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序号 专利名 申请号 申请日 公开(公告)号 公开(公告)日 发明人
141 Apparatus for bending plastic pipe US244790 1994-06-13 US5580589A 1996-12-03 Derek Stoves; William E. Robinson
The apparatus comprises a frame having a die pivotally connected to it at one end and anchorage means pivotally connected to it at the other end. The anchorage means carries a first roller. A second roller is adjustable transverse to the frame. A pipe pusher is integral with the die. The frame has adjustable legs to set the angle of the fame. A plastic pipe is pulled through the die and through the host pipe and is bent between the first roller, the second roller and the die. The frame fully contains the reactions arising owing to the bending of the pipe.
142 Method for purifying high-temperature reducing gas US234716 1994-04-28 US5464604A 1995-11-07 Mitsugi Suehiro; Toru Seto; Shigeaki Mitsuoka; Kenji Inoue
Disclosed are, in a method for purifying a high-temperature reducing gas in which sulfur compounds present in a high-temperature reducing gas are absorbed and removed by an absorbent according to a dry method, a method for purifying a high-temperature reducing gas which is characterized in that a reducing gas is supplied into a gas containing sulfur dioxide gas which is discharged from a regeneration system for regenerating the absorbent which system forms a system together with an absorption system in which the sulfur compounds are absorbed with the absorbent, a resulting gas mixture is led through a reactor filled with a catalyst, the sulfur dioxide gas and the reducing gas are let react with each other under pressurization so that elemental sulfur is directly produced and recovered as liquid sulfur; and the above method which is further characterized in that catalyst layers in the reactor in which the sulfur dioxide gas and the reducing gas react with each other are divided into parts or made to have a plurality of stages, a heat exchanger and a sulfur condenser are disposed between these parts or stages, and the temperature control of these gases and the removal of sulfur produced in the reaction are carried out during the reaction.
143 Liquid hydrogen polygeneration system and process US798713 1985-11-15 US4936869A 1990-06-26 Peter A. Minderman; Gary P. Gutkowski; Lawrence Manfredi; Julian V. King; Frank S. Howard
An integrated polygeneration system and process is disclosed for generating liquid hydrogen as a main energy product for use as a propellant for space vehicles. Secondary energy products and commodities for supporting a space center complex and launching of the space vehicle includes the production of electrical and thermal energy and gaseous nitrogen. The integrated process includes a coal gasification and gas cleanup system (12), a combined cycle power generation system (18), a hydrogen production and liquefaction system (22) and a air separation system (32). A medium BTU gas (16) is produced by the coal gasification system and is delivered at (16a) to the power generation system and (16b) the hydrogen production and liquefaction system. Steam (14) also produced in the coal gasification process is delivered to a steam turbine in the combined cycle power generation system which is combined with a gas turbine to which the medium BTU gas is delivered to generate electrical and thermal power in a combined cycle power generation process. Steam from the coal gasification process is also delivered to a shift conversion unit in the hydrogen production system to increase the hydrogen content of the medium BTU gas prior to liquification. Air separation system (32) produces oxygen and gaseous nitrogen. The oxygen is utilized in the coal gasification process and the gaseous nitrogen is delivered for storage to a launch complex site where it is used as an inert gas to purge critical environments. The gaseous nitrogen is also utilized in the hydrogen production system where the nitrogen is liquified and used to refrigerate the hydrogen.
144 Treatment of gas liquor US293612 1989-01-05 US4861446A 1989-08-29 Peter W. E. Blom; Johann H. Wingard
A method and apparatus for converting a raw gas such as the gas liquor resulting from a Lurgi-type coal gassification process together with CO.sub.2 and/or water by passing it through a plasma arc heater and gas converter to convert it to a mixture of CO and H.sub.2.
145 Method of separating carbon monoxide and carbon monoxide adsorbent used in this method US948394 1986-12-31 US4743276A 1988-05-10 Taisuke Nishida; Kazuo Tajima; Yo Osada; Osamu Shigyo; Hiroaki Taniguchi
In a method of the invention for selectively adsorbing CO in a gas mixture containing at least CO and CO.sub.2 with an adsorbent and desorbing the adsorbed CO, the adsorbent carries one metal or a mixture of metals selected from Ni, Mn, Rh, Cu(I) and Ag, and an adsorption temperature is set to be 50.degree. to 250.degree. C. to allow a single-step treatment.
146 Process and apparatus for conversion of water vapor with coal or hydrocarbon into a product gas US750909 1985-07-01 US4713234A 1987-12-15 Walter Weirich; Heiko Barnert; Michael Oertel; Rudolf Schulten
A process and apparatus for convertion of steam and hydrocarbon, or steam and coal, into a product gas which contains hydrogen. The conversion rate is augmented by effective extraction and removal of hydrogen as and when hydrogen is generated. Within a reaction vessel wherein the conversion takes place, a chamber for collection of hydrogen is formed by the provision of a hydrogen-permeable membrane. The chamber is provided with a hydrogen extraction means and houses a support structure, for example, in the form of a mesh providing structural support to the membrane. The membrane may be of a pleated or corrugated construction, so as to provide an enlarged surface for the membrane to facilitate hydrogen extraction. Also, to further facilitate hydrogen extraction, a hydrogen partial pressure differential is maintained across the membrane, such as, for example, by the counter pressure of an inert gas. A preferred configuration for the apparatus of the invention is a tubular construction which houses generally tubular hydrogen extraction chambers.
147 Process for separation and recovery of carbon monoxide US618721 1975-10-01 US4042669A 1977-08-16 Marvin M. Johnson; Donald C. Tabler
A process for the separation of carbon monoxide from mixed gases comprising contacting the mixed gases with an absorbent system consisting essentially of an inert diluent and a copper (I) salt of a sulfonic acid or of a dialkyl phosphate.
148 Hydrogenation catalysts and process for the removal of aldehydes and ketones from gaseous streams rich in carbon monoxide US5458970 1970-07-13 US3925490A 1975-12-09 REICH MANFRED; MULLER WOLFGANG; ZUR HAUSEN MANFRED
Aldehydes and ketones contained in gaseous streams rich in carbon monoxide, such as produced in the Oxo process, are selectively hydrogenated to alcohols on copper/chromium supported catalysts.
149 Process for removing nitric oxide from gaseous mixtures US3773897D 1970-10-19 US3773897A 1973-11-20 FIELDS M; TOWNSHIP W; COUNTY A; SUMANSKY L
A CONTINUOUS PROCESS FOR REMOVAL OF NITRIC OXIDE FROM COKE OVEN GAS WITH OZONE EVEN WHEN ITS MOL RATION TO NO IS AS LOW AS 2/1. THE OZONE IS INTRODUCED UNIFORMLY OVER THE CROSS SECTION OF THE COKE OVEN GAS.
150 Regasification of liquefied natural gas at varying rates with ethylene recovery US3548024D 1969-06-25 US3548024A 1970-12-15 KNIEL LUDWIG
151 Gasification of hydrocarbons US3480419D 1966-07-20 US3480419A 1969-11-25 ALLIOT LOUIS; AUCLAIR MICHEL; GODOUET FRANCOIS
152 Gas purification by hydrogenation US3420618D 1965-07-06 US3420618A 1969-01-07 FLEMING HAROLD W
153 Production of highly active metals of the iron group US45385665 1965-02-15 US3418258A 1968-12-24 KARL SIEBERT
154 Process for removing nitric oxide from gas mixtures containing hydrogen and hydrocarbons US32782063 1963-12-03 US3274281A 1966-09-20 JOSEF HIRSCHBECK; JOSEF RIEDL
155 Process for the photochemical oxidation of no to no US12734961 1961-07-27 US3120479A 1964-02-04 DOLS MICHAEL J; CORNELIS BOKHOVEN
156 Process for the production of hydrogen US11332261 1961-05-29 US3115394A 1963-12-24 EVERETT GORIN; RICE CHARLES H
157 Method for selective removal of oxygen from gaseous mixtures of oxygen and nitric oxide US86244759 1959-12-29 US3098712A 1963-07-23 ANDERSEN HOLGER C; ROMEO PHILIP L; GREEN WILLIAM J
158 Treatment of gases US1417660 1960-03-11 US3084023A 1963-04-02 ANDERSEN HOLGER C; ROMEO SR PHILIP L; STEELE DUANE R
159 Method of effecting the catalytic contact of gases containing oxygen and methane US82693459 1959-07-14 US3056646A 1962-10-02 COHN JOHANN G E; HALEY JR ALFRED J; ANDERSEN HOLGER C
A process for removing methane or oxygen from gases containing the same comprises adding to the gas an amount of oxygen or methane, respectively, which is sufficient to provide, together with any oxygen or methane already present, a stoichiometric excess over the impurity to be removed, and contacting the resulting gas mixture with a catalyst comprising one or more of the metals platinum, palladium, osmium, iridium, ruthenium, rhodium, or silver, to effect combustion and thereby remove the impurity. Quantitative removal of either methane or oxygen from nitrogen, argon, helium, neon, carbon dioxide, and mixtures of any of them, may be effected. The catalytic metal may be in the form of granules, pellets, or powder, may be supported on activated alumina, silica gel, silica, or diatomaceous earth, and may constitute 0,05 to 5% by weight of the total catalyst composition. Natural gas may be used as a source of methane. The reaction pressure may be atmospheric to 500 p.s.i.g., and ignition temperatures as low as 271 DEG C. may be obtained for the methane-oxygen reaction. Specification 879,209 is referred to.
160 Method for processing, distribution and combustion of coke-oven gas containing ammonia US81135759 1959-05-06 US3020138A 1962-02-06 FRANS WETHLY
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