Abstract: An FSI image sensor device structure is provided. The FSI image sensor device structure includes a substrate and a barrier structure formed in the substrate. The barrier structure includes a plurality of protrusion portions and a plurality of pillar portions. Each of the protrusion portions has a first height, and each of the pillar portions has a second height that is greater than the first height. The FSI image sensor device structure includes a pixel region formed over the protrusion portions and a storage region formed over the protrusion portions, wherein the pillar portions surround the pixel region.

Abstract: The present disclosure relates to an image sensor integrated chip having a grid structure that reduces crosstalk between pixel regions of an image sensor chip. In some embodiments, the integrated chip has an image sensing element arranged within a substrate. An absorption enhancement structure is disposed along the back-side of the substrate. A grid structure is arranged over the absorption enhancement structure. The grid structure defines an opening arranged over the image sensing element and extends from over the absorption enhancement structure to a location within the absorption enhancement structure. By having the grid structure extend into the absorption enhancement structure, the grid structure is able to reduce crosstalk between adjacent image sensing elements by blocking radiation reflected off of non-planar surfaces of the absorption enhancement structure from traveling to an adjacent pixel region.

Abstract: The present disclosure relates to an integrated chip that has a light sensing element arranged within a substrate. An absorption enhancement structure is arranged along a back-side of the substrate, and an interconnect structure is arranged along a front-side of the substrate. A reflection structure includes a dielectric structure and a plurality of semiconductor pillars that matingly engage the dielectric structure. The dielectric structure and semiconductor pillars are arranged along the front-side of the substrate and are spaced between the light sensing element and the interconnect structure. The plurality of semiconductor pillars and the dielectric structure are collectively configured to reflect incident light that has passed through the absorption enhancement structure and through the light sensing element back towards the light sensing element before the incident light strikes the interconnect structure.

Abstract: The present disclosure relates to an image sensor integrated chip having a grid structure that reduces crosstalk between pixel regions of an image sensor chip. In some embodiments, the integrated chip has an image sensing element arranged within a substrate. An absorption enhancement structure is disposed along the back-side of the substrate. A grid structure is arranged over the absorption enhancement structure. The grid structure defines an opening arranged over the image sensing element and extends from over the absorption enhancement structure to a location within the absorption enhancement structure. By having the grid structure extend into the absorption enhancement structure, the grid structure is able to reduce crosstalk between adjacent image sensing elements by blocking radiation reflected off of non-planar surfaces of the absorption enhancement structure from traveling to an adjacent pixel region.

Abstract: A semiconductor structure includes a semiconductive substrate including a first surface and a second surface opposite to the first surface, a shallow trench isolation (STI) including a first portion at least partially disposed within the semiconductive substrate and tapered from the first surface towards the second surface, and a second portion disposed inside the semiconductive substrate, coupled with the first portion and extended from the first portion towards the second surface, and a void enclosed by the STI, wherein the void is at least partially disposed within the second portion of the STI.

Abstract: A semiconductor structure includes a semiconductive substrate including a first surface and a second surface opposite to the first surface, a shallow trench isolation (STI) including a first portion at least partially disposed within the semiconductive substrate and tapered from the first surface towards the second surface, and a second portion disposed inside the semiconductive substrate, coupled with the first portion and extended from the first portion towards the second surface, and a void enclosed by the STI, wherein the void is at least partially disposed within the second portion of the STI.

Abstract: A semiconductor structure is provided, which includes a semiconductor substrate, a first well region, a second well region, an active region, a shallow trench isolation (STI) and at least one deep trench isolation (DTI). The first well region of a first conductive type is on the semiconductor substrate. The second well region of a second conductive type is on the semiconductor substrate and adjacent to the first well region. The second conductive type is different from the first conductive type. The active region is on the first well region. The active region has a conductive type the same as the second conductive type of the second well region. The STI is between the first and second well regions. The DTI is below the STI. The DTI is disposed between at least a portion of the first well region and at least a portion of the second well region.

Abstract: In a method for manufacturing a semiconductor device, a substrate including a gate structure is provided. A source region and a drain region are formed at opposing sides of the gate structure and an implant region for a resistor device is formed in the substrate. Pocket implant regions are formed in the source region and the drain region. A dielectric layer is formed to cover the gate structure and the substrate. A portion of dopants in the pocket implant regions interact with portions of dopants in the source region and the drain region to form lightly doped drain regions above the pocket implant regions. A resistor region of the resistor device is defined on the implant region. A portion of the dielectric layer is removed to form a spacer on a sidewall of the gate structure and a resistor protection dielectric layer on a portion of the implant region.

Abstract: In a method for manufacturing a semiconductor device, a substrate including a gate structure is provided. A source region and a drain region are formed at opposing sides of the gate structure and an implant region for a resistor device is formed in the substrate. Pocket implant regions are formed in the source region and the drain region. A dielectric layer is formed to cover the gate structure and the substrate. A portion of dopants in the pocket implant regions interact with portions of dopants in the source region and the drain region to form lightly doped drain regions above the pocket implant regions. A resistor region of the resistor device is defined on the implant region. A portion of the dielectric layer is removed to form a spacer on a sidewall of the gate structure and a resistor protection dielectric layer on a portion of the implant region.

Abstract: A computer-TV, video converting apparatus which transfers any determined partial area of a computer display into a zoomed image displayed onto a large scale TV, screen used for a briefing or a seminar in addition to a preformed partial area converting function, comprising a main converter with a build-in remote signal receiver, a computer cursor coordinate convening device and a remote controller while the remote controller provides the infrared or radio signal to the remote signal receiver by operating the mouse function keys of the remote controller to move the cursor to a center of a determined partial area of the computer display. The computer cursor coordinate converting device converts the absolute coordinate of the cursor center into a relative coordinates and sent the relative coordinate data to the main converter, a microprocessor and a display controller of the main converter then converts the expected zoom area into a video signal to the TV, screen to provide a zoomed image thereon.

Abstract: A display control unit for combining first video signal transmitted from a first video information source which is controlled by a first pixel clock and a first synchronizing signal with second video signal transmitted from a second video information source which is controlled by a second pixel clock and a second synchronizing signal so that the first and the second video signals can be displayed on a CRT display device which is controlled by the first pixel clock and the first synchronizing signal.