Abstract:
A pharmaceutical order verification system and method for an automated pharmacy system is disclosed. A computerized line control application controls a dispensing line, facilitates automated dispensing of drugs into vials, and collects and records data for dispensed drug as well as each verification step performed by a pharmacist. In an example embodiment, pharmacist verification occurs in connection with replenishing the drugs in automated tablet counters and in connection with verifying a specified percentage of orders for each automated tablet counter. During the replenishment process, the pharmacist verifies that a replenishment canister has been loaded with the correct drug in the appropriate dosage and strength. During the order verification step, a pharmacist verifies the contents of vial matches the prescription order data. The line control application tracks the number of orders that are identified for pharmacist verification to ensure verification requirements are met for each automated tablet counter.
Abstract:
An automated method and system for a conveyor holding system for holding vials of a multi-vial order in a holding pattern until all vials of the order have been filled by an automatic pill counter. The system uses RFID information to divert vials off the conveyor into the conveyor holding loop if all vials of the multi-vial order have not been filled. The system is adapted to divert the vials of the multi-vial order out of the holding loop when all vials of the multi-vial order have been filled.
Abstract:
A pharmaceutical verification (PV) camera system that captures an image of the contents of a vial on an automated dispensing line is closed. Faster image processing time is achieved by utilizing a learning algorithm that stores camera parameters for a successful image associated with data for a prescription processed on the automated dispensing line. During processing of a prescription order, when the vial contents and availability of stored parameters is confirmed, the stored parameters are transmitted to the camera and an image of the vial contents is captured and stored. When a previously un-encountered or un-trained vial is detected, the camera engages the autofocus feature to capture an image. The learning algorithm evaluates the image based on feedback from one or more metric. Upon agreement with the metric standards, an image is accepted and archived and the camera parameters associated with that vial prescription are stored for later use.
Abstract:
A system and method for delivering a product such as a pharmacy bottle from a conveyor system to a delivery container via a delivery chute. A control system in communication with the components of the system detects when a product is ready for release into the chute for delivery based on information obtained by a scanner on the conveyor system.
Abstract:
A pharmaceutical order verification system and method for an automated pharmacy system is disclosed. A computerized line control application controls a dispensing line, facilitates automated dispensing of drugs into vials, and collects and records data for dispensed drug as well as each verification step performed by a pharmacist. In an example embodiment, pharmacist verification occurs in connection with replenishing the drugs in automated tablet counters and in connection with verifying a specified percentage of orders for each automated tablet counter. During the replenishment process, the pharmacist verifies that a replenishment canister has been loaded with the correct drug in the appropriate dosage and strength. During the order verification step, a pharmacist verifies the contents of vial matches the prescription order data. The line control application tracks the number of orders that are identified for pharmacist verification to ensure verification requirements are met for each automated tablet counter.
Abstract:
A system and method for delivering a product such as a pharmacy bottle from a conveyor system to a delivery container via a delivery chute. A sensor is placed at a top opening of the chute to sense for product in the chute area and to provide instructions to complete the delivery order if the chute area is clear.
Abstract:
An improved pharmaceutical vial processing system and method groups vials on an automated dispensing line according to diverting needs. The improved pharmaceutical vial processing system and method allows vials to travel in close groups. A diversion algorithm determines when gaps between vials are needed to reduce the likelihood that a mechanical diverting device engages the wrong vial to a new location on the dispensing line. The diversion algorithm identifies each vial that needs to be diverted to a target location and employs a “neighbor analysis” to determine whether a gap between neighboring vials is needed before a vial destined for the target station encounters a diverter. Vials that are destined for locations beyond the target station remain grouped. Vials that are behind a vial destined for the target station are held to introduce a gap between the vial destined for the target station and the remaining vials.
Abstract:
A pharmaceutical order verification system and method for an automated pharmacy system is disclosed. A computerized line control application controls a dispensing line, facilitates automated dispensing of drugs into vials, and collects and records data for dispensed drug as well as each verification step performed by a pharmacist. In an example embodiment, pharmacist verification occurs in connection with replenishing the drugs in automated tablet counters and in connection with verifying a specified percentage of orders for each automated tablet counter. During the replenishment process, the pharmacist verifies that a replenishment canister has been loaded with the correct drug in the appropriate dosage and strength. During the order verification step, a pharmacist verifies the contents of vial matches the prescription order data. The line control application tracks the number of orders that are identified for pharmacist verification to ensure verification requirements are met for each automated tablet counter.
Abstract:
An integrated conveyor line system for placing safety and non-safety caps onto bottles traveling on the same conveyor line. A network of sensors and RFID readers determine the location of bottles and ensure that the right cap is placed on each bottle. The processing system controlling the hardware components instructs the appropriate components to divert bottles to a reject holding queue when the system detects a bottle having the wrong type of cap.
Abstract:
An improved pharmaceutical vial processing system and method groups vials on an automated dispensing line according to diverting needs. The improved pharmaceutical vial processing system and method allows vials to travel in close groups. A diversion algorithm determines when gaps between vials are needed to reduce the likelihood that a mechanical diverting device engages the wrong vial to a new location on the dispensing line. The diversion algorithm identifies each vial that needs to be diverted to a target location and employs a “neighbor analysis” to determine whether a gap between neighboring vials is needed before a vial destined for the target station encounters a diverter. Vials that are destined for locations beyond the target station remain grouped. Vials that are behind a vial destined for the target station are held to introduce a gap between the vial destined for the target station and the remaining vials.