Abstract: A wound treatment system includes a wound dressing, a negative-pressure source, a light-emitting device, an image recognition module, and a control module. The wound dressing includes a housing with an opening, and a barrier layer with a conduit pathway separating the inside of the housing from the opening to form a receiving space. The negative-pressure source is fluidly connected to the wound dressing to remove tissue exudate of the wound. The light-emitting device is disposed in the receiving space, optically coupled to the barrier layer and can emit light of different wavelength bands as the detection light required by the image recognition module disposed on a side of the opening of the housing of the wound dressing and provide specific wavelengths of phototherapy required by different stages of the wound.

Abstract: An embodiment of the present invention discloses a voltage amplifier circuit which includes a signal generator, a mixer and an amplifier. The signal generator is arranged to generate an input signal; the mixer is arranged to mix the input signal with an analog signal to generate an intermediate input signal having a first voltage range; and the amplifier is arranged to convert the intermediate input signal into an output signal having a second voltage range in a Rail-to-Rail manner, wherein the second voltage range is larger than the first voltage range.

Abstract: An oxygen-generating wound dressing is provided. The oxygen-generating wound dressing comprises a housing and a wound contacting layer. The interior of the housing comprises a barrier member to divide the housing into a reactant receptacle and a wound contacting layer receptacle. The reactant receptacle of the housing further comprises a first reactant receptacle, a second reactant receptacle, a check valve disposed between the first reactant receptacle and the second reactant receptacle, a flow regulating device disposed on the second reactant receptacle and a gas deliver tube for fluidly communicating the first reactant receptacle and the wound contacting layer receptacle. The entrance speed of the second reactant into the first reactant receptacle can be controlled by the flow regulating device. The oxygen partial pressure can be maintained preferably and the wound healing can be improved by using the oxygen-generating wound dressing of the present invention.

Abstract: Disclosed herein is a quantum rod light-guide plate for a backlight module of a liquid crystal display. The quantum rod light-guide plate includes a light-guide substrate with a side as a light in surface, a prism layer and a quantum rod layer. The prism layer is disposed on a first surface of the light-guide substrate and includes a plurality of parallel strip-shaped prisms extending along an extending direction parallel to the light incident surface of the light-guide substrate. The quantum rod layer is disposed on a second surface of the light-guide substrate opposite to the side of the prism layer, wherein the second surface is a light exiting surface and includes a plurality of quantum rods, wherein the major axes of the quantum rods are aligned along a direction parallel to the extending direction. With the quantum rod light-guide plate, the utilization of the backlight can be increased.

Abstract: Disclosed herein is a quantum rod backlight module for a liquid crystal display. The quantum rod backlight module includes a quantum rod layer disposing at one side of a backlight source and comprising a plurality of quantum rods, wherein the major axes of the plurality of quantum rods are aligned along a direction parallel to a surface of the quantum rod layer; a first micro-prism layer including a plurality of first parallel strip-shape prisms, and a second micro-prism layer including a plurality of second parallel strip-shape prisms, wherein both of the alignment directions of the first parallel strip-shape prisms and the second parallel strip-shape prisms are perpendicular to the direction of the major axes of the plurality of quantum rods, and the retardations of the first micro-prism layer and the second micro-prism layer are zero.

Abstract: Disclosed herein is a polarizer for LCD. The polarizer includes a polarizing layer, a quantum rods layer comprising a plurality of quantum rods, a first protective layer and a second protective layer, wherein major axis of the quantum rods is aligned in a direction perpendicular to the absorption axis of the polarizing layer. Accordingly, the incident unpolarized light emitted from the backlight unit can be transferred to be polarized light by the quantum rods layer and pass through the polarizing layer directly for enhancing the utility of the backlight.

Abstract: Disclosed herein is a quantum rod light-guide plate for a backlight module of a liquid crystal display. The quantum rod light-guide plate includes a light-guide substrate with a side as a light in surface, a prism layer and a quantum rod layer. The prism layer is disposed on a first surface of the light-guide substrate and includes a plurality of parallel strip-shaped prisms extending along an extending direction parallel to the light incident surface of the light-guide substrate. The quantum rod layer is disposed on a second surface of the light-guide substrate opposite to the side of the prism layer, wherein the second surface is a light exiting surface and includes a plurality of quantum rods, wherein the major axes of the quantum rods are aligned along a direction parallel to the extending direction. With the quantum rod light-guide plate, the utilization of the backlight can be increased.

Abstract: A quantum rod film for a backlight unit of a liquid crystal display is disclosed herein. The quantum rod film includes a first barrier layer, a sub-wavelength microstructure on the first barrier layer, and a plurality of quantum rods, wherein the sub-wavelength microstructure includes gratings aligned in a parallel direction, an alignment microstructure disposed in grooves between the gratings in a direction perpendicular to the gratings, and a reflective layer on upper surfaces of the gratings. A plurality of quantum rods are arranged in the alignment microstructure of the sub-wavelength microstructure, and major axes of the quantum rods are aligned in a direction perpendicular to the gratings.

Abstract: Various embodiments of the present technology provide systems and methods for mounting and dismounting a computing component (e.g., a HDD) of a server system. The server system contains a motherboard that includes at least one designated base bracket. Each of the at least one designated base bracket is configured to enable a carrier of a computing component to be mounted on and detached from. A designated base bracket can include one or more movable pins, one or more fixed pins, and a close latch.

Abstract: An oxygen-generating wound dressing is provided. The oxygen-generating wound dressing comprises a housing and a wound contacting layer. The interior of the housing comprises a barrier member to divide the housing into a reactant receptacle and a wound contacting layer receptacle. The reactant receptacle of the housing further comprises a first reactant receptacle, a second reactant receptacle, a check valve disposed between the first reactant receptacle and the second reactant receptacle, a flow regulating device disposed on the second reactant receptacle and a gas deliver tube for fluidly communicating the first reactant receptacle and the wound contacting layer receptacle. The entrance speed of the second reactant into the first reactant receptacle can be controlled by the flow regulating device. The oxygen partial pressure can be maintained preferably and the wound healing can be improved by using the oxygen-generating wound dressing of the present invention.

Abstract: Disclosed herein is a quantum rod film for a backlight unit. The quantum rod film includes a quantum rod layer having a plurality of quantum rods wherein major axes of the quantum rods are aligned along a direction; a micro-prism layer having a first refractive index and a plurality of parallel strip-shape prisms disposed at a light incident side of the quantum rod layer; and a birefringent layer on the micro-prism layer. By the refractive index difference between the first refractive index of the micro-prism layer and the extraordinary refractive index or the ordinary refractive index of the birefringent layer, the incident light parallel to the direction of major-axes of the quantum rods will selectively pass through the quantum rod film, and the incident light perpendicular to the direction of major-axes of the quantum rods will reflect to backlight for recycling and increasing the backlight efficiency.

Abstract: Disclosed herein is a quantum rod backlight module for a liquid crystal display. The quantum rod backlight module includes a quantum rod layer disposing at one side of a backlight source and comprising a plurality of quantum rods, wherein the major axes of the plurality of quantum rods are aligned along a direction parallel to a surface of the quantum rod layer; a first micro-prism layer including a plurality of first parallel strip-shape prisms, and a second micro-prism layer including a plurality of second parallel strip-shape prisms, wherein both of the alignment directions of the first parallel strip-shape prisms and the second parallel strip-shape prisms are perpendicular to the direction of the major axes of the plurality of quantum rods, and the retardations of the first micro-prism layer and the second micro-prism layer are zero.

Abstract: Disclosed herein is a quantum rod film for a backlight unit. The quantum rod film includes a quantum rod layer having a plurality of quantum rods wherein major axes of the quantum rods are aligned along a direction; a micro-prism layer having a first refractive index and a plurality of parallel strip-shape prisms disposed at a light incident side of the quantum rod layer; and a birefringent layer on the micro-prism layer. By the refractive index difference between the first refractive index of the micro-prism layer and the extraordinary refractive index or the ordinary refractive index of the birefringent layer, the incident light parallel to the direction of major-axes of the quantum rods will selectively pass through the quantum rod film, and the incident light perpendicular to the direction of major-axes of the quantum rods will reflect to backlight for recycling and increasing the backlight efficiency.

Abstract: A quantum rod film for a backlight unit of a liquid crystal display is disclosed herein. The quantum rod includes a first barrier layer, a sub-wavelength microstructure on the first barrier layer, and a plurality of quantum rods, wherein the sub-wavelength microstructure includes gratings aligned n a parallel direction an alignment microstructure disposed in grooves between the gratings in a direction perpendicular to the gratings, and a reflective layer on upper surfaces of the gratings. A plurality of quantum rods are arranged in the alignment microstructure of the sub-wavelength microstructure, and major axes of the quantum rods are aligned in a direction perpendicular to the gratings.

Abstract: Disclosed herein is a polarizer for LCD. The polarizer includes a polarizing layer, a first protective layer and a second protective layer; which the second protective layer includes a plurality of quantum rods, and the major axis of the plurality of quantum rods is aligned in a direction perpendicular to the absorption axis of the polarizing layer. Accordingly, the incident unpolarized light emitted from the backlight unit can transfer to a polarized light by the plurality of quantum rods and pass through the polarizing layer directly for enhancing the utility of the backlight.

Abstract: Disclosed herein is a polarizer for LCD. The polarizer includes a polarizing layer, a quantum rods layer comprising a plurality of quantum rods, a first protective layer and a second protective layer, wherein major axis of the quantum rods is aligned in a direction perpendicular to the absorption axis of the polarizing layer. Accordingly, the incident unpolarized light emitted from the backlight unit can be transferred to be polarized light by the quantum rods layer and pass through the polarizing layer directly for enhancing the utility of the backlight.

Abstract: A negative pressure wound dressing including an enclosure housing and a wound contact layer is provided. The enclosure housing has an opening, the opening of the enclosure housing has a barrier layer therein to separate the enclosure housing into an exudate receptacle and a contact layer receptacle. The wound contact layer is contained in the contact layer receptacle. The exudate receptacle of the enclosure housing includes a negative pressure deliver tube connecting the exudate receptacle and a negative pressure source, and a discharging tube disposed in a vicinity of the harrier layer for discharging exudates stored in the exudate receptacle. The barrier layer includes at least one conduit with openings respectively toward the exudate receptacle and the wound contact layer for draining wound exudates from the wound contact layer to the exudate receptacle when a negative pressure is delivered from the pressure source via the negative pressure delivery tube.

Abstract: Various embodiments of the present technology provide systems and methods for mounting and dismounting a computing component (e.g., a HDD) of a server system. The server system contains a motherboard that includes at least one designated base bracket. Each of the at least one designated base bracket is configured to enable a carrier of a computing component to be mounted on and detached from. A designated base bracket can include one or more movable pins, one or more fixed pins, and a close latch.

Abstract: A negative pressure wound dressing is provided. The negative pressure wound dressing sequentially includes a backing layer, a water blocking layer, an absorbent layer and a wound contacting layer. Wherein, the backing layer includes a connecting aperture for fluidly communicating to a negative pressure source. The wound contacting layer includes a surface layer for wound contacting and a plurality of chambers containing a medication, wherein openings of the chambers are disposed on the surface layer for releasing the medication contained in the chamber. The medication can be prevented from being suctioned to the absorbent layer and can be released toward the wound to enhance the wound healing by using the negative pressure wound dressing.

Abstract: An electronic device assembly includes an electronic device, a rotatable member rotatably attached to the electronic device about a first shaft, and a peripheral device rotatably attached to the rotatable member about a second shaft. The rotatable member and the peripheral device are located on a front side of the electronic device. The peripheral device is rotatable about the second shaft relative to the rotatable member, for allowing the rotatable member and the peripheral device to be located on a same plane. The rotatable member is rotatable about the first shaft relative to the electronic device, for allowing the rotatable member and the peripheral device to be cooperatively attached to a back side of the electronic device.