Interactive Portable Vaporizer

Abstract

An interactive vaporizer system is provided in which a portable vaporizer communicates with electronic equipment running a computer application, allowing the user to manage the amount and dosage of vaporized material used. [Solution] The system includes equipment and methods for tracking the amount, composition, purpose, and effect of the vaporized material, managing the duration and inhalation frequency of vaporization sessions, and monitoring the results of vaporization sessions to optimize future use. The system also includes a mouthpiece unit, a cartridge unit, a heating unit, an electronics unit, and a docking unit for charging and metering. A computer application provides access to an information database stored locally or remotely to obtain vaporization session information through user and vaporizer input and update the database. The application communicates information with the vaporizer, and the obtained information can be shared with third parties.

Description

[Technical Field]

[0001] The present invention discloses an interactive vaporizer system that can monitor and provide feedback regarding usage experience. Summary of the Invention

[0002] An interactive vaporizer system allows users to manage vapor usage and dosage using a portable vaporizer that communicates with electronic equipment running a computer application. The system includes devices and methods for tracking the amount, composition, purpose, and effect of vapor; managing the duration and frequency of vaporization sessions; and monitoring the results of vaporization sessions to optimize future uses. The system includes a vaporizer including a microprocessor and wireless communication capabilities; and electronic equipment running a program that sends user-defined parameters to the vaporizer's microprocessor and receives communications from the vaporizer. The vaporizer includes a mouthpiece unit, a removable vaporization cartridge unit with at least one chamber configured to hold vapor, a heating unit with at least one oven, each controlled by a microprocessor and / or computer application, an electronic unit with a rechargeable battery, a printed circuit board, and a microprocessor that controls the heating unit and communicates with and receives and transmits data from the electronic equipment, and a docking unit with a base including a metering station and a charging station, the docking station capable of wireless communication with the electronic equipment. The computer application provides access to a locally or remotely stored database of information, which is programmed by the user with vaporization details that are stored for communication with the vaporizer to update the database. [Brief explanation of the drawings]

[0003] These and other objects, features, advantages and aspects of the present invention will be readily apparent from the following detailed description of preferred embodiments, which proceeds with reference to the accompanying drawings.

[0004] [Figure 1] FIG. 1 is a top view of a vaporization system showing a scale / charger according to the present invention and a vaporizer inserted into a mobile phone. [Figure 2] 1 is a plan view of an assembled vaporizer according to the present invention. FIG. [Figure 3] 1 is an exploded view of the elements of a vaporizer according to the present invention. [Figure 4] 3 is an exploded view of the mouthpiece unit of the vaporizer of FIG. 2 according to the present invention. [Figure 5] FIG. 2 is an exploded view of a vaporization chamber according to the present invention. [Figure 6] 1 is an exploded view of the elements of a vaporizer according to the present invention. [Figure 7] FIG. 2 is an exploded perspective view of the mouthpiece unit according to the present invention. [Figure 8] FIG. 1 is a perspective view of a mouthpiece unit according to the present invention. [Figure 9] FIG. 1 is a perspective view of an assembled mouthpiece unit according to the present invention. [Figure 10] 1 is a diagram of a vaporization cartridge according to the present invention. [Figure 11] FIG. 2 is an exploded view of a vaporization cartridge and screen according to the present invention. [Figure 12] FIG. 1 is a perspective view of an alignment shaft according to the present invention. [Figure 13] 1 is an exploded view of a heating unit and an assembly flow according to the present invention. FIG. [Figure 14a] FIG. 2 is an exploded view of a distal element of a heating unit according to the present invention. [Figure 14b] FIG. 2 is a partial exploded view of a distal element of a heating unit according to the present invention. [Figure 14c] FIG. 1 is a perspective view of a distal element of an assembled heating unit according to the present invention. [Figure 15]FIG. 1 is an exploded view of a heating coil installation according to the present invention. [Figure 16] FIG. 1 is a diagram of a heating unit showing a heating coil held in an oven post according to the present invention. [Figure 17] FIG. 2 is an exploded view of the proximal element of the heating unit according to the present invention. [Figure 18] 1 is a perspective view of an assembled heating unit according to the present invention; FIG. [Figure 19] 1 is a top view of an assembled heating unit showing an oven according to the present invention; FIG. [Figure 20] FIG. 2 is an exploded view of the electronic unit according to the present invention. [Figure 21] FIG. 1 is a diagram of a weighted base according to the present invention. [Figure 22] 1 is a diagram of an assembled water filter accessory according to the present invention. [Figure 23] FIG. 23 is an exploded view of FIG. 22 according to the present invention. [Figure 24] 1 is an exploded view of the components of a water filter accessory according to the present invention. FIG. [Figure 25] 1 is a plan view of a docking station equipped with a vaporizer and a vaporization cartridge according to the present invention. FIG. [Figure 26] FIG. 2 is an exploded view of the vaporizer and vaporization cartridge removed from the docking station according to the present invention. [Figure 27] FIG. 2 is an exploded view of the internal elements of a docking station according to the present invention. [Figure 28] 1 is a diagram of a water filter accessory on an interactive base according to the present invention. [Figure 29a] 1 is a diagram of a water filter accessory on an interactive base according to the present invention. [Figure 29b] FIG. 1 is an exploded view of an interactive base according to the present invention. [Figure 30a] 1 is a flowchart of a system according to the present invention. [Figure 30b] 4 is a flowchart of a communication screen according to the present invention. [Figure 31] 10 is another flowchart of an alternative screen according to the present invention. [Figure 32] 1 is a screen showing various varieties according to the present invention. [Figure 33] 1 is a screen with an evaporative background according to the present invention. [Figure 34] 1 is a user information screen according to the present invention. [Figure 35] 1 is a user screen for creating a session according to the present invention. [Figure 36] 1 is a session start screen according to the present invention. [Figure 37] 1 is a screen list session according to the present invention. [Figure 38] 1 is an alternative home screen according to the present invention. DETAILED DESCRIPTION OF THE INVENTION

[0005] definition As used herein, the term "vapor" refers to any substance that can be vaporized, including, but not limited to, tobacco, cannabis, inhalable insulin, V-Med, eucalyptus oil, and the like.

[0006] As used herein, the term "electronic equipment" refers to any programmable equipment connected to a vaporizer, including, but not limited to, a desktop computer, a phone, a tablet, and the like.

[0007] As used herein, the term "vaporization session" or "session" refers to the act of utilizing the disclosed vaporizer to vaporize a single vapor to achieve a specific desired goal of the user.

[0008] As used herein, the terms "inhalation" and "inhalation" are synonymous and refer to the act of controlling the flow of vapor from the disclosed vaporizers by mouth and breathing.

[0009] As used herein, the term "psychosomatic agent" refers to a substance that exerts a mental and / or physical effect on the user after ingestion. Methods of administration include, but are not limited to, vaporization, edibles, tinctures, infusions, topical administration, sublingual administration, suppositories, vaginal administration, etc. Psychosomatic agents may be medicinal or recreational substances.

[0010] As used herein, the term "PCB" refers to a printed circuit board.

[0011] system The disclosed vaporizer system 1000 (an example of which is shown in FIG. 1) can manage the frequency of inhalations and duration of vaporization sessions by controlling and tracking the amount, composition, purpose, and characteristic effect of the vapor selected by the user, and can monitor the results and calculate the next dose. This calculation is developed, monitored, and updated based on a plan predetermined by the user (or, in some cases, a physician). The vaporizer system 1000 comprises a combination of a vaporizer 1010, a mobile phone or other electronic device 1050, and a docking station 800, all of which communicate with each other by interacting through a user-programmable computer application.

[0012] Because the disclosed vaporizer 1010 is comprised of many components, each element is divided into five sections, and each section is divided into individual components to be described in more detail.

[0013] An example configuration of the docking station 800 includes a charging station 802 and a weighing station 840, which may include a scale 820 positioned within the weighing station 840 below the cartridge receiver 842, as shown in more detail in FIGS. 25-26b. The scale 820 is tared to the weight of the vaporizer cartridge 210, weighs the vapor contained in the vaporizer cartridge 210 both before and after use, and automatically transmits the weight to the electronic device 1050. The docking station 800 also includes a barcode reader and / or an RF chip reader that automatically identifies the vaporizer cartridge barcode and / or RF ID chip and automatically transmits the identification data to the electronic device 1050. The electronic device then utilizes a computer application to store the identification and a large amount of data to aid in dosage calculations, usage trending, and vapor selection tailored to specific user needs.

[0014] Device The vaporizer 1010 is comprised of five sections: a mouthpiece unit 100, a cartridge unit 200, a heating unit 300, a main unit 400, and an electronics unit 500. An example of an assembled vaporizer 1010 is shown in FIG. 2, which illustrates the mouthpiece unit 100, cartridge unit 200, and main unit 400 of the vaporizer 1010. The dimensions of the assembled vaporizer 1010 vary depending on the end user and application. Typical ranges include an overall length of 4 to 8 inches, a cartridge height of 0.25 to 1.0 inches, and a diameter of 1.0 to 2.0 inches. The exterior of the vaporizer 1010 can be manufactured from either plastic or metal, as long as it provides adequate insulation. In situations where a user finds the vaporizer 1010 difficult to hold, a weighted, stable base 600 (FIG. 21) may be incorporated to allow the vaporizer to stand independently of the user. Alternatively, the diameter of the base may be increased to improve stability when the vaporizer 1010 is placed upright on a table, and the vaporizer 1010 may be placed in a docking station 800 to maintain the upright position.

[0015] Figures 3-5 are exploded views of an example vaporizer unit 1010. In Figure 3, the vaporizer 1010 unit is shown in more detail with four of its five modular sections: mouthpiece unit 100, cartridge unit 200, heating unit 300, and main body 400. Figure 4 shows the components of the removable mouthpiece unit 100 in an assembled configuration, including the mouthpiece 110, flange magnet 120, diffuser 130, and mouthpiece gasket 140. The cartridge unit 200 shown in Figure 5 shows the vaporizer cartridge 210 and screen 220.

[0016] Figure 6 is an exploded view showing all the parts of the vaporizer 1010 to make the assembly easier to understand. The numbers in Figure 6 correspond to the parts list above and the detailed description of each vaporizer below.

[0017] Mouthpiece Unit 7 and 8 are exploded perspective views of the mouthpiece unit 100, and FIG. 9 shows the assembled mouthpiece unit 100. In the illustrated example, the removable mouthpiece 110 has a truncated cone shape and a circular inlet 114. This configuration is merely an example, and other configurations known to those skilled in the art may also be used. Materials for manufacturing the mouthpiece 110 include plastic, metal, or composite materials, with plastic or composite materials being more preferred from the standpoint of insulating properties.

[0018] The mouthpiece rim 112 has a diameter and depth designed to accommodate and recess the diffuser 130 via a press fit. The diffuser 130 has a central diffuser bore 122 extending to the flange 132, as described below. The diffuser bore 122 is cut with a V-shaped diffuser groove 136 designed to accept and align with the V-shaped key 314 of the alignment shaft 312, as shown in FIG. 12. The diffuser 130 includes a vent 134 aligned with the vaporization chamber 212 (FIGS. 10-11), allowing the hot vapor generated by one active oven to mix with the cool airflow from all inactive ovens, thereby dispersing the vapor before it enters the conical-tipped mouthpiece 110. The proximal center of the diffuser 130 includes a perforated diffuser flange 132, into which a flange magnet 120 is press-fit with its north pole facing the inlet 114.

[0019] The mouthpiece gasket 140 includes a central mouthpiece gasket bore 142 and a mouthpiece gasket V-groove 144 that allow for alignment around the alignment shaft 312 as shown in Figure 12. The mouthpiece gasket 140 also includes a mouthpiece gasket vent 146 to allow vapor to reach the inlet 114.

[0020] Because the ability to remove mouthpiece 110 is important for hygiene, it is desirable for the mouthpiece to be made from a material that is easy to clean. In an embodiment, the diffuser and mouthpiece are magnetically connected to facilitate separation of the elements.

[0021] FIG. 9 shows the mouthpiece 110 assembled with the diffuser 130 recessed within the mouthpiece rim 112.

[0022] Cartridge Unit FIG. 10 shows the vaporization cartridge 210 in the cartridge unit 200, and FIG. 11 shows the vaporization cartridge 210 and screen 220 pre-assembled. The vaporization cartridge 210 includes a vaporization chamber 212 that is perforated from proximal to distal and configured to accommodate the vapor. The thickness, diameter, and chamber size of the vaporization cartridge 210 vary depending on the selected vaporizer. The stainless steel or equivalent mesh gauge of the retaining screen 220 also varies depending on the type of vaporizer being targeted. For example, a typical dry vaporization chamber 212 will hold between 0.1 and 0.5 grams of dry material and will retain that material through the medium-mesh screen 220. Meanwhile, a wet vaporization chamber 212 will hold between 0.01 and 0.25 grams of oily or waxy vapor and will use the fine-mesh screen 220 for wicking.

[0023] Eight vaporization chambers 212 are shown by way of example, but their number, size, and distribution will vary depending on the type of vaporizer, as discussed above. Each vaporization cartridge 210 can be identified by the scale, electronic equipment, and smart base by reading the barcode 214 and / or RF ID chip. Because the vaporization cartridges 210 must be dishwasher or autoclave safe, the barcode 214 must be undamaged by dishwashing or autoclaving. Vaporization cartridges 210 that do not require dishwasher or autoclaving can use RF ID chips and / or barcodes. The vaporization cartridges 210 may be manufactured from metal, ceramic, composite, or other equivalent materials that meet the requirements described herein. It is desirable for the vaporization cartridges 210 to be fully reusable and recyclable, even if damaged. They can be manually refilled using a small funnel or dropper, but may also be provided pre-filled by retailers or by study administrators.

[0024] When used for vaporizing dry goods, the screen 220 is made of fine mesh stainless steel or equivalent material to keep the vapors within the vaporization chamber 212 and isolate them from physical contact with the underlying oven coil 370 (FIG. 13). The fine mesh allows air to pass through the vaporization chamber 212 and deliver the smoke / vapor to the user. When used for vaporizing wet foods, the screen 220 is also made of fine stainless steel mesh screen 220, and a wicking cotton pad is individually placed on top of each oven. The mesh screen 220 and cotton pad (not shown) help to maintain the vapors' position in the vaporization chamber and isolate them from physical contact with the underlying oven coil 370.

[0025] The vaporizer cartridge 210 includes a vaporizer hole 216 with a V-shaped vaporizer groove 218 designed to align with the V-shaped diffuser groove 136 and the diffuser bore 122. The dimensions of the V-shaped diffuser groove 136 and the vaporizer hole 216 are matched with the screen bore 222 and the V-shaped screen groove 224, and are aligned with one another to receive the V-shaped key 314 and the alignment shaft body 312.

[0026] Heating unit As shown in FIG. 12 , the alignment shaft 310 serves to keep the various components of the heating unit 300 aligned and adjacent to one another. The proximal end of the alignment shaft 310 includes a shaft cavity 318 designed to accommodate the locking magnet 306. In this example, the locking magnet 306 is inserted with its positive pole exposed to maintain contact between the flange magnet 120 and the locking magnet 306. If the poles of one magnet are reversed, the poles of the other magnet must also be reversed to prevent the magnets from repelling each other. A V-shaped key 314 runs the entire length of the alignment shaft 310 and is sized to fit within the screen groove 224, vaporization groove 218, diffuser groove 136, and other grooves described below. Similarly, the alignment shaft body 312 is sized to fit within the screen bore 222, vaporization hole 216, and diffuser bore 122. The alignment shaft distal end 316, including the distal V-key 314a, has a reduced diameter to provide more space on the oven control PCB 322 to facilitate connection to the end of the conductive oven post 352. The reduced diameter also provides space for the head of the shaft retaining member 378 to overlap circuit paths on the oven control PCB 322, allowing the alignment shaft 314 to be used as a conductor path back to the oven 388. The distal end 316 is threaded to accept a retaining bolt, screw, or other removable retaining member 378.

[0027] The alignment shaft 310 further includes a locking ring 317 to prevent movement of elements in the heating unit 300, as will be described in more detail below.

[0028] FIG. 13 is an exploded view of the oven unit 300, and FIGS. 14a, 14b, and 14c show an assembly sequence of portions of the heating unit 300. The oven control PCB 322 includes an oven control hole 324 with an oven control V-groove (not shown) to maintain alignment with the remaining components. Within the heating unit 300, individual oven PCB transistors 342 are aligned with venturi cavities 382, ​​which house individual oven coils 370, as described below. This allows electronics 1050 to control the heating of steam by turning specific individual ovens 388 (FIG. 19) on and off via the oven PCB transistors 342. To prevent damage to the oven control PCB 322 components, a connector 340 is positioned proximal to the oven control PCB 322, connecting to an oven post 352. The connector 340 also prevents accidental overheating. A fusible link or similar over-temperature thermal sensor (not shown) is located on oven control PCB 322 to protect the individual elements of heating unit 300. Oven control PCB 322 also includes a Hall effect sensor or similar magnetic flux sensor (not shown) to prevent oven coil 370 from firing without mouthpiece 110 or water filter attachment pipe installed.

[0029] 14a, insulating disk 360 is positioned to receive threaded oven post 352 that passes through insulating disk receiving hole 350. Oven post 352 is secured in place by oven nut 354. Oven nut 354 can be used to allow airflow, thereby keeping insulating disk 360 away from oven control PCB 322.

[0030] Insulation disk hole 356 is designed to accommodate distal end 316 of alignment shaft 310, and V-shaped groove 358 in the insulation disk interacts with V-shaped key 314a to prevent rotation. Oven post 352 is secured to insulation disk 360 by a corresponding oven nut 354, as shown in Figure 14b.

[0031] The insulating disk 360 slides along the reduced diameter section of the alignment shaft 314a and abuts against a shoulder 315 created by the difference in diameter between the alignment shaft tip 316 and the alignment shaft body 312, as shown in FIG. 14a. The shaft retaining member 378 threads into a threaded section (not shown) on the alignment shaft tip 316, pressing the two components together and aligning them. The wide head 320 of the shaft retaining member 378 presses the oven control PCB 322 and insulating disk 360 together, preventing separation or misalignment, as shown in FIG. 14c. A gasket 361 is placed on the insulating disk 360 during assembly to provide additional insulation, isolate airflow and heat from the oven PCB transistors 342, and secure the oven unit 300 to the body 400. The insulating disk 360 may be made of thermoplastic, ceramic, or similar insulating material and may be permanently attached to the oven control PCB 322 with an adhesive appropriate for the material used.

[0032] Because the length of the shaft is a few thousandths of an inch shorter than the combined thickness of the disk and post it is pressed against, the screw carries a small tension force and the shaft carries a small compression force that pinches the disk, maintaining electrical contact between the electrical post attached to the insulating disk 360 and the electrically conductive point on the oven PCB 322.

[0033] During manufacture, oven post proximal end 353 is threaded and dimensioned to accept post screw 362, as shown in the exploded view of Figure 15. Oven coil distal end 372 is looped to catch the end of post screw 362 and prevent oven coil 370 from easily slipping out. Oven coil proximal end 371 is bent at a right angle to allow for electrical current flow, as described below. Figure 16 shows oven coil 370 secured to oven post 352 by post screw 362.

[0034] 17 shows a venturi disk 380, spacing ring 330, and top clamp 385 positioned on top of oven coil 370 and oven post 352. Spacing ring 330 is designed to elevate venturi disk 380 above oven post 352, allowing oven coil 370 to be placed in venturi cavity 382 to form oven 388. Top clamp screws 398 are inserted into top clamp screw holes 387 and venturi screw holes 384 to secure each element together. A crush gasket 390 and O-ring 392 are placed on top clamp 385 and secured thereto.

[0035] As shown in Figures 18 and 19, venturi disk 380 is positioned over oven post 352, and venturi cavity 382 houses oven post 352 and oven coil 370. Venturi cavity 382 is designed to receive oven post 352 without friction or excessive movement and to provide sufficient clearance for air to enter venturi cavity 382. The spacing between oven post 352 and venturi cavity 382 prevents contact between both oven post 352 and oven coil 370. The proximal end 371 of the oven coil is bent to contact the top of venturi disk 380 and is secured to venturi disk 380 by top clamp 385, which is secured by top clamp screw 398. This clamp ensures a complete electrical path by ensuring electrical connection from each top of the oven coil 370 through the top clamp 385, into the alignment shaft 310, and back to the oven control PCB 322. This creates a parallel arrangement of ovens 388, one node per oven 388. The venturi disk 380, as described with other elements, has a venturi center hole 381 that fits over the alignment shaft 310. It has four venturi screw holes 384 that are adapted to receive top clamp screws 398. When assembled, the top clamp 385 is placed over the venturi disk 380 and secured in place by the top clamp screws 398. As with the previous elements, the clamp center hole 386 forces alignment between the top clamp vent hole 389 and the venturi vent hole 382.

[0036] Top clamp 385 is covered with a grooved crush gasket 390 with a heat-resistant sealant. The design of the crush gasket's central hole 391 forces the alignment of the crush gasket's vent holes 394. O-ring 392 is placed over groove 393 in crush gasket 390 and secured in place. O-ring 392 must be held adjacent to crush gasket 390 when pressed down by mouthpiece 100 without being held in place by vaporizer cartridge 210. The height provided by O-ring 392 also provides clearance between oven unit 300 and the sides of body 410, allowing air to flow and penetrate gaps in the insulation.

[0037] 19 and 20 show an assembled oven unit 300 with the oven coil 370 visible in the venturi vent 382, ​​top clamp vent 388, and crush gasket vent 394. FIG.

[0038] assembly To assemble the heating unit 300, the proximal element of the vaporization cartridge 210 must be attached before the distal element. The proximal element is slid onto the alignment shaft 310 and abuts against the locking ring 317, while the distal element is slid onto the reduced diameter section 316 and abuts against the shoulder 315 of the alignment shaft.

[0039] However, it is useful to have the distal elements assembled and ready to slide onto the reduced diameter section 316 of the alignment shaft 310. The oven post 352 is inserted into the insulating disk post receiving hole and secured with the oven nut 354. The retaining member 320 is inserted into the oven control hole 324 of the oven control PCB 322, and the remaining distal elements may be placed inserted into the retaining member 320 / 378, pending the proximal elements for final assembly. The insulating disk hole and oven control hole 324 are pressed against the shoulder 315 of the alignment shaft 310.

[0040] Top clamp 385 is secured to venturi disc 380 by top clamp screws 398 before the elements are attached to alignment shaft 310. As manufactured, venturi disc 380 is provided with threaded holes 384 that, in conjunction with top clamp screw holes 387, keep venturi cavity 382 and top clamp vent 389 perfectly aligned. Alternatively, alignment shaft 310 may be inserted and top clamp 385 and venturi disc 380 secured together, ensuring alignment. Other methods of securing the two elements are possible and will be known to those skilled in the art.

[0041] The first component inserted into the alignment shaft 310 is the crush gasket 390, which is held in a proximal position by the retaining ring 317. The top clamp 385 and venturi disk 380 are inserted immediately after the crush gasket. Once these components are installed on the alignment shaft 310, the spacer ring 330 is placed onto the alignment shaft 310. The dimensions of the spacer ring 330 must be such that its inner diameter and V-groove fit onto the alignment shaft, but its outer diameter does not obstruct the venturi cavity 382. The alignment shaft 310 maintains airflow through all components. The height of the spacer ring 330 is critical because it serves two purposes: first, it ensures sufficient airflow space, and second, it allows the oven coil 370 to be placed into the venturi cavity 382. Thus, the height of the spacer ring 330 is the same as the height of the oven post 352 and the head of the post screw 362 , positioning the heater coil 370 in the venturi cavity 382 .

[0042] After the proximal element is assembled to the alignment shaft 310, the distal element is assembled to the bottom of the shaft as described above. An O-ring gasket 361 is installed on the insulating disk before the distal element is attached to the alignment shaft 310. The distal element is slid onto the reduced diameter section 316 of the alignment shaft 310, and the alignment shaft mounting screw 378 is threaded into the threaded hole in the reduced diameter section 316 of the alignment shaft 310. The additional wide head of the retaining member acts as a flange to secure the assembled parts against the shoulder 315.

[0043] The length of reduced diameter section 316 of alignment shaft 310 is a few thousandths of an inch shorter than the combined thickness of oven control PCB 322, oven nut, insulating disk 360, and oven post 352. Retaining member 320 maintains a small tension, while reduced diameter section 316 of alignment shaft 310 maintains a small compression force. This compression force clamps the disks together, maintaining electrical contact between oven post 352, attached to insulating disk 360, and the electrical conduction points of oven transistor 342.

[0044] Electronic Unit As shown in FIG. 20 , the electronics unit 500 is comprised of an electronics PCB 510 that interacts with the electronics equipment 1050, an oven PCB 322 that controls the coils of the oven 370, and a smart base accessory 1200 ( FIG. 25 ). The interactions between the individual elements of the vaporizer system 1000 are described below. The electronics PCB 510 is mounted to a U-shaped base 511 for housing a rechargeable battery 512. The electronics PCB 510 and the attached battery 512 are sized to fit within the body 410 adjacent to the heating unit 300. The U-shaped base 511 includes a base screw hole for housing an end cap screw 526. The end cap 520 includes an end cap screw hole 522 for housing the end screw 526. Once the board 510 is inserted into the main body 410, the end caps 520 are placed in place and the end cap screws 526 are tightened into the end cap screw holes 522, encasing the electronic unit 500 and the heating unit 300 within the main body 410. Also shown in this figure is an on / off button 412.

[0045] 20, the heating unit is held in the body 410 by a set screw 528 threaded into the threaded hole 416. The vaporizer 1010 can be easily disassembled to allow for repair or replacement of parts. In this way, the vaporizer and other components are environmentally friendly by minimizing waste.

[0046] Bass Accessories 21, 22, and 23, a weighted base 600 is provided that allows the user to stand the vaporizer 400 upright without touching it. Most commonly, the weighted base 600 is used in conjunction with a water filter accessory 1030. To accommodate the water filter accessory 1030, the mouthpiece unit 100 is removed.

[0047] Figure 22 shows the water filter accessory 1030 latched to the vaporizer body 400 and installed on a weighted base 600 for added stability, replacing the cone tip mouthpiece 100. Figure 23 is an exploded view of the water filter accessory 1030, vaporizer body 400, and weighted base 600, showing the placement of the vaporizer cartridge 210. The weighted base 600 consists of a body 620 with a retaining magnet 610 for added stability.

[0048] FIG. 24 is an exploded view showing the riser pipe mouthpiece 1032, where the bubbler pipe 1034 and waterproof base 1036 are sealed together to form a watertight area through which vapor must bubble and pass via the bubbler pipe 1034. The riser pipe mouthpiece 1032 is manufactured from tempered borosilicate glass tubing or an equivalent material and has etched or painted lines that allow the correct water level to be seen, allowing for bubbles to form in the water, as well as preventing water from accidentally flowing back into the vaporizer 1010.

[0049] The bubbler tube 1034 is a hollow tube formed into a U-shape and is press-fit and sealed into the waterproof base 1036, allowing vapor to pass through from below. The bubbler tube 1034 extends upward from the waterproof base 1036, passes through the waterproof base, and continues above the water line. The bubbler tube 1034 makes a 180-degree radius turn to fit within the riser tube mouthpiece 1032, then returns below the water line and terminates at an open end.

[0050] The waterproof base 1036 is provided with a hole to accommodate the press-fit bubbler pipe 1034 and is sized to fit and seal inside the riser pipe 1032. The distal, or dry, side of the waterproof base 1036 is provided with a cavity to accommodate a press-fit magnet 1038 that provides magnetic latching for the vaporizer 1010. The water filter body 1040 is sized to accommodate the riser pipe mouthpiece 1032 at its proximal end and a water filter gasket 1042 at its distal end, attached to both elements by a sealant. The water filter body 1040 provides a negative space where the hot and cold airflows within the oven can mix and diffuse.

[0051] Figure 27 shows the smart base accessory 1200 assembled for use in combination with the vaporizer body 400 and the water filter accessory 1030. The smart base 1200 connects to and interacts with the vaporizer's main electronics PCB 510 and provides an additional user interface with a screen / dial / button combination control mechanism 1202. Figure 28 shows an exploded view of the smart base accessory 1200 used in combination with the vaporizer body 400, the water filter accessory 1030, and the vaporization cartridge 200.

[0052] FIG. 29 shows an exploded view of the smart base accessory 1200. The control mechanism 1202 is used to navigate and select menus, display dosage data, adjust device settings, and display still or video images for notifications and general entertainment. While a dial knob is shown as an example in FIG. 29, any suitable mechanism, such as buttons or a touchscreen, could be used. Screws 1206 secure the control mechanism 1202 to the support 1204 of the main body 1220. A rechargeable battery 1230 is held in a U-shaped fixture and connects to the smart base PCB 1240, providing an independent power source for the unit. The smart base PCB 1240 provides power management and charging for the battery 1230 via a USB charging port accessible through a small hole in the smart base main body 1220. The smart base PCB 1240 connects to the vaporizer electronics PCB 510 via a USB port or wireless signal. The smart base PCB 1240 is attached to the base plate 1250 and the main body 1220 with two screws 1260. The screws 1260 penetrate through the base plate 1250, the smart base PCB 1240, and the main body 1220 and are fixed.

[0053] Docking Station 25 shows the vaporizer body 400 positioned in the recharging station 802 of the docking station 800 and the cartridge unit 200 positioned in the metering station 840. As shown in this figure, the mouthpiece unit 100 has been removed to expose the heating unit 300. In FIG. 26, the vaporizer body 400 unit has been removed to clearly show the entrance to the recharging station 802. Additionally, the cartridge unit 200 has been removed to show the metering station 840.

[0054] 27 is an exploded view showing example components of the docking station 800. A cartridge receiver 842 is designed to fit into the weigh station 840 and houses a scale 820 supported on the end of a deflection arm 844 having a contact portion 846. The cartridge receiver 842 has a raised flange 848 designed to accommodate the vaporization holes 216 and the screen holes 222 to prevent lateral movement during weighing. A scale PCB plate 850 is connected to the scale 820 via the contact portion 846. The scale bottom plate 860 and the scale PCB plate 850 both include scale receiving holes 862 and 856 designed to accept a scale retention screw 866. The screw 866 fits into a reciprocating screw hole (not shown) in the weigh station 840 to secure the unit.

[0055] The weighing station 840 is designed to measure out dosages with milligram accuracy. The measured mass is sent to electronic equipment for analysis and calculations, allowing the amount and type of vapor to be monitored. As with any equipment that generates heat, all elements must be insulated both internally and externally.

[0056] Computer Applications and Electronic Equipment The vaporizer 1010 and docking station 800 of the disclosed vaporizer system 1000 communicate with an electronic device 1050 programmed with an application that allows a user to communicate with the vaporizer and manage their vaporizer use. The electronic unit 500 and docking station 800 within the vaporizer 1010's main body 400 communicate with the application on the electronic device 1050. The electronic unit 500 and docking station 800 can use any communication method known in the art, including Bluetooth wireless connectivity. Using this application, users can control and track various vaporizer characteristics, such as the volume, composition, purpose, and characteristic effect of the selected vaporizer, as well as manage inhalation frequency and duration of vaporization sessions and monitor results to help calculate and optimize future vaporizer dosages. As the use of vaporizers, such as cannabis, becomes more popular and accepted for both recreational and medicinal purposes aimed at alleviating physical and mental ailments, the ability to control usage, dosage, and effects is becoming increasingly important. This application allows users to learn how to ingest vapors using a vaporizer in a knowledgeable and responsible manner. Additionally, the application can act as a mind-body agent guide, allowing users to explore various ingestion methods, such as edibles, tinctures, infusions, topicals, sublinguals, suppositories, and vaginal administration, in a knowledgeable, responsible, and personal, informed way.

[0057] FIG. 38 is a flowchart 900 illustrating a computer application that performs basic tasks for the vaporizer system 1000. When the application is launched on the electronic device 1050, the user can enter the application through a secure login screen 910. Successful login takes the user to a home screen 920, which displays options such as searching the vaporizer database, creating a new session, and revisiting saved sessions. These options allow the user to explore information about unknown vaporizers, record new experiences with unfamiliar vaporizers, or revisit previously used vaporizers. As shown in FIGS. 30a and 30b and described in more detail below, additional communication options may be available for sharing information with healthcare providers and other stakeholders. Such communication can facilitate receiving care instructions and dosage suggestions, as well as sharing results, recommendations, experiences, and side effects. Additionally, as shown in Figures 31a and 31b, an ingestion method option is provided, which may display various ingestion methods for psychoactive and somatic substances (e.g., vaporization, edibles, tinctures, infusions, topical, sublingual, suppositories, vaginal, etc.). For ingestion methods other than vaporization, the application prompts the user for product information and accesses a variety database to allow the user to select the same options as for vaporization. Other useful options known to those skilled in the art may also be displayed on the home screen.

[0058] Once a user selects the database 930, a list of vaporizers is displayed that can be browsed and searched (932) or filtered (934). The vaporizer list includes a brief overview of each vaporizer (e.g., name, characteristics, and composition). As shown in Figure 32, the variety list displays the product name, variety, THC and CBD composition, and general effects on the user. By selecting a specific vaporizer, the user can access a more detailed description of that vaporizer 933. For example, as shown in Figure 33, if a user selects Acapulco Gold from the vaporizer list, the application will display detailed information about the variety, including physical characteristics, source information, potency, general uses, and mental and physical effects. The database can be stored remotely or locally on the application. Details for each vaporizer are initially entered into the application based on the vaporizer's general effects, general uses, and known facts. As the user browses each vaporizer and records their experience, the display updates to display detailed information personalized to the specific user. If the user chooses to use a displayed vaporizer, they can select the "Create a Session" option from the display page (935). If the user decides not to use the displayed vaporizer, they can return to the vaporizer list and resume browsing 937.

[0059] The vaporizer list can be filtered using filter options 934. When a user selects a filter option, the application will display a list of filter options 936. For example, as shown in FIG. 34, a cannabis variety database can be filtered by name, the sensation provided to the user, the variety's general use, and THC / CBD composition. As noted above, the sensation provided to the user and general use are initially general effects and uses, but become personalized after updates by the user. Once the vaporizer list is filtered based on the user's selection, the application will display a narrowed list for the user to browse 938. As noted above, the user can select a specific vaporizer for more information 933 and decide whether to create a new session 935 using that vaporizer or return to the vaporizer list to resume browsing 937.

[0060] As noted above, a new session can be initiated from the vaporizer database or selected from the home screen. With either option, when new session 940 is selected, the application opens screen 942 for creating a new session. The date and time are captured each time a new session is created. For example, as shown in FIG. 35, the new cannabis session screen displays the variety name, the initial weight of the product to be used, and the variety's intended use. Additionally, the new session screen may include other features, such as, but not limited to, duration preference, puff volume preference, and dosage preference. Duration preference would include the user's desired session time limit, for example, if the user only wants the session to last 30 minutes. Puff volume preference would include the user's desired maximum number of puffs during a session, for example, if the user knows that five puffs of a particular vaporizer provides optimal results. Dosage preference would include the number of puffs per time limit, for example, if a doctor prescribes one puff per hour for pain relief. All information entered into a new session can come from initial database information, user input, communication from the vaporizer and scale, or a combination of these. New sessions can be created for vaporizers contained in the database or for vaporizers known only to the user. Users can also change the official name of a vaporizer registered in the database to a more generic name or nickname known to the user. Additionally, applications with communication options allow a medical provider to enter information to create a session.

[0061] Once a new session 942 is created, the user can select the start option to begin session 944. Before beginning a session, the user must prepare the vaporizer by inserting a measured amount of vapor and powering it on. If a built-in scale is used, the weight of the vapor for a particular session is measured by the scale and sent to the application. The vaporizer can be powered on manually, or the application can communicate with the vaporizer to power it on at the beginning of a session. Once the vaporizer is powered on and a session is initiated, the application synchronizes with the vaporizer and scale (if applicable) (946). During synchronization, the session limits are sent to the vaporizer, and information collected by the scale station is sent to the application. Additionally, the application displays a start session screen 948 to retrieve information sent from the vaporizer 1010 or scale station 1020; an example of this is shown in FIG. 36. The start session screen allows the user to record the mental and physical effects experienced during the session. The session start screen may also include a timer and notifications received from the vaporizer based on configured user preferences. For example, the application may indicate when the draw preference is met or provide a warning 941 when the next draw needs to be taken to meet the recommended amount. The new session 943 ends when the user selects a stop option on the screen. Alternatively, the session may be terminated by the application based on the session preferences and notifications received from the vaporizer. When a session 945 is stopped, all information captured during the session is saved. The final weight of the vapor is determined, and the amount of vapor used in the session is calculated and saved in the session information. Information recorded by the user during the session is saved to a vapor database so that the database can be updated with personal vapor details.Additionally, sessions are stored in the application, allowing you to review, revisit, recreate, or refresh sessions in the future.

[0062] Saved sessions allow users to organize and optimize their vaporizer experience. Sessions tailored to specific ailments, moods, etc. can be easily found and recreated, allowing users to care for themselves knowledgeably and responsibly. Once a session is saved, all recorded information from that session becomes part of the vaporizer database. Users can then easily select the right vaporizer for their condition by filtering the database. For example, users can filter by the specific effect they want to achieve, the ailment they want to treat, or the ingredients that are best suited to them. The more sessions recorded, the more personalized the application becomes for the user.

[0063] Selecting a saved session 950 from the home screen causes the application to display a list 952 of vaporizers previously used by the user. As shown illustratively in Figure 37, the saved cannabis session display screen includes the vaporizer name and optional supporting text that the user can enter. Similar to the database list above, the user can select a specific vaporizer 953 to view its detailed information and decide whether to start a session using that vaporizer or return to the saved vaporizer list to resume browsing. Furthermore, selecting a vaporizer from the previously used vaporizer list causes the application to display a list 954 of sessions in which that vaporizer was used. The procedure for starting a session from a saved vaporizer is the same as starting a new session 940 described above. The user can choose to revisit a saved session or change settings for a different experience. Revisiting a saved vaporizer creates a new session capturing the date, time, updates, and new preferences and stores it in the session database. Therefore, it is possible to save multiple sessions for a specific vaporizer, each varying by date, time, and session preferences. Users can compare and evaluate these individual sessions for similar vaporizers.

[0064] If an application includes a communications option, the communications option can be selected from the home screen 925, as shown in FIGS. 30a and 30b. Using the communications option, users can communicate with healthcare providers and other stakeholders. The communications option allows users to send and receive messages 1520, as well as share saved sessions 1532 and received session recommendations 1533. For example, if working with a healthcare provider to treat pain, a user can send a saved session to the healthcare provider for review. If the healthcare provider has recommendations for vaporizers or dosage changes, the healthcare provider can create a recommended session. Once a recommended session is received, the user can approve the session and create a new session following the process described above. Additionally, outside of the healthcare field, sessions can be shared with third parties who may be interested in users' experiences with specific vaporizers. The communications option may also include a linking feature to connect with other application users 1510. Links can be created by browsing or filtering based on identifiers such as name, vaporizer used, expected effect, or reason for use. Once the link is established, the session can be shared between the participants.

[0065] operation Prior to a vaporization session, the vaporization cartridge is weighed at a weighing station or the cartridge's barcode is scanned to determine the initial weight. Once the cartridge is inserted into the vaporizer, the vaporizer is powered on and the electronics unit 500 processes any input sent from a computer application or docking station. Once the input is processed, the electronics unit communicates with the oven control PCB 322 to direct the heater unit to heat to the appropriate temperature for the selected vaporizer. As the vaporizer is heated in the cartridge unit, the generated vapor travels through a vent in the vaporizer to the mouthpiece unit. Once the vaporization session is completed and the vaporizer is returned to the docking station, the vaporization cartridge is weighed to determine the final weight and send that information to the computer application.

[0066] As the user draws on the mouthpiece, the vaporizer monitors each puff and collects information via a microprocessor in the electronic unit. The relevant information collected by the vaporizer, such as the number of puffs taken and the duration of the vaporization session, is transmitted from the electronic unit to a computer application via wireless communication means such as Bluetooth.

[0067] overview The vaporization system in the patent application features synchronous interaction between the disclosed dedicated vaporizer and an associated application. Setting up a user profile is a critical first step for the application. Information such as height, weight, and medical conditions allows the application to determine dosage recommendations for the user.

[0068] When the vaporizer is activated, the user inserts a cartridge filled with the selected vaporizer. The user then inputs specific details about the vaporizer, including known information, into the application. In this example, cannabis is used. The specific details include the type and percentage of terpenes, the phytocannabinoid content (e.g., THC / CBD / CBDA), and the variety name, creating a comprehensive variety profile. While cannabis is used as an example here, its use is not limited to cannabis and, as noted above, includes various other vaporizers.

[0069] An integral part of the system, the application guides users through a structured and informed session. Users are asked to specify the purpose of the session, distinguishing between medical and recreational purposes such as chronic pain, insomnia, anxiety and stress, and the application will suggest the optimal dosage, down to milligrams, based on the user's profile information. Throughout the session, the application will record key details such as timestamps, dates, dosages and intervals between doses, creating a detailed record of consumption habits.

[0070] Additionally, the application actively engages users by displaying prompts periodically throughout the session, providing qualitative insights that can contribute to determining the session's effectiveness, and helping users recognize effects such as creativity, energy, sleepiness, and hunger. After a session, placing the vaporizer back on the charger initiates a weight-sensing process to accurately measure the amount of vaping remaining in the cartridge. This system provides a comprehensive view of the terpene and phytocannabinoid content consumed.

[0071] Of particular note is the application's post-session analysis feature, which provides users with summaries and recommendations to facilitate informed decision-making for future sessions. The application fosters a qualitative user experience and helps identify potential side effects such as dry mouth, paranoia, and forgetfulness. This analytical feedback loop allows users to optimize dosage based on the subtle interplay of terpenes and phytocannabinoids, resulting in a truly personal and efficient cannabis experience that evolves over time to suit the user's preferences and needs.

[0072] The disclosed versatile system can accommodate a variety of cannabis ingestion methods beyond vaporization, including edibles, tinctures, infusions, topicals, sublingual, suppositories, vaginal administration, etc. Users seamlessly navigate the application to select their preferred ingestion method and are presented with an easy-to-use interface that mirrors the vaporization process.

[0073] For example, when selecting a cannabis edible, users create a personal profile in the application by entering details such as the type of cannabis edible, the phytocannabinoid content and type, and the desired effects. The application then guides the user through an ingestion session, prompting them to identify their goals and recommended dosage, and recording key metrics such as ingestion time and intervals. Post-ingestion analysis provides users with comprehensive insights to better understand their cannabis experience across various ingestion methods. This unified approach ensures consistency in data collection and analysis, facilitating a comprehensive and personalized user experience regardless of the chosen cannabis ingestion method.

[0074] Mechanical Functions setting After the setting and dose are selected through the paired application, the selected fresh bowl cartridge is identified by barcode or RFID, weighed by a scale, and the data is sent to the electronics for later use. This cartridge is attached to the vaporizer alignment shaft.

[0075] TIP or Water Filter Accessories The user can latch on either the mouthpiece or the water filter accessory, both of which magnetically latch onto the rest of the unit, continuing the air path from the oven to the user's mouth.

[0076] The water filter accessory can be attached to the bottom of the unit with a latching magnetic stable base to ensure stability during installation, and the water pipe accessory can be filled with water or crushed ice to the appropriate height to enhance the cooling effect of diffused vapor.

[0077] Smart Base Accessories Users can attach the Smart Base to the bottom of the main unit to increase stability and use standalone control devices and options through the operation of the rotary button / display. The Smart Base provides simplified control and information compared to electronic device applications. The Smart Base is equipped with its own battery and does not consume power from the vaporizer's battery.

[0078] use The user begins a session by pressing a button on the side of the vaporizer unit. When the user presses the button and inhales through the device, the vaporizer energizes one oven coil while keeping the remaining oven coils off. Air begins to flow into the device to fill the partial vacuum created by the user. Air enters the device through a small ring-shaped groove around the groove in the crush gasket. This air continues to flow downward into the gap between the oven unit and the main body. Because the oven unit is sealed to the wall by the O-ring / gasket on the insulating disk, this air charge cannot move further downward and cannot enter from below. The charged air must make a 90-degree turn to enter the area around the post and insulating disk. The air must then make another 90-degree turn and travel upward through the hole in the upper Venturi disk. The charged air enters the hole and hits the oven coil. At this limit, air velocity increases as air pressure decreases, expanding the flow boundary layer at the borehole edge and reducing heat transfer to the surrounding oven coil. A single active oven coil heats the air charge to a predetermined, optimized temperature as it passes through all bores simultaneously. Air passes through the cartridge screen and into the cartridge bores containing the vapor. The active oven bore heats and vaporizes the cartridge bore above or adjacent to it. The hot airflow containing the desired vapor recombines with the cooler airflow passing through the other inactive ovens. The diffused air continues upward through either the tip of the cone or a water filter accessory to the user's mouth. For the next dose, another oven ignites, and this process is repeated in a star pattern to minimize unwanted heat flux between the bores.

[0079] It should be noted that each dose is achieved by completely heating the entire contents of one borehole, providing a reproducible and consistent dose from puff to puff and therefore session to session, as opposed to other vaporizers where the vapor is contained in one large bore and one large oven, which is heated multiple times in succession, resulting in an unpredictable logarithmic decay in the concentration of the vapor produced, and therefore not a mechanism that provides an accurate metered dose or session.

[0080] Measurement and effect report At the end of the session, the used bowl cartridge is placed back on the scale and re-identified and weighed by the smart scale. The data is sent to the smart equipment, and the program calculates the difference in mass between the unused cartridge at the time of weighing and the used cartridge at the time of weighing, calculating the dose that was vaporized and entered the user's lungs.

[0081] Also, at this point and / or at another time shortly after administration when the dose has fully taken effect, the program prompts the user to provide qualitative feedback regarding the dose.

[0082] suggestion After accumulating sufficient data on the quality of several doses and effects, the electronic device's program can help optimize the user's desired experience by suggesting dosage / speed, time of day / night for administration, and highlighting other varieties / vaporization products that may produce the desired effect. [Explanation of symbols]

[0083] Parts List 100 mouthpiece unit, 110 mouthpiece, 112 mouthpiece rim, 114 inlet, 120 flange magnet, 122 diffuser bore, 130 diffuser, 132 diffuser flange, 134 vent, 136 V-shaped diffuser groove, 140 mouthpiece gasket, 142 mouthpiece gasket bore, 144 mouthpiece gasket V-shaped groove, 146 mouthpiece gasket vent, 200 cartridge unit, 210 vaporizer cartridge, 212 vaporizer chamber, 214 barcode, 216 vaporizer hole, 218 vaporizer groove, 22 0 screen, 222 screen bore, 224 screen groove, 300 heating unit, 306 locking magnet, 310 alignment shaft, 312 alignment shaft body, 314 V-shaped key, 314a distal end key, 315 shoulder, 316 alignment shaft distal end, 317 fixing ring, 318 shaft cavity, 320 retaining member, 322 oven control PCB, 324 oven control hole, 326 oven control V-groove, 330 spacing ring, 340 connector (oven PCB to oven poster), 342 oven PCB transistor, 350 insulating disk receiving hole, 352 oven post, 353 oven poster proximal end, 354 oven nut, 356 insulating disk bore, 358 disk groove, 360 insulating disk, 361 gasket, 362 poster screw, 370 oven coil, 371 oven coil proximal end, 372 oven coil distal end, 378 shaft retaining member, 380 venturi disk, 381 venturi central hole, 382 venturi cavity, 384 venturi screw hole, 385 top clamp, 386 top clamp bore, 387 top clamp screw hole, 388 oven, 389 top clamp Top vent, 390 Crush gasket, 391 Crush gasket bore, 392 O-ring, 393 Gasket groove, 394 Crush gasket vent, 398 Top clamp screw, 400 Main unit, 410 Main unit, 412 On-off button, 416 Main unit screw hole, 500 Electronic unit, 510 Electronic PCB, 511 U-shaped base, 512 Battery, 520 End cap, 522 End cap screw hole, 526 End cap screw, 528 Main unit screw, 600 Weighted base, 610 Weighted base holding magnet, 620 Weighted base main unit, 800 Docking station,802 Charging Station, 840 Weighing Station, 842 Cartridge Receiver, 844 Deflection Arm, 846 Contact, 848 Raised Flange, 850 Scale PCB Plate, 852 Scale PCB, 856 Scale PCB Receiving Hole, 860 Scale Bottom Plate, 862 Scale Plate Receiving Hole, 866 Scale Plate Retaining Screw, 900-999 Computer Application Flowchart, 1000 Vaporizer System, 1010 Vaporizer, 1030 Water Filter Accessory Sari, 1032 riser pipe mouthpiece, 1034 bubbler pipe, 1036 waterproof base, 1038 press-fit magnet, 1040 water filter body, 1042 water filter gasket, 1050 electronic equipment, 1200 smart base, 1202 control mechanism, 1204 control support, 1206 control screw, 1220 smart base body, 1230 smart base battery, 1240 smart base PCB, 1250 smart base plate, 1260 smart base plate screw.

Claims

1. 1. A vaporizer system using a portable vaporizer communicatively connected to an electronic user device to manage vapor usage and dosage, the portable vaporizer comprising: a body unit having a proximal end and a distal end; a mouthpiece unit removably attached to the proximal end of the body; a cartridge unit removably attached to the proximal end of the body, the cartridge unit including at least one chamber configured to hold at least one vapor; a heating unit removably housed within the body, the heating unit including at least one oven for heating the steam; an electronics unit removably housed within the body, the electronics unit including at least one microprocessor configured to communicate with at least the electronic user device and the heating unit and to execute program instructions for controlling the vaporizer; at least one printed circuit board connecting the electronic unit and the electronic elements of the heating unit; each of the at least one oven is controlled by program instructions executed by the at least one microprocessor; The electronic user device comprises at least one processor that executes an interactive computer application, the computer application comprising: creating a vaporization session for a vapor having known characteristics based on user input; communicating program instructions for a vaporization session, including user-defined parameters for controlling a vaporizer and pre-programmed vapor parameters, to at least the microprocessor of the electronics unit based on the characteristics of the selected vapor; obtaining and storing vaporization session information from feedback input from a user and vaporizer data communicated by at least an electronic unit of the vaporizer; analyzing the vaporization session information and providing analytical feedback to the user; maintaining a database updated with ongoing captured vaporization session information populated with vapor characteristics; configured to: A vaporizer system in which the obtained vaporization session information and analytical feedback to the user optimizes vapor dosage control, facilitating informed decisions and personalized experiences for future vaporization sessions.

2. and a base unit communicatively connected to the vaporizer and the electronic user device, the base unit comprising: a charging station with a vaporizer receiving port; a cartridge station having a cartridge unit receiving port; a scale in communication with at least the cartridge station configured to record pre-use and post-use weights of the selected vaporizer to determine the amount used; a rechargeable battery for powering the vaporizer receiving port and the scale; The vaporizer system of claim 1 .

3. 3. The vaporizer system of claim 2, wherein the usage is vaporizer data communicated from the base unit to a computer application on the electronic user device.

4. The vaporizer system of claim 2, wherein the cartridge station is configured to read identification information from a labeled cartridge unit and transmit that information to an electronic unit of the vaporizer and a computer application in an electronic user device to create a vaporization session.

5. 10. The vaporization system of claim 1, wherein the vaporization characteristics include at least one of the group consisting of a type of vaporization, a source of vaporization, a place of origin of vaporization, a strength of vaporization, a psychological effect of vaporization, a physical effect of vaporization, a duration of vaporization effect, a recommended dosage, and a use of vaporization.

6. 10. The vaporizer system of claim 1, wherein the program instructions include at least one of the group including session duration, session start time, session end time, vapor volume, combustion temperature, puff interval, and number of inhalations.

7. 10. The vaporizer system of claim 1, wherein the computer application is further configured to communicate with at least one third party to share the captured vaporization session information and analytical feedback.

8. 2. The vaporization system of claim 1, wherein each of the at least one chamber is aligned with each of the at least one oven to combust vapor associated with the at least one oven to generate vapor and allow the vapor to enter the mouthpiece unit during inhalation.

9. 2. The vaporization system of claim 1, wherein the cartridge unit and the heating unit are maintained in alignment by an alignment shaft having a V-shaped key that interacts with a central hole having a V-shaped groove in the cartridge unit and the heating unit.

10. 10. The vaporization system of claim 9, wherein the alignment shaft has at least one length section of reduced diameter designed to accommodate a heating element.

11. When a computer application runs, it: receiving initial input from a user; creating a vaporization session for a particular vaporizer based on the user's preferences from the input; and initiating a vaporization session in response to user initiation; Sending program instructions for a vaporization session to a microprocessor of the electronic unit to synchronize the vaporization session with a vaporizer and control the vaporizer to perform the vaporization session; receiving feedback input from a user to obtain session information regarding the vaporization session performed; receiving vaporizer data from at least an electronic unit of the vaporizer to obtain session information regarding a performed vaporization session; stopping the vaporization session in response to receiving a stop command; storing the acquired session information in a saved session list; Analyzing the obtained session information to provide analytical feedback to the user; Accessing and updating a running database, and 10. The vaporizer system of claim 1, wherein the running database is searchable to select a vapor for a new vaporization session, and the saved session list is searchable to select a new vaporization session.

12. A portable vaporizer that dispenses heated vapor under microprocessor control, a body unit (400) configured to house a removable heating unit (300), a removable electronics unit (500), a removable mouthpiece unit (100), and a removable cartridge unit (200); a removable alignment shaft (310); The removable mouthpiece unit (100), The removable vaporization cartridge unit (200); The removable heating unit (300); The removable electronics unit (500); Equipped with However, the main unit is a hollow body (410) having an open distal end and an open proximal end; an on / off button (412) connected to the electronics unit (500); a fastening area (416) designed to accommodate a fastening mechanism (528) arranged to hold the electronics unit (500) within the hollow body (410); Equipped with The removable alignment shaft (310) a shaft body (312) having different diameters, a proximal portion having a first diameter and a distal portion (316) having a second diameter; a V-shaped key (314) extending the length of the proximal portion of the shaft body (312); a locking ring (317) disposed on the proximal portion of the shaft body (312) and having a third diameter; a V-shaped key (314) extending the length of the distal portion (316) of the shaft body; a shaft cavity (318) at the proximal end of the alignment shaft (310) designed to accommodate a locking magnet (306); a removable retention member (378) configured to be attached to the distal portion (316) of the shaft body; Equipped with The difference between the proximal and distal portions (316) of the shaft body (312) forms a shoulder (315); The alignment shaft aligns the cartridge unit with the heating unit to form a conductive path through the heating unit 300; The removable mouthpiece unit (100) comprises: a mouthpiece (110) having an inlet (114); a mouthpiece rim (112) designed to interact with the proximal end of the hollow body (410) and direct airflow within the body unit (400); a diffuser (130) having a V-shaped groove (136) and a plurality of vent holes (134) within the diffuser bore (122), the diffuser (130) being designed to be received within the mouthpiece rim (112); a mouthpiece gasket (140) having a V-shaped groove (144) and a plurality of gasket vents (146); Equipped with the V-shaped groove (136) of the diffuser bore (122) and the V-shaped groove (144) of the gasket bore (142) are maintained in alignment by the alignment shaft (310), thereby aligning the plurality of vent holes (134) of the diffuser (130) with the plurality of gasket vent holes (146) of the mouthpiece gasket (140); The removable vaporization cartridge unit (200) comprises: a vaporization cartridge (210) including at least one chamber (212) configured to hold a vapor; a carburetor bore (216) having a V-shaped groove (218) designed to accommodate a V-shaped key (314); a screen (220) having a screen hole (222) with a V-shaped groove (224) designed to accommodate a V-shaped key (314); Equipped with The screen (220) is positioned adjacent to the vaporization cartridge (210) to maintain vapor in each of the at least one chambers (212) and allow air to flow to the inlet (114), and the screen (220) and the vaporization cartridge (210) are maintained in an aligned state by the alignment shaft (310); The vaporization cartridge unit (200) is abutted against the proximal side of the fixing ring (317), The removable heating unit (300) comprises: an oven control disk (322) having a printed circuit board; an oven control hole (324) in the oven control disk (322), the oven control hole having an oven control V-groove (326) designed to receive the V-key (314) of the alignment shaft; at least one oven transistor (342) on the distal side of the oven control disc (322) corresponding to one of the at least one connectors (340) on the proximal side of the oven control disc (322); an insulating disk (360) proximally adjacent to the oven control disk and adapted to receive at least one oven post (352) corresponding to each of the at least one connector (340); at least one oven coil (370) attached to each of the at least one oven post (352); Venturi heating discs (380) each having at least one venturi cavity (382) for receiving one of the at least one oven post (352) and the corresponding at least one oven coil (370) to form a corresponding at least one oven (388); Equipped with each of said at least one oven (388) being individually controlled by program instructions executed by at least one microprocessor of said electronic unit (500); execution of program instructions controlling the at least one oven is maintained by electrical contact between each of the at least one oven post and the oven control disk (322); each of the at least one venturi cavity (382) is maintained in alignment with a respective one of the at least one oven transistors (342) of the oven control disk (322) by a V-shaped key (314) of the alignment shaft; the insulating disk (360) and the oven control disk (322) abut against a shoulder (315) of the alignment shaft and are held against the shoulder (315) by a holding element (378); The removable electronic unit (500) comprises: a base (511) with fastening means (526) arranged to receive end cap screws (526); a rechargeable battery (512) adjacent to the base (511) and electrically connected to at least one heating unit; a printed circuit board (510) including at least one microprocessor configured to communicate with at least the electronic user device and the heating unit and to execute program instructions for controlling the vaporizer; an end cap (520) designed to be received within the distal end of the hollow body (410) so as to be secured to a securing means (526) within the base (511) by having an end cap screw hole (522) designed to receive an end cap screw (526); Equipped with However, the mouthpiece unit is removably attached to the proximal side of the cartridge unit, The vaporization cartridge unit (200) is adjacent to the proximal side of the heating unit (300); The heating unit (300) is adjacent to the proximal side of the electronic unit (500); The cartridge unit (200), the heating unit (300), and the electronic unit (500) are disposed in the main unit (400); A portable vaporizer in which airflow within the vaporizer is maintained by an alignment shaft.

13. A portable vaporizer as described in claim 12, characterized in that the proximal side of the diffuser (130) is provided with a hole to accommodate the flange magnet (120), and the proximal end of the alignment shaft (310) is provided with a shaft cavity (318) designed to accommodate the locking magnet (306), and the flange magnet (120) and the locking magnet (306) have attractive poles, thereby allowing the mouthpiece unit (100) to be removed and reattached.

14. each of the at least one oven includes an oven post (352) in contact with the oven control disk (322) and an oven coil (370) disposed within each of the at least one venturi cavity (382) and in contact with the oven post (352); The portable vaporizer of claim 12, characterized in that the oven coil (370) is designed to extend beyond each of the at least one venturi cavity (382), contacts the proximal side of the venturi disc (380), and is secured by a top clamp (385) and a securing member (398).

15. 15. The portable vaporizer of claim 14, further comprising a crush gasket (390) adjacent to the clamp (385), wherein clamping each of the at least one oven coil (370) to the venturi disc (380) provides an electrical connection from each of the oven coils (370) through the clamp (385), to the alignment shaft (310), and back to the oven control disk (322), providing a complete electrical path for each of the at least one oven (388).

16. 13. The portable vaporizer of claim 12, wherein the spacing ring (330) prevents contact between the oven post (352) and each of the at least one venturi cavity (382) and positions each of the oven coils (370) in each of the at least one venturi cavity (382).

17. 1. A portable vaporizer further comprising an insert for thermal insulation and air flow, a crush gasket (390) having a crush gasket vent (394), a central hole (391), and a grooved edge secured adjacent to the upper clamp (385), the grooved edge allowing air flow within the body (410); a gasket (361) disposed adjacent to the insulating disk (360) and providing insulating protection for the oven transistor (342); a spacer ring (330) designed to accommodate the V-shaped key (314a) and the distal portion (316) of the alignment shaft (310) positioned between the insulating disk (360) and the venturi disk (380), and to allow the oven coil (370) to be positioned within the venturi cavity (382) while still allowing air flow; an O-ring gasket (361) disposed adjacent the insulating disk (360) to provide thermal insulation and prevent airflow to the oven transistor (342); an O-ring (392) secured adjacent to the crush gasket (390) to create an airflow / insulation gap within the body (410); Equipped with However, the insert prevents the oven control disk (322) from overheating and allows air flow between the vaporizer cartridge unit (300) and the main body (410).

18. 1. A method for managing vapor usage and dosage using a portable vaporizer communicatively connected to an electronic user device running an interactive computer application, comprising: receiving initial input from a user; creating a vaporization session for a particular vaporizer based on the user's preferences from the input; initiating a vaporization session in response to user initiation; sending program instructions for a vaporization session from a computer application to a microprocessor in the vaporizer, the program instructions synchronizing the vaporization session with the vaporizer and controlling the vaporizer to perform the vaporization session; receiving feedback input from a user to obtain session information regarding a vaporization session that has been performed; receiving vaporizer data from the vaporizer to obtain session information regarding a vaporization session that has been performed; terminating the vaporization session in response to receiving a stop command; storing the acquired session information in a saved session list; analyzing the acquired session information and providing analytical feedback to the user; accessing and updating a running vapor database; Including, A running database is searchable to select vaporizers for new vaporization sessions, The saved session list is searchable to select a new vaporization session, The collected vaporization session information and analytical feedback to the user will optimize vaporizer dosage control and facilitate informed decisions and personal experiences for future vaporization sessions.

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