Display device

Abstract

A display device is disclosed. The display device of the present disclosure comprises: a display panel; a frame to which the display panel is coupled; a rear plate coupled to the frame and facing the display panel with respect to the frame; and a power supply unit fixed to the rear plate and including a line filter, wherein the rear plate may include an opening aligned with the line filter of the power supply unit.

Description

Technology Field

[0001] The present disclosure relates to a display device. Background Technology

[0002] As the information society develops, the demand for display devices is increasing in various forms. In response to this, various display devices such as LCD (Liquid Crystal Display Device), PDP (Plasma Display Panel), ELD (Electroluminescent Display), VFD (Vacuum Fluorescent Display), and OLED (Organic Light Emitting Diode) have recently been researched and are being used.

[0003] Among these, the LCD panel is equipped with a TFT substrate and a color substrate facing each other with a liquid crystal layer in between, and can display an image using light provided from a backlight unit. Additionally, the OLED panel can display an image by depositing a self-emissive organic layer on a substrate having a transparent electrode formed thereon.

[0004] In particular, display devices using OLED panels have superior brightness and viewing angles compared to display devices using LCD panels, and have the advantage of being able to be implemented as ultra-thin because they do not require a backlight unit.

[0005] Recently, much research is being conducted on large-screen ultra-thin display devices. The problem to be solved

[0006] The present disclosure aims to solve the aforementioned problems and other problems.

[0007] Another objective may be to ensure the structural rigidity of large-screen ultra-thin display devices.

[0008] Another objective may be to provide a display device that improves noise and vibration that may occur in the electromagnetic structure.

[0009] Another objective may be to provide a display device that improves noise and vibration caused by spatial constraints of ultra-thin large-screen displays. means of solving the problem

[0010] According to one aspect of the present disclosure for achieving the above or other purposes, a display device comprises: a display panel; a frame to which the display panel is coupled; a rear plate coupled to the frame and facing the display panel with respect to the frame; and a power supply unit fixed to the rear plate and including a line filter, wherein the rear plate may include an opening aligned with the line filter of the power supply unit. Effects of the invention

[0011] The effects of the display device according to the present disclosure are described as follows.

[0012] According to at least one of the embodiments of the present disclosure, structural rigidity of a large-screen ultra-thin display device can be secured.

[0013] According to at least one of the embodiments of the present disclosure, a display device that improves noise and vibration that may occur in an electromagnetic structure can be provided.

[0014] According to at least one of the embodiments of the present disclosure, a display device that improves noise and vibration caused by spatial constraints of an ultra-thin large-screen display can be provided.

[0015] Further scopes of the applicability of the present disclosure will become apparent from the following detailed description. However, since various changes and modifications within the spirit and scope of the present disclosure are clearly understood by those skilled in the art, specific embodiments, such as the detailed description and preferred embodiments of the present disclosure, should be understood as being given merely as examples. Brief explanation of the drawing

[0016] FIGS. 1 to 27 are drawings illustrating examples of display devices according to embodiments of the present disclosure. Specific details for implementing the invention

[0017] Hereinafter, embodiments disclosed in this specification will be described in detail with reference to the attached drawings. Identical or similar components regardless of drawing symbols are given the same reference number, and redundant descriptions thereof will be omitted.

[0018] The suffixes "module" and "part" used for components in the following description are assigned or used interchangeably solely for the ease of drafting the specification, and do not inherently possess distinct meanings or roles.

[0019] In addition, when describing the embodiments disclosed in this specification, if it is determined that a detailed description of related prior art may obscure the essence of the embodiments disclosed in this specification, such detailed description is omitted. Furthermore, the attached drawings are intended only to facilitate understanding of the embodiments disclosed in this specification, and the technical concept disclosed in this specification is not limited by the attached drawings; it should be understood that they include all modifications, equivalents, and substitutions that fall within the concept and technical scope of this disclosure.

[0020] Terms including ordinal numbers, such as first, second, etc., may be used to describe various components, but said components are not limited by said terms. These terms are used solely for the purpose of distinguishing one component from another.

[0021] When it is stated that one component is "connected" or "connected" to another component, it should be understood that while it may be directly connected or connected to that other component, there may also be other components in between. On the other hand, when it is stated that one component is "directly connected" or "directly connected" to another component, it should be understood that there are no other components in between.

[0022] A singular expression includes a plural expression unless the context clearly indicates otherwise.

[0023] In this application, terms such as "comprising" or "having" are intended to specify the existence of the features, numbers, steps, actions, components, parts, or combinations thereof described in the specification, and should be understood as not precluding the existence or addition of one or more other features, numbers, steps, actions, components, parts, or combinations thereof.

[0024] The directional indications of Up (U), Down (D), Left (Le), Right (Ri), Front (F), and Rear (R) shown in the drawings are for convenience of explanation only and do not limit the technical concepts disclosed in this specification.

[0026] Referring to FIG. 1, the display device (100) may include a display panel (110). The display panel (110) may display a screen.

[0027] A display device (100) may include a first long side (LS1), a second long side (LS2) facing the first long side (LS1), a first short side (SS1) adjacent to the first long side (LS1) and the second long side (LS2), and a second short side (SS2) facing the first short side (SS1). Meanwhile, for convenience of explanation, the lengths of the first and second long sides (LS1, LS2) are shown and described as being longer than the lengths of the first and second short sides (SS1, SS2), but it is also possible for the lengths of the first and second long sides (LS1, LS2) to be approximately the same as the lengths of the first and second short sides (SS1, SS2).

[0028] A direction parallel to the long side (LS1, LS2) of the display device (100) may be referred to as the first direction (DR1) or left-right direction. A direction parallel to the short side (SS1, SS2) of the display device (100) may be referred to as the second direction (DR2) or up-down direction. A direction perpendicular to the long side (LS1, LS2) and short side (SS1, SS2) of the display device (100) may be referred to as the third direction (DR3) or front-back direction.

[0029] The direction in which the display device (100) displays an image can be called the front (F, +z), and the opposite direction can be called the rear (R, -z). The second short side (SS2) can be called the left side (Le, -x). The first short side (SS1) can be called the right side (Ri, +x). The first long side (LS1) can be called the upper side (U, +y). The second long side (LS2) can be called the lower side (D, -y).

[0030] The first long side (LS1), the second long side (LS2), the first short side (SS1), and the second short side (SS2) can be referred to as edges of the display device (100). Additionally, the point where the first long side (LS1), the second long side (LS2), the first short side (SS1), and the second short side (SS2) meet each other can be referred to as a corner.

[0031] The point where the first short side (SS1) and the first long side (LS1) meet may be the first corner (C1). The point where the first short side (SS1) and the second long side (LS2) meet may be the second corner (C2). The point where the second short side (SS2) and the second long side (LS2) meet may be the third corner (C3). The point where the second short side (SS2) and the first long side (LS1) meet may be the fourth corner (C4).

[0032] Hereinafter, a display panel (110) is described using an organic light-emitting diode (OLED) as an example, but the display panel (110) applicable to the present disclosure is not limited thereto.

[0033] The display panel (110) forms the front surface of the display device (100) and can display an image forward. The display panel (110) can output an image by dividing the image into multiple pixels and adjusting the color, brightness, and saturation for each pixel. The display panel (110) can be divided into an active area where the image is displayed and a de-active area where the image is not displayed. The display panel (110) can generate light corresponding to the color red, green, or blue according to a control signal.

[0035] Referring to FIG. 2, the material complexed panel (130) may include a core (131), a front skin (132), and a rear skin (133). The core (131), the front skin (132), and the rear skin (133) may be combined with each other. The material complexed panel (130) may be referred to as a fiber complexed panel (130), a fiber complexed plate (130), a material complexed plate (130), or a frame (130).

[0036] The front skin (132) can form the front surface of the composite material panel (130). The rear skin (133) can form the rear surface of the composite material panel (130). The front skin (132) and the rear skin (133) may include a metal material. For example, the front skin (132) and the rear skin (133) may include an aluminum (Al) material. As another example, the front skin (132) and the rear skin (133) may be galvanized iron or galvanized steel sheet. For example, the thickness of the front skin (132) and the rear skin (133) may be about 0.5 mm. The front skin (132) and the rear skin (133) may face each other with respect to the core (131).

[0037] The core (131) may be located between the front skin (132) and the rear skin (133). The core (131) may include fibers. The core (131) may be formed from a composite material. The core (131) may include main fibers and binder fibers. Binder fibers may be mixed between the main fibers.

[0038] A hot-melt sheet may be positioned between the front skin (132) and the core (131). Additionally, a hot-melt sheet may be positioned between the rear skin (133) and the core (131). The hot-melt sheet may be a film. For example, the hot-melt sheet may be a film such as EVA, acrylic, or polyurethane having a thickness of 50 micrometers or more. The core (131) and the hot-melt sheet may be laminated to the front skin (132) and the rear skin (133) for at least 1 minute at a high temperature (e.g., about 190 to 200°C).

[0039] Accordingly, the composite material panel (130) can improve the bending rigidity and / or torsional rigidity of the display device.

[0041] Referring to FIGS. 3 and 4, a composite material panel (130) can be manufactured through a process of pressing a front skin (132) and a rear skin (133) onto a core (131) using a plurality of rollers, and this process can be called an R2R (Roll-to-Roll) process.

[0042] Referring to FIG. 3, depending on the rotation of the pinch roller (Ra) which performs the function of a drive motor, the front skin (132) can be released from the front drum (Da), the rear skin (133) can be released from the rear drum (Db), and the core (131) can be moved through the feeding roller (Rd). Also, a first adhesive (134a) for bonding the front skin (132) to the core (131) can be released from the first drum (Dc). Additionally, a second adhesive (134b) for bonding the rear skin (133) to the core (131) can be released from the second drum (Db). In this case, the front skin (132), the first adhesive (134a), the core (131), the second adhesive (134b), and the rear skin (133) can be laminated in the order above and guided toward the oven (Ov) by a guide roller (Rc). The adhesives (134a, 134b) may be hot-melt sheets (134a, 134b).

[0043] The first and second adhesives (134a, 134b) can be melted in an oven (Ov), and the front skin (132) and rear skin (133) can be bonded to the core (131). For example, the melting point of the first and second adhesives (134a, 134b) may be about 150°C, and the ambient temperature of the oven (Ov) may be about 200°C. For example, the peel-off force of the first and second adhesives (134a, 134b) may be about 10 kgf or more.

[0044] The front skin (132), core (131), and rear skin (133) that have passed through the oven (Ov) can be guided to the compression roller (Rb) according to the rotation of the pinch roller (Ra) and can be compressed by the compression roller (Rb). Accordingly, the bonding force between the front skin (132), core (131), and rear skin (133) can be further increased. After passing the pinch roller (Ra), the mutually bonded front skin (132), core (131), and rear skin (133) can be cut by a cutter (Ct) to be manufactured into a composite material panel (130) of a certain size.

[0045] Referring to FIG. 4, the compression roller (Rb) or pinch roller (Ra) may come into contact with the outer surface of the front skin (132) and the rear skin (133), respectively. When the compression roller (Rb) or pinch roller (Ra) rotates, the composite material panel (130) may be moved along the longitudinal direction of the core (131). At this time, along the longitudinal direction of the core (131), the front skin (132) and the rear skin (133) may be sequentially joined from one end of the core (131) to the other end.

[0046] Additionally, the front skin (132) and rear skin (133) of the composite material panel (130) can be formed flat. That is, by forming the rear surface of the rear skin (133) that forms the rear of the display device (100) flat, it becomes easier to perform additional work, such as painting or attaching a sheet to the rear surface of the rear skin (133) for aesthetic purposes. Alternatively, the flat rear skin (133) itself may form the rear surface of the display device (100).

[0047] Meanwhile, in addition to the R2R process described above with reference to FIGS. 3 and 4, a composite material panel (130) can be manufactured through a process such as stacking the front skin (132), core (131), and rear skin (133) in sequence and then combining them together.

[0049] Referring to FIG. 5, the core (131) may include a main core (131a) and a binder core (131b). The main core (131a) may have a first fiber made of PET (polyethylene terephthalate) material and a second fiber made of LM (long material) material. For example, the ratio of the first fiber to the second fiber in the main core (131a) may be 50%. The binder core (131b) may include an acrylic fiber.

[0050] The front skin (132) may be made of aluminum (Al) or galvanized iron and may be bonded to the binder core (131b) through a first hot-melt adhesive (134a).

[0051] The rear skin (133) may be made of aluminum (Al) or galvanized steel (Galvanized Iron) and may be bonded to the main core (131a) through a second hot-melt adhesive (134b).

[0052] The front skin (132) may be positioned closer to the display panel (110, see FIG. 16) than the rear skin (133) and may be exposed to a relatively high temperature environment than the rear skin (133). That is, a temperature difference may occur between the front skin (132) and the rear skin (133). For example, the temperature difference between the front skin (132) and the rear skin (133) may be about 4°C.

[0053] At this time, the hot-melt adhesive (134a, 134b) may be formed into a multilayer structure of fiber material. The hot-melt adhesive (134a, 134b) may include a first layer (1341), a second layer (1342), and a third layer (1343). For example, the first layer (1341), the second layer (1342), and the third layer (1343) may include synthetic fiber material. For example, the first layer (1341) may include nylon material and may be located between the second layer (1342) and the third layer (1343). For example, the second layer (1342) and the third layer (1343) may include polyurethane (PU) material.

[0054] Accordingly, due to the elongation characteristics of each layer of the composite material panel (130), the bending phenomenon caused by thermal deformation of the composite material panel (130) due to the temperature difference between the front skin (132) and the rear skin (133) can be minimized.

[0056] Referring to FIG. 6, the composite material panel (130) may include a flat portion (130P), an outer portion (135), and a receiving portion (137). The front skin (132) of the composite material panel (130) may define the front surface of each of the flat portion (130P), the outer portion (135), and the receiving portion (137).

[0057] The outer portion (135) may be formed around the perimeter of the flat portion (130P). The outer portion (135) may be formed by pressing backward from the flat portion (130P). The first outer portion (135a) may be formed along the upper edge of the flat portion (130P). The second outer portion (135b) may be formed along the right edge of the flat portion (130P). The third outer portion (135c) may be formed along the lower edge of the flat portion (130P). The fourth outer portion (135d) may be formed along the left edge of the flat portion (130P).

[0058] The receiving portion (137) may be formed between the flat portion (130P) and the third outer portion (135c). The receiving portion (137) may be formed by being pressed backward from the flat portion (130P) and / or the third outer portion (135c).

[0059] The cable hole (136) can be formed by penetrating the receiving portion (137) in the front-rear direction. For example, a plurality of cable holes (136a, 136b) can be adjacent to each other.

[0061] Referring to FIG. 7, the thickness (T1) of the flat portion (130P) may be greater than the thickness (T2) of the receiving portion (137). The step (D1) between the front skin (132) of the flat portion (130P) and the front skin (132) of the receiving portion (137) may be greater than the step (D2) between the rear skin (133) of the flat portion (130P) and the rear skin (133) of the receiving portion (137).

[0062] The thickness (T4) of the third outer portion (135c) may be greater than the thickness (T2) of the receiving portion (137). The step (D2) between the rear skin (133) of the third outer portion (135c) and the rear skin (133) of the receiving portion (137) may be the same as the step (D2) between the rear skin (133) of the flat portion (130P) and the rear skin (133) of the receiving portion (137).

[0063] The protruding pad (138) may protrude forward from the front skin (132) of the third outer portion (135c). The thickness (T3) of the protruding pad (138) may be greater than the thickness (T4) of the third outer portion (135c), greater than the thickness (T2) of the receiving portion (137), and smaller than the thickness (T1) of the flat portion (130P). The step (D4) between the front skin (132) of the protruding pad (138) and the front skin (132) of the third outer portion (135c) may be smaller than the step (D1, D2, D3). The step (D3) lowering from the front skin (132) of the protruding pad (138) to the front skin (132) of the receiving portion (137) may be smaller than the step (D1) and larger than the step (D2).

[0065] Referring to FIG. 8, the side frame (140) may extend along the perimeter of the composite panel (130). The side frame (140) may be bonded to the front skin (132) of the outer portion (135, see FIG. 6) of the composite panel (130) via hot-melt adhesive (130H). For example, the side frame (140) may comprise a metal material such as aluminum (Al). The side frame (140) may be referred to as a guide panel (140) or a middle cabinet (140).

[0067] Referring to FIGS. 9 and 10, the side frame (140) may include a vertical section (140V) and a horizontal section (140H). The vertical section (140V) may extend in the front-rear direction and may cover the side of the composite material panel (130). The horizontal section (140H) may extend from the vertical section (140V) in a direction intersecting the vertical section (140V) and may be located in front of the outer section (135).

[0068] Referring to FIG. 9, the outer portion (135) can be formed by pressing backward from the front skin (132) of the flat portion (130P). For example, the outer portion (135) can be re-striked and flattened after forging. For example, the thickness (T1) of the flat portion (130P) can be 4.0 mm, and the thickness (T4) of the outer portion (135) can be 3.0 mm. A hot-melt adhesive (130H) can be applied to the outer portion (135) and positioned between the outer portion (135) and the horizontal portion (140H).

[0069] Referring to FIG. 10, the horn (UW) of the ultrasonic welding machine may be positioned on the front of the horizontal portion (140H) and may apply ultrasonic vibrations to the horizontal portion (140H) and the hot-melt adhesive (130H). Accordingly, the horizontal portion (140H) may be ultrasonically welded to the outer portion (135) through the hot-melt adhesive (130H). At this time, the front skin (132) of the outer portion (135) may be pressed toward the rear skin (133) by the horn (UW), and the thickness (T5) of the outer portion (135) may be reduced. For example, the thickness (T5) of the outer portion (135) may be 2.4 to 2.5 mm. The amount of pressing (D6-D5) of the outer portion (135) by the horn (UW) may be 0.5 to 0.6 mm. Since the compression of these outer parts (135) is performed during the aforementioned ultrasonic welding, that is, at a high temperature, it can be maintained without springing back.

[0071] Referring to FIGS. 10 and 11, the sum (T10a) of the thickness (T5) of the outer portion (135), the thickness of the hot-melt adhesive (130H), and the thickness (T10) of the horizontal portion (140H) may be smaller than the thickness (T1) of the flat portion (130P). For example, the thickness (T1) of the flat portion (130P) may be 4.0 mm. For example, the thickness (T5) of the outer portion (135) may be 2.4 to 2.5 mm, the thickness of the hot-melt adhesive (130H) may be 0.1 mm, the thickness (T10) of the horizontal portion (140H) may be 1.1 mm, and the sum (T10a) of these may be 3.6 to 3.7 mm.

[0072] The display panel (110) may be located in front of the horizontal portion (140H). The first adhesive member (AD1) may be located between the front skin (132) of the flat portion (130P) and the rear surface of the display panel (110), and may be bonded to the flat portion (130P) and the display panel (110). For example, the thickness (T11) of the first adhesive member (AD1) may be 0.5 mm. The first adhesive member (AD2) may be located between the front surface of the horizontal portion (140H) and the rear surface of the display panel (110), and may be bonded to the horizontal portion (140H) and the display panel (110). For example, the thickness (T12) of the second adhesive member (AD2) may be 0.8 to 0.9 mm. For example, the adhesive members (AD1, AD2) may be double-sided tape.

[0073] Accordingly, the display panel (110) can be combined with the composite material panel (130) and the side frame (140), and can be positioned flat with respect to the composite material panel (130). In addition, the vertical portion (140V) can cover the side of the display panel (110).

[0075] Referring to FIG. 12 together with FIG. 8, the side frame (140) may include a first part (141), a second part (142), a third part (143), a fourth part (144), and a fifth part (145).

[0076] The first part (141) may extend along the first outer section (135a, see FIG. 6) and may include a first horizontal section (141H, see FIG. 9) and a first vertical section (141V). The first horizontal section (141H) may be parallel to the first outer section (135a) and may be fixed onto the first outer section (135a) via a hot-melt adhesive (130H). The first vertical section (141V) may intersect the first horizontal section (141H) and may cover the upper side of the composite panel (130).

[0077] The second part (142) may be bent downward from the right end of the first part (141) (see first corner (C1)) and may include a second horizontal section (142H) and a second vertical section (142V). The second horizontal section (142H) may be parallel to the second outer section (135b) and may be fixed onto the second outer section (135b) via a hot-melt adhesive (130H). The second vertical section (142V) may intersect the second horizontal section (142H) and may cover the right side of the composite panel (130).

[0078] The third part (143) may be bent to the left at the bottom of the second part (142) (see second corner (C2)) and may include a third horizontal section (143H, see FIG. 14) and a third vertical section (143V). The third horizontal section (143H) may be parallel to the third outer section (135c) and may be fixed onto the third outer section (135c) via a hot-melt adhesive (130H). The third vertical section (143V) may intersect the third horizontal section (143H) and may cover the lower side of the composite panel (130).

[0079] The fourth part (144) may be aligned with the third part (143) along the third outer part (135c), and the end of the fourth part (144) may be connected to the end of the third part (143). The fourth part (144) may include a fourth horizontal part (144H, see FIG. 15) and a fourth vertical part (144V, see FIG. 15). The fourth horizontal part (144H) may be parallel to the third outer part (135c) and may be fixed onto the third outer part (135c) via a hot-melt adhesive (130H). The fourth vertical part (144V) may intersect the fourth horizontal part (144H) and may cover the lower side of the composite panel (130).

[0080] The fifth part (145) may be bent downward from the left end of the first part (141) (see fourth corner (C4)), and the fourth part (144) may be bent to the right from the bottom of the fifth part (145) (see third corner (C3)). The fifth part (145) may include a fifth horizontal section (not shown) and a fifth vertical section (not shown). The fifth horizontal section (not shown) may be parallel to the fourth outer section (135d) and may be fixed on the fourth outer section (135d) via hot-melt adhesive (130H). The fifth vertical section (not shown) may intersect the fifth horizontal section (not shown) and may cover the left side of the composite panel (130).

[0082] Referring to FIGS. 13 and 14, a gap (G1) may be formed between the first horizontal portion (141H) of the first part (141) and the second horizontal portion (142H) of the second part (142). The first vertical portion (141V) of the first part (141) and the second vertical portion (142V) of the second part (142) may be connected by bending. A hole (H1) may be adjacent to the vertical portions (141V, 142V), may be connected to the gap (G1), and may have a diameter larger than that of the gap (G1).

[0083] Additionally, a gap such as a gap (G1) may be formed between the first horizontal section (141H) of the first part (141) and the fifth horizontal section (not shown) of the fifth part (145, see FIG. 12). The first vertical section (141V) of the first part (141) and the fifth vertical section (not shown) of the fifth part (142) may be connected by bending. A hole such as a hole (H1) may be adjacent to the first vertical section (141V) and the fifth vertical section (not shown).

[0084] A gap (G3) may be formed between the second horizontal section (142H) of the second part (142) and the third horizontal section (143H) of the third part (143). The second vertical section (142V) of the second part (142) and the third vertical section (143V) of the third part (143) may be connected by bending. A hole (H3) may be adjacent to the vertical sections (142V, 143V), may be connected to the gap (G3), and may have a diameter larger than that of the gap (G3).

[0085] Additionally, a gap such as a gap (G3) may be formed between the fifth horizontal section (not shown) of the fifth part (145, see FIG. 12) and the fourth horizontal section (144H, see FIG. 15) of the fourth part (144, see FIG. 12). The fifth vertical section (not shown) of the fifth part (145) and the fourth vertical section (144V, see FIG. 15) of the fourth part (144) may be connected by bending. A hole such as a hole (H3) may be adjacent to the fifth vertical section (not shown) and the fourth vertical section (144V).

[0086] Referring to FIG. 13, the corner (130C1) adjacent to the first corner (C1) of the flat plate (130P) may be rounded. For example, the radius of curvature of the corner (130C1) may be 10 mm. Accordingly, in the forging process of the outer portion (135) of the aforementioned flat plate (130P) and the pressurization process using the horn (UW, see FIG. 10) of the ultrasonic welding machine, it may be advantageous to maintain the flatness of the portion (see FIG. 6) adjacent to the first corner (C1) of the first outer portion (135a) and the second outer portion (135b).

[0087] Also, the corner adjacent to the fourth corner (C4, see FIG. 12) of the flat portion (130P) can be rounded like the corner (130C1).

[0088] Referring to FIG. 14, the corner (130C2) adjacent to the second corner (C2) of the flat plate (130P) may be rounded. For example, the radius of curvature of the corner (130C2) may be 10 mm. Accordingly, in the forging process of the outer portion (135) of the aforementioned flat plate (130P) and the pressurization process using the horn (UW, see FIG. 10) of the ultrasonic welding machine, it may be advantageous to maintain the flatness of the portion (see FIG. 6) adjacent to the second corner (C2) of the second outer portion (135b) and the third outer portion (135c).

[0089] Also, the corner adjacent to the third corner (C3, see FIG. 12) of the flat portion (130P) can be rounded like the corner (130C2).

[0091] Referring to FIG. 15, the third horizontal portion (143H) of the third part (143) may come into contact with the fourth horizontal portion (144H) of the fourth part (144). The third vertical portion (143V) of the third part (143) may come into contact with the fourth vertical portion (144V) of the fourth part (144). The end of the third part (143) may be joined to the end of the fourth part (144). For example, the end of the third part (143) may be welded to the end of the fourth part (144).

[0093] Referring to FIG. 16 together with FIG. 15, the display panel (110) can be coupled or fixed onto the side frame (140). The horizontal portion (143H) of the side frame (140) can support the rear of the display panel (110), and the vertical portion (143V) can cover the side of the display panel (110). For example, the vertical portion (143V) of the third part (143) of the side frame (140) can cover the side of the lower edge of the display panel (110).

[0094] The vertical portion (143V) can cover the side of the composite material panel (130). For example, the vertical portion (143V) of the third part (143) of the side frame (140) can cover the side of the third outer part (135c) of the composite material panel (130).

[0095] The flexible cable (113) may extend from the lower edge of the display panel (110) to the horizontal portion (143H) of the display panel (110) and the side frame (140). The flexible cable (113) may extend between the rear surface of the display panel (110) and the composite material panel (130). For example, the flexible cable (113) may be a COF (113).

[0096] The source signal board (115) can be electrically connected to the flexible cable (113). The source signal board (115) can be fixed to one side of the flexible cable (113). For example, the source signal board (115) can be an S-PCB (115). The source signal board (115) can be located in the receiving portion (137) of the composite material panel (130).

[0097] The flexible cable (113) may be positioned between the protruding pad (138) of the composite material panel (130) and the display panel (110). The flexible cable (113) may come into contact with the protruding pad (138). Heat generated from the source signal substrate (115) and / or the flexible cable (113) may be dissipated through the protruding pad (138).

[0098] A heat dissipation pad (114) may be positioned between the flexible cable (113) in contact with the protruding pad (138) and the rear surface of the display panel (110). The heat dissipation pad (114) may be provided with an elastic material (114a) and a conductive film (114b). The core (114a) of the heat dissipation pad (114) may be formed of an elastic material, and the conductive film (114b) may cover the core (114a) of the heat dissipation pad (114). Accordingly, the flexible cable (113) may remain in contact with the protruding pad (138).

[0099] A PCB plate (150) can be attached to the rear of a composite material panel (130). The PCB plate (150) can be referred to as a rear plate (150). The rear plate (150) can be fixed to the rear of the composite material panel (130).

[0101] Referring to FIG. 17, the rear plate (150) may comprise metal. The rear plate (150) may be electrolytic galvanized iron (EGI). For example, the thickness of the rear plate (150) may be about 0.5 millimeters. As another example, the electrical conductivity of the rear plate (150) is 1X10 7 (Units omitted) It may be less than or equal to. The rear plate (150) may be pressed to form a bend. The rigidity of the press-processed rear plate (150) may be improved.

[0102] The rear plate (150) may include a flat part (153) and a frame part (151, 152). The first part (151) of the frame part (151, 152) may form the outer edge of the rear plate (150). The first part (151) may include a first horizontal part (151a), a second horizontal part (151c), a first vertical part (151b), and a second vertical part (151d).

[0103] The second part (152) of the frame parts (151, 152) may be connected to the first part (151) and may form a curve that crosses the flat part (153) and is recessed or protrudes from the flat part (153). The second part (152) may include a first vertical part (152a), a second vertical part (152b), a first horizontal part (152c), and a second horizontal part (152d). The frame parts (151, 152) may improve the bending rigidity and / or torsional rigidity of the rear plate (150).

[0104] The flat part (153) may include a first side part (153a), a center part (153b), and a second side part (153c). A power supply unit (PSU, see FIG. 25) may be mounted or fixed on the first side part (153a). A main board (MB) may be mounted or fixed on the second side part (153c). A T-CON board (TB) may be mounted or fixed on the center part (153b). A speaker assembly (SPK) may be mounted or fixed on the first lower part (153d) and / or the second lower part (153e).

[0105] An opening (155) may be formed in the first side part (153a). The opening (opened portion, opening, 155) may be referred to as a cut-out portion (155).

[0107] Referring to FIGS. 18 and 19, the opening (155) may include a first line (155a), a second line (155b), a third line (155c), a fourth line (155d), a fifth line (155e), and / or a sixth line (155f). Line filters (LF1, LF2, LF3) of a power supply unit (PSU, see FIG. 25) may be located between the lines (155a, 155b, 155c, 155d, 155e, 155f) of the opening (155). There may be multiple line filters (LF1, LF2, LF3).

[0108] The first line (155a) may form a long side. The third line (155c) may face the first line (155a) and may be shorter than the first line (155a). The fifth line (155e) may face the first line (155a) and may be shorter than the first line (155a) and / or the third line (155c). The fifth line (155e) may be parallel to the third line (155c). The distance between the third line (155c) and the first line (155a) may be greater than the distance between the fifth line (155e) and the first line (155a). The second line (155b) forms a short side and can connect the first line (155a) and the third line (155c), and the sixth line (155f) forms a short side and can connect the first line (155a) and the fifth line (155e). The length of the second line (155b) may be greater than the length of the sixth line (155f). The sixth line (155f) may face the second line (155b). The fourth line (155d) can connect the third line (155c) and the fifth line (155e). The fourth line (155d) can form a slope with respect to the third line (155c). The fourth line (155d) can form a slope with respect to the fifth line (155e).

[0109] The first line filter (LF1) may be located between the first line (155a) and the third line (155c). The second line filter (LF2) may be located between the first line (155a) and the fourth line (155d) and / or the fifth line (155e). The third line filter (LF3) may be located between the first line (155a) and the fifth line (155e).

[0110] Line filters (LF1, LF2, LF3, LF) may be spaced apart from the lines (155a, 155b, 155c, 155d, 155e, 155f) of the opening (155) by a certain distance or more. Line filters (LF) and the lines (155a, 155b, 155c, 155d, 155e, 155f) of the opening (155) may be spaced apart from a first distance (A) or more. For example, the first line filter (LF1) may be spaced apart from the second line (155b) and / or the third line (155c) by a first distance (A) or more. As another example, the second line filter (LF2) may be spaced apart from the first line (155a) and / or the fifth line (155e) by a first distance (A) or more. As another example, the third line filter (LF3) may be spaced apart from the first line (155a) and / or the fifth line (155e) by a first distance (A). At the same time, the third line filter (LF3) may be spaced apart from the sixth line (155f) by a first distance (A).

[0111] The power supply unit (PSU) is spaced apart from the composite material panel (130) and the rear plate (150) and may be mounted or fixed to the rear of the rear plate (150). The power supply unit (PSU) may include a line filter (LF). For example, the line filter (LF) may include a coil and may remove noise from the power supply. An electromagnetic field may be formed around the line filter (LF). The rear plate (150) may vibrate due to the electromagnetic field generated while the line filter (LF) is operating. The vibration of the rear plate (150) may be transmitted to the composite material panel (130) and may cause vibration and / or noise. For example, as the display panel (110) becomes larger, the current value of the line filter (LF) increases, and the strength of the electromagnetic field generated by the line filter (LF) may increase. At this time, if the distance from the line filter (LF) to the rear plate (150) becomes closer, the vibration of the rear plate (150) increases, and if the distance from the line filter (LF) to the rear plate (150) becomes farther, the vibration of the rear plate (150) may decrease. The opening (155) of the rear plate (150) corresponding to the line filter (LF) can prevent the rear plate (150) from vibrating due to the line filter (LF). If the size of the opening (155) of the rear plate (150) formed to secure the distance between the line filter (LF) and the rear plate (150) increases, the rigidity of the rear plate (150) may decrease. Therefore, the distance between the line filter (LF) and the rear plate (150) formed by the opening (155) not only affects the rigidity of the rear plate (150), but also affects the noise and / or vibration generated in the rear plate (150). For example, the current flowing through the line filter (LF) is 3.5A to 4.3A, the second distance (B) from the line filter (LF) to the rear plate (150) may be 7 to 8 millimeters, and the first distance (A) from the line filter (LF) to the edge of the opening (155) of the rear plate (150) may be 15 millimeters or more. Accordingly, not only is the rigidity of the rear plate (150) secured, but vibration and / or noise of the rear plate (150) that may be generated by the driving of the line filter (LF) can also be prevented.

[0112] The back cover (180) may cover the power supply unit (PSU) and / or line filter (LF). The back cover (180) may be attached to the rear plate (150) or the composite panel (130). For example, the back cover (180) may include a synthetic resin. An insulating sheet (170) and / or a heat dissipation sheet (170) may be positioned between the power supply unit (PSU) and the back cover (180) and may be adhered to the back cover (180). The insulating sheet (170) and / or the heat dissipation sheet (170) may have an opening, and the line filter (LF) may be aligned with the opening. For example, the heat dissipation sheet (170) may be a graphite sheet.

[0114] Referring to FIGS. 20 and FIGS. 21 together with FIGS. 19, the first opening (155) may include a first line (155a), a second line (155b), a third line (155c), a fourth line (155d), a fifth line (155e) and / or a sixth line (155f). A second opening (157) may be located adjacent to the first opening (155).

[0115] Line filters (LF1, LF2) of a power supply unit (PSU, see FIG. 25) may be located inside the first opening (155) between the lines (155a, 155b, 155c, 155d, 155e, 155f) of the first opening (155). Line filter (LF3) may be located in the second opening (157).

[0116] The first line (155a) may form a long side. The third line (155c) may face the first line (155a) and may be shorter than the first line (155a). The fifth line (155e) may face the first line (155a) and may be shorter than the first line (155a) and / or the third line (155c). The fifth line (155e) may be parallel to the third line (155c). The distance between the third line (155c) and the first line (155a) may be smaller than the distance between the fifth line (155e) and the first line (155a). The second line (155b) forms a short side and can connect the first line (155a) and the third line (155c), and the sixth line (155f) forms a short side and can connect the first line (155a) and the fifth line (155e). The length of the second line (155b) may be shorter than the length of the sixth line (155f). The sixth line (155f) may face the second line (155b). The fourth line (155d) can connect the third line (155c) and the fifth line (155e).

[0117] The first line filter (LF1) may be located between the first line (155a) and the third line (155c). Also, the first line filter (LF1) may be spaced apart from the second line (155b). The second line filter (LF2) may be located between the first line (155a) and the fifth line (155e). Also, the second line filter (LF2) may be spaced apart from the fourth line (155d) and / or the sixth line (155f). The third line filter (LF3) may be located inside the second opening (157). The third line filter (LF3) may be spaced apart from the edges of the second opening (157).

[0118] The line filters (LF1, LF2) may be spaced apart from the lines (155a, 155b, 155c, 155d, 155e, 155f) of the first opening (155) or the edges of the second opening (157) by a certain distance or more. The line filters (LF1, LF2) and the lines (155a, 155b, 155c, 155d, 155e, 155f) of the first opening (155) may be spaced apart from a first distance (A) or more.

[0119] For example, the first line filter (LF1) may be spaced apart from the first line (155a), the second line (155b), and / or the third line (155c) by a first distance (A). For another example, the second line filter (LF2) may be spaced apart from the fourth line (155d), the fifth line (155e), and / or the sixth line (155f) by a first distance (A). For another example, the third line filter (LF3) may be spaced apart from the edges of the second opening (157) by a first distance (A).

[0120] The power supply unit (PSU) is spaced apart from the composite material panel (130) and the rear plate (150) and may be mounted or fixed to the rear of the rear plate (150). The power supply unit (PSU) may include a line filter (LF). For example, the line filter (LF) may include a coil and may remove noise from the power supply. An electromagnetic field may be formed around the line filter (LF). The rear plate (150) may vibrate due to the electromagnetic field generated while the line filter (LF) is operating. The vibration of the rear plate (150) may be transmitted to the composite material panel (130) and may cause vibration and / or noise. For example, as the display panel (110) becomes larger, the current value of the line filter (LF) increases, and the strength of the electromagnetic field generated by the line filter (LF) may increase. At this time, when the distance from the line filter (LF) to the rear plate (150) decreases, the vibration of the rear plate (150) increases, and when the distance from the line filter (LF) to the rear plate (150) increases, the vibration of the rear plate (150) may decrease.

[0121] The openings (155, 157) of the rear plate (150) corresponding to the line filter (LF) can prevent the rear plate (150) from vibrating due to the line filter (LF). If the size of the opening (155) of the rear plate (150), which is formed to secure the distance between the line filter (LF) and the rear plate (150), increases, the rigidity of the rear plate (150) may decrease. Therefore, the distance between the line filter (LF) and the rear plate (150) formed by the opening (155) not only affects the rigidity of the rear plate (150), but also affects the noise and / or vibration generated in the rear plate (150).

[0122] For example, the current flowing through the line filter (LF) may be 2.8A to 3.2A, the second distance (B) from the line filter (LF) to the rear plate (150) may be 7 to 8 millimeters, and the first distance (A) from the line filter (LF) to the edge of the first opening (155) and / or the second opening (157) of the rear plate (150) may be 10 millimeters or more. Accordingly, not only is the rigidity of the rear plate (150) secured, but vibration and / or noise of the rear plate (150) that may be generated by the driving of the line filter (LF) can also be prevented.

[0124] Referring to FIGS. 22 and 23 together with FIG. 19, the opening (155) may include a first line (155a), a second line (155b), a third line (155c), a fourth line (155d), a fifth line (155e), and / or a sixth line (155f). Line filters (LF1, LF2, LF3, LF4, LF5) of a power supply unit (PSU, see FIG. 25) may be located between the lines (155a, 155b, 155c, 155d, 155e, 155f) of the opening (155). There may be multiple line filters (LF1, LF2, LF3, LF4, LF5).

[0125] The first line (155a) can form a short side. The third line (155c) faces the first line (155a) and can be longer than the first line (155a). The second line (155b) forms a long side and can connect the first line (155a) and the third line (155c), and the fourth line (155d) forms a long side and can connect the first line (155a) and the third line (155c).

[0126] The fifth line (155e) faces the second line (155b) and may be shorter than the first line (155a) and / or the third line (155c). The fifth line (155e) may be parallel to the fourth line (155d). The fifth line (155e) may be formed by protruding from a portion of the fourth line (155d). The distance from the second line (155b) to the fifth line (155e) may be smaller than the distance from the second line (155b) to the fourth line (155d).

[0127] The length of the fifth line (155e) may be greater than the length of the sixth line (155f). The sixth line (155f) may face the second line (155b). The sixth line (155f) may connect the first line (155a) and the fourth line (155d).

[0128] The first line filter (LF1) may be located adjacent to the corner formed by the first line (155a) and the second line (155b). The second line filter (LF2) may be located adjacent to the corner formed by the first line and the sixth line, and may be located between the first line filter (LF1) and the fourth line (155d). The third line filter (LF3) may be located between the second line (155b) and the fourth line (155d). The fourth line filter (LF4) may be located between the second line (155b) and the fifth line (155e). The fifth line filter (LF5) may be located adjacent to the corner formed by the third line (155c) and the fourth line (155d) between the second line (155b) and the fourth line (155d).

[0129] The line filters (LF1, LF2, LF3, LF4, LF5, LF) may be spaced apart from the lines (155a, 155b, 155c, 155d, 155e, 155f) of the opening (155) by a certain distance or more. The line filters (LF) and the lines (155a, 155b, 155c, 155d, 155e, 155f) of the opening (155) may be spaced apart from a first distance (A) or more.

[0130] For example, the first line filter (LF1) may be spaced apart from the first line (155a) and / or the second line (155b) by a first distance (A). For another example, the second line filter (LF2) may be spaced apart from the fourth line (155d) and / or the sixth line (155f) by a first distance (A). For another example, the third line filter (LF3) may be spaced apart from the fourth line (155d) and / or the fifth line (155e) by a first distance (A). For another example, the fourth line filter (LF4) may be spaced apart from the fifth line (155e) by a first distance (A). For another example, the fifth line filter (LF5) may be spaced apart from the fourth line (155d) and / or the third line (155c) by a first distance (A).

[0131] The power supply unit (PSU) may be spaced apart from the composite material panel (130) and the rear plate (150), and may be mounted or fixed to the rear of the rear plate (150). The power supply unit (PSU) may include a line filter (LF). For example, the line filter (LF) may include a coil and may remove noise from the power supply. An electromagnetic field may be formed around the line filter (LF). The rear plate (150) may vibrate due to the electromagnetic field generated while the line filter (LF) is operating. The vibration of the rear plate (150) may be transmitted to the composite material panel (130) and may cause vibration and / or noise.

[0132] For example, as the display panel (110) becomes larger, the current value of the line filter (LF) increases, and the strength of the electromagnetic field generated by the line filter (LF) may increase. At this time, if the distance from the line filter (LF) to the rear plate (150) becomes closer, the vibration of the rear plate (150) may increase, and if the distance from the line filter (LF) to the rear plate (150) becomes farther, the vibration of the rear plate (150) may decrease. The opening (155) of the rear plate (150) corresponding to the line filter (LF) can prevent the rear plate (150) from vibrating due to the line filter (LF). If the size of the opening (155) of the rear plate (150) formed to secure the distance between the line filter (LF) and the rear plate (150) increases, the rigidity of the rear plate (150) may decrease. Accordingly, the distance of the rear plate (150) formed by the line filter (LF) and the opening (155) not only affects the rigidity of the rear plate (150), but also affects the noise and / or vibration generated in the rear plate (150).

[0133] For example, the current flowing through the line filter (LF) may be 5A to 5.4A, the second distance (B) from the line filter (LF) to the rear plate (150) may be 7 to 8 millimeters, and the first distance (A) from the line filter (LF) to the edge of the opening (155) of the rear plate (150) may be 20 millimeters or more. Accordingly, not only is the rigidity of the rear plate (150) secured, but vibration and / or noise of the rear plate (150) that may be generated by the driving of the line filter (LF) can also be prevented.

[0135] Referring to FIG. 24, a side frame (140) can be attached to the rear of a composite panel (130). The side frame (140) can be fixed to the rear of the composite panel (130) by an adhesive member (AD). A rear plate (150) can be attached to or fixed to the rear of the composite panel (130).

[0136] The first heat dissipation sheet (161) may be bonded or bonded to the first side part (153a). For example, the first heat dissipation sheet (161) may be a graphite sheet. As another example, the first heat dissipation sheet (161) may be an aluminum sheet. The first heat dissipation sheet (161) may cover the opening (155, see FIG. 17). The first heat dissipation sheet (161) may dissipate heat generated from the power supply unit (PSU, see FIG. 26).

[0137] The second heat dissipation sheet (162) may be bonded to or bonded to the center part (153b). For example, the second heat dissipation sheet (162) may be a graphite sheet. As another example, the second heat dissipation sheet (162) may be an aluminum sheet. The second heat dissipation sheet (162) can dissipate heat generated from the T-CON board (TB).

[0139] Referring to FIGS. 25 and 26, a first insulating sheet (163) may be attached to or bonded to a first side part (153a). The first insulating sheet (163) may cover a first heat dissipation sheet (161). The first insulating sheet (163) may be bonded to the first heat dissipation sheet (161). A second insulating sheet (165) may be attached to or bonded to a center part (153b). The second insulating sheet (165) may cover a second heat dissipation sheet (162). The second insulating sheet (165) may be bonded to the second heat dissipation sheet (162). A third insulating sheet (164) may be attached to or bonded to a second side part (153c).

[0140] The power supply unit (PSU) is positioned on the first heat dissipation sheet (161) and / or the first insulation sheet (163) and can be coupled to or fixed to the first side part (153a).

[0141] The T-CON board (TB) is positioned on the second heat dissipation sheet (162) and / or the second insulation sheet (165) and can be coupled to or fixed to the center part (153b).

[0142] The main board (MB) is positioned on the third insulating sheet (164) and can be coupled to or fixed to the second side part (153c).

[0143] The speaker assembly (SPK) may be mounted or fixed to the first lower part (153d) and / or the second lower part (153e).

[0145] Referring to FIG. 27, the display panel (110) may be positioned in front of the composite material panel (130). The display panel (110) may be attached to or fixed to the front surface of the composite material panel (130). At this time, the display panel (110) may form a certain gap with the composite material panel (130). For example, the skin (132, 133, see FIG. 2) of the composite material panel (130) may include aluminum.

[0146] The rear plate (150) may be located at the rear of the composite material panel (130). The rear plate (150) may be attached to or fixed to the rear of the composite material panel (130). The rear plate (150) may face the display panel (110) with respect to the composite material panel (130). For example, the rear plate (150) may be an electrolytic galvanized iron (EGI).

[0147] Openings (155, 157) may be formed in the rear plate (150). Openings (155, 157) may be formed by cutting the rear plate (150). A heat dissipation sheet (161) may cover the openings (155, 157) of the rear plate (150). For example, the heat dissipation sheet (161) may be a graphite sheet. An insulating sheet (163) may cover the rear of the openings (155, 157) of the rear plate (150) while covering the heat dissipation sheet (161). The insulating sheet (163) may be fixed or bonded to the rear surface of the rear plate (150).

[0148] The power supply unit (PSU) is located behind the heat dissipation sheet (161) and / or insulation sheet (163) and can be coupled to or fixed to the rear plate (150). The power supply unit (PSU) may include a line filter (LF). The openings (155, 157) of the rear plate (150) may be aligned with the line filter (LF).

[0149] For example, AC power may be supplied to a power supply unit (PSU). The power supply unit (PSU) may convert AC power into DC power. A line filter (LF) may include a coil. The line filter (LF) may generate an electromagnetic field. The electromagnetic field generated by the line filter (LF) may cause the rear plate (150, for example, a steel plate) to vibrate. As the rear plate (150) vibrates, it may cause noise to be generated in the composite material panel (130). The openings (155, 157) may prevent the rear plate (150) from vibrating due to the line filter (LF).

[0151] Referring to FIGS. 1 to 27, the display device comprises: a display panel; a frame to which the display panel is coupled; a rear plate that faces the display panel with respect to the frame and is coupled to the frame; and a power supply unit that is fixed to the rear plate and includes a line filter, wherein the rear plate may include an opening aligned with the line filter of the power supply unit.

[0152] The above rear plate may include an iron.

[0153] The size of the above opening may be larger than the size of the above line filter.

[0154] It may further include a heat dissipation sheet located between the line filter and the rear plate, covering the opening, and supported by the rear plate.

[0155] The heat dissipation sheet above may include a graphite sheet.

[0156] It may further include an insulating sheet located between the line filter and the heat dissipation sheet, covering the heat dissipation sheet, and supported by the rear plate.

[0157] The above line filters are a plurality of, and the openings may include: a first opening corresponding to at least one of the plurality of line filters; and a second opening corresponding to the remaining of the plurality of line filters.

[0158] The above opening includes an edge forming the perimeter of the opening, and on the plane formed by the opening, the distance from the outer edge of the line filter to the edge may be 10 millimeters or more.

[0159] The distance from the opening to the line filter may be 7 to 8 millimeters.

[0160] The above opening includes: a first line forming one edge of the opening; and a second line forming another edge of the opening, and the line filter is closer to the first line than the second line, and in the plane formed by the opening, the distance from the outer edge of the line filter to the first line may be 10 millimeters or more.

[0161] The distance from the opening to the line filter may be 7 to 8 millimeters.

[0162] The above frame includes: a front skin facing the display panel; a rear skin facing the front skin; and a core including the fiber and located between the front skin and the rear skin, and the rear skin may include aluminum.

[0164] Some or other embodiments of the present disclosure described above are not exclusive or distinguishable from one another. Some or other embodiments of the present disclosure described above may be used in combination or combined for their respective configurations or functions.

[0165] For example, this means that configuration A described in a specific embodiment and / or drawing and configuration B described in another embodiment and / or drawing can be combined. That is, even if the combination between configurations is not directly described, it means that combination is possible, except in cases where it is described that combination is impossible.

[0166] The foregoing detailed description should not be interpreted restrictively in all respects and should be considered exemplary. The scope of the invention shall be determined by a reasonable interpretation of the appended claims, and all modifications within the equivalent scope of the invention are included within the scope of the invention.

Claims

Claim 1 A display device comprising: a display panel; a frame to which the display panel is coupled; a rear plate including an iron, facing the display panel with respect to the frame and coupled to the frame; and a power supply unit fixed to the rear plate and including a line filter, wherein the rear plate includes an opening aligned with the line filter of the power supply unit, the size of the opening is larger than the size of the line filter, the opening includes an edge forming the periphery of the opening, and the edge of the opening is spaced apart from the outer edge of the line filter on the plane formed by the opening. Claim 2 delete Claim 3 delete Claim 4 A display device according to claim 1, further comprising a heat dissipation sheet positioned between the line filter and the rear plate, covering the opening, and supported by the rear plate. Claim 5 In claim 4, the heat dissipation sheet comprises a graphite sheet and is a display device. Claim 6 A display device according to claim 4, further comprising an insulating sheet positioned between the line filter and the heat dissipation sheet, covering the heat dissipation sheet, and supported by the rear plate. Claim 7 A display device according to claim 1, wherein the line filters are plurality of, and the opening comprises: a first opening corresponding to at least one of the plurality of line filters; and a second opening corresponding to the remaining of the plurality of line filters. Claim 8 A display device according to claim 1, wherein the distance from the outer edge of the line filter to the edge on the plane formed by the opening is 15 millimeters or more. Claim 9 A display device according to claim 8, wherein the distance from the opening to the line filter is 7 to 8 millimeters. Claim 10 A display device according to claim 4, wherein the opening comprises: a first line forming one edge of the opening; and a second line forming another edge of the opening, and the line filter is closer to the first line than to the second line, and the distance from the outer edge of the line filter to the first line in the plane formed by the opening is 15 millimeters or more. Claim 11 A display device according to claim 10, wherein the distance from the opening to the line filter is 7 to 8 millimeters. Claim 12 In claim 1, the frame comprises: a front skin facing the display panel; a rear skin facing the front skin; and a core comprising fibers and positioned between the front skin and the rear skin, wherein the rear skin comprises aluminum.

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