Abstract: An image display method for handling a dynamic image signal including a plurality of continuous video frames, wherein the method includes steps as follows: Firstly, a first display parameter is output to display an Nth video frame of the plurality of continuous video frames according to a first attribute data of the Nth video frame. Then, at least one of (N+K)th video frame is detected, and when the at least one of the (N+K)th video frame has second attribute data, the first display parameter is output to display the at least one of the (N+K)th video frames. Subsequently, an (N+K+1)th video frame is detected, and when the (N+K+1)th video frame has the second attribute data, a second display parameter is output to display the (N+K+1)th video frame according to the second attribute data. Wherein, K is a positive integer greater than 1.

Abstract: The present application discloses a semiconductor device and a method for fabricating the semiconductor device. The semiconductor device includes a substrate, a channel region positioned in the substrate, first impurity regions positioned in the substrate and respectively positioned on two ends of the channel region, a gate dielectric layer positioned on the channel region, a gate bottom conductive layer positioned on the gate dielectric layer, composite contacts respectively positioned on the first impurity regions, programmable insulating layers respectively positioned on the composite contacts, a top conductive layer positioned on the programmable insulating layers and electrically coupled to the gate bottom conductive layer. One of the plurality of composite contacts includes a protection liner having a U-shaped profile and a metal core in the protection liner.

Abstract: The present disclosure relates to a semiconductor device including a semiconductor substrate, word lines, mask layers, spacers, a conductive plug, a conductive cap layer, and a dielectric layer. The word lines are disposed over the semiconductor substrate. The mask layers are disposed over the plurality of word line, respectively. The spacers are disposed over opposite sidewalls of the word lines and opposite sidewalls of the mask layers, respectively. The conductive plug is disposed between the word lines. The conductive cap layer is disposed over the conductive plug. The dielectric layer is disposed over the word lines and the spacers. Each of the spacers includes an inner spacer, an outer spacer, and an air gap. The inner spacer is in contact with the respective word line and the respective mask layer. The air gap is disposed between the inner spacer and the outer spacer.

Abstract: The present disclosure relates to a semiconductor device including a semiconductor substrate, word lines, mask layers, spacers, a conductive plug, a conductive cap layer, and a dielectric layer. The word lines are disposed over the semiconductor substrate. The mask layers are disposed over the plurality of word line, respectively. The spacers are disposed over opposite sidewalls of the word lines and opposite sidewalls of the mask layers, respectively. The conductive plug is disposed between the word lines. The conductive cap layer is disposed over the conductive plug. The dielectric layer is disposed over the word lines and the spacers. Each of the spacers includes an inner spacer, an outer spacer, and an air gap. The inner spacer is in contact with the respective word line and the respective mask layer. The air gap is disposed between the inner spacer and the outer spacer.

Abstract: An image display method for handling a dynamic image signal including a plurality of continuous video frames, wherein the method includes steps as follows: Firstly, a first display parameter is output to display an Nth video frame of the plurality of continuous video frames according to a first attribute data of the Nth video frame. Then, at least one of (N+K)th video frame is detected, and when the at least one of the (N+K)th video frame has second attribute data, the first display parameter is output to display the at least one of the (N+K)th video frames. Subsequently, an (N+K+1)th video frame is detected, and when the (N+K+1)th video frame has the second attribute data, a second display parameter is output to display the (N+K+1)th video frame according to the second attribute data. Wherein, K is a positive integer greater than 1.

Abstract: A light mixing module is provided. The light mixing module includes a first laser array, a second laser array, and one or more laser polarized fold mirrors. The first laser array is configured for emitting a plurality of polarized light beams having a first polarization state. The second array is configured for emitting a plurality of polarized light beams having the first polarization state. The second laser array is disposed opposite to the first laser array. The one or more laser polarized fold mirrors are disposed between the first laser array and the second laser array. The one or more laser polarized fold mirrors reflect the polarized light beams emitted by the first laser array and the polarized light beams emitted by the second laser array. Each one of the one or more laser polarized fold mirrors is configured to direct light beams from at least two different directions.

Abstract: An image display method for handling a dynamic image signal including a plurality of continuous video frames, wherein the method includes steps as follows: Firstly, a first display parameter is output to display an Nth video frame of the plurality of continuous video frames according to a first attribute data of the Nth video frame. Then, at least one of (N+K)th video frame is detected, and when the at least one of the (N+K)th video frame has second attribute data, the first display parameter is output to display the at least one of the (N+K)th video frames. Subsequently, an (N+K+1)th video frame is detected, and when the (N+K+1)th video frame has the second attribute data, a second display parameter is output to display the (N+K+1)th video frame according to the second attribute data. Wherein, K is a positive integer greater than 1.

Abstract: The present disclosure provides a method for preparing a semiconductor device structure. The method includes forming a capacitor contact over a semiconductor substrate, and forming a base layer over the capacitor contact. The method also includes forming a dielectric layer over the base layer, and performing a first doping process to form a first doped region in the dielectric layer. The method further includes etching the dielectric layer such that a sidewall of the dielectric layer is aligned with a sidewall of the first doped region, and removing the first doped region to form a first gap structure in the dielectric layer after the dielectric layer is etched. In addition, the method includes forming a surrounding portion along sidewalls of the dielectric layer and a first interconnect portion in the first gap structure by a deposition process.

Abstract: The present disclosure relates to a semiconductor device including a semiconductor substrate, word lines, mask layers, spacers, a conductive plug, a conductive cap layer, and a dielectric layer. The word lines are disposed over the semiconductor substrate. The mask layers are disposed over the plurality of word line, respectively. The spacers are disposed over opposite sidewalls of the word lines and opposite sidewalls of the mask layers, respectively. The conductive plug is disposed between the word lines. The conductive cap layer is disposed over the conductive plug. The dielectric layer is disposed over the word lines and the spacers. Each of the spacers includes an inner spacer, an outer spacer, and an air gap. The inner spacer is in contact with the respective word line and the respective mask layer. The air gap is disposed between the inner spacer and the outer spacer.

Abstract: The present application discloses semiconductor device, including a gate structure arranged on a substrate; a plurality of word lines arranged apart from the gate structure; two porous spacers arranged on two sides of the gate structure; and a first insulating layer arranged on the substrate laterally surrounding the gate structure and the porous spacers; and a second insulating layer arranged over the first insulating layer, wherein a top surface of the gate structure, top surfaces of the plurality of word lines and a top surface of the second insulating layer are level with each other, and wherein a porosity of the porous spacers is between about 25% and about 100%.

Abstract: The present disclosure relates to a semiconductor device including a semiconductor substrate, word lines, mask layers, spacers, a conductive plug, a conductive cap layer, and a dielectric layer. The word lines are disposed over the semiconductor substrate. The mask layers are disposed over the plurality of word line, respectively. The spacers are disposed over opposite sidewalls of the word lines and opposite sidewalls of the mask layers, respectively. The conductive plug is disposed between the word lines. The conductive cap layer is disposed over the conductive plug. The dielectric layer is disposed over the word lines and the spacers. Each of the spacers includes an inner spacer, an outer spacer, and an air gap. The inner spacer is in contact with the respective word line and the respective mask layer. The air gap is disposed between the inner spacer and the outer spacer.

Abstract: The present application discloses semiconductor device, including a gate structure arranged on a substrate; a plurality of word lines arranged apart from the gate structure; two porous spacers arranged on two sides of the gate structure; and a first insulating layer arranged on the substrate laterally surrounding the gate structure and the porous spacers; and a second insulating layer arranged over the first insulating layer, wherein a top surface of the gate structure, top surfaces of the plurality of word lines and a top surface of the second insulating layer are level with each other, and wherein a porosity of the porous spacers is between about 25% and about 100%.

Abstract: A light mixing module is provided. The light mixing module includes a first laser array, a second laser array, and one or more laser polarized fold mirrors. The first laser array is configured for emitting a plurality of polarized light beams having a first polarization state. The second array is configured for emitting a plurality of polarized light beams having the first polarization state. The second laser array is disposed opposite to the first laser array. The one or more laser polarized fold mirrors are disposed between the first laser array and the second laser array. The one or more laser polarized fold mirrors reflect the polarized light beams emitted by the first laser array and the polarized light beams emitted by the second laser array. Each one of the one or more laser polarized fold mirrors is configured to direct light beams from at least two different directions.

Abstract: The present disclosure relates to a method for forming a semiconductor device with a conductive cap layer over a conductive plug. The method includes forming a first word line and a second word line over a semiconductor substrate, and forming a dielectric layer covering the first word line and the second word line. The method also includes forming a conductive plug between the first word line and the second word line, wherein the conductive plug is surrounded by the dielectric layer. The method further includes removing a portion of the dielectric layer to partially expose a sidewall surface of the conductive plug, and forming a conductive cap layer covering a top surface and the sidewall surface of the conductive plug. In addition, the method includes forming a bit line over the conductive plug, wherein the bit line is electrically connected to the conductive plug through the conductive cap layer.

Abstract: The present application discloses a semiconductor device and a method for fabricating the semiconductor device. The semiconductor device includes a substrate, a channel region positioned in the substrate, first impurity regions positioned in the substrate and respectively positioned on two ends of the channel region, a gate dielectric layer positioned on the channel region, a gate bottom conductive layer positioned on the gate dielectric layer, composite contacts respectively positioned on the first impurity regions, programmable insulating layers respectively positioned on the composite contacts, a top conductive layer positioned on the programmable insulating layers and electrically coupled to the gate bottom conductive layer. One of the plurality of composite contacts includes a protection liner having a U-shaped profile and a metal core in the protection liner.

Abstract: The present disclosure provides a method for preparing a semiconductor device structure. The method includes forming a capacitor contact over a semiconductor substrate, and forming a base layer over the capacitor contact. The method also includes forming a dielectric layer over the base layer, and performing a first doping process to form a first doped region in the dielectric layer. The method further includes etching the dielectric layer such that a sidewall of the dielectric layer is aligned with a sidewall of the first doped region, and removing the first doped region to form a first gap structure in the dielectric layer after the dielectric layer is etched. In addition, the method includes forming a surrounding portion along sidewalls of the dielectric layer and a first interconnect portion in the first gap structure by a deposition process.

Abstract: An image display method for handling a dynamic image signal including a plurality of continuous video frames, wherein the method includes steps as follows: Firstly, a first display parameter is output to display an Nth video frame of the plurality of continuous video frames according to a first attribute data of the Nth video frame. Then, at least one of (N+K)th video frame is detected, and when the at least one of the (N+K)th video frame has second attribute data, the first display parameter is output to display the at least one of the (N+K)th video frames. Subsequently, an (N+K+1)th video frame is detected, and when the (N+K+1)th video frame has the second attribute data, a second display parameter is output to display the (N+K+1)th video frame according to the second attribute data. Wherein, K is a positive integer greater than 1.

Abstract: The present disclosure provides a semiconductor device structure with a bottom capacitor electrode having a crown-shaped structure and an interconnect portion and a method for forming the same. The semiconductor device structure includes a capacitor contact disposed over a semiconductor substrate, and a dielectric layer disposed over the capacitor contact. The semiconductor device structure also includes a patterned mask disposed over the dielectric layer, and a bottom capacitor electrode disposed over and electrically connected to the capacitor contact. The bottom capacitor electrode includes a base layer disposed between the capacitor contact and the dielectric layer, and a surrounding portion disposed over the base layer and along sidewalls of the dielectric layer and the patterned mask. The bottom capacitor electrode also includes a first interconnect portion disposed in the dielectric layer and substantially parallel to the base layer.

Abstract: A parameter adjusting method is applied to a projector having an ambient light sensor, a database and a digital micromirror device. The parameter adjusting method includes analyzing a detection signal generated by the ambient light sensor to acquire an environmental light datum, comparing the environmental light datum with a lookup table of the database to compute at least one compensation parameter, and adjusting an amount of reflection light generated by the digital micromirror device in accordance with the at least one compensation parameter for controlling the projector to output a calibrated projection image in response to compensation of the environmental light datum.

Abstract: A parameter adjusting method is applied to a projector having an ambient light sensor, a database and a digital micromirror device. The parameter adjusting method includes analyzing a detection signal generated by the ambient light sensor to acquire an environmental light datum, comparing the environmental light datum with a lookup table of the database to compute at least one compensation parameter, and adjusting an amount of reflection light generated by the digital micromirror device in accordance with the at least one compensation parameter for controlling the projector to output a calibrated projection image in response to compensation of the environmental light datum.