A cartridge (10, 72) for a vapour generating device (100) comprises an inductively heatable susceptor (54) and a porous liquid transfer element (56) configured to convey vapour generating liquid to the inductively heatable susceptor (54). The porous liquid transfer element (56) has a longitudinal axis (57) and includes a recess (60) accommodating at least part of the inductively heatable susceptor (54). The recess (60) includes a support surface (80) which is inclined relative to the longitudinal axis (57) to support at least part of the inductively heatable susceptor (54).

A cartridge (10, 72) for a vapour generating device (100) comprises an inductively heatable susceptor (54) and a porous liquid transfer element (56) configured to convey vapour generating liquid to the inductively heatable susceptor (54). The porous liquid transfer element (56) has a longitudinal axis (57) and includes a recess (60) accommodating at least part of the inductively heatable susceptor (54). The recess (60) includes a support surface (80) which is inclined relative to the longitudinal axis (57) to support at least part of the inductively heatable susceptor (54).

A cartridge (10, 72) for a vapour generating device comprises an inductively heatable susceptor (54) and a porous liquid transfer element (56) configured to convey vapour generating liquid to the inductively heatable susceptor (54). The porous liquid transfer element (56) has a longitudinal axis (57) and defines an airflow channel (62) extending substantially in a longitudinal direction defined by the longitudinal axis (57). The porous liquid transfer element (56) also includes a recess (60), and at least part of the inductively heatable susceptor (54) is accommodated in the recess (60) and at least part of the inductively heatable susceptor (54) is accommodated in the airflow channel (62).

A cartridge (10, 72) for a vapour generating device comprises an inductively heatable susceptor (54) and a porous liquid transfer element (56) configured to convey vapour generating liquid to the inductively heatable susceptor (54). The porous liquid transfer element (56) has a longitudinal axis (57) and defines an airflow channel (62) extending substantially in a longitudinal direction defined by the longitudinal axis (57). The porous liquid transfer element (56) also includes a recess (60), and at least part of the inductively heatable susceptor (54) is accommodated in the recess (60) and at least part of the inductively heatable susceptor (54) is accommodated in the airflow channel (62).

An aerosol-generating device for generating an aerosol by inductive heating of an aerosol-forming substrate is provided, the device including: a device housing including a cavity to removably receive the substrate; an inductive heating arrangement including an induction coil to generate a varying magnetic field within the cavity and being arranged around at least a portion of the cavity; and a flux concentrator arranged around at least a portion of the coil and being configured to distort the field of the arrangement towards the cavity, the flux concentrator including a multi-layer flux concentrator foil having a magnetic layer laminated with at least a first support layer, the magnetic layer including a plurality of separated fragments of a soft magnetic alloy and being arranged in a pattern including a plurality of crack centers, and a plurality of cracks spread radially outwards from each crack center in a web-shaped pattern.

An aerosol-generating device for generating an aerosol by inductive heating of an aerosol-forming substrate is provided, the device including: a device housing including a cavity to removably receive the substrate; an inductive heating arrangement including an induction coil to generate a varying magnetic field within the cavity and being arranged around at least a portion of the cavity; and a flux concentrator arranged around at least a portion of the coil and being configured to distort the field of the arrangement towards the cavity, the flux concentrator including a multi-layer flux concentrator foil having a magnetic layer laminated with at least a first support layer, the magnetic layer including a plurality of separated fragments of a soft magnetic alloy and being arranged in a pattern including a plurality of crack centers, and a plurality of cracks spread radially outwards from each crack center in a web-shaped pattern.

A susceptor assembly is provided for inductively heating an aerosol-forming substrate under an influence of an alternating magnetic field, the susceptor assembly including: one or more composite susceptor particles, each one of the one or more composite susceptor particles including a particle core and a particle shell entirely encapsulating the particle core, in which the particle core includes or is made of a ferromagnetic or ferrimagnetic core material having a relative magnetic permeability of at least 200 for frequencies up to 10 kHz at a temperature of 20 degrees Celsius, and in which the particle shell includes or is made of an electrically conductive shell material. An aerosol-generating article for an inductively heating aerosol-generating device, and an aerosol-generating system including an aerosol-generating article, are also provided.

A susceptor assembly is provided for inductively heating an aerosol-forming substrate under an influence of an alternating magnetic field, the susceptor assembly including: one or more composite susceptor particles, each one of the one or more composite susceptor particles including a particle core and a particle shell entirely encapsulating the particle core, in which the particle core includes or is made of a ferromagnetic or ferrimagnetic core material having a relative magnetic permeability of at least 200 for frequencies up to 10 kHz at a temperature of 20 degrees Celsius, and in which the particle shell includes or is made of an electrically conductive shell material. An aerosol-generating article for an inductively heating aerosol-generating device, and an aerosol-generating system including an aerosol-generating article, are also provided.

A liquid reservoir component of an electronic vaping device includes an outer casing extending in a longitudinal direction, an air inlet, and a vapor outlet. An inner tube is within the outer casing defining a central air passage communicates with the inlet and the outlet. A liquid reservoir is in an annular space between the outer casing and the inner tube. A susceptor is adjacent the central air passage, and a wick is in communication with the liquid reservoir and in thermal communication with the susceptor such that the susceptor is operable to heat the liquid material to a temperature to vaporize the liquid material and form a vapor in the central air passage. The liquid reservoir component is configured to connect with a power supply component such that an induction source is operable to generate an inductive field to heat the susceptor when powered by the power source.

A liquid reservoir component of an electronic vaping device includes an outer casing extending in a longitudinal direction, an air inlet, and a vapor outlet. An inner tube is within the outer casing defining a central air passage communicates with the inlet and the outlet. A liquid reservoir is in an annular space between the outer casing and the inner tube. A susceptor is adjacent the central air passage, and a wick is in communication with the liquid reservoir and in thermal communication with the susceptor such that the susceptor is operable to heat the liquid material to a temperature to vaporize the liquid material and form a vapor in the central air passage. The liquid reservoir component is configured to connect with a power supply component such that an induction source is operable to generate an inductive field to heat the susceptor when powered by the power source.