Abstract: A die includes an upper body member and an adjustment system. The upper body member has a upper surface, a gap surface, a gap edge positioned between the upper surface and the gap surface, and a gap flange. The adjustment system includes an adjustment body that defines a plurality of channels, and a plurality of adjusters. Each of the plurality of adjusters is slideably positioned within a respective one of the plurality of channels. Each of the plurality of adjusters is configured to couple to the gap flange of the upper body member. When the plurality of adjusters are coupled to the gap flange movement of the plurality of adjusters causes a change in a position of the gap edge.

Abstract: A die includes an upper body member and an adjustment system. The upper body member has a upper surface, a gap surface, a gap edge positioned between the upper surface and the gap surface, and a gap flange. The adjustment system includes an adjustment body that defines a plurality of channels, and a plurality of adjusters. Each of the plurality of adjusters is slideably positioned within a respective one of the plurality of channels. Each of the plurality of adjusters is configured to couple to the gap flange of the upper body member. When the plurality of adjusters are coupled to the gap flange movement of the plurality of adjusters causes a change in a position of the gap edge.

Abstract: A system and method for representing object animation, such as the movement of mouse pointers, within presentations based on software application programs or other information displayed by a computer system is disclosed herein. In one aspect the method is directed to representing animation of a mouse pointer object during creation of a presentation based on such displayed information. The method includes storing a first mouse pointer position relative to a first screen shot derived from the displayed information. In addition, a second mouse pointer position is also stored relative to a second screen shot derived from the displayed information. The method farther includes displaying, with respect to the first screen shot, a previous path portion to a displayed mouse pointer position and a next path portion from the displayed mouse pointer position. The previous path portion and the next path portion are representative of a mouse pointer path traversed during playback of the presentation.

Abstract: A system and method for representing object animation, such as the movement of mouse pointers, within presentations based on software application programs or other information displayed by a computer system is disclosed herein. In one aspect the method is directed to representing animation of a mouse pointer object during creation of a presentation based on such displayed information. The method includes storing a first mouse pointer position relative to a first screen shot derived from the displayed information. In addition, a second mouse pointer position is also stored relative to a second screen shot derived from the displayed information. The method farther includes displaying, with respect to the first screen shot, a previous path portion to a displayed mouse pointer position and a next path portion from the displayed mouse pointer position. The previous path portion and the next path portion are representative of a mouse pointer path traversed during playback of the presentation.

Abstract: A system and method for representing object animation, such as the movement of mouse pointers, within presentations based on software application programs or other information displayed by a computer system is disclosed herein. In one aspect the method is directed to representing animation of a mouse pointer object during creation of a presentation based on such displayed information. The method includes storing a first mouse pointer position relative to a first screen shot derived from the displayed information. In addition, a second mouse pointer position is also stored relative to a second screen shot derived from the displayed information. The method further includes displaying, with respect to the first screen shot, a previous path portion to a displayed mouse pointer position and a next path portion from the displayed mouse pointer position. The previous path portion and the next path portion are representative of a mouse pointer path traversed during playback of the presentation.

Abstract: A system and method for representing object animation, such as the movement of mouse pointers, within presentations based on software application programs or other information displayed by a computer system is disclosed herein. In one aspect the method is directed to representing animation of a mouse pointer object during creation of a presentation based on such displayed information. The method includes storing a first mouse pointer position relative to a first screen shot derived from the displayed information. In addition, a second mouse pointer position is also stored relative to a second screen shot derived from the displayed information. The method further includes displaying, with respect to the first screen shot, a previous path portion to a displayed mouse pointer position and a next path portion from the displayed mouse pointer position. The previous path portion and the next path portion are representative of a mouse pointer path traversed during playback of the presentation.

Abstract: A system for measuring magnetic fields outside a ferromagnetic container from inside the same container is described. The invention uses magneti circuits to direct the flow of magnetic flux to a magnetic field detector. By using magnetic fields for detection, this invention is able to measure the properties of magnetic materials outside the ferromagnetic container, such as a geologic formation, electric or magnetic parameters, or log well and drill holes that have been cased.

Abstract: A magnetic method is disclosed that can be used to map, track and monitor the progress of secondary oil recovery during water or steam floods. An electric current is injected directly into the water hydrocarbon system to be monitored. The electricity that flows in the water creates a magnetic field, which can be monitored. Monitoring the changes in the magnetic field monitors the changes in the water flooding the subsurface hydrocarbon zone. The resulting surface magnetic field is measured at various time intervals. Variation in magnetic field is used to interpret and determine the status of the hydrocarbon recovery zone.