Abstract: Described is a microscope objective (10, 100, 200) having an objective housing (12) which contains a lens system including a lens unit (60) capable of being moved along the optical axis (O) of the lens system to compensate for the thickness of the coverslip, and further having an adjusting device for adjusting the lens unit (60), said adjusting device including a drive unit (14, 102, 202) and a transmission (42, 44, 46, 48, 50, 52, 54, 56, 62) which is drivable by the drive unit (14, 102, 202) and coupled to the lens unit (60). According to the present invention, the drive unit (14, 102, 202) has a motor (34) and is mounted on the objective housing (12).

Abstract: Described is a microscope objective (10, 100, 200) having an objective housing (12) which contains a lens system including a lens unit (60) capable of being moved along the optical axis (0) of the lens system to compensate for the thickness of the coverslip, and further having an adjusting device for adjusting the lens unit (60), said adjusting device including a drive unit (14, 102, 202) and a transmission (42, 44, 46, 48, 50, 52, 54, 56, 62) which is drivable by the drive unit (14, 102, 202) and coupled to the lens unit (60). According to the present invention, the drive unit (14, 102, 202) has a motor (34) and is mounted on the objective housing (12).

Abstract: The process acquires data blocks in real-time with a fast scanner. The acquired data blocks are then transmitted to a computer system (23). The data blocks are then processed as a function of a frame burst ratio (N). The transmission of the acquired data blocks to the computer system is a function of the frame burst ratio (N). The frame burst ratio (N) may be either fixed or variable. In any case, optimal utilization of the computer system's (23) performance is important. The frame burst ratio (N) is selected by the user or by the computer system (23) itself as a function of the processing characteristics of the computer system (23).

Abstract: The process acquires data blocks in real-time with a fast scanner. The acquired data blocks are then transmitted to a computer system (23). The data blocks are then processed as a function of a frame burst ratio (N). The transmission of the acquired data blocks to the computer system is a function of the frame burst ratio (N). The frame burst ratio (N) may be either fixed or variable. In any case, optimal utilization of the computer system's (23) performance is important. The frame burst ratio (N) is selected by the user or by the computer system (23) itself as a function of the processing characteristics of the computer system (23).

Abstract: An EDP system having at least one EDP-assisted workstation (1, 2), in particular a PC (3, 4), computing system, process computer, network, etc., user-specific data that can encompass software adaptations or software settings, user interfaces, access authorizations, individually generated data, or the like being supplyable, is characterized in that the user-specific data are associated with a transportable, preferably miniaturized memory (5) that, for user-specific configuration of the workstation, communicates with the respective computer via a suitable interface (7, 8). A corresponding method serves for utilization of the system.