LOO. ( 12 ) United States Patent ( 10 ) Patent No.: US 9, 810, 145 B1 ( 52 ) U. S. CI. ( 45 ) Date of Patent : Nov. 7, 2017

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Transcription:

HAI LALA AT MATAR O ANTAI TAMAN DAN MAT US009810145B1 ( 12 ) United States Patent ( 10 ) Patent No.: US 9, 810, 145 B1 Bannon ( 45 ) Date of Patent : Nov. 7, 2017 ( 54 ) DUCTED IMPELLER ( 56 ) References Cited ( 71 ) Applicant : Philip C. Bannon, Marysville, WA ( US ) ( 72 ) Inventor : Philip C. Bannon, Marysville, WA ( US ) ( * ) Notice : Subject to any disclaimer, the term of this patent is extended or adjusted under 35 U. S. C. 154 ( b ) by 339 days. ( 21 ) Appl. No. : 14 / 302, 012 ( 22 ) Filed : Jun. 11, 2014 Related U. S. Application Data ( 60 ) Provisional application No. 61 / 833, 752, filed on Jun. 11, 2013. ( 51 ) Int. Cl. F02K 3 / 06 ( 2006. 01 ) F02C 3 / 107 ( 2006. 01 ) F02C 3 / 04 ( 2006. 01 ) B64D 29 / 06 ( 2006. 01 ) FOID 5 / 14 ( 2006. 01 ) ( 52 ) U. S. CI. CPC............. F02C 3 / 107 ( 2013. 01 ) ; B64D 29 / 06 ( 2013. 01 ) ; FOID 5 / 141 ( 2013. 01 ) ; FOLD 5 / 148 ( 2013. 01 ) ; F02C 3 / 04 ( 2013. 01 ) ; F02K 3 / 06 ( 2013. 01 ) ( 58 ) Field of Classification Search CPC... FO2K 3 / 00 ; FO2K 3 / 02 ; FO2K 3 / 025 ; FO2K 3 / 04 ; FO2K 3 / 06 ; FO1D 5 / 12 ; F01D 5 / 14 ; FO1D 5 / 141 ; F01D 5 / 148 ; FO2C 3 / 04 ; F02C 3 / 045 ; FO2C 3 / 107 ; B64D 29 / 00 ; B64D 29 / 02 ; B64D 29 / 04 ; B64D 29 / 06 ; B64D 29 / 08 ; B64D 2033 / 0206 See application file for complete search history. U. S. PATENT DOCUMENTS 5, 141, 400 A * 8 / 1992 Murphy B29C 43 / 18 416 / 204 A 7, 472, 543 B2 * 1 / 2009 Papamoschou........... FO2K 1 / 42 60 / 204 2002 / 0157378 A1 * 10 / 2002 Vogeler................... FO2C 6 / 003 60 / 226. 1 2004 / 0011057 A1 * 1 / 2004 Huber...................... FO2C 3 / 28 60 / 781 2004 / 0147798 A1 * 7 / 2004 MacWhinnie............ FO2C 3 / 22 588 / 316 ( Continued ) Primary Examiner Pascal M Bui Pho Assistant Examiner Marc Amar ( 57 ) ABSTRACT An engine assembly is configured to exceed Mach. The engine assembly has a casing mechanically coupled to a jet engine such that ducting exists between the casing and the jet engine. The jet engine further includes a low pressure compression stage configured to compress a gasses. A high pressure compression stage is connected to the low pressure compression stage and configured to further compress the gasses. A combustion stage is connected to the high pressure compression stage and configured to heat the gasses to three thousand degrees Fahrenheit by back pressure. A low pres sure turbine is connected to the combustion stage and configured to utilize energy in the gasses so that there is very little emission from the low pressure turbine. A shaft is connected to the low pressure turbine and configured to turn as a result of the low pressure turbine. A ducted impeller has blades wherein the blades are widest at a blade tip, narrow ing down to a hub, while not over lapping and beginning with a rotation of at least 45 degrees to the shaft and of a steeper angle going toward the hub to create an even air pressure along an entire length of each blade. 8 Claims, 2 Drawing Sheets LOO * anã 14 - MIL 40 82 84-76 74 72 20 22XL - 300 106 1102 104 188 9040 - - - 86 100 50 12.

( 56 ) References Cited U. S. PATENT DOCUMENTS 2005 / 0188702 A1 * 9 / 2005 Bachovchin...... A61K 38 / 56 60 776 2006 / 0228206 A1 * 10 / 2006 Decker FOID 5 / 141 415 / 1 2013 / 0145769 A1 * 6 / 2013 Norris.......... FO2K 3 / 105 2016 / 0097290 A1 * 4 / 2016 Fulayter...... * cited by examiner US 9, 810, 145 B1 Page 2 60 / 772 FO1D 9 / 00 415 / 182. 1

U. S. Patent Nov. 7, 2017 Sheet 1 of 2 US 9, 810, 145 B1 300 X 22 KA ma 108 106 100 104 102 9040 88 FIG. 1 10 bre 6300 AM akin L 76 74 72 KM - 74 20 M12 14-12 50

U. S. Patent Nov. 7, 2017 Sheet 2 of 2 US 9, 810, 145 B1. Coos??????? ZZ Oz8t???? -??????? 4 114 GOTCH mmmmmmmm, 40 L106 ~ 108? 40-28 P???????? ipse 88-90 86 8 30 2. FIG 10 PT T - 84 ) TITUTILITTERTIII? 40 34 76,?????????? 74 ~???????????????? AAAAAA???MAAAAAAAAAAANNAWA?????2ID PS 50

US 9, 810, 145 B1 DUCTED IMPELLER DETAILED DESCRIPTION OF CERTAIN EMBODIMENTS RELATED APPLICATION By way of example, and referring to FIG. 1, one embodi This application claims priority to provisional patent 5 ment of engine assembly 10 comprises casing 12. Jet engine application U. S. Ser. No. 61 / 833, 752 filed on Jun. 11, 2013, 80 is attached to forward ducting panels 14, forward central the entire contents of which is herein incorporated by ducting panels 16, central ducting panels 18 and rear central reference. ducting panels 20, and rear ducting panel panels 22 within duct 60. Each of the ducting panels further comprises a root BACKGROUND 10 and extend outward to a tip. The root is attached to a jet engine casing 300 and the tip terminates within the duct 60 The embodiments herein relate generally to engine between the jet engine casing 300 and the casing 12. Jet design. engine 80 comprises low pressure compression stage 20 Prior to embodiments of the disclosed invention, jet high pressure compression stage 26, combustion stage 28, engines suffered from excessive noise, fuel consumption, 15 low pressure turbine 30 and nozzle 32. Turning to those components in more detail, low pressure speed limitations and air volume limitations. Embodiments of the disclosed invention solve this problem by pushing compression stage 24 further comprises first low pressure compressor 72, second low pressure compressor 74 and energy forward with exhaust. third low pressure compressor 76. High pressure compressor 20 26 further comprises first high pressure compressor 82, SUMMARY second high pressure compressor 84, third high pressure compressor 86, fourth high pressure compressor 88 and fifth An engine assembly is configured to exceed Mach. The high pressure compressor 90. Combustion stage 28 com engine assembly has a casing mechanically coupled to a jet prises burner 34 that burns fuel to heat the air in the engine such that ducting exists between the casing and the 25 combustion stage. Turbine stage 30 comprises first low jet engine. The jet engine further includes a low pressure pressure turbine 104, second low pressure turbine 106 and compression stage configured to compress a gasses. A high third low pressure turbine 108, which operate to turn shaft pressure compression stage is connected to the low pressure 40. While passing through turbine 30, the gasses pass compression stage and configured to further compress the through gradually smaller areas, increasing the pressure into gasses. A combustion stage is connected to the high pressure 30 the final compressor, expanding into the final turbine which compression stage and configured to heat the gasses to three increases combustion temperature to about three thousand thousand degrees Fahrenheit by back pressure. A low pres degrees Fahrenheit by back pressure, all the while producing sure turbine is connected to the combustion stage and more torque, where thrust was once needed and burning configured to utilize energy in the gasses so that there is very exhaust emissions again in the turbine stage which is a little emission from the low pressure turbine. A shaft is 335 sequence on of small to larger turbines. The larger turbines are connected to the low pressure turbine and configured to turn to capture torque still available in the spent hot engine as a result of the low pressure turbine. A ducted impeller has exhaust, gases pass out of the exhaust nozzle at lower speed and mix with fresh air to complete burning of emissions blades wherein the blades are widest at a blade tip, narrow ing down to a hub, while not over lapping and beginning 10 giving the engine very little added thrust and very little with a rotation of at least 45 degrees to the shaft and of 340 a emissions. Shaft 40 is mechanically coupled to impeller fan 52, steeper angle going toward the hub to create an even air pressure along an entire length of each blade. which is further attached to tip 54 in nacelle 50. In addition to powering the compressors, the shaft turns impeller fan 52 In some embodiments, the low pressure compression which causes air to pass through duct 60 and around jet stage can further include a first low pressure compressor a 45 engine 34. In an improvement over the prior art impeller fan second low pressure compressor and a third low pressure 52 can rotate at a high speed and produce thrust over Mach compressor connected to the shaft. The high pressure com - impeller blade tip speed thus resulting in a Mach speed pression stage can further include a first high pressure aircraft. Air passing through duct 60 both produces thrust compressor, a second high pressure compressor, a third high and cools jet engine 34. Impeller fan 52 further comprises pressure compressor, a fourth high pressure compressor and 50 blades that are arranged as follows : no two blades are to a fifth high pressure compressor connected to the shaft. The overlap. The blades are to be at the widest at the blade tip, combustion stage can further include a burner that burns fuel narrowing down to the hub, all the while not over lapping to heat the gasses in the combustion stage. The turbine stage and begin at minimum 45 degrees to shaft and of a steeper can further include a first low pressure turbine, a second low angle going towards the hub this is to create even air pressure turbine and a third low pressure turbine, which 55 pressure along the entire length of each blade. operate to turn the shaft. In some embodiments, the ducted fan dramatically reduces fuel consumption, turbine size, noise and pollution. BRIEF DESCRIPTION OF THE FIGURES The highest to date combustion temperature during a com plete fuel burn is now possible due to the increased work and The detailed description of some embodiments of the 60 torque or lugging the shaft 40 is now subjected to via the invention is made below with reference to the accompanying compressor fans. In some embodiments, the impeller or figures, wherein like numerals represent corresponding parts of the figures. turbo fan blade tip speed can exceed the speed of sound. In some embodiments, the engine is a sub - mock design. This FIG. 1 shows perspective - cutaway view of an embodi design can be a low RPM turbine. Turbine RPM can be the ment of the invention. 65 manufacturer model option. FIG. 2 shows a side profile view of an embodiment of the Persons of ordinary skill in the art may appreciate that invention. numerous design configurations may be possible to enjoy

US 9, 810, 145 B1 the functional benefits of the inventive systems. Thus, given pressure compressor, a second low - pressure compressor and the wide variety of configurations and arrangements of a third low - pressure compressor connected to the shaft. embodiments of the present invention the scope of the 3. The engine assembly of claim 1, wherein the high invention is reflected by the breadth of the claims below pressure compression stage further comprises a first high rather than narrowed by the embodiments described above. 5 pressure compressor, a second high - pressure compressor, a What is claimed is : third high - pressure compressor, a fourth high - pressure com 1. An engine assembly comprising : pressor and a fifth high - pressure compressor connected to a casing mechanically coupled to a jet engine casing the shaft. wherein the jet engine casing is further attached to a 4. The engine assembly of claim 1, wherein the combus plurality of ducting panels including : 10 tion stage further comprises a burner that burns fuel to heat forward ducting panels, the gasses in the combustion stage. forward central ducting panel, 5. The engine assembly of claim 1, wherein turbine stage a rear central ducting panel, and comprises a first low - pressure turbine, a second low - pres rear ducting panels, sure turbine and a third low - pressure turbine, which operate wherein each of the plurality of f ducting dueting panels extends 15 to lo turn the shaft. radially outward from a root of each of the plurality 6. A ducted fan of an engine assembly, configured to direct of ducting panels to a tip of each of the plurality of air around a rotational device, the ducted fan comprising : ducting panels ; a casing mechanically coupled to a jet engine casing wherein the root of each of the plurality of ducting panels wherein the jet engine casing is further attached to a is attached to the jet engine casing and the tip of each 20 plurality of ducting panels including : of the plurality of ducting panels terminates at a free forward ducting panels, end of each of the plurality of ducting panels, forward central ducting panel, wherein the free end of each forward ducting panel is a rear central ducting panel and located within a flowpath between the jet engine casing rear ducting panels, and the casing and the root of each forward ducting 25 wherein each of the plurality of ducting panel extends panel is located forward of a combustion stage with radially outward from a root of each of the plurality respect to a longitudinal axis of the engine assembly, of ducting panels to a tip of each of the plurality of wherein the engine assembly further comprises : ducting panels ; a low - pressure compression stage configured to com wherein the root of each of the plurality of ducting panels press gasses ; is attached to the jet engine casing, a high - pressure compression stage, connected to the wherein the tip of each of the plurality of ducting panels low - pressure compression stage and configured to terminates at a free end of each of the plurality of further compress the gasses ; ducting panels, a turbine stage connected to the combustion stage and wherein the free end of each forward ducting panel is configured to utilize energy in the gasses ; 35 located within a flowpath between the jet engine casing a shaft, connected to the turbine stage, and configured and the casing and the root of each forward ducting to turn as a result of the turbine stage ; and panel is located forward of a combustion stage with a ducted impeller comprising blades that are widest at respect to a longitudinal axis of the engine assembly, a blade tip, narrowing down to a hub, while not over wherein the ducted fan further comprises : lapping and beginning with a rotation of 45 degrees 40 blades that are widest at a blade tip, narrowing down to measured from an axis of the shaft to a blade chord a hub, while not over lapping and beginning with a and of a smaller angle going toward the hub to create rotation of at least 45 degrees measured from an axis of a shaft to a blade chord and of a smaller angle an even air pressure along an entire length of each blade, going toward the hub to create an even aft pressure wherein the combustion stage is connected to the high - 45 along an entire length of each blade. pressure compression stage and configured to heat the 7. The ducted fan of claim 6, wherein the jet engine casing gases to three thousand degrees Fahrenheit by back houses the rotational device. pressure. 8. The ducted fan of claim 7, rotational device turns the 2. The engine assembly of claim 1, wherein the low shaft. pressure compression stage further comprises : a first low * * * *