序号 | 专利名 | 申请号 | 申请日 | 公开(公告)号 | 公开(公告)日 | 发明人 |
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121 | METHODS FOR OPERATING CONTINUOUS CATALYTIC REFORMER UNITS | PCT/US2024034955 | 2024-06-21 | WO2024263872A1 | 2024-12-26 | ALGHAMDI NAYEF S; ALALLOUSH SAEED S |
A method for operating a continuous catalytic reformer unit may include passing a hydrocarbon reactant stream to a continuous catalytic reformer unit to form one or more product effluent streams, the continuous catalytic reformer unit comprising at least one stream pre-heater, at least one catalytic reactor, and at least one separation unit; implementing a hydrocarbon reformer process control system comprising a hydrocarbon reformer variable data memory comprising processor-executable instructions, a hydrocarbon reformer output translation module, and one or more predictive hydrocarbon reformer modeling processors configured to execute the processor-executable instructions and cause the process control system to: receive one or more signals indicative of one or more present state variables from one or more state variable actuator hardwares, wherein the present state variables are process variables that cannot be directly set in the continuous catalytic reformer unit; and receive one or more signals indicative of one or more present control variables of the continuous catalytic reformer unit from one or more control variable actuator hardwares, wherein the present control variables are process variables that can be directly set in the continuous catalytic reformer unit; and generate, by utilizing a machine learned model, an improved control variable that increases a selected performance variable based on the inputs of one or both of one or more present state variables or one or more present control variables, wherein the improved control variable wherein the machine learned model is trained utilizing inputs of at least historic state variable data, historic control variable data, and historic performance variable data; and adjusting one or more present control variables of the continuous catalytic reformer unit based on the improved control variable determined by the machine learned model. | ||||||
122 | REGENERATION VESSEL FOR ADSORBING HALOGEN-CONTAINING MATERIAL AND SAMPLING CATALYST | PCT/US2021073082 | 2021-12-22 | WO2022147413A1 | 2022-07-07 | OZMEN JENNIFER J; MUDROCK REBECCA; GLOVER BRYAN K; LIM HOSOO; PAUSTIAN JOEL S |
A regenerator vessel for adsorbing halogen-containing material from a regenerator vent gas stream has a plurality of catalyst nozzles disposed at a top portion of the regenerator vessel. A first gas outlet is associated with a chlorination zone, and a second gas outlet associated with a combustion zone. A drying zone is in fluid communication with an air heater and the drying zone located in a bottom portion of the regenerator vessel. The first gas outlet is configured to withdraw a first gas stream from the chlorination zone and the second gas outlet is configured to withdraw a second gas stream from the combustion zone. The top portion of the regenerator vessel has an adsorption zone having a vent gas inlet port, a vent gas outlet port, and a portion of an annular catalyst bed. | ||||||
123 | PROCESSES FOR CHANGING CATALYTIC ACTIVITY IN A RADIAL FLOW REFORMING REACTOR | PCT/US2021/024036 | 2021-03-25 | WO2021206916A1 | 2021-10-14 | WOODLE, Guy B.; AVAIS, Fariha |
A fixed bed, radial flow reforming reactor having an inner catalyst zone between an inlet fluid zone and an outlet fluid zone. The catalyst zone is separated into two concentric, annular zones, a first annular zone having a first solid particle material having a first catalytic activity for reforming hydrocarbons into the catalyst zone, and, a second annular zone having a second solid particle material having a second catalytic activity for reforming hydrocarbons into the catalyst zone, wherein the second catalytic activity is different. One of the materials may be inert. A divider may be used to separate the two annular zones. |
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124 | RF装置の運転条件または生成物の組成を提供する装置、方法、プログラム、非一時的コンピュータ可読記録媒体 | PCT/JP2019/011534 | 2019-03-19 | WO2019188606A1 | 2019-10-03 | 千代田 範人; 新名 哲; 渡辺 大樹 |
装置は、ユーザの端末とネットワークを介して接続され、ユーザのRF装置における運転条件を提供する。装置は、端末からユーザ実績情報を取得し、基準実績情報とユーザ実績情報とを比較して基準運転関数を補正してユーザ運転関数を算出し、予定条件と流用条件とを取得し、予定条件と流用条件とユーザ運転関数から、ユーザ実績情報に含まれる触媒と予定条件と流用条件でユーザのRF装置を運転した場合における、予定運転日数と最終到達温度のいずれかを算出して端末に出力する。 |
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125 | RF装置の推奨触媒を提案する装置、方法、プログラム、非一時的コンピュータ可読記録媒体 | PCT/JP2019/007900 | 2019-02-28 | WO2019187962A1 | 2019-10-03 | 千代田 範人; 新名 哲; 渡辺 大樹 |
装置(20)は、基準実績情報とユーザ実績情報とを比較して、基準運転関数を補正してユーザ運転関数を算出し、予定条件と制約条件と流用条件とユーザ運転関数に基づき、複数の触媒の種類について、予定条件と流用条件でユーザのRF装置を運転した場合における、予定運転日数と最終到達温度のいずれか他方を算出し、算出された予定運転日数と最終到達温度のいずれか他方が制約条件を満たす触媒の種類の少なくとも一つを推奨触媒として端末(10)に出力する。 |
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126 | 선택 증류 장치 및 증류 방법 | PCT/KR2017/009739 | 2017-09-06 | WO2018052217A1 | 2018-03-22 | 김태우; 이성규; 김성균; 신준호; 추연욱 |
본 출원은 선택 증류 장치 및 증류방법에 관한 것으로, 증류에 사용되는 물질의 종류에 따라 제어부가 환류기, 재비기, 공급 라인, 배출 라인 및 연결 라인의 동작 상태를 활성화 또는 비활성화 상태로 조절함으로써 2개의 증류탑을 직렬 연결 모드와 병렬 연결 모드의 상호 전환이 가능하도록 하고, 이를 통해 증류 장치의 고효율 운전과 고용량 운전의 선택적 운전이 가능하다. |
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127 | A METHOD OF CONTROLLING THE SUPPLY AND ALLOCATION OF HYDROGEN GAS IN A HYDROGEN SYSTEM OF A REFINERY INTEGRATED WITH OLEFINS AND AROMATICS PLANTS | PCT/EP2014/079223 | 2014-12-23 | WO2015128042A1 | 2015-09-03 | OPRINS, Arno Johannes Maria; WARD, Andrew Mark; SCHAERLAECKENS, Egidius Jacoba Maria; VELASCO PELAEZ, Raúl; NARAYANASWAMY, Ravichander; RAJAGOPALAN, Vijayanand; VAN WILLIGENBURG, Joris |
The present invention relates to a method of controlling the supply and allocation of hydrogen gas in a hydrogen system of a refinery integrated with olefins and aromatics plants to convert crude oil into petrochemicals, comprising one or more supply sources that provide hydrogen at individual rates, purities, pressures and costs, multiple consumption sites that consume hydrogen at individual rates, purities and pressures and an interconnecting hydrogen distribution network, said method comprising the integration of hydrogen consuming process units with hydrogen producing process units, wherein both hydrogen recovered from the effluents from the hydrogen consuming process units and hydrogen recovered from the hydrogen producing process units are re-used in the hydrogen consuming process units. |
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128 | IMPROVED CATALYTIC REFORMER UNIT AND UNIT OPERATION | PCT/US2006/002294 | 2006-01-23 | WO2006079026A1 | 2006-07-27 | GOLDSTEIN, S.; THURTELL, John; KAUL, Bal, K.; MARSHALL, G. |
An improved process for catalytic reformers and their use for the catalytic reforming of petroleum naphthas. More particularly, the invention relates to an improved reformer unit which can be operated at higher throughput relative to compressor size. The invention utilizes pressure swing adsorption to improve the hydrogen content of hydrogen containing streams generated by and utilized in catalytic reforming processes. The invention also has the capability of enabling compressor-limited catalytic reforming units to be operated at increased capacities. |
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129 | 나프타 수소처리 공정 | KR20200043503 | 2020-04-09 | KR102798244B1 | 2025-04-18 | |
본발명은하기를포함하는, 적어도 3 개의촉매를사용하는나프타수소처리공정이다: - 지지체를포함하는제 1 촉매의존재하의제 1 단계 a); - 지지체및 활성상을포함하는제 2 촉매의존재하의제 2 단계 b), 상기활성상은 9 족또는 10 족금속및 6 족금속을함유함; - 지지체및 활성상을포함하는제 3 촉매의존재하의제 3 단계 c), 상기활성상은 6 족금속을함유함; - 제 3 촉매의 6 족금속함량은상기제 2 촉매의 6 족금속함량미만임; - 상기제 1 촉매의 "적재비표면적" 대상기제 2 촉매의 "적재비표면적" 의비는 1.20 이상임; - 상기제 3 촉매의 "적재비표면적" 대상기제 2 촉매의 "적재비표면적" 의비는 1.07 초과임. | ||||||
130 | AROMAX® 촉매 방법을 위한 연속 촉매 재생 유형 개질기의 용도 | KR20257008074 | 2023-08-16 | KR20250048101A | 2025-04-07 | |
본개시내용은, 연속촉매재생유형개질기를사용하는것을포함하는방향족화방법을포함하여방향족화촉매를사용한탄화수소의방향족화에관한것이다. | ||||||
131 | 개질설비 내 촉매의 코크 함량 및 촉매재생탑의 온도 예측 방법 및 장치 | KR20210056214 | 2021-04-30 | KR20220149063A | 2022-11-08 | KIM MIN HO; LEE CHANG WEON; SEO JUNG HOON; SEO JIN CHEOL |
개질설비내 촉매의코크함량및 촉매재생탑의온도예측방법및 장치가개시된다. 일실시예에따른개질설비내 촉매의코크함량및 촉매재생탑의온도예측방법은개질설비의원료성상예측을위한제1 예측모델과상기개질설비의제품성상, 상기개질설비에서사용된촉매의코크함량및 상기개질설비내 촉매재생탑의온도예측을위한제2 예측모델을학습시키는단계; 상기학습된제1 예측모델을포함하는제1 예측부가상기개질설비의반응기세트에대한현재운전조건을입력받아상기반응기세트로현재공급되고있는원료의성상을실시간으로예측하는단계; 상기학습된제2 예측모델을포함하는제2 예측부가상기현재운전조건과상기예측된원료성상을입력받아상기반응기세트에서생산되고있는제품의성상, 상기촉매의코크함량및 상기촉매재생탑의온도를실시간으로예측하는단계; 및상기개질설비의운전자에의해변경된운전조건이입력되는경우, 상기변경된운전조건에따른예측결과를상기현재운전조건에따른예측결과와함께출력하는단계를포함한다. | ||||||
132 | 개질설비의 원료 성상 및 제품 성상 예측 방법 및 장치 | KR20210056211 | 2021-04-30 | KR20220149060A | 2022-11-08 | KIM MIN HO; KIM JUNG GON; KIM CHANG MOOK; LEE CHANG WEON; SEO JUNG HOON; SEO JIN CHEOL; HEO JA YOUNG |
개질설비의원료성상및 제품성상예측방법및 장치가개시된다. 일실시예에따른개질설비의원료성상및 제품성상예측방법은개질설비의원료성상예측을위한제1 예측모델및 제품성상예측을위한제2 예측모델을학습시키는단계; 상기학습된제1 예측모델을포함하는제1 예측부가상기개질설비의반응기에대한현재운전조건을입력받아상기반응기로현재공급되고있는원료의성상을실시간으로예측하는단계; 및상기학습된제2 예측모델을포함하는제2 예측부가상기현재운전조건과상기예측된원료성상을입력받아상기반응기에서생산되고있는제품의성상을실시간으로예측하는단계를포함한다. | ||||||
133 | 나프타 수소처리 공정 | KR20200043503 | 2020-04-09 | KR20200120542A | 2020-10-21 | DUBIN GEOFFREY; PUCCI ANNICK; HESSE BORIS |
본발명은하기를포함하는, 적어도 3 개의촉매를사용하는나프타수소처리공정이다: - 지지체를포함하는제 1 촉매의존재하의제 1 단계 a); - 지지체및 활성상을포함하는제 2 촉매의존재하의제 2 단계 b), 상기활성상은 9 족또는 10 족금속및 6 족금속을함유함; - 지지체및 활성상을포함하는제 3 촉매의존재하의제 3 단계 c), 상기활성상은 6 족금속을함유함; - 제 3 촉매의 6 족금속함량은상기제 2 촉매의 6 족금속함량미만임; - 상기제 1 촉매의 "적재비표면적" 대상기제 2 촉매의 "적재비표면적" 의비는 1.20 이상임; - 상기제 3 촉매의 "적재비표면적" 대상기제 2 촉매의 "적재비표면적" 의비는 1.07 초과임. | ||||||
134 | 스팀 크래킹에서 조 가스로부터 CO2 및 H2S를제거하는 방법 | KR1019990042176 | 1999-10-01 | KR1020000028761A | 2000-05-25 | 하인리히,라이브; 옌,에릭; 비어,빅토르; 퀸,하인쯔-위르겐; 카이저,불프; 게르버,베른트 |
PURPOSE: An efficient method for removing CO2 and H2S generated from gas in naphtha cracking is provided which uses an absorption column not having inflow weir and problems at work. CONSTITUTION: To remove CO2 and H2S generated from ethene- and propene-rich gas in naphtha, chemical wet cleaning using caustic alkali solution in an absorption column is employed, wherein the absorption column has a tunnel-type tray having chimney stack(5) arranged in a gas passing hole as a hoodlike-type and the height of the each chimney being higher than that of a shaft exhaust hole(1). | ||||||
135 | 알칸을 탈수소환식화하는 방법 | KR1019830000379 | 1983-02-01 | KR100037830B1 | 1990-11-24 | 웰딘씨.부스-1 |
136 | 알칸을 탈수소환식화하는 방법 | KR1019830000379 | 1983-02-01 | KR1019840004150A | 1984-10-06 | 웰딘씨.부스-1 |
내용없음 | ||||||
137 | STAGED CATALYTIC REFORMING PROCESS | US18493475 | 2023-10-24 | US20240052248A1 | 2024-02-15 | Omer Refa Koseoglu |
A process and a system for reforming and upgrading a heavy naphtha feedstock may include dehydrogenating naphthenes in the heavy naphtha feedstock to form a first effluent stream comprising aromatics and then separating the aromatics via extraction from the produced first effluent stream to produce a second effluent stream containing raffinate paraffins. The process may then include subjecting the second effluent stream to cyclization reactions to produce a third effluent stream comprising aromatics and then combining the first effluent stream and the third effluent stream prior to extraction | ||||||
138 | Cleaning coke deposits from process equipment | US17839049 | 2022-06-13 | US11571722B2 | 2023-02-07 | Vincent dePaul McGahee |
A method for cleaning a coke deposit from an internal surface of a process equipment, comprising removing at least a portion of the coke deposit from the internal surface using a flexible pig comprising a plurality of bristles, without damaging a metal protective layer of the internal surface of the process equipment. A flexible pig for cleaning a coke deposit from an internal surface of a process equipment without damaging a metal protective layer of the internal surface, comprising a flexible body formed of a polymeric material, and a plurality of bristles partially encapsulated by the polymeric material of the flexible body. | ||||||
139 | Operation of facilities for catalytic reforming | US16624453 | 2018-06-26 | US11248178B2 | 2022-02-15 | Dzmitry Stasenka; Torsten Rubel |
A method for optimising the operation of a facility for catalytic reforming, the facility including a multitude of reactors which have a catalyser and through which an operating gas including hydrocarbons and molecular hydrogen successively flows, wherein the composition of the operating gas in the reactors changes and wherein a product results at the outlet side of the last reactor. Specific constant characteristics as well as initial operating parameters that are present during the operation of the facility are acquired. A computational simulation of the chemical processes in the reactors then takes place, wherein results of a measurement of the chemical composition of the product at the outlet side of the last reactor is also included. A computational simulation of the chemical processes in the reactors with different varied operating parameters is subsequently carried out and set of optimised operating parameters is determined from the computed chemical composition. | ||||||
140 | Conversion of olefinic naphthas by hydration to produce middle distillate fuel blending components | US16244444 | 2019-01-10 | US11091701B2 | 2021-08-17 | Omer Refa Koseoglu; Ali Sawan |
A process for the production of middle distillates by the catalytically promoted hydration of olefinic compounds having a carbon number ranging from 7 to 14 to convert the olefins to the corresponding mixed alcohols having a higher boiling point that is in the diesel range, the process being conducted in a continuous stirred tank reactor, e.g., an ebullated-bed reactor, utilizing catalysts that include soluble homogeneous acidic compounds and solid heterogeneous compounds such as resins, and amorphous or structured metal oxides containing elements selected from IUPAC Groups 4-10, 13 and 14, and having Lewis or Bronsted acid sites. |