Abstract: A standardized artificial intelligence automatic radiotherapy planning method includes acquiring a medical image; automatically delineating an ROI area of the medical image to acquire a geometric anatomical structure; determining a prescription according to disease type information corresponding to the medical image, the geometric anatomical structure, and a preset disease-prescription template library, and determining a radiation angle of radiation therapy; obtaining a radiation therapy dose distribution result using a dose prediction model; performing optimization processing using a reverse optimization algorithm based on dose distribution or DVH guidance, with reference to the radiation dose distribution result, to generate executable radiation therapy plans.

Abstract: The various embodiments described herein include methods, devices, and systems for generating object meshes. In some embodiments, a method includes obtaining a trained classifier, and an input observation of a 3D object. The method further includes generating a three-pole signed distance field from the input observation using the trained classifier. The method also includes generating an output mesh of the 3D object from the three-pole signed distance field; and generating a display of the 3D object from the output mesh.

Abstract: The various embodiments described herein include methods, devices, and systems for generating object meshes. In some embodiments, a method includes obtaining a trained classifier, and an input observation of a 3D object. The method further includes generating a three-pole signed distance field from the input observation using the trained classifier. The method also includes generating an output mesh of the 3D object from the three-pole signed distance field; and generating a display of the 3D object from the output mesh.

Abstract: In an embodiment, the present disclosure pertains to an electrolyte composition including a plurality of ether-based solvents and at least one sodium-based salt. The plurality of ether-based solvents include at least one acyclic ether and at least one cyclic ether. In a further embodiment, the present disclosure pertains to an energy storage device that includes an electrolyte composition of the present disclosure. In another embodiment, the present disclosure pertains to a method of making the electrolyte compositions of the present disclosure. Such methods generally include one or more of the following steps of mixing a plurality of ether-based solvents and at least one sodium-based salt, and forming the electrolyte composition.

Abstract: A navigation method, device, and system are provided in this application. The method includes: obtaining a first target location and a second target location (101), where the first target location is a location closest to a start location on K road segments, the second target location is a location closest to an end location on the K road segments, and K is a positive integer; obtaining a first path from the first target location to the second target location based on a vector pathfinding algorithm and the K road segments (102); obtaining a second path from the start location to the first target location and a third path from the second target location to the end location (103); and determining a fourth path from the start location to the end location (104).

Abstract: This application relates to methods and apparatuses for presenting object annotation information. An example method includes: obtaining a target object in a specified scene, where the specified scene is a scene presented at a target location; and presenting annotation information of the target object on an annotation facade that is of the target object and that is presented on a display interface, where the annotation facade is determined from at least two visible facades of the target object based on projection regions that are for the at least two visible facades and that are presented on the display interface, and the visible facade is a facade visible to the target location in exterior facades of the target object.

Abstract: The disclosure relates to metal phosphorothioates, batteries comprising metal phosphorothioate, cells comprising metal phosphorothioate, and methods of making thereof.

Abstract: In an embodiment, the present disclosure pertains to a non-aqueous electrolyte. In some embodiments, the non-aqueous electrolyte includes a polymeric component and a ceramic component. The polymeric component includes a polyester-based polymer and a polyether-based polymer. The ceramic component includes inorganic materials. In an additional embodiment, the present disclosure pertains to an energy storage device including an anode, a cathode, and a non-aqueous electrolyte of the present disclosure. In a further embodiment, the present disclosure pertains to a method of making a non-aqueous electrolyte by mixing a polymeric component and a ceramic component of the present disclosure.

Abstract: A method of forming a sulfur-based cathode material includes: 1) providing a sulfur-based nanostructure; 2) coating the nanostructure with an encapsulating material to form a shell surrounding the nanostructure; and 3) removing a portion of the nanostructure through the shell to form a void within the shell, with a remaining portion of the nanostructure disposed within the shell.

Abstract: A method of forming a sulfur-based cathode material includes: 1) providing a sulfur-based nanostructure; 2) coating the nanostructure with an encapsulating material to form a shell surrounding the nanostructure; and 3) removing a portion of the nanostructure through the shell to form a void within the shell, with a remaining portion of the nanostructure disposed within the shell.

Abstract: A method of forming a sulfur-based cathode material includes: 1) providing a sulfur-based nanostructure; 2) coating the nanostructure with an encapsulating material to form a shell surrounding the nanostructure; and 3) removing a portion of the nanostructure through the shell to form a void within the shell, with a remaining portion of the nanostructure disposed within the shell.

Abstract: A method of forming a sulfur-based cathode material includes: 1) providing a sulfur-based nanostructure; 2) coating the nanostructure with an encapsulating material to form a shell surrounding the nanostructure; and 3) removing a portion of the nanostructure through the shell to form a void within the shell, with a remaining portion of the nanostructure disposed within the shell.

Abstract: A method of forming a sulfur-based cathode material includes: 1) providing a sulfur-based nanostructure; 2) coating the nanostructure with an encapsulating material to form a shell surrounding the nanostructure; and 3) removing a portion of the nanostructure through the shell to form a void within the shell, with a remaining portion of the nanostructure disposed within the shell.

Abstract: A method of forming a sulfur-based cathode material includes: 1) providing a sulfur-based nanostructure; 2) coating the nanostructure with an encapsulating material to form a shell surrounding the nanostructure; and 3) removing a portion of the nanostructure through the shell to form a void within the shell, with a remaining portion of the nanostructure disposed within the shell.

Abstract: A method of forming a sulfur-based cathode material includes: 1) providing a sulfur-based nanostructure; 2) coating the nanostructure with an encapsulating material to form a shell surrounding the nanostructure; and 3) removing a portion of the nanostructure through the shell to form a void within the shell, with a remaining portion of the nanostructure disposed within the shell.

Abstract: A battery includes an anode, a cathode, and an electrolyte disposed between the anode and the cathode. The cathode includes a hollow structure defining an internal volume and a sulfur-based material disposed within the internal volume. A characteristic dimension of the internal volume is at least 20 nm, and the sulfur-based material occupies less than 100% of the internal volume to define a void.