Waste.net
Reduction & Oxidation Reactions
REDOX Energy
Charging & Discharging Modes
REDOX Energy

Charging Mode & Discharging Modes

Discharging Mode thumbnail       Charging Mode thumbnail

REDOX Reaction Bond Energy

REDOX Energy - Overview
REDOX Energy is based upon the fundamental chemical bonding reactions of the Oxidation reaction and the Reduction reaction of a veriaty of basic elemental materials.

An electron energy transfer occures when chemical bonds are formed or brocken in a redox reaction. The movement of electrons creates a potential charge differance which may be harvested as REDOX energy.

The development of a REDOX Reactor mechonisum may allow for selective controlled charging/discharging modes or oxidation/reduction reactions.

REDOX Flow Batteries are designed for energy extraction from liquid electrolytes and Fuel Cells are well suited to gaseous reactions, REDOX Reactors may also be adapted towards solid particulate materials.

Charging Mode - Reduction

Charging Mode
Charging Mode overview - Reduction
In a REDOX Reduction reaction, a complex oxide molecule is split in order to free the oxegen from the basic element. The pure basic element than exists in a higher potenial energy state and is ready and available to be rebonded or oxidized.
This reduction process may be viewed as a charging process and requires the input of energy in the form of electricity or heat or some combination of both.

Displacement Reactions
In a Displacement reaction the oxegen bond swaps places between two basic elements, reducing one element into a pure form and the other element that forms an oxegen bond to form a complex oxide molecule.

Discharging Mode - Oxidation

Discharging Mode
Discharging Mode overview - Oxidation
When pure elements form a complex bond this process is refered to as oxidation. When an oxidation reaction occures, energy is released as free electrons, typicaly in the form of heat or electricity. This discharged energy may be harnessed into usefull work if contained in a properly designed harvesting mechonisum.

Energy harvested from REDOX Reactors may qualify as a primary heat source, adiquate for the Thermal Reduction Pyrolysis requirerments to decompose incomming wastestreams into the Recovery 2/0 system.

REDOX Reactor High Heat Zone (1,000°C-1,500°C) harvestable yeilds may also be adiquate to power a Carbonate reduction kiln sufficent to regenerate in the oxide/hydroxide cycle.

calcium oxide production (quick lime)

REDOX Reactors
The development of Conversion Flow Cells that can act as a REDOX Reactor to accomodate any combination of solid, liquid or gasious feedstock materials would allow for maximum flexability.

The evolution of custom REDOX Reactors for the conversion of highly corrosive, Hydrometallurgical acid solutions may provide for an envronmentaly sustainable and energy efficent method of metals recovery & refining.


Conversion Flow Cells
Flow Battery           Conversion Flow Cells           Fuel Cells
Cascading Effect

Symbiotic Benefits
The implementation of Flow Cells for the Conversion of resources from a broad range of wastestreams may provide some extraordinary Symbiotic Benefits.
During the procedure of refining or processing of waste materials to obtain a yield of the recovered recyclable commodities, a unique opportunity presents itself to harvest energy directly from the specific properties of the waste material being handled and from the process used.

Typical Process Cycles
Flow Cell
Implementation Opportunities

Mixed HydroCarbons Pipeline
PCS # 001 - Carbon Based Waststream Pyrolysis
PCS # 002 - Pyrolysis Syngas / Biogas
PCS # 003 - Renewable Natural Gas (RNG)
PCS # 003 - Methane Pyrolysis

CO2 Cycle Pipeline
PCS # 001 - CO2 Cycle
PCS # 002 - CO2 Recovery Stages
PCS # 003 - Solid Carbon Recovery

Water/Steam Pipeline
PCS # 001 - Brine & Waste Water
PCS # 002 - Steam Energy Harvesting
PCS # 003 - Condensing Modules
PCS # 004 - Hydro/Water Regeneration Cycle
PCS # 005 - Clean Water Output

Compressed Air Pipeline
PCS # 001 - Compressed Air
PCS # 002 - Compressed Air Expansion Cooling
PCS # 003 - Pumped Heat Energy Storage

Energy Harvesting
PCS # 001 - Light Energy Harvesting
PCS # 002 - Thermal Energy Harvesting
PCS # 003 - Electromagnetic Induction
PCS # 004 - ElectroStatic Triboelectric Energy
PCS # 005 - Sound/Pressure & Vibration Piezoelectric Energy
PCS # 006 - RF - Radio Frequency Energy
PCS # 007 - Electrochemical Cells
PCS # 008 - Direct to Electricity
PCS # 009 - Air Flow Systems
PCS # 009 - Hybrid Energy Systems

Metals & Minerals Recovery
RDP # 001 - Calcium Cycle
RDP # 002 - Oxide Reduction/Displacement
RDP # 003 - Molten Media Extraction
RDP # 004 - Hydrometallurgy Acid Extraction
RDP # 005 - Mineral Salts
RDP # 006 - REDOX Reactors


Harvesting Cube

Exothermic Energy Extraction       Oxidation/Reduction & Displacement       Cascading Effect

REDOX Energy       Molten Media Extraction       Sorption/Desorption Cycles
default
Recovery & Energy Process

Energy Harvesting Modules

Separation Methods       Recovery & Energy Process

Conversion Flow Cells       Electrochemical Cells

Velocity, Acceleration & Motion       Gradient Energy
default
Recovery 2.0 Fundamentals
Basic Reference Tables & Charts

Reactivity Series

Seebeck Co-Efficient       Harvesting Range

Standard Temperature Classifications

Volumetric Expansion Ratio       ElectroStatic - Triboelectric

recovery2.0
Recovery 2.0

WebMaster FeedBack       Actions & Positions       Home

Cooksmill NetSystems
Saturday, 10-May-2025 15:04:27 EDT - 278
Waste.net is part of the Cooksmill NetSystem network of websites