Abstract: A method and an automated pharmacy system to alleviate the risk posed by a queue of printed labels for prescription vials that occurs at the printer. The method and system eliminate the need for physically transferring paperwork from one site (the imaging station) to another site (the filling station). Elimination of the physical transferring step smooths the flow of the dispensing operation, and hence, improves the throughput of the automated pharmacy, and further, helps to prevent the association of the wrong paperwork with a given prescription.

Abstract: The present invention features a pharmaceutical dispensing system including a plurality of standardized or universal-type cells disposed in a large array called a module. One or more modules may be disposed in a given pharmacy, and one or more pharmacies may be monitored by a central computer. The system for filling prescriptions includes a graphical interface processing system for monitoring operations of each cell, wherever located, and for sequentially and interactively prompting an operator to perform appropriate; predetermined steps. The system for filling prescriptions sequentially prompts a technician or operator to perform predetermined steps, dependent upon verification of the completion of a prior or previously completed step in the sequence. In a semi-automatic mode, the pharmacist is directed, by suitable prompts on the computer display screen, as to the necessary steps and locations in filling each prescription.

Abstract: The present invention features a pill-dispensing system which has a number of standardized, or universal-type, modules. Each module has a rotating, helix-drive mechanism, which is rotationally controlled by a microprocessor. The helical-drive mechanism features several improvements, both in the drive mechanism and in the software control of the rotational drive system by the microprocessor that allows for the dispensing of pills of all shapes and sizes one at a time. The helix of the drive is securely mounted within a rotatable, hollow tube. A stationary collar is mounted adjacent the upper end of the rotating tube. The rotating helix extends into the stationary collar and forces pills from the hollow tube to the dispensing edge of the stationary collar. A hopper positioned at the input end, or mouth of the tube, feeds a batch quantity of pills to the drive mechanism. The tube is angled upwardly from the mouth portion, so that the pill-dispensing end is positioned above the input end.

Abstract: There is provided a method for counting and dispensing pills, tablets, and capsules which depends on a simple vibrating, sloped, concave-shaped (e.g., V-shaped) trough, having a number of descending steps. The vibration of the trough is controlled and adjusted by a microprocessor. The vibration of the trough is patterned to provide a greater vibratory amplitude at its dispensing end than at its intake end. The difference at each end of the trough in vibratory amplitude is achieved by elastomeric supports that are differently spring dampened. The microprocessor electronically adjusts the input vibration to the trough, such that the flow of materials is adjusted for different types of materials (i.e., tablets of different shapes and/or sizes). This causes the tablets to align accurately within the trough, and sequentially pass a pill detector mechanism in single file. This ensures that the device can handle an extremely varied range of tablet or capsule sizes and shapes.

Abstract: There is provided a method for counting and dispensing pills, tablets, and capsules which depends on a simple vibrating, sloped, concave-shaped (e.g., V-shaped) trough, having a number of descending steps. The vibration of the trough is controlled and adjusted by a microprocessor. The vibration of the trough is patterned to provide a greater vibratory amplitude at its dispensing end than at its intake end. The difference at each end of the trough in vibratory amplitude is achieved by elastomeric supports that are differently spring dampened. The microprocessor electronically adjusts the input vibration to the trough, such that the flow of materials is adjusted for different types of materials (i.e., tablets of different shapes and/or sizes). This causes the tablets to align accurately within the trough, and sequentially pass a pill detector mechanism in single file. This ensures that the device can handle an extremely varied range of tablet or capsule sizes and shapes.