition, if the metal thin film layer is too thick, transparency may be a problem. Therefore, the thickness does not exceed 30 nm. If there are many metal thin film layers, the thickness of each layer does not need to be the same, and it may not be all silver or an alloy containing the same silver. The method for forming the metal thin film layer (Dm) can be any one of conventionally known methods such as sputtering, Ion-Plating, vacuum evaporation, and electroplating. The transparent conductive film forming a high-refractive-index transparent thin film layer (Dt) is not particularly limited as long as it has transparency in the visible field and prevents light reflection in the visible field of the metal thin film layer. For materials with a high refractive index, the refractive index is 1.6 or more, preferably 1.  8 or more, and 2.  Above 0 is better. Forming this kind of transparent -25-1225227 V. Description of the invention (24) The specific materials of the thin film include indium, Titan, Chromium (Zirconium), Bismuth, tin, Zinc, Anti-mony ), Oxides of Tantalum, Cerium, Neodymium, Lanthanum, Thorium, Magnesium, Gallium, etc., or mixtures of these oxides and zinc sulfide Wait. These oxides or sulfides have no difference in the composition of the stoichiometry of the metal, oxygen atom, or sulfur atom, so long as they do not significantly change the optical characteristics. Among them are zinc oxide, titanium oxide, indium oxide and a mixture of indium oxide and tin oxide (I TO). In addition to good transparency and refractive index, it also has a fast film formation speed and good adhesion to the metal thin film layer. Etc., so it can be used well. The thickness of the high-refractive-index transparent thin-film layer (Dt) is based on the optical characteristics of the polymer film (B) [referred to as a transparent substrate], the thickness of the metal thin-film, the optical characteristics, and the refractive index of the transparent thin-film layer. Although it is not limited in particular, it is preferably 5 nm or more and 200 nm or less, and more preferably 10 nm or more and 100 nm or less. In addition, the thickness of the first layer of the high-refractive-index transparent film (the (n + 1) th layer (η-1)) does not necessarily need to be the same thickness, and different transparent film materials may also be used. The method of forming a high-refractive-index transparent thin film layer (D t) can also use any of the methods known in the past, such as sputtering, ion ore coating, ion beam assist coating (Ion-Beam Assist), vacuum evaporation, and wet coating. a way. In order to improve the environmental resistance of the above-mentioned transparent conductive layer (D), it can also be on the surface of the transparent conductive layer (26) 1225227 V. Description of the invention (25) M, without seriously impairing the conductivity and optical characteristics. , Set any protective layer of organic or inorganic matter. In addition, it has the environmental resistance of the high metal thin film layer and the adhesion with the metal thin film layer and the high refractive film layer. It can also be used between the metal thin film layer and the high refractive film layer without compromising conductivity. The degree τ ′ of the optical properties and optical characteristics forms an arbitrary inorganic material layer. Specific materials for these layers include copper, nickel, chromium, gold, platinum, zinc, chromium, titanium, tungsten, tin, palladium, or the like, or alloys of two or more of these materials. Its thickness is preferably 0.  2nm ~ 2nm. To obtain the transparent conductive layer (D) with the desired optical characteristics, consider the conductivity required for the shielding energy of 2 electromagnetic waves, that is, the thickness of the metal thin film material '. By using the polymer film (B) and the optical constant (refractive index) , Extinction coefficient) vector method, the use of admittance (Admittance) map method, etc. to perform optical design to determine the film material and number of layers, film thickness and so on. In this case, it is sufficient to consider an adjacent layer formed on the transparent conductive layer (D). This is considered to cause transmission color (and transmittance, reflection color, etc.) due to the difference between the incident medium of light to the transparent conductive layer formed on the polymer film (B) and the incident medium with a refractive index of 1 such as air or vacuum. Reflectivity). In other words, when the functional transparent layer (A) is formed on the transparent conductive layer (D), if it is performed through the transparent adhesive layer (C), the optical constant of the transparent adhesive layer (C) is taken into consideration to design. In addition, if the functional transparent layer (A) is directly formed on the transparent conductive layer (D), the optical constant of the material adjacent to the transparent conductive layer (D) is taken into consideration for design. -27- 1225227 V. Description of the invention (26) As mentioned above, by implementing the design of the transparent conductive layer (D), the high refractive index transparent thin film layer (Dt), the ratio of the lowermost layer to the uppermost layer is seen from the polymer film (B). The layers between them are thin, and the metal thin film layer (Dm), from the polymer film (B), the lower layer is thinner than the other layers, if the adjacent layer has a refractive index of 1. 45 ~ 1.  65, the extinction coefficient is about 0, the thickness of the adhesive material of 10 ~ 5 Ομιη ’found that the reflection of the transparent laminated body did not significantly increase, that is, due to the connection. The increase in interface reflection caused by the formation of adjacent layers is below 2%. In particular, the number of repetitions is three times, that is, a transparent conductive layer made of a total of seven layers, and it is found that the second layer in the middle of the three metal thin film layers (Dm) is thicker than the other layers, and the adjacent layer is In the case of the aforementioned bonding material, the reflection of the transparent laminate does not increase significantly. In addition, the optical constant can be measured by an elliptic polarization analysis method (El 1 ipsome try) and an Abbe's refractometer, and the film can be formed while controlling the number of layers and the thickness of the film while observing the optical characteristics. The atomic composition of the transparent conductive layer formed by the above method can be obtained by Auger Electron Spectroscopy: AES, Inductively Coupled Plasma Method (ICP), Rutherford Backward Scattering Method (RBS) And so on. In addition, the layer composition and film thickness can be measured by depth observation using Auger electron spectrometry, and cross-section observation by a transmission electron microscope. In addition, the film thickness is determined by understanding the relationship between the film formation conditions and the film formation speed in advance, and then performing the film formation step and controlling the film thickness in the film formation by a crystal oscillator or the like. -28- 1225227 V. Description of the invention (27) In addition to the method of using the above-mentioned transparent conductive film, there are also methods of using a conductive mesh as a transparent conductive layer. An example of the conductive mesh is a single-layer metal mesh as described below, but the conductive mesh of the present invention is not limited to a single-layer metal mesh. A single-layer metal mesh is generally a copper mesh layer formed on a polymer film. Generally, a copper foil is pasted on a polymer film, and then processed to form a network. Although the copper foil used in the present invention can use rolled copper and electric field copper, it is best to use a porous metal layer; its pore diameter is preferably 0. · 5 ~ 5 μπι, 〇.  5 ~ 3μπι is better, while 0. 5 ~ Ιμιη is even better. If the pore diameter is larger than the aforementioned pore diameter, sputtering may be hindered, and if it is smaller than the aforementioned pore diameter, it is difficult to improve the light transmittance. In addition, the porosity of the copper foil (P0 r 0 s i t y) is preferably in the range of 0 · 〇 1 to 20%, and more preferably 0 · 0 2 to 5%. The so-called porosity of the present invention means that if the volume is R and the pore volume is P, it means "値" defined by P / R. For example, the corresponding volume 0 is determined by mercury porosity.  The pore volume of the copper foil of 1 c c is 0.  〇 〇 1 c c can be said that the porosity is 1%. The copper foil used can also be subjected to various surface treatments. Specific examples are a chromed treatment, a roughening treatment, and an acid pickling treatment. The thickness of the copper foil is preferably 3 to 30 μΐΏ, 5 to 20 μηι is more preferable, and 7 to 10 μΏ is more preferable. If it is larger than this thickness, the immersion time will be longer. Conversely, if it is smaller than this thickness, the problem of electromagnetic wave shielding ability will be reduced. The aperture ratio of the light transmitting part is preferably 60% or more and 95% or less. 6 -29-1225227 V. Description of the invention (28) 5% or more, preferably 90% or less, and 70% or more, 85% or less Better. The shape of the opening is not particularly limited, and it may have a shape of regular triangle, regular quadrangle, regular hexagon, circle, rectangle, rhombus, etc., and it is preferably tied in-plane. The typical size of the opening of the light transmitting portion, preferably one side or diameter is in the range of 5 to 200 μm. 10 ~ 150μηι is even better. If it is too large, it will reduce the electromagnetic wave shielding ability. On the contrary, if it is too small, it will have an adverse effect on the display image. The width of the metal in which the opening is not formed is preferably 5 to 50 µm. That is, the pitch moment is preferably 1 0 ~ 2 5 ΟμίΏ. If it is narrower than this width, processing will become extremely difficult. Conversely, if it is wider than this width, it will adversely affect the image. The substantial sheet resistance of a metal layer with a light transmitting portion refers to a four-terminal method using an electrode with a size 5 times larger than the above pattern, and an electrode spacing of 5 times or more the repeating cycle unit of the above pattern. Measure the surface resistance. For example, if the shape of the opening has a square shape, one side is 100 μm, and a metal layer with a width of 20 μm is regularly arranged in a square shape, the electrodes with a diameter of 1 mm can be arranged at an interval of 1 mm to perform the measurement. Alternatively, the formed film is processed into a rectangle, and electrodes are arranged at both ends in the long direction to measure the resistance (R). If the length in the long direction is a and the length in the short direction is b, then Rxb / a Find the real surface resistance. The value of this determination is preferably 0.  0 1 Ω / □ or less, 0. 5 Ω / □ or less, and 0 · 〇 5 Ω / □ or more, 0.  3 Ω / □ is more preferable. If you want to obtain a 値 smaller than the above 膜, the film thickness will be too large, and the opening cannot be obtained sufficiently. On the contrary, if you want to obtain a 大于 larger than the above 値 -30-30 1225227 V. Invention description (29) cannot be obtained Full electromagnetic wave shielding ability. A method for laminating silver foil on a polymer film is to use a transparent adhesive. The type of the adhesive is propylene-based, urethane-based, silicon-based, polyester-based, etc., but the adhesive is not particularly limited. Two-liquid system and thermosetting type can be used well. Furthermore, it is preferably an adhesive having excellent chemical resistance. The silver foil is applied after the adhesive is applied to the polymer film, and the adhesive may be applied to the silver foil. The method of forming the light transmitting portion can use a printing method and a photoresist (Pho t 〇 Re s s t). The printing method is generally a method in which a mask layer is patterned by using a printing resist material and a screen printing method. The method of using a photoresist material is to apply a photoresist material on a metal foil by a roll coating method (RqI 1-Coat ing), a spin coating method (spin-coat ing), a full-print method, or a drawing method. , Photo-mask is used for exposure and development to perform patterning of the resist. After the resist patterning is completed, the metal portion serving as the opening portion is removed by wet etching to obtain a metal mesh having a light transmitting portion having a desired opening shape and aperture ratio. 4. Transmission characteristics The transmittance of visible light on the light-transmitting portion of the electromagnetic shielding body is preferably 80 to 85%. 50 ~ 80% is better. If it is less than 30%, the brightness will decrease excessively, resulting in poor visibility. In addition, in order to obtain the tone, the transmittance must be 85% or less, and more preferably 80% or less. In addition, the visible light transmittance on the dimming film is preferably 55 to 90%, and more preferably 60 to 8 5%. If it is less than 55%, the brightness will be too low, so that -31-1225227 V. Description of the invention (3〇) Visibility is soiled. In addition, in order to obtain the tone, the transmittance must be 85% or less, and 80% or less is better. According to the present invention, the visible light transmittance (T v i s) and visible light reflectance (Rvis) of the present invention are calculated according to the wavelength of transmittance and reflectance by ns (R_31〇6). 5 · Color characteristics and pigments However, if the transmission color of the filter for a display is strong, the tone of the display will decrease when the yellow-green to green components are strong, and the color purity will also decrease, and it will appear green when white is displayed. This is due to the highest visible sensitivity of light at wavelengths around 550 nm from yellow-green to green. If the multilayer film is focused on the transmittance of visible light, the transmittance of visible light is generally poor. The more the electromagnetic wave shielding ability is improved, that is, the conductivity and the near-infrared reduction ability, the greater the total film thickness of the metal thin film. However, the larger the total thickness of the metal thin film, the more it tends to turn green to yellow-green. Therefore, the transmission color of the electromagnetic wave shield used in the plasma display is required to be Neutral Gray or blue gray. This is because the transmission of green is too strong and the tone is lowered. Compared with red and green light emission colors, blue light emission is weak, and white which is slightly higher than the standard white color temperature is ideal. In addition, the transmission characteristics of the electromagnetic wave shielding body, the plasma display, and the chromaticity coordinates of the white display are extremely close to the black body locus. In the case of using a multi-layered film on the transparent conductive layer (D) ', the color tone of the multi-layered film is corrected so that the transmission color of the electromagnetic wave shielding body becomes neutral gray or blue -32-1225227 V. Description of the invention (31) The gray system is important. To correct the hue, it is sufficient to use a pigment that absorbs light in the visible wavelength range. For example, if the transmission color of the transparent conductive layer (D) has a green component, use a red pigment to correct it to gray, and if the transmission color has a yellow component, use a blue to purple pigment to correct it. Color plasma display, vacuum ultraviolet light generated by rare gas by direct current or alternating current excitation (¥, 〇 (1′11) 603) red (Red) light emitting phosphor, (Zn, Mn) 2Si04, etc. Green light-emitting phosphors, and (Ba, Eu) MgAl1Q017: Eu and other blue light-emitting phosphor systems are formed on the display cells (Cells) that make up the pixels. In addition to the color purity, In terms of coating properties of radiation cells, shortness of afterglow time, luminous efficiency, heat resistance and other selected indicators, most practical phosphors must improve their color purity. In particular, the emission spectrum of red light-emitting phosphors is displayed. There are multiple light emission peaks (P e ak) in the range of 580nm to 700nm. The light emission peaks on the stronger short wavelength side emit yellow to orange light. Therefore, the red light emitted has a color purity close to that of orange. The problem of the situation. If the rare gas is a mixture of xenon (Xe) and neon (Ne), the emission of orange light in the excited state of Ne will also reduce the purity of the orange light. Also related to green, blue Glow, its peak wave The position and width of light emission are the main reasons for the decrease in color purity. The height of color purity can be set on the coordinates of the horizontal axis chromaticity X and vertical axis chromaticity y, respectively, which are formulated by the International Lighting Commission (CIE) to indicate hue and chroma. The color reproduction range represented by the width of the triangle with the RGB three colors as the apex -33-1225227 V. The width of the invention description (32) range. The range of color reproduction from the low degree color purity to the light emission of the plasma display is usually ratio Determined by the NTSC (National Television System Committee) method: The color reproduction range represented by the chromaticity of the three RGB colors is narrow. In addition, the light emission of each color covers a wide range in addition to the exudation light that is displayed between cells. Unnecessary light, so that it cannot highlight the emitted light, not only causes color purity, but also mainly reduces the tone of the plasma display. Furthermore, the plasma display generally exists in the presence of light outside the room. When it is bright, its tone will be worse than when it is dark. This is because the substrate glass, phosphors, etc. reflect external light, so unnecessary light makes it necessary The light cannot highlight the cause. The tone of the plasma display panel is 100 ~ 200 in dark, and 10 ~ 30 in bright when the surrounding illumination is about 100 × χ. It is a problem to improve the tone. Lowering is also the main reason for narrowing the color reproduction range. In order to increase the tone, a filter such as Neutral Density (ND) is used in front of the display to reduce the overall transmittance in the visible wavelength range and reduce the substrate glass. , A method of transmission of light reflections other than phosphors, but when the visible light transmittance is too low, the brightness and sharpness of the image will decrease, and the color purity does not improve. The inventors found that the color plasma is improved. The color purity and gradation of the luminous color of the display can be achieved by reducing the emission of the color purity and gradation of the luminous color, and the reflection of external light. -34- 1225227 V. Description of the invention (33) In addition, the inventors also found that the use of pigments not only tints the electromagnetic wave shielding body into neutral gray or neutral blue gray, but also reduces the purity and tone of the reduced luminous color. The reason is not to emit light and reflect external light. In particular, those whose red luminescence is close to orange are particularly significant, and it has been found that reducing the luminescence at a wavelength of 5 80nm to 605nm, which is the cause, can improve the color purity of red luminescence. The filter for a display of the present invention can reduce unnecessary light emission and external light reflection if the shielding body contains a pigment that has a great absorption of light in the wavelength range of 570nm ~ 605nm. In this case, it is necessary to use a display filter to prevent the transmission of light with a wavelength of 61 5nm ~ 640 nm, which belongs to the red emission peak, from having a significant adverse effect. In general, pigments have a wide absorption range, and pigments with a desired absorption peak also absorb light from the bottom of the valley to a good wavelength. If there is light emission caused by Ne, since the reduction of orange light can be performed, the color purity of the light emitted by the RGB display cells can be improved. In addition, the color emission of the color plasma display is broad, and its peak position is, for example, on the wave length side longer than the green required by the NTSC method, that is, on the yellow-green side. The present inventors have discovered that the short wavelength side is absorbed by a pigment having a maximum absorption at a wavelength of 570 nm to 60 5 nm, and the long wavelength side of green light is absorbed and truncated. In particular, those who do not want to emit light by truncating and / or move The peak position can improve the color purity. In terms of improving the color purity of red light emission and green light emission, it is best to be -35-1225227. 5. Description of the invention (34) By using a pigment that has a great absorption to the wavelength 5 7nm ~ 6 0 5nm, the electromagnetic wave shielding body is at a wavelength 5 The minimum transmittance in the range of 70 nm to 60 5 nm is less than 80% at the peak position of the necessary red light emission. If the color purity of blue light emission is low, it is the same as red light emission and green light emission. Reduce unnecessary light emission, and move its peak wavelength to absorb blue-green light-emitting pigments. In addition, the absorption by the chromatic pigment can reduce the external light incident on the phosphor, so that the external light reflection on the phosphor can be reduced. The above-mentioned circumstances can also improve the color purity and tone. The method for making the display filter of the present invention contain a pigment has (1) a polymer film mixed with at least one or more pigments and a transparent resin, (2) at least More than one pigment is dispersed and dissolved in a thick liquid of resin or resin monomer (Monomer) / organic solvent. A polymer film made by the casting method. (3) At least one pigment is added. A method in which a resin adhesive and an organic solvent are used to form a coating on a transparent substrate, and (4) a transparent adhesive material containing at least one pigment is used. The term "contained" in the present invention means, of course, that the layer is contained in a substrate or a coating film or the inside of an adhesive material, but also means a state of being coated on the surface of the substrate or layer. As long as the pigment is a general dye or pigment having a desired absorption wavelength in the visible field, its type is not particularly limited. For example, there is anthracene-36-1225227. 5. Description of the invention (3 5) anthraquinone system, phthalate Phthalocyanine system, Methine system, Azomethine system, Doxaziny 1 system, Azo system, Styryl system, Coumarin (Coumarinyl) system, Porphyrin system, dibenzofuran system, diketo pyropy rrole system 'basic rhodamine system, xanthan acid ( xant hatic) is a commonly sold organic pigment such as 'pyrromethic'. Its type and concentration depend on the absorption wavelength and absorption coefficient of the pigment, the tint of the transparent conductive layer, and the required transmission characteristics of the electromagnetic wave shield. The transmittance and the type and thickness of the dispersed medium or coating film are not limited. The transparent conductive layer (D) has near-infrared ray reduction capability in addition to the electromagnetic wave shielding ability when using multilayer films. However, if a more near-infrared ray reduction capability is needed, or the transparent conductive layer does not have near-infrared reduction capability, Compared with the near-infrared ray reduction capability of display filters, the pigment can be absorbed by one or more near-infrared rays. The near-infrared absorbing pigment is not particularly limited, and the concentration is not limited as long as it absorbs the near-infrared ray emitted from the plasma display to reduce the near-infrared rays of the transparent conductive layer. Examples of the near-infrared absorbing pigment include a phthalocyanine-based compound, an anthraquinone-based compound, a dithiol (d i t h i ο 1) -based compound, and a diiminium-based compound. When the temperature of the surface of the plasma display panel is high, especially the temperature of the environment is high -37-1225227 V. Description of the invention (36) The temperature of the electromagnetic wave shielding body also rises, so the pigment used in the present invention has good heat resistance. , Heat resistance that does not degrade significantly at 80 ° C, etc. In addition, depending on the pigment, there is a lack of light resistance in addition to heat resistance. In the case of degradation caused by the light emission of the plasma display and the ultraviolet and visible light of the external light, it is important to reduce the degradation caused by ultraviolet rays by using materials containing ultraviolet absorbers and materials that do not transmit ultraviolet rays, or Use pigments that do not deteriorate significantly due to UV and visible light. In addition to heat and light, the same should be done for temperature and these composite environments. Once the pigment is degraded, the transmission characteristics of the electromagnetic wave shielding body are changed. In fact, the surface temperature of the plasma display panel is 70 ° C to 80 ° C-the event is listed in Japanese Patent Publication No. 8-220303. In addition, the light emitted from the plasma display board is described as, for example, 300cd / m2 (Fujitsu Co., Ltd. Image Site Catalog AD25-000061C 0 ct · 1 9 9 7M), the body angle is set to 2 7Γ, and it is irradiated with 20,000 After hours, we get 2 7Γ X20000X300 = 38 million (1 × · hour), and we know from this that it must have a light resistance of tens of thousands (1 X · hour) in practice. Furthermore, it is also important to dissolve the pigment in the medium or the coating film with respect to the solubility of a suitable solvent. Two or more pigments having different absorption wavelengths may be contained in one medium or coating film. The filter for a plasma display of the present invention has no significant damage to the brightness, visibility, and transmission characteristics of a color plasma display. -38-1225227 V. Description of the invention (37) It can improve the luminescence of a color plasma display. Color purity and tone. The present inventors have found that if at least one of the contained one or more pigments is a tetraazaporphyrine compound, it has a wavelength equal to or more than 570 to 60 nm, which is an unnecessary emission, which is particularly reduced. The main absorption wavelengths of adjacent wavelengths, and the absorption wavelengths are relatively narrow, so it can reduce the loss of brightness by collecting appropriate light emission, so that it can have excellent transmission characteristics, transmittance, color purity of luminous colors, and improve the tone Excellent display filter. The tetraazaporphyrin compound used in the present invention can be represented by the aforementioned formula (1). In the following, the formula (1) is simplified to the following structural formula (2)

(2) [In the formula (2), Am & An represents each hydrogen atom, _ atom nitro 'cyano' via group 'amino group, residue, sulfonic acid group, alkane having 1 to 2 carbon atoms Alkyl, haloalkyl, alkoxy, alkoxyalkoxy, aryloxy, monoalkylamino, dialkylamino, aralkyl, aryl, heteroaryl 'alkylthio, or aryl The thio groups Am and An can each form a ring other than an aromatic ring via a linking group. M represents two hydrogen atoms, and the bivalent metal is -39-1225227. 5. Description of the invention (38) Atom, one of trivalent substitution Metal atom, two tetravalent substitution metal atom, or hydroxy metal atom]. Specific examples of the tetraazaporphyrin compound represented by the formula (1) will be described below. Specific examples of A1 to A3 in the formula are each including a halogen atom such as a hydrogen atom, fluorine, chlorine, bromine, iodine, etc .; a nitro group; a cyano group; a hydroxyl group; an amine group; a carboxyl group; a sulfonic acid group; a methyl group, an ethyl group, N-propyl, iso-propyl, n-butyl, iso-butyl, second butyl, third-butyl, n-pentyl, 2-methyl-butyl, 1 -Methyl-butyl, neopentyl, 1,2-dimethylpropyl, 1,1-dimethylpropyl, cyclopentyl, n-hexyl1), 4- Methylpropyl, 3-methylpropyl, 2-methylpropyl, 1-methylpropyl, 3,3-dimethylbutyl, 2,3-dimethylbutyl, 1,3- Dimethylbutyl, 2,2 · dimethylbutyl, 1,2-dimethylbutyl, 1,1-dimethylbutyl, 3-ethylbutyl, 2-ethylbutyl,丨 _ethylbutyl, 1,2,2-trimethylbutyl, 1,2,2-trimethylbutyl, 丨 _2yl-2 methylpropyl, cyclo-hexyl, n-heptyl, 2-methylhexyl, 3-methylhexyl, 4-methylhexyl, 5-methylhexyl, 2,4-dimethylpentyl, n-octyl, 2-ethylhexyl, 2,5-dimethyl Hexyl, 2,5,5-trimethylpentyl, 2,4-dimethylhexyl , 2,2,4-trimethylpentyl, n-nonyl, 3,5, 5-trimethylhexyl, n-decyl, 4-ethyloctyl, 4.ethyl-4,5 -Dimethylhexyl, n-decyl'-n-dodecyl, 1,3,5,7-trimethyloctyl, 4-butyloctyl, 6,6-dimethyloctyl, n-tridecyl Methyl, 6-methyl-4-butyloctyl, n-tetradecyl, n-pentadecyl, 3,5-dimethylheptyl, 2,6-dimethylheptyl, 2,4-dimethyl Heptyl, 2,2, 5, 5-tetra-40-1225227 V. Description of the invention (39) Methylhexyl '1 -cyclo-pentyl-2,2-monomethylpropyl' 1 -cyclo-hexyl- 2,2-Dimethylpropyl, etc. Carbon number 1 ~ 20 Linear, branched or cyclic alkyl, chloromethyl, dichloromethyl, fluoromethyl, trifluoromethyl, pentafluoromethyl 'Nine fluorobutyl and other dentitions with 1 to 20 carbon atoms; methoxy, ethoxy, n-propoxy, isopropoxy, n-butoxy, isobutoxy, second butoxy Alkyl, tertiary butoxy, n-pentyloxy, isopentyloxy, neopentyloxy, n-hexyloxy, n-dodecyl, etc. alkoxy groups having 1 to 20 carbon atoms; methoxyethoxy Ethoxy, ethoxyethoxy, 3-methoxypropoxy, 3- (iso (Oxy)) alkoxyalkoxy having 2 to 20 carbon atoms such as propoxy; phenoxy, 2-methylphenoxy, 4-methylphenoxy, 4-third-butoxy, 2-methylphenoxy, 4-isopropylphenoxy and other aryloxy groups having 6 to 20 carbon atoms; methylamino, n-propylamino, n-butylamino, n-hexylamino, etc. Monoalkylamino group with 1 to 20 carbon atoms; dimethylamino group, diethylamino group, di-n-propylamino group, di-n-butylamino group, N-methyl-N-cyclohexylamine Dialkylamino groups having 2 to 20 carbon atoms; benzyl, nitrobenzyl, cyanobenzyl, hydroxybenzyl, methylbenzyl, dimethylbenzyl, trimethylbenzyl, di Chlorobenzyl, methoxybenzyl, ethoxybenzyl, trifluoromethylbenzyl, naphthylmethyl, nitronaphthylmethyl, cyanonaphthylmethyl, hydroxynaphthylmethyl, methylnaphthylmethyl Trifluoromethylnaphthalene-4 1-1225227 V. Description of the invention (4〇) Arylalkyl having 7 to 20 carbons such as methyl; phenyl, nitrophenyl, cyanophenyl, hydroxyphenyl, Methylphenyl, dimethylphenyl, trimethylphenyl, dichlorophenyl, methoxyphenyl, ethoxyphenyl, trifluoro Carbon number of methylphenyl, N, N-dimethylaminophenyl, naphthyl, nitronaphthyl, cyanonaphthyl, hydroxynaphthyl, methylnaphthyl, trifluoromethylnaphthyl, etc. 6 ~ Allyl 20; pyrrolyl, thienyl, furyl, oxazolyl, isoxazolyl, oxadiazolyl, imidazolyl, benzoxazolyl, benzothiazolyl, benzimidazolyl, benzene Hexaallyl furfuryl, indolyl, etc .; methylthio, ethylthio, n-propylthio, isopropylthio, n-butylthio, isobutylthio, second butylthio, third Butylthio, n-pentylthio'isopentylthio, ethyl-methylbutylthio, 1-methylbutylthio, neopentylthio, 1,2-dimethylpropylthio, 1,1- Alkylthio groups having 1 to 20 carbon atoms such as dimethylpropylthio; phenylthio, 4-methylphenylthio, 2-methoxyphenylthio, 4-tert-butylphenylthio, etc. Arylthio groups having 6 to 20 carbon atoms. Examples of A1 and A2, A3 and A4, A5 and A6, A7 and A8 forming a ring via a linking group include -CH2CH2CH2-, -CH2CH2CH (N02) CH2-, -CH2 (CH3) CH2CH2-, · ΟΗ2 (: Η (( : 1) (: Η2 (: Η2- etc.) Examples of divalent metals represented by M include copper (Cu), zinc (Zη), iron (Fe), cobalt (Co), nickel (Ni), and ruthenium (Ru) , Rhodium (Rh), palladium (Pd), platinum (Pt), manganese (Μη), mercury (Hg), cadmium (Cd), barium (Ba), titanium (Ti), beryllium (Be), calcium (Ca) -42- 1225227 V. Description of the invention (41) An example of a substituted trivalent metal includes Al-F, A1-C1, Al-Br, Al-I, Ga-F, Ga-C1, Ga-Br , Ga-I, In-F, In-Cl, In-Br, In-I, Tl-F, T1-Cl, Tl-Br, Tl-I, A1-C6H5, A1-C6H4 (CH3), In- C6H5, In-C6H4 (CH3), Mn (OH), Mn (〇C6H5), Mn [OSi (CH3) 3], Fe-Cl, Ru-Cl, etc. Examples of two substituted tetravalent metals include CrCl2, SiF2, SiCl2, SiBr2, Sil2, SnF2, SnCl2, SnBr2, ZrCl2, GeF2, GeCl2, GeBr2, Gel2, TiF2, T i C12, TiBr2, Si (0H) 2, Sn (0H) 2, Ge (0H) 2, Zr (0H) 2, Mn (0H) 2, TiA2, CrA2, Si A2, SnA2, GeA2 [wherein A represents , Phenyl, naphthyl and its derivatives], Si (0A ') 2, Sn (0A') 2, Ge (0A,) 2, Ti (0A ') 2, Cr (〇A') 2 [ Among them, A ′ represents an alkyl group, a phenyl group, a naphthyl group, a trialkylsilyldialkylalkoxysilyl group and a derivative thereof], Si (SA ") 2, Sn (SA") 2, Ge (SA ") 2 [wherein A" represents an alkyl group, a phenyl group, a naphthyl group and a derivative thereof], etc. Examples of the oxygen metal include VO, MnO, TiO, etc. The most preferable ones are Pd, Cu, Ru, P t, Ni, Co, Rh, Zn, VO, T iO, Si (Y) 2, Ge (Y) 2 (where Y is a halogen atom, an alkoxy group, an aryloxy group, a fluorenyl group, a warp group, Yuan base, aryl group, Yuan thio group, aryl thio group 'Eryuan Kejiashayuan oxygen, Sanyuan base tin oxygen or Sanyuan base germanium oxygen. More preferably, it is Cu, VO, Ni, Pd, Pt Co. The present inventors have further discovered that the azaporphyrin compound of formula (1), for example, if it is a tetra-third butyl-tetraazaporphyrin complex (c0mpl -43-1225227 Description of the invention (42) e X) and tetra-neopentyl-tetraazaporphyrin complexes are easier to manufacture, solubility in solvents, coordination The compound is stable and has excellent absorption characteristics. As a result of the addition of tertiary-butyl and tetra-neopentyl, the coordination compound has three-dimensionality, thereby improving the solubility of the solvent and making it easy to contain pigments. Excellent electromagnetic shielding body. In the filter for a display of the present invention, the methods (1) to (4) incorporating the pigment described above may include a polymer film (B) containing a pigment, and a transparent adhesive layer (C) or a second transparent material as described later. The adhesive layer is implemented on a functional transparent layer (A) described later containing a pigment, and on any one or more of the aforementioned hard coat layers (F) containing a pigment. The functional transparent layer (A), which will be described later, may be a film containing a dye and having various functions, a film formed on a polymer film containing a dye and having various functions, or a film containing a dye. In any case, a film having various functions on the material may be used. Furthermore, two or more pigments having different absorption wavelengths may be contained in one medium or a coating film, and may also have two or more pigment layers. First, the method (1) of kneading a pigment and a resin and thermoforming will be described. For resin materials, if it is made of plastic plates or polymer films, it is better to use materials with high transparency as much as possible. Specifically, it may include polyethylene terephthalate, polyether mill, and polystyrene. , Polyethylene naphthalate 'polyallylate, polyether ketone ether, polycarbonate, polyethylene, polypropylene, nylon-6, etc. Polyamines, polyimines, triethyl cellulose- 44-1225227 V. Description of the invention (43) Cellulose resin, etc., Polyurethane, Fluorine resin such as polytetrafluoroethylene, Vinyl compounds such as polyvinyl chloride, Polyacrylic acid, polyacrylate, Poly Acrylonitrile, addition polymers of vinyl compounds, polymethacrylic acid, polymethacrylate, polyvinylidene compounds such as vinylidene chloride, fluorinated vinylidene / trifluoroethylene copolymers, ethylene / vinyl acetate Copolymers of vinyl compounds such as copolymers or fluorides, polyether 'epoxy resins such as polyalkylene oxide, polyvinyl alcohol, polyvinyl butyral, and the like are not limited to these resins. Regarding the manufacturing method, the pigment used varies slightly depending on the matrix polymer and the processing temperature and filming conditions, but generally, it can include (i) adding a pigment to the matrix polymer powder or Pellet, at 150 ~ 350 ° C The method of heating, dissolving and forming into a plastic plate after processing, (ii) the method of film forming by an extruder, (iii) the production of medium and high rollers by an extruder, and then at 30 ~ 120 ° C, Axial or biaxial orientation (biaxial orientation) is stretched 2 to 5 times to produce a film having a thickness of 10 to 200 μm, and the like. In addition, additives such as plasticizers for general resin molding may be added during kneading. The amount of pigment added varies depending on the absorption coefficient of the pigment, the thickness of the polymer formed body, the target's absorption strength, the target's transmission characteristics, and transmittance, etc. Generally, the weight relative to the base polymer formed body is 1 ppm ~ 20%. (2) The method of casting, first, dissolve the resin or resin monomer in an organic solvent to make a thick resin solution, then add and dissolve the pigment in the thick resin solution, and then add a plasticizer if necessary to compound Starter, oxygen-45-1225227 V. Description of the invention (44) Anti-chemical agent, and then flow it into the mold with the necessary surface state and the roller, and perform solvent evaporation and drying or compound solvent evaporation and drying. Made of plastic plate, polymer film. Commonly used are aliphatic ester resins, acrylic resins, melamine resins, urethane resins, aromatic ester resins, polycarbonate resins, aliphatic polyolefin resins, aromatic polyolefin resins, polyethylene resins, Polyvinyl alcohol resin, polyethylene modified resin (PVB, EV A, etc.) or copolymerized resin monomers of these resins. As the solvent system, halogen-based, alcohol-based, ketone-based, ester-based, aliphatic hydrocarbon-based, aromatic hydrocarbon-based, ether-based solvents or mixtures of these are used. The concentration of the pigment varies depending on the absorption coefficient of the pigment, the thickness of the plate or film, the target's absorption intensity, the target's transmission characteristics and transmittance, etc., but it is usually 1 ppm to 20% relative to the weight of the resin monomer. The resin concentration is usually 1 to 90% for the coating as a whole. The method of coating after coating (3) includes a method in which a pigment is dissolved in an adhesive resin and an organic solvent for coating, and the pigment is pulverized (50 to 500 nm) and dispersed in uncolored acrylic acid. Emulsion (acryi emu 1 si ο η) coating method to make acrylic emulsion water-based coatings 〇 The former method, usually using aliphatic ester resins, acrylic resins, melamine resins, urethane resins, aromatic Ester resins, polycarbonate resins, aliphatic polyolefin resins, aromatic polyolefin resins, polyethylene resins, polyvinyl alcohol resins, polyethylene modified trees -46-1225227 V. Description of the invention (45) Grease (PVB , EVA, etc.) or copolymer resins of these resins as adhesive resins. As the solvent system, halogen-based, alcohol-based, ketone-based, ester-based, aliphatic hydrocarbon-based, aromatic hydrocarbon-based, ether-based solvents, or a mixture of these are used. The concentration of the pigment varies depending on the absorption coefficient of the pigment, the coating thickness, the absorption intensity of the target, and the visible light transmittance of the target, etc., but the weight of the adhesive resin is usually 0.  1 ~ 30%. The concentration of the binder resin is generally 1 to 50% with respect to the entire paint. The latter acrylic emulsion-based water-based paint was obtained by finely pulverizing the pigment into fine particles of 50 to 500 μm in the same manner as described above and dispersing the pigment in an uncolored acrylic emulsion paint. Additives can also be added to paints as ordinary paints such as oxidation inhibitors. The coatings made by the above methods are bar coaters, blade coaters, spin coaters, reverse roll coaters, and die coaters. (die coater), spray (spray), and the like are conventionally known and applied to a transparent polymer film, transparent resin, transparent glass, or the like to produce a pigment-containing substrate. A protective layer is provided to protect the coating surface, and other constituent members of the electromagnetic wave shielding body may be pasted on the coating surface to protect the coating surface. Method (4) used as a pigment-containing adhesive material is to add 10 ppm to 30% to an acrylic adhesive, a polysiloxane adhesive, a urethane adhesive, polyethylene Polyvinyl Butyral Adhesive (PVB), Ethylene Vinyl Acetate Adhesive (EVA), etc., Polyvinyl Ether, Saturated Amorphous -47-1225227 5. Description of the Invention (46) Polyester, Melamine resin, etc. Used as a sheet or liquid adhesive or adhesive. In addition, in these methods, in order to improve the light resistance of the electromagnetic wave shielding body containing a pigment, they can also contain both an ultraviolet absorber and a pigment. The type and concentration of the ultraviolet absorber are not particularly limited. 6 · Transparent adhesive layer, conductive adhesive layer The paste (stacking) of the present invention is made by any transparent dry-bonding layer. The transparent adhesive layer (C) and the like of the present invention are layers made of any transparent adhesive, adhesive, or adhesive material. Specifically, an acrylic adhesive, a silicone adhesive, a urethane adhesive, a polyvinyl butyral adhesive (PVB), an ethylene-vinyl acetate adhesive ( EVA), etc., polyvinyl ether, saturated amorphous polyester, melamine resin, etc. At this time, it is important that the adhesive material used in the central portion of the transmission portion of the light emitted from the display must be sufficiently transparent to visible light. The conductive adhesive layer is an adhesive layer for electrically connecting the transparent conductive layer (D) and the ground portion (ground conductor) of the display device. It must be conductive, but not necessarily transparent. The electromagnetic wave shielding body, because the transparent conductive layer (D) must be electrically connected to the outside, the transparent adhesive layer must not significantly prevent the conductive adhesive layer from electrically connecting to the outside. That is, the transparent conductive layer (D) must have a conductive portion where a transparent adhesive layer is not formed. It is important that, for example, the transparent adhesive layer has a peripheral portion where the transparent conductive layer (D) remains, and a conductive portion remains. Conductive adhesive used for conductive adhesive layer, conductive adhesive -48-1225227 V. Description of the invention (47) Material is acrylic adhesive, silicon adhesive, urethane adhesive , Polyvinyl butyral adhesive (PVB), ethylene-vinyl acetate adhesive (EVA), etc., polyvinyl ether, saturated amorphous polyester, melamine resin, etc. as the base agent, carbon and copper (Cu), Metal particles such as nickel (Ni), silver (Ag), iron (Fe), etc. are formed as conductive particles dispersed in a base agent. If the dispersed particles have low conductivity and a small and large particle size, and a wide contact area of the particle group, a conductive adhesive and a conductive adhesive having a low volume intrinsic resistance are good adhesives and adhesives. The usable conductive adhesive and the volume resistivity of the conductive adhesive are 1X10-4 ~ 1 × 103Ω · cm. As long as it has practical bonding strength, it does not matter whether it is sheet or liquid. It is ideal to use a pressure-sensitive adhesive as a sheet-shaped adhesive material. After the sheet-shaped adhesive material is pasted or after the adhesive material is applied, the laminate is laminated to form the adhesive. The liquid adhesive is an adhesive that is hardened after being coated and bonded by being left at room temperature or being heated or irradiated with ultraviolet rays. Coating methods include screen printing, bar coating, reverse roll coating, gravure coating, die coating, and roll coating (r 〇π-coating). The kind, viscosity, coating amount, etc. are appropriately selected. Although the thickness of the layer is not particularly limited, considering the necessary conductivity, the volume inherent resistance is 0.5 μm to 50 μm, and preferably 1 μm to 30 μm. In addition, a commercially-available double-sided adhesive tape with both sides having conductivity can be used well. Although the thickness of this conductive tape is not particularly limited, it is several μιΏ ~ -49-1225227. V. Description of the invention (48) It is about several mm. As long as the bonding material has practical adhesive strength, it may be in a sheet or liquid form. However, it is a pressure-sensitive and sheet-shaped adhesive material that can be used well. After the sheet-shaped adhesive material is pasted or the adhesive material is applied, the respective members are stacked to form a line. The liquid bonding material is an adhesive that is hardened by being placed or heated at room temperature after being coated and bonded. The coating method includes methods such as bar coating, reverse light coating, gravure coating, die coating, and roll coating, and is appropriately selected in consideration of the type of the adhesive, viscosity, coating amount, and the like. Although the layer thickness is not particularly limited, it is 0. 5 μm to 50 μm, and 1 μm to 3 Ομιη is more preferable. The surface on which the transparent adhesive layer is to be formed, and the surface to be bonded are preferably subjected to easy adhesion treatment such as easy adhesion followed by corona discharge treatment to improve wettability. In addition, after the transparent adhesive layer is bonded, in order to escape the air that enters between the components during bonding, or solid-solve in the adhesive material, to further improve the adhesion between the components, it is important to pressurize if possible, Curing is performed under heating. At this time, the pressure condition coefficient is from about atmospheric pressure to less than 20 atmospheric pressure, and the heating conditions are determined by the heat resistance of each component and are about room temperature above 80 ° C, but they are not particularly limited by these conditions. At least one of the transparent adhesive layers can contain a pigment. 7. Functional transparent layer (A) The filter for display of the present invention, corresponding to the setting method of the display -50-1225227 V. Description of the invention (49) Method and required functions have hard coating, anti-reflection and anti-glare properties Any one or more of the functions of static prevention, antifouling, gas blocking, and low UV reduction, and the functional transparent layer (A) that transmits visible light is formed directly or through a second transparent adhesive layer on transparent On the conductive layer (D). A functional transparent layer (A) has many functions well. The functional transparent layer (A) of the present invention may be a functional film having more than one of the above functions, and may itself be a transparent substrate for forming a functional film by coating or printing or various known film-forming methods. It can also be a transparent base with various functions. In the case of a functional film, the transparent conductive layer (D) forming the functional transparent layer (A) is directly formed on the main surface by coating or printing or various known film forming methods. In the case of a transparent substrate forming a functional film and a transparent substrate having various functions, it may be pasted on the main surface of the transparent conductive layer (D) via an adhesive material or an adhesive material containing a pigment. These production methods are not particularly limited. The transparent base system is a transparent polymer film, and its type and thickness are not particularly limited. The transparent base can also contain a pigment. Functionality The transparent layer (A) can contain a pigment even if it is a functional film. The electromagnetic wave shielding system is required for the electrical connection between the transparent conductive layer (D) and the outside, and the functional transparent layer (A) must not hinder this electrical connection. In other words, there must be a conductive portion on the transparent conductive layer (D) where no functional transparent layer (A) is formed. For example, a functional transparent layer (A) remains on the peripheral portion of the transparent conductive layer, and the peripheral portion can be used as a conductive portion. -51- 1225227 5. Description of the invention (50) The display surface is difficult to see due to the reflection of lighting equipment, so the 'functional transparent layer (A) must have reflection prevention (AR: anti reflection) for suppressing external light reflection Either the anti-glare (AG: anti-glare) property or the anti-glare (ARAG) anti-glare property with these two characteristics. If the visible light reflectance on the surface of the electromagnetic wave shielding body is low, as described above, the external light can be reduced to reflect or reflect from the plasma display, which not only prevents reflection, but also improves the tone and color purity. . The functional transparent layer (A) having anti-reflection (AR) properties takes into consideration the optical characteristics of the substrate forming the anti-reflection film, and determines the constituent elements of the anti-reflection film and the thickness of each constituent by optical design. Specifically, the refractive index is 1.  5 or less, preferably 1-4 or less, low-fluoride transparent polymer resin or magnesium fluoride, polysiloxane resin, and silicon oxide film, etc. to form a single-layer film with an optical thickness of 1/4 wavelength, and then from Based on the substrate, thin films of inorganic compounds such as metal oxides, fluorides, silicides, borides, carbides, nitrides, sulfides, or organic compounds such as silicon-based resins and acrylic resins and fluorine-based resins with different refractive indexes are increased. The refractive index layer and the low refractive index layer are sequentially stacked above the rain layer. Although a single-layer film is easy to manufacture, its anti-reflection property is inferior to that of two or more layers. The four-layer film has anti-reflection ability for a wide wavelength range, and the optical design is less limited by the optical characteristics of the substrate. The film formation of these inorganic compound films can be performed by any of the methods known in the art such as sputtering, ion plating, vacuum evaporation, and wet coating. The film formation of organic compound film can be applied by bar coating, reverse roll coating, according to -52-1225227. V. Description of the invention (51) Wet coating by gravure coating, die coating, roll coating, etc. Methods and other methods known in the past. The visible light reflectance of the surface of the functional transparent layer (U) with anti-reflection property is 2% or less, preferably 1. 3% or less, and 0. Below 8% is better. The functional transparent layer (A) with anti-glare property (AG) means that it has 0 to visible light.  Ιμπι ～ ΙΟμίΏ Transparent layer with slight uneven surface state. Specifically, a thermosetting or light-curing resin such as an acrylic resin, a polysiloxane resin, a melamine resin, a urethane resin, an alkyd resin, or a fluorine resin is used to oxidize the resin. Silicon (S i 1 ica), organic silicon compound, melamine, acrylate and other inorganic or organic compound particles dispersed, ink after the thing, by rod coating, reverse roll coating, gravure coating, die coating, roll Apply by coating, etc., and harden on the substrate. The average particle diameter of the particles is 1 to 40 μm. Alternatively, a thermosetting or light curing resin such as acrylic resin, polysiloxane resin, melamine resin, urethane resin, alkyd resin, fluorine resin, etc. is coated on the substrate, and then squeeze-hardened By forming a shape having a desired haze or surface state, anti-glare properties can also be obtained. It is important to have appropriate bumps and not be limited to the methods described above. The anti-glare haze is 0.  5% or more and 20% or less, preferably 1% or more and 10% or less. If the haze is too small, the anti-glare property will be insufficient, and if the haze is too large, the transmittance of the parallel light will decrease, and the visibility of the display will be poor. -53- 1225227 5. Description of the invention (52) The functional transparent layer (A) with anti-glare anti-glare (ARAG) is obtained by forming the aforementioned anti-reflective film on a film or substrate with anti-glare properties. In this case, if the anti-glare film is a high-refractive-index film, even if the anti-reflection film is a single-layer film, high anti-reflection properties can be imparted. The reflection prevention performed by AR or ARAG can improve the light transmittance of a filter for a display. Since the filter for the display of the present invention is adhered to the display portion of the display via the transparent adhesive layer (C), the substrate glass reflection on the surface of the display portion disappears. Therefore, especially those who form a functional transparent layer (A) having an AR or ARAG function have a low reflection on the surface, thereby improving the tone and color purity of the display. The visible light reflectance on the surface of the functional transparent layer (A) with AR or ARAG function is below 2%, preferably 1.  3% or less, and 0.  Below 8% is better. In order to add abrasion resistance to the display filter, it is preferable that the functional transparent layer (A) also has a hard coat property. The hard coating film includes heat-curable or light-curable resins such as acrylic resin, polysiloxane resin, melamine resin, urethane resin, alkyd resin, fluorine resin, etc. The formation method is not particularly limited. The thickness of these films is about 1 to 100 μL. The hard coating film is used for a high refractive index layer or a low refractive index layer of a functional transparent layer (A) having antireflection properties, and an antireflection film may be formed on the hard coating film so that the functional transparent layer (A) has Both anti-reflection and hard coating properties. Similarly, it can be both anti-glare and hard-coat rain. This feeling. Shape, the hard coating film only needs to have -54- 1225227 according to the dispersion of the particles, etc. 5. The invention description (53) can be uneven, and even if the antireflection film is formed again, it can have both antireflection and antiglare properties. Functional transparent layer (A) with both hard coating properties. The surface hardness of the functional transparent layer (A) having a hard coating property is at least 11, preferably 211, and more preferably 311 or more in accordance with the pencil hardness of 113 (1 [-5400). In addition, the filter for a display is liable to attach dust due to electrostatic charging, and there is a possibility of receiving an electric shock due to electric discharge when the human body comes in contact with it. Therefore, it is necessary to perform a charging prevention treatment. The functional transparent layer (A) may be made conductive in order to impart antistatic ability. In this case, the necessary conductivity is only required if the surface resistance is below 1 011 Ω / □, but the transparency and resolution of the display surface of the display must not be impaired. The conductive layer includes a well-known transparent conductive film including ITO, ultrafine particles of ITO, and conductive films including conductive ultrafine particles such as tin oxide ultrafine particles. In addition, it is preferable that the layer constituting the functional transparent layer (A) having any one or more functions of the aforementioned anti-reflection properties, anti-glare properties, anti-glare properties for reflection prevention, and hard film properties has conductivity. In addition, when silver is used in multilayer films, silver lacks chemical and physical stability, and will be degraded by environmental pollutants, water vapor, etc., causing condensation and whitening. Therefore, it is important to use transparent conductive laminates. The film forming surface of the body is covered with a functional transparent layer (A) having a gas-barrier property, so that the film is not contaminated with pollutants and water vapor in the use environment. The necessary gas shielding property is that the moisture permeability is 10g / m2 -55-1225227. V. Description of the invention (54) • The following. Specific examples of the film having a gas-barrier property include silicon oxide, oxidized bromide, 'tin oxide', Xinghua marriage ', yttrium oxide, magnesium oxide, etc., or a mixture of these, or adding trace amounts of other elements to these oxide In addition to polyvinyl chloride, metal oxide films and acrylic resins, silicone resins, melamine resins, urethane resins, fluorine resins, etc. It is limited to these. The thickness of these films is about 10 to 200 nm in the case of a metal oxide thin film, and about 1 to 100 μm in the case of a resin, and it may be a single layer or multiple layers, but it is not particularly limited. In addition, polymer films with low water vapor permeability include polyethylene, polypropylene, nylon, polyvinylidene chloride, vinylidene chloride and vinyl chloride, vinylidene chloride and acrylonitrile (ac ry 1 oni tri 1 e ) Copolymers, fluororesins, etc., but the moisture permeability is not particularly limited as long as it is 10 g / m2 · day or less. Even if the moisture permeability is relatively high, you can reduce the moisture permeability by increasing the thickness of the film and adding appropriate additives. In addition, the composition has any of the aforementioned anti-reflection properties, anti-glare properties, anti-reflective properties, anti-charge properties, anti-Newton ring liquid (&111; 1-N eut ο η sring) properties, and hard coating properties. The layer of the functional transparent layer (A) having the above functions is preferably a film having a gas-barrier property, or the whole or together with an adjacent transparent adhesive layer can be made to have the gas-barrier property described above. For example, the functional transparent layer (A) with anti-reflection, hard-coating, anti-charging, and gas-barrier properties containing pigments includes poly-p-phenylene-56-1225227. 5. Description of the invention (55) Ethylene diformate Alcohol ester / hard coating film / I TO / Si compound / I TO / Si compound. In addition, it has anti-glare anti-reflective properties, hard coat properties, anti-charge properties, and gas-blocking transparent layers (A) including triethyl cellulose / ITO microparticle-dispersed hard coating films / silicon-containing compounds and the like. Furthermore, it is preferable that the surface of the functional transparent layer (A) has antifouling properties, prevents contamination of fingerprints, etc., and can be easily removed when contaminated. Antifouling substances include those that are non-wet to water and / or grease; for example, compounds that use fluoride and silicon compounds with other functions such as antireflection and antistatic properties must not interfere with these functions. In this case, by using a constituent material of an antireflection film with a low refractive index and coating 1 to several molecules of fluorine-based organic molecules on the outermost surface, it is possible to impart antifouling in addition to maintaining antireflection and antistatic properties. Sex. For example, functional transparent layer (A) with antifouling, anti-reflection, hard-coating, anti-charge, and gas-barrier properties includes hard-coating film / IT0 / silicon-containing compound / IT0 / silicon-containing compound / fluorine Single molecule coatings of organic molecules. In particular, in order to prevent the pigment containing electromagnetic wave shielding body from being deteriorated by ultraviolet rays radiated from the monitor or ultraviolet rays containing external light, the functional transparent layer (A) should preferably have a low ultraviolet reducing property. For example, an antireflection film made of a single layer or multiple layers of an inorganic thin film that absorbs ultraviolet rays, or a base material formed of a functional transparent film containing an ultraviolet absorber, and a functional transparent layer (A) having a hard coating film. The type and concentration of the UV absorber are not special -57-1225227 V. Description of the invention (56) Do not limit. In addition, at least one of the 'transparent adhesive layers' may contain an ultraviolet absorbent. The UV-reducing member must be disposed between the UV-incident surface and the pigment-containing layer. The UV-reducing property varies depending on the durability of the pigment, and is not particularly limited. 8 . The thickness is based on the "Adhesion Dictionary (Japan Asakura Bookstore)", which describes the relationship between the thickness of the support and the adhesive force. "Generally, when the thickness of the support is large, the bending energy increases, and the adhesive force increases However, when it is increased to a certain point, the adhesive force is reduced due to the influence of bending moment (moment) and the like. " The inventors have found that if the overall thickness of the transparent polymer film exceeds 0.  When it is 3 mm or more, it is easy to peel off from the glass surface of the optical filter film. The rigidity of the optical filter film is mainly dominated by the total thickness of the transparent polymer film. Therefore, the effect of the present invention is estimated based on the effect of the above-mentioned bending moment. In addition, by increasing the rigidity of the optical filter film, it can be peeled continuously with an average force, and there is less sticking to the glass plate with the peeling break point as a starting point. Furthermore, by increasing the total thickness of the transparent polymer film, the impact resistance can be improved. The larger the total thickness of the transparent polymer film, the more the impact resistance is improved, but the number of stacked films is increased, which reduces the production efficiency. In addition, the rigidity is greatly increased, which makes it difficult to directly attach to the display. Therefore, the total thickness of the transparent polymer film is not particularly specified, but preferably -58- 1225227 V. Description of the invention (57) is 0. 3 ~ 1. 0mm, while 0. 4mm ~ 0. 8_ is better. In addition, the number of sheets of the transparent polymer film is not particularly limited, but it is preferably two to six, and more preferably two to four. Figures 12 to 17 are cross-sectional views showing examples of the configuration of a filter for a display according to the present invention. In Figure 12, the transparent adhesive layer 30, a transparent polymer film (B) 2 3 (150 μm) with a near-infrared shielding function, and the transparent adhesive layer 30, a functional transparent layer exhibiting a reflection prevention function The transparent polymer film (B) 24 (188 μπ0) of (A) is sequentially stacked to form a filter for a display. In FIG. 13, the transparent adhesive layer 30 and the transparent polymer film (B) for padding 2 5 (200 μm), transparent adhesive layer 30, transparent polymer film (B) with near-infrared shielding function 2 3 (75 μm), transparent adhesive layer 30, functional transparent layer (A) with anti-reflection function The transparent polymer film (B) 24 (80 μm) is sequentially stacked to form a filter for a display. In Fig. 14, the transparent adhesive layer 30 is a transparent polymer film (B) with a near-infrared shielding function. 23 (75 μπι), transparent adhesive layer 30, transparent polymer film (B) 2 5 (200 μιη) for padding, transparent adhesive layer 30, transparent of functional transparent layer (A) having anti-reflection function A polymer film (B) 24 (80 μηι) is sequentially stacked to form a filter for a display. On the 15th figure, it is transparent and sticky Coupling layer 30, transparent polymer film (B) 25 (200 μm) for padding, transparent adhesive layer 30, a functional transparent layer (A) having a function of preventing reflection and a transparent polymer having an infrared shielding function The film (B) 26 (150 μm) is sequentially stacked to form a filter for a display. -59- 1225227 V. Description of the invention (58) On the 16th figure, the transparent adhesive layer 30 is used, and the pad height is used for the transparent high Molecular film (B) 25 (200 μηι), transparent adhesive layer 30, transparent polymer film (B) 23 (75 μπ〇), transparent conductive film (D) having a function of shielding electromagnetic waves, transparent adhesive layer 30, having The transparent polymer film (B) 24 (150 μπο) of the functional transparent layer (A) showing anti-glare function is sequentially stacked, and an electrode 50 is formed on the transparent polymer film 23 to constitute a filter for a display. In Figure 17, a transparent adhesive layer 30, a transparent polymer film (B) 25 (200 μm) for padding, a transparent adhesive layer 30, a functional transparent layer having a function of preventing reflection and a display of electromagnetic waves The transparent polymer film (B) 26 (188 μιη) of the transparent conductive layer (D) of the shielding function is sequentially stacked, and the other is transparent. Electrodes 50 are formed on the polymer films 25 and 26 to constitute a filter for a display. Fig. 18 is a view showing the structure of a transparent polymer film (B) 23 showing the electromagnetic wave shielding function shown in Fig. 16 A cross-sectional view. A transparent conductive layer (D) 10 showing an electromagnetic wave shielding function is formed on a polymer film (B) 20, and a transparent conductive layer (D) 1 0 is a transparent thin film layer (D t) of high refractive index 1 1 and a metal thin film layer (Dni) 12 made of silver or a silver alloy are stacked in the order of D t / Dm / D t / Dm / D t. The transparent adhesive layer 30 is provided on the inside of the burner and can be adhered to the display surface of the display. Fig. 19 is a sectional view showing the structure of a transparent polymer film (B) 26 showing the electromagnetic wave shielding function shown in Fig. 17. The transparent conductive layer (D) 10 showing the electromagnetic wave shielding function is formed on the polymer film (b) 20. The transparent conductive layer (D) 1 0 is a high-refractive transparent thin film layer (dt) 1 1 and silver-60-1225227 V. Description of the invention (59) or silver alloy as the metal thin film layer (Dm) 1 2 is stacked in the order of Dt / Dm / Dt / Dm / Dt / Dm / Dt. An antireflection film 61 is provided on the opposite surface of the polymer film (B) 20 as a functional transparent layer (A). The transparent adhesive layer 30 is provided inside the filter and can be adhered to the display surface of the display. Figure 20 is a plan view of the display filter shown in Figure 16 or Figure 17. The plane shape of the filter is rectangular, and the image displayed on the display is viewed through the center of the filter. An electrode 50 electrically connected to the transparent conductive layer is formed on the peripheral portion including the long side and the short side of the filter, and the electrode 50 is connected to the ground terminal of the display. 9 . Electrodes Electromagnetically shielded machines. A metal layer is placed inside the machine's case, or the case uses a conductive material to block the radio waves. If transparency such as the display surface of a display is required, a window-type electromagnetic wave shielding body forming a transparent conductive layer is provided. After electromagnetic waves are absorbed on the conductive layer, electric charges are generated. Therefore, if the electric charges are not lost by grounding, the electromagnetic wave shielding body will become an antenna to oscillate the electromagnetic waves and reduce the electromagnetic wave shielding ability. Therefore, the grounding part of the electromagnetic wave shielding body and the display body must be electrically connected. Therefore, as shown in FIG. 3, if the transparent adhesive layer (C) and the functional transparent layer (A) are formed on the transparent conductive layer (D), the transparent adhesive layer (c) and the function The transparent transparent layer (A) preferably has a conductive portion on the transparent conductive layer (D). The shape of the conductive portion is not particularly limited, but it is important that it is in the electromagnetic wave-61-1225227. 5. Description of the invention (6) The shield There must be no leakage gap between electromagnetic waves and the display body. The electrode of the present invention refers to a conducting portion where the electromagnetic wave shielding body is electrically connected to an external line. The conductive portion may be an exposed portion of the transparent conductive layer, or a conductive metal paste may be printed on the exposed portion for protection and good electrical contact, or a conductive tape, a conductive adhesive, etc. Conductive material. Alternatively, the functional transparent layer may be formed to be electrically connected to the transparent conductive layer. As described above, the shape and material of the electrode are not particularly limited, but it is preferable to form the electrode such that the exposed portion of the transparent conductive layer is covered with a conductive material. In addition, the electrode of the present invention can also be produced by contacting a conductive material with a fractured portion of the film of the present invention containing a transparent conductive layer. The so-called broken surface, at least the transparent conductive layer of the film containing the transparent conductive layer can be observed to form a transparent conductive layer and the protective film is formed into a layer, but as long as the transparent conductive layer and the broken surface are contacted with an appropriate conductive material , You can get the desired electrode. In this case, if the end portion of the transparent adhesive layer formed on the transparent conductive layer is more retracted inside than the end portion of the transparent conductive layer, it is good that the conductive paste enters the electrode if a conductive paste is used to form the electrode. The gap portion increases the contact area between the transparent conductive layer and the electrode. Figs. 21 to 25 are cross-sectional views showing a configuration example of a display filter according to the present invention. In Figure 21, the transparent adhesive layer 30, the transparent polymer film (B) 2 3, and the transparent conductive layer (D) 10 are anti-glare films of functional transparent layer (A) -62- 1225227 5. Description of the invention (61) 71 is sequentially stacked, and an electrode 50 is formed on the transparent conductive layer (D) 10 to form a filter for a display. In Fig. 22, from the outside air side to the display side, an anti-glare film 71, a functional transparent layer (A), a transparent polymer film (B) 2 3, and a transparent conductive layer (D) 10 are sequentially The electrodes are stacked on the periphery of the transparent conductive layer (D) 10. A transparent adhesive layer 30 is provided on the central portion of the transparent conductive layer (D) 10 except for the electrode 50, so that the transparent conductive layer (D) 10 can be adhered to the display surface of the display. In Fig. 23, the transparent adhesive layer 30, the transparent polymer film (B) 2 3, and the transparent conductive layer (D) 1 0 are anti-glare films 7 1 which are functional transparent layers (A). An electrode 50 is formed on the side end surface of the laminated body to form a lamination device for a display. In Fig. 24, the transparent adhesive layer 30, the transparent conductive layer (D) 10, and the transparent polymer film (B) 23 are anti-glare films 71 which are functional transparent layers (A), and are sequentially stacked, and Between the transparent adhesive layer 30 and the transparent conductive layer (D) 10, a conductive tape 5 having a copper tape or the like is inserted into the peripheral portion of the filter to ensure electrical connection with the transparent conductive layer (D) 10. . In FIG. 25, the transparent adhesive layer 30, the transparent conductive layer (D) 10, and the transparent polymer film (B) 2 3 are sequentially laminated anti-glare films 71 which are functional transparent layers (A). A through-hole electrode 52 ′ is formed in the thickness direction of the filter to ensure the electrical connection of the transparent conductive layer (D) 10. Fig. 26 is a plan view of a filter for a display device shown in Figs. 21 to 25; The plane shape of the filter is rectangular, which is displayed on the display -63- 1225227 V. Description of the invention (62) The image is viewed at the center of the transparent filter. On the two long sides of the filter, there are provided electrodes 50, a conductive tape 51 or a through-hole electrode 52, which are electrically connected to the transparent conductive layer, and these electrodes are connected to the ground terminal of the display. In addition, as a matter of course, the electrodes of the display filter shown in Figs. 21 to 25 can also be made, and as shown in the plan view of Fig. 20, arranged along the entire circumference of the filter. As shown in FIG. 24, a conductive tape such as a copper tape can also be inserted between the transparent conductive layer and the transparent adhesive layer bonded thereon, and a part of the conductive tape can be led out of the electromagnetic wave shielding body to form an electrode. . In this case, the external conductive tape system is substantially used as an electrode. As shown in FIG. 25, a gap may be provided from the transparent conductive layer to the outermost surface of the electromagnetic wave shielding body to form an electrode. The shape of the gap that can be seen from the surface is not particularly specified, and both round and angular shapes are acceptable. In addition, the formation of a line shape is not a problem. The size of each gap that can be seen from the surface is not specified. However, if it is too large, it will not meet the visual recognition part. The formation position of the gap is not particularly specified as long as it avoids the visual recognition part. Must be located near the end. The number of gaps to be formed is not particularly limited, but it is preferable to set as many as possible along the entire circumference to improve the efficiency of current extraction. The gap may be provided between the transparent conductive layer and the outermost surface of the electromagnetic wave shielding body, but it is preferable to penetrate the transparent conductive layer (D) from the viewpoint of increasing the contact area with the formed electrode. There is no special designation regarding the buried gap. It can be buried with a metal member 'or it can be buried with a conductive paste. In this case, the part where the gap is buried -64- 1225227 V. Description of the invention (63) The material system essentially becomes an electrode. The conductive portion is preferably provided continuously on the peripheral portion of the transparent conductive layer (D). That is, it is preferable to provide a frame-shaped conductive portion other than the central portion of the display portion belonging to the display. However, even if the conductive portion is not formed on the entire circumference of the transparent conductive layer (D), it has a certain electromagnetic wave shielding ability. Therefore, considering the amount of electromagnetic waves generated from the device and the amount of allowed electromagnetic wave leakage, it can be used as it is. less. For example, if a conductive material is applied to the opposite sides of a rectangle to form an electrode, an electrode can be formed by a roll-to-roll method, or an electrode in a roll-like state can be formed, so the optical can be produced with very good production efficiency. Filters are ideal. In addition, this method can also be applied to the case where the conductive tape is used as an electrode. There is no particular problem even if another electrode is formed on a portion other than the opposite sides of the rectangle, or a portion where no electrodes are formed on one of the opposite sides. The electrode covering the conductive portion also serves as a protection for the transparent conductive layer (D), which has poor environmental resistance and scratch resistance. The material used for the electrode considers the conductivity, corrosion resistance, and adhesion to the transparent conductive film, etc., and can use single or two or more monomers such as silver, gold, copper, platinum, nickel, aluminum, chromium, iron, zinc, and carbon. The prepared alloy, a synthetic resin, and a mixture of these monomers or alloys' or a paste made of a borosilicate (b ο 1 · si 1 icate) glass and a mixture of these monomers or alloys. The method of forming the electrode can be electroplating, -65-1225227 V. Description of the invention (64) Vacuum evaporation method, sputtering method, etc. As for the pasting method, printing, coating method and other known methods can be used. . The conductive material used is not particularly specified as long as it can conduct electricity. Usually, a conductive material such as a silver paste is used as a paste. If the electrode is formed in a paste form, it is applied to the section and dried. The conductive material can also be applied to the side of the roll-shaped film. In the case of roll-to-roll, it can be applied to the side when the film is spread. In addition, a strip-shaped conductive material can also be used. In addition, a transparent polymer film of a transparent conductive thin film layer formed on a transparent support substrate can also be bonded and applied to a fractured surface. In the coating method, the screen printing method is often used from the viewpoint of efficiency and accuracy. In addition, in the case where the gap is formed by the metal member to form an electrode, the electromagnetic shielding body itself may not be processed in advance. As long as a metal grounding part with a shaped screw hole is provided on the outer periphery of the display device in advance, the electromagnetic wave shielding body is pasted on the display part of the display device, including the metallic grounding part, and then the electromagnetic wave shielding body is penetrated, and then The conductive screw can be buried in the screw hole of the metal ground part. In this case, the conductive screw acts essentially as an electrode. With this method, the roll-to-roll method can be used not only to produce the electromagnetic wave shielding body with high productivity, but also to easily form electrodes on the entire periphery of the electromagnetic wave shielding body. 1 0. Electromagnetic wave shielding In order to limit the electricity leaked from the electromagnetic wave shielding body and the display device -66- 1225227 V. Description of the invention (65) The minimum amount of magnetic waves is to minimize the insulation space between the conductive layer of the electromagnetic wave shielding body and the display device. The disadvantage is that if air and other insulation are present in the gap, electromagnetic waves will leak from there to the outside. In the past, when a transparent conductive film was bonded to a supporting substrate to make an electromagnetic wave shielding body, a supporting substrate mainly composed of an insulator exists between the transparent conductive layer and the display device. If there is no edge between the transparent conductive layer and the display device, If it is contacted all the time to maintain conductivity, a sufficient electromagnetic wave blocking effect cannot be obtained. Therefore, in the manufacturing process of the electromagnetic wave shielding body, a step of pasting the film on the transparent support substrate one by one and a step of forming an electrode on the entire peripheral portion by the film are needed. In the present invention, when the electromagnetic wave shielding body in a thin film state is directly attached to a display device, the distance between the conductive layer and the display device is very close, compared with the previous method, the insulation space can be greatly narrowed, even if it is not The formation of an electrode on the peripheral portion is also ideal because it can fully obtain the electromagnetic wave blocking effect. In this case, the case where the transparent conductive layer of the electromagnetic wave shielding body is formed on the display device side is particularly remarkable. That is, a sufficient electromagnetic wave blocking effect can be obtained by forming electrodes only on the two long sides of the rectangle. In this case, the manufacturing method can be a highly productive roll-to-roll method, which is very desirable. 11. Display device and manufacturing method thereof The display device of the present invention includes a filter for a display which functions as an electromagnetic wave shielding body and / or a light control film adhered to a display portion of the device. The electromagnetic wave shielding system is in electrical contact with the display device. -67- 1225227 V. Description of the invention (66) The method of the display device related to the present invention mainly includes the following (丨) ~ (100) methods, but is not limited to these methods. Method U) ·· Functional transparent layer (A) and conductive portion (and electrode) / transparent conductive layer (D) / polymer film (B) (and hard coat layer (F)) / transparent adhesive layer (C ), Or functional transparent layer (A) and conductive portion (and electrode) / transparent adhesive layer (C) / transparent conductive layer (D) / polymer film (B) (and hard coat layer (F)) / transparent The electromagnetic wave shielding body of the present invention with the adhesive layer (C) is bonded on the display portion of the display with the transparent adhesive layer (C) as the bonding surface. After the bonding, the conductive part of the electromagnetic shielding body of the present invention or the electrode formed on the conductive part, the conductive part or the conductive part of the display device is formed by a conductive tape, a conductive adhesive, a conductive paint, or a conductive molded part. That is, the electrical connection of the grounding section. Method (2): A laminated body composed of a transparent conductive layer (D) / polymer film (B) (and a hard coat layer (F)) / a transparent adhesive layer (C) in order is a transparent adhesive layer (C) As the bonding surface, it is bonded to the display part of the display. After the bonding, the conductive part is left on the transparent conductive layer (D), and the functional transparent layer (A) is formed directly or through the transparent adhesive layer (c). A conductive tape, a conductive adhesive, a conductive coating, or a conductive molded part electrically connects the conductive portion of the laminated body and the conductive portion of the display body, that is, the ground portion. Method (3): coating or bonding the transparent adhesive layer (C) on the display portion of the display device, the functional transparent layer (A) and the conductive portion (and electrode) / transparent conductive layer (D) / polymer film (B) (and hard coat layer (F)) The laminated body is formed by using polymer film (B) as the bonding surface, and the conductivity is bonded after bonding. -68-1225227 V. Description of the invention (67) Or a conductive adhesive, a conductive paint, or a conductive molded part electrically connects the conductive part of the integrated layer and the conductive part of the display device body, that is, the ground part. Method (4) ·· Coating or bonding the transparent adhesive layer (C) to the display portion of the display device, and applying the transparent conductive layer (D) / polymer film (B) (and the hard coat layer (F)) The transparent laminated body composed of the sequence is bonded with the polymer film (B) as the bonding surface. After bonding, the transparent conductive layer (D) is used to form a functional layer directly or through a second transparent adhesive layer except for the remaining conductive portion. The transparent layer electrically connects the conductive portion of the laminated body and the conductive portion of the display body, that is, the grounding portion, by a conductive tape or a conductive adhesive or a conductive paint or a conductive molded part. Method (5) ·· A magnetic wave shielding body made of a functional transparent layer (A) / polymer film (B) / transparent conductive layer (D) / transparent adhesive layer (C) and a conductive adhesive layer is used to: The transparent adhesive layer (C) is an adhesive surface that is attached to at least the display portion of the display device, and a conductive adhesive layer is used to attach at least to the ground portion of the display device. Method (6): at least the display portion of the display, or at least the transparent conductive layer (D) of the transparent conductive layer (D) / polymer film (b) / functional transparent layer (a) in order A transparent adhesive layer (C) 'is formed on the light-transmitting portion on the top surface of the display device. In addition, a conductive adhesive layer is formed on at least the ground portion of the display device or the conductive layer (D) of the laminated body. Body and display device fit together. $ & (7): The functional transparent layer (A) / polymer film (B) / transparent-69-1225227 V. Description of the invention (68) Ming conductive layer (D) / transparent adhesive layer (c) and A conductive adhesive layer is formed, and an electromagnetic wave shielding body, which is a part of a conductive tape such as a copper tape, is inserted between the transparent conductive layer (D) and the polymer film (B) on the end portion, and the transparent adhesive layer is used. (C) is a bonding surface that is bonded to at least the display portion of the display device, and that the external exposed portion of the conductive tape is bonded to at least the ground portion of the display device. Method (8): forming at least the display portion of the display device, or at least the transparent conductive layer (D) / polymer film (B) / functional transparent layer (A) in sequence, 'on the end portion on the transparent conductive layer ( D) A transparent adhesive layer (C) is formed on the transparent part of the transparent conductive layer (D) of the laminated body in which a part of a conductive tape such as a copper tape is interposed between the polymer film (B) and the polymer film (B). After the conductive adhesive layer is formed on at least a ground portion of the display device or the transparent conductive layer (D) of the multilayer body, the multilayer body and the display device are bonded together. The electromagnetic wave shielding body of the present invention has excellent transmission characteristics, transmittance, and visible light reflectance. Therefore, it does not significantly damage the brightness of the plasma display because it is formed on the plasma display, but can improve its color purity and tone. . In particular, the excellent blocking ability of so-called electromagnetic waves that are harmful to human health generated by the plasma display is excellent. In addition, the near-infrared rays near the 800 to 1 100 nm generated by the plasma display can be effectively reduced, so The wavelengths used for remote control of electronic equipment, optical communication of transmission systems, etc. will not have an adverse effect, so that the malfunction of these machines can be prevented. In addition, it has excellent weather resistance and environmental resistance, and has both anti-reflection and / or anti-glare properties, scratch resistance, anti-fouling properties, and anti-charge properties, and can be provided at a low cost. With the electromagnetic wave shielding body of the present invention, it is possible to provide a plasma display having the excellent characteristics of -70-1225227 V. Invention Description (69). The electromagnetic wave shielding body of the present invention has excellent optical characteristics, electromagnetic wave shielding ability, and near-infrared light reduction ability. Therefore, it can be used not only in a plasma display, but also in a FED that generates electromagnetic waves and / or near-infrared rays. Field emission display), CRT (cathode ray tube) and other displays. As for the method of manufacturing a display device having a dimming film, there are mainly two methods described below, but they are not limited to these two methods. Method (9): At least a functional transparent layer (A) / polymer film (B) / the light modulating film of the present invention which is a transparent adhesive layer (C), and the transparent adhesive layer (C) is used as a bonding surface Laminated on at least the display portion of the display device. Method (10): forming a transparent adhesive layer (C) on at least a display portion of a display device, and a polymer film (B) of a laminated body composed of at least a transparent conductive layer (D) / polymer film (B) in order The) surface is bonded to the display device. The light-adjusting film of the present invention is excellent in transmission characteristics, transmittance, and reflection characteristics. Therefore, the brightness of the display is not significantly damaged by directly forming the display portion of the display such as a color plasma display, and the color of the display can be improved Purity and tone. In addition, it has both scratch resistance, antifouling properties, and antistatic properties, and can be provided at low cost. In addition, the light-adjusting film of the present invention is formed directly on the display surface, thereby providing a display device having excellent characteristics. (Embodiments) The present invention will be described more specifically with reference to the following examples. However, the present invention is not -7 1-1225227 5. The invention description (70) does not limit these embodiments. The thin film constituting the transparent conductive layer (D) in the embodiment is formed on the main surface on one side of the substrate by a magnetron direct current (DC) sputtering method. The thickness of the thin film is determined based on the film formation conditions, and is not the actual measured film thickness. The high-refractive-index transparent thin film layer (D t) is formed of an I TO thin film, and the target film is made of an indium oxide / tin oxide sintered body (composition ratio ln 2 0 3: SnO2 = 90: 10wt%) or tin oxide. Bulk, sputtering gas system uses argon. An oxygen mixed gas (total pressure: 266 mP a: oxygen partial pressure: 5 mPa) was used to form a film. The metal thin film layer (Dm) is formed by a silver thin film or a silver-palladium alloy thin film. The target is silver or a silver-palladium alloy (palladium 10 w t%), and the sputtering gas is argon (full pressure 266mPa) to form a film. . In addition, the surface resistance of the transparent conductive layer is measured by a four-probe measurement method (probe spacing is 1 mm). In addition, the visible light reflectance (R vis) on the surface is first cut out a small edge of the measurement object, removing the transparent adhesive layer, and then roughening the surface of the polymer film (B) side with sandpaper to eliminate gloss and spray. Black makes this surface non-reflective. Measure the total light reflectance in the visible field by using a spectrophotometer (U- 3 400) manufactured by (Company) Hitachi, Ltd. using a reflection integrating sphere (light incident angle 6 °). 106 Calculated from the measured reflectance. (Example 1) A biaxial (orientation) stretched polyethylene terephthalate (hereinafter referred to as -72-1225227) V. Description of the invention (71) is a PET film (thickness: 188 μm) as a polymer film (A), I TO film (film thickness, silver film (film thickness: 1 lnm)), IT0 film (film thickness: 95nm) film (film thickness: 14nm) are sequentially stacked on the main surface of PET from PET film. , IT0 thin film (film thickness: 90nm), silver thin thickness: 12nm), IT0 thin film (film thickness: 40ηπι) counts 7 layers, so that it has a sheet resistance of 2. 2Ω / □ Transparent laminated body with transparent guide 1 A cross-sectional view showing an example of the molecular film (B) / transparent conductive layer (D) of the present invention is taken as a cross-section of the PTE film / transparent conductive layer. In Figure 1, symbol 10 is a transparent conductive layer (D), symbol is a high refractive index transparent thin film layer (Dt), symbol 12 is a gold I layer (Dm), and symbol 20 is a high Molecular film (B). The organic pigment is dispersed and dissolved in a solvent of ethyl acetate / toluene (5 05 Owt%) to serve as a diluent for an acrylic adhesive. The enoic acid-based adhesive / pigment is mixed with a diluent (80: 20wt%), and a cloth machine (comma coateO is applied to the surface of the polymer film of the transparent laminated body 1 to apply a dry film thickness of 25 μm, and then dried and bonded. ® Separated film, thus forming a transparent adhesive layer (C) (adhesive 1) sandwiched between the isolating film and the transparent polymer film (B). The refractive index of the adhesive 1 is 1 .  5 1. The extinction coefficient is 0. Organic pigments are pigments made by Mitsui Chemicals, PD-319, which have unnecessary light-emitting parts that have the maximum absorption of wavelengths of 5 9 5 nm. Plasma displays. The chromaticity side: 40 nm), the silver thin film (film i is conductive [layer (B) is in No. 1 1 1 Shu film mixed with acrylic dot coating (B) side, superimposed on the laminated body. Furthermore. Absorption (Company) Mitsui-73-1225227 5. Description of the invention (72) Red pigment PS-Red-G made by Chemical (Company), and then adjust acrylic adhesive / pigment into the diluent to make the adhesive after drying. Material 1 contains 1150 (wt) ppm and 1050 (wt) ppm, respectively; further, PD-319 is a tetra-third-butyl-tetraazaporphyrin vanadium (vanady 1) represented by the following formula (3) Coordination compound.

(3) Add a photopolymerization initiator to a multifunctional methacrylate resin on the main surface of one side of the triethyl cellulose (TAC) film (thickness: 80 μηι), and apply it by photogravure The coating liquid containing the dispersed I TO fine particles (average particle diameter: 10 nm) is applied by a machine, and then a conductive hard coating film (film thickness: 3 μιη) is formed by ultraviolet curing, and then coated by a microphotographic gravure plate. The cloth machine was coated with a fluorinated organic compound solution, and then dried at 90 ° C, and then heat-hardened to form an antireflection film (film thickness: 100 nm) with a refractive index of 1.4. (NSK5 400 prescribed pencil hardness: 2H), gas-blocking property (ASTM-E96 standard '1.8g / m2 · day), anti-reflection property (Rvis on surface: 1.0%), anti-charge property (area resistance: 7 × 109Ω /

-74- 1225227 V. Description of the invention (73) □), antifouling anti-reflection film 1 of functional transparent layer (E). Apply the same material as the adhesive material 1 to the main surface on the other side of the anti-reflection film 1 without adding an pigment / dilution agent and dry it to form a transparent adhesive layer with a thickness of 25 μm (adhesion 2), and then stacked with a separation film. The roll-shaped transparent laminated body 1 / adhesive material 1 / isolated film was cut into 970 mm × 570 mm, and then the transparent conductive layer (D) surface was placed on a glass support plate and fixed. Then, the anti-reflection film was stacked only on the inner side of the transparent conductive layer (D) so that the peripheral portion of the transparent conductive layer (D) was 20 mm exposed using a stacker, leaving a conductive portion. A plan view seen from the surface of the transparent conductive layer (D) is shown in FIG. 2 as a plan view showing an example of the electromagnetic wave shielding body of the present invention. In Fig. 2, reference numeral 02 is a light transmitting portion of the electromagnetic wave shielding body, and symbol 0 3 is a conducting portion of the electromagnetic wave shielding body. Furthermore, a silver paste (MSP-6 0 0F manufactured by Mitsui Chemicals, Inc.) was printed on a 22 mm wide peripheral portion by screen printing so as to cover the conductive portion exposed by the transparent conductive layer (D) and apply it to After drying, an electrode having a thickness of 15 μm was formed. After the self-supporting plate is detached, the electromagnetic wave shielding body of the present invention having a detachable film is formed on the transparent adhesive layer (C). In addition, after peeling off the detachable film of the electromagnetic wave shielding body, it was attached to the front surface of the display panel of the plasma display (display part 9 20mm X 5 20mm) by a sheet laminator, and then at 60 ° C , 2 X 1 05Pa, the force port pressure port warm connection ve sticky la foil OC copper ut properties ) Ran 公 company magnetic wave-75-1225227 5. Description of the invention (74) The electrode part of the shielding body and the grounding part of the plasma display board, so as to obtain a display device provided with the electromagnetic wave shielding body of the present invention. The cross section of the electromagnetic wave shielding body as an example of the electromagnetic wave shielding body of the present invention and its installation state is shown in Fig. 3. In Figure 3, the symbol 〇 is a display portion, the symbol 10 is a transparent conductive layer (D), the symbol 20 is a polymer film (B), and the symbol 31 is a transparent adhesive layer containing a pigment. (C), the symbol 40 is a transparent adhesive layer (E), the symbol 50 is an electrode, and the symbol 60 is anti-reflection, hard-coating, gas-barrier, and anti-static. The functional transparent layer (A), symbol 6 1 is an anti-fouling anti-reflection film, symbol 62 is a hard coating film with anti-charge property, and symbol 6 3 is a hard coating film 62 and reflection prevention The transparent substrate of film 61, symbol 80 is a conductive copper foil adhesive tape. (Example 2) The red pigment PS-Red-G 0. Olwt% manufactured by Mitsui Chemicals (Co., Ltd.) and the purple pigment PS-Vi ο 1 e t-RC manufactured by the same company were used to correct the chromaticity of white light. 0. 0 1 5w t% is mixed in polyethylene terephthalate paste 1203 (manufactured by Unicam (company)), and then melted at a temperature of 260 to 280 ° C, and then extruded The press is made into a film with a thickness of 200 μm. Then, this film was subjected to biaxial stretching to make a pigment-doped PET film [polymer film (B)] containing a pigment having a thickness of 100 μm. A gravure coating machine was used to apply a coating solution containing a silicon-based surface smoothing agent to an alkoxy si 1 ane hydrolyzed with glacial acetic acid to the main surface of one side of the PET film. And at 12 (Temperature Hardening of TC-76-1225227 V. Description of the Invention (75) to form a hard coating film (film thickness: 10 μm, pencil hardness: 3H) 'to make a hard coating (F) A pigmented PET film. On this hard coating film, a Sn02 film (film thickness: 40nm), a silver film (film thickness: 9nm), a Sn02 film (film thickness: 80nm), and a silver-pin alloy film (film thickness) are sequentially formed. : llnm), 5 layers of Sn02 thin film (film thickness: 40nm), transparent conductive layer (D) with a surface resistance of 5.3 Ω / □, thus made into a PET film containing pigments / hard coating (F) / transparent Conductive layer (D) transparent laminated body 2. The PET film surface of the transparent laminated body 2 is coated with the same material as that of the adhesive material 1, and an adhesive / diluent without pigment is added, and dried to form The transparent adhesive layer (C) (adhesive material 3) with a thickness of 25 μm is then laminated with the release film. The roll-shaped transparent laminate 2 / adhesive material 3 / release film is cut The size is 9 70mmX 5 70mm, and the surface of the transparent conductive layer (D) is placed on a glass support plate and fixed. A photopolymerization initiator is added to the polyfunctional methacrylate resin, and the organic silicon dioxide is dispersed. Coating solution of fine particles (average particle size: 15 μπι). By performing flexographic printing only on the inner side of the transparent conductive layer (D), a 20 mm wide peripheral edge portion is exposed, leaving a conductive portion, and then subjected to ultraviolet curing to form As an anti-glare layer with anti-glare properties (turbidity measured by whiteness meter (H a ζ 〇meter): 5%), hard coating (pencil hardness: 2H), functional transparent layer (A). From the support plate Detach, so as to make the electromagnetic wave shielding body of the present invention with a detachable film on the surface of the transparent adhesive layer (C). -77- 1225227 V. Description of the invention (76) Furthermore, peel off the electromagnetic wave shielding body. The separation type film is attached to the front surface of the plasma display panel (display section 9 2 0inm X 5 20mm) by a sheet-by-sheet stacker, and then the autoclave is carried out under a pressure heating condition of 60 ° C and 2 X 105Pa. Disposal. Use conductive copper made by Teraoka The adhesive tape (5 1 0FR) connects the conducting part of the electromagnetic wave shielding body and the grounding part of the plasma display panel, so that a display device having the electromagnetic wave shielding body of the present invention is manufactured. The electromagnetic wave shielding body of the present invention and its equipment The cross section of the electromagnetic wave shielding body as an example is shown in Fig. 4. In Fig. 4, the symbol 00 is the display portion of the display, the symbol 10 is the transparent conductive layer (D), and the symbol 21 is the containing Pigment polymer film (B), symbol 22 is a hard coating (F), symbol 30 is a transparent adhesive layer (C), symbol 70 is an anti-glare layer (transparent with anti-glare and hard-coating properties) Adhesive layer (E)), symbol 80 is a conductive copper foil adhesive tape. (Example 3) A polymer film (B) / transparent conductive layer (D) laminate was produced in the same manner as in Example 1. In addition, a functional transparent layer (A, which is a functional transparent film 1 described below (A) ). That is, a photopolymerization initiator is added to a polyfunctional methacrylate resin, and a coating solution in which ITO fine particles (average particle diameter: 10 nm) are dispersed is coated by a gravure coater, and then UV-cured. In order to form a conductive hard coating film (film thickness -78-1225227 V. Description of the invention (77) 3μιη), in addition, a microphotographic gravure coater was applied to coat the fluorine-containing organic compound solution, and then it was set at 90 ° Dry at C and harden to form an anti-reflection film with a refractive index of 丨 .4 (film thickness: 100 nm), hard coatability (pencil hardness of JIS K5 400: 2H), anti-reflection properties (surface R vis · · 0 · 9%), antistatic property (surface resistance: 7 X 1 09 Ω / □), functional transparent layer (A) with antifouling properties. The above-mentioned roll-shaped functional transparent layer (A) / polymer film (B) / transparent conductive layer (D) is cut into a size of 970 mmX 5 7 0_, and the surface of the transparent conductive layer (B) is placed on It is fixed on a glass support plate. The organic pigment was dispersed and dissolved in ethyl acetate / toluene (50: 5 Owt%) to prepare a dilute solution of an acrylic adhesive. Mixed acrylic adhesive / pigment mixed with diluent (80: 2 Owt%), applied to the transparent conductive layer (D) by a batch type die coater, except that the peripheral part is 22 mm wide, and coated and dried The film thickness was 25 μm, and it was then dried to form an adhesive material 1 as a transparent adhesive layer (C). The refractive index of the adhesive material 1 was 1.51, and the extinction coefficient was 0. Organic pigments are pigments PD-319 manufactured by Mitsui Chemicals, Inc., which have a great absorption at a wavelength of 5 9 5 nm and are used to absorb unwanted light emitted from plasma displays. The red pigment PS-Red-G made by Chemical Co., Ltd. is adjusted by mixing the acrylic adhesive / pigment into the diluent so that the contents in the dried adhesive material 1 are 1150 (wt) ppm and 1050 (wt ) ppm. PD-319 is a coordination compound of tetra-third-butyl-tetraazaporphyrin vanadium oxide represented by formula (3) 0 -79-1225227 V. Description of the invention (78)

Next, "Metal 1 mask" was used to print a two-liquid room temperature hardening type adhesive ((Company): 3 3 8 1 manufactured by Slipbond) on a peripheral edge with a width of 2 2 mm. The transparent conductive layer (D) was exposed. The conductive portion is then dried to form a conductive adhesive layer having a thickness of 25 μm. Then, it is peeled from the support, and then the separation-type film is laminated on the surfaces of the transparent adhesive layer (C) and the conductive adhesive layer to form the electromagnetic wave shielding body of the present invention having the separation-type film on one side. Next, the detachment type film of the electromagnetic wave shielding body was peeled off, and it was bonded to the front surface of the plasma display panel using a sheet-by-sheet laminator (the display portion was 92 mm x 5 20 mm). At this time, the position of the transparent adhesive layer (C) is at least matched with the display, and at least the conductive adhesive layer is bonded to the ground portion. After bonding, the autoclave was then processed under a pressure heating condition of 60 ° C and 2 X 105 Pa, thereby obtaining a display device having the electromagnetic wave shielding body of the present invention. As a plane of one example of the electromagnetic wave shielding body of the present invention, the plane viewed from the transparent adhesive layer of the electromagnetic wave shielding body is shown in Section 5®. In Fig. 5, reference numeral 31 is a transparent adhesive layer (C) 'containing a dye, and reference numeral 41 is a conductive adhesive layer. -80- 1225227 V. Description of the invention (79) As a sectional view showing an example of the electromagnetic wave shielding body and the installation state of the present invention ', the sectional view of the electromagnetic wave shielding body is shown in FIG. In FIG. 6, reference numeral 0 0 is a display display portion, reference numeral 10 is a transparent conductive layer (D), reference numeral 20 is a polymer film (B), and reference numeral 31 is a transparent adhesive layer (C) containing a pigment. ), Symbol 41 is a conductive adhesive layer, symbol 60 is a functional transparent layer (A) having anti-reflection, hard coating, antistatic, and antifouling properties, and symbol 61 is an anti- Antifouling anti-reflection film, symbol 6 2 is a hard coating film with anti-charge property. (Example 4) A polymer film (b) was produced in the same manner as in Example 3. The red pigment PS-Red-G O.Olwt% manufactured by Mitsui Chemicals (Company) and the purple pigment PS-Violet-RC 0.015wt% manufactured by Mitsui Chemicals Co., Ltd. for color correction of white light emission are mixed with polyparaphenylene terephthalate. In ethylene glycol formate paste 1203 (manufactured by Unicam), it was melted at a temperature of 260 to 280 °, and then a 200 μm thick film was formed by an extruder. Next, this film was subjected to biaxial stretching to produce a pigment-incorporated PET film [polymer film (B)] containing a pigment having a thickness of 100 μm. On the main surface of the PET film-side, a Sn02 film (film thickness: 40nm), a silver film (film thickness: 9nm), a Sn02 film (film thickness: 80nm), and a silver-palladium alloy film (film thickness: 1 lnm) were sequentially formed. ), 5 layers of Sn02 film (film thickness: 40nm), transparent conductive layer (D) with a surface resistance of 5.3Ω / □, and then made a PET film / transparent conductive layer (D) containing pigment by roll-to-roll The transparent laminated body 2. -81- 1225227 V. Description of the invention (80) Next, the main surface of the above-mentioned PET film rolled on a roll / PET film opposite to the transparent conductive layer (D) is continuously formed by roll-to-roll as the following Functional transparent layer (A) of the functional transparent film 2. A photopolymerization initiator is added to the polyfunctional methacrylate resin, and a coating liquid in which organic silica fine particles (average particle size: 15 μηι) are dispersed is prepared. After coating, UV curing is applied to form anti-glare (white) The haze of the meter is 5%: the anti-glare layer of the functional transparent layer (A) with a hard coating property (lead 牦 hardness: 2Η). The roll-shaped functional transparent layer (A) / polymer film (B) / transparent conductive layer (D) is cut into a size of 970 mm × 570 mm, and the surface of the transparent conductive layer (D) is placed on a glass support plate and fixed. An adhesive material 2 having a thickness of 25 ΐΏ was formed on the separation type film. The adhesive material 2 was the same material as the adhesive material 1 of Example 1, and no pigment was incorporated. By using a frame-mounting laminating machine, the surface of the adhesive material 2 is used as a bonding surface, and the adhesive material 2 / isolated film is laminated on the transparent conductive layer inside 20 mm from the peripheral edge portion. In addition, a conductive double-sided adhesive tape (WMFT791 manufactured by Teraoka Co., Ltd.) was affixed to the exposed conductive portion of the transparent conductive layer (D) after peeling off the release film within a 20 mm width of the peripheral portion. The self-supporting body was peeled off, and thus the electromagnetic wave shielding body of the present invention was provided with a detachable film on one side. Next, the electromagnetic wave shielding body separation type film was peeled off, and the shielding body was attached to the front of the electric purple display panel (display portion 920mm X 520mm) using a sheet-by-layer stacker. At this time, the transparent adhesive layer at least matches the position of the display portion so that the conductive adhesive layer is adhered to at least the ground portion. 82. Description of the invention (81). After lamination, the autoclave was processed under a pressure heating condition of 60 ° C and 2 X 105 Pa, thereby obtaining a display device provided with the electromagnetic wave shielding body of the present invention. As a sectional view of the electromagnetic wave shielding body of the present invention and an example of its installation state, a sectional view of the electromagnetic wave shielding body is shown in FIG. In Fig. 7, 'symbol 0 0 is a display display part, symbol 10 is a transparent conductive layer (D)' symbol 21 is a polymer film (B) containing a pigment, and symbol 30 is a transparent adhesive layer. (C), the symbol 41 is a conductive adhesive layer, and the symbol 70 is an anti-glare layer (a functional transparent layer (E) having anti-glare properties and hard coating properties). (Comparative Example 1) A PET film (film thickness: 188 μηι) was used as a polymer film (B), and a main surface of one side was made of an ITO thin film (film thickness: 400 μπι), and the sheet resistance was 15 Ω / □ The transparent conductive layer is used to make the transparent laminated layer 3. The transparent laminated layer 3 is used, except that no pigment is used, the electromagnetic wave shielding body is made in the same manner as in Example 丨, so as to obtain a display device having the electromagnetic wave shielding body. The plasma display having the display device of the electromagnetic wave shielding body of the present invention of Examples 1 to 4 obtained as described above was evaluated as follows: 1) The transmittance of the electromagnetic wave shielding body was CRT color manufactured by Minoda (Company) The analyzer (CA 100) determines the spectral emission brightness of the plasma display before and after the electromagnetic shielding body is formed.

5. Description of the invention (82) The ratio of the brightness after formation to the brightness before formation is expressed as a percentage. 2) The tone ratio (highest and lowest brightness ratio) of the bright place of the plasma display is evaluated before and after the electromagnetic wave shielding body is formed. When the ambient illumination is 100 × χ, the plasma display panel displays the highest brightness (cd / m2) when it is white and the lowest brightness (cd / m2) when it is black. 1 1 0) to determine the ratio (highest brightness / lowest brightness). 3) The color purity of the luminous color of the plasma display is evaluated before and after the electromagnetic wave shielding body is formed. The measurement was performed on a plasma display without a display filter and a display filter of Examples 1 and 2. When displaying white (W), red (R), green (G), blue (B) using a CRT color analyzer (CA100) manufactured by Minoda (Company) to measure the RGB chromaticity (X, y), and White chromaticity, color temperature, and white deviation from black body locus. The closer the three primary colors of the PDP are to the color reproduction range of the RGB colors determined by the NTSC method, the better. In addition, if the ratio of the area of the triangles connected to the three primary colors of pdp emission on the χ-y chromaticity diagram to the area of the NTSC color reproduction range is close to 100%, the color reproduction range is enlarged. 4) Electromagnetic wave shielding ability The following measurements were performed on the plasma display without the electromagnetic wave shielding body and the plasma display provided with the electromagnetic wave shielding bodies of Examples 1 to 4 and Comparative Example 1. -84- 1225227 V. Description of the invention (83) The dipole antenna is set at a position 10 meters away from the center of the display and washed with aromatic water, and analyzed by Yadubang test (T K 亍 亍 only) spectral analysis (Spectral analyzer) (TP4172) measures the radiation electric field intensity in the 30 ~ 230 MHz bandwidth. According to the 3m method of VCCI, the allowable bandwidth within this bandwidth is Cl as s A below 50dBpV / m and Cl as s B below 40dBpV / m. The evaluation was performed at 33 MHz and 90 MHz. 5) Near-infrared transmittance of the electromagnetic wave shielding body The electromagnetic wave shielding bodies of Examples 1 to 4 and Comparative Example 1 were evaluated. The light-transmitting part of the electromagnetic wave shielding body was cut into small pieces. U-3400), measuring the parallel light transmittance of 800 ~ 100nm, to evaluate the transmittance of 820nm, 850nm, 950nm. 6) Near-infrared low-reduction ability for plasma display without electromagnetic wave shield and plasma with electromagnetic wave shield In Examples 1,2 and Comparative Example 1 of the display, the following measurements were performed. Place the VTR for household use of electronic equipment using infrared remote control at a distance of 0.2 ~ 5m from the display to confirm whether there is any malfunction. If there is a malfunction, find the limit distance. In practice, it should be at least 3 m, and ideally, it should be 1.5 m or less. The electromagnetic wave shielding body of the present invention in Example 1, the transmittance of the plasma display light emission, the visible light transmittance is 50%, according to the need -85-1225227 V. Description of the invention (84) The wavelength of light emission 5 9 5 nm absorbs the largest pigment, and the ratio of the transmittance of 5 9 5 nm to the necessary emission of 61 Onm is 38%. In addition, the plasma display with this characteristic uses an electromagnetic wave shielding body that forms a functional transparent layer (A) with anti-reflection properties to suppress reflection on the display surface and the transmission characteristics of the electromagnetic wave shielding body. The surrounding illumination is 1 The tone of the bright place under the condition of 00 1 X is increased from 20 to 45 before forming the electromagnetic wave shielding body. In addition, there are few cases of reflection, so that a plasma display with excellent visibility can be obtained. The electromagnetic light shielding plasma display of the second embodiment of the present invention has a light transmittance of 58% with visible light transmittance and little reflection, so a plasma display with good visibility can be obtained. The tone of the bright place has been improved from 20 to 37. In the electromagnetic wave shielding plasma display of the present invention in Example 4, the transmittance of visible light is 59% and the reflection is small, so a plasma display with good visibility can be obtained. The tone of the bright place has been improved from 20 to 37. Fig. 8 is an x-y chromaticity diagram showing a color reproduction range before and after the electromagnetic shielding body is formed. FIG. 8 shows the chromaticities of white (W), red (R), green (G), and blue (B) emission before and after forming the electromagnetic wave shielding body of Example 1 on a PDP (plasma display panel). Chromaticity diagram. In addition, the chromaticity of the target NTSC is also plotted at a glance. The white line can be evaluated by comparing it with the black body line which is a good white chroma line. -86- 1225227 V. Description of the invention (85) Using the electromagnetic wave shielding body of the present invention, the chromaticity of white is biased. In addition, it is understood from this figure that the color temperature of the electromagnetic wave formed in Example 1 is higher. The color temperature rises approximately 7000K to 10000K. In addition, triangles connecting RGB points are also shown in the figure. The better its NTSC. It is understood from this figure that by using the electromagnet of Embodiment 1, the chromaticity of red and green approaches the chromaticity indicated by NTSC, and the triangle of the color reproduction range has been enlarged. The ratio of the area represented by the area of the triangle was determined. The electromagnetic wave shielding system of Example 1 was 74%, and it was improved to 85% after formation. In addition, the results of the above evaluations 4) to 6) are summarized and listed in a small difference. The closer the wave front is, the closer the wave is. This indicates that before the NTSC shield, Table 1 〇-87-1225227 V. Description of the invention (㈣) [Table 1] Electromagnetic wave shielding body yfm: None Example 1 Example 2 Example 3 Example 4 Comparative example 1 Surface resistance of transparent conductive layer Ω / □ 2.2 5.3 2.2 5.3 15 Radiated electric field intensity, dBp / m 33MHz 59 38 46 39 46 52 90MHz 52 34 42 33 40 49 Near infrared transmittance,% 820nm-9.8 24 10 25 79 850nm-6.3 19 6.5 18 78 950nm-2.1 9 2.0 8.5 70 Malfunction limit distance, m 5 or more 0.5 3.0 0.5 3.0 5 or more from the table 1. It is understood that by using the electromagnetic wave shielding body of the present invention, it is possible to discriminate CU ss B or C 1 ass A of VCC I specifications. The lower the surface resistance of the transparent conductive layer, the better the shielding of electromagnetic waves. In addition, it was also understood that by using the electric-magnetic shielding body of the present invention, it is possible to obtain a good near-infrared reducing ability. The electromagnetic wave shielding body of the present invention, which uses a transparent conductive layer laminated with a metal thin film and a high-refractive index transparent film, has low near-infrared transmittance and excellent near-infrared reducing ability. The better the infrared reduction ability. In particular, the electromagnetic shielding body of the present invention has various functions by the functional transparent layer (D), and can obtain good environmental resistance and / or abrasion resistance and / or antifouling and / or antistatic properties. (Example 5) A triethyl cellulose (TAC) film (thickness: 80 μm) was used as the polymer -88-1225227. 5. Description of the invention (87) The film (B) was on one side of the main surface. The following functional transparent film 1 was continuously formed as a functional transparent layer (A) by a roll-to-roll method, and a coating solution in which ITO fine particles (average particle diameter: 1 Onm) were dispersed was coated by a gravure coater. Then it is hardened by ultraviolet rays to form a conductive hard coating film (film thickness: 3 μιτι). Then, a fluorine-containing organic compound solution is coated thereon by a microphotogravure coater, and dried and heat-cured at 90 ° C to An anti-reflection film (film thickness: 100 nm) with a refractive index of 1 · 4 was formed to form a hard-coating property (; pencil hardness of the IS IS K5400 standard: 2H), anti-reflection property (surface R vis ··· 0 · 9%), antistatic property (surface resistance · 7 X 1 〇9 Ω / □), functional transparent film 1 with antifouling properties. The organic pigment is dispersed and dissolved in a solvent of ethyl acetate / toluene (50:50 wt%) as a diluent for an acrylic adhesive. (80: 20 wt%), and then apply the aforementioned mixed solution to the TAC film surface of the functional transparent film 1 / TAC film by a dot coater, and then dry the adhesive material 1 as a transparent adhesive layer (C). Next, the detachable film is laminated on the transparent adhesive layer and wound into a roll shape, so that a roll-shaped light-adjusting film of the present invention having the detachable film on the transparent adhesive layer is produced. Pigment PD-319 made by Mitsui Chemicals, Inc., which has the maximum absorption at a wavelength of 5 9 5 nm, and is used to absorb unwanted light emitted by plasma displays, and Mitsui Chemicals, Inc., which is used for color correction of white light emission The red pigment PS _ R ed-G is obtained by adjusting the acrylic adhesive / pigment ί into the diluent to be contained in the dried adhesive material 1 in amounts of 1650 (wt) ppm and 450 (wt ) ppm. PD-319 is the coordination compound of formula (3) Ⅳ-89-1225227 V. Description of the invention (88) tributyl-tetraazaporphyrin-vanadyl oxide.

(3) Then cut the dimming film into a paper shape, and then peel off the detachable film, and then attach the dimming film to the front surface of the plasma display panel by using a sheet-by-sheet laminator (display section 9 2 0 in m X 5 2 0 mm). In this case, it is necessary to perform paper cutting, and align the bonding positions so that the transparent adhesive layer (C) is bonded to at least the entire display portion. After lamination, an autoclave treatment was performed under the conditions of 60 ° C and 2 X 105 Pa in pressure heating, so as to obtain a display device having the light-adjusting film of the present invention. A cross-sectional view showing an example of the light-adjusting film of the present invention and its installation state is shown in FIG. 9. In FIG. 9, the symbol 0 0 is a display display portion, the symbol 20 is a polymer film (B), the symbol 31 is a transparent adhesive layer (C) containing a pigment, and the symbol 60 is a reflection prevention layer. The functional transparent layer (A) with anti-fouling properties, hard coating properties, antistatic properties, and antifouling properties, symbol 6 1 is an anti-fouling anti-reflection film, and symbol 6 2 is a hard coating film with anti-static properties. (Example 6) -90-1225227 V. Description of the invention (89) The pigment PD_319 manufactured by Mitsui Chemicals (Company) represented by the aforementioned formula (3) was 0.018 wt%, and the absorption maximum of the wavelength of 585 nm was Mitsui Chemicals (Company) Pigment PD-311, 0.018% by weight, and red pigment PS-Red-G made by Mitsui Chemicals, Inc. (0.004% by weight) mixed with polyethylene terephthalate ( PET) Xiaojiu 1 2 0 3 (made by Unicam (company)), melted at 260 ~ 28CTC, and then use an extruder to make a film with a thickness of 2 50 μιη. Next, the film was subjected to biaxial (orientation) stretching to prepare a pigment-doped PET film which is a polymer film (B) containing a pigment having a thickness of 125 μm. PD-311 is a tetra-third-butyl-tetraazaporphyrin · copper coordination compound of formula (4).

Next, on the main surface of one side of the PET film wound into a roll shape, a functional transparent film 2 described below was continuously formed as a functional transparent layer (A) by a roll-to-roll method. That is, a photopolymerization initiator is added to the polyfunctional methacrylate resin, and a coating liquid in which organic silicon dioxide microviscous (average particle diameter ·· 15 μ rii) is dispersed is prepared and applied. Purple-9 1-1225227 5. Description of the invention (90) The outer line is hardened to form a system with anti-glare properties (turbidity measured by whiteness meter: 5%), hard coating properties (pencil hardness: 2H), the anti-glare layer Functional transparent film 2. On the PET film surface of the functional transparent film 2 / the pigment-doped PET film, the same material as the adhesive material 1 of Example 1 was formed, but the pigment-free adhesive material 2 was formed. The transparent adhesive layer is laminated with a separation film and wound into a roll shape to obtain a roll-shaped light-adjusting film of the present invention having a separation film on the transparent adhesion layer. Next, the dimming film was cut into a paper shape, and the separation-type film was peeled off, and then bonded to the front surface of the plasma display panel by a laminator (display portion: 920 mm X 520 mm). At this time, cutting is performed, and the alignment of the bonding position is such that the transparent adhesive layer (C) is bonded to at least the entire display portion. After lamination, the autoclave treatment was performed under a pressure heating condition of 60 ° C and 2 X 10 5 Pa to obtain a display device having the light-adjusting film of the present invention. As a cross-sectional view showing an example of the light-adjusting film of the present invention and its installation state, the cross-section of the light-adjusting film is shown in FIG. In FIG. 10, reference numeral 00 is a display display portion, reference numeral 21 is a transparent adhesive layer (C) containing a pigment, reference numeral 30 is a transparent adhesive layer (C), and reference numeral 70 is an anti-glare layer (with Anti-glare, hard-coating functional transparent layer (A)). Plasma displays, which are display devices having the dimming films of the present invention of Examples 5 and 6 prepared as described above, were evaluated together with the plasma display before the dimming film was formed as follows. 1) The transmittance of the dimming film Use a CRT color analyzer (CA 100) made by Minoda (Company), find -92- 1225227 2. Description of the invention (91) The spectral emission brightness of the plasma display before and after the formation of the dimming film is expressed as a percentage of the brightness after the formation to the brightness before the formation. 2) The tone of the bright part of the plasma display (the highest and lowest brightness ratio) is evaluated before and after the formation of the dimming film. When the ambient illumination is 1 00 1 X, use the brightness meter (LS-1 1 0) made by Minoda (the company) to measure the maximum brightness (cd / m2) of the plasma display panel for white display and black display The minimum brightness (cd / m2) and find the ratio (highest brightness / lowest brightness). 3) The color purity of the luminescent color of the plasma display is evaluated before and after the formation of the dimming film. When displaying white (W), red (R), green (G), blue (B), etc., use a CRT color analyzer (CA100) manufactured by Minoda (Company) to measure the RGB chromaticity (x, y) and white chromaticity, color temperature, and white deviation from the black body locus. The closer the three primary colors of the PDP are to the color reproduction range of the RGB colors determined by the NTSC method, the better. In addition, when the ratio of the area of the three primary colors emitted by the PDP in the X, y chromaticity diagram to the area of the color reproduction range of the NTSC is close to 100%, the color reproduction range is enlarged. The light transmittance of the light-adjusting plasma display of the present invention in Example 5 is 6 9% in terms of visible light transmittance. By using a pigment with a maximum absorption at 595nm, which does not need to emit light, the transmittance at 595nm is necessary. The percentage of light transmission with a wavelength of 61 Onm is 21%. In addition, the plasma display with such characteristics can be used to form a light-adjusting film with a functional transparent layer (A) that has anti-reflection prevention-93-1225227. V. INTRODUCTION (92) to suppress reflection on the display surface, and secondment The transmission characteristics of the light film have been increased from 20 before the light control film to 4 1 under the condition that the ambient illuminance is 001 X. Brightness. There is no significant loss and little reflection, so a plasma display with good visibility can be obtained. In particular, the purity of red and green luminous colors has been significantly improved. The improvement of the color purity of green light emission is determined by the decrease of the yellow-green light emission of the 5 9 5 nm absorption pigment. -Similarly, in the light-adjusting film of the present invention of Example 6, the transmittance of the plasma display light is 70% in terms of the visible light transmittance, and the pigment with a maximum absorption of the wavelength of 5 9 5 ηη unnecessary light emission. Similarly, by using a pigment having a maximum absorption at a wavelength of 5 8 5 nm, the percentage of the transmittance of 5 8 5 nm to the transmittance of a wavelength of 61 Onm that needs to emit light is 30%. In addition, the plasma display with such characteristics, based on the transmission characteristics of the light-adjusting film, the gradation of the bright place under the condition that the ambient illuminance is 100 1 X is increased from 20 to 37 before the light-adjusting film is formed. The brightness is not significantly attenuated, and there is little reflection, so a plasma display with good visibility can be obtained. In particular, the purity of red and green luminous colors has been significantly improved. The improvement of the color purity of green emission depends on the decrease of the yellow-green emission of 5 9 5 ηπ and 5 8 5 nm absorbing pigments. In particular, the effect of absorbing pigments with a shorter wavelength of 5 8 5 n m is large. FIG. 11 is an X-y chromaticity diagram showing a color reproduction range before and after the light control film of the present invention is formed. Figure 11 shows the tone of Example 5 formed on a PDP (plasma display panel) -94-1225227. V. Description of the invention (93) White (W), which is depicted on the X_y chromaticity diagram before and after, red (R), green (G) 'blue (B) chromaticity. In addition, the chromaticity of the target NTSC is also depicted. S € can be evaluated in comparison to the blackbody locus that is a locus of good white hue. It is understood that the use of the electromagnetic wave shielding body of the present invention has less chromaticity deviation of white color. In addition, the color temperature is higher than that of the former forming the light control film of the fifth or sixth embodiment. A color temperature rise of about 70000K to about 9500K 'indicates that the white deviation from the black body locus is almost zero. In addition, the triangle connecting RGB points is shown in the figure. The closer this triangle is to NTSC, the better. It is clear from the figure that by using the light control film of Embodiment 5 or Embodiment 6, the chromaticity of red and green approaches the chromaticity shown by NTSC, which indicates that the triangle of the color reproduction range has been enlarged. The percentage of the triangular area to the area of the triangle represented by NTSC was determined. It was 74% before the light-adjusting film of Example 5 was formed, and it was improved to 86% after formation. In addition, the situation of forming the light-adjusting film of Example 6 was improved to 88%. In particular, the light-adjusting film of the present invention has multifunctionality by virtue of the functional transparent layer (A), and can obtain excellent scratch resistance and / or antifouling properties and / or antistatic properties. (Example 7) SIR-128 and SIR-130 made by Mitsui Chemicals (Nippon Mitsui Chemicals), which are near-infrared light-absorbing pigments, were each mixed with 0.15 wt% of polyethylene terephthalate-95-1225227. 5. Description of the invention ( 94) Alcohol ester 1 20 3 (manufactured by Unicam (company)), melted at 28 (TC), and stretched by biaxial extrusion (orientation) to form a near-infrared light shielding film with a thickness of 15 μm. In addition, ethyl acetate / toluene (50:50 wt%) solvent was used as the diluent, and the acrylic adhesive and the diluent were mixed at a ratio of 80:20, and then applied to the near infrared by a dot coater. The thickness of the dry film on the masking film is 25 μm, and the adhesive layer is formed after drying. Then, a detachable film is stacked thereon. The near-infrared shielding film (B) produced as described above is stacked as a substrate. Film, anti-reflection film with a film thickness of 188 μm (Riacker 1200 made by Japan Grease), and cut it to 960 mm X width 550 _, thereby the total thickness of the transparent polymer film is 0.  3 3 8 optical filter film. Then, attach this film to a length of 9 80mmx width of 5 80mmX thickness of 2.  5 mm m semi-hardened glass plate. (Example 8) SIR-128 and SIR-130 manufactured by Mitsui Chemicals, Inc., which are near-infrared absorbing pigments, were each added. 3wt% is mixed with polyethylene terephthalate small nine 1 20 3 (manufactured by Unicam), melted at a temperature of about 280 ° C, and then biaxially squeezed (oriented) Stretch to make a near-infrared shielding film with a thickness of 7 5 μm. In addition, ethyl acetate / toluene (50:50 wt%) solvent was used as the diluent, and the acrylic adhesive and the diluent were mixed at a ratio of 80:20, and then applied to the near-infrared shielding by a dot coater. The film surface has a dry thickness of 25 μm. After drying, an adhesive material -96-1225227 is formed. 5. Description of the invention (95) layer, and then a detachable film is stacked thereon. In addition, without adding a near-infrared absorbing dye, a transparent polymer film for matting with a thickness of 200 µm was prepared in the same manner. On the other hand, a near-infrared shielding film is laminated to form a base film, and an anti-reflection film with a film thickness of 80 μm (Riaco UOO, made by Japan Oil Co., Ltd.) is cut to a length of 960 mm and a width of 550 mm. 200μm thick transparent polymer film for padding. Thus, an optical filter film having a total thickness of 0.35 5 mm of the transparent polymer film was obtained. Then attach this film to a length of 980inm × width of 5 × 80mm × thickness of 2. 5mm semi-hardened glass. (Example 9) The following functional transparent film was formed on the main surface of the near-infrared shielding film having a thickness of 15 μm as shown in Example 7 by a roller-to-roll method as a functional transparent layer (A ). That is, a photopolymerization initiator is added to the polyfunctional methacrylate resin, and a coating liquid in which organic silicon dioxide fine particles (average particle diameter: 15 μm) is dispersed is prepared. After coating, UV curing is applied to A transparent layer with anti-glare properties (turbidity measured by whiteness meter: 5%) and hard-coating properties (pencil hardness: 2H) is formed. The transparent polymer film with a thickness of 200 μηι as shown in Example 14 was laminated on the transparent polymer film having the near-infrared shielding function and the anti-glare function, and then cut and grown to 960 mm. The X width is 5 5 Omm ', so that the total thickness of the transparent polymer film is 0.  3 5 0mm -97- 1225227 V. Optical filter film of invention description (96). Then attach this film to a length of 980mm × width of 580mm × thickness of 2. 5mm half tempered glass. (Example 10) A polyethylene terephthalate film having a thickness of 75 μm was produced by extrusion biaxial (orientation) stretching, and a Sn02 film was sequentially formed from this film on the main surface on one side of the film (Film thickness: 40nm), silver thin film (film thickness: 9nm), Sn〇2 film (fl 旲 thickness · 80nm) 'Silver-iG alloy thin β 旲 (§ 旲 thickness: iinm), Sn02 thin film (thickness: 40nm ) Count 5 layers to make it with a surface resistance of 5. 3Ω / □ transparent conductive thin film layer (D). Transparent local molecular film with electromagnetic wave shielding function. For the above electromagnetic wave shielding film, an adhesive material layer was formed by the following method. The organic pigment is dispersed and dissolved in a solvent of ethyl acetate / toluene (50: 5 Owt%) as a diluent for an acrylic adhesive. Adjust the acrylic adhesive / pigment into the diluent so that it can absorb unwanted light emitted from plasma displays, and the pigment PD-319 made by Mitsui Chemicals, which has a maximum absorption of 5 9 5 nm, and is used to correct white Luminescent chromaticity: Mitsui Chemical's red pigment PS-Red-G organic pigments are contained in dry adhesive materials at 1150 (wt) ppm and 1050 (wt) ppm, respectively. 0 mixed acrylic adhesive / pigment Mix with diluent (80: 20wt%), apply a dry coater with a thickness of 25 μm to the surface of the electromagnetic wave shielding film side by a dot coater, and then deposit a detachable film on the adhesive surface to form a transparent layer. -98- 1225227 V. Description of the invention (97) The adhesive layer is explained. This film was laminated on a pad having a thickness of 200 μm as shown in Example 8. A transparent polymer film was used as a transparent conductive film, and then it was cut and grown to 960 mm × width 550 mm. In addition, a base film with an antireflection film with a thickness of 188 μm (Riaco 1200 made by Ben Grease) was cut and grown to 920 mm X 5 10 mm wide, and then bonded to the inside of the transparent conductive film layer The peripheral edge portion of the thin film layer was exposed by 20 mm. In addition, a silver paste (MSP-6 0F, manufactured by Mitsui Chemicals, Inc.) was printed on a 22 mm wide area of the peripheral portion by screen printing, and the conductive portion exposed by the transparent conductive film layer was covered to form a thickness after drying. It is an electrode of 15 μm. Thereby, the total thickness of the transparent polymer film is obtained as 0. 463mm optical filter film. Then attach this film to a length of 980mm, a width of 580mm, and a thickness of 2. 5mm half tempered glass. (Example 1 1) A film of polyethylene terephthalate having a thickness of 200 μm was made by biaxial (orientation) extrusion, and sequentially formed on the main surface of one side from the film ITO thin film (film thickness: 40 nm), silver thin film (film thickness · 1 lnm), IT0 thin film (film thickness: 95 nm), silver thin film (film thickness: 14 nm), IT thin film (film thickness · 90 nm), Silver thin film (film thickness · 12nm), ITO film (film thickness: 40nm) 7 transparent conductive thin film layers (F), and then made to have a sheet resistance of 2. Electromagnetic wave shielding film of 2Ω / □ transparent conductive layer. -99- 1225227 V. Description of the invention (98) In addition, the following functional transparent layer was continuously formed on the main surface of the other side of the transparent conductive film layer on which the electromagnetic wave shielding film was not formed by a roll-to-roll method. That is, a photopolymerization and starter is added to a polyfunctional methacrylate resin, and a coating liquid in which I TO fine particles (average particle diameter: 10 nm) are dispersed is applied by a gravure coater, and is applied. UV curing to form a conductive hard coating film (film thickness: 3 μm), and then apply a fluorine-containing organic compound solution by a micro gravure coater, and then dry and harden at 90 t to form a refractive index For 1.  4 anti-reflection film (film thickness: 100 nm), and then made into a pencil with a hard coating UISK5400 standard hardness: 2H), anti-reflection (surface Rv i s: 0.  9%), antistatic property (surface resistance: 7 X 1 〇9 Ω / □), a functional transparent layer with antifouling properties. Then, an ethyl acetate / toluene (50: 50 wt%) solution was used as a diluent. The acrylic adhesive and the diluent were mixed at a ratio of 80:20, and the dry film was applied by a dot coater for 25pm and then dried, and then the detachable film was stacked to form a transparent adhesive material layer. The electromagnetic shielding film adhered to the functional transparent layer was cut into a length of 920mmX and a width of 510mni, and it was pasted on the inside of the transparent polymer film for padding which was cut into a length of 960mniX and a width of 5 50mmX and a thickness of 200μm. Leave a 20 mm wide peripheral edge. Next, a silver paste (MSP-6 00F manufactured by Mitsui Chemicals, Inc.) was printed on a 22 mm wide area of the peripheral portion by a screen printing method, and the conductive section in the thickness direction of the transparent conductive layer was covered and dried. In order to form a thickness of -1 0 0-1225227. V. Description of the invention (99) The electrode is 15 μηι. From this, we get a transparent high score of two.  4mm optical filter film. Then attach this film X width 5 80mm X thickness 2. 5inm half strengthened glass plate. (Comparative Example 2) As shown in Example 9, a near-film having a thickness of 150 μ 近 and an anti-reflection film having a base film thickness of 80 μm were laminated to produce an optical filter film having a thickness of .230 μm. Then stick this film 1 X width 580mm X thickness 2. 5mm half strengthened glass plate. (Comparative Example 3) As shown in Example 10, an anti-reflection film having a thickness of 75 μm and an antireflection film with a base film thickness of 188 μm was laminated to obtain an optical filter film of 2 6 3 μm. Then attach this film] width 580mmX thickness 2. 5mm semi-hardened glass plate. As described above, each of the optical filter films was bonded to each other, and the samples were tested for improvement in impact resistance, peelability, and state of the glass plate. The impact resistance test is to place the thin layer attached to the glass plate from a height of 1.  At 5 meters, a steel ball weighing 500 g is dropped, and the glass is damaged. Five samples were taken for each test. The peelability test and the glass paste residue test were performed after the film had been peeled from the glass plate for 1 hour. The above results are shown in Table 2. The total thickness of -10 1-F is 980mm in length. The overall thickness of the infrared shielding I is about 980mm. The overall thickness of the magnetic shielding film is about 980mm in length. X The glass plate is left with the adhesive on the glass sample. To investigate the substrate 0 optical film lamination and check its state 1225227 V. Description of the invention (100) [Table 2] Total film thickness (mm) Impact test Residual adhesive material on the film peelable glass Example 90. 338 No problem Easy to peel off None Example 10 0. 355 No problem Easy to strip 4be JWS embodiment 11 0. 350 No problem Valley easy peeling None Example 12 0. 413 No problem Easy to peel off ^ \ w Example 13 0. 400 No problem Gu Yi peeling None Comparative Example 2 0. There are scattered glass in part 155, and it is not easy to peel off Yes Comparative example 30. There is scattered glass in part 263. It is difficult to peel off. Yes. As can be seen from Table 2, all the examples have improved impact resistance, peelability, and residual state of the paste on the glass. As described above, according to the present invention, by providing the total thickness of the transparent polymer film constituting the optical filter film to be greater than or equal to 0.3 mm, the protection function and workability of the display panel can be improved, and the display panel can be directly bonded to the display surface. Optical filter film. (Example 1 4) A polyethylene terephthalate film roll [5 5 8 mm in width, 500 m in length, and 75 μm in thickness] was prepared as a transparent polymer film (B), which was coated by a roller, and a DC magnetron was used. A sputtering method to form a transparent conductive thin film layer (D). The transparent conductive thin film layer is a thin film layer (Dt) made of an oxide of indium and tin. The silver thin film layer (Dm) is B / Dt [thickness 40nm] / Dm [thickness 15nm] / Dt [thickness 80nm] / Dm [ Thickness 20nm] / Dt [Thickness-1 02-1225227 5. V. Description of the invention (10) 80nm] / Dm [Thickness 15nm] / Dt [Thickness 40nm] / Dm [Thickness Unm] / Dt [Thickness 40nm] Sequentially stacked. The thin film layer formed by the oxidation of indium and tin constitutes a transparent high refractive index thin film layer, and the silver thin film layer constitutes a metal thin film layer made of silver or a silver alloy. On the formation of a thin film layer made of an oxide of indium and tin, the target is a sintered body using indium oxide and tin oxide [In203: Sn02 = 90: 10 (weight ratio)] 'Sputter gas system uses an oxygen mixed gas ( Total pressure 2 6 6 m P a). In addition, silver was used as a target for forming the silver thin film layer, and argon gas (full pressure 266 mPa) was used as the sputtering gas system. For forming the titanium layer, titanium was used as the Geba, and the sputtering gas was M gas (total pressure of 266 mPa). Next, prepare an anti-glare film [width 548 mm, length 500 m, thickness 100 μm] in a state in which a transparent adhesive material [thickness 100 μm] is stuck on the side opposite to the anti-glare layer. Next, the anti-glare film was pasted on a transparent conductive film layer of a transparent conductive film through a transparent adhesive material by a roll-to-roll method to form a film roll. The widthwise center positions of the transparent conductive film and the anti-glare film are aligned. In addition, a transparent adhesive material [thickness 1 ΟΟμίΏ] was laminated on the opposite side of the anti-glare layer of a laminated body made of a transparent conductive film and an anti-glare film by a roll-to-roll method. Next, a silver conductive paste was applied to the transparent conductive film layer portion having a width of 5 mm at each end portion of the roll by a roll coating method. The speed of the film roll is set to 0. 5m / s. The film obtained in the above manner was cut to a length of 958 mm to make an electromagnetic wave shielding body. Fig. 21 is a sectional view thereof. Figure 21-103-1225227 V. Description of the invention (102) The symbol "3" is a transparent polymer film with electromagnetic wave shielding ability (B) "The symbol 30 is a transparent adhesive layer (C), symbol 24 It is a transparent polymer film (B) with a functional transparent layer (A). Among them, the time required to form an electrode on each electromagnetic wave shielding body 1 was examined. Next, the electromagnetic wave shielding body was bonded to the display surface of the plasma display panel [PX-42VP1 by NEC] via a transparent adhesive layer. Connect the metal parts on the flat plate to the electrodes located on the viewing surface side with wires, and take the current out of the display. Activate the plasma display panel and measure the intensity of electromagnetic waves released to the outside in accordance with FCC specifications p a r t 1 5 to check whether it meets the C 1 a s s A standard. Fig. 22 is a sectional view thereof. (Example 15) An anti-glare film roll [5 5 4 mm in width, 500 m in length, and 100 μm in thickness] was prepared, and a transparent conductive film layer was formed on the side opposite to the anti-glare layer in the same manner as in Example 14. Next, a transparent adhesive material [width 5 48 mm, thickness 100 μm] and a conductive adhesive material [width 3 mm, thickness 100 μm] were adhered to the transparent conductive film layer by a roll-to-roll method. The conductive adhesive is bonded to the two ends of the film roll, and the other parts are bonded to the transparent adhesive. An electromagnetic wave shielding body is manufactured by the above. Next, the electromagnetic wave shielding body was stuck on the display surface of a plasma display panel [PX-42VP1, manufactured by NEC]. A copper foil tape was affixed in advance on two long sides of the plasma display panel along a 6 mm width of the end portion. Conductive adhesive material and copper foil -104- 1225227 V. Description of the invention (103) The part with the lamination becomes the substantial electrode. Connect the metal parts on the flat plate to the electrodes located on the viewing surface side with wires, and draw the current out of the display. The other parts are implemented in the same manner as in Example 14. (Example 16) A transparent conductive film was prepared in the same manner as in Example 14. Next, prepare an anti-glare film roll [558 mm wide, 500 m long, 100 μm thick], and align the centers of the transparent conductive film and the anti-glare film in the width direction. Then, a transparent adhesive material [thickness 100 μm] is laminated on the opposite side to the anti-glare layer of the laminated body of the transparent conductive film and the anti-glare film by a roll-to-roll method. Apply silver paste on the end surface of the film roll. By doing so, an electromagnetic wave shielding body is produced. Fig. 23 shows a cross section thereof. Among them, the time required to form an electrode on each electromagnetic wave shielding body was checked. Next, the electromagnetic wave shielding body was pasted on the display surface of a plasma display panel [PX-42VP1, manufactured by NEC]. Then, connect the metal parts on the flat plate to the electrodes located on the side of the viewing surface through the wires to draw the current out of the display. Start the plasma display panel, and measure the intensity of the electromagnetic waves released to the outside according to the FCC specifications p a r t 1 5〗, and check whether it meets the C 1 a s s A standard. (Comparative Example 4) As in Example 14, a polyethylene terephthalate film roll (558 mm in width, 500 m in length, and 75 μm in thickness) was prepared as a transparent polymer film -105-1225227 V. Description of the invention (104) (B), and a transparent conductive thin film layer is formed on the main surface of one side. A transparent adhesive material [thickness 100 μm] was bonded to the surface opposite to the transparent conductive film forming surface of the film by a roll-to-roll method. Next;-While cutting the produced film, adhere to the glass substrate [size: 560mmX960mmX thickness: 3mm] through a weak adhesive. Next, prepare an anti-glare film roll [5 4 8 mm in width, 50 0 m in length, 10 Ομηι] in a state where a transparent adhesive material is pasted on the side opposite to the anti-glare layer, and then cut while One side is bonded to the transparent conductive film layer of the above-mentioned bonded body. At this time, it is attached to the inner side of the transparent conductive thin film layer at an end portion 5 mm away from the outer peripheral portion. Next, the silver paste was applied to cover the entire periphery of the exposed portion of the transparent conductive film layer by the screen printing method and dried. After drying, it was peeled from the glass substrate. In this way, an electromagnetic wave shielding body is produced. Other operations are performed in the same manner as in Embodiment 14. The above results are shown in Table 3. [Table 3] Electrode formation time (seconds) [Each electromagnetic wave shielding body] The electromagnetic wave blocking effect (whether it is within the FCC Cl as sA standard) _ ΐ 例 1 4 2 No problem_ Example 1 5 2 No problem 1 Example 1 6 0. 5 No problem _ Comparative Example 4 180 No problem 1 It is understood from Table 3 that all examples are related to the electromagnetic wave blocking effect ′, which is the same as the conventional case shown in the comparative example. In addition, the time required for the formation of the electrode is also greatly reduced, thereby greatly improving the production. -106-1225227 V. Description of the Invention (105) The effect. (Example 17) A polyethylene terephthalate film roll [thickness 75 μm] with a width of 565 mm and a length of 500 m was prepared as a transparent polymer film (B), and then, on the main surface of one side thereof A roll coater was used to form a transparent conductive layer (D) by a magnetron sputtering method. The transparent conductive thin film layer is a thin film layer (Dt) made of an oxide of indium and tin. The silver thin film layer (Dm) is based on B / Dt [thickness 40nm] / Dm [thickness 15nm] / Dt [thickness 80nm] / Dm [ The thickness is 20nm] / Dt [thickness 80nni] / Dm [thickness 15nm] / Dt [thickness 40nm] / Dm [thickness 15nm] / Dt [thickness 40nm]. The thin film layer made of indium and tin oxides constitutes a transparent high refractive index thin film layer, and the silver thin film layer constitutes a metal thin film layer made of silver or a silver alloy. On a thin film layer formed of an oxide of indium and tin, is a sintered body of indium oxide / tin oxide [In203: Sn02 = 90:10 (weight ratio)]? E, an M · oxygen mixed gas (total pressure: 266 mPa, oxygen partial pressure: 5 mPa) was used as the sputtering gas. In addition, on the silver thin film layer, silver was used as a target, and argon gas (total pressure of 26 6 mPa) was used as a sputtering gas. On the formation of the titanium layer, titanium was used as a target ', and argon gas (full pressure of 266 mPa) was used as a sputtering gas. Next, an anti-glare film roll having a width of 565 mm 'and a length of 500 m in a state where the transparent adhesive material was pasted on the side opposite to the anti-glare layer was prepared. Next, the above-mentioned anti-glare film is adhered to the transparent conductive film layer of the transparent conductive film through a transparent bonding material by a roll-to-roll method to make one -107-1225227. V. Description of the invention (106) film rolls. In addition, a transparent adhesive material is laminated on a surface opposite to the anti-glare layer of the bonded body of the transparent conductive film and the anti-glare film by the roll-to-roll method. Then, the film obtained by the above was cut, and the transparent support substrate was bonded to the transparent support substrate. Next, a silver paste was applied to the side surface of the cover film by the screen printing method and dried. In this way, an electromagnetic wave shielding body is produced. Figure 23 shows the cross section. 〇 Select the two points that are farthest apart on the electrode and check the resistance between these two points. In addition, the time required for each attachment of the electromagnetic shielding body is also checked. again. In other words, the bonding time of each of the optical filters of the transparent conductive film and the anti-glare film can be obtained by dividing the number of sheets of film that can be cut from the film roll by the entire bonding time used in the roll-to-roll method. (Example 1 8) An anti-glare film roll having a width of 5 6 5_ and a length of 500 m was prepared, and a transparent conductive film layer was formed on the side opposite to the anti-glare layer in the same manner as in Example 17. Next, a transparent adhesive material was bonded to the transparent conductive film layer by a roll-to-roll method. While cutting the film obtained as described above, it was bonded to a transparent support substrate via a transparent adhesive material. Then, the silver paste is applied to the entire periphery of the end by screen printing method -108-1225227 V. Description of the invention (107) The side of the moon and dried. In this way, an electromagnetic wave shielding body is produced. Select the two points that are farthest apart on the electrode and measure the resistance between them. In addition, the time required for each attachment of the electromagnetic shielding body is also checked. (Example 19) An anti-glare film roll having a width of 565 mm and a length of 500 m was prepared, and then a transparent conductive film layer was formed on the side opposite to the anti-glare layer in the same manner as in Example 17 to produce a length of 50. 0 m anti-glare transparent conductive film roll. Two rolls of copper tape [15 mm in width, 75 μm in thickness, 50,000 in length, and a conductive adhesive material on one side] were prepared. Copper tapes were bonded to both ends of the anti-glare transparent conductive film. The conductive adhesive material of the copper tape is bonded to the transparent conductive layer formed as an anti-glare transparent conductive material. The overlapping width of each copper tape and the anti-glare transparent conductive film is 10 mm. The bonding step is performed by a roll-to-roll method. Prepare a transparent bonding material [575mm wide, 25mm thick, 500m long]-roll. This transparent adhesive was laminated to a transparent anti-glare conductive film with a copper tape on the side, and was cut into a thin sheet of 9 5 8 mm. The bonding material is bonded to the processed surface where the transparent conductive layer and the copper tape are not bonded. The bonding step is performed by a roll-to-roll method. In this way, an electromagnetic wave shielding body is made. Figure 24 shows its section. Select the two furthest points on the electrode and measure the resistance between them. In addition, the time required for each attachment of the electromagnetic shielding body is also checked. (Example 20) -109-1225227 V. Description of the invention (108) A roll of an anti-glare film having a width of 565 inm 'and a length of 500 m was prepared, and then the same as in Example 17 was opposite to its anti-glare layer. A transparent conductive thin film layer is formed on the surface. Then, the transparent adhesive material was laminated on the conductive thin film layer by the roll-to-roll method while cutting a 958-mm-thick sheet to make an electromagnetic wave shielding body. A glass substrate [size 545 mm × 960 mm, thickness 3 mm] was prepared, and copper plates [size 10 mm × 960 mm, thickness 3 mm] were provided on both long sides thereof. There are screw holes in the copper plate. The screw holes are set at 30 mm intervals from the top to the end. An electromagnetic wave shielding body is attached to a supporting substrate combining the glass substrate and the copper plate. Lock the screws to the screw holes formed on the copper plate. The screw is locked to the screw hole through the electromagnetic wave shield from the outermost surface of the electromagnetic wave shield. At this time, the screw becomes a substantially through-hole electrode. In this way, an electromagnetic wave shielding body is produced. Figure 25 shows a cross-sectional view. ○ Select the two points at the farthest points on the electrode to measure the resistance between them. In addition, the time required for each attachment of the electromagnetic shielding body was also measured. (Comparative Example 5) A roll of a poly (ethylene terephthalate) film (width 565 mm, length 500 m, thickness 75 μm) as a transparent polymer film (B) was prepared in the same manner as in Example 18, and rolled in A transparent conductive film layer is formed on the main surface of one side. A transparent adhesive material is laminated on the surface opposite to the transparent conductive film forming surface of the film by a roll-to-roll method. Then, while cutting the obtained film, paste it through a transparent adhesive material -110- 1225227 V. Description of the invention (109) on a transparent support substrate. In addition, an anti-glare film having a width of 56.5 mm and a length of 500 m in a state where the transparent adhesive material is pasted on the side opposite to the anti-glare layer is prepared, and it is bonded to the above while cutting. On the transparent conductive film layer of the bonded body. At this time, the end portion was attached to a position within 5 mm from the outer peripheral portion of the transparent conductive film layer. Next, the entire periphery of the exposed portion of the transparent conductive film layer covered with the silver paste on the outer periphery portion was coated by the screen printing method and dried. In this way, an electromagnetic wave shielding body is produced. Select the furthest rain point on the electrode and measure the resistance between them. In addition, the bonding time required for each sheet of the electromagnetic wave shielding body was also measured. The above series of results are shown in Table 4 [Table 4] Time for attaching each film of the electromagnetic shielding body (seconds) Resistance 値 (Ω) between the electrodes 2 Examples 1 8 120 7.  3 EXAMPLE lTl 120 7.  1 Example 20 1 20 7. 3 Comparative Example 5 230 7.  1 It is clear from Table 4 that in all the examples, the resistance 电极 between the electrodes is not reduced compared to the conventional electrode shape shown in the comparative example. In addition, in all the embodiments, the time for bonding each film of the electromagnetic wave shielding body is greatly shortened, thereby greatly improving the production effect of the electromagnetic wave shielding body. (Example 21) Except for the following points, the rest are the same as the examples 1 is carried out in the same manner. -111- 1225227 V. Description of the invention (1 1 0) The transparent laminated body 1 is made as follows. Pigments that will absorb near-infrared rays, SIR1 28.0 manufactured by Mitsui Chemicals, Inc.  25% by weight, SIRI 30,23.23% by weight is mixed with poly (ethylene terephthalate) small nine 1 2 0 3 (manufactured by Unicam (company)), and melted at a temperature of 260 to 2 80 ° C , And then made a polymer film (B) with a thickness of 188 μιτι by a biaxial rolling extruder. A polyester-based adhesive containing a cross-linked material was coated on the main surface of one side of the polymer film (B) prepared as described above to a thickness of 10 μm. Secondly, a silver foil with a thickness of 7 μm, a pore diameter of 1 μm, and a porosity of 12% was stacked. Furthermore, a molybdenum film having a thickness of 50 µm was formed on both main surfaces of the silver foil by a sputtering method in advance. Next, using a thermosetting ink, a grid pattern with a grid width of 20 μm and a mesh size of 1 50 μm × 1 50 μm was printed on the metal layer by screen printing. Then, heat the ink at 90 ° C for 5 minutes to harden the ink, and then remove the metal layer of the unprotected portion by using an aqueous solution of ferric chloride (f er r c c h 1 ore d e), and then remove the ink with a solvent. In this way, a laminated body having a metal layer having the pattern shown in Fig. 27 and an aperture ratio of 75% was obtained. The measured average transmittance of visible light was 6 7%. The measured surface resistance is 0.  1 1 Ω / □. (Example 2 2) Except for the following points, the same procedure as in Example 3 was performed. A polymer film (B) / transparent conductive layer (D) was prepared by the following method. A pigment that will absorb near-infrared rays, manufactured by Mitsui Chemicals, Inc. S I R 1 2 8, 0.  25% by weight, S I R 1 3 0, 0.  2 3% by weight is mixed with poly (ethylene terephthalate) Nine 1 20 3 (manufactured by Unicam (company)), and 2 6 0 ~ -112- 1225227 V. Description of the invention (1 1 1) 28 The polymer was melted at a temperature of 0 ° C, and then made into a polymer film (B) with a thickness of 1 88 μm by a biaxial rolling extruder. Next, a silver foil having a thickness of 7 μm, a pore diameter of 1 μm, and a porosity of 8% was stacked on the polymer film (B) prepared above by using an acrylic adhesive. In addition, chrome plating was applied to both sides of this silver foil in advance. Secondly, the alkaline developing type photoresist is coated on the copper layer, pre-baked and exposed with light shielding, and developed to form a grid pattern with a grid width of 25 μm and a mesh size of 125 μm τ 125 x 125 μm. An aqueous solution of ferric chloride etches a part of the metal layer that is not protected by the resist, and then the resist is removed in an alkaline solution. In this way, a laminated body having a metal layer having the shape shown in Fig. 27 and an opening ratio of 69% can be obtained. The measured visible light transmittance was 65% and the sheet resistance was 0. 07Ω / Ε]. It is clear from Table 5 that by using the electromagnetic wave shielding body of the present invention, it is possible to distinguish Cl as s B or Cl as s A of VCCI specifications. The lower the surface resistance of the transparent conductive layer, the better the ability of the electromagnetic wave shielding body. In addition, by using the electromagnetic wave shielding body of the present invention, it has excellent near-infrared reducing ability. The electromagnetic wave shielding body of the present invention using a metal mesh layer has excellent visible light transmission properties, electromagnetic wave shielding properties, and near-infrared shielding properties. Furthermore, the electromagnetic wave shielding body of the present invention has various functions by the functional transparent layer (A), and has excellent environmental resistance and / or abrasion resistance and / or antifouling and / or antistatic properties. -113- 1225227 V. Description of the invention (112) [Table 5] Electromagnetic wave shielding body None Example 21 Example 22 Comparative Example Ί ~ Surface resistance of transparent conductive layer Ω / □ 0. 11 0. 07 Ϊ5 ^% of radioactive intensity, dBp / m 33MHz 59 21 19 52 ^ 90MHz 52 24 21 49 ^ Near infrared transmittance,% 820nm 20 20 79 ～ 850nm-5 5 78 950nm-10 [To 70 Malfunction limit distance, m 5 above 0. 8 0. 8 or more 5 [Inventive effect] As described above, according to the present invention, a filter for a display that operates as a light-adjusting film with excellent transmission characteristics 'transmittance' and reflection characteristics can be realized at low cost. By forming this filter directly on the display surface of a display device such as a plasma display, the color purity and tone can be improved without significantly damaging the brightness of the display, thereby realizing a display device with excellent image quality. In addition, it can be realized at a low cost as a filter having excellent transmission characteristics, transmittance, visible light reflectance, and the ability to block electromagnetic waves generated from a display device such as an electric award display. What's more, the near-infrared rays in the vicinity of 800 to 100 nm emitted by the display are effectively reduced, so it will not adversely affect the wavelengths used in remote control of peripheral electronic devices, transmission systems, optical communications, etc., and prevent their malfunction. In addition, it can achieve both excellent weather resistance, environmental resistance, anti-reflection and / or anti-glare, scratch resistance, "anti-fouling" and anti-charge properties, etc. -1 14-1225227 5. Description of the invention (113), High-quality display device. In addition, the total thickness of the transparent polymer film constituting the filter for the display is taken as 0.  Above 3 Him, this can improve the protection function and workability of the plasma display panel, and can be directly pasted to the electromagnetic wave shielding body or dimming film on the display surface of the plasma display. In addition, by planning the shape of the electrodes of the electromagnetic wave shielding body, a sufficient electromagnetic wave shielding effect can be obtained, and the time required to form the electrodes can be greatly shortened ', thereby greatly improving production efficiency. [Description of reference symbols] 10 · · · · · transparent conductive layer Π * · · · • high refractive index transparent film layer 12 · ·.  Metal thin film layer 20  Polymer film 21 ... Polymer film containing pigment 2 3,24. . . . . Transparent polymer film 25 ····· Transparent polymer film for padding 41 ···· Conductive adhesive layer 3 0,40. . . . . Transparent adhesive layer 22 · · · · · Hard coating 50 · · · · · Electrode 60. . . . . Anti-fouling anti-reflection film 6 1. . . . . Anti-reflection film 62. . . . . Hard coating film with anti-charge property -115- 1225227 V. Description of the invention (114) 6 3. . . . . Hard coating film 7 0. . . . . Anti-glare layer 71. . . . . Anti-glare film 80. . . . . Conductive copper foil adhesive tape -116-

Claims (1)

1225227 VI. Patent application scope No. 90 1 020 1 6 "Display filter, display device and manufacturing method thereof" patent case (Amended on February 20, 1993) Six patent application scope: 1. Filter for display The device can be adhered to the display surface of the display and has predetermined filtering characteristics. It is characterized by having: a functional transparent layer (A) provided on the outside air side and having anti-reflection and / or anti-glare properties; provided on the display Side, a transparent adhesive layer (C) for adhering to the display surface; a polymer film (B) provided between the functional transparent layer (A) and the transparent adhesive layer (C) as a substrate; provided in the function 〇1 ～ 30Ω / □ between the transparent layer (A) and the polymer film (B), and / or between the polymer film (B) and the transparent adhesive layer (C) A conductive layer (D), the transparent conductive layer (D) is composed of a single layer of a transparent conductive film or a multilayer film in which a high refractive index transparent film layer (Dt) and a metal film layer (Dm) are laminated. 2. The filter for a display as described in the first item of the patent application, wherein the thickness of the high molecular film (B) is 10 to 250 μm. 3 · —A kind of display filter, which can be adhered to the display surface of the display, and has predetermined filtering characteristics, which is characterized in that: it is provided on the outside air side and has the function of preventing reflection and / or anti-glare 1225227 6 2. Patent application scope transparent layer (A); transparent adhesive layer (C) provided on the display side for bonding to the display surface; functional transparent layer (A) and transparent adhesive layer (as a substrate) C) polymer film (B); provided between the functional transparent layer (A) and the polymer film (B), and / or between the polymer film (B) and the transparent adhesive layer (C), A transparent conductive layer (D) having a surface resistance of 〇1 ～ 30Ω / □, part or all of the transparent conductive layer (D) is formed by a conductive mesh, and the functional transparent layer (A), high At least one of the molecular film (B) and the transparent adhesive layer (C) contains one or more pigments that have a great absorption of light in the wavelength range of 5 70 to 605 nm. 4. The filter for a display as claimed in item 1 of the scope of patent application, wherein the transparent conductive layer (D) is a combination of a high refractive index transparent thin film layer (Dt) and a metal thin film layer (Dm), with (Dt) / ( Dm) is a repeating cycle unit which is repeatedly stacked 2 to 4 times, and then a high refractive index thin film layer (Dt) is stacked thereon. At least one of the high-refractive-index transparent thin-film layers (D t) is an oxide former containing any one of indium, tin, and zinc as a main component. 6. The filter for a display according to item 4 of the patent application, wherein at least one of the plurality of metal thin film layers (Dm) is formed of silver or silver alloy. 1225227 6. Application for patent scope 7. For the filter for display of item 1 of the scope of patent application, the functional transparent layer (A) also has hard coating property, antistatic property, antifouling property, gas blocking property and ultraviolet light. At least one of these functions. 8. The filter for display according to item 3 of the scope of patent application, wherein the functional transparent layer (A) has at least one of hard coating property, antistatic property, antifouling property, gas blocking property and low UV reduction property. . 9. The filter for a display according to item 1 of the patent application scope, wherein an adhesive layer (E) is provided between the functional transparent layer (A) and the polymer film (B). 10. The display filter according to item 3 of the patent application scope, wherein an adhesive layer (E) is provided between the functional transparent layer (A) and the polymer film (B). 1 1. The display filter according to item 1 of the patent application scope, wherein a hard coat layer (F) is formed on both or one side of the polymer film (B). 1 2 · The filter for a display according to item 3 of the patent application scope, wherein a hard coat layer (f) is formed on both or one side of the polymer film (B). 1 3 · The filter for a display according to any one of claims 1 to 12 in the scope of patent application, wherein the functional transparent layer (A), the polymer film (B), and the transparent adhesive layer (C) are transparent. At least one of the conductive layer (D), the adhesive layer (£) and the hard coat layer (F) contains more than one pigment. [14] The filter for a display according to item 13 of the patent application range, wherein the pigment is a tetraazapyrroline compound. 1 5. If the filter for display item No. 丨 4 of the scope of patent application, the tetraazaphosphaline compound is a chemical formula represented by the following chemical formula (丨) 1225227 6. The scope of patent application Compound, A a5 (In the formula, 'A1 ~ Aδ' each represent a hydrogen atom, a halogen atom, a nitro'cyano group, a sulfonic acid group, an alkyl group having a carbon number of ˜20, a halogenated alkyl group, an alkyl group, and an alkoxy group. Alkyl, aryloxy, monoalkylamino 'diamylamino, aralkyl, aryl, heteroaryl, alkylthio' or arylthio, A1 and A2, A3 and A4, A5 and A6 , A7 and A8 may each form a ring other than an aromatic ring via a linking group. M represents two hydrogen atoms, a bivalent metal atom, a trivalent one substituted metal atom, and a tetravalent two substituted metal atom. Or a hydroxyl metal atom. 16 · The filter for display as described in item 13 of the scope of patent application, which contains a pigment that absorbs light with a maximum near-infrared absorption in the wavelength range of 800 to 1 100 nm. -4 -1225227 r. Application for patent scope 1 7. The filter for display as in any of the items 1 to 6 of the scope of patent application, in which the visible light reflectance of the surface of the functional transparent layer (A) is below 2% 1 8. The filter for display as shown in item 1 of the scope of patent application, which has 30% to 85% Apparent light transmittance. 1. For example, the filter for display of item 3 in the scope of patent application, which has a visible light transmittance of 30 to 85%. 2 〇 · For the filter of display in aspect 1 of patent application Optical device, where the minimum transmittance in the range of #wavelength 8 0 ~ 100nm is less than 20%. 2 For example, the filter for display of the scope of patent application item 3, in which the #wavelength 8 00 ~ 1 100nm range The minimum transmittance is less than 20%. 〇 2 2 As shown in any one of the scope of the patent application _ _ light device, in which the total thickness of the polymer film thickness of the entire filter {Department of stomach 0. 3 _above. 2 3 · If the filter for display of item 1 of the scope of patent application, the stomach is provided with a polymer film that can contain pigments and for heightening. 24 · For the filter of display of area 3 of patent application The optical device is provided with a polymer film which can contain pigments and be used for heightening. 2 5. The filter for a display as described in the patent application item No. 丨, wherein an electrode electrically connected to the transparent conductive layer (D) is formed. 26 · If the filter for display item 3 of the patent application scope, Shape 1225227 6. The scope of patent application is to be an electrode that is electrically connected to the transparent conductive layer (D). 27. The filter for display as shown in item 25 of the patent application scope, wherein the electrode is electrically connected to the transparent conductive layer (D). It is formed continuously along the circumferential direction of the peripheral portion of the filter. 28. The filter for a display as claimed in item 26 of the patent application, wherein the electrode electrically connected to the transparent conductive layer (D) is along the peripheral edge of the filter. The circumferential direction of the portion is continuously formed. 2 9. The filter for a display as claimed in item 25 of the patent application scope, wherein the electrode is formed on the conductive portion that is partially exposed. 30. The filter for a display according to item 26 of the patent application, wherein the electrode is formed on a partially exposed conducting portion. 31. The filter for display according to item 27 of the scope of patent application, wherein the shape of the filter is rectangular, and the electrodes are formed on two opposite peripheries. 32. The filter for a display according to item 28 of the patent application, wherein the shape of the filter is rectangular, and the electrodes are formed on two opposite peripheries. 33. The filter for a display according to item 29 of the patent application scope, wherein the shape of the filter is rectangular, and the electrodes are formed on two opposite peripheries. 34. The filter for a display according to item 30 of the patent application, wherein the shape of the filter is rectangular, and the electrodes are formed on two opposite peripheries. 1225227 6. Scope of patent application 3 5. The filter for display as shown in item 27 of the patent application scope, wherein the electrode electrically connected to the transparent conductive layer (D) is formed on the peripheral end surface of the filter. 36. The filter for display as claimed in item 28 of the patent application range, wherein the electrode electrically connected to the transparent conductive layer (D) is formed on the peripheral end surface of the filter. 37. The filter for a display according to item 29 of the patent application scope, wherein the electrode electrically connected to the transparent conductive layer (D) is formed on the peripheral end surface of the filter. 38. The filter for a display according to claim 30, wherein the electrode electrically connected to the transparent conductive layer (D) is formed on the peripheral end surface of the filter. 39. The filter for a display according to any one of claims 1 to 6 in the scope of patent application, wherein at least the communication with the transparent conductive layer (D) is formed from the outermost surface along the thickness direction of the filter. A hole, and an electrode electrically connected to the transparent conductive layer (D) is formed inside the communication hole. 40. The filter for a display according to any one of claims 1 to 6, wherein a conductive tape is interposed between the transparent conductive layer (D) and a layer adjacent thereto. 41. A display device comprising a display for displaying an image, and a filter for display in any one of the scope of application for patents Nos. 1 to 40 1225227r and any of the scope of application for patents provided on the display surface of the monitor. 42. A method for manufacturing a display device, comprising: applying a display filter according to any one of claims 25 to 40 to a display device via a transparent adhesive layer (C); Step on the surface; and step of electrically connecting the ground conductor of the display device and the electrode of the transparent conductive layer (D). 4 3 — A method for manufacturing a display device, characterized in that it comprises: a polymer film (B), a transparent conductive layer (D), and a transparent adhesive layer (C) through a transparent adhesive layer (C) The step of attaching the multilayer filter to the display surface of the display device; arranging a functional transparent layer (A) having antireflection and / or anti-glare properties directly or via a second adhesive layer on the multilayer filter The above steps; and the step of electrically connecting the ground conductor and the transparent conductive layer (D) of the display device. 44. A method for manufacturing a display device, comprising: a step of disposing an adhesive layer on a display surface of the display device; and comprising a polymer film (B) and a transparent conductive layer (D) through the aforementioned adhesive layer, And a step of attaching a laminated filter having a functional transparent layer (A) having antireflection and / or antiglare properties; and a step of electrically connecting a ground conductor and a transparent conductive layer (D) of a display device. 1225227 6. Application patent scope 4 5-A method for manufacturing a display device, comprising: a step of disposing an adhesive layer on the display surface of the display device; a polymer film (B) and a transparent conductive layer ( D) The step of laminating the laminated filter through the aforementioned adhesive layer; placing a functional transparent layer (A) having antireflection and / or anti-glare properties directly or via the second adhesive layer on the laminated filter A step on the monitor; and a step of electrically connecting the ground conductor and the transparent conductive layer (D) of the display device. 46. — A method for manufacturing a filter for a display, which is used to manufacture a filter that can adhere to a display screen and has predetermined filtering characteristics, and is characterized by comprising: a polymer film provided as a substrate (B) the step of forming a functional transparent layer (A) having antireflection and / or anti-glare properties on the outside air side; between the functional transparent layer (A) and the polymer film (B) and / or between Between the polymer film (B) and the transparent adhesive layer (C), a transparent conductive layer (D) having a sheet resistance of 0.01 to 3 0 Ω / □ and a part or all of which is formed of a conductive mesh is formed (D ) Step; and the step of performing the autoclave under the condition of heating and pressurizing. 47. The method for manufacturing a filter for a display according to item 46 of the patent application, wherein the autoclave treatment is at 60. C, 2 X 105 Pa under temperature and pressure.