Abstract: An RF module and method include a base with a probe, a reader unit, a communications unit, and a control unit that establish tracking activation EM field into a container having electrically-conductive walls. RFID tags attached to medical articles located within the container are activated and produce identification signals. The probe and base receive the identification signals and provide identification data related to medical articles located within the container. The RF module is self-contained excepting power and a data connection with which to operate. Where an Ethernet is used, power is obtained by PoE. The RF module is used to retrofit existing medication containers and may be used during the construction of a new medication container.

Abstract: A system and method for managing the contents of a medical storage container such as a tray that has a required inventory of medical articles. A Faraday cage enclosure is used to isolate, scan, and inventory the container. The container and each of the medical articles in the container have a respective RFID tag. A processor is programmed to retrieve the inventory list for the container based on its tag and compare the actual contents of the container according to their tags to the inventory list. Missing items and extra items are noted.

Abstract: A modular system of medical article containers is used to form enclosures of selectable storage space. The containers are each RF shielded and include an interconnect wall for connecting to another container to form the enclosure. The interconnect walls have a complementary design. The interconnect seam of two containers includes an electrically conductive component that also interconnects the RF shields of the two containers together. The interconnect seam also includes a tortuous path seal for greater RF shielding of the enclosure. The walls of the containers include a substrate of non-electrically conductive material for weight reduction and an electrically conductive element that is coextensive with the substrate. One embodiment is a plastic substrate with a metallic mesh. The enclosure provides a Faraday cage about the interconnected containers. Enclosures of differing heights and sizes can be made, and they may be stacked or otherwise assembled.

Abstract: A modular system of plastic walls having embedded and coextensive electrically conductive components configured to electrically connect with each other when the walls are mated. The walls have joining edges that form joint seams with other walls when joined together to create an enclosure. When enough walls are used to surround a storage space, a Faraday cage is created. The walls additionally have portions of tortuous paths at each joining edge that mate with a complementary portion of a tortuous path of another wall when the walls are joined together. A torturous path seal is thereby created at each joint seam. The plastic walls can be configured in a multiplicity of combinations to create various enclosures necessary for RFID-enabled storage and tracking of medical articles. Containers, enclosures, cabinets, and drawers of differing heights and sizes can be made and they may be stacked or otherwise assembled.

Abstract: A system and method for managing the contents of a medical storage container such as a tray that has a required inventory of medical articles. A Faraday cage enclosure is used to isolate, scan, and inventory the container. The container and each of the medical articles in the container have a respective RFID tag. A processor is programmed to retrieve the inventory list for the container based on its tag and compare the actual contents of the container according to their tags to the inventory list. Missing items and extra items are noted.

Abstract: A system and method for the supply of a medical storage container that has a required inventory of medical articles. An enclosure is used to isolate, scan, and inventory a tray or other container of medical articles. The container and each of the medical articles stored in the container having a wireless identification device. A probe injects activation energy and receives identification data in the enclosure. A program compares the scanned identification of the tray and the inventory of the tray to the required inventory list for the tray and indicates any differences. Extra articles and expired and recalled articles are identified. Text and graphical data displays of inventory are provided. Selectable periods for expiration of medical articles are also provided.

Abstract: A system and method for tracking medical articles, each medical article having an RFID tag. The medical articles are located in an EM shielded container that includes an injection probe that injects RFID activation energy into the container. The injection probe comprises a main conductive element having capacitive coupling forming an electric field in the container and comprises spacing above a ground plane to form a magnetic field in the container, both fields being located in the interior of the container to activate RFID tags located therein.

Abstract: A system include a main computing system, a first peripheral component, and a second peripheral component. The first peripheral component receives analog signals from a hardware elements in a first peripheral system and converts them digital signal values in a local memory. A local processor of the first peripheral component writes the signal values directly into a first memory space in the physical memory of main computing system using direct memory access. The main computing system uses the signal values to generate output signal values that it writes into a second memory space of the physical memory. A second peripheral component directly accesses the second memory space to read the output signal values, and writes the output signal values into a local memory. The second peripheral component generates output analog signals based on the output signal values and provides the analog signals to hardware elements of a second peripheral system.

Abstract: An RF module and method include a base with a probe, a reader unit, a communications unit, and a control unit that establish tracking activation EM field into a container having electrically-conductive walls. RFID tags attached to medical articles located within the container are activated and produce identification signals. The probe and base receive the identification signals and provide identification data related to medical articles located within the container. The RF module is self-contained excepting power and a data connection with which to operate. Where an Ethernet is used, power is obtained by PoE. The RF module is used to retrofit existing medication containers and may be used during the construction of a new medication container.

Abstract: A modular system of plastic walls having embedded and coextensive electrically conductive components configured to electrically connect with each other when the walls are mated. The walls have joining edges that form joint seams with other walls when joined together to create an enclosure. When enough walls are used to surround a storage space, a Faraday cage is created. The walls additionally have portions of tortuous paths at each joining edge that mate with a complementary portion of a tortuous path of another wall when the walls are joined together. A torturous path seal is thereby created at each joint seam. The plastic walls can be configured in a multiplicity of combinations to create various enclosures necessary for RFID-enabled storage and tracking of medical articles. Containers, enclosures, cabinets, and drawers of differing heights and sizes can be made and they may be stacked or otherwise assembled.

Abstract: An RF module includes a base with a probe, a reader unit, a communications unit, and a control unit that establish an EM field into a container having electrically-conductive walls. RFID tags attached to medical articles located within the container are activated and produce identification signals. The probe and base receive the identification signals and provide identification data related to medical articles located within the container. The RF module is self-contained in that it needs only power and a data connection with which to operate. Where an Ethernet is used, power is obtained by PoE. The RF module is used to retrofit existing medication containers or may be used during the construction of a new medication container.

Abstract: An automatic inventory tracking and control system tracks the inventory of medical articles in an enclosure by providing a robust electromagnetic (EM) field within the enclosure. The enclosure has electrically-conductive walls. Wireless identification devices such as RFID tags, attached to each medical article respond to the electromagnetic field by transmitting unique data identified with each medical article. A probe or probes are used to generate transverse electromagnetic modes in the enclosure.

Abstract: A modular system of plastic walls having embedded and coextensive electrically conductive components configured to electrically connect with each other when the walls are mated. The walls have joining edges that form joint seams with other walls when joined together to create an enclosure. When enough walls are used to surround a storage space, a Faraday cage is created. The walls additionally have portions of tortuous paths at each joining edge that mate with a complementary portion of a tortuous path of another wall when the walls are joined together. A torturous path seal is thereby created at each joint seam. The plastic walls can be configured in a multiplicity of combinations to create various enclosures necessary for RFID-enabled storage and tracking of medical articles. Containers, enclosures, cabinets, and drawers of differing heights and sizes can be made and they may be stacked or otherwise assembled.

Abstract: A system and method for tracking medical articles, each medical article having an RFID tag. The medical articles are located in an EM shielded container that includes an injection probe that injects RFID activation energy into the container. The injection probe comprises a main conductive element having capacitive coupling forming an electric field in the container and comprises spacing above a ground plane to form a magnetic field in the container, both fields being located in the interior of the container to activate RFID tags located therein.

Abstract: A system and method for tracking medical articles, each having an RFID tag. The articles located in an EM shielded container that includes a probe that comprises a main conductive element having capacitive coupling across a slot to form an electric field and spacing above a ground plane to form an equally strong or stronger magnetic field, both fields filling the interior of the container to activate RFID tags therein. A parasitic element controls the energy pattern of the probe.

Abstract: A system and method for the supply of a medical storage container that has a required inventory of medical articles. An enclosure is used to isolate, scan, and inventory a tray or other container of medical articles. The container and each of the medical articles stored in the container having a wireless identification device. A probe injects activation energy and receives identification data in the enclosure. A program compares the scanned identification of the tray and the inventory of the tray to the required inventory list for the tray and indicates any differences. Extra articles and expired and recalled articles are identified. Text and graphical data displays of inventory are provided. Selectable periods for expiration of medical articles are also provided.

Abstract: An automatic inventory tracking and control system tracks the inventory of medical articles in an enclosure by providing a robust electromagnetic (EM) field within the enclosure. The enclosure has electrically-conductive walls. Wireless identification devices such as RFID tags, attached to each medical article respond to the electromagnetic field by transmitting unique data identified with each medical article. A probe or probes are used to generate transverse electromagnetic modes in the enclosure.

Abstract: An RF module includes a base with a probe, a reader unit, a communications unit, and a control unit that establish an EM field into a container having electrically-conductive walls. RFID tags attached to medical articles located within the container are activated and produce identification signals. The probe and base receive the identification signals and provide identification data related to medical articles located within the container. The RF module is self-contained in that it needs only power and a data connection with which to operate. Where an Ethernet is used, power is obtained by PoE. The RF module is used to retrofit existing medication containers or may be used during the construction of a new medication container.

Abstract: A modular system of plastic walls having embedded and coextensive electrically conductive components configured to electrically connect with each other when the walls are mated. The walls have joining edges that form joint seams with other walls when joined together to create an enclosure. When enough walls are used to surround a storage space, a Faraday cage is created. The walls additionally have portions of tortuous paths at each joining edge that mate with a complementary portion of a tortuous path of another wall when the walls are joined together. A torturous path seal is thereby created at each joint seam. The plastic walls can be configured in a multiplicity of combinations to create various enclosures necessary for RFID-enabled storage and tracking of medical articles. Containers, enclosures, cabinets, and drawers of differing heights and sizes can be made and they may be stacked or otherwise assembled.

Abstract: A device, method, and system for precision measurement, dispensing, and mixing of ingredients. The device includes an ingredient container and a base unit. The ingredient container includes a dispensing mechanism selectively driven to dispense the ingredients from a lower aperture thereof. The base unit includes at least one drive motor, a mixing mechanism, and a dispensing aperture extending through the base unit and configured to allow the quantity of ingredients dispensed from the ingredient container to pass through the base unit to a removable mixing bowl. The base unit may selectively operate in a dispensing mode that drives the dispensing mechanism and in a mixing mode that drives the mixing mechanism to rotate a mixing component removably coupled to the base unit and configured to extend into the removable mixing bowl for mixing the quantity of the ingredients dispensed from the ingredient container into the removable mixing bowl.