Abstract:
The present invention relates to a thermal management system for a thin depth LCD display enclosure. The LCD display enclosure may be used in environmentally sensitive conditions and may be environmentally-sealed to protect the components of the LCD display from environmental conditions. The LCD display components may include a lens and a LCD module, and other heating producing components, such as backlights and electronic circuitry. The heat producing components and any external heat placed on the enclosure causes the ambient air temperature inside the enclosure to rise thereby possibly causing the LCD display to not operate properly. The ambient air temperature inside the enclosure is lowered by transferring heat in the ambient air through the enclosure to a heat sink that is attached on the outside rear portion of the enclosure, and to the atmosphere using forced convection, natural convention, or both.
Abstract:
The present invention relates to a thermal management system for a thin depth LCD display enclosure. The LCD display enclosure may be used in environmentally sensitive conditions and may be environmentally-sealed to protect the components of the LCD display from environmental conditions. The LCD display components may include a lens and a LCD module, and other heating producing components, such as backlights and electronic circuitry. The heat producing components and any external heat placed on the enclosure causes the ambient air temperature inside the enclosure to rise thereby possibly causing the LCD display to not operate properly. The ambient air temperature inside the enclosure is lowered by transferring heat in the ambient air through the enclosure to a heat sink that is attached on the outside rear portion of the enclosure, and to the atmosphere using forced convection, natural convention, or both.
Abstract:
A housing for receiving a flat panel display and/or a backlight module is disclosed, which includes: a front frame having a central window, wherein the inner edge of said frame defines an active area for said flat panel display; a bottom frame; a side frame locating between said front frame and said bottom frame to form a space and at least one opening; at least one separate plate locating on the inside surface of said side frame for separating said flat panel display and/or a backlight module; and a stopping frame having a reflector, a cavity, and a plurality of pores to prevent said flat panel display or a backlight module from sliding out of said space.
Abstract:
A display unit for use with a computer and a power supply, includes an environmentally-sealed enclosure having a removable cover, and housing a liquid crystal display screen, the removable cover serving as an integral heat sink for the power supply, the power supply being mounted on the internal surface of the cover. Further, a backlighting device backlights the display screen, and a cooling plenum conductively and convectively cools the backlighting device, the backlighting device being mounted directly on a surface of the plenum.
Abstract:
A display assembly with condensation control includes an electronic display and airflow pathway located within the housing. At least one sensor is located along said airflow pathway. A controller in electronic communication determines a local dewpoint and an internal temperature for the display assembly based, at least in part, on data received from the at least one sensor, calculates a dewpoint spread between the dewpoint temperature and the internal temperature, and initiates modified operations where said dewpoint spread is less than a predetermined threshold.
Abstract:
A heat dissipation module includes a plurality of airflow ducts that are arranged in an interior space of a heat dissipation chamber with two ends of the plurality of airflow ducts respectively connected to two end surfaces of the heat dissipation chamber and internal spaces of the plurality of airflow ducts in communication with the outside of the heat dissipation chamber. A plurality of pairs of fans are provided on the heat dissipation chamber to respectively correspond to the two ends of the plurality of airflow ducts. A coolant liquid is filled between outer walls of the airflow ducts and an inner wall of the heat dissipation chamber. The heat dissipation module is attachable to a lightbar of a liquid crystal display to effectively dissipate heat generated by the lightbar.
Abstract:
An assembly for an electronic display is disclosed. An optical sheet is located behind the electronic display and adjacent to a backlight. A housing for said backlight, said optical sheet, and said electronic display is provided. An aperture is positioned along the perimeter of said optical sheet. A spring assembly is connected to said aperture and is configured to exert tensioning forces on said optical sheet.
Abstract:
A cooling assembly for an electronic display includes a front channel that passes in front of the viewable area of the electronic display. A center channel is located behind the electronic display. A rear channel is located behind the second channel. A first plurality of subchannels are located within the center channel and connect only to the front channel. A second plurality of subchannels are located within the center channel and connect only to the rear channel.
Abstract:
A display module has therein a heat dissipater, an installation frame, a LCD plate, an optical membrane, a diffusion plate and a light board respectively and sequentially received inside the installation frame, a first space defined between the LCD panel and the optical membrane. A heat dissipater has a first inlet, a first outlet both of which are defined in the installation frame and form a first airway inside the first space and a screen respectively provided to the first inlet and the first outlet. The formation of the airway facilitates air convection inside the display module, which helps dissipate heat generated from the operation of the display module.
Abstract:
According to one embodiment, a display device includes a display panel including a first substrate including a display area and a first detection electrode, a backlight device opposed to the first substrate with a gap therebetween, a second detection electrode opposing the first detection electrode via the backlight device, and an elastic member between the backlight device and the second detection electrode, including a first region opposing a central portion of the back light device and a second region located to surround the first region. The first region and the second region are different in hardness in a thickness direction of the elastic member.