Abstract: Inductive electrostatic and magnetostatic forces produce a forced heterolysis or heterolytic fusion of common proton donors, which causes a rapid cleaving of electrons and separation predominately free hydrogen protons. This and other processes result in the construction of a monoclinic proton saturated lattice formed of a measurable concentration of protons, which is packaged in the form of a proton-rich ionic fluid (PRIF). The PRIF contains groups of protons in a chained polymer format. These processes result in a radical decrease of overall activation energy, and exponentially increase the conductivity and potential energy stored in the PRIF when use on its own but also when mixed with other fuels.

Abstract: A variety of AC current sources provide a controlled amount of AC output current even as a particular load may at times approach zero resistance. These AC current sources can be plugged into conventional power outlets, e.g. 60 Hz (USA) and 50 Hz (European). The AC current sources can tolerate a near-short or full-short circuit load for a brief time, without disabling itself or tripping any safety-interrupt. This is achieved by an architecture that achieves the peculiar electrical requirements needed for specific chemical reforming processes, such as vaporization of an ionic fluid. One purpose of the AC current sources is to reform a customized proton-rich ionic fluid.

Abstract: A Proton Rich Ionic Fluid (PRIF) is used as a carrying fluid and stabilizer for multiple common elements such as Carbon, Silicon, Sodium, Vanadium, Nitrogen, Sulfur and other common alkyl metals. These common elements will be carried inside common materials such as urea (CO(NH2), silicon dioxide, coal, graphite, glass and common salts such as sodium chloride, lithium hydroxide, and others. Each of the materials can be dissolved in the PRIF. Further, the solubility of these materials will help prove the stability and density of free protons obtained from the PRIF.

Abstract: Refinement of asphaltene products (e.g. roof shingles) derived either from synthetic usages as well as naturally occurring crude oil in formation that has asphaltene content, is disclosed. The refinement has no need for any energy to be applied, in contrast with methods that produce pyrolytic oil from shingles. The refinement with PRIF derives a certain amount oil per ton of asphaltene product pyrolyzed and, how much by products can also be cleanly recycled, and how each of those constituents can be reused in the multiple ways. A pyrolytic oil-separation process but doing so while consuming minimal energy is disclosed. One intent is remanufacturing asphalt based products back into their natural constituents.

Abstract: A system and method for converting a common hydrogen-based input fluid into an proton-rich ionic fluid (PRIF) comprising an overabundance of hydrogen H1+ protons is disclosed. This conversion occurs in the absence of elevated temperatures or pressures, so that the resulting output fluid is suitable for shipping or storage at Standard Temperature and Pressure (STP). Some practical usages for the PRIF include 1) AMMONIA MANUFACTURING WITHOUT HABER-BOSCH; 2) CRUDE OIL IMPROVEMENT (API LIFT); 3) MOLECULAR ENHANCEMENT OF HYDROCARBON; and 4) DESULFURIZATION (distillate upgrade).

Abstract: Various embodiments and methods of operation and configuring of power converters for providing a controlled amount of AC output current even as a particular load may at times approach zero resistance are disclosed. The power converters are configured to tolerate a near-short or full-short circuit load for a brief time, without disabling or tripping any safety-interrupts. The various embodiments are configured to achieve electrical requirements needed for specific chemical reforming processes, such as vaporization of an ionic fluid. The various embodiments unlocks electrolysis using AC power, thereby enabling AC electrolysis in common fluids.

Abstract: Various embodiments and methods of operation and configuring of power converters for providing a controlled amount of AC output current even as a particular load may at times approach zero resistance are disclosed. The power converters are configured to tolerate a near-short or full-short circuit load for a brief time, without disabling or tripping any safety-interrupts. The various embodiments are configured to achieve electrical requirements needed for specific chemical reforming processes, such as vaporization of an ionic fluid. The various embodiments unlocks electrolysis using AC power, thereby enabling AC electrolysis in common fluids.

Abstract: A variety of AC current sources provide a controlled amount of AC output current even as a particular load may at times approach zero resistance. These AC current sources can be plugged into conventional power outlets, e.g. 60 Hz (USA) and 50 Hz (European). The AC current sources can tolerate a near-short or full-short circuit load for a brief time, without disabling itself or tripping any safety-interrupt. This is achieved by an architecture that achieves the peculiar electrical requirements needed for specific chemical reforming processes, such as vaporization of an ionic fluid. One purpose of the AC current sources is to reform a customized proton-rich ionic fluid.

Abstract: Various embodiments and methods of operation and configuring of power converters for providing a controlled amount of AC output current even as a particular load may at times approach zero resistance are disclosed. The power converters are configured to tolerate a near-short or full-short circuit load for a brief time, without disabling or tripping any safety-interrupts. The various embodiments are configured to achieve electrical requirements needed for specific chemical reforming processes, such as vaporization of an ionic fluid. The various embodiments unlocks electrolysis using AC power, thereby enabling AC electrolysis in common fluids.

Abstract: A system and method for converting a common hydrogen-based input fluid into an output fluid comprising an overabundance of hydrogen H1 atoms is disclosed. This conversion occurs in the absence of elevated temperatures or pressures, so that the resulting output fluid is suitable for shipping or storage at Standard Temperature and Pressure (STP). A vaporizer system and method for transforming the output fluid into H2 gas is also disclosed.

Abstract: A system and method for converting a common hydrogen-based input fluid into an output fluid comprising an overabundance of hydrogen H1 atoms is disclosed. This conversion occurs in the absence of elevated temperatures or pressures, so that the resulting output fluid is suitable for shipping or storage at Standard Temperature and Pressure (STP). A vaporizer system and method for transforming the output fluid into H2 gas is also disclosed.

Abstract: Methods and compositions applied to proppants and/or nanites in order to reduce the microorganisms in fracking wells are disclosed.

Abstract: Methods and compositions applied to proppants and/or nanites in order to reduce the microorganisms in fracking wells are disclosed.

Abstract: Methods and compositions applied to proppants and/or nanites in order to reduce the microorganisms in fracking wells are disclosed.

Abstract: Methods and compositions applied to proppants and/or nanites in order to reduce the microorganisms in fracking wells are disclosed.