Abstract: A semiconductor device structure is provided. The semiconductor device structure includes a first source/drain epitaxial feature formed over a substrate, a second source/drain epitaxial feature formed over the substrate, two or more semiconductor layers disposed between the first source/drain epitaxial feature and the second source/drain epitaxial feature, a gate electrode layer surrounding a portion of one of the two or more semiconductor layers, a first dielectric region disposed in the substrate and in contact with a first side of the first source/drain epitaxial feature, and a second dielectric region disposed in the substrate and in contact with a first side of the second source/drain epitaxial feature, the second dielectric region being separated from the first dielectric region by a substrate.

Abstract: A low voltage one-time-programmable memory includes a first conductive layer, a first via, a second conductive layer, a select transistor, a second via and a third conductive layer. The first via is electrically connected to the first conductive layer. The second conductive layer is electrically connected to the first via. The select transistor is electrically connected to the second conductive layer. The second via is electrically connected to the second conductive layer. The third conductive layer is electrically connected to the second via. A first current passed through the second via is a sum of a second current passed through the first via and a third current passed through the select transistor.

Abstract: A three-dimensional resistive random access memory structure includes a base layer, a first layer, a second layer, a third layer and a fourth layer. The first layer includes two first conductive layers and a first via. One of the two first conductive layers is electrically connected between the base layer and the first via. The second layer includes three second conductive layers and two second vias. Two first resistive elements are formed between one of the two second vias and two of the three second conductive layers. The third layer includes three third conductive layers and two third vias. Two second resistive elements are formed between one of the two third vias and two of the three third conductive layers. The fourth layer includes a fourth conductive layer. The fourth conductive layer is electrically connected to the two third vias.

Abstract: A lamp structure is provided in which a roof rack fixed on top of a car has an engaging slot for locking with a detent portion formed on the bottom of a positioning unit. A connecting portion extending on the detent portion has a fitting indentation with a positioning member penetrating therethrough, one end of the positioning member having a snap-fit portion provided on one end and a positioning pulling lever pivotally provided on the other end. A warning lamp having a snap-fit groove for engaging with the snap-fit portion is combined with the connecting portion. Therefore, the warning lamp has higher assembly position so that light emitted from the warning light is clearly visible by rear drivers from a longer distance and hence has better eye-catching and warning effect, and better driving safety can be achieved.

Abstract: The present invention provides a semiconductor structure, including a substrate, having a dielectric layer disposed thereon, a first device region and a second device region defined thereon, at least one first trench disposed in the substrate within the first device region, at least one second trench and at least one third trench disposed in the substrate within the second device region, a work function layer, disposed in the second trench and the third trench, wherein the work function layer partially covers the sidewall of the second trench, and entirely covers the sidewall of the third trench, and a first material layer, disposed in the second trench and the third trench, wherein the first material layer covers the work function layer disposed on partial sidewall of the second trench, and entirely covers the work function layer disposed on the sidewall of the third trench.

Abstract: The present disclosure provides a wave energy gathering and enhancing device disposed in a setting area of the sea-bed. A seawater wave approaches the wave energy gathering and enhancing device with a wave vector. The wave energy gathering and enhancing device comprises a plurality of structures. The plurality of structures are arranged below the sea surface in a two-dimensional symmetric discrete group. Each of the structures has a top surface and the top surface is located below the sea surface with a predetermined depth. A lattice with a definite lattice constant is formed by the plurality of structures. The lattice plane formed by the structures and the wave vector of the seawater wave form an angle. The structures enhance the amplitude of the seawater wave when the seawater wave interacts with and passes through the structures.

Abstract: A roof rack with integrated light includes a mounting frame section with an integrated receptacle in the front or rear side. This mounting frame section is mounted to the roof of a vehicle using mounting elements that connect it directly to the roof or other sections of the roof rack. A light source suitable for automotive applications is located in the receptacle and covered with a lens. This lens covers the majority of the length of the frame section but does not extend above the top of the frame section. The system can be powered by connecting it to the vehicles system or a battery.

Abstract: A vehicle light composite lens (VLCL) that features a segmented light lens (SLL) that is comprised of seven optical segments. The SLL is applied an LED light source that is processed through the seven optical segments to produce an optimum light beam that is projected onto a vehicle outside environment. The VLCL can be designed in various shapes and dimensions to accommodate various vehicle mounting segments and is adapted as an OEM vehicle product or as an after-market product.

Abstract: A vehicle rear light assembly (VRLA) that is enclosed within an elongated LED display unit that includes a center compartment having a plurality of red LEDs and contiguous left and right compartments each having a plurality of yellow/red LEDs. The VRLA is comprised of an electrical circuit consisting of a function select circuit that is connected to a vehicle and sequentially includes an LED drive circuit, an LED control circuit and a LED activation circuit that is connected, in combination with the LED drive circuit, to the LED display unit. The display unit allows the viewing of left and right blinking turn signals, brake lights and tail lights.

Abstract: A combination audio and light system consisting of an electronic circuit comprising a power supply, a switch, an audio circuit and at least one light source. The power supply has an input connected to a power source and an output. The switch is a normally open single-pole double-throw (SPDT) switch that has a first contact and a second contact. The switch's pole is connected to the output of the power supply. The audio circuit processes and amplifies an amplified or non-amplified audio signal, and has an input connected to the first contact on the switch, and an output connected to the loudspeaker. The light source is connected to the second contact on the switch. An enclosure is dimensioned to enclose the electronic circuit, and has at least one loudspeaker opening for the loudspeaker and at least one light source opening for the light source.

Abstract: The present invention provides a semiconductor structure, including a substrate, having a dielectric layer disposed thereon, a first device region and a second device region defined thereon, at least one first trench disposed in the substrate within the first device region, at least one second trench and at least one third trench disposed in the substrate within the second device region, a work function layer, disposed in the second trench and the third trench, wherein the work function layer partially covers the sidewall of the second trench, and entirely covers the sidewall of the third trench, and a first material layer, disposed in the second trench and the third trench, wherein the first material layer covers the work function layer disposed on partial sidewall of the second trench, and entirely covers the work function layer disposed on the sidewall of the third trench.

Abstract: A vehicle auxiliary light assembly (VALA) that is comprised of a first LED section that is vertically attached adjacent the right side of a vehicle's rear window and a similar second LED section that is vertically attached adjacent the left side of a vehicle's rear window. Each LED section is controlled by a vehicle's rear lights control terminal that produces a white light when a reverse signal is applied, a yellow light when the right or left turn is applied, and a red light when a brake signal is applied when a selected vehicle light is activated, a corresponding LED illuminates in synchrony with the selected vehicle light.

Abstract: A vehicle tail-light unit (VTLU) that is designed to be attached to a rear structure of a vehicle such as a towed trailer. The VTLU includes a plurality of voltage regulators that control the illumination of a series of LEDs. The LEDs produce a red light when the vehicle brakes are depressed, a yellow light when either a right-turn or left-turn lever is depressed and a white light when the vehicle is placed in reverse. The VTLU is enclosed in a housing that can be configured as a triangle, a circle or a rectangle and can include a red reflector.

Abstract: The present disclosure provides a wave energy gathering and enhancing device disposed in a setting area of the sea-bed. A seawater wave approaches the wave energy gathering and enhancing device with a wave vector. The wave energy gathering and enhancing device comprises a plurality of structures. The plurality of structures are arranged below the sea surface in a two-dimensional symmetric discrete group. Each of the structures has a top surface and the top surface is located below the sea surface with a predetermined depth. A lattice with a definte lattice constant is formed by the plurality of structures. The lattice plane formed by the structures and the wave vector of the seawater wave form an angle. The structures enhance the amplitude of the seawater wave when the seawater wave interacts with and passes through the structures.

Abstract: A vehicle auxiliary lighting system (VALS) that is designed to have installed on the lower inner edge of a vehicle's rear-facing, upward-opening door a set of rear facing lights. When the rear door is lifted, the lights are manually or automatically activated and produce a light beam that can easily be viewed by oncoming vehicular traffic. The illuminated light provides an extra margin of safety to personnel attending to a disabled vehicle that has been parked adjacent a road.

Abstract: A vehicle rear light assembly (VRLA) that is enclosed within an elongated LED display unit that includes a center compartment having a plurality of red LEDs and contiguous left and right compartments each having a plurality of yellow/red LEDs. The VRLA is comprised of an electrical circuit consisting of a function select circuit that is connected to a vehicle and sequentially includes an LED drive circuit, an LED control circuit and a LED activation circuit that is connected, in combination with the LED drive circuit, to the LED display unit. The display unit allows the viewing of left and right blinking turn signals, brake lights and tail lights.

Abstract: A multi-function vehicle light assembly (MVLA) that incorporates in a single enclosure a plurality of LED modules. Each module produces a white light that indicates that a vehicle is in reverse, an amber light that indicates that a vehicle is making a right or a left turn, and a red light that functions as a vehicle tail-light and to indicate that the brakes are being applied. Two embodiments are disclosed, in the first embodiment the plurality of LED modules directly produce a set of white, amber and red lights. In the second embodiment an LED module is utilized that includes blue, green and red LEDs that are selectively combined by an LED control circuit to produce the white, amber and red lights. Each embodiment also includes a set of control units for selecting which of the input signal lines are to be activated.

Abstract: A multi-function vehicle light assembly (10) (MVLA 10) that is designed to provide a compact light assembly that incorporates in a single enclosure (24) a plurality of LED modules (16). Each module (16) produces a white light that indicates that a vehicle is in reverse, an amber light that indicates that a vehicle is making a right or a left turn, and a red light that functions as a vehicle tail light and to also indicate that the vehicle brakes are being applied. Two embodiments are disclosed in the first embodiment the plurality of LED modules (16) directly produce a set of white, amber and red lights. In the second embodiment an LED module (16) is utilized that includes a blue, green and red LEDs that are selectively combined by an LED control module (22) to provide the required white, amber and red lights.