Abstract: An I/O device is configured to couple a plurality of process control field devices to a process controller controlling a process in an industrial process plant. The I/O device includes a backplane and a plurality of electronic marshalling component (EMC) slots. The EMC slots are each configured to receive a respective EMC and to receive either of (i) a first-type EMC associated with a first communication protocol or (ii) second-type EMC associated with a second communication protocol. The I/O device also includes I/O processor module slots, each communicatively coupled, via the backplane, to each of the EMC slots and to each of a first one or more connectors and a second one or more connectors in each of the EMC slots. The I/O device further includes communication ports, each communicatively coupled to the I/O processor module slots via the backplane.

Abstract: An I/O device is configured to couple a plurality of process control field devices to a process controller controlling a process in an industrial process plant. The I/O device includes a backplane and a plurality of electronic marshalling component (EMC) slots. The EMC slots are each configured to receive a respective EMC and to receive either of (i) a first-type EMC associated with a first communication protocol or (ii) second-type EMC associated with a second communication protocol. The I/O device also includes I/O processor module slots, each communicatively coupled, via the backplane, to each of the EMC slots and to each of a first one or more connectors and a second one or more connectors in each of the EMC slots. The I/O device further includes communication ports, each communicatively coupled to the I/O processor module slots via the backplane.

Abstract: In some embodiments, an imaging system is provided. The imaging system comprises an image sensor, a light source, control circuitry, and function logic. The image sensor comprises a pixel array that includes a plurality of polarization pixel cells and a plurality of time-of-flight pixel cells. The light source is configured to emit light pulses to an object. The control circuitry is coupled to the light source and the pixel array, and is configured to synchronize a timing of the emission of the light pulses with sensing of photons reflected from the object by the plurality of time-of-flight pixel cells to generate depth information. The function logic is configured to determine a set of ambiguous surface normals using signals generated by the plurality of polarization pixel cells, and to disambiguate the set of ambiguous surface normals using the depth information to generate a three-dimensional shape image.

Abstract: In some embodiments, an image sensor is provided. The image sensor comprises a plurality of photodiodes arranged as a photodiode array. The photodiodes of the photodiode array are arranged into a first quadrant, a second quadrant, a third quadrant, and a fourth quadrant. A first polarization filter and a first telecentric lens are aligned with the first quadrant. A second polarization filter and a second telecentric lens are aligned with the second quadrant. A third polarization filter and a third telecentric lens are aligned with the third quadrant. A fourth telecentric lens is aligned with the fourth quadrant.

Abstract: An optical system comprises an imaging lens for imaging an object to an image and a sensing pixel array for detecting lights from the object toward the image. The sensing pixel array comprises a first sensing pixel and a second sensing pixel, each sensing pixel comprising a microlens covering a one-dimensional series of photodiodes having n photodiodes. A photodiode at an end of the one-dimensional series of photodiodes of the first sensing pixel detects a first light from the object toward the image, and a photodiode at an opposite end of the one-dimensional series of photodiodes of the second sensing pixel detects a second light from the object toward the image, where the first light and the second light pass opposite parts of the imaging lens.

Abstract: In some embodiments, an image sensor is provided. The image sensor comprises a plurality of photodiodes arranged as a photodiode array. The photodiodes of the photodiode array are arranged into a first quadrant, a second quadrant, a third quadrant, and a fourth quadrant. A first polarization filter and a first telecentric lens are aligned with the first quadrant. A second polarization filter and a second telecentric lens are aligned with the second quadrant. A third polarization filter and a third telecentric lens are aligned with the third quadrant. A fourth telecentric lens is aligned with the fourth quadrant.

Abstract: A system comprising a polarization CMOS image sensor, at least one processor and a non-transitory computer-readable medium having computer-executable instructions stored thereon that, in response to execution by the at least one processor, cause the system to perform actions including receiving, from the polarization CMOS image sensor, polarization information and two-dimensional image information. The polarization information is processed using a machine learning model to generate an output that indicates whether the polarization information represents a valid biometric measurement of a physical feature of a subject.

Abstract: In some embodiments, an imaging system is provided. The imaging system comprises an image sensor, a light source, control circuitry, and function logic. The image sensor comprises a pixel array that includes a plurality of polarization pixel cells and a plurality of time-of-flight pixel cells. The light source is configured to emit light pulses to an object. The control circuitry is coupled to the light source and the pixel array, and is configured to synchronize a timing of the emission of the light pulses with sensing of photons reflected from the object by the plurality of time-of-flight pixel cells to generate depth information. The function logic is configured to determine a set of ambiguous surface normals using signals generated by the plurality of polarization pixel cells, and to disambiguate the set of ambiguous surface normals using the depth information to generate a three-dimensional shape image.

Abstract: A method for capturing a high-dynamic-range image includes: (i) storing a plurality of pixel values representing a first image captured by an image sensor that includes a pixel array, each pixel value having been generated by a respective pixel of a pixel subarray of the pixel array, each pixel being set to one of N1 first exposure values, N1?1; (ii) determining an exposure-count N2 based on the plurality of pixel values; (iii) setting each pixel to one of a second plurality of exposure values, N2 in number, such that, for each of the second plurality of exposure values, at least one pixel is set to that exposure value, one of the second plurality of exposure values differing from each of the N1 first exposure values by more than a threshold value; and after setting (iv), capturing a second image with the image sensor.

Abstract: An image sensor includes a pixel array, and a first, second, and an intermediate memory-element. The memory-elements store, respectively, a first, second, and an intermediate exposure value. The pixel array includes pixel-subarrays each including a rescue pixel and a first, second, and third plurality of contiguous pixels. Each of the first plurality of pixels is connected to the first memory-element and spans diagonally-opposite corners of the pixel-subarray. Each of the second plurality of pixels is connected to the second memory-element and located on a first side of the first plurality of pixels. Each of the third plurality of pixels is connected to the second memory-element and located on a second side of the first plurality of pixels. The rescue-pixel is connected to the intermediate memory-element and is (i) located on one of the first side and the second side and/or (ii) adjacent to one of the first plurality of pixels.

Abstract: A system comprising a polarization CMOS image sensor, at least one processor and a non-transitory computer-readable medium having computer-executable instructions stored thereon that, in response to execution by the at least one processor, cause the system to perform actions including receiving, from the polarization CMOS image sensor, polarization information and two-dimensional image information. The polarization information is processed using a machine learning model to generate an output that indicates whether the polarization information represents a valid biometric measurement of a physical feature of a subject.

Abstract: An optical system comprises an imaging lens for imaging an object to an image and a sensing pixel array for detecting lights from the object toward the image. The sensing pixel array comprises a first sensing pixel and a second sensing pixel, each sensing pixel comprising a microlens covering a one-dimensional series of photodiodes having n photodiodes. A photodiode at an end of the one-dimensional series of photodiodes of the first sensing pixel detects a first light from the object toward the image, and a photodiode at an opposite end of the one-dimensional series of photodiodes of the second sensing pixel detects a second light from the object toward the image, where the first light and the second light pass opposite parts of the imaging lens.

Abstract: A connection apparatus for a medical device includes a first connection member having a first end and a second end with the first connection member defining at least one channel adjacent the first end. The at least one channel having a first portion extending in an axial direction and a shoulder adjacent to the first end of the first connection member that defines a channel entry. The at least one channel having a second portion extending in a transverse direction relative to the axial direction. The connection apparatus further including a second connection member having a first end and a second end and at least one protrusion adjacent the first end. The shoulder is configured to guide the at least one protrusion of the second connection member into the channel entry regardless of the orientation of the at least one protrusion relative to the channel entry.

Abstract: An image sensor includes a pixel array, and a first, second, and an intermediate memory-element. The memory-elements store, respectively, a first, second, and an intermediate exposure value. The pixel array includes pixel-subarrays each including a rescue pixel and a first, second, and third plurality of contiguous pixels. Each of the first plurality of pixels is connected to the first memory-element and spans diagonally-opposite corners of the pixel-subarray. Each of the second plurality of pixels is connected to the second memory-element and located on a first side of the first plurality of pixels. Each of the third plurality of pixels is connected to the second memory-element and located on a second side of the first plurality of pixels. The rescue-pixel is connected to the intermediate memory-element and is (i) located on one of the first side and the second side and/or (ii) adjacent to one of the first plurality of pixels.

Abstract: A method for capturing a high-dynamic-range image includes: (i) storing a plurality of pixel values representing a first image captured by an image sensor that includes a pixel array, each pixel value having been generated by a respective pixel of a pixel subarray of the pixel array, each pixel being set to one of N1 first exposure values, N1?1; (ii) determining an exposure-count N2 based on the plurality of pixel values; (iii) setting each pixel to one of a second plurality of exposure values, N2 in number, such that, for each of the second plurality of exposure values, at least one pixel is set to that exposure value, one of the second plurality of exposure values differing from each of the N1 first exposure values by more than a threshold value; and after setting (iv), capturing a second image with the image sensor.

Abstract: A connection apparatus for a medical device includes a first connection member having a first end and a second end with the first connection member defining at least one channel adjacent the first end. The at least one channel having a first portion extending in an axial direction and a shoulder adjacent to the first end of the first connection member that defines a channel entry. The at least one channel having a second portion extending in a transverse direction relative to the axial direction. The connection apparatus further including a second connection member having a first end and a second end and at least one protrusion adjacent the first end. The shoulder is configured to guide the at least one protrusion of the second connection member into the channel entry regardless of the orientation of the at least one protrusion relative to the channel entry.

Abstract: A connection apparatus for a medical device includes a first connection member having a first end and a second end with the first connection member defining at least one channel adjacent the first end. The at least one channel having a first portion extending in an axial direction and a shoulder adjacent to the first end of the first connection member that defines a channel entry. The at least one channel having a second portion extending in a transverse direction relative to the axial direction. The connection apparatus further including a second connection member having a first end and a second end and at least one protrusion adjacent the first end. The shoulder is configured to guide the at least one protrusion of the second connection member into the channel entry regardless of the orientation of the at least one protrusion relative to the channel entry.

Abstract: A carrying case (500) and handle (504) for accommodating a portable topical negative pressure therapy apparatus (200) comprising a device (202) and a waste canister (204) separable therefrom, the waste canister having an aspiration conduit (274) emerging therefrom is described, the carrying bag comprising an apparatus receiving pouch (502), said pouch having opening and closing means (522, 524) at a lower portion thereof and said handle (504) being directly attached to said apparatus.