Catalytic combustion surfaces and method for creating catalytic combustion surfaces
AssigneeDiesel Engine Transformations LLC
InventorsLionel M. Gillston, Ronald P. Pacitti, Richard D. Pacitti
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AssigneeDiesel Engine Transformations LLC
InventorsLionel M. Gillston, Ronald P. Pacitti, Richard D. Pacitti
Estimating the term…
A coating and coating process to improve the efficiency of hydrocarbon fueled engines, wherein the coating includes a high percentage of nickel to create a reaction which improves the combustion efficiency of the hydrocarbon fuel. The coating may also include chromium, iron, and other constituents and is applied to combustion surfaces with a sufficient bonding strength to allow the coating to function in the combustion chamber, while providing a surface having sufficient surface roughness to promote the chemical reaction underlying the combustion efficiency improvement. The nickel causes a catalytic cracking reaction to ease the combustibility of hydrocarbon molecules in the fuel.
An internal combustion engine having at least one reciprocating component, a bore within which the at least one reciprocating component reciprocates, and a closure over one end of the bore associated with the at least one reciprocating component, said reciprocating component having at least one combustion face, said combustion face defining a combustion face area, said reciprocating component further reciprocating relative to the closure and having a position at which the combustion face is at a closest point to the closure, wherein a combustion volume within which an air/fuel mixture is combusted is defined at least in part by the combustion thee of the reciprocating component, and a surface of the closure, wherein at least a portion of the surfaces which define the combustion volume are coated with a substantially homogenous metallic coating comprising between greater than 15% and about 80% nickel and between about 10% and about 40% chromium such that when the combustion face is at the position at which the combustion face is at a closest point to the closure, the coating covers an area of the combustion surfaces at least as large as approximately 10% of the area of the combustion face, and further wherein said coating is exposed to combustion gases.
An internal combustion engine having reduced particulate matter emissions, said internal combustion engine having a combustion volume and a reciprocating piston, the reciprocating piston having a combustion face, the combustion engine further baying a combustion volume, wherein the combustion volume is bounded by combustion surfaces, said combustion surfaces including the combustion face of the reciprocating piston;
A coated head for an internal combustion engine, said coated head comprising a pocket for closing a bore in an internal combustion engine, wherein said pocket has a surface which is exposed to combustion gases, at least a portion of said surface being coated with a substantially homogenous coating which comprises between greater than 15% and about 80% nickel and between about 10% and about 80% iron.
A coated piston for an internal combustion engine, said coated piston having a piston face, said piston face for being exposed to combustion gases, at least a portion of said piston face being coated with a substantially homogenous coating which comprises between greater than 15% and about 80% nickel and between about 10% and about 40% chromium.
A valve for use in association wit an internal combustion engine, said valve having a valve face, said valve free being exposed to combustion gases when said valve is installed in an operating internal combustion engine, wherein said valve face is at least partially coated with a substantially homogenous coating comprising between greater than 15% and about 80% nickel and between about 10% and about 40% chromium.
A closure for a bore of an internal combustion engine, said closure for use in association with an internal combustion engine, said closure having a surface which is exposed to combustion during operation of the internal combustion engine, said surface being at least partially coated with a substantially homogenous metallic composition comprising between greater than 15% and about 80% nickel and between about 10% and about 40% chromium.
In a diesel fuel powered internal combustion engine, wherein the internal combustion engine comprises at least one cylinder having a combustion chamber, a method of reducing the particulate emissions from the internal combustion engine comprising:
In an internal combustion engine fueled at least in part by dimethyl ether, wherein the internal combustion engine comprises at least one cylinder having a combustion chamber, a method of reducing hydrocarbon emissions from the internal combustion engine comprising:
An internal combustion engine having at least one reciprocating component, a bore within which the at least one reciprocating component reciprocates, and a closure over one end of the bore associated with the at least one reciprocating component, said reciprocating component having at least one combustion face, said combustion face defining a combustion face area, said reciprocating component further reciprocating relative to the closure and having a position at which the combustion face is at a closest point to the closure, wherein a combustion volume within which an air/fuel mixture is combusted is defined at least in part by the combustion face of the reciprocating component, and a surface of the closure, wherein at least a portion of the surfaces which define the combustion volume are coated with a substantially homogenous metallic coating comprising between greater than 15% and about 80% nickel, between, about 10% and about 40% chromium and between about 10% and about 80% iron, such that when the combustion face is at the position at which the combustion face is at a closest point to the closure, the coating covers an area of the closure at least as large as 10% of the area of the combustion face, said coating being in operable contact with combustion gases.
An internal combustion engine according to claim 44, wherein the coating has an outer surface, said outer surface facing the combustion volume, and wherein the outer surface of the coating has a surface roughness of between about 200 RMS and 300 RMS.
A method for fabricating a reduced emissions diesel engine component, wherein said component toxins a combustion surface for a diesel engine and wherein a portion of said component which forms a combustion surface has inadequate material to meet design geometry, comprising the steps of
An internal combustion engine having at least one reciprocating component, a bore within which the at least one reciprocating component reciprocates, and a closure over one end of the bore associated with the at least one reciprocating component, said reciprocating component having at least one combustion face, said combustion face defining a combustion face area, said reciprocating component further reciprocating relative to the closure and having a position at which the combustion face is at a closest point to the closure, wherein a combustion volume within which an air/fuel mixture is combusted is defined at least in part by the combustion face of the reciprocating component, and a surface of the closure, wherein at least a portion of the surfaces which define the combustion volume are coated with a substantially homogenous metallic coating comprising between greater than 15% and about 80% nickel end between about 10% and about 40% chromium such that when the combustion face is at the position at which the combustion face is at a closest point to the closure, the coating covers an area of the combustion surfaces at least as large as approximately 10% of the area of the combustion face, and further wherein said coating is exposed to combustion gases.
A coated head for an internal combustion engine, said coated head comprising a pocket for closing a bore in an internal combustion engine, wherein said pocket has a surface which is exposed to combustion gases, at least a portion of said surface being coated with a substantially homogenous coating which comprises between greater than 15% and about 80% nickel and between about 10% and about 80% iron.
A coated piston for an internal combustion engine, said coated piston having a piston face, said piston face for being exposed to combustion gases, at least a portion of said piston face being coated with a substantially homogenous coating which comprises between greater than 15% and about 80% nickel and between about 10% and about 80% iron.
A valve for use in association with an internal combustion engine, said valve having a valve face, said valve face being exposed to combustion gases when said valve is installed in an operating internal combustion engine, wherein said valve face is at least partially coated with a substantially homogenous coating comprising between greater than 15% and about 80% nickel and between about 10% and about 80% iron.
A closure for a bore of an internal combustion engine, said closure for use in association with an internal combustion engine, said closure having a surface which is exposed to combustion during operation of the internal combustion engine, said surface being at least partially coated wit a substantially homogenous metallic composition comprising between greater than 15% and about 80% nickel and between about 10% and about 80% iron.
In a diesel fuel powered internal combustion engine, wherein the internal combustion engine comprises at least one cylinder having a combustion chamber, a method of reducing the particulate emissions from the internal combustion engine comprising:
In an internal combustion engine fueled at least in part by dimethyl ether, wherein the internal combustion engine comprises at least one cylinder having a combustion chamber, a method of reducing hydrocarbon emissions from the internal combustion engine comprising:
Dependencies are inferred from the claim text.