Abstract: Systems and methods for expediting medical image retrieval based on examination priority are provided. A method includes receiving medical images and parsing the contents to determine medical image information. The method includes applying priority rules based on the medical image information. The priority rules specify an image storage location for storing the medical images. The image storage locations include workstation cache memory and drives of a local storage system having different image access speeds that are slower than an access speed of the workstation cache memory. The method includes storing the medical images at the specified image storage location as defined by the priority rules and retrieving the medical images from the specified image storage location in response to a request to view the medical images at a workstation. The method includes presenting the medical images retrieved from the specified image storage location at a display device of the workstation.

Abstract: Systems and methods for expediting medical image retrieval based on examination priority are provided. A method includes receiving medical images and parsing the contents to determine medical image information. The method includes applying priority rules based on the medical image information. The priority rules specify an image storage location for storing the medical images. The image storage locations include workstation cache memory and drives of a local storage system having different image access speeds that are slower than an access speed of the workstation cache memory. The method includes storing the medical images at the specified image storage location as defined by the priority rules and retrieving the medical images from the specified image storage location in response to a request to view the medical images at a workstation. The method includes presenting the medical images retrieved from the specified image storage location at a display device of the workstation.

Abstract: A magnetic recording disk is constructed wherein a disk substrate is overlayed with at least one non-recording layer. A recording layer is then overlayed on the non-recording layer with the thickness of the recording layer at those areas corresponding to the inner track zone located toward the central hub area of the disk being thinner than the intermediate track zone radially displaced outwardly from the inner track zone toward the periphery of the recording disk.

Abstract: A new and improved magnetic recording disk can be prepared by interposing between an aluminum substrate disk and a recording alloy layer a support layer located on the substrate disk and a shield layer located between the support layer and the recording layer. The support layer is a hard, semi-crystalline nickel alloy layer having magnetic properties which is of such a character that if it is contacted by a recording head during the use of the disk it will tend to form a powder which will not interfere with subsequent use of the disk or recording head. The shield layer is of a nonmagnetic metal and serves to reflect signals from the recording head so that they do not reach the support layer.

Abstract: It is known to manufacture a recording member having a substrate supporting a magnetic recording alloy on a surface and to locate a protective covering on the surface of the alloy remote from the substrate. An improved protective covering for use in this combination comprises a barrier layer located on the surface of the recording alloy and an oxide layer located on the surface of the barrier layer remote from the recording alloy. The barrier layer preferably consists of a nonmagnetic material. The oxide layer is also nonmagnetic and is sufficiently thick to protect the magnetic alloy layer against surface abrasion. The barrier layer isolates the oxide layer from the magnetic recording layer so as to preserve the character and uniformity of the magnetic recording layer as the oxide layer is created.