CN111664006A - Reciprocating piston type rotor engine - Google Patents
Reciprocating piston type rotor engine Download PDFInfo
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- CN111664006A CN111664006A CN201910195523.9A CN201910195523A CN111664006A CN 111664006 A CN111664006 A CN 111664006A CN 201910195523 A CN201910195523 A CN 201910195523A CN 111664006 A CN111664006 A CN 111664006A
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- F—MECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
- F02—COMBUSTION ENGINES; HOT-GAS OR COMBUSTION-PRODUCT ENGINE PLANTS
- F02B—INTERNAL-COMBUSTION PISTON ENGINES; COMBUSTION ENGINES IN GENERAL
- F02B75/00—Other engines
- F02B75/40—Other reciprocating-piston engines
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- F—MECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
- F02—COMBUSTION ENGINES; HOT-GAS OR COMBUSTION-PRODUCT ENGINE PLANTS
- F02B—INTERNAL-COMBUSTION PISTON ENGINES; COMBUSTION ENGINES IN GENERAL
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Abstract
The core technology of the reciprocating piston type rotor engine comprises two parts, wherein one part comprises a rotor consisting of a main shaft (1), a main shaft combined bearing, a machine head tray (4) and a machine head (6), and the center line of the machine head (6) is positioned in the tangential direction of the tray (4); and secondly, a transmission mechanism consists of bilateral symmetry opposite elliptic orbit groove disc body rack end covers (2), double T-shaped rolling connecting rods (3), a change gear (5), a vertical rod gear (16) and a piston rod rack (7), and is in centrifugal radial outward reciprocating transmission by taking a rotation center as a circle center, a four-stroke thermal power circulation process is completed in the rotation process of the rotor, and a machine head is ignited and expanded to directly drive the rotor to rotate and output rotary power outwards. The novel gasoline engine has the advantages of simple structure, ingenious model conception, complementary combination, scientificity, reasonableness, compact structure, high efficiency, energy conservation, low carbon, environmental protection, stable operation, small vibration, low noise and long service life, can be manufactured into a gasoline engine and a diesel engine, and is suitable for various fuels.
Description
One, the technical field
The invention relates to a novel internal combustion engine, and belongs to the field of power machinery.
Second, background Art
The key technical key points of the internal combustion engines widely used in the world are that a variable volume mechanism is required, a proper enough compression ratio can be generated, a thermal power cycle is completed, and work is done on external output torque, and the key core technology is the problems of the sealing between a piston and a cylinder wall in an element volume, the shape and the dynamic property of a combustion chamber, the fuel economy, the emission cleanness and other technical performance indexes. For over a hundred years, crank-connecting rod piston internal combustion engines, which have dominated internal combustion engines, have become technically very mature. In recent years, engines have entered the "electronic age" and their development has progressed almost to the perfection. However, at the same time it brings with it structural disadvantages which are difficult to overcome. The first is that the structure is complex, heavy, the number of parts is large, the precision requirement is high, and the processing and manufacturing cost is high. Secondly, the crankshaft and the piston have upper and lower dead points, so that high-speed reciprocating inertia impact vibration is generated, torsional vibration of a crankshaft shaft system is large, the damage to the engine body is large, and the damage is more and more prominent along with the improvement of the strengthening degree. Thirdly, the left and right swinging of the connecting rod in the structure inevitably causes the machine body to eat more than 40 percent of energy in the working process for the inclined strut of the piston and the crankshaft, which is the consumption of useless work, so that the heat efficiency of the machine type is inevitably low, and the 50 percent of the heat is always not broken through, in other words, the heat efficiency cannot be broken through by 50 percent as long as the piston structure of the crankshaft connecting rod is adopted, and the continuous improvement and development of the internal combustion engine are seriously hindered, thereby directly influencing the development of the world economy. Fourth, it is known that the reciprocating linear motion of the piston of the internal combustion engine in the cylinder is converted into a rotational motion by the crankshaft connecting rod transmission mechanism to output work to the outside, and the crankshaft connecting rod mechanism can convert less than 50% of the expansion force into rotational power at best during the conversion process, so that it has poor dynamic properties. Fifthly, the volume power is not high, the specific gravity is large, the large-power marine transport vehicle is particularly remarkable in the case of ultrahigh power, the maximum power of the marine transport vehicle can only reach 48000PS, the weight of the marine transport vehicle can reach 1700 tons, the vehicle is enlarged, the parts are difficult to process, install and maintain, and a single vehicle power cannot be enlarged, so that the marine transport vehicle is a great obstacle to increasingly developed marine transport industry. Sixth, the crankshaft is difficult to process, especially the multi-cylinder and high-power machine type is more prominent, and the difficulty in processing makes the crankshaft difficult to become a bottleneck technology in the manufacturing industry of the internal combustion engine.
The defects are caused by the structure of the crank-connecting rod piston engine and are difficult to overcome for a long time, and the problems are known to all people, so that a plurality of scientific research institutions, colleges and universities, military equipment institutions and thousands of expert and scholars all want to break through the structure of the traditional engine, but the defects are not successful for more than one hundred years.
Compared with the traditional crank connecting rod piston engine, the 'Wankel' triangular piston rotary engine which is gradually matured omits a heavy transmission mechanism of a crank connecting rod and a complex gas distribution mechanism and the like, has simple structure and light weight, can directly convert combustion expansion force into rotary power of a main shaft, has stable operation, small vibration and low noise, has the performance characteristics of great progress compared with the traditional crank connecting rod piston engine, but can not replace the traditional crank connecting rod piston engine. This is due to a serious drawback of its own structure. Firstly, it has high processing technical requirements, great difficulty and high manufacturing cost. Secondly, the oil consumption is large, the heat efficiency is low, and the dynamic property is poor. Thirdly, the sealing performance in the cylinder is poor, the pressure ratio is small, the combustion is insufficient, the emission performance is poor and the pollution is serious. And fourthly, the air chamber sealing device is only suitable for high-speed occasions such as light low-power plug cars, motorcycles and the like, and has the defects of reduced sealing property between air chambers and serious air leakage and smoke leakage during slow speed and idling. The requirements for the emission cleanness and the fuel economy of the engine are higher and higher all over the world at present, and in addition, the oil crisis is one wave to one wave, the oil price is high, and the harsh market rule forces the engine to be eliminated quickly.
Third, the invention
Aiming at the defects, defects and shortcomings of the existing engine, a new type of reciprocating piston type rotor engine which is simple in structure, stable in operation, efficient and energy-saving is researched for updating and upgrading, and the purpose is achieved through the following mode. The reciprocating piston type rotor engine consists of a main shaft, a left elliptic orbit groove disc body frame end cover, a right elliptic orbit groove disc body frame end cover, a double T-shaped rolling connecting rod, a machine head tray, a reversing gear, a traditional four-stroke air-cooled crank connecting rod piston type single cylinder engine machine head, a piston rod rack and a barrel-shaped frame, wherein the left elliptic orbit groove disc body frame end cover and the right elliptic orbit groove disc body frame end; the main shaft sequentially penetrates through the circle center of the left elliptic track groove disc body rack end cover, the circle center of the machine head tray and the circle center of the right elliptic track groove disc body rack end cover from left to right to realize three-center coaxiality; the main shaft is sequentially connected with the combined bearing for centering and positioning the end cover of the rack body of the left oval track groove disk body, the machine head tray and the machine base from left to right through splines and connected with the combined bearing for centering and positioning the end cover of the rack body of the right oval track groove disk body, two ends of the rack are fixed on the machine base, and the oil pan is placed under the machine base.
The double-T-shaped rolling connecting rod consists of a cross rod and two vertical rods; two vertical rods are mutually parallel and vertically connected to a transverse rod, three rods are positioned on a plane, the transverse rod penetrates through a long hole on a handpiece tray, two ends of the transverse rod are respectively provided with a bearing and are respectively inserted into two elliptical track grooves which are symmetrical left and right in opposite directions, the two vertical rods are fixedly connected with two vertical rod racks, the central line of the two vertical rods is kept on a straight line and can pass through the circle center of the handpiece tray, the vertical rod racks and the piston rod racks are simultaneously meshed with a turning gear, the two vertical rod racks and the piston rod racks are staggered in height and are not mutually interfered in three-dimensional crossing in the air, the turning gear is vertically fixed on the end surfaces of two sides of the handpiece tray by a gear shaft, and.
Two sides of the machine head tray are respectively and fixedly provided with 2, or 3, or 4, or 6 four-stroke air-cooled crank connecting rod piston type single cylinder engine machine heads which are centrosymmetrically arranged, the central lines of the machine heads are positioned in the tangential direction of the tray, the heads and the tails of the machine heads are sequentially arranged in the clockwise direction, the machine heads arranged on the end surfaces on the two sides of the tray are in one-to-one correspondence with each other to form a double-row multi-cylinder rotor engine machine head assembly, each machine head is correspondingly matched with a piston rod rack, a reversing gear, a vertical rod rack, an oil and gas supply manifold, an air inlet leaf spring valve, a spark plug, an exhaust rotary valve, an exhaust manifold, a double-T-shaped rolling connecting rod, a connecting rod bearing and a shared elliptical track groove on the same side of a plurality of bearings, according to the matched structure, the two or three double-row multi-cylinder engine machine head assemblies are connected in, if the machine head is only arranged on one side of the tray, a machine head assembly of the single-row multi-cylinder rotary engine is formed, and the corresponding engine is correspondingly changed into a single-row multi-cylinder reciprocating piston type rotary engine, a double-row multi-cylinder reciprocating piston type rotary engine, a 4-row multi-cylinder reciprocating piston type rotary engine and a 6-row multi-cylinder reciprocating piston type rotary engine.
The front end of the main shaft is provided with a combustible gas mixing and mixing central hole, the depth of the combustible gas mixing and mixing central hole reaches the position of the machine head, radial through holes are formed in the end surfaces of the two sides of the machine head tray corresponding to the position of the machine head and communicated with the central hole, one end of an oil supply gas manifold is connected with the radial through holes, and the other end of the oil supply gas manifold is connected with an air inlet reed valve; a rotary sealing pipe joint is arranged at the front end of the main shaft, and is fixed on the inner wall of a central hole of an oil and gas supply hole by a pair of needle bearings, and a single-point electronic continuous oil sprayer and a gas supply vortex jet head are arranged in the rotary sealing pipe joint and are respectively communicated with an oil cylinder, an oil pump and a cylinder air pump; the oil-gas injection ratio, the oil-gas injection time and the oil-gas injection amount are controlled by an electronic control unit ECU.
On the outer cylindrical surface of the nose tray, a stainless steel exhaust centrifugal blade, an exhaust manifold, an arc hole with 1/4 circles at one end connected with the exhaust rotary valve and the other end extending to the middle of the exhaust centrifugal blade are arranged, the frame barrel wall corresponding to the exhaust phase is carved with an arc hole with the depth of 1/4 circles to put the exhaust funnel into the hole, the depth of the hole is half of the height of the exhaust centrifugal blade, and the lower end of the exhaust funnel is provided with an exhaust hole and an external silencing exhaust pipe.
The oil-gas spraying machine is characterized in that 8 through holes are formed in the middle circular rings of the left end cover and the right end cover of the rack, 4 oil-gas spraying heads are arranged on the upper portions of the end covers and extend into the rack, the oil-gas spraying heads are externally connected with a lubricating oil cylinder, an air cylinder, an oil pump and an air pump, and the oil spraying amount is controlled by an Electronic Control Unit (ECU).
The middle of the exhaust centrifugal blade on the cylindrical surface of the nose tray, corresponding to the position of the nose, and each nose are respectively provided with an ignition electrifying slide block and an exhaust electrifying slide block, the front part and the back part of the ignition electrifying slide block and the exhaust electrifying slide block are staggered in height, are not on the same circle, and the height of the ignition electrifying slide block and the exhaust electrifying slide block exceeds the exhaust centrifugal blade, are fixedly connected with the nose tray in an insulating way, and are respectively connected with the spark plug exhaust rotary; the ignition and exhaust phases corresponding to the ignition phase and the exhaust phase on the inner wall of the cylindrical frame are respectively provided with an ignition electrified slide rail and an electrified slide rail of an exhaust rotary valve, the ignition electrified slide rail and the electrified slide rail are in elastic insulation connection with the inner wall of the cylindrical frame and are connected with an external power supply through a lead, in the working process of the engine, the slide block and the slide rails can be in elastic pressure sliding contact and current connection, the spark plug ignites, and the exhaust rotary valve opens for exhaust.
The reciprocating piston type diesel rotor engine is an ignition system without a gasoline engine and is provided with a pipeline system which is respectively independent of gas supply and oil supply and is unique to a diesel engine; the front end of the main shaft is provided with a trident pipeline, the trident pipeline is formed by sleeving two pipes with different thicknesses, the trident pipeline is inserted into the central hole of the main shaft and is fixed on the inner wall of the central hole by a pair of needle bearings, the thin fork pipe is fixed on the inner wall of the thick fork pipe, the front end of the trident pipeline is connected with an air pipe, an air filter and an air pump, one end of an air supply manifold is connected with a radial through hole of the main shaft, the other end of the air supply manifold is connected with an air inlet reed valve on a machine head, and the front end of the thick fork pipe is connected with a; high-pressure diesel oil flows into a central hole of the main shaft through the pipeline, and the central hole becomes a high-pressure common rail of the machine head; one end of a diesel manifold is connected with a radial through hole on the main shaft, the other end of the diesel manifold is connected with a diesel injector on the machine head, the injector is connected with an electrified sliding block by a lead, the electrified sliding block is elastically and insulatively fixed on the phase position before the cylindrical surface ignition advance angle of a machine head tray, the phase position of the electrified sliding block can be adjusted front and back, the electrified sliding block is correspondingly arranged on the inner wall of the barrel-shaped frame, the electrified sliding rail is elastically and insulatively fixed and connected with the frame, the length and the phase position of the electrified sliding rail are adjustable, and the electrified sliding; when the power-on slide block of the oil sprayer rotates to the phase position in the process of starting and running of the engine, the oil sprayer is electrified in elastic sliding contact with the power-on slide rail, oil is sprayed by the oil sprayer automatically, oil mist is mixed with high-temperature and high-pressure air in the cylinder and expands by spontaneous combustion, and the machine head is pushed to drive the main shaft of the tray to rotate clockwise and output rotary power outwards.
Fourthly, beneficial effects
The invention has innovation and breakthrough on the whole structure, and carries out the replacement and reconstruction of the heart of the existing engine in a way of removing fetus and changing bones. The invention breaks through the structure of the reciprocating piston type of the crank connecting rod of the 'Otto' machine, breaks through the structure of the triangular piston rotary engine of the German Wankel doctor of the inventor of the talent, and independently creates a new machine type, so that all the defects caused by the structure of the existing engine are relieved or radically treated. The four-stroke mechanism has clear boundary line, smooth transition and stability, eliminates the upper and lower dead points of a crank-connecting rod transmission mechanism and the left and right swinging of a connecting rod, and the machine head tray drives the machine head to rotate in one direction all the time, so that two major hazards of high-speed reciprocating inertial impact vibration and torsional vibration, which are hidden dangers of equipment accidents, are thoroughly solved on the basis of the structural function principle, the old problem that scientists all over the world have headache for more than one hundred years is solved, and the service life of the machine can be effectively prolonged by removing the two vibrations. The method eliminates vibration and vibration noise pollution, is beneficial to environmental protection, is revolutionary technical innovation by replacing the traditional crank connecting rod transmission with the elliptic track groove double-T-shaped rolling connecting rod, is a technological progress which cannot be achieved, and has the greatest work that the structural principle of an internal combustion engine is liberated from the traditional Otto crank connecting rod reciprocating piston type, so that the regeneration is obtained, and the crank connecting rod reciprocating piston machine is changed into a reciprocating piston rotor machine.
The structural characteristics of the double-elliptic-track-groove double-T-shaped rolling connecting rod enable the main shaft to complete one-time four-stroke thermal power cycle working once after rotating one circle, and compared with the traditional crank connecting rod reciprocating piston engine which can complete one-time four-stroke thermal power cycle working once after rotating two circles by the main shaft, the working efficiency of the engine is improved by one time in an integral way.
The effective thermal efficiency is an important technical performance index of an engine for converting chemical energy of fuel into mechanical energy, the effective thermal efficiency of the existing engine is 20-30% of that of a gasoline engine, 30-40% of that of a diesel engine, and the highest value of a supercharged diesel engine is only 46% and is far less than 50%. Scientific technology is developed all the time, but the effective thermal efficiency of the engine cannot be improved continuously, and the 50% of the major factor cannot be broken through all the time. This is because the reciprocating piston type structure of the crank connecting rod of the current engine has limited digestion and absorption capacity in the process of function conversion, and can only convert less than 50% of energy into useful work. The rotor structure machine head cylinder is arranged in the tangential direction of the machine head tray, and can directly convert most of combustion expansion force into the rotary power of the main shaft except a small amount of heat transfer loss, so that the middle conversion link of a crankshaft is omitted, and the useless power loss caused by the left-right swinging of a connecting rod and the diagonal bracing is also eliminated. Therefore, the effective thermal efficiency of the engine can be greatly improved compared with the existing engine according to the theory, the fuel oil can be saved by more than 50%, the dynamic property can be doubled, and the engine can save energy and reduce the emission at the same time in the theory, which is a hard index determined by the structural principle.
The invention has simple structure, few parts and easy processing, removes not only a heavy crankshaft connecting rod flywheel mechanism, but also a complex gas distribution mechanism, has the number of the parts being 50 percent of that of the traditional engine with the same power, reduces the parts, and brings great benefits to the reduction of machine faults, the increase of working reliability and maintenance convenience and the reduction of manufacturing cost. The invention has few parts and is easy to process, suitable for mass production, and can be processed and manufactured in any engine plant without increasing equipment.
The invention has wide application and modification range, can be made into a gasoline rotor engine and a diesel rotor engine, can use various fuels, and has strong applicability. All advanced technologies of modern automobile engines can be grafted and checked into seats. This is also a hard technology determined by the structural principle.
And (VI) the rotating speed is high, the speed is increased quickly, and the acceleration is good. The rotor structure of the invention is very beneficial to improving the rotating speed: 1. the piston of the invention is subjected to pure straight line push-pull force in the cylinder, and does not have the connecting rod swinging left and right and inclined pull inclined strut, so the pressure to the cylinder wall is uniform all around, and deflection phenomenon does not exist, so after the speed is improved, the friction force is far not as large as that of a traditional engine, and the generated noise is lower; 2. the upper dead point and the lower dead point are not arranged and no vibration is generated in the working and running process; the machine head drives the tray and the main shaft to rotate only in one direction all the time, so that the speed is increased quickly and the acceleration is good; 3. the working efficiency is doubled; 4. the dynamic performance is doubled; 5. the invention replaces the traditional engine mushroom-shaped valve with the steam inlet reed valve steam exhaust rotary valve, which not only solves the problem that the valve inertia obstructs the air flow and the sealing problem of the air valve at high speed, but also solves the problems that the mushroom-shaped exhaust valve is easy to overheat and the sealing, lubrication, engine oil consumption and the like caused by the tempering phenomenon of the mushroom-shaped valve. The rotation speed is increased, which is very beneficial to improving the power of a single machine and speeding up transportation and military equipment. The rotor rotates in one direction all the time, and the machine head continuously and alternately works, so that the speed of the machine is high, the speed is fast, the acceleration is good, and the machine can greatly meet the modern needs of people and the needs of military skills, which is a hard technology determined by the structural principle.
And (seventhly), breaking through the ultra-high power limit. At present, the maximum value of the power of marine engines in the world is 48000PS, which is limited by the limitation that the weight is large, the weight of the 48000PS engine reaches 1700 tons, the weight is large, the manufacturing, the installation and the maintenance are difficult, in addition, the crankshaft is difficult to process, which is the bottleneck of the manufacturing of the engine with the super-high power, and in order to break through the technology, China collects the national technical power and costs billions of RMB, the power is finished in large-scale shipyards in the previous year.
The structure of the invention can easily break through the limit of high power. Compared with the traditional crank connecting rod piston engine with the same power, the weight of the invention is only half of the weight of the traditional crank connecting rod piston engine, so from the angle of the weight, the limit of 48000PS can be broken through by using the engine type of the invention, from the angle of the crankshaft processing technology, the invention does not use the crankshaft at all, the main shaft is cylindrical, the problem that more main shafts can be easily solved by using a ten thousand two thousand tons hydraulic press can be easily solved, and more importantly, the rotor structure of the invention can be connected in series in multiple stages, so that more favorable conditions are created for breaking through the 48000PS super large internal combustion engine, and the engine is a hard technology determined by the structural principle.
In conclusion, it is obvious that the invention is a new idea, a new starting point, strong innovation, novel and ingenious conception, brings out the best in combination, is scientific and reasonable, and successfully solves the structural principle of the fourth generation internal combustion engine, thereby opening up a new era of the forward development of the internal combustion engine, and leading the development of the world engine to be a new trend, so that the economic benefit and the social benefit of the invention are obvious and huge.
Description of the figures
FIG. 1 is a schematic structural diagram of a gasoline rotary engine of the present invention
FIG. 2 is a schematic diagram of the layout and transmission relationship of the head of a gasoline rotary engine on a tray
FIG. 3 is a schematic structural view of a rotary diesel engine according to the present invention
FIG. 4 is a schematic diagram of the layout and drive relationship of the diesel rotary engine head on the tray and the unique air supply and oil supply lines.
In the figure: the engine comprises a main shaft (1), an end cover (2) of a rack body of an oval track groove disc body, a double-T-shaped rolling connecting rod (3), a machine head tray (4), a change gear (5), a four-stroke air-cooled piston type single-cylinder engine machine head (6), a piston rod rack (7), a barrel-shaped machine shell (8), a combined bearing (9), a machine base (10), an oil pan (11), a cross rod (12), a vertical rod (13), a connecting rod bearing (14), an oval track groove (15), a vertical rod rack (16), an oil and gas supply manifold (17), a leaf spring valve (18), a spark plug (19), an exhaust rotary valve (20), a main shaft center hole (21), a radial through hole (22), a rotary pipe joint (23), a needle bearing (24), a single-point electronic oil injector (25), an air injector head (26), an exhaust centrifugal blade (27), the device comprises a silencing exhaust pipe (31), an end cover vent hole (32), an oil-gas spray head (33), an ignition electrifying slide block (34), an exhaust electrifying slide block (35), an ignition electrifying slide rail (36), an exhaust electrifying slide rail (37), a three-fork pipeline (38), a thin fork pipe (39), a thick fork pipe (40), an air supply manifold (41), a thin fork pipe radial through hole (42), a diesel manifold (43), a diesel injector (44), an injector electrifying slide block (45) and an injector electrifying slide rail (46).
Sixth, detailed description of the invention
The invention is a multi-row multi-cylinder machine type structure, the basis is a single-row multi-cylinder structure, the working process of the multi-row multi-cylinder is completely the same as that of the single-row multi-cylinder, and for convenience, simplicity and clarity of description, the following only describes the single-row working process. Referring to the drawing, the piston stroke S is defined as the ratio of (major axis-minor axis) ÷ 2 of the elliptical orbit slot, and the major axis of the elliptical orbit slot is vertically disposed, and is rotated clockwise as viewed from the major axis output end, with 0 ° at the lower vertex and 180 ° at the upper vertex. 90 ° and 270 ° are on the left and right. When the starter drives the main shaft (1) to rotate, the nose tray (4) is driven to rotate together, the double-T-shaped rolling connecting rod (3) is also driven to synchronously rotate, the connecting rod bearing (14) rolls in the elliptical track groove (15), and when the connecting rod bearing (14) continuously and alternately passes through the vertexes of the long shaft and the short shaft of the elliptical track groove (15), due to the thrust of the inner wall of the elliptical track groove (15), the alternate action of the pulling force of the outer wall is forced to do off-center reciprocating linear motion, so that the change gear is driven to do forward and reverse rotation, and the piston rod rack (7) is also driven to do linear reciprocating motion in the tangential direction of the nose tray (4). The piston is driven to do reciprocating linear motion in the cylinder, the main shaft (1) rotates for one circle, the piston does reciprocating motion twice in the cylinder just to complete the four-stroke heat power cycle once, the work is done once, when the first machine head completes the exhaust stroke of the four strokes, the second machine head immediately behind the first machine head calculates the ignited expansion work according to a single row of 4 cylinders, and then the work is done: the engine has the capability of continuously doing work and the starter is disengaged repeatedly. The specific working process is detailed as follows: 0-90 degrees, when the starter drives the main shaft (1) to rotate, the connecting rod shaft (14) starts to roll towards the direction of the vertex of the minor axis of the elliptical track groove (15) under the action of the pulling force of the outer wall of the elliptical track groove (15) from 0 degree of the lower vertex of the major axis of the elliptical track groove (15) to drive the vertical rod rack (16) to do centripetal linear motion, the change gear (5) is driven to rotate anticlockwise to drive the piston rod rack (7) to move towards the tail part of the machine head, the piston is pulled towards the tail part of the air cylinder at the same time, the straight vacancy appears in the air cylinder, the air inlet reed valve (18) is automatically opened, the air inlet stroke starts, and the; when the connecting rod bearing (14) passes through the vertex of the minor axis of the elliptic orbit groove with the angle of 90 degrees, the air inlet reed valve (18) is automatically closed when the piston is pulled to the farthest point at the tail part of the air cylinder by the piston rod rack (7), and the air inlet stroke is finished. From 90 degrees to 180 degrees, the connecting rod bearing (14) rolls towards the top of the long shaft of the elliptical track groove by the thrust of the inner wall of the elliptical track groove to drive the vertical rod rack (16) to do centrifugal straight motion and drive the change gear (5) to rotate clockwise to drive the piston rod rack (7) to move towards the top of the machine head, the piston is pushed towards the top of the machine head cylinder to compress the oil-gas mixture in the cylinder, when the connecting rod bearing (14) rolls to the top of the long shaft of the 180-degree elliptical track groove (15), the piston is pushed to the top of the cylinder, the compression stroke is finished, from 180 degrees to 270 degrees, when the connecting rod bearing (14) rolls to an ignition advance angle phase, the ignition slide block (34) is communicated with the ignition electrified slide rail (36) in sliding contact current, the spark plug (19) is ignited, the oil-gas mixture is combusted and expanded to do work, and the machine head tray (4, the main shaft (1) is driven to rotate clockwise, and the rotating power is output outwards. When the connecting rod bearing (14) rolls to the vertex of the short shaft of the elliptical track groove (15) by the pulling force of the outer wall of the elliptical track groove (15), the vertical rod rack (16) is driven to do centripetal linear motion, the change gear (5) is driven to rotate anticlockwise, the piston rod rack (7) is driven to move towards the tail of the machine head, when the connecting rod bearing (14) rolls to the vertex of the short shaft of the elliptical track groove (15) with the angle of 270 degrees, the piston is pulled to the farthest point at the tail of the air cylinder by the piston rod rack (7), and the expansion work stroke is finished. When the connecting rod bearing (14) rolls to an exhaust phase from 270 degrees to 360 degrees, the exhaust sliding block (35) is electrified, the exhaust rotary valve (20) is opened, the exhaust stroke begins, the connecting rod bearing (14) is pushed by the inner wall of the elliptical track groove (15) to drive the vertical rod rack (16) to do centrifugal linear motion, the change gear (5) is driven to rotate clockwise, the piston rod rack (7) is driven to move towards the top of the nose cylinder, the piston is pushed to the top of the cylinder, the exhaust stroke is finished, the exhaust rotary valve is closed, a thermal power cycle is completed, the work is done once, after the engine is ignited and started, the four-stroke thermal power cycle can be completely completed by means of self capacity, no external force is needed, the starter is separated, the work is stopped, and the engine begins a new working cycle and repeats.
Compared with the reciprocating piston type gasoline rotor engine, the reciprocating piston type diesel rotor engine has the difference that the oil-gas mixing of the gasoline engine is carried out outside a cylinder and is ignited; besides the diesel engine is mixed in the cylinder and is ignited by compression, the working processes of the two are completely the same and are not repeated.
Claims (8)
1. The reciprocating piston type rotor engine consists of: the engine comprises a main shaft (1), left and right symmetrical opposite elliptic track groove disc body frame end covers (2), a double-T-shaped rolling connecting rod (3), a machine head tray (4), a change gear (5), a traditional four-stroke air-cooled crank connecting rod piston type single-cylinder engine machine head (6), a piston rod rack (7) and a barrel-shaped frame (8); the main shaft (1) sequentially penetrates through the circle center of the left elliptic track groove disc body rack end cover (2), the circle center of the machine head tray (4) and the circle center of the right elliptic track groove disc body rack end cover (2) from left to right, so that three-center coaxiality is realized; the main shaft (1) is sequentially connected with a left elliptic track groove disc body rack end cover (2) through a combined bearing (9) in a centering and positioning mode, a machine head tray through a spline in a fixed connection mode, a right elliptic track groove disc body rack end cover through the combined bearing (9) in a centering and positioning mode, two ends of a rack (8) are fixed on a machine base (10), and an oil pan (11) is placed under the machine base.
2. A reciprocating piston rotary engine according to claim 1, characterized in that: the double-T-shaped rolling connecting rod (3) consists of a cross rod (12) and two vertical rods (13), the two vertical rods (13) are mutually parallel and vertically connected to the cross rod (12), the three rods are positioned on a plane, the cross rod (12) passes through a long hole on the handpiece tray (4), two bearings (14) are respectively arranged at two ends of the cross rod and are respectively inserted into two oval track grooves (15) which are symmetrical in the left-right direction, the two vertical rods (13) are fixedly connected with two vertical rod racks (16), the center line of the transmission mechanism is kept on a straight line and can pass through the circle center of the nose tray (4), the vertical rod rack (16) and the piston rod rack (7) to be simultaneously meshed with the turning gear (5), the two are staggered in height and do not interfere with each other in three-dimensional crossing in the air, the turning gear (5) is vertically fixed on the end surfaces of two sides of the nose tray (4) through a gear shaft and corresponds to each other to form a transmission mechanism with a rotating center radiating outwards.
3. A reciprocating piston rotary engine according to claim 1, characterized in that: two side surfaces of the nose tray (4) are respectively and fixedly provided with 2, 3, 4 or 6 four-stroke air-cooled crank connecting rod piston type single-cylinder engine noses (6) in central symmetry, the central lines of the noses are positioned in the tangential direction of the tray (4), the heads and the tails of the noses (6) are sequentially arranged in the clockwise direction, the noses (6) arranged on the end surfaces on the two sides of the tray (4) correspond to each other one by one to form a double-row multi-cylinder rotor engine nose assembly, each nose (6) is correspondingly matched with a piston rod rack (7), a change gear (5), a vertical rod rack (16), an oil and gas supply manifold (17), an air inlet leaf spring valve (18), a spark plug (19), an exhaust rotary valve (20), a double-T-shaped rolling connecting rod (3), a connecting rod bearing (14), and a plurality of bearings (14) share an elliptical track groove (15) on the same side, According to the matching structure, two or three double-row multi-cylinder engine head assemblies are connected in series to form a 4-row or 6-row multi-cylinder rotor engine head assembly, if the head (6) is installed on one side of the tray (4), a single-row multi-cylinder rotor engine head assembly is formed, and the corresponding engine is correspondingly changed into a single-row multi-cylinder reciprocating piston type rotor engine, a double-row multi-cylinder reciprocating piston type rotor engine, a 4-row multi-cylinder reciprocating piston type rotor engine and a 6-row multi-cylinder reciprocating piston type rotor engine.
4. A reciprocating piston rotary engine according to claim 1, characterized in that: the front end of the main shaft (1) is provided with a combustible gas mixing and gas center hole (21), the depth of the combustible gas mixing and gas center hole reaches the position of a machine head (6), two side end faces of a machine head tray (4) are provided with radial through holes (22) corresponding to the position of the machine head and are communicated with the center hole (21), one end of an oil and gas supply manifold (17) is connected with the radial through holes (22), the other end of the oil and gas supply manifold is connected with an air inlet reed valve (18), the front end of the main shaft (1) is provided with a rotary sealing pipe joint (23), a pair of needle bearings (24) are fixed on the inner wall of the oil and gas center hole (21), and a single-point electronic continuous oil injector (25) and an air supply vortex gas injection head (26), (25); the oil-gas injection ratio, the oil-gas injection time and the oil-gas injection amount are controlled by an electronic control unit ECU.
5. A reciprocating piston rotary engine according to claim 1, characterized in that: a stainless steel exhaust centrifugal blade (27) and an exhaust manifold (28) are arranged on the outer cylindrical surface of the handpiece tray (4), one end of the stainless steel exhaust centrifugal blade is connected with an exhaust rotary valve (20), the other end of the stainless steel exhaust centrifugal blade extends to the middle of the exhaust centrifugal blade (27), an 1/4 circular arc hole is carved on the wall of a rack barrel corresponding to an exhaust phase, an exhaust funnel (29) is arranged in the hole, the depth of the circular arc hole is half of the height of the exhaust centrifugal blade (27), and an exhaust prick (30) and an external silencing exhaust pipe (31) are arranged at the lower end of the exhaust funnel (29).
6. A reciprocating piston rotary engine according to claim 1, characterized in that: the oil-gas spraying machine is characterized in that 8 through holes (32) are drilled in a ring in the middle of a left end cover and a right end cover of the rack (8), 4 oil-gas spraying heads (33) are respectively arranged on the upper half part of each end cover and extend into the rack (8), the oil-gas spraying heads (33) are externally connected with a lubricating oil cylinder, an air cylinder and an air pump, and the oil spraying amount is controlled by an Electronic Control Unit (ECU).
7. A reciprocating piston rotary engine according to claim 1, characterized in that: the middle of the exhaust centrifugal blade (27) on the cylindrical surface of the nose tray (4) and corresponding to the orientation of the nose, each nose is respectively provided with an ignition energizing slide block (34) and an exhaust energizing slide block (35), the front part and the back part of the two are staggered, are not at the same height and are not at the same circle, the self height of the two exceeds the exhaust centrifugal blade (27), the two are fixedly connected with the nose tray (4) in an insulating way, are respectively connected with the exhaust rotary valve (20) of the spark plug (19) by leads, and are respectively provided with an ignition energizing slide rail (36) and an energizing slide rail (37) of the exhaust rotary valve (20) corresponding to the ignition phase and the exhaust phase on the inner wall of the cylindrical rack (8), and are elastically connected with the inner wall of the cylindrical rack (8) in an insulating way and are connected with an external power supply by leads, and in the working process of the engine, the slide blocks and the slide rails, The current is switched on.
8. A reciprocating piston rotary engine according to claim 1, characterized in that: the engine not only can be made into a reciprocating piston type gasoline rotor engine, but also can be made into a reciprocating piston type diesel rotor engine, and is characterized in that: an ignition system of the gasoline engine is removed, and a pipeline system which is unique to the diesel engine and is used for supplying gas and oil is respectively independent; the front end of a main shaft (1) is provided with a three-fork pipeline (38), the three-fork pipeline is formed by sleeving two pipes with different thicknesses, the three-fork pipeline is inserted into a central hole (21) of the main shaft (1), and is fixed on the inner wall of the central hole (21) by a pair of needle bearings, a thin fork pipe (39) is fixed on the inner wall of a thick fork pipe (40), the front end of the thin fork pipe is connected with an air pipe, an air filter and an air pump, one end of an air supply manifold (41) is connected with a radial through hole (42) of the thin fork pipe, the other end of the air supply manifold is connected with an air inlet leaf spring valve (18) on a machine head (6), and the front end of the thick fork pipe (40) is connected with; high-pressure diesel oil flows into a central hole (21) of the main shaft (1) through the pipeline, and the central hole (21) becomes a high-pressure common rail of the machine head (6); one end of a diesel manifold (43) is connected with a radial through hole (22) on the main shaft (1), the other end of the diesel manifold is connected with a diesel injector (44) on the machine head (6), the injector (44) is connected with an electrifying slide block (45) by a lead, the electrifying slide block (45) is elastically and insulatively fixed on the phase position before the ignition advance angle of the cylindrical surface of the machine head tray (4), the phase position of the electrifying slide block can be adjusted front and back, the electrifying slide block is correspondingly arranged on the inner wall of the barrel-shaped machine frame (8), the electrifying slide rail (46) is elastically and insulatively fixed and connected with the machine frame, the length and the phase position of the electrifying slide rail can; when the power-on sliding block (45) of the oil sprayer rotates to the phase position in the process of engine starting operation, the oil sprayer is electrified in elastic sliding contact with the power-on sliding rail (46) and automatically sprays oil by the oil sprayer (44), and oil mist is mixed with high-temperature and high-pressure air in the cylinder, is spontaneously combusted and expanded to push the machine head to drive the main shaft (1) of the tray (4) to rotate clockwise and output rotary power outwards.
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CN107304710A (en) * | 2016-04-18 | 2017-10-31 | 方保林 | Reciprocating-piston rotary engine |
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DE19500854A1 (en) * | 1994-01-21 | 1995-07-27 | Franz Seidl | Stroke piston machine with at least one piston-cylinder arrangement |
JPH10339158A (en) * | 1997-06-04 | 1998-12-22 | Yoshihiro Ishikawa | Rotary type internal combustion engine |
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