Smoking body, cartridge, and electronic cigarette

Abstract

The application relates to a smoking body, a smoke cartridge and an electronic cigarette, wherein the smoking body comprises: a carrier substrate configured to store an aerosol substrate; and a heating body configured to heat the aerosol substrate; the extension direction of the carrier substrate and the extension direction of the heating body interfere with each other, so that the carrier substrate and the heating body are configured to be synchronously extended as a whole. The application has the beneficial effect of providing a smoking body, a smoke cartridge and an electronic cigarette capable of relatively uniform heating.

Description

[0001] This application claims priority to Chinese patent application No. 202510107100.2, filed on January 22, 2025, entitled "Smoke Generating Device, Smoke Cartridge, Smoke Generating Body and Preparation Method thereof", the entire contents of which are incorporated herein by reference. Technical Field

[0002] This application mainly relates to the field of smoke generator technology based on aerosol matrix, and particularly to a smoke generator, a cartridge, and an electronic cigarette. Background Technology

[0003] In related technologies, the carrier substrate for storing aerosol matrix and the heating element for heating the aerosol matrix are often combined into a whole, so that the heating element generates a temperature field that causes the aerosol matrix stored in the carrier substrate to volatilize, thereby generating aerosols.

[0004] However, the temperature field of the heating element in the relevant technology is relatively concentrated, which leads to uneven aerosol generation. Summary of the Invention

[0005] This application provides a smoke generator, a tobacco cartridge, and an electronic cigarette to at least partially solve the above-mentioned technical problems.

[0006] To achieve the above objectives, according to a first aspect of this application, a smoke-generating body is provided, comprising: The carrier substrate is configured to store aerosol matrix; The heating element is configured to heat an aerosol matrix; The extension direction of the carrier interferes with the extension direction of the heating element, so that the carrier and the heating element are constructed as a whole that can extend synchronously.

[0007] Optionally, in some embodiments of this application, at least a portion of at least one of the carrier and the heating element covers at least a portion of the other.

[0008] Optionally, in some embodiments of this application, one of the carrier and the heating element located on the outer side is provided with a through-body channel, so that the one of the carrier and the heating element located on the inner side communicates with the outside.

[0009] Optionally, in some embodiments of this application, the extending direction of the body-penetrating channel intersects with the extending direction of the whole.

[0010] Optionally, in some embodiments of this application, the different penetrating channels have different extension directions.

[0011] Optionally, in some embodiments of this application, the outer component of the carrier and the heating element is configured as a thread and spirally wound to cover the inner component of the carrier and the heating element.

[0012] Optionally, in some embodiments of this application, the space between the two edges of the outermost one of the carrier and the heating element in its extending direction constitutes the through-body channel.

[0013] Optionally, in some embodiments of this application, the carrier and / or the heating element are configured as a filament.

[0014] Optionally, in some embodiments of this application, at least a portion of the heating element covers at least a portion of the carrier in the overall extension direction.

[0015] Optionally, in some embodiments of this application, in a first interval along the overall extension direction, at least a portion of the carrier covers at least a portion of the heating element; and in a second interval along the overall extension direction, at least a portion of the heating element covers at least a portion of the carrier.

[0016] Optionally, in some embodiments of this application, the whole is constructed as a composite linear structure consisting of the carrier and the heating element wound together. And / or, the whole is constructed as a composite linear structure consisting of the carrier and the heating element stacked in a layered manner.

[0017] According to a second aspect of this application, a smoke cartridge is provided, comprising the smoke-generating body described above.

[0018] According to a third aspect of this application, an electronic cigarette is also provided, including the aforementioned smoke-generating body or the aforementioned cartridge.

[0019] The beneficial effects of this application are: it provides a smoke generator, a tobacco cartridge, and an electronic cigarette that can be heated relatively uniformly. Attached Figure Description

[0020] To more clearly illustrate the technical solutions in the embodiments of this application, the accompanying drawings used in the description of the embodiments will be briefly introduced below. Obviously, the drawings described below are only some embodiments of this application. For those skilled in the art, other drawings can be obtained based on these drawings without creative effort.

[0021] To gain a more complete understanding of this application and its beneficial effects, the following description will be provided in conjunction with the accompanying drawings, wherein the same reference numerals in the following description denote the same parts.

[0022] Figure 1 This is a schematic diagram of the overall structure of the e-cigarette cartridge provided in an exemplary embodiment of this application; Figure 2 This is a schematic diagram of the structure of the first smoke-generating body provided in an exemplary embodiment of this application; Figure 3 This is a schematic diagram of the structure of the first composite linear object provided in an exemplary embodiment of this application; Figure 4 This is a schematic diagram of the structure of the second composite linear object provided in an exemplary embodiment of this application; Figure 5 This is a schematic diagram of the structure of the third composite linear object provided in an exemplary embodiment of this application; Figure 6 This is a schematic diagram of the structure of the fourth composite linear object provided in an exemplary embodiment of this application; Figure 7 This is a schematic diagram of the structure of the fifth composite linear object provided in an exemplary embodiment of this application; Figure 8 This is a schematic diagram of the structure of the sixth composite linear object provided in an exemplary embodiment of this application; Figure 9 This is a schematic diagram of the structure of the seventh composite linear object provided in an exemplary embodiment of this application; Figure 10 This is a schematic diagram of the structure of the eighth composite linear object provided in an exemplary embodiment of this application; Figure 11 This is a schematic diagram of the structure of the ninth composite linear object provided in an exemplary embodiment of this application; Figure 12 This is a schematic diagram of the structure of the tenth composite linear object provided in an exemplary embodiment of this application; Figure 13 This is a schematic diagram of the structure of the eleventh composite linear object provided in an exemplary embodiment of this application; Figure 14 This is a schematic diagram of the structure of the twelfth composite linear structure provided in an exemplary embodiment of this application; Figure 15 This is a schematic diagram of the thirteenth composite linear structure provided in an exemplary embodiment of this application; Figure 16 This is a schematic diagram of the structure of the second smoke generator provided in an exemplary embodiment of this application; Figure 17 This is a schematic diagram of the structure of the third smoke generator provided in an exemplary embodiment of this application; Figure 18This is a schematic diagram of the structure of the fourth smoke generator provided in an exemplary embodiment of this application; Figure 19 This is a schematic diagram of the structure of the fifth smoke-generating body provided in the exemplary embodiments of this application; Figure 20 This is a schematic diagram of the structure of the sixth smoke-generating body provided in the exemplary embodiments of this application; Figure 21 This is a schematic diagram showing the distribution of the seventh type of smoke generator provided in an exemplary embodiment of this application within a cross section parallel to the first and second directions; Figure 22 This is a schematic diagram showing the distribution of the eighth type of smoke generator provided in an exemplary embodiment of this application within a cross section parallel to the second and third directions; Figure 23 This is a schematic diagram of the distribution of the baseline-shaped object in a cross section parallel to the first and second directions in an exemplary embodiment of this application; Figure 24 This is a schematic diagram showing the distribution of the ninth type of smoke generator provided in an exemplary embodiment of this application within a cross section parallel to the second and third directions; Figure 25 This is a schematic diagram of the unit layout space provided in an exemplary embodiment of this application.

[0023] Explanation of reference numerals in the attached figures: 10. Smoke cartridges; 1. Filter tip; 2. Cooling components; 3. Smoke-generating body; 31. Core material; 32. Covering material; 301. Shaping layer; 302. Composite linear material; 302a. Substrate; 3021. Baseline objects; 302b, Heating element; 3022. Heating wire-like object; 303, aerosol matrix; 304. Wire gap; 305, reinforced core; 306. Cigarette paper; 307. Heating film; 308. Trans-body passage; 4. Smoke pipe; 5. Plug; A1, substrate coverage angle; A2. Exposed angle of heat source; L1, the length of the first type of deployment interval; L2, the length of the second type of deployment interval; Z, substrate region; SJ, clustered region; SP, unit layout space. Detailed Implementation

[0024] The technical solutions of the embodiments of this application will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only a part of the embodiments of this application, and not all of them. All other embodiments obtained by those skilled in the art based on the embodiments of this application without creative effort are within the protection scope of this application.

[0025] The electronic cigarette of this application (not shown in the figure) is a heat-not-burn type aerosol generation system, which includes a cartridge 10 and a device for heating the cartridge 10.

[0026] In the embodiments of this application, the aerosol matrix 303 (or smoke-generating medium) refers to a mixture that can release aerosols (i.e. smoke), which is mainly composed of nicotine substances, fogging agents and tobacco flavorings.

[0027] The concept of nicotine substances here is used in a broad sense, including free nicotine alkaloids, other nicotine compounds, and nicotine derivatives. The molecular formula of nicotine is C1. 10 H 14 N2, its chemical structure comprises a pyridine ring and a pyrrolidine ring, which are connected by a covalent bond, and the pyrrolidine ring also has a methyl substituent. The active ingredient of nicotine can be in a free or bound state, and its existence can include: nicotine and nicotine salts naturally occurring in or extracted from tobacco plants, as well as synthetic nicotine and synthetic nicotine salts.

[0028] Tobacco plants typically contain nicotine bases and nicotine salts, such as nicotine citrate, nicotine malate, and nicotine tartrate; they also contain trace amounts of other nicotine compounds, such as nornicotine, anatabine, myosmine, and anabasine.

[0029] Synthetic nicotine is mainly produced through multi-step synthesis using nicotinic acid or 3-acetylpyridine as starting materials, or through asymmetric synthesis, biological or enzymatic synthesis methods to generate nicotine in its free base form. Synthetically produced nicotine salts mainly include: nicotine benzoate, nicotine salicylate, nicotine lactate, nicotine hydrochloride, nicotine citrate, nicotine tartrate, and nicotine malate, etc.

[0030] To form stable and dense smoke, in some applications, different polyols or mixtures thereof are added to the aerosol matrix 303 as fogging agents, such as propylene glycol, vegetable glycerin, and polyethylene glycol, and may also include esters of polyhydroxy alcohols or esters of hydroxy acids. These fogging agents have significantly different volatilization temperatures; for example, glycerol and 1,3-butanediol have boiling points of 290°C and 207.5°C, respectively, at 760 mmHg. However, this invention defines the boiling point temperature range as 180-350°C.

[0031] The function of tobacco flavorings and fragrances is to impart various flavors to aerosols. They contain natural flavorings such as vanillin, menthol, eugenol, citral, linalool, ethyl acetate, and other fruit and spice extracts; and synthetic flavorings such as acetylpyrazine, diacetyl, cyclic ketones, and various esters.

[0032] When inhaling the heated tobacco cartridge 10, nicotine is one of the key components ingested by the user. At the same time, abundant vapor production and diverse flavors are also important factors in enhancing the user experience. To this end, this design incorporates composite linear materials 302, which involves distributing the aerosol matrix 303 into a linear carrier substrate 302a, or preparing the carrier substrate 302a containing the aerosol matrix 303 into a linear shape. These composite linear materials 302 are coated with a linear heating element 302b to construct the basic unit of the smoke-generating body 3.

[0033] Generally, tobacco cartridges 10 can be classified according to the shape of their smoke-generating body 3 constituent units. Currently, the most common types include thin-film tobacco cartridges 10 and granular tobacco cartridges 10.

[0034] In the thin-film type tobacco cartridge 10, the main component of the smoke-generating body 3 is a layered stack of tobacco sheets, which are arranged in an orderly manner.

[0035] Tobacco sheets are a type of reconstituted tobacco, made from tobacco as raw material with the addition of cellulose, flavorings, fogging agents, preservatives, and adhesives. The main production processes include rolling, papermaking, and slurry processing.

[0036] In the molding process of the thin-film tobacco cartridge 10, the tobacco sheet needs to be longitudinally cut and then rolled and bonded into a smoking rod. This process has very high requirements for the dimensional accuracy, material uniformity, tensile strength and other material parameters of the tobacco sheet, otherwise it is easy to break.

[0037] Within the sub-category of thin-film tobacco cartridges 10, there is also an electromagnetically heated thin-film tobacco cartridge 10. In the high-speed mass production of this type of cartridge 10, tobacco sheets and metal strips need to be wound together. The metal strip is wound to the central area and then wrapped around the tobacco sheet to form a continuous three-bar smoke-generating body, which is then cut into individual segments. Because the metal strip is typically thick and wide (e.g., approximately 4mm wide and greater than 0.07mm thick), cutting often faces problems such as high resistance, rapid tool wear, and severe deformation of the metal strip. Furthermore, this structure places the metal strip at the center of the cartridge 10, which is a central heating method. Its disadvantages include overly concentrated heat, leading to uneven carbonization and significant fluctuations in aerosol release between different puff counts, affecting the consistency of the vaping experience.

[0038] In the thin-film type tobacco cartridge 10, the main component of the smoke-generating body 3 is a layered stack of tobacco sheets, which are arranged in an orderly manner.

[0039] In the granular tobacco cartridge 10, the main component of the smoke-generating body 3 is tobacco particles or herbal particles, and its structure is in a disordered filling state.

[0040] Within the sub-field of granular e-cigarette cartridges 10, there is also an electromagnetically heated granular e-cigarette cartridge 10. In the high-speed mass production of this type of cartridge 10, the heating element 302b (magnetic metal sheet) needs to be inserted into the cartridge 10 piece by piece. If the metal sheet is too thin, it is prone to deformation during insertion, making it impossible to guarantee the expected position and shape; if the metal sheet is too thick, there are problems with cutting difficulties and tool wear. Furthermore, this disordered particle arrangement structure makes the smoke-generating body 3 prone to defects such as unstable airflow and inconsistent carbonization regions during heating.

[0041] To solve the above-mentioned technical problems, this application designs a smoke cartridge 10, one of which has the following structural configuration: Figure 1As shown, it includes: a filter tip 1, a cooling component 2, a smoke generator 3, a smoke tube 4, and a plug 5. In this embodiment, the lengths of the filter tip 1, the cooling component 2, and the smoke generator 3 are 11mm, 18mm, and 16mm, respectively; these three components are enclosed by the smoke tube 4, forming a three-section smoke cartridge 10. The outer diameter of the smoke cartridge 10 can be 7.2mm, and the total length is 45mm. The outermost layer of the smoke generator 3 is a shaping layer 301, which can be a thin layer of aluminum foil composite paper with an average wall thickness of 0.3mm. The shaping layer 301 contains multiple linear elements, and an aerosol matrix 303 is diffusely distributed on its surface and inside. The linear elements are intertwined, forming wire gaps 304 between them.

[0042] The wire gap 304 is incorporated into the air passage. Furthermore, this wire gap 304 is controllable; its size is controlled by adjusting the outer diameter of adjacent slender wires (e.g., using composite wire 302, or wires composed solely of the carrier substrate 302a), thereby controlling the equivalent inner diameter of the air passage. If the air passage of the smoke generator 3 is divided radially, the size of the wire gap 304 can be controlled by adjusting the outer diameter of adjacent slender wires in different zones, thus controlling the equivalent inner diameter of the air passage in different zones. This satisfies the need for localized adjustments to suction resistance, air intake, etc., to address the varying smoke volumes caused by uneven heating in the smoke generator 3.

[0043] Specifically, the shaping layer 301 can be composed of aluminum foil 301a and pine paper 301b. The lengths of the filter tip 1, cooling component 2, smoke generator 3, and bottom plug 5 can be 11mm, 18mm, 12mm, and 4mm respectively. These four components are wrapped by the smoke tube 4, forming a four-section electromagnetic cartridge 10. The outer diameter of the cartridge 10 is 7.2mm, and the total length is 45mm. The shaping layer 301 is a thin pine paper with a thickness of 0.025mm. The bottom plug 5 can be made of porous cellulose acetate, and its functions include preventing tobacco dust and tar leakage, slowing down aerosol condensation, and improving the aesthetics of the cartridge 10.

[0044] Reference Figures 2 to 20 As shown, as a major improvement of this application, in some embodiments of this application, the smoke generator 3 includes: a carrier substrate 302a and a heating element 302b.

[0045] Specifically, the carrier 302a is configured to support the aerosol matrix 303; the heating element 302b is configured to heat the aerosol matrix 303; wherein the carrier 302a covers at least a portion of the heating element 302b; the carrier 302a and the heating element 302b are constructed to form a composite linear structure 302.

[0046] It should be noted that the term "coverage" in this application does not only refer to complete adhesion, such as... Figure 2 and Figure 3 In the illustrated scheme, the carrier 302a being disposed around and in contact with the heating element 302b is also one type of "coverage" as referred to in this application. The "coverage" referred to in this application can be understood as satisfying the following two characteristics: disposed outside the heating element 302b and in contact with the heating element 302b; however, the area and form of the contact are not required. Common covering methods include: weaving, knitting, winding, layering, wrapping, and bundling.

[0047] It is understood that the composite linear object 302, the carrier linear object 3021, and the heating linear object 3022 in this application all belong to the linear objects defined in this application. The linear object defined in this application refers to an object that can be flexibly or plastically extended, and whose length dimension in the extension direction is much larger than the maximum cross-sectional dimension, and whose length-to-diameter ratio (the ratio of length to the maximum cross-sectional dimension) is greater than 5.

[0048] Linear materials include: metal wires, metal strips, metal rods, etc., made of metallic materials; and fiber filaments, fiber threads, fiber strips, fiber rods, fiber ropes, etc., made of organic and / or non-metallic inorganic materials. These linear materials can be mutually covered by methods such as weaving, weaving, winding, layering, wrapping, and bundling to form a composite linear material 302 structure. Therefore, the "covering" mentioned in this application refers to achieving mutual contact and coverage between linear materials through the above-mentioned methods.

[0049] Reference Figures 3 to 7 As shown, the cross-section of the linear object in this application is equiaxed or approximately equiaxed, meaning that the difference between any two mutually perpendicular dimensions of the cross-section is small (the ratio of the difference to the larger dimension is less than 30%). As an alternative, see [reference]. Figure 14 As shown, the cross-section of the linear object in this application may also be significantly larger in one direction than in another (the ratio of the difference to the larger dimension is greater than 50%). In this case, the linear object in this application is more in line with the common understanding of the shape of a "belt". Therefore, the "line" in the name of the linear object in this application should not be considered as a limitation on the cross-section. The linear object in this application includes at least the two embodiments described above.

[0050] The composite linear material 302 in this application can be understood as an integral part consisting of a carrier substrate 302a and a heating element 302b. This integral part is constructed as a composite linear material 302 consisting of a carrier substrate 302a and a heating element 302b using the aforementioned covering method. Typical covering methods, such as twisted spinning, spiral winding, flat or oblique roll wrapping, and layered composite, all have good manufacturability.

[0051] Reference Figure 4As shown, in this scheme, the carrier 302a completely covers the heating element 302b (fully and tightly attached), that is, the heating element 302b is completely enclosed inside the carrier 302a.

[0052] Reference Figure 5 and Figure 6 As shown, the carrier 302a is still in close contact with the heating element 302b, but a part of the heating element 302b is exposed in the external space.

[0053] Reference Figure 8 As shown, the substrate 302a can simultaneously cover multiple heating elements 302b.

[0054] Reference Figure 9 As shown, as an optional solution, the carrier 302a can wrap the heating element 302b in a winding manner.

[0055] Reference Figure 7 As shown, its implementation method is the same as Figure 4 The difference in the illustrated embodiment lies in that the outer substrate 302a (existing as an outer covering layer) is provided with several local through-channels 308 penetrating the outer covering layer; these through-channels 308 connect the heating element 302b to the outside. This allows for the effective transfer of heat generated by the heating element 302b (including but not limited to contact conduction, convection, and radiation). It should be emphasized that this structural design can improve the heat transfer speed and heating uniformity on the one hand, and further refine and homogenize the airflow channels on the other.

[0056] As an alternative, the internal and external positional relationship between the substrate 302a and the heating element 302b can be changed, that is, the heating element 302b can cover the substrate 302a, and the heating element 302b can form multiple through channels 308.

[0057] Additionally, it should be noted that the extension direction of the body-penetrating channel 308 can be perpendicular to the extension direction of the composite linear material 302, or it can intersect the extension direction of the composite linear material 302 at an angle.

[0058] Reference Figure 9 As shown, when the carrier 302a wraps around the heating element 302b, the portion not covered by the carrier 302a can also be used as the through-body channel 308 of this application. Of course, the inner and outer relationships of the carrier 302a and the heating element 302b can also be interchanged; that is, the carrier 302a is located inside, and the heating element 302b is spirally wound on the periphery, or the heating element 302b is located inside, and the carrier 302a is spirally wound on the periphery. In this case, the two partially cover each other, and the spiral winding gap on the periphery constitutes the through-body channel 308.

[0059] Based on the above description, it can be understood that in this application, at least a portion of at least one of the carrier substrate 302a and the heating element 302b covers at least a portion of the other; one of the carrier substrate 302a and the heating element 302b located on the periphery is provided with a through-body channel 308 so that the internal element communicates with the outside; the extending direction of the through-body channel 308 intersects with the extending direction of the whole.

[0060] Reference Figure 7 As shown, as a specific scheme, different through-body channels 308 have different extension directions.

[0061] As an alternative, in the extension direction of the composite linear structure 302 (i.e., the whole consisting of the heating element 302b and the carrier 302a), at least a portion of the heating element 302b covers at least a portion of the carrier 302a; in a first interval in the extension direction of the whole, at least a portion of the carrier 302a covers at least a portion of the heating element 302b; and in a second interval in the extension direction of the whole, at least a portion of the heating element 302b covers at least a portion of the carrier 302a.

[0062] That is, the carrier 302a and the heating element 302b can be alternately set as the outer part in different positions, thus forming an alternating winding or covering structure.

[0063] The presence of the through-body channel 308 enables heat transfer (including but not limited to contact conduction, convection or radiation) or aerosols to be effectively diffused or transferred through the through-body channel 308, thereby ensuring the efficiency of energy or material diffusion while achieving the synchronous extension of the substrate 302a and the heating element 302b.

[0064] Reference Figure 14 and Figure 15 As shown, it should be noted that the "coverage" referred to in this application does not mean that the substrate 302a and the heating element 302b need to be covered along their entire length, but only need to be covered in certain cross-sections.

[0065] As a specific option, the substrate 302a can be any natural fiber (plant fiber and mineral fiber) or chemical fiber (man-made fiber, synthetic fiber and inorganic fiber) that does not contain nicotine. Suitable natural fibers include plant fibers and mineral fibers that can withstand high temperatures of 250°C.

[0066] Plant fibers include: seed fibers, bast fibers, leaf fibers, and fruit fibers. Seed fibers are single-celled fibers formed from the epidermal cells of some plant seeds, such as cotton and kapok. Bast fibers are single-celled or processed fibers obtained from the phloem of some plants, such as flax, ramie, jute, and bamboo fibers. Leaf fibers are processed fibers obtained from the leaves or leaf sheaths of some plants, such as sisal and abaca. Fruit fibers are fibers obtained from the fruits of some plants, such as coconut fiber.

[0067] Mineral fibers are fibers obtained from fibrous mineral rocks. Their main components are various oxides, such as silicon dioxide, aluminum oxide, and magnesium oxide. Their main source is various types of asbestos, such as chrysotile and crocidolite.

[0068] Suitable chemical fibers are fibers that have been chemically processed, including non-toxic and easily cut man-made fibers, synthetic fibers, and inorganic fibers.

[0069] Man-made fibers, also known as regenerated fibers, refer to textile fibers made from materials containing natural or protein fibers, such as wood, sugarcane, reeds, and soybean protein fibers, through chemical processing. These fibers are then modified to prepare fiber yarns suitable for this invention. The main suitable man-made fibers include viscose fiber, modal fiber, bamboo fiber, and acetate fiber.

[0070] Synthetic fibers are first synthesized from substances that do not inherently contain cellulose or protein, such as petroleum, coal, natural gas, limestone, or agricultural byproducts. These are then processed into fibers using chemical synthesis and mechanical processing. Finally, they are modified to be heat-resistant by adding flame-retardant substances or altering their composition. For example, polyester fibers, polyamide fibers, nylon fibers, aromatic polyamide fibers, polytetrafluoroethylene fibers, and polyimide fibers can be modified to withstand temperatures of 250°C or even 400°C, making them suitable for use as aerosol carriers in this invention. Simultaneously, at these high temperatures, they do not undergo significant chemical reactions, release harmful substances, produce unpleasant odors, or generate large amounts of dust.

[0071] Inorganic fibers are made from natural inorganic materials or carbon-containing polymer fibers through artificial spinning or direct carbonization, including glass fibers, metal fibers and carbon fibers.

[0072] More specifically, the 302a substrate needs to withstand temperatures of 300°C to 400°C. Suitable substrates include: polytetrafluoroethylene (PTFE) fibers, certain aromatic polyamide fibers, and polyimide fibers, whose safe operating temperature is between 250-500°C. Graphite fibers can withstand temperatures of 1500-3000°C; glass fibers have excellent heat resistance, with a decomposition temperature exceeding 500°C; para-aramid (PPTA), such as DuPont's Kevlar or Teijin's TWARON, has a limiting oxygen index of around 30 and a decomposition temperature as high as 560°C; meta-aramid (MPIA), such as DuPont's Nomex, has a thermal decomposition temperature of 430°C; and some ceramic fibers, such as Nextel alumina ceramic fibers, can withstand temperatures up to 1200°C.

[0073] The heating element 302b can be made of any material that can generate heat under the action of a physical field (such as an electromagnetic field, electric field, or optical field). For example, magnetic materials, wave-absorbing materials, and light-absorbing materials.

[0074] The first type of material in the heating element 302b is a magnetically conductive material, exhibiting ferromagnetism or subferromagnetism, suitable for electromagnetic induction heating mode, which belongs to magnetic field heating. That is, the heating element 302b generates eddy current effect and hysteresis loss effect in a changing magnetic field, thereby achieving efficient, non-contact induction heating. Its basic composition is at least one of elemental metal, single alloy, and composite metal. Examples of single-element metal wires include iron (Fe) wire, nickel (Ni) wire, and cobalt (Co) wire; examples of single-alloy wires include alloy wires based on iron, nickel, and cobalt elemental materials that have been doped and modified to form wires; also including various magnetic stainless steel wires (such as ferritic stainless steel, martensitic stainless steel, and some cold-worked austenitic stainless steel), various soft magnetic alloys (such as permalloy, iron-based amorphous alloys, cobalt-based amorphous alloys, iron-based nanocrystalline alloys, iron-silicon-aluminum alloys, Invar alloys, and constant expansion alloys) wires, and Kovar alloy wires, as well as alloy wires based on these single-alloy wires that have been doped and modified to form wires; composite metal wires contain wires composed of two or more metal materials, including at least one magnetic material. Composite refers to the combination of two or more metal materials through rolling, electroplating, electroless plating, sputtering, welding, cladding, and coating (weaving, braiding, winding, stacking, wrapping, and bundling).

[0075] The second type of material in the heating element 302b is an absorbing material, which can effectively absorb incident electromagnetic waves of a specific frequency band (radio frequency / microwave) and efficiently convert electromagnetic energy into heat energy through mechanisms such as dielectric loss and resistive loss. This type of material is suitable for radio frequency heating or microwave heating modes, belonging to electric field heating. Its heating originates from the direct action of the electromagnetic field on the polar molecules, ions, or free electrons inside the material, enabling rapid and uniform volume heating or surface heating. Its basic composition consists of at least one of the following: elemental material, composite material, or modified functional material. Specific examples of microwave absorbing materials include: (1) carbon-based materials, such as carbon fiber filaments, graphene fibers, carbon nanotube yarns, and conductive carbon black composite filaments; (2) ceramic-based materials, such as silicon carbide fibers, silicon nitride composite fibers, and barium titanate-based ferroelectric ceramic filaments; (3) metal oxides and ferrites, such as zinc oxide whisker fibers, manganese zinc or nickel zinc ferrite composite filaments; (4) conductive polymers and composite materials, such as polyaniline, polypyrrole conductive fibers, or composite filaments made by doping metal particles (silver, copper, nickel) with matrix resin; (5) structural composite materials, such as functionalized fibers or filaments made by coating, impregnating or blending the above-mentioned microwave absorbing components with glass fiber or polymer fiber as the matrix.

[0076] The third type of material in the heating element 302b is a light-absorbing material, a functional material with high absorption rate at specific wavelengths (such as infrared, near-infrared, or visible light bands) and capable of efficiently converting light energy into heat energy. This type of material is suitable for photothermal modes (such as laser heating), belonging to optical field heating. Its heating originates from the energy of photons being absorbed by the material and converted into lattice vibration energy (heat energy) through non-radiative relaxation, enabling precise, localized, and rapid light-to-heat conversion. Its basic composition consists of at least one of the following: an element with high light absorption characteristics, a compound, a composite material, or a surface-treated functional material. Specific examples of light-absorbing materials include: (1) metals and alloys: such as nanoparticle-coated fibers of gold, silver, aluminum and nickel or metal film-wrapped wires, which enhance light absorption by utilizing their plasma resonance effect; (2) carbon-based materials, such as carbon black-coated fibers, graphene oxide fibers and carbon nanotube yarns, which have near-perfect light absorption characteristics in a wide spectral range; (3) semiconductors and metal oxides, such as copper oxide, iron oxide, black silicon coatings or composite wires, which achieve efficient photothermal conversion through narrow band gaps or micro-nano structures; (4) ceramic materials, such as titanium nitride, titanium carbide and other "MAX phase" ceramic wires, or black alumina ceramic fibers, which have both high melting point and high light absorption rate; (5) organic polymers and dyes, such as polydopamine coatings, polymer optical fibers or coated wires doped with near-infrared absorbing dyes (such as cyanine and phthalocyanine); (6) composite structure materials: such as functional wires made by modifying the surface of quartz or sapphire optical fibers with plasma nanoparticles or by preparing multilayer light-absorbing thin films by physical vapor deposition.

[0077] Reference Figure 2As shown, in some embodiments of this application, the smoke-generating body 3 is constructed as being woven from composite threads 302.

[0078] Reference Figure 6 , Figure 14 and Figure 15 As shown, in some embodiments of this application, in a cross section perpendicular to the extension direction of the composite linear material 302, the angle at which the substrate 302a covers the heating element 302b is defined as the substrate coverage angle A1, and the value of the substrate coverage angle A1 ranges from 10 degrees to 360 degrees.

[0079] In some embodiments of this application, the angle at which the heating element 302b is exposed outside the substrate 302a in a cross-section perpendicular to the extension direction of the composite linear 302 is defined as the heating exposure angle A2, which ranges from 10 degrees to 180 degrees.

[0080] In this application, the substrate coverage angle A1 and the heat exposure angle A2 are both connected to the tangent of the cross-sectional shape of the substrate 302a with the center of the composite linear material 302 as the endpoint (the full coverage connection line coincides), thus forming opposite angles.

[0081] Generally speaking, the sum of the substrate coverage angle A1 and the heat exposure angle A2 should satisfy 360 degrees.

[0082] Reference Figure 3 , Figure 5 , Figure 6 As shown, in some embodiments of this application, in a cross-section perpendicular to the extension direction of the composite linear 302, at least a portion of the heating element 302b is exposed outside the substrate 302a.

[0083] Reference Figures 9 to 13 As shown, in the extension direction of the composite linear material 302, the heating element 302b may also be exposed at least partially outside the substrate 302a.

[0084] In some embodiments of this application, at least a portion of the heating element 302b is configured as a heating wire 3022. (See also...) Figure 2 As shown, the heating wire 3022 and the composite wire 302 have the same extension direction.

[0085] In some embodiments of this application, at least a portion of the carrier 302a is configured as a baseline 3021. (See also...) Figure 2 as well as Figures 8 to 12 As shown, the extension direction of the linear support 3021 intersects obliquely with the extension direction of the composite linear support 302.

[0086] In some embodiments of this application, at least a portion of the heating element 302b is configured as a heating wire 3022; see reference Figure 2 As shown, the carrier 302a is at least constructed as a carrier line 3021; ​​the carrier line 3021 spirally surrounds the heating line 3022.

[0087] Reference Figure 10 As shown, as an extension, other heating wires 3022 can still be wound around the periphery of the heating wire 3022. Of course, non-heating metal wires can also be used for winding, which makes it easier to maintain the shape of the composite wire 302.

[0088] Reference Figure 11 As shown, as a specific solution, a baseline 3021 and / or a heating wire 3022 can also be used to wrap around another baseline 3021, such that the wrapped baseline 3021 partially covers the outside of the heating wire 3022. Figure 10 (The middle part is not covered), which can be considered as the winding carrier wire 3021 partially covering the heating wire 3022, that is, the carrier 302a partially covering the heating element 302b.

[0089] As an optional solution Figure 12 The heating wire 3022 wrapped around the reinforcing core 3021 can be replaced with a pure reinforcing core 305. This reinforcing core 305 does not have a heating function; it only serves as a support structure for the winding of the heating wire 3021. Therefore, the range of materials that can be selected is wider, provided that it meets the following conditions: it has sufficient strength and does not release harmful substances or produce odors at the characteristic temperature during smoking (e.g., 250-350°C). Alternatively, the winding of the heating wire 3022 around the reinforcing core 305 can be omitted. In this configuration, Figure 11 The scheme shown can be regarded as another implementation scheme of the baseline 3021.

[0090] Reference Figure 12 As shown, the wound structure can be a linear composite structure of the carrier wire 3021 and the heating wire 3022, for example... Figure 5 and Figure 6 They can have a common direction of extension, but they form an enclosing relationship within the cross-section.

[0091] Reference Figure 13 As shown, the wound structure can be a conjugate composite junction of the base wire 3021 and the heating wire 3022, that is, the base wire 3021 and the heating wire 3022 first cover each other, and then form a composite wire bundle on the outer surface by winding.

[0092] Reference Figure 14 and Figure 15As shown, the wrapped structure can be either circular or waist-shaped, or other shapes can be chosen according to specific needs.

[0093] Reference Figure 16 As shown, as an optional solution of this application, in order to adjust the amount of aerosol volatilization or odor, the composite linear material 302 can be used as the core material 31, and a carrier substrate 302a can be added to its outside as the covering material 32. The carrier substrate 302a can be a paste coated on the outside of the composite linear material 302, or it can be made into a sheet and then attached to the outside of the composite linear material 302.

[0094] The composite linear material 302 serving as the core material 31 can be the scheme described in this application or a separate carrier substrate 302a.

[0095] As an optional solution Figure 16 The core material 31 in the structure shown can also be constructed using only the carrier substrate 302a. Additionally, the cladding material 32 can be as follows: Figure 16 The diagram shows that the entire structure composed of multiple core materials 31 can be covered, or individual core materials 31 can be covered.

[0096] Reference Figure 16 As shown, as a specific solution, the covering material 32 can be disposed between the core material 31 and the shaping layer 301.

[0097] Reference Figure 17 As shown, as a specific solution, the covering material 32 can adopt a multi-layer structure. Each layer of the multi-layer structure can be composed of a carrier substrate 302a and a heating element 302b. The carrier substrate 302a can be located either inside or outside the heating element 302b. These configurations enable more uniform heating of the covering material 32.

[0098] Reference Figures 18 to 20 As shown, in one embodiment of the smoke-generating body 3, a base region Z can be provided, primarily filled with the base material 302a. Within this base region Z, only the base material 302a can be filled, or a large amount of the base material 302a and a small amount of the heating element 302b can be filled. In this case, the base material 302a and the heating element 302b do not constitute a composite linear structure 302. The base material 302a can be constructed as a linear structure, or as a multi-layered sheet, or other forms. Alternatively, within the cross-section of the smoke-generating body 3, the base region Z can be constructed as an annular region.

[0099] Reference Figures 18 to 20As shown, in one embodiment of the smoke generator 3, a clustering region SJ can be provided, into which a cluster (including multiple) of the composite linear material 302 provided in the above embodiment can be filled. The substrate region Z can partially or completely surround the clustering region SJ.

[0100] Reference Figure 18 As shown, as an optional solution, in order to heat the substrate region Z, a heating film 307 can be provided between the cigarette paper 306 (the outermost shaping part of the smoke-generating body 3) and the bundled region SJ. This heating film 307 can be understood as another form of heating element 302b, which constitutes an overall coverage of the substrate 302a.

[0101] Reference Figure 19 As shown, as an optional solution, the heating film 307 can be placed between the cluster region SJ and the substrate region Z, that is, the substrate region Z is heated from inside the substrate region Z.

[0102] Reference Figure 20 As shown, as an optional solution, one can... Figure 19 The heating film 307 is replaced by a heating element 302b that is wound (e.g., spirally wound) around the periphery of the cluster region SJ. This heating element 302b is constructed as a heating wire 3022. The structural feature of this configuration is that the composite wire 302 within the cluster region SJ is "bundled" by the heating wire 3022.

[0103] This application adopts a combined structure of substrate region Z and cluster region SJ, which can reduce the manufacturing complexity of smoke generator 3, while achieving uniform heating through cluster region SJ, thereby fully volatilizing aerosols.

[0104] In summary, this application effectively solves the problem of uneven carbonization caused by the overly concentrated configuration of the heating element 302b in the traditional smoke-generating body 3 configuration, including phenomena such as local over-carbonization or under-carbonization, by using the covering structure between the substrate 302a and the heating element 302b, and the synergistic extension of the two in three-dimensional space.

[0105] It is understood that, based on the above embodiments, in this application, the extension direction of the substrate 302a interferes with the extension direction of the heating element 302b, so that the substrate 302a and the heating element 302b are constructed as a whole that can extend synchronously.

[0106] The “interference in the extension direction” referred to here can be understood as including the coupling relationship between the substrate 302a and the heating element 302b in the extension direction, as well as the relative positional relationship formed by the mutual coverage of the substrate 302a and the heating element 302b.

[0107] Reference Figures 21 to 23 As shown, based on the above embodiments, it can be understood that in this application, the heating element 302b is discretely distributed at least in the first direction and the second direction, and the carrier 302a is correspondingly distributed with the carrier 302a at least in the first direction and / or the second direction.

[0108] The phrase "forming a discrete distribution in the first and second directions" refers to the area within a cross-section parallel to the first and second directions. Figure 21 As shown in the paper, the cross-sectional profile of the heating element 302b (or the carrier 302a) is discretely distributed in both a first direction (at different positions in the first direction) and a second direction (at different positions in the second direction).

[0109] The phrase "the heating element 302b is distributed correspondingly with the carrier 302a at least in the first direction and / or the second direction" means that the heating element 302b and the carrier 302a are correspondingly related and arranged close to each other in the first direction or the second direction.

[0110] As a specific embodiment, the substrate 302a is discretely distributed at least in the first and second directions. (Refer to...) Figure 22 As shown, as a specific solution, the heating element 302b can also be discretely distributed at least on the third direction D3; the first direction and the second direction are set perpendicularly; the third direction D3 is set perpendicularly to the first direction and the second direction respectively, that is, a rectangular coordinate system can be established by the first direction (X-axis direction), the second direction (Y-axis direction), and the third direction D3 (Z-axis direction) to determine different cross sections. Of course, a polar coordinate system can also be established to determine different cross sections. The difference in coordinate system will not change the relative positional relationship between the substrate 302a and the heating element 302b. That is, in this application, the first direction, the second direction, and the third direction D3 are only for establishing a relative positional relationship, not for establishing an absolute positional relationship.

[0111] Reference Figure 23 As shown, to characterize the dispersion of linear distribution in the smoke-generating body 3 structure, this application defines two key parameters. First, this application defines the "layout interval length," which is the maximum distance of the heating element 302b or the carrier 302a within the cross-section. The length parallel to the first direction is called the first type of layout interval length L1; the length parallel to the second direction is called the second type of layout interval length L2; and the length parallel to the third direction D3 is called the third type of layout interval length L3. Figure 23 (Not shown in the image).

[0112] Reference Figure 23As shown, after projecting the cross-sectional profile formed by a certain type of object (such as the heating element 302b or the carrier 302a) in a certain cross-section into a certain direction, the distance between the two farthest profile points is defined as the length of the layout interval in that direction.

[0113] Specifically, the length of the layout section in the first direction D1 is defined as the first type of layout section length L1 (at this time, the cross section is parallel to the first direction D1 and the second direction D2, or the cross section can also be parallel to the first direction D1 and the third direction D3, the same below); the length of the layout section in the second direction D2 is defined as the second type of layout section length L2 (at this time, the cross section is parallel to the first direction D1 and the second direction D2, or the cross section can also be parallel to the second direction D2 and the third direction D3, the same below); the length of the layout section in the third direction D3 is defined as the third type of layout section length L3 (at this time, the cross section is parallel to the first direction D1 and the third direction D3, or the cross section can also be parallel to the second direction D2 and the third direction D3, the same below).

[0114] To measure the dispersion of the capabilities provided by a physical entity (such as heating capacity or the ability to support the aerosol matrix 303), this application defines the ratio of the total mass M of a certain type of object (such as heating element 302b or carrier 302a) in the smoke-generating body 3 to the length L1 of the first type of arrangement interval as the "probable dispersion in the first direction D1", with units of mg / mm. If the "probable dispersion in the first direction D1" is expressed as d1, then d1 = M / L1.

[0115] The ratio of the mass of the heating element 302b or the carrier 302a to the length L2 of the second type of layout interval is defined as the "probability of dispersion in the second direction D2"; wherein, if the "probability of dispersion in the first direction D1" is expressed as d2, then d2 = M / L2.

[0116] The ratio of the mass of the heating element 302b or the carrier 302a to the length L3 of the third type of layout interval is defined as "the probable dispersion of the third direction D3"; where, if "the probable dispersion of the first direction D1" is expressed as d3, then d3=M / L3.

[0117] It is understandable that for the first type of deployment interval length L1, there are actually two corresponding cross sections, namely, a plane parallel to the first direction D1 and the second direction D2, and a plane parallel to the first direction D1 and the third direction D3. Therefore, the probability dispersion of the first direction D1 can actually measure the degree of dispersion of the capabilities provided by the entity in two dimensions; the probability dispersion of the second direction D2 and the probability dispersion of the third direction D3 are the same.

[0118] Because the cross-sections are different, the length of the layout interval will vary (this is true for all three dimensions). The largest of the probabilistic dispersions obtained from all cross-sections is defined as the most probabilistic dispersion.

[0119] As a specific embodiment, in this application, the probabilistic dispersion of the heating element 302b ranges from 0.02 to 40 mg / mm, and the maximum probabilistic dispersion of the heating element 302b ranges from 10 to 40 mg / mm.

[0120] As a further option, the probabilistic dispersity of the heating element 302b is within the range of any two of the following: 0.02 mg / mm, 0.1 mg / mm, 0.5 mg / mm, 1 mg / mm, 6 mg / mm, 8 mg / mm, 14 mg / mm, 21 mg / mm, 26 mg / mm, 28 mg / mm, 31 mg / mm, 34 mg / mm, 37 mg / mm, and 40 mg / mm.

[0121] As a further option, the probabilistic dispersion of the heating element 302b can range from 0.8 to 10 mg / mm.

[0122] As a further option, the most probable range of the dispersion of the heating element 302b is any two of the following intervals: 14 mg / mm, 21 mg / mm, 26 mg / mm, 28 mg / mm, 31 mg / mm, 34 mg / mm, 37 mg / mm, and 40 mg / mm.

[0123] As a further option, the most probable range of the dispersion of the heating element 302b can be 6-20 mg / mm.

[0124] In some embodiments of this application, the probable dispersion of the first direction D1 of the heating element 302b ranges from 0.02 to 8 mg / mm; the maximum probable dispersion of the first direction D1 of the heating element 302b ranges from 2 to 8 mg / mm.

[0125] As a further option, the probabilistic dispersion of the first direction D1 of the heating element 302b is within the range of any two of the following: 0.02 mg / mm, 0.1 mg / mm, 0.5 mg / mm, 1 mg / mm, 6 mg / mm, and 8 mg / mm.

[0126] As a further option, the probabilistic dispersion of the first direction D1 of the heating element 302b can be in the range of 0.6-4 mg / mm.

[0127] As a further option, the most probable range of the first direction D1 of the heating element 302b is any two of the intervals consisting of 2 mg / mm, 6 mg / mm, and 8 mg / mm.

[0128] As a further option, the most probable dispersion value of the first direction D1 of the heating element 302b can be in the range of 4-6 mg / mm.

[0129] In some embodiments of this application, the probable dispersion of the second direction D2 of the heating element 302b ranges from 0.1 to 40 mg / mm; the maximum probable dispersion of the second direction D2 of the heating element 302b ranges from 10 to 40 mg / mm.

[0130] As a further option, the probabilistic dispersion of the second direction D2 of the heating element 302b is within the range of any two of the following: 0.1 mg / mm, 0.5 mg / mm, 1 mg / mm, 6 mg / mm, 8 mg / mm, 14 mg / mm, 21 mg / mm, 26 mg / mm, 28 mg / mm, 31 mg / mm, 34 mg / mm, 37 mg / mm, and 40 mg / mm.

[0131] As a further option, the probabilistic dispersion of the second direction D2 of the heating element 302b can be in the range of 2-10 mg / mm.

[0132] As a further option, the most probable range of the second direction D2 of the heating element 302b is any two of the following intervals: 10 mg / mm, 14 mg / mm, 21 mg / mm, 26 mg / mm, 28 mg / mm, 31 mg / mm, 34 mg / mm, 37 mg / mm, and 40 mg / mm.

[0133] As a further option, the most probable range of the second direction D2 of the heating element 302b can be 16-20 mg / mm.

[0134] In some embodiments of this application, the probable dispersion of the third-direction D3 of the heating element 302b ranges from 0.1 to 40 mg / mm; the maximum probable dispersion of the third-direction D3 of the heating element 302b ranges from 10 to 40 mg / mm.

[0135] As a further option, the probabilistic dispersion of the third-direction D3 of the heating element 302b is within the range of any two of the following: 0.1 mg / mm, 0.5 mg / mm, 1 mg / mm, 6 mg / mm, 8 mg / mm, 14 mg / mm, 21 mg / mm, 26 mg / mm, 28 mg / mm, 31 mg / mm, 34 mg / mm, 37 mg / mm, and 40 mg / mm.

[0136] As a further option, the probabilistic dispersion of the third-direction D3 of the heating element 302b can be in the range of 2-20 mg / mm.

[0137] As a further option, the most probable range of the third-direction D3 of the heating element 302b is any two of the following intervals: 10 mg / mm, 14 mg / mm, 21 mg / mm, 26 mg / mm, 28 mg / mm, 31 mg / mm, 34 mg / mm, 37 mg / mm, and 40 mg / mm.

[0138] As a further option, the most probable range of the third-direction D3 dispersion of the heating element 302b can be 16-24 mg / mm.

[0139] Taking all cross-sections as specific examples, in this application, the probable dispersity of the substrate 302a ranges from 4 to 2500 mg / mm; the maximum probable dispersity of the substrate 302a ranges from 1000 to 2500 mg / mm.

[0140] As a further option, the probabilistic dispersion of the matrix 302a is taken as any two of the following intervals: 4 mg / mm, 10 mg / mm, 37 mg / mm, 58 mg / mm, 75 mg / mm, 100 mg / mm, 180 mg / mm, 255 mg / mm, 370 mg / mm, 420 mg / mm, 600 mg / mm, 790 mg / mm, 1100 mg / mm, 1850 mg / mm, 2035 mg / mm, and 2500 mg / mm.

[0141] As a further option, the probabilistic dispersion of the 302a matrix ranges from 100 to 800 mg / mm.

[0142] As a further option, the most probable range of dispersion values ​​for the matrix 302a is any two of the following intervals: 1000 mg / mm, 1100 mg / mm, 1850 mg / mm, 2035 mg / mm, and 2500 mg / mm.

[0143] As a further option, the most likely range of the natural dispersibility of the 302a matrix is ​​1000-2000 mg / mm.

[0144] As a more specific solution, in this application, since the three-dimensional structure of the smoke-generating body 3 has an orientational design, such as being configured as a cylinder or other three-dimensional shape with obvious length orientation, the probability dispersion of the first direction D1, the second direction D2, and the third direction D3 are also different.

[0145] In some embodiments of this application, the probable dispersity of the first direction D1 of the substrate 302a ranges from 8 to 500 mg / mm; the maximum probable dispersity of the first direction D1 of the substrate 302a ranges from 50 to 500 mg / mm.

[0146] As a further option, the probabilistic dispersion of the first direction D1 of the substrate 302a is within the range of any two of the following: 8 mg / mm, 10 mg / mm, 37 mg / mm, 58 mg / mm, 75 mg / mm, 100 mg / mm, 180 mg / mm, 255 mg / mm, 370 mg / mm, 420 mg / mm, and 500 mg / mm.

[0147] As a further option, the probabilistic dispersion of the first direction D1 of the substrate 302a ranges from 50 to 200 mg / mm.

[0148] As a further option, the most probable dispersion value of the first direction D1 of the substrate 302a is within the range of any two of the following: 50 mg / mm, 58 mg / mm, 75 mg / mm, 100 mg / mm, 180 mg / mm, 255 mg / mm, 370 mg / mm, 420 mg / mm, and 500 mg / mm.

[0149] As a further option, the most probable dispersion value of the first direction D1 of the matrix 302a is in the range of 100-300 mg / mm.

[0150] In some embodiments of this application, the probable dispersion of the second direction D2 of the substrate 302a ranges from 4 to 2500 mg / mm; the maximum probable dispersion of the second direction D2 of the substrate 302a ranges from 1000 to 2500 mg / mm.

[0151] As a further option, the probabilistic dispersion of the second direction D2 of the substrate 302a is within the range of any two values ​​formed by 4 mg / mm, 10 mg / mm, 37 mg / mm, 58 mg / mm, 75 mg / mm, 100 mg / mm, 180 mg / mm, 255 mg / mm, 370 mg / mm, 420 mg / mm, 600 mg / mm, 790 mg / mm, 1100 mg / mm, 1850 mg / mm, 2035 mg / mm, and 2500 mg / mm.

[0152] As a further option, the probabilistic dispersion of the second direction D2 of the matrix 302a ranges from 50 to 500 mg / mm.

[0153] As a further option, the most probable range of the second direction D2 of the substrate 302a is any two of the intervals consisting of 1000 mg / mm, 1100 mg / mm, 1850 mg / mm, 2035 mg / mm, and 2500 mg / mm.

[0154] As a further option, the most probable range of the second direction D2 of the matrix 302a is 1200-2000 mg / mm.

[0155] In some embodiments of this application, the probable dispersion of the third-direction D3 of the substrate 302a ranges from 4 to 2500 mg / mm; the maximum probable dispersion of the third-direction D3 of the substrate 302a ranges from 1000 to 2500 mg / mm.

[0156] In some embodiments of this application, the probable dispersion of the third-direction D3 of the substrate 302a ranges from 4 to 2500 mg / mm; the maximum probable dispersion of the third-direction D3 of the substrate 302a ranges from 1000 to 2500 mg / mm.

[0157] As a further option, the probabilistic dispersion of the third-direction D3 of the matrix 302a is within the range of any two of the following: 4 mg / mm, 10 mg / mm, 37 mg / mm, 58 mg / mm, 75 mg / mm, 100 mg / mm, 180 mg / mm, 255 mg / mm, 370 mg / mm, 420 mg / mm, 600 mg / mm, 790 mg / mm, 1100 mg / mm, 1850 mg / mm, 2035 mg / mm, and 2500 mg / mm.

[0158] As a further option, the probabilistic dispersion of third-direction D3 of the 302a matrix ranges from 50 to 500 mg / mm.

[0159] As a further option, the most probable range of third-direction D3 dispersion of the matrix 302a is any two of the intervals consisting of 1000 mg / mm, 1100 mg / mm, 1850 mg / mm, 2035 mg / mm, and 2500 mg / mm.

[0160] As a further option, the most probable range of third-direction D3 dispersion of matrix 302a is 1200-2000 mg / mm.

[0161] Still refer to Figure 23 As shown, the ratio of the sum of the cross-sectional areas S of a certain type of object (such as the heating element 302b or the carrier 302a) in the smoke-generating body 3 to the corresponding layout interval length (such as the first type of layout interval length L1, the second type of layout interval length L2 or the third type of layout interval length L3) is defined as the area dispersion s, and its unit is mm.

[0162] The ratio of the sum of the cross-sectional areas S of a certain type of object (such as the heating element 302b or the carrier 302a) in the cross section to the length L1 of the first type of layout interval is defined as the area dispersion s1 of the first direction D1.

[0163] For example, if the sum of the cross-sectional areas of the first type of layout interval length L1 in the two corresponding sections is represented as S12 and S13 respectively, then s1=S12 / L1 or s1=S13 / L1.

[0164] The ratio of the sum of the cross-sectional areas S of a certain type of object (such as the heating element 302b or the carrier 302a) in the cross section to the length L2 of the second type of layout interval is defined as the area dispersion s2 of the second direction D2.

[0165] For example, if the sum of the cross-sectional areas of the second type of layout interval length L2 in the two corresponding sections is represented as S21 and S23 respectively, then s2=S21 / L1 or s2=S23 / L1.

[0166] The ratio of the sum of the cross-sectional areas S of a certain type of object (such as the heating element 302b or the carrier 302a) in the section to the length L3 of the third type of layout interval is defined as the area dispersion s3 of the third direction D3.

[0167] For example, if the sum of the cross-sectional areas of the third type of layout interval length L3 in the two corresponding sections is represented as S31 and S32 respectively, then s3=S31 / L3 or s3=S32 / L3.

[0168] Understandably, area dispersion measures the dispersion of the area occupied by an object in a cross section and in the corresponding direction. It can measure the dispersion of the volume (decomposed into area) of the corresponding object (such as the heating element 302b or the carrier 302a). A more appropriate dispersion can improve the corresponding heating or atomization effect (aerosol volatilization) while ensuring volume reduction.

[0169] Similarly, due to the different cross sections, the length of the layout interval will change (this is true for all three dimensions), and the maximum area dispersion obtained from all cross sections is defined as the maximum area dispersion.

[0170] As a specific embodiment, in this application, the area dispersion of the heating element 302b ranges from 0.03 to 1.5 mm; the maximum area dispersion of the heating element 302b ranges from 0.9 to 1.5 mm.

[0171] As a further option, the area dispersion of the heating element 302b is within the range of any two values ​​formed by 0.03mm, 0.04mm, 0.05mm, 0.07mm, 0.09mm, 0.11mm, 0.15mm, 0.18mm, 0.2mm, 0.29mm, 0.35mm, 0.41mm, 0.52mm, 0.6mm, 0.71mm, 0.85mm, 0.93mm, 1.1mm, 1.23mm, 1.18mm, 1.30mm, 1.35mm, 1.42mm, 1.46mm, and 1.5mm.

[0172] As a further option, the area dispersion of the heating element 302b ranges from 0.2 to 0.9 mm.

[0173] In some embodiments of this application, the area dispersion of the heating element 302b in the first direction D1 ranges from 0.18 to 1.5 mm; the maximum area dispersion of the heating element 302b in the first direction D1 ranges from 0.9 to 1.5 mm.

[0174] As a further option, the area dispersion of the heating element 302b in the first direction D1 can be a range consisting of any two of the following values: 0.18mm, 0.2mm, 0.29mm, 0.35mm, 0.41mm, 0.52mm, 0.6mm, 0.71mm, 0.85mm, 0.93mm, 1.1mm, 1.23mm, 1.18mm, 1.30mm, 1.35mm, 1.42mm, 1.46mm, and 1.5mm.

[0175] As a further option, the area dispersion of the heating element 302b in the first direction D1 can be in the range of 0.4-1.2 mm.

[0176] As a further option, the maximum area dispersion of the first direction D1 of the heating element 302b can be a range consisting of any two of the following values: 0.93mm, 1.1mm, 1.23mm, 1.18mm, 1.30mm, 1.35mm, 1.42mm, 1.46mm, and 1.5mm.

[0177] As a further option, the maximum area dispersion of the heating element 302b in the first direction D1 ranges from 1.0 to 1.3 mm.

[0178] In some embodiments of this application, the area dispersion of the heating element 302b in the second direction D2 ranges from 0.03 to 0.15 mm; the maximum area dispersion of the heating element 302b in the second direction D2 ranges from 0.06 to 0.15 mm.

[0179] As a further option, the area dispersion of the second direction D2 of the heating element 302b can be a range consisting of any two values ​​from 0.03mm, 0.041mm, 0.052mm, 0.06mm, 0.073mm, 0.083mm, 0.091mm, 0.10mm, 0.11mm, 0.12mm, 0.13mm, 0.14mm, and 0.15mm.

[0180] As a further option, the maximum area dispersion of the second direction D2 of the heating element 302b is in the range of 0.06-0.1 mm.

[0181] As a further option, the maximum area dispersion of the second direction D2 of the heating element 302b can be a range consisting of any two values ​​from 0.06mm, 0.073mm, 0.083mm, 0.091mm, 0.10mm, 0.11mm, 0.12mm, 0.13mm, 0.14mm, and 0.15mm.

[0182] As a further option, the maximum area dispersion of the second direction D2 of the heating element 302b ranges from 0.08 to 0.12 mm.

[0183] In some embodiments of this application, the area dispersion of the third-direction D3 of the heating element 302b ranges from 0.03 to 0.15 mm; the maximum area dispersion of the third-direction D3 of the heating element 302b ranges from 0.06 to 0.15 mm.

[0184] As a further option, the maximum area dispersion of the third-direction D3 of the heating element 302b can be a range consisting of any two values ​​from 0.03mm, 0.041mm, 0.052mm, 0.06mm, 0.073mm, 0.083mm, 0.091mm, 0.10mm, 0.11mm, 0.12mm, 0.13mm, 0.14mm, and 0.15mm.

[0185] As a further option, the maximum area dispersion of the third-direction D3 of the heating element 302b ranges from 0.08 to 0.12 mm.

[0186] As a specific embodiment, in this application, the area dispersion of the substrate 302a ranges from 3 to 20 mm; the maximum area dispersion of the substrate 302a ranges from 8 to 20 mm.

[0187] As a further option, the area dispersion of the substrate 302a can be a range consisting of any two values ​​from 3mm, 3.5mm, 4.1mm, 4.5mm, 5mm, 5.6mm, 6mm, 6.4mm, 7.2mm, 7.7mm, 8.2mm, 8.6mm, 9.1mm, 9.6mm, 10.2mm, 10.9mm, 11.4mm, 12.3mm, 12.9mm, 13.2mm, 13.7mm, 14.1mm, 14.8mm, 15.2mm, 15.8mm, 16.5mm, 17.3mm, 17.6mm, 18.4mm, 18.9mm, 19.2mm, 19.5mm, 19.8mm, and 20mm.

[0188] As a further option, the area dispersion of the substrate 302a ranges from 5 to 14 mm.

[0189] As a further option, the maximum area dispersion of the substrate 302a can be a range consisting of any two of the following values: 8 mm, 8.2 mm, 8.6 mm, 9.1 mm, 9.6 mm, 10.2 mm, 10.9 mm, 11.4 mm, 12.3 mm, 12.9 mm, 13.2 mm, 13.7 mm, 14.1 mm, 14.8 mm, 15.2 mm, 15.8 mm, 16.5 mm, 17.3 mm, 17.6 mm, 18.4 mm, 18.9 mm, 19.2 mm, 19.5 mm, 19.8 mm, and 20 mm.

[0190] As a further option, the maximum area dispersion of the 302a substrate ranges from 8 to 16 mm.

[0191] As a more specific solution, in this application, since the three-dimensional structure of the smoke-generating body 3 has an oriented design, such as being configured as a cylinder or other three-dimensional shape with obvious length orientation, the area dispersion of the first direction D1, the second direction D2, and the third direction D3 is also different.

[0192] In some embodiments of this application, the area dispersion of the first direction D1 of the substrate 302a ranges from 3 to 20 mm; the maximum area dispersion of the first direction D1 of the substrate 302a ranges from 8 to 20 mm.

[0193] As a further option, the area dispersion of the first direction D1 of the substrate 302a can be a range consisting of any two of the following values: 3mm, 3.5mm, 4.1mm, 4.5mm, 5mm, 5.6mm, 6mm, 6.4mm, 7.2mm, 7.7mm, 8.2mm, 8.6mm, 9.1mm, 9.6mm, 10.2mm, 10.9mm, 11.4mm, 12.3mm, 12.9mm, 13.2mm, 13.7mm, 14.1mm, 14.8mm, 15.2mm, 15.8mm, 16.5mm, 17.3mm, 17.6mm, 18.4mm, 18.9mm, 19.2mm, 19.5mm, 19.8mm, and 20mm.

[0194] As a further option, the area dispersion of the first direction D1 of the substrate 302a is in the range of 5-14 mm.

[0195] As a further option, the maximum area dispersion of the first direction D1 of the substrate 302a can be a range consisting of any two of the following values: 8 mm, 8.2 mm, 8.6 mm, 9.1 mm, 9.6 mm, 10.2 mm, 10.9 mm, 11.4 mm, 12.3 mm, 12.9 mm, 13.2 mm, 13.7 mm, 14.1 mm, 14.8 mm, 15.2 mm, 15.8 mm, 16.5 mm, 17.3 mm, 17.6 mm, 18.4 mm, 18.9 mm, 19.2 mm, 19.5 mm, 19.8 mm, and 20 mm.

[0196] As a further option, the maximum area dispersion of the first direction D1 of the substrate 302a is in the range of 10-16 mm.

[0197] In some embodiments of this application, the area dispersion of the second direction D2 of the substrate 302a ranges from 5 to 16 mm; the maximum area dispersion of the second direction D2 of the substrate 302a ranges from 8 to 16 mm.

[0198] As a further option, the area dispersion of the second direction D2 of the substrate 302a can be a range consisting of any two values ​​from 5mm, 5.6mm, 6mm, 6.4mm, 7.2mm, 7.7mm, 8.2mm, 8.6mm, 9.1mm, 9.6mm, 10.2mm, 10.9mm, 11.4mm, 12.3mm, 12.9mm, 13.2mm, 13.7mm, 14.1mm, 14.8mm, 15.2mm, 15.8mm, and 16mm.

[0199] As a further option, the area dispersion of the second direction D2 of the substrate 302a is in the range of 8-14 mm.

[0200] As a further option, the maximum area dispersion of the second direction D2 of the substrate 302a can be a range consisting of any two values ​​from 8mm, 8.2mm, 8.6mm, 9.1mm, 9.6mm, 10.2mm, 10.9mm, 11.4mm, 12.3mm, 12.9mm, 13.2mm, 13.7mm, 14.1mm, 14.8mm, 15.2mm, 15.8mm, and 16mm.

[0201] As a further option, the maximum area dispersion of the second direction D2 of the substrate 302a is in the range of 10-14 mm.

[0202] In some embodiments of this application, the area dispersion of the third-direction D3 of the substrate 302a ranges from 5 to 16 mm; the maximum area dispersion of the third-direction D3 of the substrate 302a ranges from 8 to 16 mm.

[0203] As a further option, the area dispersion of the third-direction D3 of the substrate 302a can be a range consisting of any two values ​​from 5mm, 5.6mm, 6mm, 6.4mm, 7.2mm, 7.7mm, 8.2mm, 8.6mm, 9.1mm, 9.6mm, 10.2mm, 10.9mm, 11.4mm, 12.3mm, 12.9mm, 13.2mm, 13.7mm, 14.1mm, 14.8mm, 15.2mm, 15.8mm, and 16mm.

[0204] As a further option, the area dispersion of the third-direction D3 of the substrate 302a is in the range of 8-12 mm.

[0205] As a further option, the maximum area dispersion of the third-direction D3 of the substrate 302a can be a range consisting of any two values ​​from 8mm, 8.2mm, 8.6mm, 9.1mm, 9.6mm, 10.2mm, 10.9mm, 11.4mm, 12.3mm, 12.9mm, 13.2mm, 13.7mm, 14.1mm, 14.8mm, 15.2mm, 15.8mm, and 16mm.

[0206] As a further option, the maximum area dispersion of the third-direction D3 of the substrate 302a is in the range of 10-14 mm.

[0207] Reference Figure 25 As shown, in this application, a hexahedral solid space is constructed with the cross-section of the smoke-generating body 3 (excluding the cross-section tangent to the edge of the smoke-generating body 3) as the boundary, which is defined as the unit layout space SP. The specific construction method of the unit layout space SP is as follows: Two parallel cross sections spaced 1 mm apart form two opposite faces of a hexahedron; another set of two parallel cross sections spaced 1 mm apart (perpendicular to the previous set of cross sections) forms another two opposite faces of the hexahedron; then a third set of two parallel cross sections spaced 1 mm apart (perpendicular to the previous two sets) forms another two opposite faces of the hexahedron. This constitutes the six boundaries of the unit layout space SP of this application.

[0208] by Figure 25 Taking the example shown, two cross sections perpendicular to the second direction D2, which are 1 mm apart, are used as the first set of relative boundaries of the unit layout space SP; two cross sections perpendicular to the third direction D3, which are 1 mm apart, are used as the second set of relative boundaries of the unit layout space SP; and two cross sections perpendicular to the first direction D1, which are 1 mm apart, are used as the third set of relative boundaries. In this way, a unit layout space SP with a volume related to the length of the first type of layout interval L1 is formed, which is defined as the first type of unit layout space SP.

[0209] It is understandable that, in a similar manner, unit deployment spaces SP related to the second type deployment interval length L2 and the third type deployment interval length L3 can be constructed respectively, and they can be defined as the second type unit deployment space SP and the third type unit deployment space SP.

[0210] The ratio of the mass of a certain type of object (such as the heating element 302b or the carrier 302a) in the unit layout space SP to the volume of the unit layout space SP is defined as the spatial dispersion.

[0211] Specifically, spatial dispersion can be divided into three categories based on the orientation of the length direction: Type I spatial dispersion, Type II spatial dispersion, and Type III spatial dispersion.

[0212] That is, the ratio of the mass of a certain type of object (such as the heating element 302b or the carrier 302a) in the first type of unit layout space SP to the volume of the first type of unit layout space SP is defined as the first type of spatial dispersion; the ratio of the mass of a certain type of object (such as the heating element 302b or the carrier 302a) in the second type of unit layout space SP to the volume of the second type of unit layout space SP is defined as the second type of spatial dispersion; and the ratio of the mass of a certain type of object (such as the heating element 302b or the carrier 302a) in the third type of unit layout space SP to the volume of the third type of unit layout space SP is defined as the third type of spatial dispersion.

[0213] If we denote the spatial dispersion of the first type as m1, the mass of a certain type of object in the smoke-generating body 3 (such as the heating element 302b or the carrier 302a) within the first type of unit distribution space SP as M1, and the volume of the first type of unit distribution space SP as V1, then we have m1 = M1 / V1, with units of mg / mm². 3 If the second type of spatial dispersion is represented as m2, the mass of a certain type of object in the smoke-generating body 3 (such as the heating element 302b or the carrier 302a) within the second type of unit layout space SP is represented as M2, and the volume of the second type of unit layout space SP is represented as V2, then m2 = M2 / V2; if the third type of spatial dispersion is represented as m3, the mass of a certain type of object in the smoke-generating body 3 (such as the heating element 302b or the carrier 302a) within the third type of unit layout space SP is represented as M3, and the volume of the third type of unit layout space SP is represented as V3, then m3 = M3 / V3.

[0214] It is understandable that spatial dispersion can measure the dispersion of an object in a unit space SP and the corresponding direction. It can measure the dispersion of the mass of the corresponding object (such as the heating element 302b or the carrier 302a). A more suitable dispersion can ensure uniform mass distribution and thus improve the corresponding heating or atomization effect (aerosol volatilization).

[0215] Similarly, due to different cross sections, the length of the layout interval will change (this is true for all three dimensions), and the maximum spatial dispersion obtained from all cross sections is defined as the maximum spatial dispersion.

[0216] As a specific implementation, in this application, the spatial dispersion of the heating element 302b ranges from 0.1 to 24 mg / mm². 3The maximum spatial dispersion of the heating element 302b ranges from 16 to 24 mg / mm². 3 .

[0217] As a further option, the spatial dispersion of the heating element 302b is taken in the range of 0.1 mg / mm². 3 0.4 mg / mm 3 0.7 mg / mm 3 1.1 mg / mm 3 3.2 mg / mm 3 4.1 mg / mm 3 5.2 mg / mm 3 6mg / mm 3 10mg / mm 3 12mg / mm 3 14mg / mm 3 16mg / mm 3 18.1 mg / mm 3 20mg / mm 3 21mg / mm 3 22mg / mm 3 23mg / mm 3 24mg / mm 3 The range of any two elements in the interval.

[0218] As a further option, the spatial dispersion of the thermosphere 302b ranges from 1 to 8 mg / mm². 3 .

[0219] As a further option, the maximum spatial dispersion of the heating element 302b is taken to be within the range of 16 mg / mm². 3 18.1 mg / mm 3 20mg / mm 3 21mg / mm 3 22mg / mm 3 23mg / mm 3 24mg / mm 3 The range of any two elements in the interval.

[0220] As a further option, the maximum spatial dispersion of the heating element 302b ranges from 18 to 22 mg / mm². 3 .

[0221] In some embodiments of this application, the first type of spatial dispersion of the heating element 302b ranges from 4 to 24 mg / mm². 3 The maximum spatial dispersion of the first type of heating element 302b ranges from 16 to 24 mg / mm². 3.

[0222] As a further option, the first-order spatial dispersion of the heating element 302b is taken in the range of 4 mg / mm². 3 4.1 mg / mm 3 5.2 mg / mm 3 6mg / mm 3 10mg / mm 3 12mg / mm 3 14mg / mm 3 16mg / mm 3 18.1 mg / mm 3 20mg / mm 3 21mg / mm 3 22mg / mm 3 23mg / mm 3 24mg / mm 3 The range of any two elements in the interval.

[0223] As a further option, the first-order spatial dispersity of the heating element 302b ranges from 8 to 20 mg / mm². 3 .

[0224] As a further option, the maximum spatial dispersion of the first type of heating element 302b is taken in the range of 16 mg / mm². 3 18.1 mg / mm 3 20mg / mm 3 21mg / mm 3 22mg / mm 3 23mg / mm 3 24mg / mm 3 The range of any two elements in the interval.

[0225] As a further option, the maximum spatial dispersion of the first type of heating element 302b is in the range of 18-22 mg / mm². 3 .

[0226] In some embodiments of this application, the second type of spatial dispersion of the heating element 302b ranges from 0.1 to 1 mg / mm². 3 The maximum spatial dispersion of the second type for the heating element 302b ranges from 0.5 to 1 mg / mm². 3 .

[0227] As a further option, the second type spatial dispersion of the heating element 302b is in the range of 0.1 mg / mm². 3 0.4 mg / mm 3 0.7 mg / mm3 1mg / mm 3 The range of any two elements in the interval.

[0228] As a further option, the second type of spatial dispersion of the heating element 302b ranges from 0.3 to 0.7 mg / mm². 3 .

[0229] As a further option, the second maximum spatial dispersion of the heating element 302b is set to 0.5 mg / mm². 3 0.7 mg / mm 3 1mg / mm 3 The range of any two elements in the interval.

[0230] As a further option, the maximum spatial dispersion of the second type of heating element 302b ranges from 0.6 to 0.8 mg / mm². 3 .

[0231] In some embodiments of this application, the third type spatial dispersion of the heating element 302b ranges from 0.1 to 1 mg / mm². 3 The maximum spatial dispersion of the third type for the heating element 302b ranges from 0.5 to 1 mg / mm³. 3 .

[0232] As a further option, the third-order spatial dispersion of the heating element 302b is in the range of 0.1 mg / mm². 3 0.4 mg / mm 3 0.7 mg / mm 3 1mg / mm 3 The range of any two elements in the interval.

[0233] As a further alternative, the spatial dispersity of thermosphere 302b of type III ranges from 0.3 to 0.7 mg / mm. 3 .

[0234] As a further option, the maximum spatial dispersion of the third type of heating element 302b is 0.5 mg / mm³. 3 0.7 mg / mm 3 1mg / mm 3 The range of any two elements in the interval.

[0235] As a further option, the maximum spatial dispersion of the heating element 302b is in the range of 0.6-0.9 mg / mm³. 3 .

[0236] Using all cross-sections as a specific example, in this application, the spatial dispersion of the substrate 302a ranges from 0.1 to 1.6 mg / mm². 3 The maximum spatial dispersion of the 302a matrix ranges from 0.8 to 1.6 mg / mm². 3 .

[0237] As a further option, the spatial dispersion of the 302a matrix is ​​taken in the range of 0.1 mg / mm². 3 0.2 mg / mm 3 0.3 mg / mm 3 0.4 mg / mm 3 0.5 mg / mm 3 0.6 mg / mm 3 0.7 mg / mm 3 0.8 mg / mm 3 0.9 mg / mm 3 1mg / mm 3 1.1 mg / mm 3 1.2 mg / mm 3 1.3 mg / mm 3 1.4 mg / mm 3 1.5 mg / mm 3 1.6 mg / mm 3 The range formed by any two of them.

[0238] As a further alternative, the inter-dispersity of the 302a matrix ranges from 0.4 to 1.2 mg / mm². 3 .

[0239] As a further option, the maximum spatial dispersion of the 302a matrix is ​​taken to be in the range of 0.8 mg / mm². 3 0.9 mg / mm 3 1mg / mm 3 1.1 mg / mm 3 1.2 mg / mm 3 1.3 mg / mm 3 1.4 mg / mm 3 1.5 mg / mm 3 1.6 mg / mm 3 The range formed by any two of them.

[0240] As a further alternative, the maximum spatial dispersion of the 302a matrix ranges from 0.9 to 1.3 mg / mm². 3 .

[0241] As a more specific solution, in this application, since the three-dimensional structure of the smoke-generating body has an oriented design, such as being configured as a cylinder or other three-dimensional shape with obvious length orientation, the first type of spatial dispersion, the second type of spatial dispersion, and the third type of spatial dispersion are also different.

[0242] In some embodiments of this application, the first type of spatial dispersion of the substrate 302a ranges from 0.2 to 1.6 mg / mm². 3 The maximum spatial dispersion of type I for the 302a matrix ranges from 0.8 to 1.6 mg / mm². 3 .

[0243] As a further option, the first-order spatial dispersity of the 302a matrix is ​​set to 0.2 mg / mm². 3 0.3 mg / mm 3 0.4 mg / mm 3 0.5 mg / mm 3 0.6 mg / mm 3 0.7 mg / mm 3 0.8 mg / mm 3 0.9 mg / mm 3 1mg / mm 3 1.1 mg / mm 3 1.2 mg / mm 3 1.3 mg / mm 3 1.4 mg / mm 3 1.5 mg / mm 3 1.6 mg / mm 3 The range formed by any two of them.

[0244] As a further option, the first-order spatial dispersity of the 302a matrix ranges from 0.4 to 1.2 mg / mm². 3 .

[0245] As a further option, the maximum spatial dispersion of matrix 302a of type I is taken in the range of 0.8 mg / mm². 3 0.9 mg / mm 3 1mg / mm 3 1.1 mg / mm 3 1.2 mg / mm 3 1.3 mg / mm 3 1.4 mg / mm 3 1.5 mg / mm 3 1.6 mg / mm 3 The range formed by any two of them.

[0246] As a further option, the maximum spatial dispersion of matrix 302a of type I ranges from 0.9 to 1.3 mg / mm². 3 .

[0247] In some embodiments of this application, the second type of spatial dispersion of the substrate 302a ranges from 0.1 to 1.2 mg / mm². 3 The maximum spatial dispersion of type II for matrix 302a ranges from 0.6 to 1.2 mg / mm². 3 .

[0248] As a further option, the second type of spatial dispersity of the 302a matrix is ​​set to 0.1 mg / mm². 3 0.2 mg / mm 3 0.3 mg / mm 3 0.4 mg / mm 3 0.5 mg / mm 3 0.6 mg / mm 3 0.7 mg / mm 3 0.8 mg / mm 3 0.9 mg / mm 3 1mg / mm 3 1.1 mg / mm 3 1.2 mg / mm 3 The range formed by any two of them.

[0249] As a further option, the second type of spatial dispersity of the 302a matrix ranges from 0.3 to 0.9 mg / mm². 3 .

[0250] As a further option, the second maximum spatial dispersion of the 302a matrix is ​​set at 0.6 mg / mm². 3 0.7 mg / mm 3 0.8 mg / mm 3 0.9 mg / mm 3 1mg / mm 3 1.1 mg / mm 3 1.2 mg / mm 3 The range formed by any two of them.

[0251] As a further option, the second maximum spatial dispersion of the 302a matrix ranges from 0.7 to 0.9 mg / mm². 3 .

[0252] In some embodiments of this application, the third type spatial dispersion of the substrate 302a ranges from 0.1 to 1.2 mg / mm². 3 The maximum spatial dispersion of matrix 302a (type III) ranges from 0.6 to 1.2 mg / mm. 3 .

[0253] In some embodiments of this application, the third type spatial dispersion of the substrate 302a ranges from 0.1 to 1.2 mg / mm². 3 The maximum spatial dispersion of matrix 302a (type III) ranges from 0.6 to 1.2 mg / mm. 3 .

[0254] As a further option, the third type spatial dispersity of the 302a matrix is ​​set to 0.1 mg / mm³. 3 0.2 mg / mm 3 0.3 mg / mm 3 0.4 mg / mm 3 0.5 mg / mm 3 0.6 mg / mm 3 0.7 mg / mm 3 0.8 mg / mm 3 0.9 mg / mm 3 1mg / mm 3 1.1 mg / mm 3 1.2 mg / mm 3 The range formed by any two of them.

[0255] As a further alternative, the third-order spatial dispersity of the 302a matrix ranges from 0.3 to 0.9 mg / mm². 3 .

[0256] As a further option, the maximum spatial dispersion of matrix 302a of type III is taken in the range of 0.6 mg / mm². 3 0.7 mg / mm 3 0.8 mg / mm 3 0.9 mg / mm 3 1mg / mm 3 1.1 mg / mm 3 1.2 mg / mm 3 The range formed by any two of them.

[0257] As a further alternative, the maximum spatial dispersion of matrix 302a of type III ranges from 0.7 to 0.9 mg / mm². 3 .

[0258] To describe the matching state between the linear elements in the smoke-generating body 3, this application also proposes and defines the concept of "accompaniment degree". Accompaniment degree is a dimensionless parameter, specifically referring to the ratio of the dispersion of the heating element 302b to the dispersion of the carrier 302a. Since the dispersion provided by the technical solution of this application includes probabilistic dispersion, area dispersion, and spatial dispersion, the accompaniment degree of this application also includes probabilistic accompaniment degree, area accompaniment degree, and spatial dispersion degree.

[0259] The probabilistic degree of this application ranges from 0.000008 to 10; the area degree of this application ranges from 0.0015 to 0.5; and the spatial degree of this application ranges from 0.0625 to 240.

[0260] As a further option, the probabilistic degree of this application ranges from 0.005 to 0.016; the area degree of this application ranges from 0.01 to 0.075; and the spatial degree of this application ranges from 1 to 15.

[0261] As a specific implementation, the maximum range of the degree of association (including all degrees of association) in this application is 0.000008 to 1000.

[0262] As a further option, the range of the degree of association (including all degrees of association) in this application is 10-1000; the range of the maximum degree of association (based on the maximum dispersion, including all degrees of association) in this application is 10-1000.

[0263] It is understood that the probabilistic, area, and spatial adjoint degrees of this application may further include the following adjoint degrees for each direction: The ratio of the probable dispersion of the heating element 302b to that of the substrate 302a in the first direction D1 can be defined as the probable adjointness of the first direction D1. Similarly, the ratio of the probable dispersion of the heating element 302b to that of the substrate 302a in the second direction D2 can be defined as the probable adjointness of the second direction D2. The ratio of the probable dispersion of the heating element 302b to that of the substrate 302a in the third direction D3 can be defined as the probable adjointness of the third direction D3.

[0264] The ratio of the area dispersion of the heating element 302b to that of the substrate 302a in the first direction D1 can be defined as the area dispersion of the first direction D1. Similarly, the ratio of the area dispersion of the substrate 302a to that of the heating element 302b in the second direction D2 can be defined as the area dispersion of the second direction D2. The ratio of the area dispersion of the substrate 302a to that of the heating element 302b in the third direction D3 can be defined as the area dispersion of the third direction D3.

[0265] The ratio of the first type of spatial dispersion of the heating element 302b to that of the carrier 302a can be defined as the first type of spatial accompaniment; similarly, the ratio of the second type of spatial dispersion of the carrier 302a to that of the heating element 302b can be defined as the second type of spatial accompaniment; and the ratio of the third type of spatial dispersion of the carrier 302a to that of the heating element 302b can be defined as the third type of spatial accompaniment.

[0266] It is understandable that the various associated degrees mentioned above (probability associated degree, area associated degree, and spatial associated degree, as well as their individual associated degrees in each direction) can all be calculated from the various dispersion degrees mentioned above, and the specific range of values ​​will not be elaborated here.

[0267] The degree of association essentially measures the degree of matching and following between the heating element 302b and the carrier 302a in spatial distribution. Generally, a larger degree of association indicates a higher degree of synchronization between the distribution dispersion characteristics of the heating element 302b and the carrier 302a in that direction; a smaller degree of association indicates a lower degree of synchronization between the distribution dispersion characteristics of the heating element 302b and the carrier 302a in that direction.

[0268] By controlling the degree of accompaniment, it can be ensured that the heat generated by the heating element 302b can be absorbed and transferred more evenly by the substrate 302a, thereby achieving a more consistent carbonization effect in three-dimensional space. This is also one of the key mechanisms for solving the problem of uneven carbonization in this application.

[0269] By using the correspondence under discrete distribution and the corresponding parameter settings, the heating element 302b of this application can be effectively distributed in space and can also be effectively heated by following the arrangement of the carrier substrate 302a.

[0270] Reference Figure 24 As shown, as another implementation of this application, the carrier 302a and / or heating element 302b are discretely distributed within the space defined by the smoke-generating body 3.

[0271] In the smoke-generating body 3, linear materials (which can be heating linear materials 3022, carrier linear materials 3021, or composite linear materials 302) are diffusely filled into the smoke-generating body 3; this can achieve a more uniform heating and smoke generation effect.

[0272] More specifically, the carrier 302a and the heating element 302b overlap in a mixed manner within the space defined by the smoke-generating body 3.

[0273] As a more specific embodiment, the carrier 302a and the heating element 302b constitute a three-dimensional nonwoven fabric, which can be formed by stacking nonwoven fabrics or by directly filling linear objects in three-dimensional space.

[0274] It is understood that the nonwoven fabric itself can be constructed as the linear material in this application (specifically, it can be the composite linear material 302), that is, it has the properties of the linear material in this application.

[0275] As a specific approach, in order to obtain a suitable mixing effect, the mass ratio of the heating element 302b to the carrier 302a is in the range of 0.005-10.

[0276] As a specific solution, in order to ensure the effect of spatial dispersion, this application sets the curvature of the substrate 302a and / or the heating element 302b to a range of 0.02-2mm. -1 .

[0277] As a further option, this application sets the curvature of the substrate 302a and / or the heating element 302b to a range of 0.02 mm. -1 0.03mm -1 0.04mm -1 0.05mm -1 0.06mm -1 0.07mm -1 0.08mm -1 0.09mm -1 0.1mm -1 0.2mm -1 0.3mm -1 0.4mm -1 0.5mm -1 0.6mm -1 0.7mm -1 0.8mm -1 0.9mm -1 1mm -1 1.1mm -1 1.2mm -1 1.3mm -1 1.4mm -1 1.5mm -1 1.6mm -1 1.7mm -1 1.8mm -1 1.9mm -1 2mm -1 The range formed by any two of them.

[0278] The curvature refers to spatial curvature, such as the degree of bending in the extension direction of a linear body. It geometrically describes the bending characteristics of the extension path of the linear body itself, affecting the uniformity of heat transfer along the path and the spatial coverage.

[0279] As a specific solution, the orientation distribution function of the substrate 302a and / or the heating element 302b has a preset orientation related to the length of the smoke-generating body 3. That is, the orientation trend of the substrate 302a and the heating element 302b can be set according to the length direction of the smoke-generating body 3, which makes it easier to control heating and smoke generation.

[0280] As a specific solution, a filler body can also be set in this solution ( Figure 24 (not shown in the image), the filler is configured to fill at least between the carrier 302a and the heating element 302b, and the filler can serve functions such as bonding the smoke-generating body 3 into a whole and enhancing thermal conductivity.

[0281] This approach allows for a uniform spatial distribution of the substrate 302a or heating element 302b at the microscopic level, while the use of nonwoven technology can improve production efficiency.

[0282] In the description of this application, the terms "first" and "second" are used for descriptive purposes only and should not be construed as indicating or implying relative importance or implicitly specifying the number of technical features indicated. Therefore, a feature defined as "first" or "second" may explicitly or implicitly include one or more features. In the description of this application, "multiple" means two or more, unless otherwise explicitly specified.

[0283] In the above embodiments, the descriptions of each embodiment have different focuses. For parts not described in detail in a certain embodiment, please refer to the relevant descriptions in other embodiments.

[0284] The embodiments, implementation methods, and related technical features of this application can be combined and substituted for each other without conflict.

[0285] The above are merely preferred embodiments of this application and are not intended to limit this application in any way. Any simple modifications, equivalent changes, and alterations made to the above embodiments based on the technical essence of this application without departing from the scope of the technical solution of this application shall still fall within the scope of the technical solution of this application.

Claims

1. A smoke-generating body, characterized in that, include: The carrier substrate is configured to store aerosol matrix; The heating element is configured to heat an aerosol matrix; The extension direction of the carrier interferes with the extension direction of the heating element, so that the carrier and the heating element are constructed as a whole that can extend synchronously.

2. The smoke-generating body according to claim 1, characterized in that, At least a portion of at least one of the carrier and the heating element covers at least a portion of the other.

3. The smoke-generating body according to claim 2, characterized in that, One of the carrier and the heating element located on the outer side is provided with a through-body channel, so that the one of the carrier and the heating element located on the inner side communicates with the outside.

4. The smoke-generating body according to claim 3, characterized in that, The extension direction of the through-body channel intersects with the extension direction of the entire structure.

5. The smoke-generating body according to claim 4, characterized in that, The different transdermal channels have different directions of extension.

6. The smoke-generating body according to claim 5, characterized in that, The outer component of the carrier and the heating element is constructed as a thread and covers the inner component of the carrier and the heating element in a spiral winding manner.

7. The smoke-generating body according to claim 6, characterized in that, The space between the two edges of the outermost one of the carrier and the heating element in its extending direction constitutes the through-body channel.

8. The smoke-generating body according to any one of claims 1 to 7, characterized in that, The carrier and / or the heating element are configured as a filament.

9. The smoke-generating body according to claim 8, characterized in that, In the overall extension direction, at least a portion of the heating element covers at least a portion of the carrier substrate.

10. The smoke-generating body according to claim 8, characterized in that, In a first interval along the overall extension direction, at least a portion of the carrier substrate covers at least a portion of the heating element; in a second interval along the overall extension direction, at least a portion of the heating element covers at least a portion of the carrier substrate.

11. The smoke-generating body according to claim 8, characterized in that, The whole is constructed as a composite linear structure consisting of the carrier and the heating element wound together. And / or, the whole is constructed as a composite linear structure consisting of the carrier and the heating element stacked in a layered manner.

12. A type of cigarette cartridge, characterized in that, Includes the smoke-generating body as described in any one of claims 1 to 11.

13. An electronic cigarette, characterized in that, Includes the smoke generator as described in any one of claims 1 to 11 or the smoke cartridge as described in claim 12.

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