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In numerous controlled-atmosphere, metallurgical-based heat-treating processes, hydrogen becomes an expensive wasted asset because it is typically vented or flared shortly after being introduced into the furnace. This practice is predominately due to the lack of commercially available, cost-effective, reliable recycling technology.
Finding leaks in a furnace or chamber that has been used
for several years takes some careful “sniffing” around using a helium leak
detector. However, it’s easy to get sidetracked and frustrated if you are not
careful.
The production of high-quality heat-processed products
(steel, alloys, aluminum, ceramics, etc.) at the lowest cost depends largely on
the quality and integrity of the combustion system.
Whenever someone is discussing induction heating, reference
is often made to the skin-effect phenomenon, which is a fundamental property of
induction heating. It can be clearly observed during billet heating.
Skin effect represents a nonuniform distribution of an alternating current
within the workpiece cross section.
The primary purpose of a furnace is to provide heat to the product or
load, so basic knowledge of desired furnace heat-transfer characteristics helps
in understanding why and how pulse firing can be beneficial.
The basics of pulse firing were
discussed in October’s article. This online-exclusive part summarizes some of
the advantages and disadvantages of pulse as compared to traditional
amplitude-modulating systems.