Abstract: A spectrally shearing optical relay system, said relay system being comprised of two halves disposed symmetrically about an aperture stop S, wherein each half comprises a plurality of rotationally symmetric optical elements forming an objective and a com-pound prism comprised of a plurality of dispersing prisms. The compound prisms are located between the objectives and the aperture stop. An imaging device with such an optical relay system is also proposed.

Abstract: Access permission is enabled. For example, in response to receiving an access request for a target file from a first client, a type of an access permission contained in the request is determined. Then, a first type of access permission is determined that can be assigned to the first client if it is determined that the contained type is in a set of reference types. Further, it may be determined that a second type of access permission applicable to be assigned to the target file. It can then be determined, from the first type and the second type, a target type of an access permission to be assigned to the first client. As a result, the probability of assigned access permissions being interrupted can be reduced, the performance of a client and a server is increased, efficiency is increased, and the user experience is improved.

Abstract: A container system including a storage base that includes a frame and a partition wall dividing the frame into first and second compartments, where each of the first and second compartments includes a cavity formed therein and the partition wall is formed to include a handle, and the handle is configured to removably couple a first and second storage base to form a storage unit.

Abstract: A hyperspectral imaging device (100) is provided comprising an input (102) for receiving a light field from a scene (106), an encoder (108), at least one dispersive element (110, 112), at least one array detector (114, 110) and a processor (118). The encoder (108) is arranged to receive at least a portion of the light field from the input (102) and transform it to provide a first and second encoded light (120, 122) field having different spatial patterns. At least one dispersive element (110, 112) is arranged to apply spectral shear to the first and second encoded light fields (120, 122) respectively to provide first and second sheared light fields (124, 126). At least one array detector (114, 116) is arranged to detect the first and second sheared light fields (124, 126). The processor (118) is arranged to process an output from the at least one array detector (114, 116) to determine a datacube (128) corresponding to a hyperspectral image of the scene.

Abstract: A container system including a storage base that includes a frame and a partition wall dividing the frame into first and second compartments, where each of the first and second compartments includes a cavity formed therein and the partition wall is formed to include a handle, and the handle is configured to removeably couple a first and second storage base to form a storage unit.

Abstract: Computer implemented methods (600) based on artificial neural networks for determining the datacube are also disclosed.

Abstract: A spectrally shearing optical relay system, said relay system being comprised of two halves disposed symmetrically about an aperture stop S, wherein each half comprises a plurality of rotationally symmetric optical elements forming an objective and a com-pound prism comprised of a plurality of dispersing prisms. The compound prisms are located between the objectives and the aperture stop. An imaging device with such an optical relay system is also proposed.

Abstract: Embodiments of the present disclosure provide a method for resource recovery, an electronic device, and a program product. The method may include determining a first association relation between a first quantity of a to-be-used resource in a system and time. The method may further include determining a second association relation between a second quantity of the to-be-recovered resource in the system and time on the basis of a plurality of received resource recovery tasks. In addition, the method may include changing the second association relation by adjusting a recovery sequence of the plurality of resource recovery tasks so as to reduce a difference between the first association relation and the second association relation within a predetermined period. Further, the method may include executing the plurality of resource recovery tasks on the basis of the adjusted recovery sequence.

Abstract: Access permission is enabled. For example, in response to receiving an access request for a target file from a first client, a type of an access permission contained in the request is determined. Then, a first type of access permission is determined that can be assigned to the first client if it is determined that the contained type is in a set of reference types. Further, it may be determined that a second type of access permission applicable to be assigned to the target file. It can then be determined, from the first type and the second type, a target type of an access permission to be assigned to the first client. As a result, the probability of assigned access permissions being interrupted can be reduced, the performance of a client and a server is increased, efficiency is increased, and the user experience is improved.

Abstract: A hyperspectral imaging device (100) is provided comprising an input (102) for receiving a light field from a scene (106), an encoder (108), at least one dispersive element (110, 112), at least one array detector (114, 110) and a processor (118). The encoder (108) is arranged to receive at least a portion of the light field from the input (102) and transform it to provide a first and second encoded light (120, 122) field having different spatial patterns. At least one dispersive element (110, 112) is arranged to apply spectral shear to the first and second encoded light fields (120, 122) respectively to provide first and second sheared light fields (124, 126). At least one array detector (114, 116) is arranged to detect the first and second sheared light fields (124, 126). The processor (118) is arranged to process an output from the at least one array detector (114, 116) to determine a datacube (128) corresponding to a hyperspectral image of the scene.

Abstract: A spectrally shearing optical relay system, said relay system being comprised of two halves disposed symmetrically about an aperture stop S, wherein each half comprises a plurality of rotationally symmetric optical elements forming an objective and a com-pound prism comprised of a plurality of dispersing prisms. The compound prisms are located between the objectives and the aperture stop. An imaging device with such an optical relay system is also proposed.

Abstract: A container system including a storage base that includes a frame and a partition wall dividing the frame into first and second compartments, where each of the first and second compartments includes a cavity formed therein and the partition wall is formed to include a handle, and the handle is configured to removeably couple a first and second storage base to form a storage unit.

Abstract: A container system including a storage base that includes a frame and a partition wall dividing the frame into first and second compartments, where each of the first and second compartments includes a cavity formed therein and the partition wall is formed to include a handle, and the handle is configured to removeably couple a first and second storage base to form a storage unit.

Abstract: A container system including a storage base that includes a frame and a partition wall dividing the frame into first and second compartments, where each of the first and second compartments includes a cavity formed therein and the partition wall is formed to include a handle, and the handle is configured to removeably couple a first and second storage base to form a storage unit.

Abstract: Disclosed here is a customizable caddy assembly system including a platform base with top side and a bottom side; and a plurality of detachable wheels adapted to fit into a plurality of slots on the bottom side of the platform base. The top side of the of the platform base is capable of receiving a storage base that includes a frame, a partition dividing the frame into first and second compartments where each of the first and second compartments includes a cavity formed therein with at least an open top and the partition wall includes an upper portion extending above the level of the frame to form a handle.

Abstract: Disclosed here is a customizable caddy assembly system including a platform base with top side and a bottom side; and a plurality of detachable wheels adapted to fit into a plurality of slots on the bottom side of the platform base. The top side of the of the platform base is capable of receiving a storage base that includes a frame, a partition dividing the frame into first and second compartments where each of the first and second compartments includes a cavity formed therein with at least an open top and the partition wall includes an upper portion extending above the level of the frame to form a handle.

Abstract: A method is described that performing an image integral calculation by creating a second vector and creating a third vector. The second vector is created by executing a first instruction that adds alternating elements of a first vector to respective neighboring elements of the first vector and presents resulting summations into said second vector. The first instruction also passes through the respective neighboring elements to said second vector. The third vector is created by executing a second instruction that adds elements of one side of the second vector to an element of another side of the second vector and passes through the another side of the second vector.