TW202038759A - Smoking substitute system - Google Patents

Abstract

A heat not burn device including a longitudinal heater, such that heater includes a heating track. The heating track has a first portion configured to be resistively heated to a first operating temperature when power is supplied to the heater. Further, the device includes a second portion configured to supply power to the first portion. The first operating temperature being greater than an operating temperature of the second portion. The heater includes a mount attached to the device, such that the mount is in contact with the first portion.

Description

Smoking Alternative System

The present invention is related to smoking replacement systems, and in particular (but not exclusively) to smoking replacement systems including devices with longitudinal heater rods and aerosol forming articles.

It is generally believed that smoking grass exposes smokers to potentially harmful substances. It is generally believed that a large amount of potentially harmful substances are produced through the heat caused by the burning and/or burning of tobacco and the burning tobacco components in the tobacco smoke itself.

Conventional flammable smoking products (such as cigarettes) generally include cylindrical tobacco rods and usually also include cylindrical filters. Cylindrical tobacco rods include shredded tobacco surrounded by wrapping paper, and the filter is adjacent to the wrapped tobacco rod. Align the ground axis. Filters generally include filter material enclosed by a plug sleeve. The wrapped tobacco rod and the filter are joined together by the wrapped tipping paper tape, which wraps the entire length of the filter and the adjacent part of the wrapped tobacco rod. Such conventional cigarettes are used by lighting the end opposite to the filter and burning the tobacco rod. Smokers receive mainstream smoke into their mouths by smoking at the mouth end or filter end of the cigarette.

It is known that the burning of organic materials (such as tobacco) produces tar and other potentially harmful by-products. Various smoking alternative systems (or "alternative smoking systems") have been proposed to avoid smoking grass.

This type of smoking replacement system can form part of nicotine replacement therapy, which is aimed at people who want to stop smoking and overcome their dependence on nicotine.

Smoking substitution systems include electronic systems that allow users to simulate smoking by generating smoke (also called "vapor"), which is drawn into the lungs through the mouth (inhalation) and then exhaled. Inhaled smoke generally contains nicotine and/or flavors, which do not have or have less odor and health risks associated with traditional smoking.

In general, the smoking substitution system aims to provide alternatives to smoking rituals, while at the same time providing a similar experience to users and providing satisfaction to those who have experience in traditional smoking and flammable tobacco products. Some smoking replacement systems use smoking replacement products (also called "consumables") that are designed to resemble traditional cigarettes that are cylindrical in form and have a mouthpiece at one end.

In the past few years, the popularity and use of smoking alternative systems has grown rapidly. Although originally marketed as an aid to habitual smokers who wish to quit smoking, consumers increasingly regard the smoking alternative system as a desirable lifestyle accessory.

There are many different types of smoking replacement systems, each using a different method of smoking replacement.

One method used in smoking alternative systems is the so-called heated tobacco ("HT") method, in which tobacco (rather than "e-liquid") is heated or warmed to release vapor. HT is also called "heat not burn" ("HNB"). The tobacco can be tobacco leaf or reconstituted tobacco. The vapor may contain nicotine and/or flavoring agents. In the HT method, the intention is that the tobacco is heated but not ignited, that is, the tobacco does not experience combustion.

A typical HT smoking replacement system can include equipment and consumables. The consumable may include tobacco material. The equipment and consumables can be configured to be physically coupled together. In use, the heating element of the device can be used to impart heat to the tobacco material, wherein the air flow through the tobacco material causes the components in the tobacco material to be released as vapor. The vapor may also be formed by a carrier in the tobacco material (this carrier may, for example, include propylene glycol and/or vegetable glycerin) and additional volatile compounds released from the tobacco. The released vapor can be entrained in the air stream drawn through the tobacco.

As the vapor passes through the consumable (entrained in the air stream) from the vaporization position to the outlet of the consumable (such as the mouthpiece of the cigarette holder), the vapor cools and condenses to form smoke for the user to inhale. Smoke will usually contain volatile compounds.

In the HT smoking replacement system, it is believed that heating rather than igniting the tobacco material causes fewer or smaller amounts of the more harmful compounds that are usually produced during smoking. Thus, the HT method can reduce the odor and/or health risks that may be caused by the ignition, combustion, and pyrolysis degradation of tobacco.

It may be necessary to improve the design of smoking replacement systems (especially HT smoking replacement systems) to enhance the user experience and improve the function of HT smoking replacement systems. This disclosure is designed in view of the above considerations.

In the broadest sense, the present invention is related to a heat-not-burn device that includes a longitudinal heater to heat heat-not-burn (HNB) consumables.

According to a first aspect of the present invention, there is provided a heat-not-burn device including a longitudinal heater such that the heater includes a heating rail. The heating rail has a first portion configured to be resistively heated to a first operating temperature when power is supplied to the heater. Further, the device includes a second part configured to supply power to the first part. The first operating temperature is greater than the operating temperature of the second part. The heater includes a support attached to the device such that the support is in contact with the first part.

By providing heat-not-burn equipment including longitudinal heaters of specific dimensions, a wider area of HNB consumables can be heated. The advantage caused by arranging the heater support to contact the first part of the heating rail and the first part achieves a higher temperature than the second part when using the device is that the heat dissipation effect of the support can be overcome or reduced (it will draw heat away) Away from the heater) means that the heater is therefore installed in a way that maximizes the effective area provided by the heater for vaporizing the tobacco in the consumable.

The optional features will now be listed. These features are applicable individually or in any combination with any aspect.

Alternatively, the support may be located in the first part. By providing a support in the first part, uniform heating of the heater can be achieved.

Alternatively, the heater may include a pair of heater electrodes connected to the heating rail at the second part. The heater electrode connected to the heating rail allows the heater to be heated at the desired temperature.

Conveniently, the heater electrode may be connected to the first part at a distance of at least 0.5 mm. By arranging the heater electrode to be at least 0.5 mm away from the first part, direct contact between the electrode and the heater can be prevented, thereby avoiding any potential damage to the heater electrode caused by the high temperature of the heater rod.

Optionally, these heater electrodes may be connected to the heater rail along a heater connection length greater than 1 mm. This can vary depending on the temperature that can be used to heat the heater.

Preferably, these heater electrodes may be connected to the heater rail along a heater connection length greater than 1.5 mm. This provides for heating the heater with a greater temperature.

Preferably, these heater rail electrodes are connected to the heater rail along a heater connection length greater than 2 mm. This configuration can allow a uniform and substantially larger heater heating temperature.

Conveniently, the heater includes a temperature sensor rail. The temperature sensor rail provides efficient temperature detection along the length of the heater.

Optionally, the heater includes a pair of sensor rail electrodes connected to the temperature sensor rail. The sensor electrode can provide the necessary power during operation to detect the temperature of the temperature sensor rail, and thereby provide an indication of the temperature of the heater.

Conveniently, the sensor rail electrode may be connected to the temperature sensor rail at the second part. The sensor rail electrode connected to the temperature sensor rail can allow the temperature of the heater to be detected.

Optionally, the sensor rail electrode is connected at a distance of 0.5 mm from the first position. By arranging the sensor rail electrode to be at least 0.5 mm away from the first part to prevent direct contact between the sensor rail electrode and the heater, thereby preventing damage to the sensor rail electrode from the heater rod The damage caused by the high temperature.

Conveniently, the sensor rail electrode may be connected to the temperature sensor rail along a sensor connection length greater than 1 mm. This effectively provides temperature detection of the heater.

Preferably, these sensor rail electrodes are connected to the temperature sensor rail along a sensor connection length greater than 1.5 mm. This configuration can allow better detection of the heater temperature.

Preferably, these sensor rail electrodes are connected to the temperature sensor rail along a sensor connection length greater than 2 mm. This configuration can allow the temperature of the heater to be detected uniformly and substantially better.

Optionally, the seat is at a distance of at least 0.5 mm from the end of the first part. This configuration can promote lower heat conduction toward the second part of the heater, thereby substantially preventing the temperature sensor and the heater electrode connected in the second part from overheating.

Optionally, these heater rail electrodes have a lower electrical impedance than the temperature sensor rail. The heater rail electrode has a lower electrical impedance than the temperature sensor rail, thereby minimizing the power requirement for heating the heater.

Conveniently, the heater rail electrode has a larger cross-sectional area than the temperature sensor rail. The heater rail electrode with a large cross-sectional area can be allowed to withstand high temperatures.

Optionally, these heater rail electrodes have a larger diameter than the diameter of each sensor rail electrode. The heater rail electrode with a large diameter allows high temperature resistance during heating with high thermal conductivity.

Advantageously, the heater is configured to penetrate the tobacco portion of the non-combustible consumable that is engaged with the device. The heater penetrates the tobacco portion of the heating non-combustible consumable to substantially heat the consumable to generate smoke to be inhaled by the user.

Optionally, the longitudinal heater is rod-shaped. The rod heater allows easy penetration into the consumables and uniform heating of the consumables, thereby increasing production.

The device may include an elongated body. The end of the elongate body can be configured for engagement with an aerosol forming article, such as a heated tobacco (HT) consumable. The device may include a cavity configured to receive at least a portion of the consumable (ie for engaging with the consumable). The aerosol forming article may be of a type that includes an aerosol forming agent (for example, an aerosol forming agent carried by an aerosol forming substrate).

The device may include a heater for heating the aerosol forming article. The heater may include a heating element in the form of a rod extending from the main body of the device. The heating element may extend from the end of the body configured for engagement with the aerosol forming article.

The heater (and therefore the heating element) can be rigidly mounted to the main body. The heating element may be elongated so as to define a longitudinal axis, and may for example have a substantially circular transverse profile (ie transverse to the longitudinal axis of the heating element) (ie the heating element may be substantially cylindrical). Alternatively, the heating element may have a rectangular transverse profile (ie the heater may be a "blade heater"). Alternatively, the heating element may be in the shape of a tube (ie, the heater may be a "tube heater"). The heating element may take other forms (for example, the heating element may have an oval transverse profile). The shape and/or size (for example, diameter) of the lateral profile of the heating element may be approximately the same for the entire length (or substantially the entire length) of the heating element.

The length of the heating element may be between 15 mm and 25 mm, for example between 18 mm and 20 mm, for example about 19 mm. The diameter of the heating element may be between 1.5 mm and 2.5 mm, for example between 2 mm and 2.3 mm, for example about 2.15 mm.

The heating element can be formed of ceramic. The heating element may include a core containing Al ₂ O ₃ (for example a ceramic core). The core of the heating element may have a diameter of 1.8 mm to 2.1 mm (for example between 1.9 mm and 2 mm). The heating element may include an outer layer (for example, an outer ceramic layer) containing Al ₂ O ₃ . The thickness of the outer layer may be between 160 μm and 220 μm, for example between 170 μm and 190 μm, for example about 180 μm. The heating element may include a heating rail extending longitudinally along the heating element. The heating rail can be sandwiched between the outer layer of the heating element and the core. The heating rail may include tungsten and/or rhenium. The heating rail may have a thickness of about 20 μm.

The heating element may be located in the cavity (of the device) and may extend from the inner base of the cavity towards the opening of the cavity (for example along the longitudinal axis). The length of the heating element (ie, the length along the longitudinal axis of the heater) may be less than the depth of the cavity. Therefore, the heating element may only extend up to a part of the length of the cavity. That is, the heating element may not extend through (or beyond) the opening of the cavity.

The heating element may be configured to be inserted into the aerosol-forming article (eg, HT consumable) when the aerosol-forming article is received in the cavity. In that regard, the distal end of the heating element (ie the distal end relative to the base of the heating element where the heating element is mounted to the device) can include a tapered portion, which can facilitate the insertion of the heating element into the aerosol forming article in. The heating element can completely penetrate the aerosol-forming article when it is received in the cavity. That is, the entire length or substantially the entire length of the heating element can be received in the aerosol-forming article.

The heating element may have a length that is less than or substantially the same as the axial length of the aerosol-forming substrate, which forms part of the aerosol-forming article (eg, HT consumable). Therefore, when such an aerosol-forming article is joined to a device, the heating element can only penetrate the aerosol-forming substrate, but not other parts of the aerosol-forming article. The heating element can penetrate the aerosol-forming substrate up to substantially the entire axial length of the aerosol-forming substrate of the aerosol-forming article. Therefore, when the heating element penetrates the aerosol-forming substrate, heat can be conducted from the heating element (for example, the outer peripheral surface of the heating element) to the surrounding aerosol-forming substrate. That is, the heat can be conducted radially outward (in the case of cylindrical heating elements) or, for example, radially inward (in the case of tubular heaters).

If the heater is a tube heater, the heating element of the tube heater may surround at least a part of the cavity. When a portion of the aerosol-forming article is received in the cavity, the heating element may surround a portion of the aerosol-forming article (ie in order to heat that portion of the aerosol-forming article). In detail, the heating element may surround the aerosol-forming substrate of the aerosol-forming article. In other words, when the aerosol-forming product is joined to the device, the aerosol-forming substrate of the aerosol-forming product can be located near the inner surface of the (tubular) heating element. When the heating element is activated, heat can be conducted radially inward from the inner surface of the heating element to heat the aerosol forming substrate.

The cavity may comprise (for example circumferential) one or more walls, and the (tubular) heating element may extend around at least a part of the one or more walls. In this way, the wall can be located between the inner surface of the heating element and the outer surface of the aerosol-forming article. One or more walls of the cavity may be formed of a thermally conductive material (such as metal) to allow heat conduction from the heating element to the aerosol forming article. Therefore, heat can be conducted from the heating element through one or more cavity walls to the aerosol-forming substrate of the aerosol-forming article received in the cavity.

In some embodiments, the device may include a top cover provided at the end of the main body, the top cover being configured for engagement with the aerosol forming article. If the device includes a heater with a heating element, the top cover may at least partially surround the heating element. The top cover is movable between an open position and a closed position. In the open position, the inlet and outlet are provided to the heating element, and in the closed position, the top cover at least partially surrounds the heating element. The top cover can be slidably engaged with the main body of the device, and can be slidable between an open position and a closed position.

The top cover may define at least a part of the cavity of the device. That is, the cavity may be completely defined by the top cover, or each of the top cover and the main body may define a part of the cavity. The top cover may include an opening to the cavity. The opening may be configured to receive at least a portion of the aerosol forming article. In other words, the aerosol-forming product can be inserted through the opening and inserted into the cavity (in order to engage with the device).

The top cover may be configured such that when the aerosol-forming article is engaged with the device (eg, received in the cavity), only a portion of the aerosol-forming article is received in the cavity. That is, a part of the aerosol-forming article (the part that is not received in the cavity) may protrude from the opening (ie, extend beyond the opening). This (protruding) part of the aerosol-forming article may be the terminal (eg mouth) end of the aerosol-forming article, which is received in the user's mouth for the purpose of inhaling the smoke formed by the device.

The device may include a power source or be connectable to a power source (for example, a power source separate from the device). The power source may be electrically connected to the heater. In that regard, changing (such as switching) the electrical connection of the power supply to the heater can affect the state of the heater. For example, switching the electrical connection of the power supply to the heater can switch the heater between an on state and an off state. The power source can be a power storage. For example, the power source may be a battery or a rechargeable battery (such as a lithium ion battery).

Devices can include input connections (eg, USB ports, micro USB ports, USB-C ports, etc.). The input connection can be configured for connection to an external power source, such as a main power supply socket. In some cases, the input connection can be used as an alternative to internal power sources such as batteries or rechargeable batteries. That is, the input connection can be electrically connected to the heater (to provide power to the heater). Therefore, in some forms, the input connection may form at least part of the power supply of the device.

If the power source includes a rechargeable power source (such as a rechargeable battery), the input connection can be used to charge and recharge the power source.

The device may include a user interface (UI). In some embodiments, the UI may include an input member to receive operation commands from the user. The input member of the UI may allow the user to control at least one aspect of the operation of the device. In some embodiments, the input member may include a power button to switch the device between an on state and an off state.

In some embodiments, the UI may additionally or alternatively include output components to convey information to the user. In some embodiments, the output member may include a light to indicate the condition of the device (and/or aerosol forming article) to the user. The conditions of the device (and/or aerosol forming article) indicated to the user may include conditions that indicate the operation of the heater. For example, the condition may include whether the heater is in an off state or an on state. In some embodiments, the UI unit may include at least one of buttons, displays, touch screens, switches, lights, and so on. For example, the output member may include one or more (eg, two, three, four, etc.) light emitting diodes ("LEDs") located on the body of the device.

The device may further include a puff sensor (for example, an air flu sensor) forming a part of the input member of the UI. The puff sensor can be configured to detect that the user draws on the end (ie, the terminal (mouth) end) of the smoke forming article. The puff sensor can be, for example, a pressure sensor or a microphone. The puff sensor can be configured to generate a signal indicating the state of puff. The signal may instruct the user to puff (puff the smoke from the aerosol-forming product) so that it is, for example, in the form of a binary signal. Alternatively or additionally, the signal may indicate the characteristics of the suction (for example, the flow rate of the suction, the length of time of the suction, etc.).

The device may include a controller, or may be connected to the controller, and the controller may be configured to control at least one function of the device. The controller may include, for example, a microcontroller mounted on a printed circuit board (PCB). The controller may also include memory, such as non-volatile memory. The memory may include instructions, which, when implemented, can cause the controller to perform certain tasks or steps of the method. If the device includes an input connection, the controller can be connected to the input connection.

The controller can be configured to control the operation of the heater (and, for example, the heating element). Therefore, the controller can be configured to control the vaporization of smoke forming part of the aerosol forming article engaged with the device. The controller can be configured to control the voltage applied by the power source to the heater. For example, the controller can be configured to switch between applying the full output voltage (of the power source) to the heater and not applying voltage to the heater. Alternatively or additionally, the control unit can implement more complex heater control protocols.

The device may further include a voltage regulator to adjust the output voltage supplied by the power supply to form a regulated voltage. The adjusted voltage can then be applied to the heater.

In some embodiments, if the device includes a UI, the controller may operate one or more components connected to the UI. The controller can be configured to receive command signals from the input components of the UI. The controller can be configured to control the heater in response to the command signal. For example, the controller can be configured to receive "on" and "off" command signals from the UI, and in response to this, the heater can be controlled to be in the corresponding on or off state.

The controller can be configured to send output signals to UI components. The UI can be configured to respond to such output signals (output signals received from the controller) to convey information to the user through the output component. For example, if the device includes one or more LEDs, the LEDs can be operatively connected to the controller. Therefore, the controller can be configured (for example, in response to the output signal) to control the lighting of the LED. For example, the controller can be configured to control the lighting of the LED according to the state of the heater (for example, on or off).

If the device includes a sensor (such as a puff/air flu sensor), the controller can be operatively connected to the sensor. The controller can be configured to receive signals from the sensors (signals such as indicating the condition of the device and/or the aerosol forming product being joined). The controller can be configured to control one aspect of the heater or output member based on the signal from the sensor.

The device may include a wireless interface configured for wireless communication with external devices (for example, via Bluetooth (such as Bluetooth low energy connection) or WiFi wireless communication). Similarly, the input connection can be configured for wired connection to an external device in order to provide communication between the device and the external device.

The external device can be a mobile device. For example, the external device may be a smart phone, a tablet computer, a smart watch, or a smart car. You can install applications (such as apps) on external devices (such as mobile devices). Applications can facilitate communication between the device and external devices via wired or wireless connections.

The wireless or wired interface can be configured to transmit signals between the external device and the device's controller. In this regard, the controller can control one aspect of the device in response to a signal received from the external device. Alternatively or additionally, the external device may respond to signals received by the slave device (for example, the controller of the slave device).

In a second aspect, a system (such as a smoking replacement system) is provided, and the system includes the device and an aerosol forming article as described in one aspect. The aerosol-forming article may include an aerosol-forming substrate at the upstream end of the aerosol-forming article. The product may be in the form of a smoking substitute product, such as heating tobacco (HT) consumables (also known as heating not burning (HNB) consumables).

As used in this article, the terms "upstream" and "downstream" are intended to refer to the direction of vapor/mist flow, that is, the downstream end of the product/consumable is the mouth end or outlet where the smoke leaves the consumable for inhalation by the user The flow direction of the situation. The upstream end of the product/consumable is the opposite end of the downstream end.

The aerosol-forming substrate can be heated to release at least one volatile compound that can form aerosol. The aerosol-forming substrate can be located at the upstream end of the article/consumable.

In order to generate smoke, the aerosol-forming substrate includes at least one volatile compound, which is intended to be vaporized/atomized and can provide leisure and/or medical effects to the user when inhaled. Suitable chemical and/or physiologically active volatile compounds include the group consisting of nicotine, cocaine, caffeine, opiates and opioids, norpseudoephedrine and cathinone, and carfalactone , Myristyl ether, β-carboline alkaloid, salvinorin A (salvinorin A), and any combination of the foregoing items, functional equivalents, and/or synthetic substitutes.

The aerosol-forming substrate may include plant material. The plant material may include at least one plant material selected from the list including the following items: Amaranthus dubius , Arctostaphylos uva-ursi ( Bearberry ), Argemone mexicana , Amica , Artemisia vulgaris , Yellow Tees, Galea zacatechichi , Canavalia maritima (garcanavalia) , Cecropia mexicana (Guamura), Cestrum noctumum, Cynoglossum virginianum ( wild comfrey), Cytisus scoparius, Damiana, Entada rheedii, Eschscholzia califomica ( Hualing grass), Fittonia albivenis, Hippobroma longiflora, Humulus japonica ( Japanese hops), Humulus lupulus (hops), Lactuca virosa (poison lettuce), Laggera alata, Leonotis leonurus, Leonurus cardiaca ( motherwort), Leonurus sibiricus (honey grass (Honeyweed)), Lobelia cardinalis, Lobelia inflata ( Indian tobacco), Lobelia siphilitica, Nepeta cataria (Nepeta), Nicotiana species (tobacco), Nymphaea alba (white lily), Nymphaea caerulea (blue lily), poppy, Passiflora incamata (passionflower) Pedicularis densiflora (Indian warrior) Pedicularis groenlandica (elephant head), Salvia divinorum , Salvia dorrii (tobacco sage), Salvia species (sage), Scutellaria galericulata , Scutellaria lateriflora , Scutellaria nana , Scutellaria species, Sida acuta (wire grass), Sida rhombifolia , Silene capensis , Syzygium aromaticum (Clove), Tagetes lucida (Mexican tarragon), Tarchonanthus camphoratus , Tumera diffusa (Mexican beet), Verbascum (Mulbascum), Zamia latifolia (Maconha Brava), and any of the aforementioned items Combinations, functional equivalents, and/or synthetic substitutes.

The plant material may be tobacco. Any type of tobacco can be used. This includes but is not limited to flue-cured tobacco, burley tobacco, Maryland tobacco, dark-cured tobacco, oriental tobacco, dark-cured tobacco, perique tobacco, and yellow flower tobacco. This also includes blends of the aforementioned tobaccos.

Tobacco may include one or more of the following items: leaf tobacco, stem tobacco, tobacco powder, tobacco dust, tobacco derivatives, expanded tobacco, homogenized tobacco, shredded tobacco, extruded tobacco, shredded tobacco, and/or reconstituted Tobacco (such as pulp restructuring or paper restructuring).

The aerosol-forming substrate may include agglomerated sheets of homogeneous (eg, paper/slurry reconstituted) tobacco or agglomerated fragments/strips formed from such sheets.

The aerosol-forming substrate may include one or more additives selected from the group consisting of humectants, flavorings, fillers, aqueous/non-aqueous solvents, and binders.

The seasoning can be provided in solid or liquid form. It may include menthol, licorice, chocolate, fruit flavors (including, for example, citrus, cherry, etc.), vanilla, spices (such as ginger, cinnamon), and tobacco flavors. The flavoring can be uniformly dispersed throughout the aerosol-forming substrate, or can be provided in isolated locations and/or in varying concentrations throughout the aerosol-forming substrate.

The aerosol-forming substrate can be formed in a substantially cylindrical shape so that the product/consumable is similar to a conventional cigarette. Its diameter may be between 5 and 10 mm, for example between 6 and 9 mm or between 6 and 8 mm, for example about 7 mm. Its axial length can be between 10 and 15 mm, for example between 11 and 14 mm, for example about 12 or 13 mm.

The article/consumable may include at least one filter element. There may be a terminal filter element at the downstream/oral end of the article/consumable.

The filter element or at least one of the filter element (for example, the terminal filter element) may include cellulose acetate or polypropylene fiber bundles. At least one filter element (for example, a terminal filter element) may include activated carbon. At least one filter element (for example a terminal element) may comprise paper. The or each filter element may be at least partially (for example completely) surrounded by a plug sleeve (for example a paper plug sleeve).

The final filter element (located at the downstream end of the product/consumable) can be joined to the upstream element forming the product/consumable by wrapping the tipping layer (such as the tipping paper layer). The tipping paper may have an axial length that is longer than the axial length of the terminal filter element, so that the tipping paper completely encloses the terminal filter element plus a wrapping layer surrounding any adjacent upstream elements.

In some embodiments, the article/consumable may include a smoke cooling element that is adapted to cool the smoke generated by the aerosol-forming substrate (generated by heat exchange) before the smoke is inhaled by the user.

The article/consumable may include spacer elements that define a space or cavity between the aerosol-forming substrate and the downstream end of the consumable. The spacer element may comprise a cardboard tube. The spacer elements can be bound by a (paper) wrapping layer.

According to a third aspect of the present invention, there is provided a method of using a system according to a system for a smoking substitute device. The method includes the steps of: inserting an aerosol-forming product into the device; and using a heater of the device to heat the product.

In some embodiments, the method may include the following steps: inserting the article into the cavity in the body of the device, and penetrating the article with the heating element of the device after the article is inserted.

The present invention includes combinations of the described aspects and preferred features, unless such combinations are clearly inadmissible or explicitly avoided.

The skilled person will understand that the features or parameters described with respect to any one of the above aspects can be applied to any other aspects except where they are mutually exclusive. And, except where mutually exclusive, any feature or parameter described herein can be applied to any aspect and/or combined with any other feature or parameter described herein.

The aspects and embodiments of the present invention will now be discussed with reference to the drawings. Those skilled in the art will understand additional aspects and embodiments. All documents mentioned in this article are incorporated into this article by reference.

FIG. 1A is a schematic diagram that provides a general overview of the smoking replacement system 100. The system 100 includes an alternative smoking device 101 and an aerosol forming article in the form of a consumable 102 including an aerosol 103. The system is configured to vaporize the aerosol by heating the aerosol 103 (to form a vapor/mist for inhalation by the user).

In the illustrated system, the heater 104 forms part of the consumable 102 and is configured to heat the aerosol forming agent 103. The heat from the heater 104 vaporizes the aerosol forming agent 103 to generate steam. The vapor then condenses to form smoke, which is ultimately inhaled by the user.

The system 100 further includes a power supply 105 forming part of the device 101. In other embodiments, the power supply 105 may be located outside the device 101 (but may be connected to this device). The power source 105 may be electrically connected to the heater 104 so that it can supply power to the heater 104 (ie, for the purpose of heating the aerosol forming agent 103). Therefore, control of the electrical connection of the power supply 105 to the heater 104 provides control of the state of the heater 104. The power source 105 may be a power storage, such as a battery or a rechargeable battery (such as a lithium ion battery).

The system 100 further includes an I/O module including a connector 106 (for example, in the form of a USB port, a micro USB port, a USB-C port, etc.). The connector 106 is configured for connection to an external power source (for example, a main power supply socket). The connector 106 can be used instead of the power supply 105. That is, the connector 106 may be electrically connected to the heater 104 in order to supply electric power to the heater 104. In such embodiments, the device may not include a power source, and the power source of the system may instead include the connector 106 and an external power source (the connector 106 provides electrical connection to this external power source).

In some embodiments, if the power source 104 includes a rechargeable battery, the connector 106 can be used to charge and recharge the power source 105.

The system 100 also includes a user interface (UI) 107. Although not shown, the UI 107 may include an input member to receive commands from the user. The input member of UI 107 allows the user to control at least one aspect of the operation of the system 100. The input member may be in the form of buttons, touch screens, switches, microphones, etc., for example.

The UI 107 also includes output components to convey information to the user. The output member may include, for example, a lamp (such as an LED), a display screen, a speaker, a vibration generator, and so on.

The system 100 further includes a controller 108 configured to control at least one function of the device 101. In the illustrated embodiment, the controller 108 is an element of the device 101, but in other embodiments, it can be separated from the device 101 (but can be connected to this device). The controller 108 is configured to control the operation of the heater 104, and may be configured to control the voltage applied from the power source 105 to the heater 104, for example. The controller 108 can be configured to switch the supply of power to the heater 105 between an on state and an off state. In the on state, the full output voltage of the power supply 105 is applied to the heater 104, and in the off state, no The heater 104 applies voltage.

Although not shown, the system 100 may also include a voltage regulator to regulate the output voltage from the power supply 105 to form a regulated voltage. The adjusted voltage can then be applied to the heater 104.

In addition to being connected to the heater 104, the controller 108 is also operatively connected to the UI 107. Therefore, the controller 108 can receive an input signal from the input member of the UI 107. Similarly, the controller 108 can transmit an output signal to the UI 107. In response to this, the output component of the UI 107 can convey information to the user based on the output signal.

FIG. 1B is a schematic diagram showing a modification of the system 100 of FIG. 1A. In the system 100' of FIG. 1B, the heater 104 forms a part of the consumable 102 instead of the device 101. In this modification, for example, when the consumable 102 is engaged with the device 101, the heater 104 may be electrically connected to the power source 105.

2A and 2B illustrate a heated tobacco (HT) smoking replacement system 200. The system 200 is an example of the system 100, 100' described in relation to FIG. 1A or 1B. The system 200 includes HT equipment 201 and HT consumables 202. The above description of FIGS. 1A and 1B can be applied to the system 200 of FIGS. 2A and 2B, and will therefore not be repeated.

The device 201 and the consumable 202 are configured such that the consumable 202 can be coupled with the device 201. FIG. 2A shows the device 201 and the consumable 202 in an engaged state, and FIG. 2B shows the device 201 and the consumable 202 in a disengaged state.

The device 201 includes a main body 209 and a top cover 210. In use, the top cover 209 is joined at the end of the main body 209. Although it cannot be seen from the drawing, the top cover 210 is movable relative to the main body 209. In detail, the top cover 210 is slidable and can slide along the longitudinal axis of the main body 209.

The device 201 includes an output member in the form of a plurality of light emitting diodes (LEDs) 211 (forming a part of the UI of the device 201), and these LEDs 211 are linearly arranged along the longitudinal axis of the device 201 and arranged in the main body of the device 201 209 on the outer surface. The button 212 is also arranged on the outer surface of the main body 209 of the device 201 and is axially spaced apart from the LEDs 211 (ie, spaced along the longitudinal axis).

FIG. 2C shows a detailed cross-sectional view of the consumables of 202 of the system 200. The consumable 202 is roughly similar to a cigarette. In that regard, the consumable 202 has a generally cylindrical form with a diameter of 7 mm and an axial length of 70 mm. The consumable 202 includes an aerosol-forming substrate 213, a terminal filter element 214, an upstream filter element 215, and a spacer element 216. In other embodiments, the consumable may further include a cooling element. The cooling element may exchange heat with the vapor formed by the aerosol-forming substrate 213 to cool the vapor to promote condensation of the vapor.

The aerosol forming substrate 213 is substantially cylindrical and located at the upstream end 217 of the consumable 202 and includes the aerosol forming agent of the system 200. In that regard, the aerosol-forming substrate 213 is configured to be heated by the device 201 to release vapor. The released vapor is then entrained in the air stream flowing through the aerosol-forming substrate 213. The air flow is generated by the user's action of sucking on the downstream 218 (ie, the terminal or the mouth end) of the consumable 202.

In this embodiment, the aerosol-forming substrate 213 includes a tobacco material, and the tobacco material may, for example, include any suitable part of a tobacco plant (such as leaves, stems, roots, bark, seeds, and flowers). Tobacco may include one or more of the following items: leaf tobacco, stem tobacco, tobacco powder, tobacco dust, tobacco derivatives, expanded tobacco, homogenized tobacco, shredded tobacco, extruded tobacco, shredded tobacco, and/or reconstituted Tobacco (such as pulp restructuring or paper restructuring). For example, the aerosol-forming substrate 213 may include agglomerated pieces of homogeneous (eg, paper/pulp reconstituted) tobacco or agglomerated fragments/strips formed from such sheets.

In order to generate smoke, the aerosol-forming substrate 213 includes at least one volatile compound, which is intended to be vaporized/atomized and can provide leisure and/or medical effects to the user when inhaled. The aerosol-forming substrate 213 may further include one or more additives. For example, such additives may be in the form of wetting agents (such as propylene glycol and/or vegetable glycerin), flavors, fillers, aqueous/non-aqueous solvents, and/or binders.

The terminal filter element 214 is also substantially cylindrical, and is located downstream of the aerosol-forming substrate 213 and located at the downstream end 218 of the consumable 202. The terminal filter element 214 is in the form of a hollow cavity filter element and has a cavity 219 formed therethrough (for example for air flow). The diameter of the cavity 219 is 2 mm. The terminal filter element 214 is formed of a porous (for example, monoacetate) filter material. As described above, the downstream end 218 of the consumable 202 (ie, where the terminal filter 214 is located) forms the mouthpiece of the consumable 202, and the user draws on the mouthpiece. Air flow is drawn from the upstream end 217, through the components of the consumable 202, and drawn from the downstream end 218. The air flow is driven by the user who draws on the downstream end 218 (ie, the mouth portion of the cigarette holder) of the consumable 202.

The upstream filter element 215 is axially located near the aerosol forming substrate 213 and between the aerosol forming substrate 213 and the terminal filter element 214. Similar to the final filter 214, the upstream filter element 215 is in the form of a hollow cavity filter element such that it has a cavity 220 extending axially through the hollow cavity filter element. As such, the upstream filter 215 can act as an air flow restrictor. The upstream filter element 215 is formed of a porous (for example, monoacetate) filter material. The cavity 220 of the upstream filter element 214 has a larger diameter (3 mm) than the final filter element 214.

The spacer 216 is in the form of a cardboard tube, and defines a cavity or chamber between the upstream filter element 215 and the terminal filter element 214. The spacer 216 is used to allow the vapor/smoke from the aerosol forming substrate 213 to cool and mix. The spacer has an outer diameter of 7 mm and an axial length of 14 mm.

Although not visible from the drawing, the aerosol-forming substrate 213, the upstream filter 215, and the spacer 216 are surrounded by a paper wrapper. The terminal filter 214 is bound by a tipping layer, which also wraps a part of the paper wrapping layer (in order to connect the terminal filter 214 to the remaining parts of the consumable 202). The upstream filter 215 and the final filter 214 are surrounded by another wrapper in the form of a plug sleeve.

Now returning to the device 201, FIG. 2D shows a detailed view of the end of the device 201, which is configured to be engaged with the consumable 202. The top cover 210 of the device 201 includes an opening 221 (which can be better seen from FIG. 2D) leading to an internal cavity 222 defined by the top cover 210. The opening 221 and the cavity 222 are formed to receive at least a part of the consumable 202. During the joining of the consumable 202 and the device 201, a part of the consumable 202 is received through the opening 221 and received into the cavity 222. After engagement (refer to FIG. 2B ), the downstream end 218 of the consumable 202 protrudes from the opening 221 and therefore also protrudes from the device 201. The opening 221 includes a notch 226 disposed laterally. When the consumable 202 is received in the opening 221, these notches 226 remain open and can be used, for example, to hold the cover in place to cover the end of the device 201.

Figure 2E shows a cross-section through a central longitudinal plane, which passes through the device 201. The device 201 is shown engaged with the consumable 202.

The device 201 includes a longitudinal heater 204 containing a heating element 223. The longitudinal heater 204 forms a part of the main body 209 of the device 201 and is rigidly mounted to the main body 209. In the illustrated embodiment, the longitudinal heater 204 is a rod heater with a heating element 223, which has a circular transverse profile. In other embodiments, the heater may be in the form of a blade heater (for example, a heating element with a rectangular transverse profile) or a tube heater (for example, a heating element with a tubular form).

The heating element 223 of the heater 204 protrudes from the inner base of the cavity 222 toward the opening 221 along the longitudinal axis. As is clear from FIG. 2E, the length of the heating element (ie along the longitudinal axis) is less than the depth of the cavity 222. In this way, the heating element 223 does not protrude from the opening 221 or extend beyond the opening.

When the consumable 202 is received in the cavity 222 (as shown in FIG. 2E ), the heating element 223 penetrates the smoke forming substrate 213 of the consumable 202. In detail, when the heating element 223 is inserted in the aerosol-forming substrate 213, the heating element extends almost the entire axial length of the aerosol-forming substrate. Therefore, when the heater 204 is activated, heat is conducted radially from the outer peripheral surface heating element 223 to the aerosol-forming substrate 213.

2F, the longitudinal heater 204 includes a heating rail, so that the heating rail includes a first part 250 and a second part 260. The first heating part 250 may be configured to be resistively heated to the first operating temperature when power is supplied to the heater 204. Further, the second heating part 260 is configured to supply power to the first part 250 so that the operating temperature of the first part 250 is greater than the opening temperature of the second part. In one embodiment, the first part 250 may extend from the support 251 to a length of 12 mm. In one embodiment, the first portion 250 may extend from the support 251 to a length ranging from about 8 mm to 20 mm. Preferably, the first part 250 may extend from the support 251 to a length of 10 mm to 18 mm. The first part 250 may be bounded by a first end 252 (which may be a tip) and a second end 253 (which may be a base). In a certain embodiment, the tip portion may be part of the first part. The first end of the heater 204 may include a placement cone extending to a length of at least 2 mm at the first end 252 of the heater 204. Further, the second part 260 extends longitudinally below the first part 250 along the longitudinal axis of the device 201. The second portion 260 may extend from the second end 253 of the first portion 250 to a length of 2.5 mm to 3 mm. Further, the heater 204 may be made of alumina.

The heater 204 further includes a support 251 (shown in FIG. 2E) attached to the device 201, so that the support 251 is in contact with the first part 250 of the heater 204 and is located in the first part 250 of the heater 204. In one embodiment, the support 251 can be positioned at least 0.5 mm away from the end of the first part 250 so that the support 251 can be positioned at least 0.5 mm above the second end 253 of the first part 250. The support 251 may be provided between the first part 250 and the second part 260. In this regard, the operating temperature of the first part 250 may be high relative to the second part 260 of the heater 204. When viewed from the top, the shape of the support can be square, and the dimension of the support can be 4 mm. Further, the support can be made of zirconia material.

The heater 204 further includes a pair of heater electrodes 261 (also referred to as heater rail electrodes) connected to the heating rail at the second part 260. The heater rail may be arranged in the heater (ie, tubular heater), and the heater rail may extend along the longitudinal length of the heater 204. The heater rail can be made of rhodium (Rh) and tungsten (Wr). The heater rail may have a temperature coefficient of resistance of 1000 (TCR 1000) for heating. In one embodiment, the heater rail electrode is connected to the first part 250 at a distance of at least 0.5 mm. In this regard, the heater rail electrode 260 is connected at least 0.5 mm below the second end 253 of the first part 250. The heater rail electrode 261 is connected to the heater rail (not shown in the drawing) along a heater connection length 262 greater than 1 mm. Preferably, the heater rail electrode 261 may be connected to the heater rail (not shown in the drawings) along a heater connection length 262 greater than 1.5 mm. More preferably, the heater rail electrode 261 may be connected to the heater rail (not shown in the drawings) along a heater connection length 262 greater than 2 mm. Further, four heater electrodes can be arranged on the second part 260 through the metal wire 266. The wire may be 20 mm long with respect to the bottom of the heater 204. Also, the wire 266 may have a diameter of 0.5 mm, and may be made of nickel.

In terms of the above, the area located 0.5 mm below the second end 253 of the first part 250 and up to the second part 260 may be the buffer area 254 of the heating zone 256. In an embodiment, the second part may include a connection area 262 and a wire area 265. The connection area 262 may extend to a length of at least 2 mm.

The heater 204 includes a temperature sensor rail (not shown in the drawings). The heater 204 may further include a pair of sensor rail electrodes 263 connected to the temperature sensor rail. Further, the sensor rail electrode 263 is connected to the temperature sensor rail at the second part 260. The sensor rail can be located in the heater 204. The sensor rail can be arranged in the heater 204 (ie, tubular heater), and the sensor rail can extend along the longitudinal length of the heater 204. The sensor rail can be made of tungsten, which has a temperature coefficient of resistance of 4000 (TCR 4000) for temperature sensing. Further, the sensor rail electrode 263 is connected to the temperature sensor rail along a sensor connection length greater than 1 mm. Preferably, the sensor rail electrode 263 may be connected to the temperature sensor rail along a sensor connection length greater than 1.5 mm. More preferably, the sensor rail electrode 263 may be connected to the temperature sensor rail along a sensor connection length greater than 2 mm. In the illustrative configuration, four sensor rail electrodes can be configured in the second portion 260 through metal wires 266 connected to the power source. The wire may be 20 mm long with respect to the bottom of the heater 204. Also, the wire 266 may have a diameter of 0.5 mm, and may be made of nickel.

Further, the heater rail electrode 261 may have a larger cross-sectional area than the temperature sensor rail. In this regard, each heater rail electrode 261 has a diameter larger than the diameter of each sensor rail electrode 263. In one embodiment, the heater rail may have a diameter of 0.4 mm, and the temperature sensor rail may have a diameter of 0.3 mm.

In another aspect, the first part 250 may be the heating zone 256 of the heater 204. The heating zone 256 may have a material that is always used in the heater 204 for heating or for temperature sensing. The connection area 262 may include a heater rail electrode 261 and a sensor rail electrode 263 that are circumferentially attached to the heater 204. The wire area 265 may include a plurality of wires 266 to connect the heater to a power source to supply power to the second portion 260 of the heater 204 for heating the first portion 250 of the heater 204. Further, this geometry allows the use of a material having a lower thermal conductivity than the material of the heater (alumina) to cover many areas while covering a wider heating area.

The longitudinal heating element 204 is configured to penetrate the tobacco portion of the consumable that is engaged with the device. Further, the heater 204 may be rod-shaped and located in the center of the device.

The device 202 further includes an electronic device cavity 224. The power source (in the form of a rechargeable battery 205 (lithium ion battery)) is located in the electronic device cavity 224.

The device 202 includes a connector in the form of a USB port 206 (ie forming part of the IO module of the device 201). For example, the connector may alternatively be, for example, a micro USB port or a USB-C port. The USB port 206 can be used to recharge the rechargeable battery 205.

The device 202 includes a controller (not shown) located in the cavity 224 of the electronic device. The controller includes a microcontroller mounted on a printed circuit board (PCB). The USB port 206 is also connected to the controller 208 (ie to the PCB and microcontroller).

The controller 208 is configured to control at least one function of the device 202. For example, the controller 208 is configured to control the operation of the heater 204. Such control of the operation of the heater 204 can be accomplished by the controller switching the electrical connection of the rechargeable battery 205 to the heater 204. For example, the controller 208 is configured to control the heater 204 in response to the user pressing the button 212. Depressing the button 212 may cause the controller to allow voltage (from the rechargeable battery 205) to be applied to the heater 204 (in order to heat the heating element 223).

The controller is also configured to control the LED 211 in response to (eg, detected) conditions of the device 201 or the consumable 202. For example, the controller may control the LED to indicate whether the device 201 is in the on state or the off state (for example, when the device is in the on state, one or more of the LEDs may be lit by the controller).

The device 202 includes an additional input member in the form of a puff sensor 225 (ie, an input member other than the button 212). The puff sensor 225 is configured to detect that the user draws (ie inhales) at the downstream end 218 of the consumable 202. The puff sensor 225 may be in the form of a pressure sensor, a flow meter, or a microphone, for example. The puff sensor 225 is operatively connected to the controller 208 in the cavity 224 of the electronic device, so that the signal indicating the puff state (that is, puffing or not puffing) from the puff sensor 225 forms a signal to the controller 208 Input (and can therefore be responded to by the controller 208).

The features disclosed in the foregoing description, or in the scope of the following patent applications, or in the drawings can be used alone or in any combination of such features to implement the present invention in various forms, as appropriate, etc. Features are expressed in their specific forms or in terms of means for performing the disclosed functions, or methods or procedures for obtaining the disclosed results.

Although the present invention has been described in conjunction with the above exemplary embodiments, when this disclosure is given, those skilled in the art will understand many equivalent variations and modifications. Therefore, the exemplary embodiments of the invention set forth above are considered to be illustrative and non-limiting. Various changes to the described embodiments can be made without departing from the spirit and scope of the present invention.

For the avoidance of any doubt, any theoretical explanation provided in this article is provided for the purpose of improving readers' understanding. The inventor does not wish to be bound by any of these theoretical explanations. Any section headings used in this article are for organizational purposes only and are not construed as limiting the subject matter described.

Throughout this specification (including the scope of patent applications below), unless the context requires otherwise, the terms "having", "including", and "including" and their variants will be understood to imply inclusion of the stated integer or Steps, or integers or groups of steps, but do not exclude any other integers or steps, or groups of integers or steps.

It must be noted that, as used in the scope of this specification and the accompanying patent application, the singular forms "a", "an", and "the" include plural referents, unless the context clearly indicates otherwise. Ranges can be expressed herein as from "about" one specific value and/or to "about" another specific value. When expressing such a range, another embodiment includes from one specific value and/or to another specific value. Similarly, when a value is expressed as an approximation by using the antecedent "about", it will be understood that this particular value forms another embodiment. The term "about" with respect to numerical values is optional and means, for example, +/-10%.

The terms "preferably" and "preferably" are used herein to refer to embodiments of the present invention that can provide certain benefits in some cases. However, it is to be understood that other embodiments may also be preferred under the same or different conditions. Therefore, the description of one or more preferred embodiments does not imply or imply that other embodiments are useless, and are not intended to exclude other embodiments from the scope of this disclosure or the scope of the patent application.

100: Smoking Alternative System 101: Alternative smoking equipment 102: Consumables 103: Smoke forming agent 104: heater 105: Power 106: Connector 107: User Interface (UI) 108: Controller 200: Smoking Alternative System 201: HT equipment 202: HT consumables 204: Longitudinal heater 205: Rechargeable battery 206: USB port 208: Controller 209: Subject 210: top cover 211: Light-emitting diode (LED) 212: Button 213: Smoke forming substrate 214: terminal filter element 215: Upstream filter element 216: Spacer element 217: Upstream 218: Downstream 219: Hole 220: cavity 221: open 222: cavity 223: heating element 224: Electronic device cavity 225: Puff Sensor 226: Notch 250: Part One 251: Support 252: first end 253: second end 254: buffer area 256: heating zone 260: Part Two 261: heater electrode 262: heater connection length 263: Sensor rail electrode 265: Wire area 266: Wire 100’: System

The embodiments that illustrate the principles of the present invention will now be discussed in more detail with reference to the accompanying drawings, so that the present invention can be understood and other aspects and features of the present invention can be understood. In the accompanying drawings:

Figure 1A is a schematic diagram of a smoking replacement system;

Figure 1B is a schematic diagram of a modification of the smoking replacement system of Figure 1A;

Figure 2A is a front view of the first embodiment of the smoking replacement system, in which the consumable is engaged with the device;

Figure 2B is a front view of the first embodiment of the smoking substitution system, where the consumables are detached from the device;

2C is a cross-sectional view of the consumables of the first embodiment of the smoking replacement system;

Figure 2D is a detailed view of the end of the device of the first embodiment of the smoking replacement system;

Figure 2E is a cross-sectional view of the first embodiment of the smoking replacement system; and

Figure 2F is a front view of the heater of the smoking replacement system.

Domestic deposit information (please note in the order of deposit institution, date and number) no Foreign hosting information (please note in the order of hosting country, institution, date and number) no

204: Longitudinal heater

250: Part One

251: Support

252: first end

253: second end

254: buffer area

256: heating zone

260: Part Two

261: heater electrode

262: heater connection length

263: Sensor rail electrode

265: Wire area

266: Wire

Claims (14)

A heat-not-burn equipment (201), including: A longitudinal heater (204), the heater including a heating rail, wherein the heating rail has a first portion (250) configured to resist ground when power is supplied to the heater (204) Heated to a first operating temperature; and A second part (260) is configured to supply power to the first part (250), the first operating temperature is greater than an operating temperature of the second part (260), wherein the heater (204) includes an attachment to A support (251) of the device (201), the support (251) contacts the first part (250). The heating and non-combustion device according to claim 1, wherein the support (251) is located in the first part (250). The heating and non-combustion device according to claim 1 or 2, wherein the heater (204) includes a pair of heater electrodes (261), and the heater electrodes are connected to the heating rail at the second part (260) road. The heating non-combustion device according to claim 3, wherein the heater electrodes (261) and the first part (250) are connected at least 0.5 mm apart. The heating non-combustion device according to claim 3, wherein the heater electrodes (261) are connected to the heater rail along a heater connection length (262) greater than 1 mm. The heating non-combustion device according to claim 1 or 2, wherein the heater (204) includes a temperature sensor rail. The heating non-combustion device according to claim 6, wherein the heater includes a pair of sensor rail electrodes (263) connected to the temperature sensor rail. The heating non-combustion device according to claim 7, wherein the sensor rail electrodes (263) are connected to the temperature sensor rail at the second part (260). The heating non-combustion device according to claim 7, wherein the sensor rail electrodes (263) and the first part (250) are connected at least 0.5 mm away. The heating non-combustion device according to claim 7, wherein the sensor electrodes (263) are connected to the temperature sensor track along a sensor connection length (262) greater than 1 mm. The heating non-combustion device according to claim 1 or 2, wherein the support (251) is located at a position at least 0.5 mm away from one end of the first part (250). For the heating and non-combustion equipment described in claim 6, when dependent on claim 3, the heater electrodes (261) provide lower electrical impedance than the temperature sensor rail. For the heating and non-combustion equipment according to claim 6, when dependent on claim 3, the heater electrodes (261) include a cross-sectional area larger than the temperature sensor track. The heat-not-burn device according to claim 1 or 2, wherein the heater (204) is configured to penetrate a tobacco portion of a heat-not-burn consumable (202) joined to the device (201).

Images