An aerosol-generating system (50) has an optical sensor (23) disposed on a portion of an exterior surface of the aerosol-generating system. The optical sensor is configured to output sensor data. A controller (29) is operably coupled to the optical sensor. The controller is configured to manipulate one or more operating parameters of an aerosolizer element of the aerosol-generating system based on the optical sensor data.

According to at least one example embodiment, a controller for an e-vaping device includes a movement sensor configured to detect movement of the e-vaping device and output an output signal based on the movement. The controller includes control circuitry configured to control power supplied to power consuming elements of the e-vaping device based on the output signal.

A fully integrated small size implantable sensing device is described, which can include a sensor and an electronic circuit to interface with the sensor and communicate with an external device. Various fabrication methods for the sensing device are described, including provision of wells, created using same fabrication technology as the electronic circuit, to contain electrodes of the sensor and corresponding functionalization chemicals. Such implantable sensing device can be used for a variety of electrochemical measuring applications within a living body as well as actuation by injecting a current into the living body.

The embodiments disclose a method including creating a dual product vaporizer for use in vaping two different types of products at the same time, atomizing the two different types of products using two heaters for allowance of different burn temperatures for each of the two different types of products, wherein the two heaters are configured to operate at two different temperatures, wherein the two heaters are configured to operate at the same temperature, wherein the dual product vaporizer is configured to operate with only one product cartridge inserted, using at least one rechargeable battery to power the two heaters and an LED light battery indicator, and using two individual draw holes for drawing atomized product vapors from two individual product cartridges at the same time.

A medication fluid delivery device and methods are provided with the delivery device having a dispensing unit and a drive unit that are attachable together. The dispensing unit includes a dispenser for delivering medication fluid to a user and a reservoir configured to be filled with a variable amount of medication fluid received from a medication fluid injector. The drive unit includes a control unit that controls the drive unit and causes medication fluid in the reservoir to be pumped through the dispenser and includes a registration mechanism configured to act with the dispensing unit to determine a state the reservoir including an initial level of the filled reservoir.

Provided is a smart inhaler and wearable smart mask configured to operate as an air ionizer and a controlled multi-liquid atomizer. The smart mask and smart inhaler use a mature technology to deliver various types of liquid solutions to different applications from health care, drug delivery, immunization to recreational and gaming uses. In addition, the smart mask contains multiple actuators to provide haptic feedback to the areas around the mask. The smart mask and inhaler have a direct communication path to a smart device or it can be a smart device by itself; its various environmental and gas sensors act as a feedback mechanism. The detection level of the organic and non-organic VOC gas emitted when exhaling can be communicated and stored for analysis purposes. The detected gas can be regenerated on the same smart mask or a different remote smart mask.

An auto injector is disclosed comprising: a housing, a cartridge receiver, and an ejector member. The cartridge receiver is configured to receive a cartridge containing the medicament. The auto injector further comprises a blocking member coupled to an ejector member. The blocking member is configured to move between a blocking position wherein a connector opening is blocked and a non-blocking position wherein the connector opening is not blocked.

An in-line droplet delivery device and related methods for delivering precise and repeatable dosages to a subject for pulmonary use is disclosed. The in-line droplet delivery device includes a housing, a mouthpiece, a reservoir, an ejector mechanism, and at least one differential pressure sensor. The in-line droplet delivery device is automatically breath actuated by the user when the differential pressure sensor senses a predetermined pressure change within housing. The in-line droplet delivery device is then actuated to generate a plume of droplets having an average ejected particle diameter within the respirable size range, e.g, less than about 5-6 μm, so as to target the pulmonary system of the user. the droplet delivery device is configured in an in-line orientation in that the housing, its internal components, and various device components (e.g., the mouthpiece, air inlet flow element, etc.) are orientated in a substantially in-line or parallel configuration (e.g., along the airflow path) so as to form a small, hand-held device.

The present disclosure relates to a device for nebulizing a liquid composition and to methods for disinfecting an internal channel of the nebulizer device. The device includes a channel connecting a liquid composition inlet, a mesh and a liquid composition outlet. The mesh divides the channel into an input channel portion and into an output channel portion. The channel is at least partially optically transparent to bacterial disinfecting electromagnetic radiation. The device includes a first emitter configured to illuminate the input portion of the channel with the bacterial disinfecting electromagnetic radiation and a second emitter configured to illuminate the output portion of the channel with the bacterial disinfecting electromagnetic radiation.

The present disclosure provides an aerosol delivery device and a liquid delivery and atomization assembly for use with an aerosol delivery device. In one implementation, the liquid delivery and atomization assembly comprises a liquid composition, an atomization assembly, and a liquid delivery component configured to transport at least a portion of the liquid composition to the atomization assembly. The liquid delivery component comprises at least one microchannel configured to deliver the portion of the liquid composition to the atomization assembly, and the microchannel includes a variable flow characteristic defined along at least a portion of the microchannel, the variable flow characteristic being configured to control the flow of the portion of liquid composition through the microchannel.