Abstract: A method and system for arranging, on a display of a device, graphic elements within a user interface (UI) requiring a touch for selection. Initially, receiving, from sense elements at edges of the display of the device, signals indicative of whether the device is in a right hand or in a left hand of the user when the user is making single handed selections by touch. Then, determining by the signals whether the device is in the right hand or left hand of the user. Next, arranging the graphic elements of the UI, to allow for single handed selections with a greater ease by the user in the right hand or left hand by arranging in the first arrangement, the graphic elements for accessing by fingers of the right hand of the user and in the second arrangement, the graphic elements for accessing by fingers of the left hand.

Abstract: Embodiments of the invention relate to password management of one or more data storage devices. A set of passwords are employed to manage access to the storage devices, with authentication of both passwords enabling access to the subject storage device(s) for read and/or write operation privileges. The first password is known by the user and is used as an initial input string. The second password is not known by the user and is authenticated with the subject storage device(s) through BIOS and without input from the user.

Abstract: Embodiments of the invention relate to password management of one or more data storage devices. A set of passwords are employed to manage access to the storage devices, with authentication of both passwords enabling access to the subject storage device(s) for read and/or write operation privileges. The first password is known by the user and is used as an initial input string. The second password is not known by the user and is authenticated with the subject storage device(s) through BIOS and without input from the user.

Abstract: Various copy-on-write implementations for a computing environment are presented. One copy-on-write implementation includes employing a read mapping table to perform a first virtual block to physical block mapping for use in reading a block of data of a file to be copy-on-written from physical storage for modification; and employing a different, write mapping table to perform a second virtual block to physical block mapping for use in writing a modified block of the file data to physical storage, wherein copy-on-write of the block of data is achieved using a single write operation. In another implementation, a distributed copy-on-write of a file for a client server environment is presented. This distributed copy-on-write includes performing, by a first client, copy-on-write of at least one block of data of the file to be copy-on-written, and performing, by a second client, copy-on-write of at least one other block of data of the file, wherein multiple clients perform the copy-on-write of the file.

Abstract: Various copy-on-write implementations for a computing environment are presented. One copy-on-write implementation includes employing a read mapping table to perform a first virtual block to physical block mapping for use in reading a block of data of a file to be copy-on-written from physical storage for modification; and employing a different, write mapping table to perform a second virtual block to physical block mapping for use in writing a modified block of the file data to physical storage, wherein copy-on-write of the block of data is achieved using a single write operation. In another implementation, a distributed copy-on-write of a file for a client server environment is presented. This distributed copy-on-write includes performing, by a first client, copy-on-write of at least one block of data of the file to be copy-on-written, and performing, by a second client, copy-on-write of at least one other block of data of the file, wherein multiple clients perform the copy-on-write of the file.

Abstract: Access to objects of a computing environment is managed. Access to an object of the computing environment is prohibited via one cached entity corresponding to the object, while access to the object is allowed via another cached entity. The cached entities are concurrently maintained for a period of time, but the one cached entity is in a shadow state. In one example, the cached entities are session locks and the object is a file system object.