序号 专利名 申请号 申请日 公开(公告)号 公开(公告)日 发明人
21 Apparatus for cryogenic fluids having floating liquefaction unit and floating regasification unit connected by shuttle vessel, and cryogenic fluid methods US11609321 2006-12-11 US07478975B2 2009-01-20 Bradford Scott Hubbard; Ned Baudat; W. Scott Worthington
Methods and systems for transportation and processing of a cryogenic fluid. The system includes a floating liquefaction unit receiving a gas from a source, a shuttle vessel for carrying liquefied gas away from the liquefaction unit, a floating regasification unit for receiving the liquefied gas from the vessel, regasifying the liquefied gas and providing the gas to a distribution system.
22 Apparatus for cryogenic fluids having floating liquefaction unit and floating regasification unit connected by shuttle vessel, and cryogenic fluid methods US10894355 2004-07-18 US20060010910A1 2006-01-19 Bradford Hubbard
Methods and systems for transportation of a cryogenic fluid. The system includes a floating liquefaction unit receiving a gas from a source, a shuttle vessel for carrying liquefied gas away from the liquefaction unit, and a floating regasification unit for receiving the liquefied gas from the vessel, regassifying the liquefied gas and providing the gas to a distribution system.
23 Apparatus and methods for processing hydrocarbons to produce liquified natural gas US10816793 2004-04-01 US20050217314A1 2005-10-06 Ned Baudat
An apparatus for and process for recovering LNG from reservoir natural gas which includes circulating a portion of the natural gas thru a gas cooling loop that includes heat exchanges, an expansion zone and compression zone. The process also includes removing liquids from the gas cooling loop, distilling those liquids to recover a distilled gas. The process also includes compressing and expanding various portions of the distilled gas and passing those portions thru heat exchangers shared with the gas cooling loop to effect heating/cooling as desired. The process also includes removing a portion of the LNG cooling loop as LNG product.
24 Separation of multi-component mixtures US818337 1977-07-22 US4124496A 1978-11-07 Donald R. Cummings
An improvement in the separation of a multi-component mixture, especially a well head stream, into gaseous and liquid phases by multi-component flash separation at reducing pressures, comprises recycling at least a part of the gaseous fraction recovered from a stage after the first stage to a preceding stage, and preferably the immediately preceding stage, to mix with the liquid phase which is separated in said preceding stage and at substantially the pressure of said preceding stage. This (a) increases the gas/liquid ratio in each stage, the amount of liquid recovered from the last stage and the proportion of medium-boiling components therein; (b) results in more gas being available from the higher pressure stages and (c) yields gases having narrower boiling ranges. Three separation stages are preferred and pipeline gas, crude LPG and a local fuel gas to supply the energy requirements of the separation can be derived from the gaseous fractions recovered from the separation stages.
25 Process and apparatus for liquefying natural gas US593222 1975-07-07 US4012212A 1977-03-15 Ludwig Kniel
There is disclosed a novel process and apparatus for liquefying a hydrocarbon gas under a pressure greater than the critical pressure thereof wherein the gas is first expanded to below the critical pressure thereof to permit the facile separation of C.sub.5 and heavier hydrocarbons with the lighter components being re-pressurized to above the critical pressure thereof by such expanding gas prior to the further cooling of such re-compressed lighter components for eventual liquefaction.
26 Lng expander cycle process employing integrated cryogenic purification US3724226D 1971-04-20 US3724226A 1973-04-03 PACHALY R
A process and apparatus for the liquefaction of natural gas wherein raw feedstock is cryogenically fractionated to remove essentially all of the carbon dioxide and C5 hydrocarbons therefrom, and wherein the cryogenically purified feedstock is cooled and liquefied under pressure in a cryogenic heat exchanger. The pressurized cold liquid from the heat exchanger is isenthalpically expanded to reduce the pressure and further cool the liquid while at the same time flashing a minor gas fraction. Refrigeration for the liquefaction of the natural gas is supplied by a circulating refrigerant stream which is compressed and workexpanded to obtain the necessary cooling. The minor flash gas portion of the liquefaction step is commingled with the circulating refrigerant stream so that the analysis of the refrigerant stream is always rich in the lighter portions of the liquefaction stream, thus aiding in maintaining refrigeration temperature differentials to drive the liquefaction step. The work-expanded refrigerant portion undergoes a compression cycle and is work-expanded in a series of expansion turbines. The expansion turbines furnish at least part of the power necessary to drive the compressor system in the refrigerant gas cycle.
27 LNG船の蒸発ガス再液化方法及びシステム JP2017236476 2017-12-08 JP6397983B2 2018-09-26 ジョン,へ ウォン
28 シェル内コア熱交換器内におけるスロッシング抑制のための内部バッフル JP2014549205 2012-12-18 JP6270734B2 2018-01-31 デーヴィス、ポール・アール; ジェイムス、ウィル・ティー; グラヴォイス、シャウン・ピー; オシノウォ、オランレワジュ・エム
29 シェル内コア熱交換器内の動きの影響を低減するための方法、および装置 JP2014549209 2012-12-18 JP6170943B2 2017-07-26 デーヴィス、ポール・アール; ジェイムス、ウィル・ティー; グラヴォイス、シャウン・ピー; オシノウォ、オランレワジュ・エム
30 液体運動を減衰する通路を有した熱交換器 JP2016567663 2015-05-07 JP2017519174A 2017-07-13 シュタインバウアー マンフレート; ケアバー クリスティアーネ; レーマッハー アクセル
本発明は、第1の媒体(M1)と第2の媒体(M2)との間で間接的に熱伝達するための熱交換器であって、前記第1の媒体(M1)の液相(F1)を受容する胴体室(3)を有した胴体(2)と、少なくとも1つの伝熱ブロック(4)と、を有していて、該伝熱ブロック(4)は、前記第1の媒体(M1)を受容する第1の伝熱通路と、前記第2の媒体(M2)を受容する第2の伝熱通路とを備え、これにより前記両媒体(M1,M2)間で熱を間接的に伝達可能であって、この場合、前記少なくとも1つの伝熱ブロック(4)は、前記胴体室(3)内にある前記第1の媒体(M1)の液相(F1)によって取り囲まれ得るように、前記胴体室(3)内に配置されている、熱交換器に関する。本発明によれば、前記第1の媒体(M1)の前記液相を案内する、複数の互いに平行に延在する筒状の通路(10)が、前記胴体室(3)内で前記少なくとも1つの伝熱ブロック(4,5)に対して側方に設けられている。
31 動き環境下での天然ガスの液化 JP2014548840 2012-12-19 JP2015506454A 2015-03-02 デーヴィス、ポール・アール; ジェイムス、ウィル・ティー; グラヴォイス、シャウン・ピー
一つの態様において、動き環境下でプロセスガスを冷却または液化するためのシステムは、(a)分離容器、ここで該分離容器は複数の動き抑制バッフルを含み、および該分離容器は、高圧冷媒流を分離しそれにより気体冷媒流と液体冷媒流を生成するものであり、(b)前記液体冷媒流を前記分離容器から外部の熱交換器コアに送達するための気液冷媒パイプ、(c)少なくとも1つの外部熱交換器コア、ここで該外部熱交換器コアは、ケトルの外部にあり、前記液体冷媒流およびより暖かいプロセス流は前記外部熱交換器コアにおいて間接的な熱交換を受け、それにより、冷却されたプロセス流および気化した冷媒流を生成する、を含む。
32 The method of removing the cryogenic system and acid gases to remove acid gases from a hydrocarbon gas stream JP2012505896 2010-01-22 JP2012524231A 2012-10-11 ブルース ティー ケリー; ポール スコット ノースロップ; チャールズ ジェイ マート
原料ガス流から酸性ガスを除去するシステムは、極低温蒸留塔を有する。 蒸留塔は、原料ガス流を受け入れてこれをオーバーヘッドメタン流とボトム液化酸性ガス流に分離する。 極低温蒸留塔の下流側に設けられた冷凍設備がオーバーヘッドメタン流を冷却してオーバーヘッドメタン流の一部を液体還流として極低温蒸留塔に戻す。 このシステムは、蒸留塔の上流側に設けられた第1のモレキュラーシーブ床及び蒸留塔の下流側に設けられた第2のモレキュラーシーブ床を有するのが良い。 第1のモレキュラーシーブ床は、を吸着し、第2のモレキュラーシーブ床は、冷却状態のオーバーヘッドメタン流から追加の酸性ガスを吸着する。
33 Liquefaction process and apparatus JP2000524622 1998-12-11 JP2001526376A 2001-12-18 クリストファー アルフレッド ティモシー デューバー
(57)【要約】 天然ガスを液化するための装置であって、冷媒により、向流熱交換器で、天然ガスを冷却するための一連の熱交換器と、上記冷媒を圧縮するための圧縮手段と、圧縮した冷媒の少なくとも二つの別々の流れを断熱状態で膨張させるための膨張手段とを備えていて、冷媒の上記膨張した流れが上記各熱交換器の温度の低い方の端部に接続していて、また上記一連の熱交換器に供給する前に、天然ガスを0℃以下の温度に予備冷却し、上記一連の熱交換器または上記膨張手段にフィードバックする前に、上記一連の熱交換器の温度の高い方の端部から放出された、圧縮された冷媒を0℃以下の温度に予備冷却するための予備冷却冷凍システムとを備える装置。
34 The liquefaction process JP51408197 1996-10-04 JP2000506591A 2000-05-30 デュバール,クリストファー,アルフレッド,ティモシィ
(57)【要約】 天然ガスを一連の熱交換器(150,151,153)に通過させて仕事膨張サイクルを循環するガス状の冷媒と向流関係にすることから成る天然ガス液化方法。 該仕事膨張サイクルが、冷媒を圧縮することと、該冷媒を分割しかつ冷却して少なくとも第一及び第二の冷却した冷媒の流れ(126,128)を生成することと、該第一の冷媒の流れ(126)を最も低い冷媒温度まで実質的に等エントロピー的に膨張することと、該第二の冷媒の流れ(128)を上記の最も低い冷媒温度よりも高い中程度の冷媒温度まで実質的に等エントロピー的に膨張することと、該第一及び第二の冷媒の流れ(126,128)における冷媒を各熱交換器(153,151)に供給して天然ガスを対応する温度範囲に亘って冷却することとを有する。 上記第一の流れ(126)における冷媒が一連の熱交換器(150、151、153)に亘る該第一の冷媒の流れにおける冷媒の全圧降下の少なくとも10倍の圧力まで等エントロピー的に膨張され、該圧力が1.2〜2.5MPaである。
35 Weather-vaning air-cooled heat exchangers US15125330 2015-03-12 US10012420B2 2018-07-03 Tor Christensen; Pål Leo Eckbo
An air-cooler assembly comprising a plurality of air-coolers (1), wherein the air-coolers (1) are arranged on a duct (15), the duct having the shape of a straight prism having a polygonal cross section, and wherein the duct has one air inlet (14) for taking in cooling air to be distributed to all air-coolers (1), is described. A floater (10) for LNG production and a method for LNG production using the air-cooler assembly is also described.
36 Methods for producing a fuel gas stream US14671029 2015-03-27 US09964034B2 2018-05-08 Robert D. Denton
Methods and systems for dynamically planning a well site are provided herein. Methods include flowing a raw gas stream though a suction scrubber to form a feed gas stream and compressing the feed gas stream to form a compressed gas stream. Methods include cooling the compressed gas stream in a cooler to produce a cooled gas stream. Methods include feeding the cooled gas stream into a gas treatment system, using a turboexpander, to produce a conditioned gas and a waste stream. Methods include heating the conditioned gas in a heat exchanger, where the conditioned gas is a superheated, sweetened, gas. Methods also include burning the conditioned gas in a turbine generator and mixing the waste stream into the raw gas stream upstream of the suction scrubber.
37 GAS RECOVERY SYSTEM, COMPRESSOR SYSTEM, AND REFRIGERATION CYCLE SYSTEM US15562230 2015-04-27 US20180120007A1 2018-05-03 Takuya Watanabe; Koichi Mizushita; Tomoaki Takeda; Yasushi Mori
A gas recovery system separates a mixed gas including a process gas and an inert gas. The gas recovery system includes a cooling section for cooling and liquefying the process gas contained in the mixed gas by cooling the mixed gas at a temperature higher than a condensation temperature of the inert gas and lower than a condensation temperature of the process gas, a separating section for separating the cooled mixed gas into the process gas in a liquid state and the inert gas in a gas state, and a process gas recovery line that is connected to the separating section which circulates and gasifies the liquid-state process gas and then supplies the process gas into the a compressor. The mixed gas is formed by mixing the process gas, which is compressed by the compressor, and the inert gas, which is supplied to a seal portion of the compressor.
38 Process for natural gas liquefaction US13262207 2010-03-29 US09657246B2 2017-05-23 Michael Barclay; Paul Campbell; Xiaoxia Sheng; Wen Sin Chong
A natural gas liquefaction process suited for offshore liquefaction of natural gas produced in association with oil production is described.
39 Process for treating a natural gas containing carbon dioxide US13643261 2011-04-28 US09605896B2 2017-03-28 Xavier Renaud
The disclosure includes a process for treating a natural gas containing carbon dioxide wherein the natural gas is separated by a cryogenic process in order to provide, on the one hand, a stream of liquid carbon dioxide, containing hydrocarbons, and, on the other hand, purified natural gas; at least one part of the natural gas is cooled in a first heat exchanger and then in a second heat exchanger before the cryogenic process and/or before a reflux to the cryogenic process; at least one part of the stream of liquid carbon dioxide is recovered in order to provide a stream of recycled carbon dioxide; the stream of recycled carbon dioxide is divided into a first portion and a second portion; the first portion is expanded and then heated in the first heat exchanger, in order to provide a first stream of heated carbon dioxide; the second portion is cooled, then at least one part of the second portion is expanded and then heated in the second heat exchanger, in order to provide a second stream of heated carbon dioxide; at least some of the hydrocarbons contained in the first stream of heated carbon dioxide and in the second stream of heated carbon dioxide are recovered by liquid/gas separation.
40 HEAT EXCHANGER HAVING CHANNELS FOR DAMPING LIQUID MOTIONS US15308113 2015-05-07 US20170051985A1 2017-02-23 Manfred Steinbauer; Christiane Kerber; Axel Lehmacher
A heat exchanger for indirect heat transfer between a first medium and a second medium having a shell which has a shell space to accommodate a liquid phase of the first medium, and at least one heat-exchanger block having first heat-transfer passages to accommodate the first medium and second heat-transfer passages to accommodate the second medium, such that indirect heat can be transferred between the first medium and the second medium. The heat-exchanger block is arranged in the shell space so that it can be surrounded with a liquid phase of the first medium in the shell space. A plurality of cylindrical channels are provided in the shell space laterally to the heat-exchanger block and parallel to each other to conduct the liquid phase of the first medium.
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