TW201208723A - Volume liquid storage reservoir in a personal vaporizing inhaler - Google Patents

Abstract

A personal vapor inhaling unit is disclosed. An electronic flameless vapor inhaler unit that may simulate a cigarette may have a volume liquid storage reservoir. When the unit is activated, and the user provides suction, the liquid to be vaporized may be drawn out of the volume liquid storage reservoir, to be vaporized by an atomizer assembly. Vapors may then be aspirated by the user through an oral aspiration tube, where they may be inhaled.

Description

201208723 VI. Description of the Invention: [Technical Field of the Invention] This invention relates to personal vapor inhalation units and, more particularly, to simulating cigarettes or delivering nicotine and other drugs to the oral mucosa, pharyngeal mucosa, membrane, trachea and lungs. One of the media ones of the electronic flameless vapor inhaler unit atomizer / evaporator" This application is related to the following application on the same day or about the same day as the application: PCT serial number xx, xxx, xxx, The title is "ELECTRICAL ACTIVATION IN A PERSONAL VAPORIZING INHALER", file number 1222.0014; and this application is one of the following US applications filed on May 15, 2010: Serial No. 12/780,871, entitled "PERSONAL VAPORIZING INHALER" WITH MOUTHPIECE COVER", file number 1222.0002; serial number 12/780,872, titled "ACTIVATION TRIGGER FOR A PERSONAL VAPORIZING INHALER", file number 1222.0003; serial number 12/780,873, titled "PERSONAL VAPORIZING INHALER CARTRIDGE", file number 1222.0004; serial number 12 /780,874, titled "ATOMIZER-VAPORIZER FOR A PERSONAL VAPORIZIN G INHALER", file number 1222.0005; serial number 12/780,875, titled "PERSONAL VAPORIZING INHALER WITH INTERNAL LIGHT SOURCE", file number 1222.0006; serial number 12/780,876, titled "DATA LOGGING PERSONAL VAPORIZING INHALER", file number 1222.0007; 12/780,877, entitled "PERSONAL VAPORIZING INHALER ACTIVE CASE", Archive No. 1222.0008; 155442.doc 201208723, the disclosure of which is hereby incorporated by reference herein in its entirety herein. [Prior Art] An alternative product of a tobacco product (e.g., cigarette, church, snow, or pipe) is a personal vaporizer " and the heated and atomized odor of the dose provides a carcass sensation similar to smoking. However, since a person's evaporator is typically electrically driven, tobacco, smoke or combustion is generally not involved in its operation. In order to be portable and to simulate the physical characteristics of a cigarette and a snow knife 4, a person's evaporator can be battery driven. In addition, _ force a person's hair can be loaded with a substance containing nicotine and / or - winter 〆 〆 fun material. The personal vaporizer:! provides an inhaled dose of nicotine and / / music in the form of a heated and atomized substance. Therefore, the personal atomizer can also be referred to as an electronic cigarette or an e-cigarette. A personal vaporizer can be used to deliver the inhaled material. The music is evaporating and then [invention] In one embodiment, a person's hair saponin comprises a suction port configured to contact a person's mouth. At least a portion of the inlet and the inlet have an antimicrobial surface. The suction port may also include a polysulfide rubber, a thermoplastic elastomer, an organic decane, a silver impregnated polyruthenium, a silver impregnated thermoplastic elastomer, and/or a polymer. The suction port can be removed from the personal preparation device for 杳 λ first or replaced without using a single ^ ^ yL dan. The port can be provided in different colors. Let § 10 or other maps be able to be: 4, ', visible on the outside of the raft and the entrance. In an embodiment, a person's steamed saponin comprises: a first electrically conductive surface configured to contact a first body portion of one of the individual vaporizer units; and a A conductive surface that is electrically isolated from the first conductive surface 155442.doc 201208723, the second conductive surface configured to contact a second body portion of the individual. When the individual evaporator unit detects a change in conductivity between the first conductive surface and the second conductive surface, an evaporator is activated to vaporize a substance such that vapor can be drawn by the individual of the holding unit. The first body portion and the second body portion can be part of a lip or a hand. The two conductive surfaces can also be used to charge a battery contained in the individual evaporator unit. The two conductive surfaces may also form a connector or a portion of the connector that can be used to output data stored in a memory. In an embodiment, the personal vaporizer unit includes a chamber configured to receive - e. The concealment holds a substance that is intended to evaporate. The chamber can be configured = at the distal end of the personal vaporizer unit... the user can draw in the vaporized force at the proximal end 4 of the personal vaporizer unit. At least one space between the outer surface and the inner surface of the t may define a passage for drawing air from the exterior of the personal evaporator unit (near the distal end) through the personal steamer unit to The evaporated material is inhaled by the user. The personal evaporator unit can also include a piercing member that pierces the one of the seals to allow evaporation of one of the materials. One of the surfaces of the job can be 'translucent to diffuse light generated inside the individual evaporator unit. The semi-finished end may or may be engraved with letters, symbols or other indicia illuminated by light produced within the individual evaporator unit. In the implementation, the personal vaporizer unit comprises a porous ceramic first-wick element and a second core element. The first wicking element is adapted to be in direct contact with one of the liquids held in the reservoir. The tank may be contained in one of the individual evaporator units detachable from 155442.doc 201208723. A heating element is disposed through the second wicking element. An air gap is defined between the first wicking element and the second wicking element, wherein the heating element is exposed to the air gap. Air enters the first wicking element through a hole in one of the outer casings holding the first wicking element. In one embodiment, the one-person evaporator unit includes a light source within an opaque cylindrical outer casing that approximates the appearance of a smoking article. A cylindrical light pipe is disposed inside the opaque cylindrical outer casing to conduct light emitted by the light source to one end of the opaque cylindrical outer casing, which allows the light to be visible outside the opaque cylindrical outer casing of the evaporator. In one embodiment, a personal evaporator unit includes a microprocessor, a memory, and a connector. The connector outputs data stored in the memory. The microprocessor can collect information including, but not limited to, the following items and store it in the memory: the number of cycles that have triggered the device, and the like The duration of the cycle 'the number of fluids delivered. The microprocessor also collects and stores the time and period associated with other information collected and stored. The microprocessor can detect an open space by detecting a specific change in resistance between a wick and a cover equivalent to a "dry", and thus indicating an open space. In one embodiment, a housing includes a bracket that is adapted to hold a single evaporator unit 70. The personal vaporizer unit has a size that is close to a smoking article. The housing includes a battery and at least two contacts. When the personal evaporator unit 70 is in the cradle, the two contacts can be in electrical contact with the personal evaporator unit 155442.doc 201208723. The two contacts can charge the individual evaporator unit The personal evaporator unit is charged: = Download and store the data from the personal evaporation unit. The housing can download and store the material via the at least two contacts. The enclosure can send this data to the computer via a wired or wireless keypad. The housing may have more than - (four) shelves and contact sets (eg, 'two dual contact sets to hold and charge two individual evaporator units [embodiment] 1 perspective view of one of the detonator evaporator units. In the figure, the personal evaporator single ituoo includes an outer main casing 1 2, a suction port cover 114, a suction port m, and a suction port insulator 112. The suction π1 ΐ 6 and the suction port cover ι 4 define the proximal end of the 4 hair unit (10). The opposite end of the evaporator unit (10) will be referred to as the distal end. A crucible 150 can be inserted into the distal end of the individual evaporator unit. The concealed (9) can hold the substance to be evaporated by the individual evaporator unit i (10). It can be inhaled by a user holding a personal vaporizer unit. The substance can be formed in one (four) or gel. Figure 2 is a side view of a solid evaporator unit. Figure 2 illustrates a personal vaporizer viewed from the side. Unit (10). Figure 2 illustrates the personal base of the single main housing 1 〇 2, the suction cover ιΐ4 " and the inlet ιΐ6 and the suction insulator 1 12. Figure 2 photo m New York na logic illustration inserted into Personal evaporator unit g 15〇 in the distal end of 100. Figure 3 is a close-up view of a close-up of a person's tomb 5 | i 士 + ... D early. Figure 3 shows the sentence of the individual evaporator unit 100 and the cover 114 End view. Circle 4 is a one-side view of a person's evaporator unit. Figure 4 shows a remote view of the visible portion of the unit 100 including the crucible 150 of the individual evaporating 155442.doc 201208723. Figure 4 is a personal evaporation An alternative end view of the visible portion of the unit 100 having visible signs, letters or other symbols. The visible signs, letters or other symbols may be illuminated by one of the light sources within the individual evaporator unit 1 or Illuminated from the back. The light source can be activated intermittently under the control of other electronics within the microprocessor or personal evaporator unit 100. The light source can be activated in this manner to simulate a cigar or cigarette luminescent soot. Figure 6 and Figure 7 are diagrams (figUre map). Figure 6 is a section of a portion of a person's evaporator unit along the cutting line shown in Figure 2. In Figure 6 t, the individual evaporator unit is near Part includes The inlet cover 14, the suction port 161, the suction port insulator 丨丨2, the outer main casing 丨〇2, the battery support 106, and the battery 104. The suction port cover 114 surrounds the suction port 116 and is joined to the suction port 116. The suction port 丨6 and the outer main casing 〇2 are preferably made of a conductive material. The suction port 116 is separated from the outer main casing 102 by the suction port insulator 112. The suction port 116 and the outer main casing 1〇 2 is thus electrically isolated from each other by the suction port insulator 112. In the embodiment the 'personal evaporator unit 1' is configured such that the outer main housing 102 includes a first pilot squirrel; _ shoud surface, shai A conductive surface is configured to contact the holding of the individual evaporators! ^ y One of the personal parts of the soap 7L 100 first body portion 0 suction port 116 includes a 箆-迸 咖 哥 a conductive surface that is electrically isolated from the first conductive surface. The second guiding Thunder; the 丨-At conductive surface is configured to contact the second body portion of the individual. When the individual bursts and freezes, the upper and the smuggling soap 100 detects a change in conductivity between the first conductive surface and the second conductive surface, and starts at the individual evaporator unit 1 The internal _ base class name 'evaporator is used to evaporate one of the 155's 155442.doc 201208723' to enable the personal vaporizer unit 1 to hold the individual breathable vapor. The first body portion and the second body portion can be a plurality of knives of the lips or hands. The two conductive surfaces belonging to the outer main casing 102 and the suction port 116, respectively, can also be used to charge the battery 104 contained in the individual evaporator unit 100. The two conductive surfaces belonging to the outer main casing 1〇2 and the suction port 116, respectively, can also be used to output (or input) data stored in (or to be stored in) a memory (not shown). The battery support 106 is used to hold the battery 1〇4 in a position relative to the outer main housing 102. The battery support 丨〇6 is also configured to allow air and vaporized material to pass over the battery 104 along one or more passages from the distal end of the personal evaporator unit 100. After the vapor of the air and the vaporized material passes through the battery HM, it can pass through the opening in the suction port 116, the suction port cover 4, and the suction port insulator m to be inhaled by a user. Figure 7 is a cross section of the cutting line shown in (5) of the remote portion of the individual evaporator unit. In FIG. 7, the distal end portion of the personal evaporator unit 1 (9) includes an outer main casing 1 2, a light pipe sleeve 140 and an atomizer cover 132, a far wick 134, a near suction 136, and a P (^123, pc). ^124, spacer 128 and main outer cover (10). Figure 7 also illustrates the E15 插入 inserted into the distal end of the personal vaporizer unit ι. As can be seen in Figure 7, the occlusion 150 can be held and the distal wick 134 Direct contact with the substance (eg, liquid or gel). The substance can be aspirated by the distal wick 134 to evaporate inside the nebulizer assembly. The nebulizer assembly includes a nebulizer @ outer cover 132, far How to suck 134, near wick 136 and an additive component (not shown). Figure 8 is an exploded side view of one of the components of a single evaporator unit. Figure 9 155442.doc 201208723 is a component of a person's evaporator unit An exploded cross-section of one of the cutting lines shown in Fig. 2. In Fig. 8 and Fig. 9, the 'personal evaporator unit 1' includes (from left to right) the suction port cover 114, the suction port 116, the suction port insulator 112, and the battery 1 〇4, battery support 106, PC board 123, spacer 128, pc board 124, main outer cover 160, near wick 136, The wick 134, the atomizer cover 132, the light pipe cover 140 and the cymbal 150. The suction port cover 114 surrounds and covers the proximal end of the suction port 116. The distal end of the suction port 116 is inserted into the suction port insulator 112. The battery 1〇4 is The battery support 106 is held in place. 123, the spacer 128 and the PC board 124 are disposed within the main housing 160. The near wick 136 and the distal wick 134 are disposed within the nebulizer housing 132. The nebulizer housing 13 2 ( Therefore, the near wick 136 and the far wick 13 4 are disposed inside the light pipe sleeve 140 and the main casing 1 〇 2 (Note: For the sake of clarity, the main casing 1 〇 2 is not shown in FIGS. 8 and 9 The light pipe sleeve 14 is disposed in the main casing 1〇2. The light pipe sleeve 140 is positioned such that light emitted from a light source mounted on the pc board 124 can be conducted through the light pipe sleeve 140 to its individual evaporation. One position of the unit 1 is visible on the outside. The 匣150 is placed in the tube sleeve 140. During assembly, one of the substances contained in the 匣15〇 is kept in direct contact with the far wick 134. When inserted into the personal evaporator unit 1 ,, the nebulizer housing 132 or the distal wick 134 can pierce the substance to be evaporated A seal or cap within the crucible 150. Once pierced, the material held in one of the reservoirs 150 can be in direct contact with the distal wick 134. The circle 10 is a perspective view of one of the suction caps of a single evaporator unit. Figure 155442.doc -10- 201208723 11 is a distal end view of one of the inlet covers of Figure 10. Figure i 2 is a section of the suction opening along a cutting line not shown in Figure 11. As can be seen in Figures 10-12 As seen, the suction port cover 114 has an opening 114-1 that allows air and vaporized material to be drawn through the suction port cover 114. The mouthpiece cover 114 is configured for contact with a person's mouth. In one embodiment, at least a portion of the mouthpiece cover has an antimicrobial surface. The antimicrobial surface of the mouthpiece cover 114 can include, but is not limited to, a polyoxyxene rubber, a thermoplastic elastomer, an organic decane, a silver impregnated polymer, a silver impregnated thermoplastic elastomer, and/or a polymer. Suction cover 114 is also configured to be detachable by a user from personal evaporator unit 100 without the use of tools. This allows replacement and/or cleaning of the suction port cover U4. In one embodiment, the suction flap 114 can be held in place on the individual evaporator unit 1 by an annular ridge 114_2 that interfaces with a recess in the suction port U6 of the personal evaporator unit 100. To secure the suction cover 1 u in place. In another embodiment, the suction port cover 14 can be held in place on the individual evaporator unit 1 by a friction fit. Figure 13 is a perspective view of one of the suction ports of a person's evaporator unit. Figure 14 is a side view of the suction port of Figure 13. Figure 15 is a cross section of the suction line along the cutting line of the figure. As can be seen in Figures 13 through 15, the suction port 6 has a passage 116-1 that allows air and vaporized material to be drawn through the suction port 116. The suction port 116 can include a conductive surface or material configured to contact one of the first body portions of one of the individuals holding the personal vaporizer unit 100. This first body portion can hold a portion of one hand or at least one lip of a person of the individual evaporator unit 100. In one embodiment, the suction inlet 116 has an annular groove 116_2 surrounding an outer surface. This groove 155442.doc 201208723 is configured to receive the annular ridge 114-2. Therefore, the annular groove U6_2 helps to fasten the suction port cover 114 to the personal evaporator unit 1''. Figure 16 is a perspective view of one of the suction port insulators of a single evaporator unit. Figure 17 is a distal end view of one of the suction port insulators of Figure 16. Figure 1 is a side view of the suction port insulator of Figure 16. Figure 19 is a cross section of the suction port insulator along the cutting line shown in Figure 18. As previously discussed, the suction port insulator 112 is disposed in the main housing 1〇 2 and @ of the suction port 116. As can be seen from Fig. 19 to Fig. 18, the suction insulator 112 has a passage ι2, which allows air to be drawn through the m rim 112 and (4) the oxidized material. Disposed between the main casing 1〇2 and the suction port lb, the suction port insulator 112 can electrically isolate the main casing 1〇2 from the suction port 116. Therefore, in the embodiment, the population insulator (1) includes a non-conducting The material is either made of a non-conductive material. This electrical isolation between the main housing 102 and the suction σ 116 allows for the detection of an electrical impedance change between the main housing 102 and the suction port i 16 . The upper-first conductive surface can be configured to: contact one of the personal vaporizer units 1 第一 one of the first body and mind knife main body 102 - the second conductive surface (which is insulated by the suction port ^ 12 electrically isolated from the first conductive surface) can be configured to Contact the individual 4 body knives. Then, the personal evaporator unit 100 can be activated in response to detecting that a conductivity β between the first conductive surface and the second conductive surface is changed. In _杳&,,, in the embodiment, the conductivity change may include the first electrical surface. The impedance drop between the hexa-conductive surfaces. In an implementation 4, the conductivity change can include a change in capacitance between the first conductive surface and the second conductive surface 155442.doc • 12·201208723. The first body portion can be a finger. The second body portion can be a lip. The second body portion can be a second finger. In one embodiment, the first conductive surface and the second conductive surface can be used to transfer a charging current to the battery 104. The first and second conductive surfaces can also be used to transfer data to the personal vaporizer unit. Or transfer data from the personal vaporizer unit 100. Figure 20 is a perspective view of one of the main outer casings of a person's evaporator unit. Figure 21 is a distal end view of one of the main housings of Figure 20. Figure 22 is a close up view of one of the main outer covers of Figure 2. Figure 23 is a side elevational view of the main outer cover of Figure 20. Figure 24 is a cross-sectional view of the main cover taken along the cutting line shown in Figure 23. The main housing 16 is configured to hold the PC boards 123 and 124 and the spacers 128. The main outer cover 160 is configured to fit within the main housing 1〇2 via a friction fit. The main housing 16 has a number of apertures 166 that allow light generated by a source of light on the PC board 124 to pass through. Once this light passes through the aperture 166, it can be coupled into the tube sleeve 14 where it conducts to the individual to evaporate. One of the visible positions on the outside of unit 100. Main housing 160 also has an aperture 165 that allows an electrical conductor (not shown) to extend from PC board 123 or PC board 124 through main housing 160. This electrical conductor can be attached or connected to a heating element (not shown). This heating element assists in evaporating the substance to be inhaled by the user of the personal vaporizer unit 1 . This heating element can be controlled by circuitry on PC board 123 or PC board 124. The heating element is activated in response to a change in conductivity between the first conductive surface and the second conductive surface, as previously described. The exterior of the main outer cover 160 may also have a flat surface 164 (or other geometry) that is configured to allow vaporized material and air 155442.doc 201208723 between the main outer cover 160 and the main housing 1〇2 Pass one of the corridors. Once the vaporized material and air pass through the main foreign army 16Q', it can travel through the passage, passage 116-1, and opening 114-1 for inhalation by a user of the individual evaporator unit 1〇〇. The outer shroud 160 may also have one or more raised portions 167 (or other geometric structures) externally configured to allow air and vaporized material to reach the flat surface 164 and the main housing 1〇2 The path of formation. Figure 25 is a perspective view of one of the main outer casings of a single evaporator unit. Figure % is a second perspective view of one of the main housings of Figure 25. Figure 27 is a perspective view of the main cover of Figure 25. Figure 28 is a close up view of one of the main outer covers of Figure 25. Figure 29 is a side elevational view of the main outer cover of Figure 25. Figure 30 is a cross-sectional view of the main outer cover along the cutting line shown in Figure 29. The main outer cover 260 can be used as an alternative embodiment of the main outer cover 16'. The main housing 260 is configured to hold the PC boards 123 and ι 24 and the spacers 128. The main outer cover 260 is configured to fit within the main housing ι 2 via a friction fit. The main housing 260 has a plurality of apertures 266 that allow light generated by a source of light on the PC board 124 to pass. Once this light passes through the aperture 266, it can be coupled into the light pipe sleeve 14's where it conducts to a visible position on the exterior of the individual evaporator unit 100. The main housing 260 also has a hole 265 that allows one Electrical conductors (not shown) extend from the PC board 123 or PC board 124 through the main housing 260. This electrical conductor can be attached or connected to a heating element (not shown). This heating element assists in evaporating the substance to be inhaled by the user of the personal vaporizer unit 100. This heating element can be controlled by circuitry on PC board 123 or PC board 124. The heating element is activated in response to a change in conductivity between the first conductive surface and the second conductive surface 155442.doc • 14·201208723, as previously described. The outer casing 260 may also have a plurality of flat surfaces 264 (or other geometric structures) on the exterior that are configured to allow passage of vaporized material and air between the main casing 260 and the main casing 1〇2. Corridor. Once the vaporized material and air pass through the main outer casing 260, it can travel through the passage 112-1, the passage 116-1, and the opening 114-1 for inhalation by one of the individual evaporator units 1 〇〇. The outer shroud 260 may also have one or more raised portions 267 (or other geometric structures) externally configured to allow air and vaporized material to reach the flat surface 264 and the main housing 1〇2 The path of formation. Figure 31 is a perspective view of a printed circuit board assembly of one of the individual evaporator units. Figure 32 is a distal end view of one of the PCB assemblies of Figure 31. Figure 33 is a perspective exploded view of the PCB assembly of Figure 31. Figure 34 is an exploded side elevational view of the PCB assembly of Figure 31. As can be seen in Figures 31 to 34, the pcb assembly is comprised of a PC board 123 and a PC board 124 separated by a spacer 128. Light-emitting diodes (LEDs) 125 to 127 or other light sources may already be mounted on the PC board 124. The LEDs 125 through 127 are configured and positioned such that when they produce light, the light passes through apertures 166 or 266 in the main housings 160 and 260, respectively. This light can then be conducted by the tube sleeve 140 to a position where it will be visible outside the individual evaporator unit 1 . A microprocessor, memory or other circuitry (not shown) may be mounted on the PC board 123 to activate or otherwise control the personal vaporizer unit. The microprocessor may be associated with the personal vaporizer unit. The data of the operation is stored in the memory towel. For example, the microprocessor can determine and store the number of cycles that have triggered a personal vaporizer. The microprocessor can also store the time and/or date associated with one or more of these cycles. The microprocessor can cause the data to be output via the connector. The connector may be formed by the first and second X conductive surfaces of the suction port 116 and/or the main housing 1200. In one embodiment, the microprocessor can determine a duration associated with various cycles of the individual evaporator 7G 100 that have been triggered. These durations (or numbers based on such durations, such as - average) may be stored in the memory. The microprocessor can cause the digital to be output via the connector. The microprocessor can determine an occlusion condition and store a number associated with the number of occurrences of the ambiguous condition. The microprocessor or other circuitry can determine an aircraft condition based on a resistance between the nebulizer housing 132 or 232 and a wick 134, 234, 1363 236. The microprocessor can also store a time and/or date associated with one or more of these open conditions. The number of times an open condition is detected and/or the time and/or date associated with such open conditions can be output via the connector. Battery 104,? (The board 123, the PC board 124, and all of the electronics inside the personal evaporator unit 1 can be sealed in a plastic or plastic and epoxy compartment within the unit. This compartment can include a main housing 16 or 26. The permeation of the septum can be sealed. Therefore, only the wire will protrude from the compartment. The compartment can be filled with a ring after assembling the battery 104, the pC board 123, the PC board 124, and the LEDs 125 to 127. Oxygen resin. The compartment can be ultrasonically welded to be closed after assembly of battery 104, PC board 123, PC board 124 and LEDs 125 to 127. This sealed compartment is configured such that the individual evaporator unit 1〇〇 All of the vapors within the vapor are not in contact with the electronics on the PC board 123 or 124. 155442.doc -16· 201208723 Figure 35 is a perspective view of one of the near-wick elements of a single evaporator unit. Figure 35 is a set through a person One of the evaporator elements is a perspective view of one of the heating elements of the one of the wicking elements. Figure 353 is a perspective view of one of the heating elements of the human evaporator unit. Figure 36 is a distal end view of one of the wicking elements of Figure 35. 3 7 is the wick element cut as shown in Figure 35 One of the profiles. The near wick 136 is configured to fit within the nebulizer housing 132. As can be seen in Figures 35-37, the near wick 136 includes internal lead passages 136-1 and external lead passages 136- 2. These wire passages allow a conductor or a heating element 139 to be positioned through the near wick 136 (via internal wire path ^ 64). This conductor or heating element 139 can also be positioned in the outer wire path 136_2. As shown in 35A, a conductor or heating element 139 can be passed through the inner wire path 136-1, around the distal end of the proximal wick 136, and through the outer wire path 136-2 to return to approximate its origin. The conductor or heating element 139 is wound around a portion of the near wick 36. When the individual evaporator ι is activated, the heating element 13 9 can heat the near wick 13 to promote evaporation of a substance. Figure 3 8 is a person evaporating One of the distal elements of the unit is a perspective view of one of the wick elements. Figure 39 is a distal end view of one of the wick elements of Figure 38. Figure 4 is a cross section of the wick element along the cutting line shown in Figure 39. The wick n4 is configured to fit within the nebulizer housing 132. As seen in Figures 38 through 40, the distal wick 134 includes two cylinders of different straight sets. A chamfered surface transitions from a smaller diameter distal to the distal wick 134 to a proximal end of the distal wick 134. a larger diameter. The cylinder at the end terminates with a flat surface end 134-1. The flat surface end 134-1 is configured to be a distal wick 134 for insertion of the Kunbo into the personal vaporizer 1 In the distal end, it is in direct contact with a substance to be evaporated. 155442.doc *17- 201208723 One of the ends of the surface. The proximal end of the distal wick 134 is typically in contact with the proximal wick i36. Then, at least a portion of the near wick 136 and the distal wick 134 are separated by an air gap. When the far wick 134 and the near wick 136 are used together, the air gap is formed between the far wick 134 and the near wick 136 by the pedestal 136-3 shown in Fig. 37. Figure 41 is a perspective view of one of the far wicking elements of a single evaporator unit. Figure 42 is a distal end view of one of the wicking elements of Figure 41. Figure 43 is a cross-sectional view of the wick member taken along the cutting line shown in Figure 42. The near wick 234 can be used as an alternative embodiment of the distal wick 134. The proximal wick 234 is configured to fit within the nebulizer housing 232. As can be seen in Figures 41-43, the proximal wick 234 includes two cylinders of different diameters and a vertebral or pointed end 234_1. A chamfered surface transitions from a smaller diameter at the distal end of the proximal wick 234 to a larger diameter at a proximal end of the proximal wick 234. The cylinder at the distal end terminates with a pointed end 2344. The pointed end 234-1 is the end of the near wick 234 that is in direct contact with a substance to be evaporated. The pointed end 234-1 can also pierce a seal on the 匣150 to allow direct contact of the material to be vaporized with the proximal wick 234. The proximal end of the proximal wick 234 is typically in contact with the proximal wick 36. However, at least a portion of the near wick ι 36 and the near wick 234 are separated by an air gap. When the distal wick 134 and the near wick 236 are used together, the air gap is formed between the near wick 234 and the near wick 136 by the pad portion 136-3 shown in FIG. Figure 44 is a perspective view of one of the nebulizer covers of one of the person's evaporator units. Figure 45 is a distal end view of one of the nebulizer housings of Figure 44. Figure 46 is a side elevational view of the nebulizer housing of Figure 44. Figure 47 is a top plan view of the nebulizer housing of Figure 44. Figure 48 is a section of the nebulizer cover taken along the cutting line shown in Figure 47. 155442.doc -18· 201208723 Φ ° Physicochemical alien 1 3 2 Μ phase energy 丨, / Λ Λ:;! Jr i 4rt___

The larger diameter at the proximal end of the nebulizer housing 13 2 is configured to be pressed to the light pipe shovel tip 132-2 to terminate. This shovel 'seal is allowed to evaporate in the sleeve 140. The cylinder at the distal end is in direct contact with the distal core 134 by a shaped tip 132-2 that pierces one of the jaws 150. The tip of other shapes is also possible (for example, needle or spear). The chamfered surface 132-3 has one or more ι 132-1. These holes allow air to pass through the nebulizer housing 132 via suction into the distal wick 134. This suction can be supplied by a user of the personal vaporizer 1 on the suction flap 114 and/or the suction inlet 116. The air sucked into the far wick 134 enters into the far wick 134 on or near the chamfered surface between the two cylinders of the far wick 13 4" the air sucked into the far wick 134 is positive Some of the material that has been vaporized that has been absorbed by the distal wick 134 is expelled such that the material exits the distal wick 134 and enters the air gap formed between the distal wick 134 and the near absorbing 136. Being atomized. The heating element, which is placed around the wick I, can then evaporate at least some of the atomized material. In one embodiment, one or more of the holes 132-1 may have a diameter of 〇. 〇 2 inches and 〇〇 625 inches between ranges ― In the embodiment, the hole 132-1 is disposed at the front edge of the chamfered surface to set a volume of the substance to be evaporated to enter the air. In the path. There is nowhere to go to the air, only the straight through the distal wick 134 straight 155442. Doc -19- 201208723 Trail (or "head"). When air enters this region of the distal wick 134, it causes the material to be vaporized suspended in the distal wick 134 to exit toward an air chamber between the distal wick 134 and the proximal wick 136. When the discharged material to be evaporated reaches the surface of the distal wick 134, the negative pressure into the air and the chamber forces it out of the wick. This produces an atomized cloud of the material to be evaporated. In one embodiment, the diameter of the head of the distal wick 134 is variable and smaller than the diameter of the proximal wick 136. This allows air of a regulated volume to bypass the proximal wick 136 and directly enter the cavity between the distal wick 134 and the distal wick 136 without first passing through the distal wick 136. Figure 4 is a perspective view of one of the nebulizer housings of one of the individual evaporator units. Figure 50 is a distal end view of one of the nebulizer housings of Figure 49. Figure 51 is a side elevational view of the nebulizer cover of Figure 49. Figure 52 is a top plan view of the nebulizer housing of the crucible 49. Figure 5 is a section of the atomizer housing taken along one of the cutting lines shown in Figure 52. The nebulizer housing 232 is an alternative embodiment of the nebulizer housing 132 for use with the proximal wick 234. The nebulizer housing 232 is configured to fit within the main housing 102 and the light pipe sleeve 140. As can be seen in Figures 49-53, the nebulizer housing 232 generally includes two cylinders of different diameters. A chamfered surface 23 2-3 transitions from a smaller diameter at the distal end of the nebulizer housing 232 to a larger diameter at the proximal end of the nebulizer housing 232. The larger diameter at the proximal end of the nebulizer housing 232 is configured to be pressed into the tube sleeve 14A. The cylinder at the distal end terminates with an open cylindrical tip 232-2. This open cylindrical tip 232-2 allows the pointed end 234-1 of the near wick 234 to pierce one of the seals on the 匣 15 以 to allow the material to be evaporated to be in direct contact with the near wick 234. The chamfered surface 232-3 has one or more apertures 232-1. These holes allow air 155442. Doc 201208723 enters the near wick 234 via suction through the nebulizer housing 232. The air drawn into the near wick 234 enters the near wick 234 on or near the chamfered surface between the two cylinders of the near wick 234. The air that is drawn into the near wick 234 causes some of the material being vaporized to be absorbed by the near wick 234 to be discharged 'so that the substance exits the near wick 234 and enters into the near wick 234 and The air gap between the wicks 136 is atomized. The heating element disposed about the near wick 136 can then evaporate at least some of the atomized material that is being vaporized. In one embodiment, the diameter of one or more of the apertures 232-1 may range between 〇·〇2 inches and 〇_〇625 inches. In one embodiment, the aperture 232-1 is disposed at the leading edge of the chamfered surface to place a volume of material to be evaporated in a set volume in the path of entering the air. This incoming air has nowhere to go but only passes through the head of the distal wick 234. When the air enters this region of the distal wick 234, it causes the substance to be evaporated suspended in the distal wick 234 to face an air chamber between the distal wick 234 and the proximal wick 236. discharge. When the discharged material to be evaporated reaches the surface of the distal wick 232, the negative pressure into the air and the chamber forces it out of the wick. This produces an atomized cloud of the material to be evaporated. In one embodiment, the diameter of the head of the distal wick 234 can vary and be smaller than the diameter of the proximal wick 236. This allows an adjusted volume of air to bypass the distal wick 236 and directly enter the cavity between the proximal wick 234 and the distal wick 236 without first passing through the distal wick 236. Figure 54 is a perspective view of one of the nebulizer housings and the wick of one of the person's evaporator units. Figure 55 is an exploded perspective view of the atomizer housing, wire guide and wick of Figure 54. Figure 56 is a side elevational view of the nebulizer cover and wick of Figure 54. 155442. Doc 21 201208723 Figure 57 is a distal end view of the nebulizer cover and wick of Figure 54. Figure 58 is a cross-sectional view of the nebulizer housing and wick along the cutting line shown in Figure 57. The nebulizer housing and the suction system shown in Figures 5 through 58 are used in an alternative embodiment to the proximal wick 236. The embodiment shown in Figures 54 through 58 uses an atomizer housing 232, a proximal wick 234, a proximal wick 236, a wire guide 237, and a wire guide 238. The proximal wick 236 is configured to fit within the nebulizer housing 232. As can be seen in Figures 54-58, the proximal wick 236 includes internal wire passages 236-1. This wire path 236-1 allows a conductor or a heating element (not shown) to be positioned through the near wick 236 (via internal wire path 236-1). The conductor or heating element can be positioned around the wire guide 237 and the wire guide 238. Thus, a conductor or heating element can extend through the wire path 236-1, around the wire guides 237 and 238 and then back through the wire path 236-1 to return to approximately its origin. When the personal evaporator unit 100 is activated, the heating element can heat the near wick 236 to promote evaporation of a substance. Figure 59 is a perspective view of a proximal wick assembly of Figures 54-58. Figure 59A shows a perspective view of one of the heating elements disposed through the proximal wick of Figures 54-58 and surrounding the wire guide. Figure 5 9B is a perspective view of one of the heating elements of a single evaporator unit. Figure 60 is a distal end elevational view of one of the wicking elements and wire guides of Figures 54 through 58. Figure 61 is a cross section of the wick element and wire guide along the cutting line shown in Figure 60. As can be seen in Figure 59A, a conductor or heating element 239 can extend through the wire path 236-1, surround the wire guides 237 and 238 and then back through the wire path 236-1 to return to approximately its origin. In one embodiment, for example, the distal wicks 134, 234 and the near wick 155442. Doc -22- 201208723 136, 236 may be made of or comprise a porous ceramic. The far wicks 134, 234 and the near wicks 136, 236 may be made of or include the following: alumina, tantalum carbide, partially stabilized zirconia with bismuth magnesium oxide, ruthenium oxide tetragonal yttrium oxide polycrystal Porous metal (for example, steel, Ming, platinum titanium, etc.) ceramic coated porous metal, woven metal, spun metal velvet (for example, steel wool), porous polymer, porous coated polymer, porous Diterpenoids (ie, glass) and/or porous heat-resistant glass. Far and ~134 234 and the near wicks 136, 236 may be made of or include other materials that absorb a substance that is to be evaporated. For example, the conductor or heating element disposed through the near wick 136 or 236 may be made of or include the following: nickel chrome, iron chrome aluminum, stainless steel, gold, platinum, tungsten molybdenum or a Piezoelectric material. The conductor or heating element disposed through the near wick 136 can be made of or include other materials that heat up as a current is passed therethrough. Figure 62 is a perspective view of a light pipe sleeve of a person's evaporator unit. Figure 63 is a side end view of the light pipe sleeve of Figure 62. Figure 64 is a cross-sectional view of the tube sleeve taken along the line of cut shown in Figure 63. The light pipe sleeve 14 is configured to be disposed within the main housing 102. The tube sleeve 140 is also configured to hold the 匣ι5〇 and the nebulizer cover Π2 or 232. As previously discussed, the light pipe sleeve 14 is configured to conduct light (e.g., 'from lEE) 125 to 127 that enters the proximal end of the light pipe sleeve 140 to the distal end of the light pipe sleeve 140. Typically, light exiting the distal end of the tube sleeve 14 will be visible from outside the personal vaporizer 100. Light exiting the distal end of the tube sleeve 140 can be diffused by the crucible 150. The light exiting the distal end of the tube sleeve 14 illuminates the characters and/or symbols drawn, printed, written or engraved in one of the ends of the 匣i5〇. At one 155442. Doc -23- 201208723 In the embodiment, the light exiting the light pipe sleeve 140 can illuminate one of the signs, characters and/or symbols of the outer main casing ι2. In one embodiment, the tube sleeve i4 is made of a semi-transparent acrylic plastic or comprises a translucent acrylic plastic. Figure 65 is a perspective view of one of the individual evaporator units. Figure 1 is a close-up view of one of the top views. Figure 67 is a side view of one of the lines of Figure 65. Figure is a top view of one of the lines of Figure 65. Figure 69 is a plan view of the squeegee along one of the cutting lines shown in Figure 66. As shown in Figures 65-69, the 匣15〇 includes a hollow cylindrical section having at least one outer flat surface 158. When the cymbal 15 is inserted into the distal end of the individual evaporator unit 1 ,, the flat surface 158 forms an open space between the outer surface of the cymbal and one of the inner surfaces of the tube sleeve 140. This space defines a passage for drawing air from the personal evaporator unit 1 through the personal evaporator unit 1 to be inhaled by the user along with the vaporized material. This space also helps define the volume of air drawn into the individual evaporator unit 100. A different mixture of vaporized material and air can be produced by defining the volume of air that is typically drawn into the unit. The hollow portion of the 匣150 is configured as a reservoir for holding a substance to be evaporated by the individual evaporator unit 100. The hollow portion of the £15 crucible holds the substance to be evaporated which is in direct contact with the far wick 134 or 234. This allows the far wick 134 or 234 to be filled with material to be evaporated. The area of the distal wick 134 or 234 that is in direct contact with the material to be evaporated can be varied to deliver different doses of material to be evaporated. For example, a hollow 150 having a hollow portion of different diameters can be used to deliver different doses of material to be evaporated to the user. The crucible 150 can be configured to pass a cap or seal on the proximal end (not shown 155442. Doc -24- 201208723 No) to limit the substances to be evaporated. This cap or seal can be pierced by the end of the nebulizer housing 132 or the pointed end 234-1 of the proximal wick 234. When inserted into the personal evaporator unit 1 匣, the ram pad 157 defines an air passage between the tube sleeve 140 and the end of the main housing 102. This air passage allows the empty milk to reach the air passage defined by the flat surface 158. The hollow portion of the crucible 150 also includes one or more passages 154. The ends of the channels are exposed to air received through the air passage defined by the flat surface 158. These passages allow air to enter the hollow portion of the crucible 15 when the material contained in the crucible 150 is drawn into the far wick 134 or 234. Allowing air to enter the hollow portion of the crucible when the material contained in the crucible 150 is removed prevents a vacuum from forming inside the crucible 150. This vacuum prevents the contents contained in the crucible 15 from being absorbed into the far wick 134 or 234. In a consistent application, 匣15〇 can be at least partially translucent. Thus, the crucible 150 can act as a light diffuser such that light emitted by one or more of the lEd 125 through 127 is visible outside of the individual evaporator unit 1 . Figure 70 is a side view of one of the batteries of a personal evaporator unit. Figure 71 is an end view of the battery of Figure 70. Figure 72 is a perspective view of one of the battery supports of a person's evaporator unit. As can be seen in Figure 72, the battery support 106 does not form a complete cylinder that completely surrounds the battery 1〇4. The missing portion of a cylinder forms a passage that allows air and vaporized material from the atomizer assembly to pass through the battery to the suction port 6 so that it can be inhaled by the user. Figure 73 is a top perspective view of one of the human evaporator unit housings. Figure - Personal evaporation 1 § unit housing - bottom perspective. Personal evaporator housing 155442. Doc -25· 201208723 500 is configured to hold one or more personal evaporator units (10). The personal evaporator housing 500 includes a connector for interfacing to a computer. This connector allows the housing 5 to be transferred from the H 5 to the computer from the personal evaporator. The housing _ can also transmit data from the personal evaporator unit 1GG via a wireless interface. This wireless interface can include - infrared (four) transmitter, a Bluetooth®, 802. U specifies the interface and/or communicates with a cellular telephone network. The material from the personal vaporizer unit 1 can be associated with one of the identification numbers stored by the personal vaporizer unit 100. The data from the personal vaporizer unit (10) can be transmitted via the wireless interface in association with the identification number. The personal vaporizer housing 500 includes a battery that holds the charge for recharging the individual evaporator unit 100. Recharging the individual evaporator unit 1 can be managed by a charge controller that is part of the housing 500. When the outer casing 500 is holding a person's evaporator unit 1 , at least a portion of the individual evaporator unit 100 is visible from the exterior of the outer casing 5 to allow one of the light emitted by the individual evaporator unit 1 to provide evaporation to the individual. One of the states of one of the units is visually indicated. This visual indication is visible outside of the housing 500. The individual evaporator unit 100 is activated by an impedance change between two conductive surfaces. In one embodiment, the two conductive surfaces are part of the main housing 102 and the suction port 116. The two conductive surfaces can also be used by the housing 5 to charge the battery 104. These two conductive surfaces can also be used by the housing 5〇〇 from the personal evaporator unit! 〇〇 Read the data. In one embodiment, when a user places the personal evaporator unit 1 554 55442. Doc -26- 201208723 When "suction" is provided in the mouth, air is drawn into the personal evaporator unit 1 through a gap between the end of the main casing 102 and the g 150. In the embodiment - this gap is established by the padding portion 157. Air travels along a gallery formed by the flat surface 158 and the inner surface of the tube sleeve 140. The air then reaches a "ring" shaped corridor between the nebulizer housing 132, the crucible 150 and the tube sleeve 140. Air travels to the distal wick 134 via one or more apertures 132-1 in the chamfered surface 132-3. Air travels to the distal wick 234 via one or more of the holes 232-3 in the chamfered surface 232-3. Air is also allowed to enter the crucible 150 via one or more passages 154. This air entering the crucible 150 via passage 154 is "backfilled" to replace the material being vaporized into the far wick 134. The material being vaporized is in direct contact with the far wick 134 or 234. The material being evaporated is absorbed by the far wick 134 or 234 and the near wick 136 or 236 and can be saturated. The incoming air sucked through the hole 132-1 discharges the substance being evaporated from the saturated far wick 134. The discharged material that is being evaporated is attracted from the wick element 134 to a cavity between the far wicks 134 and 136. The chamber may also contain a heating element that has been heated to between 15 (TC and 200 ° C.) attracting the discharged element from the wick element 134 in the form of a small (eg, atomized) droplet. The heating element evaporates the atomized droplets. In one embodiment, when a user places a personal vaporizer unit 1() in its mouth and provides "suction", the air passes through the main A gap between the end of the housing 1〇2 and the crucible 150 is drawn into the individual evaporator unit 1〇〇. In the embodiment, the gap is established by the elevated portion 157. The air is along the flat 155442 . Doc -27· 201208723 Surface 158 travels with the corridor formed by the inner surface of the tube sleeve 140. The air then reaches a "ring" shaped corridor between the nebulizer housing 232, the cymbal 150 and the tube sleeve 14 。. Air travels to the distal wick 234 via one or more apertures 232-1 in the chamfered surface 232-1. Air is also allowed to enter the crucible 150 via one or more passages 154. This air "backfill" entering the crucible 150 via passage 54 replaces the material being vaporized into the near wick 234. The material that is being evaporated is in direct contact with the near wick 234. The material being evaporated is absorbed by the far wick 243 and the near wick 236 and can be saturated. The incoming air sucked through the holes 2 3 2 -1 discharges the material being evaporated from the saturated near wick 234. The discharged material that is being evaporated is attracted from the wick element 234 to a cavity between the distal wick 234 and the near wick 236. The chamber may also contain a heating element that has been heated to between 150 〇c and 2 〇 (rc). The small wick 234 is attracted from the far wick 234 in the form of a small (eg, atomized) droplet that is being evaporated. The heating element evaporates the atomized droplets. In the previous two embodiments, both along the corridor adjacent to the battery 1〇4, through the inlet insulator 112, the suction port 116, and The suction port cover ι 4 draws the vaporized material and air. After exiting the personal evaporator unit 1 'the vapors can be inhaled by a user. The systems, controllers and functions described above can be assisted by - or multiple The computer system is implemented or executed by one or more computer systems. The methods described above can be stored on a computer readable medium. The personal vaporizer unit 1 and housing 5 can be attached to, include or include a computer system. 75 illustrates a block diagram of a computer system. Computer system 600 includes a communication interface 62, processing system 63 〇, 155442. Doc •28· 201208723 Storage system 64G and user interface (4). The processing system (4) is operatively coupled to the storage system 64G. The storage system 64G storage software (4) and the data processing system 630 are operatively coupled to the communication interface 62 and the user interface 660. The computer system_ can include a stylized general purpose computer. The computer system_ can contain a microprocessor. Computer systems_ can include programmable or dedicated circuits. The computer system _ can be distributed among a plurality of devices, processors, storage devices and/or interfaces that constitute components 62A through 670. The face 620 can include a network interface, data machine, port, bus, link, transceiver, or other communication device. The communication interface 62 can be distributed among a plurality of communication devices. The processing system 63 can include a micro A processor, a microcontroller, a logic circuit, or other processing device. The processing system 630 can be distributed among a plurality of processing devices. The user interface 660 can include a keyboard, a mouse, a voice recognition interface, a microphone and a speaker, a graphic display, A touch screen or other type of user interface device. The user interface 66 can be dispersed among a plurality of interface devices. The storage system (10) can include a disk, a tape, an integrated circuit, a RAM, a job, and a network storage device. The word storage device or other hidden function "storage system 64" can be a computer readable medium. The storage system 640 can be distributed among a plurality of memory devices. The processing system 630 is retrieved and executed from the storage system 64. Software "❹. The processing system can retrieve and store data 67〇. The processing system can also retrieve and store data via the communication interface. Processing system 65 can form or modify software or material 670 to achieve a tangible result. The processing system can control the communication interface 620 or the user interface 6 to achieve a tangible result. The processing system can retrieve and execute the software stored at the remote end via the interface 620. 155442. Doc •29· 201208723 Software stored in software 650 and remotely can include an operating system, utilities, drivers, networking software, and other software typically executed by a computer system. Software 650 can include an application, a small application, a firmware, or other form of machine readable processing instructions typically executed by a computer system. When executed by processing system 630, software 650 or software stored at the remote end can instruct computer system 600 to operate as described herein. Figures 76A-76L show various views of another embodiment of the evaporator 76000. In particular, Figure 76A shows a perspective view of one of the evaporators 76000, while Figure 76B shows a side view of the evaporator 76000. The evaporator 76000 can have a housing 76002 that includes an oral suction tube 76004 for delivering vapor to a user's mouth. When the user's mouth draws in the mouth suction pipe 76004 to draw in vapor, the air can be drawn into the evaporator 76000 through the intake port 76006. A battery carrier sleeve 76008 can be slidably coupled to the outer cover 76002 for guiding the alternating movement of the battery carrier sleeve 76008 between an extended position and a retracted position. When the battery carrier sleeve is moved into the extended position, the evaporator 76000 can be electrically activated to generate steam. When the battery carrier sleeve is moved into the retracted position, vapor generation can be suspended and the evaporator 76000 can be temporarily deactivated. A battery carrier sleeve 76008 can be disposed within the housing 76002. The outer cover 76002 can have an aperture 76010 that extends into the outer cover 76002 and is disposed adjacent a surface of the battery carrier sleeve 76008. The surface of the battery carrier sleeve 76008 can be configured for manual access by a user through the aperture 76010 for controlling the movement of the battery carrier sleeve 76008 between the retracted position and the extended position. Doc -30- 201208723 Move. Figure 76C shows an exploded view of one of the evaporators 76000. The evaporator 76000 can include an oral suction tube 76004, an evaporator assembly 76020, a contact piece 76034, a bushing 76036, an elastic member 76038, and a contact post 76040. The battery carrier sleeve 76008 can be adapted for receiving a battery 76242. The battery carrier sleeve 76008 can include an air circulation vent 76043 that can extend through the battery carrier sleeve 76008 for cooling the battery 76242. The material of the battery carrier sleeve 76008 can be selected such that the battery carrier sleeve 76008 can have a high thermal conductivity substantially greater than about one per Kelvin - 10 watts for operation from the battery during operation of the evaporator Cooling. Additionally, the material of the battery carrier sleeve 76008 can be selected such that the battery carrier sleeve 76008 can have a very high thermal conductivity substantially greater than about one Kelvin per meter Km - 100 watts for operation during operation of the evaporator Cooling from the battery. For example, battery carrier sleeve 76008 can comprise aluminum. Battery 76042 can have at least one battery terminal. Battery 76042 can have a positive battery terminal 76044 at one end of battery 76042. Battery 76042 can have a negative battery terminal 76046 at the opposite end of battery 76242. The battery carrier sleeve 76008 can be slidably coupled to the housing sleeve 76048. The surface of the battery carrier sleeve 76008 can be configured for manual access by a user through the aperture 76010 for controlling movement of the battery carrier sleeve 76008 between the retracted position and the extended position. It should be understood that the present invention is not limited to the battery polarity configuration discussed and illustrated in the exploded view of FIG. 76C, since the battery polarity can be reversed relative to the battery polarity explicitly shown in FIG. Evaporator 155442. The operation of doc -31- 201208723 76000 has a substantial negative impact. More specifically, battery carrier sleeve 76008 can receive battery 76042 having positive and negative battery terminals 76044, 76046, and contact post 76052 can be configured for electrical coupling with any of battery terminals 76044, 76046, regardless of either What is the polarity of any of the battery terminals 76044, 7 6 0 4 6 . Figure 76D shows a detailed side view of one of the evaporator assemblies 76020. Figure 76E shows a detailed perspective view of one of the evaporator assemblies 76020. Figure 76F shows a perspective exploded view of one of the evaporator assemblies 76020. As shown in the exploded view of Figure 76F, the evaporator assembly 76020 can include a cap 76021, an outer reservoir cover 76022, an elastomeric ring 76023, an absorbent ceramic reservoir 76024, and a supportive internal reservoir sleeve. Cartridge 76025, an atomizer assembly 76050 and a supporting atomizer fluid interface 76027. The cap 76024 can be removable and, in particular, the absorbent ceramic reservoir 76024 can be removed by a user of the evaporator to provide cleaning or replacement of the absorbent ceramic reservoir 76024. The oral suction tube previously discussed herein can be fluidly coupled to the nebulizer assembly 76050 for delivering vapor from the nebulizer assembly to the user's mouth. When electrically activated, the atomizer assembly 76050 can turn the liquid into a vapor. The absorbent ceramic reservoir 76024 provides volume storage of the liquid. For example, the liquid can include a miscible liquid, and the absorbent ceramic reservoir 76024 can be adapted for volume storage of the miscible liquid. The absorbent ceramic reservoir 76024 can be fluidly coupled to the atomizer assembly 76050 for providing liquid to the atomizer assembly 76050 in response to suction by the user. In particular, the intake manifold 76006 can extend through the outer reservoir cover 155442. Doc-32-201208723 76022' and may be fluidly coupled to the absorbent ceramic reservoir 76024 for venting air into the absorbent ceramic reservoir in response to suction by the user. A first set of liquid delivery orifices 76026A can extend through the supportable internal sump sleeve 76025' for transporting liquid drawn from the absorbent ceramic reservoir 76024 through the supportive internal sump sleeve 76025. Similarly, a second set of liquid delivery orifices 76026B can extend through the support atomizer fluid interface 76027 for delivery of liquid drawn from the absorbent ceramic reservoir 76024 through the support atomizer fluid interface 76027. . Similarly, a third set of liquid delivery orifices 76026C can be extended into the atomizer assembly 76050 for delivery of liquid aspirated from the self-absorbent ceramic reservoir 76024 to the atomizer assembly 76050. In other words, the first and second sets of liquid delivery orifices 76062A, 76062B can form at least one liquid suction channel 76062A, 76062B that can be fluidly coupled between the atomizer assembly 76050 and the absorbent ceramic reservoir 76024 for use. The liquid is aspirated from the absorbent ceramic reservoir 76024 in response to the user's suction. As shown in the exploded view of FIG. 76F, the intake port 76006 and the liquid suction channels 76062A, 76062B can each be disposed at respective opposing surfaces of the absorbent ceramic reservoir 76024 to promote the liquid self-absorbent ceramic reservoir 76024. Pumping. As shown in Figure 76F, the absorbent pottery reservoir 76024 can have a generally annular profile. The absorbent ceramic reservoir 76024 can be generally cylindrical. The atomizer assembly 76050 can be disposed coaxially with the generally cylindrical shape of the absorbent ceramic reservoir 76024. As shown in Fig. 76F, the 'elastic Ο ring 76023 can be disposed adjacent to one of the substantially cylindrical shapes of the absorbent ceramic reservoir 76024' for use with 155442. Doc • 33· 201208723 , -·η Absorbent Ceramic Tanks 76024 provide at least some impact protection. . As shown in Fig. 7 (d), the absorbent pottery (four) groove has a substantially cylindrical shape. 〇 = "Cylinder wall having a thickness dimension "T". To provide a reservoir of liquid storage and to provide some strength of the absorbent ceramic reservoir 76 24, the thickness dimension "T" can be greater than about a few millimeters. To provide some of the compact thickness of some of the user's absorbent sump 76G24, the thickness dimension T" can be less than about tens of millimeters. Thus, the thickness dimension "τ" can range from about a few millimeters to about several tens of millimeters. In order to provide some user branching, and to avoid excessive refilling of the absorbent pottery (4) tank 76G24, the absorbent pot reservoir 24 may have a liquid absorption volume of greater than about one-half milliliter. In particular, the absorbent pottery tank 76024 can have a liquid absorption volume of greater than about 75 full pumping cycles sufficient to achieve passage through the user's mouth and substantially filling a user's lungs. To provide some user convenience and some compactness of the absorbent ceramic reservoir 76 24, the absorbent pottery reservoir 76024 can have a liquid absorption volume of less than about 1 milliliter. Thus, the absorbent ceramic reservoir 76A can have a liquid absorption volume ranging from about one-half milliliter to about one milliliter. The absorbent pottery tank 76024 can include a large hole. The macroporous pottery can be substantially hydrophilic. In addition, the large hole Tao Jing may include a substantially open-ended structural ceramic. Additionally, the macroporous ceramic can include - substantially interconnecting macroporous ceramics. The macroporous ceramic may comprise an oxide ceramic. More specifically, the macroporous ceramic may comprise alumina "since the atomizer assembly 76 〇 5 〇 can generate heat, so to provide some user safety, the absorbent ceramic reservoir 76 〇 24 can be substantially Combustible. To provide a user who inhales the vapor of the evaporator 155442. Doc •34· 201208723 Some safety, absorbent ceramic reservoirs 76024 can be substantially chemically inert. β The parameters of the macroporous ceramics can be selected to provide self-absorbent ceramics. Usability. The macroporous ceramic may have an intake value ranging from about one-fifth of a pound per square foot to about one-eighth of a square foot per square foot. The macroporous ceramic can have a porosity ranging from about 40% to about 90%. The macroporous ceramic can have an average pore size ranging from about 25 microns to about 15 microns, in addition to providing some ease of pumping, such as greater than about 40% porosity and/or greater than about The average pore size parameter of 25 microns provides some wicking efficiency in filling the absorbent ceramic reservoir 76024 with liquid. For example, a parameter of less than about 90% porosity and/or an average pore size of less than about 15 microns may provide some strength to the absorbent ceramic reservoir 76024. To provide some balance between ease of pumping, wicking efficiency and strength, the macroporous ceramic can have an average pore size of about 70 microns. Figure 76G shows a detailed side view of one of the atomizer assemblies 76〇5〇. The figure shows a detailed sectional view of the non-atomization benefit assembly 76050. The atomizer assembly can include a first electrical contact 76051 of the inner contact sleeve 76051 of the 匕3 to the eve, and the inner contact sleeve of the shawl has an end extending to one end of the inner contact sleeve paste 5i.  The orifice is shown in Figure 76G. The atomizer assembly 76〇5〇 can further include a second electrical contact 76053 including at least one outer contact sleeve 76053. The atomizer assembly 76A can further include a heating element 76A 54 that is electrically coupled between the inner contact sleeve and the outer contact sleeve, for example, by an insulated wire paste η. For example, heating element 155442. Doc •35· 201208723 76054 can be made of or include the following: nickel chrome, iron chrome aluminum, stainless steel 'gold, platinum, tungsten molybdenum or a piezoelectric material. When electrically activated, the heating element 76054 can heat the liquid to a vapor. The atomizer assembly 76050 can further include an annular electrical insulator 76056 interposed between the inner contact sleeve 7605 1 and the outer contact sleeve 76053. Figure 76H shows a third set of liquid delivery orifices 76026C that can be extended into the nebulizer assembly 76050 for delivery of the liquid aspirated from the self-absorbent ceramic reservoir to the nebulizer assembly 76050, as herein As mentioned earlier. The atomizer assembly 76050 can include a first wick 76057 that is configured for direct contact with liquid drawn from the absorbent ceramic reservoir in response to suction by the user. A support rail 76052 can be coupled across the outer contact sleeve 76053 for supporting the first wick 76057. As shown in Figure 76H, a second wick 76 〇 58 can be separated from the first wick 76057 by an air gap and can be configured to receive a first suction from the user in response to the suction. The core draws the liquid. The second wick 7605 8 can be thermally coupled to the heating element 76054. For example, as shown in Figure 76H, the heating element can be coiled around the second wick 76060. As shown in Figure 76H, the nebulizer assembly 76050 can further include an nebulizer cup 76A59 having at least one aperture extending therethrough for providing suction and more particularly Liquid delivery between the first wick 7605 7 and the second wick 76058. Figure 761 of the evaporator assembly 76020 shows a cap 76021, an outer reservoir cover 76022, an elastic dome ring 76023, an absorbent ceramic reservoir 76024, a supportive internal reservoir sleeve 76025, and an atomizer in a cross-sectional view. Into the 76050 and a supporting atomizer fluid interface 76027, these components have been previously 155442. Doc -36- 201208723 An exploded view of the evaporator assembly 76020 in Figure 761 is discussed herein. As shown in the cross-sectional view of Figure 761, the absorbent ceramic reservoir 76024 can be fluidly coupled to the nebulizer assembly 76050 for providing liquid to the nebulizer assembly 76050 in response to the user's suction. As shown, the intake manifold 76006 can extend through the outer reservoir cover 76022 and can be fluidly coupled to the absorbent ceramic reservoir 76024 for venting air to the absorbent ceramic reservoir in response to suction by the user. In the slot. Figure 761 shows the first set of liquid delivery orifices 76026A in a cross-sectional view. The first set of liquid delivery orifices can extend through the supportable internal reservoir sleeve 76025 for passage through the supportive internal reservoir sleeve 76025. The liquid pumped from the absorbent ceramic reservoir 76024 is delivered. Similarly, Figure 761 shows the second set of liquid delivery orifices 76026B in a cross-sectional view. The second set of liquid delivery orifices can extend through the support atomizer fluid interface 76027 for passage through the supporting atomizer fluid. The interface 76027 transports the liquid aspirated from the absorbent ceramic reservoir 76024. Similarly, FIG. 761 shows the third set of liquid delivery orifices 76026C in a cross-sectional view that can extend into the atomizer assembly 76050 for aspiration of the self-absorbent ceramic reservoir 76024. The liquid is delivered to the atomizer assembly 76050. The nebulizer assembly 76050 can include a first wick 76057 that is configured for direct contact with liquid drawn from the absorbent ceramic reservoir in response to suction of the use. In other words, Figure 761 shows the first and second sets of liquid transfer apertures 76062A, 76062B in a cross-sectional view, the first and second sets of liquid delivery apertures. J" forms at least one liquid suction channel 76062A, 76062B and is fluidly transferable between the atomizer assembly 76050 and the absorbent ceramic reservoir 76024 for use with 155442. Doc • 37- 201208723 The liquid is aspirated from the absorbent ceramic reservoir 76024 in response to the user's suction. As shown in the cross-sectional view of FIG. 761, the intake port 76006 and the liquid suction channels 76062A, 76062B can each be disposed at respective opposing surfaces of the absorbent ceramic reservoir 76024 to facilitate the liquid self-absorbent ceramic reservoir 76024. Suction. The evaporator's absorbent ceramic reservoir can be configured to be filled or refilled by the user dripping the liquid. For example, Figure 76J shows a side view of the evaporator 76000 for illustrating filling or refilling the evaporator 76000 with liquid by dripping the droplets along the mouth with a suction tube 76004 as shown in Figure 76J. Absorbent ceramic storage tank. As shown in further detail in the detailed partial cross-sectional view of Figure 76K of the evaporator, the droplets can flow through the first wick 76057 of the atomizer assembly 76050, as depicted by the symbolic lines and associated arrows. As further depicted by the symbolic lines and associated arrows in Figure 76J, the liquid can pass from the first wick 76057 through to the third set of liquid delivery orifices from the nebulizer assembly in the nebulizer assembly 76050. 76050 flows out through the second and first sets of liquid delivery orifices forming the liquid suction passage and into the absorbent ceramic reservoir 76024 to fill or refill the absorbent ceramic reservoir 76024 with liquid. Accordingly, the absorbent ceramic reservoir 76024 can be configured with the liquid suction passage for filling or refilling the absorbent ceramic reservoir 76024 by placing a liquid in the liquid suction passage. Figure 76L is a detailed partial cross-sectional view of one of the evaporators to illustrate the suction in the liquid to atomizer assembly 76050 and illustrates that the atomizer assembly 76050 turns the liquid into steam upon startup. As depicted by the symbolic arrows in Figure 76L, air can pass through the outer reservoir cover 155442 in response to the user's suction. The inlet port 76006 of doc-38-201208723 76022 is vented to the absorbent ceramic reservoir 76024. As depicted by the symbolic arrows in Figure 76L, the liquid can be mixed with air and drawn from the absorbent ceramic reservoir 76024 through the first and second sets of liquid delivery orifices, the first and second sets of liquids. The delivery orifice can form a liquid suction channel. The liquid suction channel can be fluidly coupled between the atomizer assembly 76050 and the absorbent ceramic reservoir 76024 for drawing liquid from the absorbent ceramic reservoir 76024 to atomization in response to suction by the user. The first wick 76057 and the second wick 76059 of the assembly 76050. As depicted by the symbolic dashed arrows in Figure 76L, when the second wick 76060 is heated by the electrically activated heating element 76054 to vaporize the liquid, the vapor can flow from the second wick 76060. The operation of the evaporator 76000 is illustrated in various sequential views in Figs. 77A through 77F. In an initial sequential side view, Figure 77A shows an evaporator 76000 that may have a housing 76002 that includes an oral suction tube 76004 for suction by a user's mouth. For purposes of illustration, a contour of the user's mouth is shown using dashed lines. As previously discussed herein, battery carrier sleeve 76008 can be slidably coupled to housing 76002 for directing alternate movement of battery carrier sleeve 76008 between an extended position and a retracted position. When the battery carrier sleeve is moved into the extended position, the evaporator 76000 can be electrically activated to generate steam. When the battery carrier sleeve is moved into the retracted position, vapor generation can be suspended and the evaporator 76000 can be temporarily deactivated. A battery carrier sleeve 76008 can be disposed within the housing 76002. The outer cover 76002 can have an aperture 76010 that extends into the outer cover 76002 and is disposed adjacent the surface of the battery carrier sleeve 76008. The surface of the battery carrier sleeve 76008 can pass through 155442. The doc-39·201208723 is configured such that the user can manually access through the aperture 760 10 for controlling movement of the battery carrier sleeve 76008 between the retracted position and the extended position. In Figure 77A, 'the battery carrier sleeve 76008 is shown in the retracted position. The thumb of the user's thumb (shown in phantom as the surface that engages the battery carrier sleeve 76008) is also retracted. Figure 77B is a detailed partial cross-sectional view showing the battery carrier sleeve in the retracted position as in Figure 77A. In a subsequent sequential side view in Figure 77C, the battery carrier sleeve 76008 is shown in an extended position for electrically activating the atomizer assembly of the evaporator 76000 to vaporize the liquid. Similarly, the user's thumb (shown as a surface that engages the battery carrier sleeve 76A8 with a dashed line) also extends. Figure 77D is a detailed partial cross-sectional view showing the battery carrier sleeve in the extended position as in Figure 77e. The vapor generated by the evaporator in response to the manual activation of the user is illustrated in Figure 77C by a dashed arrow representative map extending from the mouth with a suction pipe 76004. The vapor shown as a dashed arrow is shown extending into the mouth of the user in response to the suction of the user's mouth. For purposes of illustration, the outline of the user's mouth is shown using dashed lines. In the subsequent sequential side view in Fig. 77E, the battery carrier sleeve 76008 is again shown in the retracted position for electrically deactivating the atomizer assembly of the evaporator 76. Similarly, the user's thumb (shown in phantom as the surface of the battery compartment cover 76008) is also retracted. Figure 77F is a detailed partial cross-sectional view showing the battery carrier sleeve in the retracted position of Figure 77E. Figure 77F shows the user's mouth as dotted line I55442. Doc 201208723 The remaining suction vapor of the circle. For purposes of illustration, the outline of the user's mouth is shown using dashed lines. As specifically shown in FIG. 77D, the atomizer assembly 76050 can include a first electrical contact 76051 (including, for example, at least an inner contact sleeve 76051) for use when the battery carrier sleeve 76008 is in an extended position (eg, A battery power flow is selectively conducted from the battery 76042 to the atomizer assembly 76050 when shown in FIG. 77D. When the battery carrier sleeve 76008 is in the retracted position (as shown in Figures 77B and 77F), the first electrical contact 76051 (including, for example, including at least the inner contact sleeve 76051) can be selectively interrupted Battery power flow from battery 76242 to atomizer assembly 76050. As specifically shown in FIG. 77D, the battery carrier sleeve 76008 and the contact post 760002 can be configured for contacting the battery terminal 76044 of the battery 76042 with the contact strip 76034 and the atomizer when the battery carrier sleeve 76008 is in the extended position. The first electrical contact 76051 of the assembly 76050 is electrically coupled. Battery carrier sleeve 76008 and contact post 760002 can be configured for use with battery terminal 76044 and contact strips 76034 and fog when battery carrier sleeve 76008 is in the retracted position (as shown in Figures 77B and 77F) The first electrical contact 76051 of the chemical assembly 76050 is electrically isolated. In particular, when the battery carrier sleeve 76008 is in the retracted position (as shown in FIGS. 77B and 77F), there may be a second insertion into the contact post 76002 and the contact piece/atomizer assembly 76050. An air gap between electrical contacts 76034, 76051 for electrically isolating contact post 76062 from contact pads/first electrical contacts 76034, 76051. As shown in Figures 77B, 77D, and 77F, the bushings 76036 can hold the contact strips 76034 electrically coupled to the first electrical contact 76051 of the atomizer assembly 76050 (for example, by 155442. Doc -41 - 201208723 The end of the inner contact sleeve 76051 of the atomizer assembly 76050). 77B and 77F show the expanded resilient member 76A, for example, an expanded spring 76038' that can be disposed within the outer sleeve 76048 and the bushing 76036. The resilient member 76038 can be coupled to the battery carrier sleeve 76008 for advancing the battery carrier sleeve 76008 into the retracted position, as shown in Figures 77B and 77F. Figure 77D shows the compressed spring member 76 〇 3 8, for example, the compressed spring 76038 when the battery carrier sleeve 76008 is in the extended position shown in Figure 77D. 5, FIG. 77A to FIG. 77F illustrate the operation of an electrical switch including a slidably coupled to the housing for guiding the battery carrier sleeve 76008 between an extended position and a retracted position. Alternately moving battery carrier sleeve 76008. When the battery carrier sleeve 76A is in the extended position, the electrical switch can be closed for activating the atomizer assembly 76〇5 to vaporize the liquid. When the battery carrier sleeve 76A is in the retracted position, the electrical switch can be broken for deactivating the nebulizer assembly 76〇5〇. The electrical switch can be manually controlled by a user of the evaporator by manually controlling the movement of the battery carrier sleeve 76008. The electrical switch can be an instant on-off switch. As long as the user can resist the restoring force of the compressed elastic member 76038 (in other words, resisting the restoring force of the compressed spring 76038), the battery carrier sleeve 76〇〇8 is held in the extended position, and the momentary on-off is performed. The switch can be "on" as shown in Figure 77D. As long as the user can relax the retention of the battery carrier sleeve 76 〇〇 8 so that the battery carrier sleeve is expanded by the elastic member 76 〇 38 (in other words, when the spring lake 8 is inflated), the restoring force is restored to retraction. In the position, the instantaneous ° is turned on _ 155442. Doc -42- 201208723 Turn off the switch to "shut down" as shown in Figure 77B and Figure 77F. Therefore, the electrical switch can be normally opened until it is closed by operating the electrical switch. 78 shows an alternative embodiment that is generally similar to one of the other embodiments just discussed with respect to FIGS. 76A-76L and 77A-77F, except that in the alternative embodiment of FIG. 78, the previously discussed flexibility may be omitted. component. In the alternate embodiment of Fig. 78, the magnetically opposite magnetic members 78034, 78040 can provide a restoring force to push the battery carrier 78008 back into the retracted position. In other words, the contact piece 78034 and the contact post 78040 can be magnetized and configured with a magnetic opposite polarity and magnetically repulsive polarity. A symbolic arrow is shown in Figure 78 to illustrate the repulsive magnetic lines of force used to advance the battery carrier 78008 into the retracted position. Figure 79 shows another alternative embodiment that is generally similar to the other embodiment just discussed with respect to Figures 76A-76L and Figures 77A-77F, except in the alternative embodiment of Figure 79, the previously discussed The ceramic reservoir is absorbed (and the associated outer reservoir cover, elastic collar 76023 and supportive internal reservoir sleeve can also be omitted). In the absence of an absorbing ceramic reservoir for volume storage of liquid, the liquid capacity of this alternative embodiment shown in Figure 79 can vary. For example, the liquid capacity can be a liquid disposed in the first and second wicks of the nebulizer assembly. In the absence of an absorbent ceramic reservoir, the evaporator 79000 shown in Figure 79 can have a more elongated outer cover 79002 that is coupled to the oral suction tube 79004 for delivering vapor to a user's mouth. A battery carrier sleeve 79008 can be slidably coupled to the housing 79002 for guiding the alternating movement of the battery carrier sleeve 79008 between the extended position and the retracted position. When 155442. Doc • 43· 201208723 When the battery carrier sleeve is moved into the extended position, the evaporator 79000 can be electrically activated to generate steam. When the battery carrier sleeve is moved into the retracted position, vapor generation can be suspended and the evaporator 79 can be temporarily deactivated. A battery carrier sleeve 79008 can be disposed within the housing 79002. The outer cover 79〇〇2 can have an aperture 79010 that extends into the outer cover 79002 and is disposed adjacent to a surface of the battery carrier sleeve 79〇〇8. The surface of the battery carrier sleeve 79A can be configured for manual access by a user through the aperture 79〇1 for controlling the battery carrier sleeve 79008 between the retracted position and the extended position. mobile. Figure 80 is a flow diagram of one of the evaporator operating procedures in accordance with one embodiment. According to the process 8000 shown in Figure 80, the process can begin by sliding a battery carrier 8002 into an extended position. Process 8 can continue in response to sliding the battery carrier into the extended position to electrically activate the evaporator 48.4. Process 8000 can continue to convert the liquid to 8006 vapor in response to electrical activation of the evaporator. Process 8 〇〇〇 can continue to slide the battery carrier to the deflation process 8_ can continue in response to sliding the battery carrier into the retracted position to deactivate the evaporator 8 〇 1 Hey. Once the evaporator has been deactivated for 801 〇, the process 8 〇〇〇 ends. The above description and associated drawings teach the best mode of the invention. The scope of the invention is claimed in the following patent application. It is to be noted that certain aspects of the most (four) formula may not fall within the scope of the invention as defined by the scope of the claims. Those skilled in the art will appreciate that the features described above can be combined in various ways to form various variations of the invention. Therefore, the present invention is not limited to the specific embodiments described above, but is only limited by the scope of the following claims and its equivalents. Doc • 44 · 201208723 [Simplified illustration] Figure 1 is a perspective view of a person's evaporator unit; Figure 2 is a side view of a person's evaporator unit; Figure 3 is a near-end view of a person's evaporator unit Figure 4 is a distal end-end view of a person's evaporator unit; Figure 4A is an end view of the distal end of the individual evaporator unit with a embossed sheet; Figure 5 is a diagram of one of Figures 6 and 7; 6 series one person Α Α ιτ, ',, Zhan Yi early 70 near the section of the cutting line shown in Figure 2; Figure 7 is a person evaporating the mask opening 早 早 早 早 沿 沿 沿 沿 沿A section of the cutting line is shown; Figure 8 is an exploded side view of one of the components of a person evaporating 5|single open, 7L early; Figure 9 is a single evaporator unit flat 7L and valley assembly as shown in Figure 2. One of the cutting lines is decomposed into a section; FIG. 10 is a perspective view of one of the inhalation flaps of a person's hair; §§士士> Figure 12 is a section of the cutting line of the suction port cover along the line; Figure 13 is a A perspective view of one of the suction ports of the individual evaporator unit; Fig. 14 is a side view of the suction port of Fig. 13; Fig. 15 is one of the cutting lines of the suction port along the line of Fig. 4 φ _ Fig. Section; Figure 16 is a person's evaporator set; + material 5 is a long-lasting - perspective circle, 155442. Doc -45· 201208723 Figure I7 is a distal end view of one of the suction port insulators of Figure 16; Figure 18 is a side view of the suction port insulator of Figure 16; Figure 19 is the cutting line of the suction port insulator shown in Figure 18. Figure 20 is a perspective view of one of the main outer casings of a single evaporator unit; Figure 21 is a distal end view of one of the main outer casings of Figure 20; Figure 22 is a proximal end view of one of the main outer casings of Figure 20; 3 is a side view of one of the main outer covers of FIG. 20; FIG. 24 is a cross-sectional view of the main outer cover along the cutting line shown in FIG. 23; FIG. 25 is a perspective view of one of the main outer covers of one of the human evaporator units; Figure 25 is a front perspective view of a main outer cover of Figure 25; Figure 28 is a proximal end view of one of the main outer covers of Figure 25; Figure 29 is a main outer cover of Figure 25. Figure 30 is a cross-sectional view of one of the cutting lines shown in Figure 29; Figure 31 is a perspective view of a printed circuit board (pCB or pc board) assembly of one of the person's evaporator units; Figure 32 is a perspective view of one of the PCB assemblies of Figure 31; Figure 33 is a perspective exploded view of the PCB assembly of Figure 31; Figure 34 Figure 31 is a side elevational view of one of the PCB assemblies; Figure 35 is a perspective view of one of the proximal wick elements of a human evaporator unit; Figure 35A is one of the near wick elements disposed through one of the person's evaporator units a perspective view of one of the heating elements; Figure 35B is a perspective view of one of the heating elements of a person's evaporator unit; 155442. Doc • 46· 201208723 Figure 36 is a distal end view of one of the wick elements of Figure 35; Figure 37 is a cross section of the wick and the piece along the cutting line shown in Figure 35; Figure 38 is a single evaporator unit - a perspective view of a far wicking member; Fig. 39 is a distal end view of one of the wicking members of Fig. 38; Fig. 40 is a cross section of the wicking member taken along the cutting line shown in Fig. 39; Fig. 41 is a person evaporating One of the distal elements of the unit is a perspective view of one of the core elements; Figure 42 is a distal end view of one of the core elements of Figure 41; Figure 43 is a cross-sectional view of the core element taken along the line of the cut shown in Figure 42; Figure 45 is a distal end view of the nebulizer cover of Figure 44; Figure 46 is a side view of the nebulizer cover of Figure 44; Figure 47 Figure 44 is a top plan view of the nebulizer cover of Figure 44; Figure 48 is a cross-sectional view of the nebulizer cover along the cutting line shown in Figure 47; Figure 49 is a perspective view of one of the nebulizer covers of one of the person's evaporator units Figure 50 is a distal end view of one of the nebulizer housings of Figure 49; Figure 51 is a side view of the nebulizer housing of Figure 49; Figure 52 is a Figure 49 is a cross-sectional view of the atomizer cover along the cutting line shown in Figure 52; Figure 54 is a nebulizer cover of one of the human evaporator units and the wick A perspective view, FIG. 5 is an exploded view of the atomizer cover, the wire guide and the wick of FIG. 5, and FIG. 56 is a side view of the atomizer cover and the wick of FIG. 54; Figure 5 is a distal end view of the nebulizer cover and the wick; 155442. Doc •47· 201208723 Figure 5 8 is a section of the nebulizer cover and wick along the cutting line shown in Figure 57; Figure 59 is the proximal wick and wire guide of Figure 54 to Figure 58 Figure 59A shows a perspective view of one of the heating elements disposed around the proximal wick of Figures 54-58 and surrounding the wire guide; Figure 59B is a perspective view of a heating element of a person's evaporator unit Figure 60 is a distal end view of one of the wick members of Figures 54 through 58; Figure 61 is a cross section of the wick element and wire guide along the cutting line shown in Figure 6A; Figure 62 is a person Figure 16 is a perspective view of one of the light pipe sleeves of Figure 62; Figure 64 is a cross-sectional view of the light pipe sleeve along the cutting line shown in Figure 63; Figure 65 is a person a perspective view of one of the evaporator units; Fig. 66 is a side view of one of the tops of Fig. 65; Fig. 6 is a side view of one of Fig. 65; Fig. 68 is a top view of one of Fig. 65; Figure 69 is a side view of one of the cutting lines shown in Figure 66; Figure 70 is a side view of one of the batteries of a human evaporator unit; Figure 7 1 Figure 70 is an end view of one of the batteries; Figure 72 is a perspective view of one of the battery supports of a human evaporator unit; Figure 73 is a perspective view of one of the human evaporator unit housings; Figure 74 is a perspective view of a human evaporator unit housing Figure 7 Figure 5 is a block diagram of a computer system · 155442. Doc -48· 201208723 Figures 76A-76L show various views of another embodiment of the evaporator; Figures 77A-77F illustrate various sequential views of the operation of the evaporator 7 8 showing an alternative embodiment; Figure 7 9 shows another An alternative embodiment; one of the flowcharts 80 is according to one embodiment - the evaporator is operated over the map β [main symbol description] 100 individual evaporator unit 102 external main housing 104 battery 106 battery support 112 suction inlet insulator 112-1 passage 114 suction port cover 114-1 opening 114-2 annular ridge 116 suction port 116-1 passage 116-2 annular groove 123 printed circuit board 124 printed circuit board 125 light-emitting diode 126 light-emitting diode 155442. Doc •49- 201208723 127 Light Emitting Diode 128 Spacer 132 Nebulizer Cover 132-1 Hole 132-2 Spade Tip.   132-3 Chamfered surface 134 Far wick 134-1 Flat surface end 136 Near wick 136-1 Internal wire path 136-2 External wire path 136-3 Height 139 Conductor or heating element 140 Light pipe cover 150 匣154 Channel 157 padded portion 158 flat surface 160 main outer cover 164 flat surface 165 sub L 166 sub L 167 padding portion 232 nebulizer cover 155442. Doc -50- 201208723 232-1 sub L 232-2 open cylinder tip 232-3 chamfered surface 234 far wick 234-1 tip end 236 near wick 236-1 passage 237 wire guide 238 wire guide Pieces 239 Conductor or Heating Element 260 Main Housing 264 is Flat Surface 265 Sub L 266 Hole 267 Plunger 500 Personal Evaporator Housing 510 Connector 600 Computer System 620 Communication Interface 630 Processing System 640 Storage System 650 Software 660 User Interface 670 Information 155442. Doc -51 - 201208723 76000 Evaporator 76002 Cover 76004 Suction tube 76006 Intake 蟑76008 Battery carrier sleeve 76010 Hole σ 76020 Evaporator assembly 76021 Cap 76022 External tank cover 76023 Elastic 〇 ring 76024 Absorbent ceramic Storage tank 76025 Supporting internal storage tank sleeve 76026A First group liquid delivery orifice 76026B Second group liquid delivery orifice 76026C Third group liquid delivery orifice 76027 Supporting atomizer fluid interface 76034 Contact piece 76036 Set 76038 Resilience Component 76040 Contact Post 76042 Battery 76043 Air Circulation Vent 76044 Positive Battery Terminal 76046 Negative Battery Terminal • 52- 155442. Doc 201208723 76048 Cover sleeve 76050 Atomizer assembly 76051 First electrical contact 76052 Support rail 76053 External contact sleeve 76054 Heating element 76055 Insulated wire 76056 Ring electrical insulator 76057 First irritated 76058 Second wick 76059 Fog Chemical Cup 78008 Battery Carrier 78034 Contact Plate 78040 Contact Post 79900 Evaporator 79002 Cover 79004 Port Suction Tube 79008 Battery Carrier Sleeve 79010 Hole σ 155442. Doc -53-

Claims (1)

201208723 VII. Patent Application Range: 1. An evaporator comprising: an atomizer assembly for converting a liquid into a vapor; a port with a suction tube 'which is fluidly coupled to the atomizer assembly For transporting the vapor from the atomizer assembly to a user's mouth; and an absorbent ceramic reservoir for volume storage of the liquid and fluidly coupled to the atomizer assembly for The liquid is supplied to the nebulizer assembly in response to the user's aspiration. 2. The evaporator of claim 1, further comprising a liquid suction channel fluidly coupled between the atomizer assembly and the absorbent ceramic reservoir for use in response to the use Pumping the liquid from the absorbent ceramic reservoir. 3. The evaporator of claim </ RTI> further comprising an intake port fluidly coupled to the absorbent ceramic reservoir for use Air is vented into the absorbent ceramic reservoir in response to suction by the user. 4. The evaporator of claim 1, further comprising: a liquid suction passage fluidly coupled between the atomizer assembly and the absorption ceramic reservoir for responding to suction by the user And pumping the liquid from the absorbent ceramic reservoir; and entering the crucible, fluidly coupling with the absorbent ceramic reservoir for venting air to the absorbent ceramic reservoir in response to the grapefruit suction of the user In the tank, wherein the inlet enthalpy and the liquid suction passage are respectively disposed on respective opposite surfaces of the absorbent ceramic storage tank, L,; you / ^ clothing levees to promote the liquid from the absorption 155442.doc 201208723 The suction of the stomata of the stencils. 5. The evaporator of claim 1, wherein the smelter assembly comprises a first wick, the first wick being configured for direct contact in response to the The liquid drawn from the absorbent ceramic reservoir by the user's suction. 6. The evaporator of claim 1 wherein the atomizer assembly comprises a heating element for heating the liquid to the vapor. 7. The evaporator of claim 1, wherein the atomizer assembly comprises: a first wick 'configured for direct contact with the absorbent ceramic reservoir in response to suction by the user a pumped liquid; and a second wick 'separated from the first wick by an air gap and configured to receive a liquid drawn from the first wick in response to suction by the user . 8. The evaporator of claim 1, wherein the atomizer assembly comprises: a first wick configured to directly contact the absorbent ceramic reservoir in response to suction by the user a liquid to be pumped; a heating element; and a second wick 'thermally coupled to the heating element.> The evaporator of claim 1, wherein the atomizer assembly further comprises an atomizer cup, The nebulizer cup has at least one aperture a 〇10 extending therefrom, such as an evaporator of the request item, wherein the absorbent ceramic reservoir is configured for refilling by dripping the liquid by the user. 11. The evaporator of claim 1, further comprising: a liquid suction passage fluidly coupled between the atomizer assembly and the suction 155442.doc 201208723 Pumping the liquid from the absorbent ceramic reservoir by suction by the user; wherein the absorbent ceramic reservoir is provided with the liquid suction passage for repositioning in the liquid suction passage by liquid Fill the absorbent ceramic storage tank. 12. 13. 14. 15. 16. 17. 18. An evaporator comprising: an atomizer assembly for converting a liquid into a vapor; and an absorbent ceramic reservoir for the liquid The volume is stored and fluidly coupled to the helium atomization assembly for supplying the liquid to the atomizer assembly, wherein the "small absorbent pottery reservoir comprises a large hole of pottery 兖 β 如 - 青The evaporator of 12, wherein the macroporous κ is substantially hydrophilic. The evaporator of claim 12, wherein the liquid comprises a miscible liquid; and the absorbent ceramic reservoir is adapted for volume storage of the miscible liquid. The evaporator of claim 12 wherein the absorbent ceramic reservoir has a liquid absorption volume ranging from about one half milliliter to about one kiloliter. For example, the evaporator of claim 12 wherein the absorbent ceramic reservoir has a liquid absorption volume sufficient to achieve more than about 75 full pumping cycles through the user's mouth and substantially filling the user's lungs. The evaporator of claim 12, wherein the large hole Tauman comprises - a substantially open-cell structure. The evaporator of claim 12, wherein the large hole Taman comprises - a macroporous 650442.doc 201208723. 19. 20. 21. 22. 23. 24. 25. 26. 27. The evaporator of claim 12, wherein the macroporous ceramic has a porosity ranging from about 40 Å to about 9 G%. The evaporator of claim 12, wherein the macroporous has an intake value ranging from about five cents per square centimeter to about one pound per square inch. The evaporator of claim 12, wherein the macroporous ceramic has an average pore size ranging from about 25 microns to about 150 microns. An evaporator according to claim 12, wherein the macroporous ceramic has an average pore size of about 7 〇 microns. For example, in the evaporator of item 12, the large-hole ceramics include oxide ceramics. The evaporator of claim 12, wherein the large pore Tao Xian comprises oxidized. An evaporator comprising: an atomizer assembly for converting a liquid into a vapor; and an absorbent ceramic reservoir for volume storage of the liquid and fluid with the atomizer assembly Coupling is provided for providing the liquid to the atomizer assembly, wherein the absorbent ceramic reservoir is substantially cylindrical. The evaporator of claim 25 wherein the atomizer assembly is disposed coaxially with the substantially cylindrical absorbent ceramic reservoir. The evaporator of claim 25, wherein: the substantially cylindrical absorbent ceramic reservoir comprises a cylindrical wall having a thickness dimension; and 155442.doc 201208723 the thickness dimension is in the range of from a few millimeters. Up to about tens of millimeters Some impact protection. An evaporator comprising: the evaporator of claim 25, further comprising an elastomeric O-ring adjacent to the substantially cylindrical absorbent I-atomizer assembly for converting a liquid into a vapor And a non-flammable absorbent reservoir for volume storage of the liquid and fluidly coupled to the atomizer assembly for providing the liquid to the atomizer assembly, wherein the non-combustible absorption The storage tank is generally chemically inert. 30. The evaporator of claim 29, wherein the non-flammable absorbent reservoir is detachable by a user of the evaporator. 155442.doc