A measuring device of Chinese medicine granules includes a dispensing tray, a fixed discharging cover, a discharging driving cover, and a discharging anti-blocking structure mounted coaxially. The dispensing tray, the fixed discharging cover, and the discharging driving cover are provided with storage holes, measuring holes, and discharging holes, respectively. The discharging anti-blocking structure includes a bottom case, a briquetting holder, an anti-blocking briquette, a spring, and a cover. The bottom case is fixed on the dispensing tray and offsets from the storage hole. The bottom case is provided with dispensing holes therein positioned corresponding to the discharging holes. Each of the dispensing holes is provided with one anti-blocking briquette therein. The briquetting holder is connected to the anti-blocking briquette and is disposed in the bottom case. The spring is sleeved on the briquetting holder and is in contact with the cover.

Various exemplary embodiments relate to a method, device, and storage medium including one or more of the following: receiving location information and expiration information; determining a current location of the mobile device; determining that the medicament device is within a predetermined distance from the mobile device; determining that the medicament device is currently associated with an expiration event; outputting an expiration alarm indicating the expiration event in response to determining that the medicament device is within a predetermined distance from the mobile device and that the medicament device is currently associated with an expiration event; receiving, from the user, a request to display a map of a geographic area; displaying, by the mobile device and via a non-operating system application, the map of the geographic area; and displaying an alert icon on the map, wherein the location of the icon on the map is based on the received location information.

A system and method of tracking, assigning and releasing biological fluids. The system and method identifies, assigns and releases biological fluid products from controlled storage based on medical criteria supported by the use of RFID technology.

A smart carrier has a housing comprising one or more docking locations configured to accept a secure receptacle, a wireless interface module disposed within the housing, and a processor disposed within the housing and operatively coupled to the one or more docking locations and the wireless interface module. The processor is configured to communicate with an external device through the wireless interface module and with a secure receptacle that is mated with one of the one or more docking locations. The smart carrier also has a battery disposed within the housing and configured to provide all operational power to the processor, the wireless interface module, and the one or more docking locations.

A portable therapeutic platform for use in a therapeutic procedure including: (a) at least one compartment for holding at least one therapeutically effective item required to conduct the therapeutic procedure; and (b) at least one electronic communications device for receiving and transmitting information about an environment surrounding and including the platform. The use of the platform is conveniently managed by a system which transfers information about the environment surrounding and including the platform between the electronic communications device and a computer system including a processor which processes the information; and initiates a control response to the processed information. The platform and system are suitable for use to address a range of public health issues and as a countermeasure to biosecurity threats.

Item-management systems, apparatus, and methods are described, preferably for management of items such as medicaments. In embodiments, an item-management system comprises a container defining plural cells, a docking station configured to receive the container, sources of visible information to indicate the cell(s) into which an item is to be loaded, and at least one controller operable to control the visible information sources to indicate the cell into which the item is to be received.

An injection vial and injection vial management system is disclosed, wherein the injection vial is filled with a liquid medicine and signally connected with a blockchain network. The injection vial includes a bottle body and a chipset disposed within the bottle body. The chipset includes an identification label and a blockchain module. The identification label records a manufacturing process, a logistic process and a use process. The blockchain module signal connects to the blockchain network in order to record the manufacturing process, logistic process and use process in the blockchain network.

A method includes micro-machining a cavity within a substrate, filling the cavity with a medication, forming a sealing layer over the cavity, micro-machining a cantilevered beam from a layer of material, the cantilevered beam comprising a tip for puncturing the sealing layer, and attaching the cantilevered beam to the substrate such that moving the cantilevered beam toward the substrate enables the tip to puncture the sealing layer. A computer program product corresponding to the method is also disclosed. An apparatus includes a substrate having a cavity micro-machined therein, a sealing layer formed over the cavity, a medication disposed within the cavity, a cantilevered beam micro-machined from a layer of material, the cantilevered beam comprising a tip for puncturing the sealing layer, and the cantilevered beam attached to the substrate and disposed to enable the tip to puncture the sealing layer when the cantilevered beam is moved towards the substrate.

A package comprises a body, and an electrically conductive pattern supported by said body. An interface portion is configured to receive a module to a removable attachment with the package. The electrically conductive pattern comprises, at least partly within said interface portion, a wireless coupling pattern that constitutes one half of a wireless coupling arrangement.

A medication container comprises a body portion and a grid coupled to the body portion. The grid and the tray each comprise a corresponding number of wells configured to contain medication. The tray is configured to be inserted into and removed from the body portion, above the grid. The tray may be configured to be connected to and disconnected from the grid, when the tray is inserted into the body portion. The wells of the grid may be configured to be manually loaded with medication by a user and the wells of the tray may be configured to be received by the user loaded with medication in accordance with a medication regimen. The first wells may be integral with the grid and the second wells may be integral with the tray.