Hydrocarbon Pipeline

H/C Pipeline       Hydrocarbon Splitting       CO2 Splitting
Microwave Catalyst Splitting       Material Recovery Yields
Mixed Waste to HydroCarbon Pathway       NEXT
Flow Cell Implementation Opportunities

Expandable Bladders for Gas Storage

hydrocarbon cycle

HydroCarbon Recovery Cycle
Typical steps in a HydroCarbon Recovery System

Solid Particulate Filtration
Water Vapor Extraction       CO2 Recovery
Hydrocarbon Splitting
CO2 Recovery


Mixed Waste to HydroCarbon Pathway

residual_waste_pathway

dirty_raw_biogas       syngas_combustion_fuel

methane_synthysis       methane_pyrolysis

Hydrocarbon Wastes - CO2 Byproduct Valorization
The thermal reduction of mixed waste streams that may be converted into recovered carbon and hydrogen commodity feedstocks is the aim of the Recovery 2.0 process cycle.
In the first of a number of process cycle steps the wastes are thermally converted into a raw biogas fraction and a solids fraction. The Biogas fraction is then cleaned and conditioned in order to produce a intermediate syngas product.
The syngas may be upgraded into segregated Hydrogen and CO2 streams or may be oxy-combusted into a captured and contained Carbon Dioxide CO2 stream and Waster/Steam fraction.

The CO2 stream may be blended with recovered Hydrogen H2 in a methane synthesis process to produce a stream of CH4 referred to as Renewable Natural Gas (RNG). The RNG stream may be sold as an output product or may be used as a feedstock for a Methane Pyrolysis process.
In a Methane Pyrolysis step RNG may be converted into Hydrogen H2 and Solid Recovered Carbon C2. The Solid Recovered Carbon products are a primary output product.

The Hydrogen may be regenerated into the methane synthesis process in order to sequester or fix additional continuous volumes of CO2 into solid recovered carbon. Any surplus Hydrogen may be sold as an output product.

Syngas Oxidation System       Methane Synthesis Reactor

CO2 Splitting

Syngas or synthesis gas       hydrocarbon pyrolysis splitting

CO2 Splitting

Hydrogen Generators

Hydrocarbon Pipeline

Expandable Bladder Gas Storage

Temporary Gas Storage Buffer
An expandable bladder system may be used for temporary storage of low pressure gas and may act as a flexible buffer between the generation and consumption steps in the Recovery 2.0 process.
Expandable Gas Bags may be designed to fit any dimension in order to take advantage and efficiently fill void spaces.
Forced Collapsible bags may act as a pump to evacuate the gas as and when desired.

Expandable Bladder Gas Storage may be used to accommodate a number of segregated or mixed gases.
Air - Bio Lung
O2 - Oxygen
H2 - Hydrogen
CO2 - Carbon Dioxide
CH4 - RNG Renewable Natural Gas (Methane)
Syngas mixed gas (H2, CO, CO2)

N Nitrogen - Ammonia NH3
Halogens - Bromine, Chlorine, Fluorine, and Iodine


Material Recovery Yields
Average Recovery Yield by Waste Stream Type

Material Recovery Yields

Mixed Plastic Waste       MSW Solid Recovered Fuel

Wood, Paper & Biomass       Food & Organic Wastes

Hydrogen Recovery Yields       Carbon Recovery Yields

Pipelines       Working Fluids
Monday, 21-Apr-2025 22:03:24 EDT - 891
Hydrocarbons       Water/Steam       CO2       Compressed Air
Electrochemical Cells

Exothermic Energy Extraction       Oxidation/Reduction & Displacement       Cascading Effect

REDOX Energy       Molten Media Extraction       Recovery of Metals from acid solutions Hydrometallurgy
Sorption/Desorption Cycles       Gas Expansion Cooling System

helium       nitrogen       lithium
hydrogen       carbon       oxygen       sulphur

recovery2.0