A display panel can prevent a Greenish phenomenon by preventing a shift phenomenon of a transistor inside a display layer, by applying a permittivity reduction processing on a component disposed upon a panel layer. The display panel can include a cover window, an adhesive layer disposed below the cover window, a polarizer disposed below the adhesive layer, and the panel layer disposed below the polarizer. Further, at least one among the cover window, the adhesive layer and the polarizer can be applied with a permittivity reduction processing.

A display apparatus includes a glass substrate and having improved heat-dissipation function and impact absorption function and at the same time, having a reduced thickness. To this end, a plate including a porous member having both a heat-dissipation function and an impact absorption function is disposed under a display panel. The plate can have both a heat-dissipation function and a cushion function with only a porous member without adding a separate heat-dissipation layer or cushion layer. Further, disclosed is a display apparatus in which a black screen is displayed while the display panel is not activated, thereby improving display quality. To this end, a black heat-dissipation layer is formed under the porous member such that the heat-dissipation performance and the display quality are improved.

A module for a digital display panel includes a circuit board, a first face of which presents a network of light emitting diodes. The module also includes a chassis fixed on a second face of the circuit board, and a water permeable connector mounted on the circuit board. The chassis includes a base around the water permeable connector, a top part of the base having at least one groove, wherein a seal is inserted. Further, the module includes a power supply unit fitted with a continuous voltage connector surrounded by a ferrite and fitted in the water permeable connector. The power supply unit is attached to the chassis so that a lower plate of the power supply unit co-operates with the seal of the base to ensure a seal around the water permeable connector and the DC voltage connector of the power supply unit.

A display device, a heat dissipation layer, an electronic device, and a method for manufacturing a display device are provided. The display device includes: a silicon-based organic light-emitting display panel, including a silicon substrate, a first electrode of a display element, an organic light-emitting layer, and a second electrode of the display element that are stacked sequentially; a flexible printed circuit board electrically connected to the silicon substrate; and a heat dissipation layer on a non-display side of the silicon-based organic light-emitting display panel, extending to the flexible printed circuit board to cover at least a part of the flexible printed circuit board. A gate drive circuit, a data drive circuit, and a pixel circuit are integrated on the silicon substrate, and the flexible printed circuit board is configured to transmit electrical signals to the gate drive circuit, the data drive circuit, and the second electrode of the display element.

An electronic device includes an electronic component on ae printed circuit board, an electrical shield extended around the electronic component and defining an opening corresponding to the electronic component, a heat diffusion pattern on the electronic component, and a shielding sheet which extends across the opening of the electrical shield and commonly overlaps the electronic component, the electrical shield and the heat diffusion pattern. The shielding sheet includes a first heat diffusion member which is inside the opening of the electrical shield and contacts the heat diffusion pattern, and a second heat diffusion member which is attached to the first heat diffusion member, extends across the opening of the electrical shield and contacts both an upper portion of the electrical shield and the first heat diffusion member.

A display device is disclosed. The display device of this invention includes: a display panel; a plate whose one side is attached to the rear surface of the display panel; a module cover including a forming area that is projected and recessed in at least some part to keep a distance from the plate; and a housing attached to the module cover. According to the present invention, it is possible to minimize heat transfer towards the display panel by including a module cover where a forming area is provided to keep a distance from a plate.

A support assembly configured to support a display component, includes: a housing comprising a mounting cavity; a circuit board assembly assembled in the mounting cavity; and a heat dissipation assembly assembled to the circuit board assembly.

A display panel and an electronic device are provided. The display panel may include a display layer, a protective layer and a support layer. The display layer may be arranged between the protective layer and the support layer. The support layer may be coupled to the display layer and may include a piezoelectric film layer. The piezoelectric film layer may drive the display layer and the protective layer to vibrate in response to determining that the piezoelectric film layer is deformed.

A head-mounted display configured to display an image to a user includes a protruding member disposed on an outer surface member of the head-mounted display, and in proximity to a heat generation source arranged inside the head-mounted display, and a heat transfer member disposed between the protruding member and the heat generation source, and arranged to be deformable along a shape of the protruding member. Therefore, the present invention is directed to providing a head-mounted display or a gripping apparatus capable of preventing the occurrence of thermal concentration without impairing an observer's feeling of use.

A display device includes a display module having a display region and a non-display region, and a window module disposed on the display module. The window module includes a thin glass substrate, a window protective layer disposed on the thin glass substrate, and a bezel pattern disposed on a surface of the thin glass substrate or disposed on a surface of the window protective layer. The bezel pattern overlaps the non-display region. The edge of the thin glass substrate does not overlap the bezel pattern in a plan view, and the edge of the thin glass substrate is not aligned with the outer edge of the bezel pattern in a plan view.