A heater element including a honeycomb structure and a functional material-containing layer, wherein the honeycomb structure has an outer peripheral wall and partition walls provided inside the outer peripheral wall, the partition walls partitioning a plurality of cells that form flow paths extending from an inlet end surface to an outlet end surface, and at least the partition walls are made of a material having PTC characteristics, and wherein the functional material-containing layer is provided on a surface of the partition walls, and a thickness of the functional material-containing layer increases from the inlet end surface toward the outlet end surface.

A cartridge of an e-vaping device includes a housing extending in a longitudinal direction, a reservoir in the housing, a heater in the housing, and an absorbent material at least partially surrounding the sinusoidal shaped member. The reservoir is configured to store a pre-vapor formulation. The heater has a sinusoidal shaped member translating about an elliptical shape to define a channel there through. The absorbent material is in fluid communication with the reservoir.

A cartridge of an e-vaping device includes a housing extending in a longitudinal direction, a reservoir in the housing, a heater in the housing, and an absorbent material at least partially surrounding the sinusoidal shaped member. The reservoir is configured to store a pre-vapor formulation. The heater has a sinusoidal shaped member translating about an elliptical shape to define a channel there through. The absorbent material is in fluid communication with the reservoir.

A heating device includes a base; a supporter disposed on the base, the supporter has a chamber therein and the chamber being configured for receiving the tobacco cigarette; an electromagnetic induction coil, wound around the supporter and configured for generating an alternative magnetic field in the chamber; at least one first heating element disposed in the chamber; when the tobacco cigarette is disposed in the chamber, the at least one first heating element contacts an outer surface of the tobacco cigarette and is configured for generating a vortex in the alternative magnetic field to heat the tobacco cigarette; and a second heating element disposed on the base; when the tobacco cigarette is disposed in the chamber, the second heating element is inserted into the tobacco cigarette and configured to generate a vortex in the alternative magnetic field to heat the tobacco cigarette.

A heating device includes a base; a supporter disposed on the base, the supporter has a chamber therein and the chamber being configured for receiving the tobacco cigarette; an electromagnetic induction coil, wound around the supporter and configured for generating an alternative magnetic field in the chamber; at least one first heating element disposed in the chamber; when the tobacco cigarette is disposed in the chamber, the at least one first heating element contacts an outer surface of the tobacco cigarette and is configured for generating a vortex in the alternative magnetic field to heat the tobacco cigarette; and a second heating element disposed on the base; when the tobacco cigarette is disposed in the chamber, the second heating element is inserted into the tobacco cigarette and configured to generate a vortex in the alternative magnetic field to heat the tobacco cigarette.

A heating element for heating cigarette and a heater are disclosed, the heating element includes: a heating part at a proximal end of the heating element, with a longitudinal axis along the longitudinal direction of the heating element; the heating part is configured for inserting inside the cigarette along the longitudinal direction; a fixing part at a distal end of the heating element and secured with the heating part, the fixing part is provided with an air inlet; the heating part comprises an air flow path formed therein and extending along the longitudinal direction; the air inlet is in communication with the air flow path; the heating part is bored with an air hole that communicates the air flow path with outside the heating part, such that the air flow in the air flow path is flowing into the cigarette.

A heating element for heating cigarette and a heater are disclosed, the heating element includes: a heating part at a proximal end of the heating element, with a longitudinal axis along the longitudinal direction of the heating element; the heating part is configured for inserting inside the cigarette along the longitudinal direction; a fixing part at a distal end of the heating element and secured with the heating part, the fixing part is provided with an air inlet; the heating part comprises an air flow path formed therein and extending along the longitudinal direction; the air inlet is in communication with the air flow path; the heating part is bored with an air hole that communicates the air flow path with outside the heating part, such that the air flow in the air flow path is flowing into the cigarette.

Provided is a smoking member supporting device which is placed in an arrangement region with or without a smoking member mounted thereon, the smoking member supporting device including a base unit including an arrangement surface corresponding to the arrangement region; an accommodating unit formed adjacent to the base unit and configured to accommodate at least one region of the smoking member; a hook unit formed at an edge of the accommodating unit to define the accommodating unit and to maintain a state that the smoking member is accommodated in the accommodating unit and mounted; and a connecting unit formed to face the smoking member when the smoking member is accommodated in the accommodating unit and to supply electrical energy to the smoking member.

A heated drain or vent pipe system provides a low-cost and efficient temperature regulator for drain or vent pipes that are exposed to freezing temperatures to prevent the pipes from freezing. The heated pipe system includes an embedded resistance wire connected to a transformer that supplies a low voltage of electricity to the resistance wire. The resistance wire heats up due to electricity passing through the wire and transfers that heat to the pipe. The resistance wire is embedded in the wall of the pipe and maintains the pipe at a temperature above freezing. The heated pipe system may include a safety limit switch to disable the flow of electricity to the resistance wires if the pipe is overheating. The heated pipe system can be installed with air conditioning system drains, roof drains, and two-way vents that are exposed to freezing temperatures.

A video endoscope including: an elongated shaft having an inner shaft tube and an outer shaft tube; and an electrical connecting element extending in a longitudinal direction of the shaft between the inner shaft tube and the outer shaft tube. Wherein the electrical connecting element is configured as a flexible printed circuit board with at least one conducting path which is routed substantially parallel to a longitudinal axis of the shaft, and the electrical connecting element is routed at an angle with respect to the longitudinal axis of the shaft at at least one location of the shaft.