Abstract: A power module includes an upper substrate and a lower substrate, an upper chip, a lower chip, and a circuit board disposed across a space between the upper substrate and the lower chip and a space between the lower substrate and the upper chip so that the upper substrate and the lower substrate are vertically spaced from each other. The circuit board electrically connects the upper chip to the lower substrate while electrically connecting the lower chip to the upper substrate.

Abstract: An image sensor including a plurality of pixels, wherein each pixel of the plurality of pixels comprises: a first sub-pixel comprising a first photoelectric conversion area, a first floating diffusion area, and a first transfer transistor configured to transfer charges accumulated in the first photoelectric conversion area to the first floating diffusion area; and a second sub-pixel disposed adjacent to the first sub-pixel and comprising a second photoelectric conversion area, a second floating diffusion area and a second transfer transistor configured to transfer charges accumulated in the second photoelectric conversion area to the second floating diffusion area, wherein the first transfer transistor comprises a first transfer gate, wherein the second transfer transistor comprises a second transfer gate, and wherein the second transfer gate comprises a vertical multi-gate

Abstract: This disclosure relates to customizing a browser application with blockchain data such as customizing a browser setting and/or a user interface of the browser application. According to an aspect, a method includes obtaining, by a browser application, an identifier associated with a token stored on a blockchain network, retrieving, by the browser application, digital data of the token using the identifier, and customizing a user interface of the browser application using the digital data of the token.

Abstract: Systems and methods for flexible and extensible contact center routing are disclosed. Incoming communications are received at a contact center from one or more customers. A pairing score is determined for each agent capable of servicing the incoming communications for each of the one or more customers based on customer attributes and/or agent attributes that are adjustable and extensible. An incoming communication is routed from a customer to an agent having a highest pairing score with the customer. The incoming communication can be routed on a first communication channel and then switched over to a second communication channel. The first communication channel and second communication channel can be different types of communication channels.

Abstract: Systems and methods for flexible and extensible contact center routing are disclosed. Incoming communications are received at a contact center from one or more customers. A pairing score is determined for each agent capable of servicing the incoming communications for each of the one or more customers based on customer attributes and/or agent attributes that are adjustable and extensible. An incoming communication is routed from a customer to an agent having a highest pairing score with the customer. The incoming communication can be routed on a first communication channel and then switched over to a second communication channel. The first communication channel and second communication channel can be different types of communication channels.

Abstract: Systems and methods for flexible and extensible contact center routing are disclosed. Incoming communications are received at a contact center from one or more customers. A pairing score is determined for each agent capable of servicing the incoming communications for each of the one or more customers based on customer attributes and/or agent attributes that are adjustable and extensible. An incoming communication is routed from a customer to an agent having a highest pairing score with the customer. The incoming communication can be routed on a first communication channel and then switched over to a second communication channel. The first communication channel and second communication channel can be different types of communication channels.

Abstract: Systems and methods for flexible and extensible contact center routing are disclosed. Incoming communications are received at a contact center from one or more customers. A pairing score is determined for each agent capable of servicing the incoming communications for each of the one or more customers based on customer attributes and/or agent attributes that are adjustable and extensible. An incoming communication is routed from a customer to an agent having a highest pairing score with the customer. The incoming communication can be routed on a first communication channel and then switched over to a second communication channel. The first communication channel and second communication channel can be different types of communication channels.

Abstract: Systems and methods for flexible and extensible contact center routing are disclosed. Incoming communications are received at a contact center from one or more customers. A pairing score is determined for each agent capable of servicing the incoming communications for each of the one or more customers based on customer attributes and/or agent attributes that are adjustable and extensible. An incoming communication is routed from a customer to an agent having a highest pairing score with the customer. The incoming communication can be routed on a first communication channel and then switched over to a second communication channel. The first communication channel and second communication channel can be different types of communication channels.

Abstract: Systems and methods for flexible and extensible contact center routing are disclosed. Incoming communications are received at a contact center from one or more customers. A pairing score is determined for each agent capable of servicing the incoming communications for each of the one or more customers based on customer attributes and/or agent attributes that are adjustable and extensible. An incoming communication is routed from a customer to an agent having a highest pairing score with the customer. The incoming communication can be routed on a first communication channel and then switched over to a second communication channel. The first communication channel and second communication channel can be different types of communication channels.

Abstract: Systems and methods for flexible and extensible contact center routing are disclosed. Incoming communications are received at a contact center from one or more customers. A pairing score is determined for each agent capable of servicing the incoming communications for each of the one or more customers based on customer attributes and/or agent attributes that are adjustable and extensible. An incoming communication is routed from a customer to an agent having a highest pairing score with the customer. The incoming communication can be routed on a first communication channel and then switched over to a second communication channel. The first communication channel and second communication channel can be different types of communication channels.

Abstract: Systems and methods for flexible and extensible contact center routing are disclosed. Incoming communications are received at a contact center from one or more customers. A pairing score is determined for each agent capable of servicing the incoming communications for each of the one or more customers based on customer attributes and/or agent attributes that are adjustable and extensible. An incoming communication is routed from a customer to an agent having a highest pairing score with the customer. The incoming communication can be routed on a first communication channel and then switched over to a second communication channel. The first communication channel and second communication channel can be different types of communication channels.

Abstract: A photo-detector includes a detection region for collecting minority carriers in a substrate, first and second field generating regions generating a majority carrier current to move the minority carriers towards the detection region, and a blocking region spaced apart from the detection region to block a leakage current. The photo-detector includes a ground region spaced apart from the detection region, and the blocking region is disposed between the detection region and the ground region.

Abstract: A photo-detector includes a detection region for collecting minority carriers in a substrate, first and second field generating regions generating a majority carrier current to move the minority carriers towards the detection region, and a blocking region spaced apart from the detection region to block a leakage current. The photo-detector includes a ground region spaced apart from the detection region, and the blocking region is disposed between the detection region and the ground region.

Abstract: An illuminance and proximity sensor includes a first sensing unit that senses infrared light and green light, and forwards a first sensing signal corresponding to a result of the sensing, a second sensing unit that filters visible light, senses the infrared light, and forwards a second sensing signal corresponding to a result of the sensing, and a control unit that produces an illuminance using a first difference value from subtracting the second sensing signal from the first sensing signal, and a proximity using a second difference value from subtracting the first difference value from the second sensing signal.

Abstract: An illuminance and proximity sensor includes a first sensing unit that senses infrared light and green light, and forwards a first sensing signal corresponding to a result of the sensing, a second sensing unit that filters visible light, senses the infrared light, and forwards a second sensing signal corresponding to a result of the sensing, and a control unit that produces an illuminance using a first difference value from subtracting the second sensing signal from the first sensing signal, and a proximity using a second difference value from subtracting the first difference value from the second sensing signal.

Abstract: An image sensor includes a plurality of unit pixels. Each unit pixel has a photo diode for sensing external light to generate photo charges. A transfer transistor is connected to the photo diode for storing the photo charges generated in the photo diode into a floating diffusion region when being turned-on. An amplification transistor amplifies the photo charges stored into the floating diffusion region. A select transistor, connected to the amplification transistor, performs a switching operation. An output line, extended in a column direction, outputs the photo charges in accordance with the switching operation of the select transistor. The photo diode may be formed in such a manner to share the output line with its adjacent photo diode in a horizontal direction, so that the photo charges generated in the photo diode and its adjacent photo diode are outputted through the output line.

Abstract: An image sensor includes a plurality of unit pixels. Each unit pixel has a photo diode for sensing external light to generate photo charges. A transfer transistor is connected to the photo diode for storing the photo charges generated in the photo diode into a floating diffusion region when being turned-on. An amplification transistor amplifies the photo charges stored into the floating diffusion region. A select transistor, connected to the amplification transistor, performs a switching operation. An output line, extended in a column direction, outputs the photo charges in accordance with the switching operation of the select transistor. The photo diode may be formed in such a manner to share the output line with its adjacent photo diode in a horizontal direction, so that the photo charges generated in the photo diode and its adjacent photo diode are outputted through the output line.

Abstract: An image sensor includes defining an active region in a substrate by forming a device isolating layer; and then sequentially forming a photodiode and a logic unit in the active region; and then forming a first passivation layer on the photodiode and the logic unit; and then forming a trench in the first passivation layer by selectively removing a portion of the first protective layer corresponding to an uppermost surface of the photodiode; and then forming a second passivation layer buried in the trench. Forming a thick second passivation layer in the trench which spatially corresponds to the photodiode can offset dangling bonds on the surface of the substrate in a subsequent annealing process while also reducing dark current and enhance photosensitivity of the photodiode.

Abstract: An image sensor includes defining an active region in a substrate by forming a device isolating layer; and then sequentially forming a photodiode and a logic unit in the active region; and then forming a first passivation layer on the photodiode and the logic unit; and then forming a trench in the first passivation layer by selectively removing a portion of the first protective layer corresponding to an uppermost surface of the photodiode; and then forming a second passivation layer buried in the trench. Forming a thick second passivation layer in the trench which spatially corresponds to the photodiode can offset dangling bonds on the surface of the substrate in a subsequent annealing process while also reducing dark current and enhance photosensitivity of the photodiode.