Inhalation device

Abstract

This disclosure relates to a device for inhaling (1) solid or powdered materials (M) comprising a plastic spheroidal chamber (2) for receiving the material to be consumed; said spherical chamber communicating fluidly with an inhalation conduit (3) through a lateral opening (23) in a wall of said chamber, said chamber having a vent (21) forming an air inlet, said device being configured to sublimate the material contained in said spheroidal chamber (2) by a flame (F) licking the wall of a heat-resistant support arranged at a lower opening of said plastic spheroidal chamber. Abstract figure: Figure 1

Description

Title of the invention: Inhalation device

[0001] The present disclosure relates to a device for inhaling solid or powdered material comprising a spheroidal chamber intended to receive the material to be consumed, said spherical chamber communicating fluidly with an inhalation conduit through a lateral opening of said chamber, said chamber having a vent forming an air inlet.

[0002] Such a device is configured to sublimate the matter contained in said enclosure by a flame licking said spheroidal enclosure and heating the matter through the wall of said enclosure. technical field

[0003] The scope of this disclosure is that of smoking accessories intended for the consumption by inhalation of solid or semi-solid products (in the form of powders, pastes, pebbles...).

[0004] This disclosure relates more specifically to accessories developed within the framework of Harm Reduction (HR) programs for health, which is a public health approach intended to ensure better health safety for consumers of inhalant products, and in particular to reduce the risk of transmission of infectious diseases through blood, and to limit as much as possible the risks of contamination, or even injury, of these consumers with the accessories necessary for the consumption of such products.

[0005] Accessories used for the inhalation of such products are known, and in particular borosilicate glass pipes, which are a superior quality of glass, thicker, resistant to high temperatures.

[0006] Such a glass pipe comprises a body forming a chamber intended to receive inside a pebble / or crystals, as well as a vent forming an air inlet, and a tubular part in communication with the volume of the chamber, forming an inhalation mouthpiece.

[0007] The crystals or pebbles in the enclosure are consumed by sublimation, heated by a lighter flame through the borosilicate glass which is flame resistant. Previous technique

[0008] The prior art also includes, from document FR3120499, a device for the inhalation of dry solid or powdered substances comprising a sheath made of a spherical glass body with a flattened base and opening on the diametrically opposite side of said base by a threaded neck of a section between 15 and 30 millimeters, said glass body having a vent opening laterally.

[0009] Said inhalation conduit opening at the front end of a cap having a thread complementary to that of said neck, a filtering element consisting of a set of compressed stainless steel wires engaged in said inhalation conduit.

[0010] According to the inventor's findings, such a state of the art in one piece glass, or as taught by FR3.120.499 comprising a glass body intended to be heated in a flame can be improved, in particular with regard to the risks of burns and the risks of cuts. Summary

[0011] This disclosure improves the situation.

[0012] A device for inhaling solid or powdered materials is proposed, comprising a spherical chamber intended to receive the material to be consumed; said spherical chamber communicating fluidly with an inhalation duct through a lateral opening in a wall of said chamber, said chamber having at least one vent forming an air inlet, said device being configured to sublimate the material contained in said spherical chamber by a flame licking the wall of said spheroidal chamber, characterized in that the wall of the spheroidal chamber is predominantly made of plastic and the plastic wall of said spheroidal chamber has a lower opening for a flame-resistant support configured to contain the materials to be consumed, said flame-resistant support being made of a material distinct from the plastic.The flame-resistant support extends the plastic wall of the spheroidal enclosure, sealing the lower opening. The features described in the following paragraphs may optionally be implemented independently or in combination.

[0013] According to one embodiment, the flame-resistant support material is a metal.

[0014] According to one embodiment, said lower opening has a diameter between 10 mm and 30 mm such that 20 mm.

[0015] According to one embodiment, the flame-resistant support is a cup, comprising: - a concavity designed to receive the materials, with the concavity facing inwards towards the spheroidal enclosure, - a convex, oppositely configured to fit into the lower opening of the plastic enclosure, - a peripheral shoulder configured to bear against an inner surface of the plastic of the spheroidal enclosure.

[0016] According to one embodiment, a plastic wall of the spheroidal enclosure is equipped with a guard comprising one or more external projections extending downwards around the periphery of the lower opening, said guard configured to prevent or limit the risk of contact with the flame-resistant support. In particular, the guard comprising said external projection or projections extending around the periphery of the lower opening forms a base configured to rest stably on a horizontal support surface when said inhalation device rests on said horizontal surface.

[0017] According to one embodiment, said spheroidal enclosure comprises a lower plastic half-shell carrying said lower opening, and an upper plastic half-shell carrying said at least one vent, the lower half-shell and the upper half-shell respectively comprising a first assembly edge and a second assembly edge configured to be assembled by elastic interlocking.

[0018] According to one embodiment, the lower half-shell is in a first plastic, and the upper half-shell is in a second plastic, the second plastic having a melting temperature lower than the melting temperature of the first plastic.

[0019] According to one embodiment, the upper half-shell and the inhalation conduit form a single piece of injection-molded plastic, the free end of the inhalation conduit preferably being obstructed by an injection sprue, intended to be removed on first use, said sprue forming a non-use indicator.

[0020] According to one embodiment, said plastic enclosure is transparent, at least on an upper part of said enclosure, in particular the upper half-shell, being made of transparent plastic.

[0021] Brief description of the drawings.

[0022] Other features, details and advantages will become apparent from reading the detailed description below, and from analyzing the accompanying drawings, in which: Fig. 1

[0023] [Fig.1] is a schematic view of a device for inhaling solid or powdered materials, comprising a spheroidal chamber and an inhalation conduit in communication with a lateral opening of said chamber, the device comprising an assembly of three components, namely: - a first plastic part, typically injection molded, forming an upper half-shell and said inhalation duct, the upper half-shell having an air inlet vent and an upper exhaust opening for fumes, - a second plastic part, typically injection molded, forming a lower half-shell, having a lower opening, as well as a guard formed by an external projection surrounding said lower opening, - a flame-resistant support, inserted into the lower half-shell, comprising a cup, typically formed from a sheet of metal, the cup fitted into the lower opening of the lower half-shell, the cup comprising a shoulder bearing on the lower half-shell around said opening, a concavity configured to receive the material to be consumed, and a convexity fitted into said opening. Fig. 2

[0024] [Fig.2] is a detailed perspective view of the first plastic part, typically one piece, typically injection molded, forming not only the upper half-shell, but also the inhalation conduit. Fig. 3

[0025] [Fig.3] is a detailed perspective view of the second plastic part, typically in one piece. Fig. 4

[0026] [Fig.4] is a cross-sectional view of the lower half-shell, passing from a center of the lower opening. Description of the implementation methods

[0027] Also, the present disclosure relates to an inhalation device 1 for solid or powdered substances M comprising a spheroidal chamber 2 intended to receive the substance to be consumed, said spherical chamber communicating fluidly with an inhalation conduit 3 through a lateral opening 23 in a wall of said spheroidal chamber 2.

[0028] Said enclosure may have a vent 21 or 22 forming an air inlet, typically a vent forming a lateral air inlet.

[0029] Such a device is configured to sublimate the material contained in said spheroidal enclosure 2 by a flame F typically a lighter licking the wall of said spheroidal enclosure indirectly heating the materials contained.

[0030] According to this disclosure, the wall of the spheroidal enclosure 2 is predominantly made of plastic and the plastic wall of said spheroidal enclosure 2 has a lower opening 20, for a flame-resistant support 4 configured to contain the materials M to be consumed.

[0031] Said flame-resistant support S is made of a material distinct from the plastic, the flame-resistant support 4 extending the plastic wall of the spheroidal enclosure by closing said lower opening 20.

[0032] A spheroidal enclosure is obtained which has a wall predominantly made of plastic, preferably entirely made of plastic, with the exception of the upper opening 20 for which the wall of the spheroidal enclosure 2 is made of the fire-resistant material of said fire-resistant support 4.

[0033] In use, the flame is configured to directly lick mainly the fire-resistant material of the support, in order to sublimate the material contained in the support.

[0034] The support material 4 can be glass, or preferably metal, such as aluminum. Using a flame-resistant metal support in the inhalation device ensures better resistance to the heat generated by the flame used to sublimate the material. Metal, being an excellent thermal conductor, ensures uniform heat distribution, thus improving the sublimation efficiency of the material contained in the support.

[0035] In use, the user can hold the inhalation device by the plastic part of the enclosure with one hand, and hold a lighter with the other.

[0036] Compared to the prior art of pipes made entirely of borosilicate glass, or according to document FR3.120.499 Al for which said enclosure containing the materials is made entirely of glass, the inhalation device has the advantage of being able to be held by the plastic part of the enclosure which is predominant, limiting not only the risks of burns compared to glass, but also the risks of cuts if the glass happens to be broken.

[0037] Indeed, the plastic enclosure remains cool to the touch, while the flame-resistant support can withstand direct exposure to flame without degrading.

[0038] The configuration in which the plastic enclosure has a lower opening for the flame-resistant support allows for efficient heating of the material by direct contact with the flame, thus ensuring efficient sublimation of the material. This design also simplifies the assembly and disassembly of the device for cleaning and maintenance.

[0039] Integrating a vent into the plastic housing facilitates airflow through the device, thereby improving the inhalation process and ensuring that the sublimated material is efficiently drawn through the inhalation channel. This enhances the overall user experience by providing a smoother and more controlled inhalation.

[0040] Generally, said spheroidal enclosure 2 may have a top opening 22, which is preferably diametrically opposite to the bottom opening 20.

[0041] In addition, this arrangement allows for easier loading of the material to be consumed into the enclosure, as the top opening provides direct and convenient access. This opening can form a vent, in particular when the device lacks said vent 21 forming the lateral air inlet.

[0042] The diameter of the upper opening 22 is preferably greater than the diameter of the vent 21 forming the lateral air inlet, and preferably less than the diameter of the opening 23 connecting the volume of the enclosure and the inhalation duct 3.

[0043] The upper opening 22 can be a fume exhaust vent, or it can be an opening allowing the material to be loaded into the chamber. The presence of the upper opening 22, diametrically opposite the lower opening 20 in the spheroidal chamber, allows for better circulation of air and fumes inside the device. This configuration facilitates the evacuation of fumes generated by the sublimation of the material, thus improving the efficiency of the inhalation process.

[0044] According to one embodiment, the dimensions of the inhalation device may be, in whole or in part, as follows: - Average diameter of the spheroidal enclosure 2 between 18 mm and 70 mm, such as 32 mm, - Diameter of the side opening 23 and of the inhalation duct 3 between 3 mm and 20 mm, such as 8 mm, - Vent diameter 21 between 1.5 mm and 6 mm, such as 3 mm, - Diameter of lower opening 20 between 10 mm and 30 mm such as 20 mm, - Diameter of upper opening 22 between 3 mm and 10 mm such as 5 mm.

[0045] According to one embodiment, the flame-resistant support 4 is a cup, which may include: - a concavity 4ca intended to receive the materials M, the concavity facing inwards towards the spheroidal enclosure 2, - a convexity 4cx opposite to the concavity, the convexity configured to fit into said lower opening 20 of the plastic of the enclosure, - a peripheral shoulder 4ep configured to rest against an inner surface of the plastic of the spheroidal enclosure 2.

[0046] The concavity ensures that the materials are well contained and optimally exposed to heat, while the convexity guarantees a secure and stable fit of the support in the enclosure.

[0047] Furthermore, the peripheral shoulder 4ep of the cup, configured to bear against an inner surface of the spheroidal chamber 2, reinforces the stability and structural integrity of the device. This prevents the support from shifting or becoming misaligned during use, thus ensuring a safer and more reliable inhalation experience.

[0048] The cup can typically be obtained from a sheet of metal, for example aluminum, to form the shoulder 4ep of the cup as well as the concavity 4ca and the convexity 4cx. The cup can typically be obtained by cutting and stamping techniques.

[0049] The concavity 4ca of the flame-resistant support 4 allows the materials M to be sublimated to be contained, while the convexity 4cx, housed in the lower opening 20, is configured to be in direct contact with the flame of the lighter to heat the materials M contained in the concavity 4ca.

[0050] According to one embodiment, a plastic wall of the spheroidal enclosure 2 is equipped with a guard G comprising an external projection 5 or one or more external projections extending downwards around the periphery of the lower opening 20, said guard being configured to prevent or limit the risk of contact with the flame-resistant support S. The external projection(s) 5 of the guard 5 are typically made of plastic, integral with the plastic wall of the spheroidal enclosure.

[0051] As illustrated in [Fig.4], by way of example, the external projection 5 can be substantially cylindrical, the axis of revolution Ar of the cylinder of the projection substantially coaxial with a radius of the spheroidal enclosure 2 passing through a center of the lower opening 20.

[0052] According to one embodiment, the guard G, comprising said external projection 5 or projections, can form a base configured to rest stably on a horizontal support surface when said inhalation device 1 rests on said horizontal surface. According to one embodiment, a base of the cylinder forming the guard G is configured to rest on the horizontal surface in a stable position of the inhalation device.

[0053] Thus, the addition of a guard G comprising one or more external projections 5 around the lower opening 20 of the spheroidal enclosure 2 provides additional protection against the risk of accidental contact with the flame-resistant support. This feature considerably reduces the risk of burns to the user, as it creates a physical barrier between the user's hand and the heated support.

[0054] The guard G thus improves the overall safety of the device by preventing any direct contact with the hottest parts of the device during use. This allows the user to handle the device with confidence, knowing that the risk of injury is minimized. This feature also contributes to the stability of the device when placed on a surface by providing additional support. This configuration ensures that the device remains upright and stable when placed, thus reducing the risk of accidental tipping.

[0055] According to one embodiment, said spheroidal enclosure 2 may include a lower half-shell Cinf, plastic carrying said lower opening 20, and an upper half-shell Csup, plastic carrying the vent 21, or even said upper opening.

[0056] The lower half-shell Cinf and the upper half-shell may respectively comprise a first circular assembly edge Bl and a second circular assembly edge B2, configured to be assembled by elastic interlocking. The first and second assembly edges may respectively comprise ribs Nv, respectively facing outwards and facing inwards, configured to interlock with each other to ensure interlocking.

[0057] The design of the spheroidal enclosure 2, consisting of two half-shells—a lower half-shell Cinf carrying the lower opening 20 and an upper half-shell Csup carrying the vent 21—allows for easy assembly and disassembly of the device. The half-shells can be assembled by elastic interlocking thanks to assembly edges Bl, B2 configured to hook onto each other, thus ensuring a secure locking mechanism.

[0058] This modular design facilitates cleaning and maintenance of the device, as users can easily separate the two halves to access the inside of the chamber. Furthermore, the elastic interlocking assembly ensures an adequate seal between the two parts, thus guaranteeing optimal device performance during inhalation.

[0059] According to one embodiment, the lower half-shell Cinf may be made of a first plastic, and the upper half-shell Csup is made of a second plastic. The second plastic typically has a melting point lower than the melting point of the first plastic. The first plastic of the lower half-shell is preferably made of a material capable of withstanding higher temperatures than the second plastic of the upper half-shell.

[0060] The fact that the lower half-shell Cinf is made of a first plastic, and the upper half-shell Csup of a second plastic, where the second plastic has a lower melting point than the first plastic, optimizes the thermal and mechanical properties of each part of the device. The first plastic, being more heat-resistant, ensures that the lower half-shell can withstand high temperatures without deforming, which is advantageous for the area near the flame-resistant support.

[0061] Conversely, using a second plastic with a lower melting point for the upper half of the shell reduces manufacturing costs and improves the ease of injection molding. This differentiation of materials allows for an inhalation device that combines durability, heat resistance and production efficiency, while maintaining optimal performance during use.

[0062] For example, the first plastic may be a polyamide, in particular a polyamide 6, and while the second plastic may be a PVC.

[0063] Polyamide, such as polyamide 6, is a material that offers excellent resistance to heat and high temperatures. This property is particularly beneficial for the lower half of the shell, which is in direct contact with the flame-resistant support. Polyamide can withstand high temperatures without deforming or rapidly degrading, thus ensuring the durability and reliability of the inhalation device.

[0064] Furthermore, polyamide has good mechanical strength, which reinforces the structure of the lower half-shell and improves the overall stability of the device. This mechanical strength also allows it to better withstand stresses and impacts that may occur during use.

[0065] PVC (polyvinyl chloride) is a material with a lower melting point than polyamide, which facilitates the injection molding process. Using PVC for the upper half of the shell reduces manufacturing costs while maintaining good production quality. In particular, this allows for the simultaneous molding of the inhalation conduit, as illustrated in the embodiment shown.

[0066] PVC is also a lightweight and easy-to-handle material, which improves the ergonomics of the inhalation device. Furthermore, PVC offers good chemical resistance, which is advantageous for the upper part of the device that may be exposed to various residues of sublimated material.

[0067] By combining these two materials, the inhalation device benefits from the optimal thermal and mechanical properties of polyamide for the lower half-shell, while taking advantage of the economic and manufacturing benefits of PVC for the upper half-shell. This differentiation of materials makes it possible to obtain a high-performance, durable, and economical device.

[0068] According to one embodiment, the upper half-shell Csup and the inhalation conduit 3 can form a single, injection-molded plastic part. The design of the upper half-shell Csup and the inhalation conduit 3 as a single, injection-molded plastic part simplifies the manufacturing process and ensures increased structural integrity of the device. The absence of joints or connection points between these two elements reduces the risk of air leaks or mechanical failures, thus guaranteeing reliable and consistent performance during use. The free end of the conduit The inhalation port can be blocked by an injection core Ci, which is intended to be removed upon first use. This core acts as a non-use indicator. This allows the user to verify that the device is new and has not been used previously, thus ensuring increased hygiene and safety.

[0069] According to another embodiment, the said spheroidal enclosure, in particular the second upper shell on the one hand, and the inhalation conduit 3 on the other hand, may comprise two separate parts, the two parts being assembled to each other, typically by interlocking at the level of the lateral opening 23,

[0070] According to one embodiment, said plastic enclosure 2 may be transparent, at least on an upper part of said enclosure, in particular with regard to the upper half-shell Csup.

[0071] The inhalation conduit 3 may be in a transparent plastic.

[0072] A transparent plastic allows the user to directly view the material to be consumed and to monitor the sublimation process. This transparency improves the user experience by providing visual control over the amount of material remaining and the state of the material during use.

[0073] Furthermore, if the inhalation conduit 3 is also made of transparent plastic, this allows the user to see the flow of smoke or vapor, which can help adjust the intensity of inhalation and optimize the use of the device. The transparency of the plastic components also contributes to better hygiene, as it allows for easy detection of residues or impurities inside the device, thus facilitating cleaning and maintenance. List of reference signs

[0074] - 1. Inhalation device, - 2. Spheroidal enclosure, - 20. Lower opening, - 21. Vent (particularly lateral) forming an air inlet, - 22. Top drainage opening, - 3. Inhalation tube, - 23. Lateral opening (of the spheroidal enclosure) - 4. Flame-resistant support - 4 ca. Concavity, - 4cx. Convexity, - 4th episode. Shoulder, - G. Garde, - 5. External projection (peripheral forming the guard, or even a base).

Claims

Demands

1. Inhalation device (1) for solid or powdered materials (M) comprising a spheroidal chamber (2) intended to receive the material to be consumed;said spherical enclosure communicating fluidly with an inhalation duct (3) through a lateral opening (23) in a wall of said enclosure, said enclosure having at least one vent (21, 22) forming an air inlet, said device being configured to sublimate the matter contained in said spheroidal enclosure (2) by a flame (F) licking the wall of said spheroidal enclosure, characterized in that the wall of the spheroidal enclosure (2) is predominantly made of plastic and the plastic wall of said spheroidal enclosure (2) has a lower opening (20) for a flame-resistant support (4) configured to contain the materials (M) to be consumed, said flame-resistant support (S) being made of a material distinct from the plastic, the flame-resistant support (4) extending the plastic wall of the spheroidal enclosure by closing said lower opening (20).

2. Inhalation device according to claim 1, wherein the flame-resistant support material (4) is a metal.

3. Inhalation device according to claim 1 or 2, wherein said lower opening (20) has a diameter between 10 mm and 30 mm such that 20 mm.

4. Inhalation device according to any one of claims 1 to 3 wherein the flame-resistant support is a cup, comprising: - a concavity (4ca) intended to receive the materials (M), the concavity facing inwards towards the spheroidal enclosure (2), - an opposite convexity (4cx) configured to fit into said lower opening (20) of the plastic of the enclosure, - a peripheral shoulder (4ep) configured to bear against an inner surface of the plastic of the spheroidal enclosure (2).

5. Inhalation device according to any one of claims 1 to 4, wherein a plastic wall of the spheroidal enclosure (2) is equipped with a guard (G) comprising an external projection (5) or several external projections, extending downwards around the periphery of the lower opening (20), said guard configured to prevent or limit the risk of contact with the flame-resistant support (S).

6. Inhalation device according to claim 5, wherein the guard (G) comprising said outer projection (5) or outer projections, extending around the periphery of the lower opening forms a base configured to rest stably on a horizontal support surface when said inhalation device (1) rests on said horizontal surface.

7. An inhalation device according to any one of claims 1 to 6, wherein said spheroidal chamber (2) comprises a lower plastic half-shell (Cinf) bearing said lower opening (20), and an upper plastic half-shell (Csup) bearing said at least one vent (21, 22), the lower half-shell (Cinf) and the upper half-shell respectively comprising a first assembly edge (B1) and a second assembly edge (B2) configured to be assembled by elastic interlocking

8. Inhalation device according to claim 7, wherein the lower half-shell (Cinf) is in a first plastic, and the upper half-shell (Csup) is in a second plastic, the second plastic having a melting temperature lower than the melting temperature of the first plastic.

9. Inhalation device according to claim 7 or 8, wherein the upper half-shell (Csup) and the inhalation conduit (3) form a single-piece plastic injection-molded unit, the free end of the inhalation conduit being obstructed by an injection sprue (Ci), intended to be removed at first use, said sprue forming a non-use indicator.

10. Inhalation device according to any one of claims 1 to 9, wherein said plastic enclosure (2) is transparent, at least on an upper part of said plastic enclosure, in particular the upper half-shell (Csup) and optionally the inhalation conduit (3) when the inhalation device according to any one of claims 7 to 9 is in a transparent plastic.

Images