Abstract: An assembly for delivering medication to a patient has a cartridge loadable with a coiled strip of successively, physically linked medication-containing pouches. The cartridge is inserted into a delivery unit which has an advance mechanism which engages the strip and drives pouches successively out of the cartridge. Pouches are fed successively to an inspection mechanism and a separation station. At the inspection station indicia on successive pouches representing a medication schedule are inspected and compared and validated against a separately stored medication schedule recorded at the time the medication is packaged in the cartridge. A separation mechanism mounted at the separation station is used to separate a pouch at the leading end of the strip from the adjacent pouches. At a pouch exit, separated pouches are routed to a delivery zone.

Abstract: An assembly for delivering medication to a patient has a cartridge loadable with a coiled strip of successively, physically linked medication-containing pouches. The cartridge is inserted into a delivery unit which has an advance mechanism which engages the strip and drives pouches successively out of the cartridge. Pouches are fed successively to an inspection mechanism and a separation station. At the inspection station indicia on successive pouches representing a medication schedule are inspected and compared and validated against a separately stored medication schedule recorded at the time the medication is packaged in the cartridge. A separation mechanism mounted at the separation station is used to separate a pouch at the leading end of the strip from the adjacent pouches. At a pouch exit, separated pouches are routed to a delivery zone.

Abstract: An assembly for delivering medication to a patient has a cartridge loadable with a coiled strip of successively, physically linked medication-containing pouches. The cartridge is inserted into a delivery unit which has an advance mechanism which engages the strip and drives pouches successively out of the cartridge. Pouches are fed successively to an inspection mechanism and a separation station. At the inspection station indicia on successive pouches representing a medication schedule are inspected and compared and validated against a separately stored medication schedule recorded at the time the medication is packaged in the cartridge. A separation mechanism mounted at the separation station is used to separate a pouch at the leading end of the strip from the adjacent pouches. At a pouch exit, separated pouches are routed to a delivery zone.

Abstract: An assembly for delivering medication to a patient has a cartridge loadable with a coiled strip of successively, physically linked medication-containing pouches. The cartridge is inserted into a delivery unit which has an advance mechanism which engages the strip and drives pouches successively out of the cartridge. Pouches are fed successively to an inspection mechanism and a separation station. At the inspection station indicia on successive pouches representing a medication schedule are inspected and compared and validated against a separately stored medication schedule recorded at the time the medication is packaged in the cartridge. A separation mechanism mounted at the separation station is used to separate a pouch at the leading end of the strip from the adjacent pouches. At a pouch exit, separated pouches are routed to a delivery zone.

Abstract: The present disclosure relates to a medication adherence administration and monitoring system. An apparatus for managing medication adherence by a patient is provided, the apparatus comprising: a dispensing device configured for communication with a medication administration system, the dispensing device designed for dispensing medication stored within the dispensing device to the patient; a control system for controlling the dispensing device based, at least in part, on command instructions provided by the medication administration system, and issuing commands to dispense medication based on the satisfaction of one or more pre-determined conditions provided by the medication administration system; and an alert system configured for alerting the patient when medication should be dispensed and configured to receive an indication from the patient verifying the consumption of medication, the alert system communicating to the control system that the medication has been dispensed and consumed.

Abstract: Solid catalyst components for use in olefin polymerization, olefin polymerization catalyst systems containing the solid catalyst components, methods of making the solid catalyst components and the catalyst systems, and methods of polymerizing and copolymerizing olefins involving the use of the catalyst systems. The solid catalyst components are formed by (a) dissolving a magnesium compound and an auxiliary intermediate electron donor in at least one first solvent to form a solution; (b) contacting a first titanium compound with said solution to form a precipitate of the magnesium compound and the first titanium compound; (c) washing the precipitate with a mixture of a second titanium compound and at least one second solvent and optionally an electron donor at a temperature of up to 90° C.; and (d) treating the precipitate with a mixture of a third titanium compound and at least one third solvent at 90-150° C. to form a solid catalyst component.

Abstract: Parameters of a propagated object state in a radar tracking system are converted from an object state domain to a measurement domain. The measurement domain includes parameters of a superposition of a chirp and a Doppler frequency of the reflected signal and the Doppler frequency. Deltas between measured states and propagated states are computed in the measurement domain to improve updating of the object state. An object track is more accurately updated based on the object state delta. Data association may be performed simultaneously in both the measurement domain and object domain. Propagated object state parameters in object domain coordinates can be checked for signal collisions to avoid signal collision errors. An improved noise model is also constructed in the measurement domain.

Abstract: Parameters of a propagated object state in a radar tracking system are converted from an object state domain to a measurement domain. The measurement domain includes parameters of a superposition of a chirp and a Doppler frequency of the reflected signal and the Doppler frequency. Deltas between measured states and propagated states are computed in the measurement domain to improve updating of the object state. An object track is more accurately updated based on the object state delta. Data association may be performed simultaneously in both the measurement domain and object domain. Propagated object state parameters in object domain coordinates can be checked for signal collisions to avoid signal collision errors. An improved noise model is also constructed in the measurement domain.

Abstract: A target location device has a video camera, a range finder, a self location module and an inertial measurement unit. The device provides a video display including video output of the camera and an object marker such as a cross-hair overlayed on the video output for aiming the camera on a reference point or on a target in the video output. The range finder determines a distance from the device to the target. The self location module identifies the geographic location of the device. The inertial measurement unit includes at least one gyro for providing outputs corresponding to the location of the reference point and the target. Video stabilization may be use to allow accurate placement of the object marker on the target or reference point. Automatic range finder firing and gyroscope error compensation are also provided.

Abstract: Solid catalyst components for use in olefin polymerization, olefin polymerization catalyst systems containing the solid catalyst components, methods of making the solid catalyst components and the catalyst systems, and methods of polymerizing and copolymerizing olefins involving the use of the catalyst systems. The solid catalyst components are formed by (a) dissolving a magnesium compound and an auxiliary intermediate electron donor in at least one first solvent to form a solution; (b) contacting a first titanium compound with said solution to form a precipitate of the magnesium compound and the first titanium compound; (c) washing the precipitate with a mixture of a second titanium compound and at least one second solvent and optionally an electron donor at a temperature of up to 90° C.; and (d) treating the precipitate with a mixture of a third titanium compound and at least one third solvent at 90-150° C. to form a solid catalyst component.

Abstract: Solid catalyst components for use in olefin polymerization, systems incorporating the same, methods of producing the same, and methods of use are disclosed. The solid catalyst components are formed by (a) dissolving a magnesium compound and an auxiliary intermediate electron donor in at least one first solvent to form a solution; (b) contacting a first titanium compound with said solution to form a precipitate of the magnesium compound and the first titanium compound; (c) washing the precipitate with a mixture of a second titanium compound and at least one second solvent and optionally an electron donor at a temperature of up to 90° C.; and (d) treating the precipitate with a mixture of a third titanium compound and at least one third solvent at 90-150° C. to form a solid catalyst component.

Abstract: A target location device has a video camera, a range finder, a self location module and an inertial measurement unit. The device provides a video display including video output of the camera and an object marker such as a cross-hair overlayed on the video output for aiming the camera on a reference point or on a target in the video output. The range finder determines a distance from the device to the target. The self location module identifies the geographic location of the device. The inertial measurement unit includes at least one gyro for providing outputs corresponding to the location of the reference point and the target. Video stabilization may be use to allow accurate placement of the object marker on the target or reference point. Automatic range finder firing and gyroscope error compensation are also provided.

Abstract: The present disclosure relates to a medication adherence administration and monitoring system. An apparatus for managing medication adherence by a patient is provided, the apparatus comprising: a dispensing device configured for communication with a medication administration system, the dispensing device designed for dispensing medication stored within the dispensing device to the patient; a control system for controlling the dispensing device based, at least in part, on command instructions provided by the medication administration system, and issuing commands to dispense medication based on the satisfaction of one or more pre-determined conditions provided by the medication administration system; and an alert system configured for alerting the patient when medication should be dispensed and configured to receive an indication from the patient verifying the consumption of medication, the alert system communicating to the control system that the medication has been dispensed and consumed.

Abstract: Solid catalyst particles for use in olefin polymerization, olefin polymerization catalyst systems containing the solid catalyst particles, methods of making the solid catalyst particles and the catalyst systems, and methods of polymerizing and copolymerizing olefins involving the use of the catalyst systems. The method of preparing the solid catalyst particles includes steps of maintaining a mixture of reactants at a temperature of about 5° C. to about 35° C. for at least 2 hours; increasing the temperature of said mixture to a temperature of about 40° C. to about 50° C. over a period of at least 3 hours; and increasing the temperature of said mixture to a temperature of about 80° C. to about 90° C.

Abstract: A target location device has a video camera, a range finder, a self location module and an inertial measurement unit. The device provides a video display including video output of the camera and an object marker such as a cross-hair overlayed on the video output for aiming the camera on a reference point or on a target in the video output. The range finder determines a distance from the device to the target. The self location module identifies the geographic location of the device. The inertial measurement unit includes at least one gyro for providing outputs corresponding to the location of the reference point and the target. Video stabilization may be use to allow accurate placement of the object marker on the target or reference point. Automatic range finder firing and gyroscope error compensation are also provided.

Abstract: Solid catalyst particles for use in olefin polymerization, olefin polymerization catalyst systems containing the solid catalyst particles, methods of making the solid catalyst particles and the catalyst systems, and methods of polymerizing and copolymerizing olefins involving the use of the catalyst systems. The method of preparing the solid catalyst particles includes steps of maintaining a mixture of reactants at a temperature of about 5° C. to about 35° C. for at least 2 hours; increasing the temperature of said mixture to a temperature of about 40° C. to about 50° C. over a period of at least 3 hours; and increasing the temperature of said mixture to a temperature of about 80° C. to about 90° C.

Abstract: Solid catalyst components for use in olefin polymerization, olefin polymerization catalyst systems containing the solid catalyst components, methods of making the solid catalyst components and the catalyst systems, and methods of polymerizing and copolymerizing olefins involving the use of the catalyst systems. The solid catalyst components are formed by (a) dissolving a magnesium compound and an auxiliary intermediate electron donor in at least one first solvent to form a solution; (b) contacting a first titanium compound with said solution to form a precipitate of the magnesium compound and the first titanium compound; (c) washing the precipitate with a mixture of a second titanium compound and at least one second solvent and optionally an electron donor at a temperature of up to 90° C.; and (d) treating the precipitate with a mixture of a third titanium compound and at least one third solvent at 90-150° C. to form a solid catalyst component.

Abstract: Disclosed are spherical magnesium-based catalyst supports and methods of using the same in a Ziegler-Natta catalyst system for the polymerization of an olefin. The spherical magnesium-based catalyst supports are made by reacting a magnesium halide, a haloalkylepoxide, and a phosphate acid ester in an organic solvent that does not have to contain substantial amounts of toluene.