A venturi assisted bi-conical chamber, a toroidal venturi vortex system and a method of cooling

Abstract

A venturi assisted bi-conical chamber is disclosed, comprising a venturi nozzle having first inlet coupled to a double coned chamber, a second inlets configured to suck in atmospheric air, and an outl

Description

[001 ] The present invention relates to a venturi assisted bi-conical chamber, a toroidal venturi vortex system and a method of cooling, and more specifically, to a device, a system and a method that utilizes a venturi nozzle and a bi-conical chamber to manipulate air flow for various applications. BACKGROUND OF INVENTION

[002] Venturi nozzles and bi-conical chambers have been used in various applications to control and manipulate air flow. These devices find utility in fields such as fluid dynamics, aerodynamics, and power generation. However, there is a need for an improved design that combines the advantages of both a venturi nozzle and a bi-conical chamber to achieve enhanced performance and versatility.

[003] Cooling systems are widely used to maintain comfortable indoor temperatures, especially in regions with hot and humid climates. Traditional cooling systems typically rely on the use of refrigerants, which can have adverse environmental impacts due to their greenhouse gas potential and the risk of leaks. Moreover, these systems consume significant amounts of electrical energy, contributing to increased electricity demand and associated environmental challenges.

[004] There is a need for a cooling system that is both environmentally friendly and energy-efficient. The present invention addresses this need by providing a toroidal venturi vortex system (TOVENVORS) that eliminates the need for refrigerants and utilizes the flow of air to generate electricity. SUMMARY OF THE INVENTION:

[005] In an aspect, the present invention provides a venturi assisted bi-conical chamber. The venturi assisted bi-conical chamber comprises a chamber Inlet, a venturi nozzle, a bi-conical chamber and a swirl vane hub. The chamber inlet serves as the entry point for air into the venturi assisted bi-conical chamber. The venturi nozzle consists of a first inlet, a second inlet, and a first outlet. The second inlet is configured to draw in atmospheric air. The bi-conical chamber is coupled with the chamber inlet and the first inlet of the venturi nozzle. It is defined by a body formed by an intersection of large bases of a first hollow conical body and a second hollow conical body. The bi-conical chamber includes a first opening coupled with the chamber inlet, a second opening coupled with the first inlet of the venturi nozzle, and a maximum diameter section formed at the intersection of the two conical bodies. The venturi assisted bi-conical chamber may include a swirl vane hub coupled at the first opening of the bi-conical chamber. The swirl vane hub is configured to induce a swirling motion of air passing through the bi-conical chamber.

[006] In an embodiment, the venturi assisted bi-conical chamber may include a motored impeller is provided in the bi-conical chamber, which is coupled inside the body at the maximum diameter section. The motored impeller is configured to generate and control the flow of air inside the venturi assisted bi-conical chamber. When included, the venturi assisted bi-conical chamber can operate as a venturi assisted compressor.

[007] When the motored impeller is included, the motored impeller is operatively connected to a power source to facilitate controlled airflow manipulation.

[008] In another embodiment, the venturi assisted bi-conical chamber include a turbine generator coupled inside the body at the maximum diameter section. The turbine generator is designed to generate electricity from the airflow passing through the venturi assisted bi-conical chamber. When integrated, the venturi assisted bi-conical chamber can function as a venturi assisted generator.

[009] In yet another embodiment, the venturi assisted bi-conical chamber include at least one guide vanes coupled to the body inside the bi-conical chamber. These guide vanes are configured to direct and control the flow of air passing through the bi-conical chamber.

[0010] The bi-conical chamber may be constructed from materials selected from the group consisting of metals, plastics, and composites, depending on the specific application requirements.

[0011] The venturi assisted bi-conical chamber described herein offers enhanced performance and versatility for various applications, including but not limited to fluid dynamics, aerodynamics, and power generation.

[0012] In another aspect, the present invention overcomes the disadvantages of conventional cooling systems by providing a toroidal venturi vortex system (herein after referred as TOVENVORS) that efficiently cools indoor spaces without using a refrigerant and simultaneously generates electricity. The TOVENVORS comprises a compressor module, a vortex tube, a fridge box, a turbine module, and a battery module, all of which work together to provide efficient cooling and electricity generation.

[0013] The compressor module is configured to suck in atmospheric air to produce compressed air. It includes a plurality of venturi-assisted compressors fluidically coupled to each other to form a first toroidal loop. The first toroidal loop develops a predetermined pressure, and a pressure valve is provided at the first toroidal outlet to allow opening after the predetermined pressure is reached.

[0014] The vortex tube is fluidically coupled to the compressor module and includes a vortex tube inlet, a cold outlet, and a hot outlet. It is configured to receive compressed air from the compressor module and bifurcate the compressed air into a cold stream of air and a hot stream of air.

[0015] The fridge box is fluidically coupled to the cold outlet of the vortex tube and is configured to receive the cold stream of air. This cold air can be used for cooling indoor spaces.

[0016] The turbine module is fluidically coupled to the hot outlet of the vortex tube. It is configured to generate electricity from the flow of the hot stream of air through the turbine module.

[0017] The battery module is electrically coupled to the turbine module and the compressor module. It is configured to store the electricity generated by the turbine module and supply the stored electricity to the compressor module.

[0018] The TOVENVORS efficiently cools indoor spaces without using a refrigerant and simultaneously generates electricity, making it an environmentally friendly and energyefficient alternative to conventional cooling systems.

[0019] In yet another aspect, the present invention provides a method of cooling that addresses the shortcomings of traditional refrigerant-based systems. In this method, air from the atmosphere is utilized to produce compressed air, which is then bifurcated into hot and cold streams of air in a vortex tube. The cold stream is used to cool a fridge box, while the hot stream is used to generate electricity and provide additional thermal benefits. The electricity generated is stored in a battery module, which can be used to power the compressor module, ensuring energy efficiency.

[0020] The method begins by utilizing a compressor module to draw in air from the atmosphere and compress it, producing compressed air.

[0021] The compressed air is then directed to a vortex tube, where it is bifurcated into two streams: a hot stream of air and a cold stream of air. This separation is achieved through the principle of the vortex tube, which relies on the tangential injection of compressed air to create the temperature gradient.

[0022] The cold stream of air generated in the vortex tube is directed to a fridge box, where it is used to cool the interior of the box. This cooling process allows for the storage and preservation of temperature-sensitive items.

[0023] Simultaneously, the hot stream of air from the vortex tube is directed to a generator module. Here, the heat energy in the hot stream of air is converted into electricity, harnessing the thermodynamic potential of the air stream.

[0024] After the electricity generation process, the residual heat of the hot stream of air can be further utilized for various purposes. In one embodiment, the heat is used to provide hot water, increasing the overall energy efficiency of the system.

[0025] The electricity generated in the generator module is stored in a battery module. This stored electricity can be used to power the compressor module as needed, providing a self-sustaining and energy-efficient cooling system. BRIEF DESCRIPTION OF THE DRAWING:

[0026] The foregoing summary, as well as the following detailed description of various embodiments, is better understood when read in conjugation with the drawings provided herein. For the purposes of illustration, there is shown in the drawing, exemplary embodiments; however, the presently disclosed subject matter is not limited to the specific system disclosed.

[0027] Fig. 1 illustrates a schematic view of a venturi assisted bi-conical chamber, according to one embodiment of the present disclosure;

[0028] Fig. 2 illustrates a schematic view of the venturi assisted bi-conical chamber with a motored impeller, according to one embodiment of the present disclosure;

[0029] Fig. 3 illustrates a schematic view of the venturi assisted bi-conical chamber with a turbine generator, according to one embodiment of the present disclosure;

[0030] Fig. 4 illustrates a schematic view of a toroidal venturi vortex system, according to one embodiment of the present disclosure;

[0031] Fig. 5 illustrates a schematic view of a compressor module of the toroidal venturi vortex system, according to one embodiment of the present disclosure; and

[0032] Fig. 6 illustrates a schematic view of a turbine module of the toroidal venturi vortex system, according to one embodiment of the present disclosure.

[0033] Like reference numerals refer to like parts throughout the description of several views of the drawing. DETAILED DESCRIPTION OF THE INVENTION:

[0034] Embodiments are provided so as to thoroughly and fully convey the scope of the present disclosure to the person skilled in the art. Numerous details are set forth, relating to specific components, and methods, to provide a complete understanding of embodiments of the present disclosure. It will be apparent to the person skilled in the art that the details provided in the embodiments should not be construed to limit the scope of the present disclosure. In some embodiments, well-known processes, well-known apparatus structures, and well-known techniques are not described in detail.

[0035] The terminology used in the present disclosure is only for the purpose of explaining a particular embodiment and such terminology shall not be considered to limit the scope of the present disclosure. As used in the present disclosure, the forms "a," "an," and "the" may be intended to include the plural forms as well, unless the context clearly suggests otherwise. The terms "comprises," "comprising," "including," and "having," are open-ended transitional phrases and therefore specify the presence of stated features, integers, steps, operations, elements, modules, units and / or components, but do not forbid the presence or addition of one or more other features, integers, steps, operations, elements, components, and / or groups thereof. The particular order of steps disclosed in the method and process of the present disclosure is not to be construed as necessarily requiring their performance as described or illustrated. It is also to be understood that additional or alternative steps may be employed.

[0036] The terms first, second, third, etc., should not be construed to limit the scope of the present disclosure as the aforementioned terms may be only used to distinguish one element, component, region, layer or section from another component, region, layer or section. Terms such as first, second, third, etc., when used herein do not imply a specific sequence or order unless clearly suggested by the present disclosure.

[0037] In the following description, reference is made to the accompanying drawings that form a part hereof, and in which is shown, by way of illustration, specific embodiments in which the invention may be practiced. It is understood that other embodiments may be utilized and structural changes may be made without departing from the scope of the present invention.

[0038] In an aspect, the present invention provides a venturi assisted bi-conical chamber. As illustrated in Fig. 1, the venturi assisted bi-conical chamber (1) comprises a chamber Inlet (10), a venturi nozzle (20), a bi-conical chamber (30) and a swirl vane hub (50). The chamber inlet (10) serves as the entry point for air into the venturi assisted bi-conical chamber. The venturi nozzle (20) consists of a first inlet (22), a second inlet (24), and a first outlet (26). The second inlet (24) is configured to draw in atmospheric air. The bi-conical chamber (30) is coupled with the chamber inlet (10) and the first inlet (22) of the venturi nozzle. It is defined by a body (32) formed by an intersection of large bases of a first hollow conical body (34) and a second hollow conical body (36). The bi-conical chamber (30) includes a first opening (38) coupled with the chamber inlet (10), a second opening (40) coupled with the first inlet (22) of the venturi nozzle, and a maximum diameter section (42) formed at the intersection of the two conical bodies (34, 36). The venturi assisted bi-conical chamber may include a swirl vane hub (50) coupled at the first opening (38) of the bi-conical chamber (30). The swirl vane hub (50) is configured to induce a swirling motion of air passing through the bi-conical chamber (30).

[0039] In an embodiment, as illustrated in Fig. 2, a motored impeller (60) is provided in the bi-conical chamber (30), which is coupled inside the body (32) at the maximum diameter section (42). The motored impeller (60) is configured to generate and control the flow of air inside the venturi assisted bi-conical chamber (1). When included, the venturi assisted bi-conical chamber (1) can operate as a venturi assisted compressor.

[0040] When the motored impeller (60) is included, it can be operatively connected to a power source to facilitate controlled airflow manipulation.

[0041] In another embodiment, as illustrated in Fig. 3, the venturi assisted bi-conical chamber (1) include a turbine generator (70) coupled inside the body (32) at the maximum diameter section (42). The turbine generator (70) is designed to generate electricity from the airflow passing through the venturi assisted bi-conical chamber (1). When integrated, the venturi assisted bi-conical chamber (1) can function as a venturi assisted generator.

[0042] In yet another embodiment, the venturi assisted bi-conical chamber (1) include at least one guide vanes (80) coupled to the body (32) inside the bi-conical chamber (30). These guide vanes (80) are configured to direct and control the flow of air passing through the bi-conical chamber (30).

[0043] The bi-conical chamber (30) may be constructed from materials selected from the group consisting of metals, plastics, and composites, depending on the specific application requirements.

[0044] The venturi assisted bi-conical chamber described herein offers enhanced performance and versatility for various applications, including but not limited to fluid dynamics, aerodynamics, and power generation.

[0045] In another aspect, the present invention overcomes the disadvantages of conventional cooling systems by providing a toroidal venturi vortex system (TOVENVORS) that efficiently cools a closed space without using a refrigerant and simultaneously generates electricity. As illustrated in Fig. 4, the TOVENVORS (100) comprises a compressor module (200), a vortex tube (300), a fridge box (400), a turbine module (500), and a battery module (600), all of which work together to provide efficient cooling and electricity generation.

[0046] As illustrated in Fig. 5, the compressor module (200) is configured to suck in atmospheric air to produce compressed air. It includes a plurality of venturi-assisted compressors (210) fluidically coupled to each other to form a first toroidal loop (220). The first toroidal loop (220) develops a predetermined pressure, and a pressure valve (240) is provided at the first toroidal outlet (230) to allow opening after the predetermined pressure is reached.

[0047] The vortex tube (300) is fluidically coupled to the compressor module and includes a vortex tube inlet (310), a cold outlet (320), and a hot outlet (330). It is configured to receive compressed air from the compressor module and bifurcate the compressed air into a cold stream of air and a hot stream of air.

[0048] The fridge box (400) is fluidically coupled to the cold outlet of the vortex tube (300) and is configured to receive the cold stream of air. This cold air can be used for cooling indoor spaces.

[0049] The turbine module (500) is fluidically coupled to the hot outlet (330) of the vortex tube (300). It is configured to generate electricity from the flow of the hot stream of air through the turbine module (500). As illustrated in Fig. 6, a plurality of venturi assisted generator (510) are fluidically coupled with each other to form a second toroidal loop (520) having a second toroidal inlet (530) and a second toroidal outlet (540). The second toroidal loop (520) of plurality of venturi assisted generator (510) is configured to generate electricity from the flow of the hot stream of air flowing through the second toroidal loop (520).

[0050] The battery module (600) is electrically coupled to the turbine module (500) and the compressor module (200). It is configured to store the electricity generated by the turbine module (500) and supply the stored electricity to the compressor module (200).

[0051] The TOVENVORS efficiently cools indoor spaces without using a refrigerant and simultaneously generates electricity, making it an environmentally friendly and energyefficient alternative to conventional cooling systems.

[0052] In yet another aspect, the present invention provides a method of cooling that addresses the shortcomings of traditional refrigerant-based systems. In this method, air from the atmosphere is utilized to produce compressed air, which is then bifurcated into hot and cold streams of air in a vortex tube. The cold stream is used to cool a fridge box, while the hot stream is used to generate electricity and provide additional thermal benefits. The electricity generated is stored in a battery module, which can be used to power the compressor module, ensuring energy efficiency.

[0053] The method begins by utilizing a compressor module (200) to draw in air from the atmosphere and compress it, producing compressed air.

[0054] The compressed air is then directed to a vortex tube (300), where it is bifurcated into two streams: a hot stream of air and a cold stream of air. This separation is achieved through the principle of the vortex tube, which relies on the tangential injection of compressed air to create the temperature gradient.

[0055] The cold stream of air generated in the vortex tube is directed to a fridge box (400), where it is used to cool the interior of the box. This cooling process allows for the storage and preservation of temperature-sensitive items.

[0056] Simultaneously, the hot stream of air from the vortex tube is directed to a generator module (500). Here, the heat energy in the hot stream of air is converted into electricity, harnessing the thermodynamic potential of the air stream.

[0057] After the electricity generation process, the residual heat of the hot stream of air can be further utilized for various purposes. In one embodiment, the heat is used to provide hot water, increasing the overall energy efficiency of the system.

[0058] In an embodiment, as illustrated in Figure 4, after the electricity generation process, the hot stream of air from the generator module (500) is recycled to the compressor module (200).

[0059] The electricity generated in the generator module is stored in a battery module (600). This stored electricity can be used to power the compressor module (200) as needed, providing a self-sustaining and energy-efficient cooling system.

[0060] The air captured and compressed in compressor module is passed into a Vortex Tube (herein after referred as VT) and the VT split the air flow into hot and cold air streams. Depending on the pressure, air flow and volume of air into the VT, the temperature of the cold stream or ejection can be as low as -50oC and the hot stream up to 120oC. Venturi Tubes and Vortex Tube have been around for well over 80 years and have NO moving parts.

[0061] Venturi System: A venturi vacuum works by accelerating compressed air through a narrow pipe from a wider pipe. This creates low pressure in the narrow pipe which when connected to the external air via a pipe entering the narrow pipe, ‘pulls in air’. Normally Venturi tubes are not seen as efficient as the air exiting the venturi tube still has a high potential energy from unexpended compression.

[0062] Compressor module simply connects multiple venturi pipes in a loop. It does not have to be circular and can be in any connected loop. Atorodial shape has the least overall resistance and it lends itself to multiple applications. See image.

[0063] Vortex Tube: A vortex tube creates a vortex of air spinning inside a narrow tube which results in the air spinning upto Imillion rpm. As a result a counter vortex is created inside the primary vortex and the inner counter vortex gives up energy to the outer vortex which spins faster and gets hotter.

[0064] Turbine module: Turbine module is exactly like compressor module but the asymmetric bi-conical chamber cylinders are in a reverse orientation whereas compressor module is in a reverse asymmetric bi-conical chamber configuration. Whereas compressor module has one or more co-axial fans inside the biconical shape, turbine module has fan generators. These are fans in reverse. The air blows over the fans and forces them to turn and create electricity, turbine module is the reverse compressor module with a single pipe exiting the system to release the air back into the atmosphere.

[0065] How it all works: The compressor module is extremely efficient as it does NOT rely on compressed air but instead pulls in air by virtue of the fans inside the toroidal system. Air is pulled in and the density inside the pipe increases and the so does the pressure. A pressure sensor feeds back to the co-axial fans and increases the fan speed so that the air velocity inside the pipe is maintained and the air suction is maintained despite the increased density of air. Venturi pipes can create vacuums of 0.83 bar which is amazing per venturi pipe depending on the velocity of the air inside the pipe.

[0066] As compressor module starts is simply pulls in air. The air simply enters the pipe and increases in density and compression.

[0067] A controller will detect the mass flow, volume and pressure inside the pipe. When the mass increases to a pre-determined level, the air inside compressor module is released into the Vortex tube. Even at 1 atm, a Vortex tube can produce cold air that is 6°C lower than the input air.

[0068] Cooling: A fridge pulls in cold air for the cooling outlet of the vortex tube to cool down the fridge. In an embodiment, specifically related provide cooling in fridge, the fridge is receiving cold air from the compressor module through the vortex tube. The air from the fridge re-enters into the compressor module. The compressor module is small in volume relative to the fridge and as a result of this a small increase in mass inside the compressor module increases the pressure. The internal fans or external air supply works harder to maintain the internal velocity to keep low pressure inside the venturi vacuum. When the pressure inside the compressor module exceeds 6atm or lOatm depending on application, the compressor module releases the air into the Vortex tube which splits the air into hot and cold. The degree of cooling by the VT is proportional to the inlet pressure and mass flow rate into the VT. The cold end of the vortex tube is passed into the fridge, so the average temperature of the air inside the fridge will decrease. As the total volume of air inside the fridge is processed through the system, the air inside the fridge is at least 6 degrees lower. The process is a continuous process and the air inside the fridge is cooled by simply compressing in compressor module, passing through the VT and the cold air is replaced in the fridge. The enthalpy or energy of the air in the fridge is reduced. Equally, the enthalpy or energy in the hot end (less friction and thermal losses) is increased. The hot end air is passed into turbine module and the air turns blades to create electricity. The blades are in a toroidal sequence and function like a multi-stage turbine. The enthalpy of the hot air is converted to electricity and the electricity charges the battery inside TOVENVOR and powers the fans that are in compressor module to create the venturi vacuum. The system should be net zero as the thermal energy of the items being cooled and the thermal ingress into the fridge would provide power which then is converted by turbine module.

[0069] TOVENVOR: Air is pulled in via the compressor module system which is it of itself a loop of venturi vacuums. The air pulled in increases the mass inside the compressor module and the pressure if the fan speed is kept constant and not increased.

[0070] The pressurised air is passed into a Vortex tube (herein after may be referred as “VT”) which splits the incoming air flow into hot and cold air streams.

[0071] The hot ejection fraction of the Vortex tube is passed into the turbine module system. Logically, the overall thermal energy of the air or enthalpy has been split. Low energy is put into the room. The hotter gas is converted to electrical energy using turbine module.

[0072] Turbine module: The air cooled has a certain amount of energy or enthalpy. At 25oC is is about 26KJ / Kg. The air inside the vortex tube is split into hot and cold streams. So the enthalpy of the cold stream is 6oC lower and the enthalpy of the hot stream 4oC higher. If 400 cycles have occurred, then we have 2oC or less and the hot stream at 20oC higher (allowing for heat losses). The enthalpy change between the hot and cold streams is very large and even at just 20% efficiency on the fan generators we will have net energy gain when compared to the parasitic losses required by the electricity used to power the co-axial fans inside compressor module. This is massive, as the net electrical gain would allow an inbuilt rechargeable battery stack at the base of the fridge to be charged allowing the fridge to cope with lower input energy in an energy but still maintain temperature or increase the fan power to reduce the temperature to freeze contents.

[0073] Turbine module fan generators will by definition be more efficient in ‘total’ than a single fan as the fan generators are in a loop acting as a multistage turbine. The hot air being released from the Vortex tube is passed into the turbine module which as stated is compressor module in reverse. The hot air has a higher enthalpy and each circuit around the turbine module removes enthalpy from the gas. The input velocity comes from the exit of the vortex tube.

[0074] The air pressure inside the turbine module decrease and the air density will increase. A mass flow, volume sensor and temperature sensor will be required. The air inside turbine module will continue to produce electrical energy to power the compressor module fans and excess electrical energy will recharge a battery inside the TOVENVOR which will provide startup power and back up boost power for additional fan speed inside TOVENVOR cooling to boost cooling power.

[0075] While considerable emphasis has been placed herein on the specific features of the preferred embodiment, it will be appreciated that many additional features can be added and that many changes can be made in the preferred embodiment without departing from the principles of the disclosure. These and other changes in the preferred embodiment of the disclosure will be apparent to those skilled in the art from the disclosure herein, whereby it is to be distinctly understood that the foregoing descriptive matter is to be interpreted merely as illustrative of the disclosure and not as a limitation. LIST OF REFRENCE NUMERALS 1 - Venturi assisted bi-conical chamber 10 - Chamber inlet 20 - Venturi nozzle 22 - First inlet 24 - Second inlet 26 - First outlet 30 - Bi-conical chamber 32 - Body 34 - First hollow conical body 36 - Second hollow conical body 38 - First opening 40 - Second opening 42 - Maximum diameter section 50 - Swirl vane hub 60 - Motored impeller 70 - Turbine generator 80 - Guide vanes 100 - Toroidal venturi vortex system 200 - Compressor module 210 - Venturi assisted compressor 220 - First toroidal loop 230 - First toroidal outlet 240 - Pressure valve 300 - Vortex tube 310 - Vortex tube inlet 320 - Cold outlet 330 - Hot outlet 400 - Fridge box 500 - Turbine module 510 - Venturi assisted generator 520 - Second toroidal loop 530 - Second toroidal inlet 540 - Second toroidal outlet 600 - Battery module

Claims

1. A venturi assisted bi-conical chamber comprising:a chamber inlet;a venturi nozzle having a first inlet and a second inlet and one first outlet, wherein second inlet is configured to suck in atmospheric air;a bi-conical chamber coupled with the chamber inlet and a first inlet, the Bi-conical chamber is defined by a body formed by an intersection of large bases of two hollow conical bodies, wherein the Bi-conical chamber having a first opening coupled with the chamber inlet, a second opening coupled with the first inlet of the venturi nozzle, and a maximum diameter section formed at the intersection of the two conical walls; anda swirl vane hub coupled at the first opening of the Bi-conical chamber, wherein the swirl vane hub is configured to induce swirling motion of air passing through the Bi-conical chamber.

2. The venturi assisted bi-conical chamber of claim 1, further comprising a motored impeller coupled inside the body at the maximum diameter section, wherein the motored impeller is configured to produce flow of air inside the venturi assisted bi-conical chamber.

3. The venturi assisted bi-conical chamber of claim 2, wherein the venturi assisted bi-conical chamber having the motored impeller is configured to work as a venturi assisted compressor.

4. The venturi assisted bi-conical chamber of claim 1, further comprising a turbine generator coupled inside the body at the maximum diameter section, wherein the turbine generator is configured to produce electricity from the flow of air flowing through the venturi assisted bi-conical chamber.

5. The venturi assisted bi-conical chamber of claim 1, further comprising guide vanes coupled to the body wall inside the Bi-conical chamber, wherein the guide vanes are configured to direct the flow of air passing through the Bi-conical chamber.

6. The venturi assisted bi-conical chamber of claim 1, wherein the Bi-conical chamber (130) is formed from materials selected from the group consisting of metals, plastics, and composites.

7. The venturi assisted bi-conical chamber of claim 2, wherein the motored impeller (150) is operatively connected to a power source to facilitate controlled air flow.

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