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Whilst emissions from
other sectors are generally static or falling, the emissions from the
transport sector in the UK and Ireland are rising.
Against this background of rising emissions and rising costs, Enersol has three effective and important products which can help mitigate pollution and reduce both fuel consumption and costs.
Calorific Value Enhancement is the term given to a technology which delivers constant pulses of low-level magnetic energy to hydrocarbon fuels in liquid and gaseous form. The advantages of magnetic energy to fuels such as diesel and kerosene have been known for many years: the earliest reference we have found is Chinese fishing vessels in the 1920's. Famously, magnets were bolted to the fuel supply lines on Lancaster bombers and escort fighters during WWII in order to extend their range. Whilst a very modest improvement in range could mean the difference between getting home or ditching in the sea to a bomber crew, the improvements in economy afforded by fixed, 'bolt on' style magnets with a constant, static field have been all but irrelevant since the war. Numerous 'gadgets' with their attendant and often ridiculous claims have come and gone with some regularity since the fifties, with a notable resurgence in such products during the oil crisis in the seventies. Whilst there is no doubt that fixed magnets do generally have a positive effect on fuel economy, the similarity between a fixed magnet product and CVE technology is analogous to a cartwheel with an iron strap and an alloy with a pneumatic tyre. CVE technology exploits the effect of magnetism on hydrocarbons, but it does so in a completely different way. A control unit delivers rapid pulses of electro-magnetic energy via a solenoid. The advantage of magnetic pulsing is that hydrocarbon molecules in the fuel are subjected to multiple disturbances, which allow molecular conditioning before entry to the combustion zone (i.e. combustion chamber or burner nozzle). The second advantage is that the rapidly expanding and collapsing field can be applied with very low currents; making the CVE unit itself extremely energy efficient.
QUEENS UNIVERSITY, BELFAST has world-class expertise in internal combustion technology, and tested a basic automotive CVE unit under laboratory conditions over seven cycles. Using a 500cc petrol engine under a constant load, they identified a reduction in CO2 emissions of 22.5%, an overall reduction in HC emissions of 18% and a reduction in fuel use of 4%. A CVE unit fitted to a Volvo L180D wheel loader operating in a large quarry in the Midlands for evaluation over an eight month period, or 653 hours of operation, delivered an impressive 6.74% reduction in fuel use over a similar pre-installation period, equating to some 3850 litres saved in fuel and an estimated 10.27 tonnes of CO2 for this single vehicle. The Royal Navy recently
carried out an academic assessment of a CVE system with a view to identifying
any benefits from the standpoint of power output and torque for vessels.
The tests were carried out under laboratory conditions over three days
at HMS Sultan in Gosport, using different pulse frequencies. They concluded
that "The two lower frequencies had a large effect of the engine with
increase in power of approximately 10% for CVE Trials No.1 & 2, and only
1.83% for Trial No. 3." "It was established that the CVE had a definite
effect on the engine when the CVE was set to lower frequencies. This was
in the form of increased power and therefore economy of the engine." |
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