Goal
Produce a renewable, low-emission synthetic fuel from inexpensive feedstocks with an energy return that exceeds the energy input.
Problem
Dependence on petroleum fuels, high emissions (CO, NOx, unburned hydrocarbons) from conventional fuels, phase-separation issues in ethanol-gasoline blends, and high energy cost of fuel production.
Concept Summary
The invention uses electroplating currents to polymerise a mixture of water, vegetable oil, methanol and activator chemicals into macromolecular colloids, followed by two distillations, to create an alcohol-type fuel. A related embodiment combines methanol, butanol, naptha (or other heavy hydrocarbons) with magnesium laurel salts as a colloidal stabiliser, producing a range of fuels (gasoline extender, diesel, heating oil, aviation fuel) with high oxygen content and reduced emissions.
Detailed Description
In the first approach, 80-90 % water is mixed with soybean oil, methanol and a small amount of activator chemicals; electroplating current induces the formation of macromolecules/colloids, after which the mixture is distilled twice to yield a fuel with an energy content of ~85 000 BTU / gallon. The process reportedly returns 3 BTU of fuel energy for each BTU of electricity consumed. In the second approach (US 4300912), methanol, butanol and a heavy hydrocarbon (naptha, kerosene-type oil, vegetable oil, etc.) are combined with magnesium laurel salts, heated to ~300 deg F, and condensed to produce a stable synthetic fuel that can be blended with gasoline or used alone. The fuel's high oxygen content lowers the stoichiometric air-to-fuel ratio, reducing NOx, CO and unburned hydrocarbons, and the colloidal stabiliser prevents phase separation.
Principles
- Electroplating / electrochemical synthesis
- Colloidal chemistry
- Distillation
- Macromolecular polymerisation
- Catalytic stabilisation
Scientific Domains
Materials
- water
- soybean oil
- vegetable oil
- methanol
- activator chemicals
- magnesium laurel salts
- naptha
- butanol
- kerosene-type oil
Mechanisms of Action
- Electrochemical formation of macromolecular colloids
- Colloidal stabilisation with magnesium laurel salts
- Thermal distillation to separate and purify fuel
- High oxygen content improving combustion efficiency
Energy Sources
Applications
- Automotive fuel extender
- Diesel fuel
- Home heating oil
- Aviation fuel
Claimed Performance
Energy conversion ratio of 3 BTU fuel per BTU electricity; fuel energy content 85 000 BTU / gallon (~=200 proof alcohol); production cost < $0.40 / gallon; 6000 gal per day from a $50 k facility; reduced CO, NOx and unburned hydrocarbons in engine exhaust.
Experimental Evidence
Laboratory batches (12 L) produced fuel, some perfect, others reverted to water; a 25 % blend with gasoline tested in a conventional automobile engine showed substantial emission reductions; a tank-car-scale production claim of 6000 gal per day was made, but stability issues were reported.
Limitations
- Batch instability - some batches revert to water
- Requires specialised electroplating equipment
- Exact composition of activator chemicals not disclosed
- Scale-up data limited
Red Flags
- Overunity claim (3 BTU back per BTU input)
- Lack of peer-reviewed data or independent replication
- Potential safety concerns with large-scale electroplating
