Abstract: An apparatus, method and storage medium for controlling a pathologic microscope are provided. The method includes obtaining a pathological digital image from an incident optical path of the pathologic microscope; performing artificial intelligence (AI) analysis on the pathological digital image to generate AI analysis information; and controlling an augmented reality (AR) projection component to project the AI analysis information on a microscopic field of the pathologic microscope on an outgoing optical path.

Abstract: A pet water fountain is disclosed, comprising a basin configured to hold water, a pump detachably mounted at the bottom of the basin, a filter and a cover. The filter has a filter inlet and a filter outlet, the filter inlet being provided at the bottom of the filter and being detachably connected to a pump outlet of the pump, the filter outlet being provided at the top of the filter. The cover is placed in the basin and covering the pump and the filter, wherein a cover outlet is formed at the top of the cover, being connected to the filter outlet, and at least one circulating opening is configured at the bottom of the cover to connect inside and outside of the cover.

Abstract: A pet water fountain comprises a bucket, a pump, a cover body, a filter, a water platform and a flower nozzle, wherein the cover body is covered on the bucket, the filter is contained in a first recess formed in the center of the cover body, and a first hollow pipe extends from the bottom of the first recess into the bucket; the water platform has a second hollow pipe extending downwards to go through the first hollow pipe to connect a pump outlet of the pump, and has an inner flange higher than an outer flange, and further has an outer sidewall extending downwards to being supported on a first step surrounding the top of the first recess; the flower nozzle has a plurality of spouts and a third hollow pipe extends downwards from the center of the flower nozzle to be inserted into the second hollow pipe.

Abstract: A pet water fountain comprises a bucket, a pump, a cover body, a filter, a water platform and a flower nozzle, wherein the cover body is covered on the bucket, the filter is contained in a first recess formed in the center of the cover body, and a first hollow pipe extends from the bottom of the first recess into the bucket; the water platform has a second hollow pipe extending downwards to go through the first hollow pipe to connect a pump outlet of the pump, and has an inner flange higher than an outer flange, and further has an outer sidewall extending downwards to being supported on a first step surrounding the top of the first recess; the flower nozzle has a plurality of spouts and a third hollow pipe extends downwards from the center of the flower nozzle to be inserted into the second hollow pipe.

Abstract: A method, apparatus and computer program product are provided for image registration in the gradient domain. A method is provided including receiving a first image and second image; and registering the first and second images in a gradient domain. The registration of the first and second images in the gradient domain includes applying an energy minimization function based on total variation.

Abstract: A method, apparatus, and computer program product are provided for providing personalized depth of field perception for omnidirectional video. A method is provided that includes generating, by a processor, a three-dimensional reconstruction of content from an omnidirectional capture device; determining a camera pose of an end user device in relation to the omnidirectional capture device content; identifying an object of interest in the content based in part on the camera pose of the end user device; generating an artificial depth of field for the content wherein the object of interest is in focus; and causing a personalized content view to be provided based on the object of interest and the artificial depth of field. A corresponding apparatus and a computer program product are also provided.

Abstract: A method, apparatus and computer program product are provided for image registration in the gradient domain. A method is provided including receiving three or more input images and registering, simultaneously, the three or more input images in the gradient domain based on applying an energy minimization function.

Abstract: A method, apparatus and computer program product are provided for image registration in the gradient domain. A method is provided including receiving three or more input images and registering, simultaneously, the three or more input images in the gradient domain based on applying an energy minimization function.

Abstract: A method, apparatus and computer program product are provided for image registration in the gradient domain. A method is provided including receiving a first image and second image; and registering the first and second images in a gradient domain. The registration of the first and second images in the gradient domain includes applying an energy minimization function based on total variation.

Abstract: An animal watering fountain is provided. The fountain includes a bowl for holding an aqueous drinking fluid such as water. The fountain also includes a housing residing within the bowl, with the housing having an inlet port and an outlet port. The fountain also has a reservoir over the bowl, with the reservoir being configured to hold water. The fountain also has a pump configured to receive water from the bowl through the inlet port, and then deliver the water under pressure to both a first outlet and to a second outlet. The first outlet delivers water to the reservoir, and the second outlet delivers water through the outlet port such that water circulates around the housing and back to the inlet port. At the same time, a lip delivers water from the reservoir and back into the bowl. A method for watering an animal is also provided herein.

Abstract: A system and method of reconstructing an image through solution of a data fitting problem, wherein the data fitting problem is not susceptible to efficient solution as a whole, is disclosed, which may comprise gathering, via a computing device, k-space image data, selecting a data fitting problem solution algorithm for the k-space data, decomposing the data fitting problem solution into a plurality of sub-problem solutions each susceptible to efficient solution separately for the k-space data, obtaining, via the computing device, the plurality of sub-problem solutions for the k-space data, and reconstructing, via the computing device, the image based upon a weighted average of the plurality of sub-problem solutions for the k-space data. The image may be a magnetic resonance image. The data fitting problem may comprise a minimization of a plurality of linear terms of a least square data fitting solution. The image may comprise under-sampled k-space image data.

Abstract: A system and method of reconstructing an image through solution of a data fitting problem, wherein the data fitting problem is not susceptible to efficient solution as a whole, is disclosed, which may comprise gathering, via a computing device, k-space image data, selecting a data fitting problem solution algorithm for the k-space data, decomposing the data fitting problem solution into a plurality of sub-problem solutions each susceptible to efficient solution separately for the k-space data, obtaining, via the computing device, the plurality of sub-problem solutions for the k-space data, and reconstructing, via the computing device, the image based upon a weighted average of the plurality of sub-problem solutions for the k-space data. The image may be a magnetic resonance image. The data fitting problem may comprise a minimization of a plurality of linear terms of a least square data fitting solution. The image may comprise under-sampled k-space image data.