Abstract: A blind spot warning and turn signal indication light-emitting device for a vehicle side view mirror includes a mirror seat, a blind spot warning unit and a turn signal indication unit both mounted on the mirror seat. The blind spot warning unit includes a light guiding member having a light incident face aligned with a light emitting diode lamp and provided with a plurality of grooves to diffuse light emitted by the light emitting diode lamp. The turn signal indication unit includes a turn signal light guide having a light incident surface aligned with light emitting elements and provided with a plurality of troughs to diffuse light emitted by the light emitting elements. The turn signal light guide further includes an operating surface having reflective surfaces to reflect the diffused light to uniformly pass outwardly through a mirror of the vehicle side view mirror.

Abstract: A method for controlling and switching operational modes of an additional lamp for a vehicle includes confirming a pre-set operating mode of the additional lamp. The additional lamp is switched from the pre-set operating mode to another operating mode only when a continuous first signal and intermittent plural second signals come from the vehicle. When the brake is operating and the additional lamp is in a non-flickering mode, the additional lamp generates non-flickering light. When the brake is operating and the additional lamp is in the flickering mode, the additional lamp generates flickering light. The additional lamp is turned off when the braking operation stops. When the braking operation continues and the additional lamp is in the flickering mode, the additional lamp keeps outputting flickering light. When the braking operation continues and the additional lamp is in the non-flickering mode, the additional lamp keeps outputting non-flickering light.

Abstract: A method for controlling and switching operational modes of an additional lamp for a vehicle includes confirming a pre-set operating mode of the additional lamp. The additional lamp is switched from the pre-set operating mode to another operating mode only when a continuous first signal and intermittent plural second signals come from the vehicle. When the brake is operating and the additional lamp is in a non-flickering mode, the additional lamp generates non-flickering light. When the brake is operating and the additional lamp is in the flickering mode, the additional lamp generates flickering light. The additional lamp is turned off when the braking operation stops. When the braking operation continues and the additional lamp is in the flickering mode, the additional lamp keeps outputting flickering light. When the braking operation continues and the additional lamp is in the non-flickering mode, the additional lamp keeps outputting non-flickering light.

Abstract: A blind spot area warning and illustrating device includes a light guiding member including a light output face and a light incident face having grooves. The light guiding member further includes an operating face opposite to the light output face and having reflective faces. Each reflective face is at an acute angle to the light output face. A cover is mounted around the light guiding member. The light output face of the light guiding member is aligned with a light transmitting area of a mirror of a side view mirror. A light emitting diode lamp is mounted in the cover and is aligned with the light incident face. When the light emitting diode lamp is activated to emit light, the grooves diffuse the light emitted by the light emitting diode lamp, and the reflective faces reflect the diffused light to uniformly pass outwardly through the light output face.

Abstract: Disclosed is a nebulization device with a spray orifice plate including an energy transfer element, a spray orifice plate and a driving element. The energy transfer element has at least one first penetrating hole for inputting a liquid from a side and the spray orifice plate is installed on at least one side of the energy transfer element for sealing the first penetrating hole, and the energy transfer element supports the spray orifice plate, and the spray orifice plate has at least one stepped orifice formed at a position corresponding to the first penetrating hole and serves as a transportation channel of the liquid, so that the liquid can be temporarily stored in the stepped orifice and sprayed out through the through hole after vibration and nebulization in order to improve the nebulization effect significantly.

Abstract: Disclosed is a nebulization device with a spray orifice plate including an energy transfer element, a spray orifice plate and a driving element. The energy transfer element has at least one first penetrating hole for inputting a liquid from a side and the spray orifice plate is installed on at least one side of the energy transfer element for sealing the first penetrating hole, and the energy transfer element supports the spray orifice plate, and the spray orifice plate has at least one stepped orifice formed at a position corresponding to the first penetrating hole and serves as a transportation channel of the liquid, so that the liquid can be temporarily stored in the stepped orifice and sprayed out through the through hole after vibration and nebulization in order to improve the nebulization effect significantly.

Abstract: A nebulization structure includes a driving element, a structure plate and a nebulization plate. The structure plate is installed on a side of the driving element, and the structure plate is substantially in a circular disc shape and has a plurality of through holes, and at least one rib is formed between adjacent through holes to define a water guide passage. The nebulization plate is clamped between the driving element and the structure plate and made of a polymer material to overcome the problems of having easy metal fatigue and embrittlement of the nebulization plate made of metal, and being corroded by corrosive liquids.

Abstract: A nebulizer with a negative pressure structure includes a nebulization body, a carrying cavity, a nebulizing element and a negative pressure generating element. The carrying cavity is provided for carrying a nebulized liquid and has a through hole. The nebulizing element is installed at the through hole and includes a piezoelectric driving unit and a nebulizing plate disposed on a side of the piezoelectric driving unit. The negative pressure generating element is formed on the carrying cavity and provided for changing the volume of the carrying cavity or removing air from the carrying cavity to reduce the air pressure in the carrying cavity, so as to nebulize a liquid of low surface tension or high viscosity effectively.

Abstract: A nebulization structure with a nozzle plate includes a nozzle plate and a driving element. The nozzle plate is composed of a polymer and a support plate, and the support plate includes a plurality of connecting portions and a through hole, and the polymer covers the support plate and has a plurality of penetrating holes corresponding to the through hole. The driving element is coupled to the nozzle plate through the connecting portions for producing a high-frequency vibration wave through a piezoelectric effect after power is supplied and driving the nozzle plate to vibrate and break up the molecular structure of a solution into a mist, so as to achieve the nebulization effect. The nebulization structure can be installed in a nebulization apparatus to achieve a high-efficiency nebulization effect by the nozzle plate and the driving element, so as to facilitate the manufacturing process and save costs.

Abstract: An integrated circuit comprises a gate electrode of at least one active transistor. The integrated circuit also comprises a first dummy gate electrode on a first side of the gate electrode. The integrated circuit further comprises a second dummy gate electrode on a second side of the gate electrode, the second side being opposite the first side. The integrated circuit additionally comprises a diffusion ring surrounding the gate electrode, the first dummy gate electrode, and the second dummy gate electrode. The integrated circuit also comprises a diffusion area extending from a first edge of the diffusion ring to a second edge of the diffusion ring.

Abstract: An integrated circuit includes a first standard cell over a substrate, a power rail, and a first connection plug. The first standard cell includes an active area, at least one gate electrode overlapping the active area of the first standard cell, and at least one metallic line structure overlapping the active area of the first standard cell. The at least one metallic line structure is substantially parallel to the gate electrode. The power rail is substantially orthogonal to the at least one metallic line structure of the first standard cell. The power rail overlaps the at least one metallic line structure of the first standard cell, and the power rail has a flat edge extending through the first standard cell. The first connection plug is at a region where the power rail overlaps the at least one metallic line structure of the first standard cell.

Abstract: An integrated circuit comprises a gate electrode of at least one active transistor. The integrated circuit also comprises a first dummy gate electrode on a first side of the gate electrode. The integrated circuit further comprises a second dummy gate electrode on a second side of the gate electrode, the second side being opposite the first side. The integrated circuit additionally comprises a diffusion ring surrounding the gate electrode, the first dummy gate electrode, and the second dummy gate electrode. The integrated circuit also comprises a diffusion area extending from a first edge of the diffusion ring to a second edge of the diffusion ring.

Abstract: A method of forming an integrated circuit comprises forming at least one gate electrode of at least one active transistor, and at least one first dummy gate electrode. The method also comprises forming a first doped region disposed in the substrate and adjacent to a first side wall of the at least one first dummy gate electrode, wherein the first doped region has a first conductivity type dopant. The method further comprises forming a second doped region disposed in the substrate and adjacent to a second side wall of the at least one first dummy gate electrode. The second doped region has a second conductivity type dopant that is opposite to the first conductivity type dopant.

Abstract: A nozzle plate and an atomizing module using the nozzle plate are disclosed. The atomizing module is installed at a cavity and includes a piezoelectric circular plate, a braking circular plate and a nozzle plate. The braking circular plate is installed on a side of the piezoelectric circular plate. The nozzle plate is a circular disc clamped between the piezoelectric circular plate and the braking circular plate, and the nozzle plate includes firing holes and first protrusions. Each first protrusion is non-circular and protruded in a direction towards the piezoelectric circular plate or the braking circular plate to form a multi-curved surface structure radially or circularly arranged into a specific geometric pattern. The nozzle plate can increase the atomizing area, atomizing quantity and liquid-gas exchange rate to prevent excessive stresses from concentrating at the center of the nozzle plate or vibrations from cracking or breaking the nozzle plate.

Abstract: A method of forming an integrated circuit comprises forming at least one gate electrode of at least one active transistor, and at least one first dummy gate electrode. The method also comprises forming a first doped region disposed in the substrate and adjacent to a first side wall of the at least one first dummy gate electrode, wherein the first doped region has a first conductivity type dopant. The method further comprises forming a second doped region disposed in the substrate and adjacent to a second side wall of the at least one first dummy gate electrode. The second doped region has a second conductivity type dopant that is opposite to the first conductivity type dopant.

Abstract: An integrated circuit includes at least one first gate electrode of at least one active transistor. The integrated circuit further includes at least one first dummy gate electrode and at least one second dummy gate electrode. The integrated circuit further includes at least one guard ring disposed around the at least one first gate electrode, the at least one first dummy gate electrode, and the at least one second dummy gate electrode. An ion implantation layer of the at least one guard ring substantially touches at least one of the at least one first dummy gate electrode or the at least one second dummy gate electrode.

Abstract: Disclosed is a nebulization device with a spray orifice plate including an energy transfer element, a spray orifice plate and a driving element. The energy transfer element has at least one first penetrating hole for inputting a liquid from a side and the spray orifice plate is installed on at least one side of the energy transfer element for sealing the first penetrating hole, and the energy transfer element supports the spray orifice plate, and the spray orifice plate has at least one stepped orifice formed at a position corresponding to the first penetrating hole and serves as a transportation channel of the liquid, so that the liquid can be temporarily stored in the stepped orifice and sprayed out through the through hole after vibration and nebulization in order to improve the nebulization effect significantly.

Abstract: An integrated circuit includes a first standard cell over a substrate, a power rail, and a first connection plug. The first standard cell includes an active area, at least one gate electrode overlapping the active area of the first standard cell, and at least one metallic line structure overlapping the active area of the first standard cell. The at least one metallic line structure is substantially parallel to the gate electrode. The power rail is substantially orthogonal to the at least one metallic line structure of the first standard cell. The power rail overlaps the at least one metallic line structure of the first standard cell, and the power rail has a flat edge extending through the first standard cell. The first connection plug is at a region where the power rail overlaps the at least one metallic line structure of the first standard cell.

Abstract: A method of designing an integrated circuit includes deploying an active area in a first standard cell. At least one gate electrode is routed, overlapping the active area in the first standard cell. At least one metallic line structure is routed, overlapping the active area in the first standard cell. The at least one metallic line structure is substantially parallel to the gate electrode. A first power rail is routed substantially orthogonal to the at least one metallic line structure in the first standard cell. The first power rail overlaps the at least one metallic line structure. The first power rail has a flat edge that is adjacent to the at least one metallic line structure. A first connection plug is deployed at a region where the first power rail overlaps the at least one metallic line structure in the first standard cell.

Abstract: A nebulization structure with a nozzle plate includes a nozzle plate and a driving element. The nozzle plate is composed of a polymer and a support plate, and the support plate includes a plurality of connecting portions and a through hole, and the polymer covers the support plate and has a plurality of penetrating holes corresponding to the through hole. The driving element is coupled to the nozzle plate through the connecting portions for producing a high-frequency vibration wave through a piezoelectric effect after power is supplied and driving the nozzle plate to vibrate and break up the molecular structure of a solution into a mist, so as to achieve the nebulization effect. The nebulization structure can be installed in a nebulization apparatus to achieve a high-efficiency nebulization effect by the nozzle plate and the driving element, so as to facilitate the manufacturing process and save costs.