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This post was last edited by b320 on 2017-3-5 at 22:57. I spent over 10 years developing a set of inorganic chemical engineering technologies that enable efficient use of millions of tons of ferrous sulfate and ferrous chloride produced as by-products in the titanium dioxide and steel industries. The investment required for the equipment can range from 1 million to 100 million; with an investment of 20 million, annual profits of up to 80 million can be achieved. If there are waste heat power plants and by-product steam, profits can reach 100 million. I wonder if any of you experts are familiar with any processes that involve using on-site power plants or waste heat resources? Welcome email for guidance: myben@126.com
Who knows the hardships! Fires, deaths, explosions, costs in the millions, over a decade of one’s best years spent working alone – by now, completely penniless.
Synthetic ammonia, methanol, IGCC
There must be a net excess of waste heat throughout the entire process; otherwise, if different stages have varying amounts of waste heat, they can simply recycle the excess waste heat themselves. Do all three of these industries have a net heat surplus?
There must be a net excess of waste heat throughout the entire process; otherwise, if different stages have varying amounts of waste heat, they can simply recycle the excess waste heat themselves. Do all three of these industries have a net heat surplus?
Who knows the general process of the methanol process?
Generally, processes that involve synthesis produce excess steam, which is used for power generation or other purposes.
The more H components are used in a synthesis process, the greater its ability to generate heat and produce steam. However, during the early stages of design, a steam balance is established to avoid energy waste. My friend’s innovations are truly remarkable
I think it’s also amazing, but precisely because it’s so large, there are numerous obstacles to its industrialization