公开(公告)号：US20160298040A1

公开(公告)日：2016-10-13

申请号：US15102616

申请日：2014-12-08

Applicant: Tao CHEN

Inventor： Tao CHEN ,  Kezheng CHEN ,  Kebin CHEN ,  Junli CHEN ,  Jian ZHANG

IPC: C10J3/02 ,  C10J3/48 ,  F01K13/00

CPC classification number: C10J3/02 ,  C10J3/48 ,  C10J3/482 ,  C10J3/723 ,  C10J2300/093 ,  C10J2300/0996 ,  C10J2300/1675 ,  F01K5/02 ,  F01K13/006 ,  F23C2900/99011 ,  F23J7/00 ,  F23K2201/00 ,  Y02E20/18

Abstract: A power generating method of Carbon-molecule gasification combustion, the method comprising the following main processes: taking coal with desulfurizing agent, and first conducting desulfirization and gasification in a molecular gasifier to produce clean coal gas; mixing hot coal gas and low excess air for combustion in the furnace of a boiler; conducting coke refining and dust removal in accordance with coal quality and demand; after heat transfer via the heated surface of the boiler, emitting high temperature flue gas complying with the standard from the chimney; and the vapor generated by the boiler drives a steam turbine to generate power. The gasification method can be applied to a power generating system of a gas engine and a gas turbine to produce desired cooling coal gas, and can also produce chemical feed gas. The method has a simple process, which is energy saving.

Abstract translation: 碳分子气化燃烧的发电方法，该方法包括以下主要过程：用脱硫剂取煤，在分子气化炉中首先进行脱硫和气化，生产清洁煤气; 混合热煤气和低过量空气在锅炉炉中燃烧; 按照煤炭质量和需求进行焦炭精炼除尘; 在通过锅炉的加热表面传热后，从烟囱排放符合标准的高温烟气; 并且由锅炉产生的蒸气驱动蒸汽涡轮发电。 气化方法可以应用于燃气发动机和燃气轮机的发电系统，以产生所需的冷却煤气，并且还可以生产化学进料气体。 该方法具有简单的过程，节能。

公开(公告)号：US20180163149A1

公开(公告)日：2018-06-14

申请号：US15571787

申请日：2016-05-06

Applicant: Houston E. Hill, JR.

Inventor： Houston E. Hill, JR.

IPC: C10L9/02 ,  C10L9/10

CPC classification number: C10L9/02 ,  C10L9/10 ,  C10L2290/08 ,  C10L2290/141 ,  C10L2290/26 ,  C10L2290/54 ,  F23K2201/00

Abstract: Described herein are methods, apparatuses, and systems for reducing the sulfur content of coal. Coal is loaded into an apparatus comprising a vertically rotatable drum within a housing. The rotatable drum comprises a perforated cylindrical outer wall, a solid cylindrical inner wall, and a perforated, cylindrical central wall positioned between the outer wall and the inner wall, wherein the coal is loaded into a coal wash annulus between the central wall and the outer wall. A microbial wash fluid flows into a wash fluid annulus between the inner wall and the central wall, wherein the microbial wash fluid contains sulfur digesting bacteria and nutrients for the bacteria. The drum is rotated to cause the microbial wash fluid to migrate from the wash fluid annulus through the coal in the coal wash annulus and collect in a splash wash annulus between the outer wall and the housing.