Eden Innovations Ltd.

Eden Energy Ltd.

Gregory Howard Solomon

Zhonghua Zhu

Gaoqing Max Lu

Allan Godsk Larsen

Byron Stanley Villacorta Hernandez

Rowan Wayne Truss

Jiuling Chen

Justin Fulton

Roger W Marmaro

Shawn Meredith

Christopher Flatley Abatelli

Robert Cavaliero

Xuegang Tang

Zhonghua John Zhu

A method for fabricating carbon nanoparticle polymer matrix composites includes the steps of: providing a nanoparticle mixture that includes carbon nanoparticles (CNPs), mixing the nanoparticle mixture and a plastic substrate into a homogenous (CNP)/polymer mixture having an interconnected network of carbon nanoparticles (CNPs); and irradiating the (CNP)/polymer mixture with electromagnetic radiation controlled to form a polymer composite and uniformly consolidate and/or interfacially bond the carbon nanoparticles (CNPs) into the polymer matrix.

Method for fabricating carbon nanoparticle polymer matrix composites using electromagnetic irradiation

A nanostructured material includes carbon nanoparticles (CNPs), such as carbon nanotube particles (CNTs) or carbon nanofiber particles (CNFs), intercalated by intercalation nanoparticles (INPs), such as halloysite nanoparticles (HNPs), in a base material, such as a polymer. A method for making the nanostructured material includes the steps of: providing a mixture of carbon nanoparticles (CNPs) having a selected composition; providing intercalation nanoparticles (INPs) configured to intercalate the carbon nanoparticles (CNPs); intercalating the carbon nanoparticles (CNPs) by mixing the intercalation nanoparticles (INPs) in a selected CNP:HNP ratio to form an intercalated material; and combining the intercalated material in a base material in a selected concentration with the base material providing a matrix for the intercalated material.

Nanostructured materials having intercalated carbon nanoparticles

An admixture for concrete includes at least two different types of nanocarbon particles in a water/surfactant mixture having a predetermined percentage range by mass of the admixture. The admixture also includes surfactant and can include a nano-silica based suspension stabilizer having a predetermined percentage range by mass of the admixture.

Nanocarbon particle admixtures for concrete

A method for making an admixture in liquid form for concrete includes the step of providing a nanocarbon mixture containing at least two different types of nanocarbon particles, with each type of nanocarbon particle having a predetermined percentage range by mass of the admixture, crushing or grinding the nanocarbon mixture into a carbon powder, and wetting and mixing the carbon powder in a water/surfactant mixture using high energy mixing apparatus. The method can also include blending the nanocarbon mixture with a nano-silica based compound, either before or after the wetting and mixing step. An admixture for concrete includes at least two different types of nanocarbon particles in a water/surfactant mixture having a predetermined percentage range by mass of the admixture. The admixture also includes surfactant and can include a nano-silica based suspension stabilizer having a predetermined percentage range by mass of the admixture.

Methods and systems for making nanocarbon particle admixtures and concrete

A method for making a nanostructured material includes the steps of: providing a mixture of carbon nanoparticles (CNPs) having a selected composition; providing intercalation nanoparticles (INPs) configured to intercalate the carbon nanoparticles (CNPs); intercalating the carbon nanoparticles (CNPs) by mixing the intercalation nanoparticles (INPs) in a selected CNP:HNP ratio to form an intercalated material; and combining the intercalated material in a base material in a selected concentration with the base material providing a matrix for the intercalated material.

Methods for making nanostructured materials using intercalation of carbon nanoparticles

A method for producing a hydrogen enriched fuel and carbon nanotubes includes the steps of providing a flow of methane gas, and providing a catalyst mixture comprising a Fe based catalyst and carbon. The method also includes the steps of pretreating the catalyst mixture using microwave irradiation and exposure to CH, heating the catalyst mixture and the methane gas using microwave irradiation at a selected microwave power, directing the flow of methane gas over the catalyst mixture, and controlling the microwave power to produce a product gas having a selected composition and the carbon nanotubes. For producing multi walled carbon nanotubes (MWNTs) only a flow of methane gas into the reactor is required. For producing single walled carbon nanotubes (SWNTs), a combination of hydrogen gas and methane gas into the reactor is required.

Method for producing a hydrogen enriched fuel and carbon nanotubes using microwave assisted methane decomposition on catalyst

A method for producing a hydrogen enriched fuel includes the steps of providing a flow of methane gas, and providing a catalyst. The method also includes the steps of heating the catalyst instead of the reactor walls and the methane gas using microwave irradiation at a selected microwave power, directing the flow of methane gas over the catalyst, and controlling the microwave power to produce a product gas having a selected composition. A system for producing a hydrogen enriched fuel includes a methane gas source, a reactor containing a catalyst, and a microwave power source configured to heat the catalyst.

Method and system for producing a hydrogen enriched fuel using microwave assisted methane decomposition on catalyst

A method for producing a hydrogen enriched fuel includes the steps of providing a flow of methane gas at a selected flow rate, providing a catalyst, producing a methane plasma at a negative pressure using microwave irradiation at a selected microwave power, directing the methane plasma over the catalyst, and controlling the flow of methane gas and the microwave power to produce a product gas having a selected composition. A system for producing a hydrogen enriched fuel includes a methane gas source, a reactor having a reaction chamber containing a catalyst, a microwave power source configured to form a methane plasma, and a vacuum pump configured to maintain the reaction chamber at a negative pressure.

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Cottesloe, Australia

Gregory Howard Solomon