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Wernimont, Eric John

Eric John Wernimont

Mark Christopher Ventura

Scott E Meyer

A method, apparatus and composition for safe energy delivery down hole resulting in increased recovery of subterranean hydrocarbons. The method utilizes, for example, the reaction of non-alkane fuels and selective oxidizers which are non-selective toward alkane chemical compounds. The method further utilizes an acid solution reaction with aforementioned reaction for elimination of any insoluble products of reaction permitting flow within formation strata. The energy released in the subterranean reaction is utilized to heat the production tubing, the wellbore, the formation or the formation hydrocarbons thereby lowering fluid viscosity and permitting greater flow especially for heavy oils, asphaltene deposits and/or paraffin deposits. Further, safe delivery of oxidizers can be accomplished without limit on depth as the selective oxidizer may be delivered to point of use down hole as most all formations of interest contain primarily alkane hydrocarbons and will not react with the non-alkane selective oxidizer.

Method, apparatus, and composition for increased recovery of hydrocarbons by paraffin and asphaltene control from reaction of fuels and selective oxidizers in the subterranean environment

A method, apparatus and composition are described for a payload delivery system capable of moving a radioactive high level waste payload from the Earth to being captured by the Sun. The payload delivery system comprises a rocket system capable of being carried and launched from an aircraft. The rocket system has at least one stage that utilizes one and only one propellant being a single liquid propellant and a final stage that utilizes pneumatic cannon driven by the final stage combustion or ullage gases to propel the radioactive high level waste payload toward the Sun.

Method, apparatus and composition for a payload delivery system for delivery of radioactive high level waste payloads to sun storage

A method, device and composition for achieving ignition and sustained combustion using a solid consumable catalytic bed (CCB) is described. The CCB accomplishes this by decomposition of an injected fluid. Initially this reaction is catalytic or hypergolic in nature, eventually becoming entirely thermal as the CCB is consumed in the reaction generated. The CCB may be placed in a hybrid motor system such that the decomposed injected fluid will undergo combustion with the solid grain. When the injected fluid is high concentration hydrogen peroxide the catalytic materials of construction for the CCB are selected from the metallic hydride family, the manganese oxide family and the cuprocyanide family.

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Oceanside, CA, United States of America

Eric John Wernimont