The method includes establishing an aerosol-generating device with an electric heating element, and configuring a porous body and a liquid retention medium within an aerosol-generating article, a first end of the aerosol-generating article being formed in part by the porous body, the porous body being configured to absorb heat from the electric heating element and emit at least some of the absorbed heat into an airflow that is drawn into the first end and through a second end of the aerosol-generating article, the liquid retention medium being between the first end and the second end, the aerosol-generating article being selectively connectable to the aerosol-generating device, the electric heating element being in direct contact with the porous body when the aerosol-generating article is connected to the aerosol-generating device.

The present disclosure is related to a multifunctional wearing device. The multifunctional wearing device includes a spectacle frame, a light-transmitting container, a liquid storage chamber and an oscillator. The light-transmitting container is fixed in the spectacle frame, and the light-transmitting container has an enclosed accommodating space. The liquid storage chamber is arranged in the enclosed accommodating space of the light-transmitting container to store a liquid. The oscillator is installed on the liquid storage chamber to convert the liquid into fog stored in the enclosed accommodating space of the light-transmitting container.

Wearable breast pumps are provided which utilize compression to enhance milk expression. The breast milk expression systems herein can allow breastfeeding users to obtain milk discreetly and comfortably in the presence of others. These systems compress the breast at one or more locations, such as at a base of a breast and/or along inferior and lateral sides of a breast, to stimulate milk expression. Various components and methods for expressing milk can facilitate milk output. For example, vacuum can be used in conjunction with compression. For another example, one or more temperature sensitive components can be utilized to improve milk secretion. In some embodiments, milk can be collected in a sterile custom storage container located around or beneath the breasts to facilitate wearability. After expression is complete, a quick-release valve can be used to detach the storage container from the pump and can prevent leaks.

A treatment system delivers a breathing gas and frozen ice or other particles (FSP) to a bronchus of a lung of a patient in order to induce hypothermia. The breathing gas and the FSP are usually delivered through separate lumens. Clogging of an FSP lumen can be inhibited by heating and/or cooling of the lumen. The temperature of exhaled gases or a body temperature may be measured, and a controller can adjust the duration or rate at which the ice particles are delivered in order to control the patient's core temperature based on the measured temperature.

A device and method for treating a wound of a patient with negative pressure is provided. The device comprises a heat-assisted pump system. The pump system can be powered in part by heat derived from the patient. The pump system may be configured to be highly planar, light weight, and portable. The pump system may comprise a Stirling engine or a thermal acoustic engine.

An aerosol-generating system is provided, including an aerosol-generating device including a heater element; an aerosol-generating article, including a medicament source and a volatile delivery enhancing compound source; and at least one resilient member provided in the aerosol-generating device or the aerosol-generating article and being resiliently biased against the heater element, wherein at least one of the medicament source and the volatile delivery enhancing compound source contacts the at least one resilient member, and the aerosol-generating system is configured to heat the medicament source and the volatile delivery enhancing compound source of the aerosol-generating article so that the medicament source has a higher temperature than that of the volatile delivery enhancing compound source.

The invention relates to an aerosol-generating device. The device may comprise a main body (10) that may comprise a connection portion (16). The device may further comprise a removable mouthpiece (12) that may comprise a first connection element (14). The first connection element may be configured removably engageable with the connection portion of the main body. The first connection element may be configured to irreversibly change upon disengagement of the first connection element from the connection portion of the main body.

An aerosol-forming article is provided, including an airflow inlet and an airflow outlet; a medicament source and a volatile delivery enhancing compound source disposed between the airflow inlet and the airflow outlet, and a moveable portion moveable between an open position in which the medicament source and the volatile delivery enhancing compound source are in fluid communication with both the airflow inlet and the airflow outlet, and a closed position in which each of the medicament source and the volatile delivery enhancing compound source is in communication with only one or none of the airflow inlet and the airflow outlet.

The aerosol-generating article include a plurality of elements coaxially aligned and assembled within a wrapper, the article having an outlet end and a distal end upstream from the outlet end. The article includes a liquid aerosol-forming substrate, and a liquid retention medium for retaining the liquid aerosol-forming substrate. The wrapper is formed from a sheet of liquid-impervious material, the liquid retention medium being in a first element of the plurality of elements.

The aerosol-generating system includes an aerosol-generating article with an aerosol-forming substrate, the aerosol-generating article having an outlet end and a distal end upstream from the outlet end. The system also includes an electrically operated aerosol-generating device including a housing having a cavity configured to receive the distal end of the aerosol-generating article, an electric heating element, and a heat diffuser including a non-combustible porous body for absorbing heat from the electric heating element such that, in use, air drawn through the aerosol-generating article from the distal end to the outlet end is heated by the heat absorbed in the porous body.