Abstract: A method is disclosed of an image sensor array comprising more than one image sensor structures and one or more processing blocks that are interconnected. The final image sensor array image output for each image sensor structure or pixel is computed using single image sensor structure output data or output data from more than one image sensor structure and processing blocks. The image sensor array exhibits complexity, cost, power consumption, device yields and reliability benefits when compared to other image sensor array structures.

Abstract: A method is disclosed of a heterogeneous image sensor array comprising more than one image sensor structures that are interconnected. The final image sensor array image output for each image sensor structure or pixel is computed using single image sensor structure output data or output data from more than one image sensor structures. The heterogeneous array exhibits complexity, cost, power consumption, device yields and reliability benefits when compared to other image sensor array structures.

Abstract: A method of implementing high-performance color filter mosaic arrays (CFA) using luminance pixels. The introduction of luminance pixels greatly improves the accuracy of the image acquisition process for a given pixel and image sensor size.

Abstract: A high dynamic range sensitive sensor element or array is provided which uses periodic sampling phase domain integration techniques to accurately capture high and low intensity images. The sensor element of the present invention is not limited by dynamic range characteristics exhibited by prior art solid-state pixel structures and is thus capable of capturing a full spectrum of electromagnetic radiation to provide a high quality output image.

Abstract: A high dynamic range sensitive sensor element or array is provided which uses phase domain integration techniques to accurately capture high and low intensity images. The sensor element of the present invention is not limited by dynamic range characteristics exhibited by prior art solid-state pixel structures and is thus capable of capturing a full spectrum of electromagnetic radiation to provide a high quality output image.

Abstract: An image scanning apparatus includes a housing. A first image sensor (linear scan imager) is attached at a first position along the housing. The first image sensor is configured and adapted to scan an image. A second image sensor (area scan imager) is attached at a second position along the housing. The second image sensor is configured and adapted to scan an image to detect movement of the apparatus in the X and Y axis. Movement in the Y axis of the apparatus as detected by the second image sensor is utilized to trigger the first image sensor. Movement in the X axis of the apparatus as detected by the second image sensor is utilized to correct image defects (e.g. skew) of the image captured by the first image sensor thereby allowing the second image sensor to capture a 2D inspection area.

Abstract: An image scanning apparatus includes a housing. A first image sensor (linear scan imager) is attached at a first position along the housing. The first image sensor is configured and adapted to scan an image. A second image sensor (area scan imager) is attached at a second position along the housing. The second image sensor is configured and adapted to scan an image to detect movement of the apparatus in the X and Y axis. Movement in the Y axis of the apparatus as detected by the second image sensor is utilized to trigger the first image sensor. Movement in the X axis of the apparatus as detected by the second image sensor is utilized to correct image defects (e.g. skew) of the image captured by the first image sensor thereby allowing the second image sensor to capture a 2D inspection area.

Abstract: A high dynamic range sensitive sensor element or array is provided which uses periodic sampling phase domain integration techniques to accurately capture high and low intensity images. The sensor element of the present invention is not limited by dynamic range characteristics exhibited by prior art solid-state pixel structures and is thus capable of capturing a full spectrum of electromagnetic radiation to provide a high quality output image.

Abstract: A method of implementing high-performance color filter mosaic arrays (CFA) using luminance pixels. The introduction of luminance pixels greatly improves the accuracy of the image acquisition process for a given pixel and image sensor size.

Abstract: A method of implementing high-performance color filter mosaic arrays (CFA) using luminance pixels. The introduction of luminance pixels greatly improves the accuracy of the image acquisition process for a given pixel and image sensor size.

Abstract: A high dynamic range sensitive sensor element or array is provided which uses phase domain integration techniques to accurately capture high and low intensity images. The sensor element of the present invention is not limited by dynamic range characteristics exhibited by prior art solid-state pixel structures and is thus capable of capturing a full spectrum of electromagnetic radiation to provide a high quality output image.

Abstract: A high dynamic range sensitive sensor element or array is provided which uses phase domain integration techniques to accurately capture high and low intensity images. The sensor element of the present invention is not limited by dynamic range characteristics exhibited by prior art solid-state pixel structures and is thus capable of capturing a full range of electromagnetic radiation to provide a high quality output image.

Abstract: A high dynamic range sensitive sensor array is described which uses a combination of pixel structures, some of which incorporating phase domain integration techniques to accurately capture high and low intensity images. The sensor elements included as many of the pixel structures in the sensor array are not limited by dynamic range characteristics exhibited by prior art solid-state pixel structures and is thus capable of capturing a full spectrum of electromagnetic radiation to provide a high quality output image.

Abstract: Integrators are electronic components used to condition received analog signals, for example prior to Analog to Digital Conversion. Wide dynamic range, high gain and fine resolution are required of integrators and Analog to Digital Converters in order to limit the effects of noise, including quantization noise. Conventional integrators preceding Analog to Digital Converters are not capable of effectively meeting these requirements. A novel phase domain integrator that can meet effectively these requirements and is superior to conventional integrators for a wide range of applications is disclosed.