Disclosed is a method and apparatus for transporting and dispensing medications for a patient according to a medication schedule for the patient. A smart container from a pharmacy is received at the patient's site and the container is checked to make sure that the container was delivered to the correct patient site. The smart container contains a memory device that contains identification information of the patient, dosage and treatment instructions for the patient. This information and the medication were checked for compatibility before the smart container was delivered. The identity of the patient at the patient's site is then checked and the patient performs on or more biometric tests before the medication is dispensed by the smart container. Upon taking the medication and providing video proof thereof, the smart container is returned to the pharmacy.

A dispensing system comprising a main body, a carousel, and a shuttle. The carousel is configured to sequentially align each of a plurality of cartridges with a dispensing outlet of the dispensing system. The shuttle is configured to sequentially align each of a plurality of compartments of each cartridge with the dispensing outlet. The dispensing system is configured to dispense a dose only after a predetermined interval of time based on a prescription. In addition, the dispensing system is connected to a network to allow the prescriber to remotely modify the prescription. The dispensing system may additionally have a biometric scanner to verify the identity of a patient, an ID scanner to authorize a pharmacist to refill the dispensing system, and a plurality of tamper sensors to alert the prescriber or the pharmacist if a patient attempts to access the dispensing system without authorization.

System comprising of a simulating flow control breastfeeding where a tube linking a refillable housing chamber to a prosthetic nipple, an analyzing module linked to a sensor to determine a physical, physiological, or emotional state of the infant/user by mapping the received input parameter with a pre-stored set of parameters from the parameter store via the analyzing module and dynamically interact with the infant/user based on a determined output to promote a non-latching simulating breastfeeding experience to prevent bruised, sore nipples or engorged breasts.

A butyric acid detection based platform for verifying placement of a patient airway device or a gastric tube comprising at least one of i) a colorimetric based butyric acid detection platform, ii) a bioelectronic sensors based butyric acid detection platform using olfactory receptors, and iii) an IR based butyric acid detection platform. Each platform comprises a housing coupled to the patient airway device or gastric tube whereby flow from the coupled patient airway device or a gastric tube can flow through an internal passage of the housing; and wherein sensors within the housing come into contact with the flow from the coupled patient airway device or a gastric tube, the sensors including at least one of a chemical sensor array including at least one of i) colorimetric based butyric acid sensor, ii) a bioelectronic butyric acid detection sensor using olfactory receptors, and iii) an IR based butyric acid sensor.

The present disclosure relates to systems, methods, and computer-readable storage devices medication adherence systems. A container may be provided with a computing unit and display screen. The display screen may be integrated into an interior surface of the container or each compartment within the container. The display screen may display messages to a user about loading the container, the contents of the container, and/or removing contents from the container. A second display screen may also be provided on a lid of the container.

A blood bag for containing a blood and electrically connected to a blockchain network is disclosed. The blood bag includes a bag, a chip set and a blood property sensing module. The bag contains the blood. The chip set in located on the bag. The chip set includes a blockchain blood tracer for recording the source of the blood and a transportation history in the blockchain network for tracing. The blood sensing module is located on the bag and electrically connected to the chip set. The blood property sensing module is used for sensing at least one blood property of the blood.

An example of a method of enabling medical fluid transfer between a source container and a destination container can comprise the steps of providing a closed-system fluid transfer module comprising a first closeable, resealable medical connector and a second closeable, resealable medical connector, a multidirectional fluid control valve with a driving interface configured to interface with an electromechanical driver of an electronic medical fluid transfer device, and an intermediate container or an intermediate pumping region; and instructing a user to couple the closed-system fluid transfer module to the electronic medical fluid transfer device.

This invention relates to a safer and more comprehensive, economical, convenient and digitalised apparatus and method that equips the existing multiple-dose dispenser with a unique assembly configured to enable additional capabilities including the automated dispensing of multiple-dose pouches containing individual units of homogenous and/or heterogeneous pharmaceutical products which are retained in and/or without manufacturer's packaging, in exact customised quantities and combinations, exactly according to the dose time prescribed by the doctor, with optional automated light and/or sound alerts when the relevant dose pouches are dispensed, provision of a button which when pressed by the user cuts the dispensed pouches and stores and/or communicates the time of cutting with the central systems in real-time. The invention also contains features such as compatibility with phone applications to allow the user to control the device for allowing dispensed pouches to go back in and reporting emergencies and/or adverse drug reactions.

The present disclosure enables apparatus and methods for tracking medications and/or product units via smart-packaging concepts. Embodiments include sensors that monitor the state of a blister-card package having an unpatterned lidding film by measuring the impedance of each dispensing region of the lidding film that defines a portion of a blister. In some embodiments, the impedance is measured via a plurality of contact points arranged on opposite sides of each dispensing region, where the contact points are resistively or capacitively coupled with the lidding film. In some embodiments, the impedance map of a measurement region on the blister card is derived via electrical impedance tomography or electrical resistance tomography, where the measurement region includes a plurality of dispensing regions.

Described herein are specialized needle assemblies for injection systems. One example injection system includes a needle assembly configured to removably attach to a drug delivery device and a housing configured to receive a drug cartridge. The needle assembly includes a needle configured to extend through an outlet port of the drug delivery device and establish fluid communication with the drug cartridge within the housing of the drug delivery device. The needle assembly may include a fluid flow sensor monitoring the fluid flow and/or occlusions within the needle assembly, and provide indications of an occluded or clogged needle and/or one or more indications of proper flow through the needle, e.g., non-occlusion of the needle. In some examples, the arrangement of the needle assembly includes sensors to detect an occlusion within a portion of a needle.