An electric heating cloth having gaps and a connection structure thereof are disclosed. The electric heating cloth having gaps comprises plural conductive yarns arranged in a first direction and plural textile yarns and plural metal conductive wires arranged in a second direction for interweaving with the plural conductive yarns. The plural metal conductive wires are aligned at external sides of the plural textile yarns to form a first conductive side and a second conductive side respectively, and each of the first conductive side and the second conductive side has plural gaps.

A cartridge for an aerosol-generating system is provided, including: a liquid storage portion including a housing containing a liquid aerosol-forming substrate, the housing having an open end; and a fluid-permeable heater assembly including: an electrical heating element configured to heat the liquid aerosol-forming substrate to form an aerosol, the electrical heating element including a planar filament arrangement having one or more electrically conductive filaments, an electrically insulating substrate including a ceramic material and having a planar attachment face, the filament arrangement disposed in contact with the planar attachment face, and connectors arranged at opposite ends of the electrical heating element and forming two separate electrical contacts configured to apply power to the filament arrangement, the fluid-permeable heater assembly being arranged over the open end of the housing.

This disclosure provides a heating device. The heating device comprises an electrically conductive fabric and first and second electrical connections. The first and second electrical connections are each connected to the conductive fabric at a first end of the device. When the electrical connections are connected to a power source current flows from the first electrical connection, though the conductive fabric and to the second electrical connection thereby generating heat.

A flexible heating device includes a pouch defined in-part by a flexible heating textile that defines a cavity. The size of the cavity defined by the pouch is adjustable to snugly receive objects, e.g., sex toys, of different sizes. In embodiments, the pouch supports closing structure to facilitate adjustment of the size of the cavity to accommodate different size objects. In embodiments, the flexible heating textile includes an adapter that receives power from a power source such as a battery or wall plug to heat the flexible heating textile.

Disclosed is the use of a boron nitride nanotube (BNNT) fabric as a skin for protection of nano-carbon heaters used for de-icing aircrafts or other vehicles. This allows the heaters to be resistant to hail, bird, and other mechanical striking damages, and can be applied to parts of aircraft that require acoustic protection.

An aerosol-generating system including a liquid storage portion is provided, the portion including a rigid housing holding a liquid aerosol-forming substrate, the housing having an opening and a fluid permeable heater assembly including a plurality of electrically conductive filaments, wherein the fluid permeable heater assembly is fixed to the housing and extends across the opening of the housing. The provided heater assembly that extends across an opening of a liquid storage portion allows for a robust construction that is relatively simple to manufacture and allows for a large contact area between the heater assembly and liquid aerosol-forming substrate. The heater assembly may be substantially flat, allowing for simple manufacture.

An aerosol-generating system including a liquid storage portion is provided, the portion including a rigid housing holding a liquid aerosol-forming substrate, the housing having an opening and a fluid permeable heater assembly including a plurality of electrically conductive filaments, wherein the fluid permeable heater assembly is fixed to the housing and extends across the opening of the housing. The provided heater assembly that extends across an opening of a liquid storage portion allows for a robust construction that is relatively simple to manufacture and allows for a large contact area between the heater assembly and liquid aerosol-forming substrate. The heater assembly may be substantially flat, allowing for simple manufacture.

A flexible electric heater integrated in a fabric has a surface extending substantially in a two-dimensional plane and including at least one heating strip approximately parallel to the fill threads, electrically connected to strips of electrically conducting wires arranged approximately parallel to the warp threads, next to different portions of the fabric. The at least one heating strip includes a plurality of electrically heating fill threads intertwined with the fabric and each strip of electric conducting wires includes a plurality of electrically conducting warp threads intertwined with the fabric, the plurality of electrically heating weft threads being intertwined with the plurality of electrically conducting warp threads. A process is described of making a flexible electric heater integrated in a fabric.

An aerosol-generating system including a fluid-permeable electric heater assembly is provided, the fluid-permeable electric heater assembly including: an electrically insulating substrate; an aperture formed in the electrically insulating substrate; and a heater element fixed to the electrically insulating substrate, the heater element spanning the aperture and comprising a plurality of electrically conductive filaments connected to first and second electrically conductive contact portions, the first and the second electrically conductive contact portions disposed on opposite sides of the aperture to one another, and the plurality of electrically conductive filaments form interstices, the first and the second electrically conductive contact portions being configured to allow contact with an external power supply; and the aerosol-generating system having a longitudinal axis and the heater element being substantially flat and extending parallel to the longitudinal axis.

Active fabrics can be created by combining active and passive materials. Active materials with shape memory or other actuation characteristics can generate compression or dynamic fit, and the level of compression and/or change in fit can be determined by setting a knit index, wire diameter, and garment ease, or fit in relation to the body. Maximum compression can be set not only by varying physical properties of the knit structure but by built-in circuit breaking technologies, or by segmentation and control of the garment by a controller. In some embodiments, additive manufacturing can be combined with traditional textile equipment (e.g., circular knitting machine). Uniquely functional or active textiles can be made from additively manufactured, heterogeneous filaments. Yarn-like filament with varying properties (such as elasticity, stiffness, conductivity, activation, or surface properties) can be additively manufactured. This filament can be formed into a textile or garment with functional properties that are a results of emergent interactions between the heterogeneous filament components.