|

|
Since it was introduced in 1975, the catalytic converter
has been the pervasive means of meeting emissions regulations for gasoline-powered
vehicles around the world. In fact, since 2000, 100% of new cars sold
in the U.S. and approximately 85% of all new cars sold worldwide have
been equipped with a catalytic converter. The regulations controlling
auto emissions in countries throughout the world have become increasingly
restrictive, and will continue to tighten in the future. For example,
new emissions standards known as Tier 2 in the U.S. and Stage IV in Europe
are set to take effect in 2004 and 2005, respectively, and both will require
significantly lower emissions levels than current standards
A catalyst is a substance that facilitates a chemical reaction
without taking part in the reaction itself. Environmental catalytic converters
convert harmful compounds into innocuous compounds. For example, three-way
automotive catalytic converters convert hydrocarbons ("HC"),
nitrogen oxides ("NOx") and carbon monoxide ("CO")
into nitrogen ("N2"), carbon dioxide ("CO2") and water
("H2O"). Catalytic converters are made up of several different
components contained in a metal housing that is incorporated into an automobile's
exhaust system. These systems may contain multiple catalytic converters,
each of which may contain several ceramic substrates. Each ceramic substrate
is made from widely available materials formed into a honeycomb array
of porous channels designed to maximize the surface area exposed to passing
exhaust gasses. Each substrate is coated with an active catalyst coating
that contains tiny particles of precious metals, which serve chemically
to clean the exhaust. Once exhaust heats the coated substrates above 300
degrees Celsius, HC, NOx and CO molecules bind temporarily to the catalyst
surface and are converted into innocuous compounds
MPC® Coatings for Gasoline Automobiles
We invented and own a fundamentally unique and patented
material technology for the development of catalysts. Our technology significantly
improves catalytic performance, is highly durable and cost-effective.
We have developed unique nanostructures that are extremely thermally stable
and resistant to sintering.
Catalytic converters using our technology have superior catalytic performance,
can cost substantially less as a result of significantly reduced PGM loadings,
have comparable or better durability and are physically and operationally
compatible with all existing manufacturing processes and operating requirements.
Our solution is based on industry-leading, patent-protected technology
and a scalable manufacturing business model.
|