Abstract: A vehicle lift system incorporating one or more lift control modules having an advanced operating platform. The lift control module includes a user interface for receiving user instructions from a user, at least one control module processor, and a non-transitory computer-readable medium with an advanced operating platform stored thereon. The computer readable medium includes a first application operable executable by the advanced operating platform. The first application directs the control module processor to provide instructions to the vehicle lift to control the vehicle lift based on the user instructions. The computer readable medium further includes a second application executable by the advanced operating platform. The second application directs the control module processor to perform certain steps, with such certain steps not directed to controlling the vehicle lift. Furthermore, the advanced operating platform is configured to execute said first application and said second application simultaneously.

Abstract: A vehicle lift system incorporating one or more lift control modules having an advanced operating platform. The lift control module includes a user interface for receiving user instructions from a user, at least one control module processor, and a non-transitory computer-readable medium with an advanced operating platform stored thereon. The computer readable medium includes a first application operable executable by the advanced operating platform. The first application directs the control module processor to provide instructions to the vehicle lift to control the vehicle lift based on the user instructions. The computer readable medium further includes a second application executable by the advanced operating platform. The second application directs the control module processor to perform certain steps, with such certain steps not directed to controlling the vehicle lift. Furthermore, the advanced operating platform is configured to execute said first application and said second application simultaneously.

Abstract: A vehicle lift system incorporating one or more lift control modules having an advanced operating platform. The lift control module includes a user interface for receiving user instructions from a user, at least one control module processor, and a non-transitory computer-readable medium with an advanced operating platform stored thereon. The computer readable medium includes a first application operable executable by the advanced operating platform. The first application directs the control module processor to provide instructions to the vehicle lift to control the vehicle lift based on the user instructions. The computer readable medium further includes a second application executable by the advanced operating platform. The second application directs the control module processor to perform certain steps, with such certain steps not directed to controlling the vehicle lift. Furthermore, the advanced operating platform is configured to execute said first application and said second application simultaneously.

Abstract: An image registration apparatus comprises: a features detector (34) configured to extract a two-dimensional set of features (36) from a two-dimensional image (30) and to extract a three-dimensional set of features (38) from a three-dimensional image (32); a projection processor (40) configured to project three-dimensional data into two-dimensional projection data; and a registration processor (46, 52) configured to (i) adjust parameters to register the two-dimensional set of features and the three-dimensional set of features projected by the projection processor using a projection geometry (42), and to (ii) use the adjusted parameters to register the two-dimensional image and the three-dimensional image projected by the projection processor using the projection geometry.

Abstract: A vehicle lift system incorporating one or more lift control modules having an advanced operating platform. The lift control module includes a user interface for receiving user instructions from a user, at least one control module processor, and a non-transitory computer-readable medium with an advanced operating platform stored thereon. The computer readable medium includes a first application operable executable by the advanced operating platform. The first application directs the control module processor to provide instructions to the vehicle lift to control the vehicle lift based on the user instructions. The computer readable medium further includes a second application executable by the advanced operating platform. The second application directs the control module processor to perform certain steps, with such certain steps not directed to controlling the vehicle lift. Furthermore, the advanced operating platform is configured to execute said first application and said second application simultaneously.

Abstract: A system, process and software arrangement are provided to determining data associated with at least one structural change of tissue. In particular, a first optical coherence tomography (“OCT”) signal which contains first information regarding the tissue at a first stress level, and a second OCT signal which contains second information regarding the tissue at a second stress level are received. The first and second information are compared to produce comparison information. The data associated with the at least one structural change is determined as a function of the comparison information and further information associated with (i) at least one known characteristics of the tissue and/or (ii) characteristics of an OCT system. Further, at least one optical coherence tomography (“OCT”) signal which contains information regarding the tissue can be received, and the modulus of the tissue may be determined as a function of the received at least one OCT signal.

Abstract: System and method for enabling intra-operative selection of an image registration transformation for use in displaying a first image dataset and a second image dataset in correspondence with one another. Image dataset acquisition devices (12, 14) obtain the first and second image datasets. A similarity function indicative of a likelihood that the first and second image datasets are in correspondence with one another is computed by a processor (16) and then a ranking of each of a plurality of local maxima of the similarity function is determined. Registration transformations derived from a plurality of the local maxima are displayed on a display (18), and using a user-interface (22), a physician can select each registration transformation to ascertain visually whether it is the clinically-optimal registration transformation for subsequent use.

Abstract: A multiple axle lift system having a column mechanism and a carriage assembly is provided. The column mechanism has a base member with a central support member extending therefrom. The carriage assembly is slidably connected to the column mechanism and includes a centerline, a first lift pad assembly with a first lift pad for engaging a vehicle tire and a second lift pad assembly with a second lift pad for engaging a vehicle tire. The first and second lift pads are configured to face away from the centerline.

Abstract: An adjustable carriage assembly is provided that includes a shaft assembly, a carriage section and a vertical movement section. The carriage section has a centerline and first and second lift pad assemblies operably connected to the shaft assembly. The shaft assembly is configured to translate rotational movement to synchronous movement of the lift pad assemblies. The vertical movement section is connected to the carriage section and is configured to attach to a lift system for raising and lowering the carriage section.

Abstract: A multiple axle lift system having a column mechanism and a carriage assembly is provided. The column mechanism has a base member with a central support member extending therefrom. The carriage assembly is slidably connected to the column mechanism and includes a centerline, a first lift pad assembly with a first lift pad for engaging a vehicle tire and a second lift pad assembly with a second lift pad for engaging a vehicle tire. The first and second lift pads are configured to face away from the centerline.

Abstract: An adjustable carriage assembly is provided that includes a shaft assembly, a carriage section and a vertical movement section. The carriage section has a centerline and first and second lift pad assemblies operably connected to the shaft assembly. The shaft assembly is configured to translate rotational movement to synchronous movement of the lift pad assemblies. The vertical movement section is connected to the carriage section and is configured to attach to a lift system for raising and lowering the carriage section.

Abstract: An image registration apparatus comprises: a features detector (34) configured to extract a two-dimensional set of features (36) from a two-dimensional image (30) and to extract a three-dimensional set of features (38) from a three-dimensional image (32); a projection processor (40) configured to project three-dimensional data into two-dimensional projection data; and a registration processor (46, 52) configured to (i) adjust parameters to register the two-dimensional set of features and the three-dimensional set of features projected by the projection processor using a projection geometry (42), and to (ii) use the adjusted parameters to register the two-dimensional image and the three-dimensional image projected by the projection processor using the projection geometry.

Abstract: A system, arrangement, computer-accessible medium and process are provided for determining information associated with at least one portion of an anatomical structure. For example, an interference between at least one first radiation associated with a radiation directed to the anatomical structure and at least one second radiation associated with a radiation directed to a reference can be detected. Three-dimensional volumetric data can be generated for the at least one portion as a function of the interference. Further, the information can be determined which is at least one geometrical characteristic and/or at least one intensity characteristic of the portion based on the volumetric data.

Abstract: System and method for enabling intra-operative selection of an image registration transformation for use in displaying a first image dataset and a second image dataset in correspondence with one another. Image dataset acquisition devices (12, 14) obtain the first and second image datasets. A similarity function indicative of a likelihood that the first and second image datasets are in correspondence with one another is computed by a processor (16) and then a ranking of each of a plurality of local maxima of the similarity function is determined. Registration transformations derived from a plurality of the local maxima are displayed on a display (18), and using a user-interface (22), a physician can select each registration transformation to ascertain visually whether it is the clinically-optimal registration transformation for subsequent use.