Abstract: A method, computer program product, and computing system for receiving, at a storage system, a command from a host. A command type of the command may be determined. It may be determined if a threshold associated with the command type has been met. In response to determining that the threshold associated with the command type has been met, a command queue full response may be sent, from the storage system, to the host.

Abstract: A method, computer program product, and computing system for receiving, at a storage system, a command from a host. A command type of the command may be determined. It may be determined if a threshold associated with the command type has been met. In response to determining that the threshold associated with the command type has been met, a command queue full response may be sent, from the storage system, to the host.

Abstract: An entire volume is scanned. A sub-volume is separately scanned with different settings for beamforming parameters, allowing greater image quality for the sub-volume while providing context from the volume. The anatomy of interest is periodically detected, and the sub-volume shifted in position to cover the anatomy of interest, allowing for relatively continuous volume imaging with enhanced quality imaging of the sub-volume. Interleaving by volume and sub-volume slices may allow for optimization of relative frame rate and image quality. Different combinations between volume and sub-volume data for anatomy detection and display may provide for desired imaging while allowing the regular detection of the anatomy.

Abstract: An entire volume is scanned. A sub-volume is separately scanned with different settings for beamforming parameters, allowing greater image quality for the sub-volume while providing context from the volume. The anatomy of interest is periodically detected, and the sub-volume shifted in position to cover the anatomy of interest, allowing for relatively continuous volume imaging with enhanced quality imaging of the sub-volume. Interleaving by volume and sub-volume slices may allow for optimization of relative frame rate and image quality. Different combinations between volume and sub-volume data for anatomy detection and display may provide for desired imaging while allowing the regular detection of the anatomy.

Abstract: A path in a three dimensional structure is identified with a processor. The structure for determining the path may be identified by selection of a location on a one or two-dimensional image. The processor then extrapolates the structure of interest from the location and generates the path. Navigating along a path through a three dimensional space limits complication. For example, a simple input provides for navigation forward, backward or remaining stationary along the path. Navigation may be used to localize calculations, to define Doppler related scanning regions and orientations, or to determine the representation of the scanned volume data.

Abstract: An integrated process for lowering the pour point of Fischer-Tropsch derived wax which comprises (a) collecting separately from a Fischer-Tropsch unit a Fischer-Tropsch wax and a Fischer-Tropsch condensate; (b) pyrolyzing the Fischer-Tropsch wax in a thermal cracking zone under thermal cracking conditions pre-selected to achieve a cracking conversion of the paraffins molecules present in the Fischer-Tropsch wax of at least 10 percent; (c) recovering from the thermal cracking zone a low pour point Fischer-Tropsch derived wax and a Fischer-Tropsch derived overhead product; and (d) mixing at least a portion of the Fischer-Tropsch derived overhead product recovered in step (c) and at least a portion of the Fischer-Tropsch condensate collected in step (a) with at least a portion of the low pour point Fischer-Tropsch derived wax in the proper proportion to produce a Fischer-Tropsch derived waxy product having a pour point equal to or below about 40 degrees C.