WO2019132799A2 - New-generation engine construct which provides fuel conservation and high power - Google Patents
New-generation engine construct which provides fuel conservation and high power Download PDFInfo
- Publication number
- WO2019132799A2 WO2019132799A2 PCT/TR2018/050075 TR2018050075W WO2019132799A2 WO 2019132799 A2 WO2019132799 A2 WO 2019132799A2 TR 2018050075 W TR2018050075 W TR 2018050075W WO 2019132799 A2 WO2019132799 A2 WO 2019132799A2
- Authority
- WO
- WIPO (PCT)
- Prior art keywords
- wall
- piston
- engine
- movement
- gear
- Prior art date
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Classifications
-
- 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
- F02B75/16—Engines characterised by number of cylinders, e.g. single-cylinder engines
- F02B75/18—Multi-cylinder engines
- F02B75/24—Multi-cylinder engines with cylinders arranged oppositely relative to main shaft and of "flat" type
-
- F—MECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
- F01—MACHINES OR ENGINES IN GENERAL; ENGINE PLANTS IN GENERAL; STEAM ENGINES
- F01B—MACHINES OR ENGINES, IN GENERAL OR OF POSITIVE-DISPLACEMENT TYPE, e.g. STEAM ENGINES
- F01B1/00—Reciprocating-piston machines or engines characterised by number or relative disposition of cylinders or by being built-up from separate cylinder-crankcase elements
- F01B1/08—Reciprocating-piston machines or engines characterised by number or relative disposition of cylinders or by being built-up from separate cylinder-crankcase elements with cylinders arranged oppositely relative to main shaft and of "flat" type
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- F—MECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
- F01—MACHINES OR ENGINES IN GENERAL; ENGINE PLANTS IN GENERAL; STEAM ENGINES
- F01B—MACHINES OR ENGINES, IN GENERAL OR OF POSITIVE-DISPLACEMENT TYPE, e.g. STEAM ENGINES
- F01B9/00—Reciprocating-piston machines or engines characterised by connections between pistons and main shafts and not specific to preceding groups
- F01B9/04—Reciprocating-piston machines or engines characterised by connections between pistons and main shafts and not specific to preceding groups with rotary main shaft other than crankshaft
- F01B9/047—Reciprocating-piston machines or engines characterised by connections between pistons and main shafts and not specific to preceding groups with rotary main shaft other than crankshaft with rack and pinion
-
- 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
- F02B75/32—Engines characterised by connections between pistons and main shafts and not specific to preceding main groups
Definitions
- the invention relates to a new-generation engine construct which provides fuel conservation and high power.
- Internal combustion engines rely on the movement of the part referred to as the piston by pressure which occurs as a result of burning fuel in a limited space in the engine referred to as the combustion chamber. It is possible to classify internal combustion engines based on fuel type: Otto engines (petrol engines), Diesel engines, and Seilinger engines (partly similar to Otto engines and partly similar to Diesel engines).
- crank of the internal combustion engine receives the initial acceleration with the engine start as a result of suction, compression, combustion, and exhaust steps, and turns the linear movement of the piston in the cylinder into rotational movement through the connecting rod.
- This engine type is widely used today.
- crankshaft is the part which allows for converting the linear movement from the piston to rotational movement.
- the linear driving force from the piston or pistons contacts with protrusions of different shapes on the crankshaft to obtain the rotational movement.
- crankshafts All engines in the prior art use crankshafts. Although the crankshaft produces the entire rotational movement in the engine, it has certain disadvantages.
- crankshaft The primary disadvantage of the crankshaft is the necessity to produce it with flawless workmanship. It must be cast as a single piece in a way that it will not cause friction. This makes the crankshaft the most expensive part of the engine. As such, the crankshaft is the most significant part which determines the cost of the engine.
- crankshaft Another disadvantage of the crankshaft is the friction that occurs during the rotation and the consequent loss of power. This loss of power increases fuel consumption, while decreasing the performance of the vehicle.
- the present invention relates to a new-generation engine construct which responds to all above mentioned needs, eliminates all disadvantages, and offers some additional advantages.
- the primary purpose of the invention is to offer a more powerful, smaller, and more efficient engine.
- Another purpose of the invention is the transmission of the linear movement which occurs as a result of the combustion of the chemical-air mixture to the shaft as rotational movement.
- This feature is directly related with fuel conservation.
- the engine in question allows for producing high power, while ensuring low fuel consumption.
- Another purpose of the invention is to ensure lower carbon dioxide and carbon monoxide emission. Carbon dioxide and carbon monoxide emission will be lower since it is directly proportional to fuel consumption.
- Another purpose of the invention is to ensure smaller dimensions. Compared to engines in the prior art, it will occupy much smaller space. This will allow for a lower vehicle weight and smaller space occupied by the engine within the hood. Decreasing the space occupied by the engine within the hood will allow for easier work in cases such as repair or replacement, thereby decreasing the time spent.
- Another purpose of the invention is to allow for a higher number of pistons.
- the engine in question requires at least two pistons; however, the number can be increased in multiples of two such as 4, 5, 8, 10, or 12.
- Another purpose of the invention is to decrease the amount of power wasted for pistons, which is a problem encountered in engines with more than two pistons, thereby increasing the power output.
- engines which contain a crankshaft and 4 or more pistons are not connected with a single shaft, which leads to compression of one piston when the other piston springs. This causes the engine waste power for every other piston.
- the invention will decrease the amount of fuel used by solving above mentioned problems and adding features which improve the engine efficiency. This will ensure lower petrol consumption and decreased dependency on petrol.
- the invention may be used in automobiles, provide a solution to engine-related needs in military technology, vehicles used in agricultural applications, and similar fields.
- the invention may also be used in various machines that depend on an engine.
- the new-generation engine which is the subject of this patent application, may essentially be used in every field where internal combustion engines are used to provide rotational movement.
- Figure 1 The image which represents the“new-generation engine construct which provides fuel conservation and high power” (1 ).
- Figure 2 The image represents a“new-generation engine construct which provides fuel conservation and high power” (1 ) which contains 4 pistons (4).
- Figure 3 The image represents a“new-generation engine construct which provides fuel conservation and high power” (1 ) which contains 8 pistons (4).
- Figure 4 The first of the image series which represent how the“new-generation engine construct which provides fuel conservation and high power” (1 ) works.
- Figure 5 The second of the image series which represent how the“new-generation engine construct which provides fuel conservation and high power” (1 ) works.
- the engine (1 ) is composed of:
- the gear (3) which contains at least one protrusion 2 (3.1 ) which matches up to protrusion 1 (2.1 ) and at least one indent 2 (3.2) which matches up to indent 1 (2.2),
- At least two pistons (4) one at each end of the wall (2) which receives the pushing movement and transmits the movement from one piston (4) to the other piston (4),
- the wall (2) is a part which surrounds the gear (3) and contains a piston (4) at each end. Both ends of the wall (2) are designed in a way that they will contact with the gear’s (3) surface which does not contain indent 2 (3.2) and protrusion 2 (3.1 ). Parallel sides of the wall (2) allows for the gear’s (3) movement from one end to the other end. Parallel sides of the wall (2) which face each other contain at least one protrusion 1 (2.2) and at least one indent 1 (2.2).
- the gear (3) contains at least one indent 2 (3.2) and at least one protrusion 2 (3.1 ). A part of the gear’s (3) surface does not contain indent 2 (3.2) and protrusion 2 (3.1 ).
- the gear (3) allows for turning linear movement into rotational movement.
- a piston (4) is located at each end of the wall (2). The pistons (4) move the wall (2) upon combustion. The wall’s (2) movement from the direction of one piston (4) to the direction of the other piston (4) compresses the piston (4) on the receiving end.
- the spring (5) balances and slows down the pushing movement performed by the pistons (4).
- the spring (5) can be position at different points in the invention.
- the shaft (6) is the part to which the movement is transmitted.
- the shaft (6) allows for obtaining rotational movement.
- the engine (1 ) works as follows:
- the combustion of the fuel-air mixture coming from valves pushes one of the pistons (4).
- the wall (2) moves from the direction of one piston (4) to the direction of the other piston (4).
- the wall’s (2) movement from one side to the other triggers the rotational movement of the gear (3).
- the gear’s (3) travel from one side to the other is 180 degrees.
- the rotational movement of the gear (3) is provided by the contact of protrusion 2 (3.1 ) and indent 2 (3.2) positioned on the gear with indent 1 (2.2) and protrusion 1 (2.1 ) positioned on the wall (2) With each movement of the wall (2), indent 1 (2.2) and protrusion 2 (2.1 ) positioned on the wall (2) and protrusion 2 (3.1 ) and indent 2 (3.2) positioned on the gear (3) are displaced. This allows for the movement of the gear (3) to turn the linear movement transmitted to the wall (2) by the piston (4) into rotational movement. At the same time, the linear movement of the wall (2) creates pressure on the spring (6), compresses the piston (4), and causes bursting.
- the combustion of the fuel-air mixture coming from valves pushes one of the pistons (4).
- the wall (2) moves from the direction of one piston (4) to the direction of the other piston (4).
- the wall’s (2) movement from one side to the other triggers the rotational movement of the gear (3).
- the gear’s (3) travel from one side to the other is 180 degrees.
- the rotational movement of the gear (3) is provided by the contact of protrusion 2 (3.1 ) and indent 2 (3.2) positioned on the gear with indent 1 (2.2) and protrusion 1 (2.1 ) positioned on the wall (2) With each movement of the wall (2), indent 1 (2.2) and protrusion 2 (2.1 ) positioned on the wall (2) and protrusion 2 (3.1 ) and indent 2 (3.2) positioned on the gear (3) are displaced. This allows for the movement of the gear (3) to turn the linear movement transmitted to the wall (2) by the piston (4) into rotational movement. At the same time, the linear movement of the wall (2) creates pressure on the spring (6), compresses the piston (4), and causes bursting.
- the piston (4) moves to the other direction upon bursting and a pushing action occurs once again.
- the constant pushing action of the pistons (4) occurs in a reciprocative manner.
- the fourth piston (4) is compressed while the first one is bursting. Meanwhile, it compresses the second piston (4) in the opposite side; however, the second piston (4) exhausts at this time.
- the fourth piston (4) bursts, the second piston (4) is compressed, and the first piston (4) exhausts.
- the engine (1 ) works in a four-stroke manner.
Abstract
The invention relates to an engine which provides fuel conservation and high power, and consists of the following elements; the wall (2) which surrounds the gear (3) and contains at least one protrusion 1 (2.1) and at least one indent 1 (2.2); the circular gear (3) which contains at least one protrusion 2 (3.1) which matches up to protrusion 1 (2.1) and at least one indent 2 (3.2) which matches up to indent 1 (2.2); the pistons (4) on each end of the wall (2), at least one spring (5) adjacent to each piston (4) which balances and slows down the pushing movement of the pistons (4); the shaft (6) which receives the rotational movement after the gear (2) turns the linear movement coming from the pistons (4) into rotational movement.
Description
NEW-GENERATION ENGINE CONSTRUCT WHICH PROVIDES FUEL
CONSERVATION AND HIGH POWER
Technical Field
The invention relates to a new-generation engine construct which provides fuel conservation and high power.
Prior Art
Following their invention, internal combustion engines have shown a very rapid development and secured a very significant position in the industry. Internal combustion engines usually use petrol products as energy resource. This has led to a search for both alternative energy resources and achieving low fuel consumption and high performance characteristics thanks to advancements in technology.
Internal combustion engines rely on the movement of the part referred to as the piston by pressure which occurs as a result of burning fuel in a limited space in the engine referred to as the combustion chamber. It is possible to classify internal combustion engines based on fuel type: Otto engines (petrol engines), Diesel engines, and Seilinger engines (partly similar to Otto engines and partly similar to Diesel engines).
In the prior art, the crank of the internal combustion engine receives the initial acceleration with the engine start as a result of suction, compression, combustion, and exhaust steps, and turns the linear movement of the piston in the cylinder into rotational movement through the connecting rod. This engine type is widely used today.
In the engine type specified above, clean air is sucked into the intake air duct and the fuel is injected from the fuel injection nozzle, which is located at the end of the intake air duct, and the cylinder is filled with fuel-air mixture. An almost homogeneous fuel-
air mixture is compressed in the uppermost part of the cylinder, which is referred to as the combustion chamber, and ignited by the sparking plug. Upon ignition, the cylinder rapidly expands and in parallel with this expansion, the piston is pushed down, and the crank-connecting rod mechanism connected to the piston is activated. The connecting rod is also known as the piston rod. The crankshaft is a shaft which provides the momentum necessary for the vehicle’s movement. The connecting rod mechanism connected to the piston transmits the linear movement that it receives from the piston to the crankshaft as rotational movement. The crankshaft is connected to the transmission, and allows for adjusting the power transmitted to wheels.
In the prior art, the crankshaft is the part which allows for converting the linear movement from the piston to rotational movement. The linear driving force from the piston or pistons contacts with protrusions of different shapes on the crankshaft to obtain the rotational movement.
All engines in the prior art use crankshafts. Although the crankshaft produces the entire rotational movement in the engine, it has certain disadvantages.
The primary disadvantage of the crankshaft is the necessity to produce it with flawless workmanship. It must be cast as a single piece in a way that it will not cause friction. This makes the crankshaft the most expensive part of the engine. As such, the crankshaft is the most significant part which determines the cost of the engine.
Another disadvantage of the crankshaft is the friction that occurs during the rotation and the consequent loss of power. This loss of power increases fuel consumption, while decreasing the performance of the vehicle.
Another issue in the prior art is high friction and the fact that the mixture consisting of chemicals and air combusted in the engine cannot transmit all of the movement. Only 20% to 30% of the movement can be transmitted.
Therefore, it is necessary to create a new-generation engine construct due to above mentioned disadvantages and inadequacy of solutions for existing problems.
Short Description of The Invention
The present invention relates to a new-generation engine construct which responds to all above mentioned needs, eliminates all disadvantages, and offers some additional advantages.
The primary purpose of the invention is to offer a more powerful, smaller, and more efficient engine.
Another purpose of the invention is the transmission of the linear movement which occurs as a result of the combustion of the chemical-air mixture to the shaft as rotational movement.
This feature is directly related with fuel conservation. The engine in question allows for producing high power, while ensuring low fuel consumption.
Another purpose of the invention is to ensure lower carbon dioxide and carbon monoxide emission. Carbon dioxide and carbon monoxide emission will be lower since it is directly proportional to fuel consumption.
Another purpose of the invention is to ensure smaller dimensions. Compared to engines in the prior art, it will occupy much smaller space. This will allow for a lower vehicle weight and smaller space occupied by the engine within the hood. Decreasing the space occupied by the engine within the hood will allow for easier work in cases such as repair or replacement, thereby decreasing the time spent.
Another purpose of the invention is to allow for a higher number of pistons. The engine in question requires at least two pistons; however, the number can be increased in multiples of two such as 4, 5, 8, 10, or 12.
Another purpose of the invention is to decrease the amount of power wasted for pistons, which is a problem encountered in engines with more than two pistons, thereby increasing the power output. In the prior art, engines which contain a crankshaft and 4 or more pistons are not connected with a single shaft, which leads
to compression of one piston when the other piston springs. This causes the engine waste power for every other piston.
The invention will decrease the amount of fuel used by solving above mentioned problems and adding features which improve the engine efficiency. This will ensure lower petrol consumption and decreased dependency on petrol.
We believe that the engine explained in this patent application will contribute to the world economy, and if it replaces low-efficiency engines which contribute to the global warming problem, it will decrease the negative effects caused by engines in the prior art.
The Implementation of The Invention to The Industry
The invention may be used in automobiles, provide a solution to engine-related needs in military technology, vehicles used in agricultural applications, and similar fields. The invention may also be used in various machines that depend on an engine.
The new-generation engine, which is the subject of this patent application, may essentially be used in every field where internal combustion engines are used to provide rotational movement.
Various implementations may be developed within the framework of its basic principles. However, it cannot be limited to uses mentioned in the descriptions. The invention is essentially as specified under the claims.
The figures given below and the detailed description with references to the figures will allow for better understanding structural and characteristic properties and all advantages of the invention. Thus, the assessment should be made considering the figures and the detailed description.
Descriptions Related to The Drawings
The“new-generation engine construct which provides fuel conservation and high power”, which is the subject of this patent application, is shown in the drawings as follows:
Figure 1 : The image which represents the“new-generation engine construct which provides fuel conservation and high power” (1 ).
Figure 2: The image represents a“new-generation engine construct which provides fuel conservation and high power” (1 ) which contains 4 pistons (4).
Figure 3: The image represents a“new-generation engine construct which provides fuel conservation and high power” (1 ) which contains 8 pistons (4).
Figure 4: The first of the image series which represent how the“new-generation engine construct which provides fuel conservation and high power” (1 ) works.
Figure 5: The second of the image series which represent how the“new-generation engine construct which provides fuel conservation and high power” (1 ) works.
The drawings must be scaled. Details which are not necessary to understand the present invention may have been neglected. In addition, elements which are similar at least to a large extent or elements which have similar functions at least to a large extent are represented with the same number.
Description of The References in The Drawings
Elements in The Drawings
1. Engine
2. Wall
2.1 Protrusion 1
2.2lndent 1
3. Gear
3.1 Protrusion 2
3.2lndent 2
4. Piston
5. Spring
6. Shaft
Process Steps in The Drawings
101. The 1 st step 108. The 8th step
which shows how the engine which shows how the engine works works
102. The 2nd step 109. The 9th step
which shows how the engine which shows how the engine works works
103. The 3rd step 110. The 10th step
which shows how the engine which shows how the engine works works
104. The 4th step 111. The 11 th step
which shows how the engine which shows how the engine works works
105. The 5th step 112. The 12th step
which shows how the engine which shows how the engine works works
106. The 6th step 113. The 13th step
which shows how the engine which shows how the engine works works
107. The 7th step 114. The 14th step
which shows how the engine which shows how the engine works works
Detailed Description of The Invention
In this detailed description,“the new-generation engine construct which provides fuel conservation and high power” is described only to ensure a better understanding of the subject and without causing any limiting effects.
The engine (1 ) is composed of:
• The wall (2) which surrounds the gear (3) and contains at least one protrusion 1 (2.1 ) and at least one indent 1 (2.2),
• The gear (3) which contains at least one protrusion 2 (3.1 ) which matches up to protrusion 1 (2.1 ) and at least one indent 2 (3.2) which matches up to indent 1 (2.2),
• At least two pistons (4), one at each end of the wall (2) which receives the pushing movement and transmits the movement from one piston (4) to the other piston (4),
• At least one spring (5) adjacent to each piston (4) which balances the pushing movement performed by the piston (4),
• The shaft (6) which receives the rotational movement transmitted by the gear (3) and the wall (2) after turning the linear movement coming from the piston (6) into rotational movement.
The wall (2) is a part which surrounds the gear (3) and contains a piston (4) at each end. Both ends of the wall (2) are designed in a way that they will contact with the gear’s (3) surface which does not contain indent 2 (3.2) and protrusion 2 (3.1 ). Parallel sides of the wall (2) allows for the gear’s (3) movement from one end to the other end. Parallel sides of the wall (2) which face each other contain at least one protrusion 1 (2.2) and at least one indent 1 (2.2).
The gear (3) contains at least one indent 2 (3.2) and at least one protrusion 2 (3.1 ). A part of the gear’s (3) surface does not contain indent 2 (3.2) and protrusion 2 (3.1 ). The gear (3) allows for turning linear movement into rotational movement.
A piston (4) is located at each end of the wall (2). The pistons (4) move the wall (2) upon combustion. The wall’s (2) movement from the direction of one piston (4) to the direction of the other piston (4) compresses the piston (4) on the receiving end.
The spring (5) balances and slows down the pushing movement performed by the pistons (4). The spring (5) can be position at different points in the invention.
The shaft (6) is the part to which the movement is transmitted. The shaft (6) allows for obtaining rotational movement.
The engine (1 ) works as follows:
If the engine (1 ) has two pistons (4) as in Figure 1 :
The combustion of the fuel-air mixture coming from valves pushes one of the pistons (4). When one of the pistons (4) is pushed, the wall (2) moves from the direction of one piston (4) to the direction of the other piston (4). The wall’s (2) movement from one side to the other triggers the rotational movement of the gear (3). The gear’s (3) travel from one side to the other is 180 degrees. The rotational movement of the gear (3) is provided by the contact of protrusion 2 (3.1 ) and indent 2 (3.2) positioned on the gear with indent 1 (2.2) and protrusion 1 (2.1 ) positioned on the wall (2) With each movement of the wall (2), indent 1 (2.2) and protrusion 2 (2.1 ) positioned on the wall (2) and protrusion 2 (3.1 ) and indent 2 (3.2) positioned on the gear (3) are displaced. This allows for the movement of the gear (3) to turn the linear movement transmitted to the wall (2) by the piston (4) into rotational movement. At the same time, the linear movement of the wall (2) creates pressure on the spring (6), compresses the piston (4), and causes bursting. The piston (4) moves to the other direction upon bursting and a pushing action occurs once again. Thus, the constant pushing action of the pistons (4) occurs in a reciprocative manner. This linear movement turns into rotational movement by the 180 degree movement of the gear (3) from the direction of one piston (4) to the direction of the other. A complete lap of 360 degrees is completed two 180 degree movements of the gear (3) from the direction of one piston (4) to the direction of the other, which continues in a constant
manner. Unlike the crankshaft, this system transmits almost all of the linear movement to the shaft (6), which is its most significant advantage.
If the engine (1 ) has four or more pistons (4) as shown in Figure 2 and Figure 3:
The combustion of the fuel-air mixture coming from valves pushes one of the pistons (4). When one of the pistons (4) is pushed, the wall (2) moves from the direction of one piston (4) to the direction of the other piston (4). The wall’s (2) movement from one side to the other triggers the rotational movement of the gear (3). The gear’s (3) travel from one side to the other is 180 degrees. The rotational movement of the gear (3) is provided by the contact of protrusion 2 (3.1 ) and indent 2 (3.2) positioned on the gear with indent 1 (2.2) and protrusion 1 (2.1 ) positioned on the wall (2) With each movement of the wall (2), indent 1 (2.2) and protrusion 2 (2.1 ) positioned on the wall (2) and protrusion 2 (3.1 ) and indent 2 (3.2) positioned on the gear (3) are displaced. This allows for the movement of the gear (3) to turn the linear movement transmitted to the wall (2) by the piston (4) into rotational movement. At the same time, the linear movement of the wall (2) creates pressure on the spring (6), compresses the piston (4), and causes bursting. The piston (4) moves to the other direction upon bursting and a pushing action occurs once again. Thus, the constant pushing action of the pistons (4) occurs in a reciprocative manner. If the engine (1 ) contains 4 or more pistons (4), the fourth piston (4) is compressed while the first one is bursting. Meanwhile, it compresses the second piston (4) in the opposite side; however, the second piston (4) exhausts at this time. When the fourth piston (4) bursts, the second piston (4) is compressed, and the first piston (4) exhausts. Thus, the engine (1 ) works in a four-stroke manner.
The operational method of the engine can be described as follows:
• The combustion of the fuel-air mixture coming from valves pushes one of the pistons (4),
• When one of the pistons (4) is pushed, the wall (2) moves from the direction of one piston (4) to the direction of the other piston (4),
• With each movement of the wall (2), indent 1 (2.2) and protrusion 2 (2.1 ) positioned on the wall (2) and protrusion 2 (3.1 ) and indent 2 (3.2) positioned
on the gear (3) are displaced, and the wall’s (2) movement from one side to the other triggers the rotational movement of the gear (3),
• The linear movement of the wall (2) creates pressure on the spring (6), compresses the piston (4), and causes bursting,
• The bursting action on the side of the compressed piston (4) causes it to move to the other direction,
• With each movement of the wall (2), indent 1 (2.2) and protrusion 2 (2.1 ) positioned on the wall (2) and protrusion 2 (3.1 ) and indent 2 (3.2) positioned on the gear (3) are displaced, and the wall’s (2) movement from one side to the other triggers the rotational movement of the gear (3),
• These movements are repeated continuously, and a rotational movement is obtained on the shaft (6).
Claims
1. The invention relates to and engine (1 ) which provides fuel conservation and high power, and its features include:
• The wall (2) which surrounds the gear (3) and contains at least one protrusion 1 (2.1 ) and at least one indent 1 (2.2),
• The gear (3) which contains at least one protrusion 2 (3.1 ) which matches up to protrusion 1 (2.1 ) and at least one indent 2 (3.2) which matches up to indent 1 (2.2),
• At least two pistons (4), one at each end of the wall (2) which receives the pushing movement and transmits the movement from one piston (4) to the other piston (4),
• At least one spring (5) adjacent to each piston (4) which balances the pushing movement performed by the piston (4),
2. In line with Claim 1 , the feature of the engine (1) is that it contains a shaft (6) which receives the rotational movement transmitted by the gear (3) and the wall (2) after turning the linear movement coming from the piston (6) into rotational movement.
3. In line with Claim 1 , the feature of the engine (1) is that it contains a wall (2) which is the part that surrounds the gear (3) and contains a piston (4) at each end.
4. In line with Claim 1 , the feature of the engine (1) is that it contains a wall (2) both ends of which are designed in a way that they will contact with the gear’s (3) surface which does not contain indent 2 (3.2) and protrusion 2 (3.1 ).
5. In line with Claim 1 , the feature of the engine (1) is that it contains a wall (2) parallel sides of which face each other contain at least one protrusion 1 (2.2) and at least one indent 1 (2.2).
6. In line with Claim 1 , the feature of the engine (1) is that it contains a gear (3) which contains at least one indent 2 (3.2) and at least one protrusion 3.1 (3).
7. In line with Claim 1 , the feature of the engine (1) is that it contains at least 2 pistons (4) at each side of the wall (2).
8. In line with Claim 1 , the feature of the engine (1) is that it contains springs (6) which balance and slow down the pushing movement performed by the pistons (4).
9. The invention relates to and engine (1 ) which provides fuel conservation and high power, and it functions as follows:
• The combustion of the fuel-air mixture coming from valves pushes one of the pistons (4),
• When one of the pistons (4) is pushed, the wall (2) moves from the direction of one piston (4) to the direction of the other piston (4),
• With each movement of the wall (2), indent 1 (2.2) and protrusion 2 (2.1 ) positioned on the wall (2) and protrusion 2 (3.1 ) and indent 2 (3.2) positioned on the gear (3) are displaced, and the wall’s (2) movement from one side to the other triggers the rotational movement of the gear (3),
• The linear movement of the wall (2) creates pressure on the spring (6), compresses the piston (4), and causes bursting,
• The bursting action on the side of the compressed piston (4) causes it to move to the other direction,
• With each movement of the wall (2), indent 1 (2.2) and protrusion 2 (2.1 ) positioned on the wall (2) and protrusion 2 (3.1 ) and indent 2 (3.2) positioned on the gear (3) are displaced, and the wall’s (2) movement from one side to the other triggers the rotational movement of the gear (3),
• These movements are repeated continuously, and a rotational movement is obtained on the shaft (6).
Applications Claiming Priority (2)
Application Number | Priority Date | Filing Date | Title |
---|---|---|---|
TR2017/22681 | 2017-12-28 | ||
TR2017/22681A TR201722681A2 (en) | 2017-12-28 | 2017-12-28 | FUEL SAVING AND HIGH-POWER BUILDING A NEW GENERATION ENGINE |
Publications (2)
Publication Number | Publication Date |
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WO2019132799A2 true WO2019132799A2 (en) | 2019-07-04 |
WO2019132799A3 WO2019132799A3 (en) | 2019-10-03 |
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Family Applications (1)
Application Number | Title | Priority Date | Filing Date |
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PCT/TR2018/050075 WO2019132799A2 (en) | 2017-12-28 | 2018-03-02 | New-generation engine construct which provides fuel conservation and high power |
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TR (1) | TR201722681A2 (en) |
WO (1) | WO2019132799A2 (en) |
Family Cites Families (6)
Publication number | Priority date | Publication date | Assignee | Title |
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US1316437A (en) * | 1919-09-16 | Back and pinion mechanism fob engines | ||
US3971296A (en) * | 1974-09-18 | 1976-07-27 | Kelor Limited | Pneumatic actuators |
FR2525785A1 (en) * | 1982-04-21 | 1983-10-28 | Snecma | Split rack assembly for play-free pinion drive - uses spring-loaded sliding rack housed in main rack to maintain teeth in contact with pinion |
CN2376542Y (en) * | 1999-04-28 | 2000-05-03 | 潘林明 | Gear mechanism transmission internal combustion engine |
CN204476561U (en) * | 2015-03-27 | 2015-07-15 | 董均敏 | Twin-tub straight-bar rushes formula internal-combustion engine mutually |
CN104832613A (en) * | 2015-04-10 | 2015-08-12 | 潘济安 | Inner gearing type gear rack power transmission mechanism |
-
2017
- 2017-12-28 TR TR2017/22681A patent/TR201722681A2/en unknown
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2018
- 2018-03-02 WO PCT/TR2018/050075 patent/WO2019132799A2/en active Application Filing
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WO2019132799A3 (en) | 2019-10-03 |
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