Abstract: Detail-in-context techniques are described. In an implementation, an original image is distorted to produce a distorted region for a selected object at a first position in an original image displayed on a display screen. The distorted region magnifies at least a portion of the object. A signal is received to drag the object and the distorted region from the first position to a second position. A signal is received to drop the object at the second position. The distorted region is removed from the original image after the object is dropped at the second position.

Abstract: Detail-in-context techniques are described. In an implementation, an original image is distorted to produce a distorted region for a selected object at a first position in an original image displayed on a display screen. The distorted region magnifies at least a portion of the object. A signal is received to drag the object and the distorted region from the first position to a second position. A signal is received to drop the object at the second position. The distorted region is removed from the original image after the object is dropped at the second position.

Abstract: A method for generating a stereoscopic presentation of a region-of-interest in a monoscopic information representation. The method includes the steps of: (a) selecting first and second viewpoints for the region-of-interest; (b) creating a lens surface having a predetermined lens surface shape for the region-of-interest, the lens surface having a plurality of polygonal surfaces constructed from a plurality of points sampled from the lens surface shape; (c) creating first and second transformed presentations by overlaying the representation on the lens surface and perspectively projecting the lens surface with the overlaid representation onto a plane spaced from the first and second viewpoints, respectively; and, (d) displaying the first and second transformed presentations on a display screen to generate the stereoscopic presentation.

Abstract: A method for generating a stereoscopic presentation of a region-of-interest in a monoscopic information representation. The method includes the steps of: (a) selecting first and second viewpoints for the region-of-interest; (b) creating a lens surface having a predetermined lens surface shape for the region-of-interest, the lens surface having a plurality of polygonal surfaces constructed from a plurality of points sampled from the lens surface shape; (c) creating first and second transformed presentations by overlaying the representation on the lens surface and perspectively projecting the lens surface with the overlaid representation onto a plane spaced from the first and second viewpoints, respectively; and, (d) displaying the first and second transformed presentations on a display screen to generate the stereoscopic presentation.

Abstract: Detail-in-context techniques are described. In an implementation, an original image is distorted to produce a distorted region for a selected object at a first position in an original image displayed on a display screen. The distorted region magnifies at least a portion of the object. A signal is received to drag the object and the distorted region from the first position to a second position. A signal is received to drop the object at the second position. The distorted region is removed from the original image after the object is dropped at the second position.

Abstract: Detail-in-context techniques are described. In an implementation, an original image is distorted to produce a distorted region for a selected object at a first position in an original image displayed on a display screen. The distorted region magnifies at least a portion of the object. A signal is received to drag the object and the distorted region from the first position to a second position. A signal is received to drop the object at the second position. The distorted region is removed from the original image after the object is dropped at the second position.

Abstract: A method for generating a stereoscopic presentation of a region-of-interest in a monoscopic information representation. The method includes the steps of: (a) selecting first and second viewpoints for the region-of-interest; (b) creating a lens surface having a predetermined lens surface shape for the region-of-interest, the lens surface having a plurality of polygonal surfaces constructed from a plurality of points sampled from the lens surface shape; (c) creating first and second transformed presentations by overlaying the representation on the lens surface and perspectively projecting the lens surface with the overlaid representation onto a plane spaced from the first and second viewpoints, respectively; and, (d) displaying the first and second transformed presentations on a display screen to generate the stereoscopic presentation.

Abstract: A method for generating a stereoscopic presentation of a region-of-interest in a monoscopic information representation. The method includes the steps of: (a) selecting first and second viewpoints for the region-of-interest; (b) creating a lens surface having a predetermined lens surface shape for the region-of-interest, the lens surface having a plurality of polygonal surfaces constructed from a plurality of points sampled from the lens surface shape; (c) creating first and second transformed presentations by overlaying the representation on the lens surface and perspectively projecting the lens surface with the overlaid representation onto a plane spaced from the first and second viewpoints, respectively; and, (d) displaying the first and second transformed presentations on a display screen to generate the stereoscopic presentation.

Abstract: Detail-in-context techniques are described. In an implementation, an original image is distorted to produce a distorted region for a selected object at a first position in an original image displayed on a display screen. The distorted region magnifies at least a portion of the object. A signal is received to drag the object and the distorted region from the first position to a second position. A signal is received to drop the object at the second position. The distorted region is removed from the original image after the object is dropped at the second position.

Abstract: A method for positioning a selected object in a computer generated original image on a display, comprising the steps of: distorting the original image to produce a distorted region for the object; dragging the object and the distorted region to a desired position; and, dropping the object at the desired position, whereby the object is accurately positioned. The steps of dragging and dropping are preferably performed by moving a cursor on the display with a pointing device such as a mouse.

Abstract: A method for generating a stereoscopic presentation of a region-of-interest in a monoscopic information representation. The method includes the steps of: (a) selecting first and second viewpoints for the region-of-interest; (b) creating a lens surface having a predetermined lens surface shape for the region-of-interest, the lens surface having a plurality of polygonal surfaces constructed from a plurality of points sampled from the lens surface shape; (c) creating first and second transformed presentations by overlaying the representation on the lens surface and perspectively projecting the lens surface with the overlaid representation onto a plane spaced from the first and second viewpoints, respectively; and, (d) displaying the first and second transformed presentations on a display screen to generate the stereoscopic presentation.

Abstract: A method for generating a stereoscopic presentation of a region-of-interest in a monoscopic information representation. The method includes the steps of: (a) selecting first and second viewpoints for the region-of-interest; (b) creating a lens surface having a predetermined lens surface shape for the region-of-interest, the lens surface having a plurality of polygonal surfaces constructed from a plurality of points sampled from the lens surface shape; (c) creating first and second transformed presentations by overlaying the representation on the lens surface and perspectively projecting the lens surface with the overlaid representation onto a plane spaced from the first and second viewpoints, respectively; and, (d) displaying the first and second transformed presentations on a display screen to generate the stereoscopic presentation.

Abstract: A method for positioning a selected object in a computer generated original image on a display, comprising the steps of: distorting the original image to produce a distorted region for the object; dragging the object and the distorted region to a desired position; and, dropping the object at the desired position, whereby the object is accurately positioned. The steps of dragging and dropping are preferably performed by moving a cursor on the display with a pointing device such as a mouse.

Abstract: A method for generating a stereoscopic presentation of a region-of-interest in a monoscopic information representation. The method includes the steps of: (a) selecting first and second viewpoints for the region-of-interest; (b) creating a lens surface having a predetermined lens surface shape for the region-of-interest, the lens surface having a plurality of polygonal surfaces constructed from a plurality of points sampled from the lens surface shape; (c) creating first and second transformed presentations by overlaying the representation on the lens surface and perspectively projecting the lens surface with the overlaid representation onto a plane spaced from the first and second viewpoints, respectively; and, (d) displaying the first and second transformed presentations on a display screen to generate the stereoscopic presentation.