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    • 1. 发明申请
    • GEOTHERMAL INSULATION SYSTEM AND METHOD
    • WO2018229518A1
    • 2018-12-20
    • PCT/HU2018/050026
    • 2018-06-11
    • CIVIS-THERM KFT.
    • KONYÁRI, Zoltán
    • F24J3/08E04F13/077E04B1/76E04B1/62E04F17/04
    • The invention relates to a geothermal insulation system (10) for the insulation of an external surface (16) of a building (12), characterised by comprising: - internal insulation panels (24), - first internal spacers (22) attaching the internal insulation panels (24) onto the external surface (16) of a wall (14) of the building (12) in the mounted state such that an internal air chamber (20) is left between the internal insulation panels (24) and the external surface (16) of the wall (14), - external insulation panels (34), - second spacers (32) attaching the external insulation panels (34) onto an external side of the internal insulation panels (24) in the mounted state such that an external air chamber (30) is left between the external insulation panels (34) and the external side of the internal insulation panels (24) and an upper region of the external air chamber (30) is in air communication with an upper region of the internal air chamber (20), - a soil-air heat exchanger (44) recessed into the soil, - a first air duct (46) connecting the soil-air heat exchanger (44) with the internal air chamber (20), - a second air duct (48) connecting the soil-air heat exchanger (44) with the external air chamber (30). The invention further relates to a method for the insulation of an external surface (16) of a building (12) with the use of geothermal energy.
    • 5. 发明申请
    • 지열정 단열 파이프, 지열정 파이프 어셈블리 및 지열정 열교환시스템과 그의 시공방법
    • 地热井绝缘管,地热井管总成,地热井热交换系统及其施工方法
    • WO2017003239A1
    • 2017-01-05
    • PCT/KR2016/007079
    • 2016-06-30
    • 한국생산기술연구원
    • 김영원김호성양동욱김귀택
    • F24J3/08F16L15/04F16L39/00
    • F16L15/04F16L39/00F24T10/00Y02E10/10
    • 본 발명은 지열정 단열 파이프, 지열정 파이프 어셈블리 및 지열정 열교환시스템과 그의 시공방법에 관한 것으로 본 발명에 따른 지열정 단열 파이프는 지열정의 내부에 삽입하여 상기 지열정을 따라 열전달매체가 유동하도록 형성되는 파이프로서, 지상으로부터 상기 지열정의 하부까지 연장되고 상기 지열정에 비하여 상대적으로 작은 직경으로 형성되어, 상기 지열정의 내측면과 이격되어 배치되는 외관부, 상기 외관부의 길이와 대응되는 길이와 상기 외관부에 비하여 상대적으로 작은 직경으로 형성되어, 상기 외관부의 내측면과 이격되어 배치되는 내관부 및 적어도 하나 이상의 단열소재가 상기 외관부 및 상기 내관부의 사이 공간에 구비되어 형성되는 단열부를 포함한다.
    • 本发明涉及一种地热井绝热管,地热井管组件,地热井热交换系统及其施工方法。 根据本发明的地热井绝热管被形成为插入到地热井中,使得传热介质沿着地热井流动,并且包括:外管部分延伸到地热井的下部,从 并且形成有比地热井相对较小的直径,使得外管部分设置成与地热井的内表面间隔开; 内管部,其长度对应于所述外管部的长度,并且具有比所述外管部的长度小的直径,使得所述内管部配置成与所述外管部的内表面间隔开; 以及通过在外管部和内管部之间的空间内设置至少一个绝缘材料而形成的绝缘部。
    • 6. 发明申请
    • VERFAHREN UND VORRICHTUNG ZUR ERFASSUNG ORTSABHÄNGIGER ZUSTANDSGRÖßEN IN ROHRLEITUNGEN
    • 方法和设备,用来确定与位置相关的状态变量在管道中
    • WO2016138955A1
    • 2016-09-09
    • PCT/EP2015/054549
    • 2015-03-04
    • ENOWARE GMBH
    • FRIDERICH, JensLINDER , Karl, G.NEUMAIER, TimZORN, RomanKARELIN, ViktorMEIER, SimeonTOMASETTI, Falco
    • F24J3/08E21B47/00
    • F24T10/00F24T2010/56Y02E10/10
    • Die Erfindung betrifft ein Verfahren zur Erfassung ortsabhängiger Zustandsgrößen in Rohrleitungen (1) mittels mindestens einer drahtlosen Messsonde (2) in mindestens einem Abschnitt (3) eines Rohrleitungssystems (4), vorzugsweise in einem im wesentlichen vertikalen Abschnitt (5), insbesondere in einer Erdwärmesonde (6). Zur kontinuierlichen Erfassung der Zustandsgrößen wird vorgeschlagen, dass das im Rohrleitungssystem (4) befindliche flüssige Medium (7) mittels einer Pumpe (8) umgewälzt wird, und die mindestens eine Messsonde (2) über einen Bypass (9) an der Umwälzpumpe (8) vorbeigeleitet im Kreis geführt wird. Bei jedem Umlauf können somit Daten gewonnen werden. Die Zeitauflösung entspricht der Dauer eines Umlaufs. Außerdem betrifft die Erfindung einen Bypass für die drahtlose Messsonde (2) zum Umfahren einer Umwälzpumpe (8) sowie einen Rohrleitungskreis (4) mit einer Messsonde (2) bei dem für die Messsonde (2) zum Umfahren der Umwälzpumpe (8) ein Bypass (9) vorgesehen ist. Schließlich ist eine drahtlose Messsonde (2) dadurch gekennzeichnet, dass die Messsonde (2) als Kugel (33) mit einem Durchmesser (22) zwischen 5 und 25 mm ausgebildet ist und eine induktive Transponderspule (21) beinhaltet zur Übertragung von Energie und Daten.
    • 本发明通过至少一个无线测量探针的方法涉及一种方法,用于在管道(1)的检测位置相关的状态变量的(2)中的至少一个部分(3)的管道系统(4),优选在地热探针基本上垂直的部分(5),特别是 (6)。 对于在管道系统(4),其位于液体介质,提出了(7)连续监测状态变量,由泵(8)中循环,并且所述至少一个测量探针(2)通过旁路(9)与循环泵(8) 由领导带领圈。 在每个周期中的数据因此可以被获得。 对应于周期的持续时间分辨率。 本发明还涉及用于所述无线测量探头(2)的旁路用于与测量探针绕过循环泵(8)和管道回路(4)(2),其中,用于测量探针(2)用于绕过循环泵(8)的旁路( 9)设置。 最后,无线测量探针(2)的特征在于,该测量探针(2)为球(33)具有直径(22)是5到25毫米,感应转发器线圈(21)包括能量和数据的传输。
    • 8. 发明申请
    • METHOD FOR A RADIATOR EGS TO HARVEST GEOTHERMAL ENERGY
    • 用于收集地热能的散热器EGS的方法
    • WO2015187919A1
    • 2015-12-10
    • PCT/US2015/034140
    • 2015-06-04
    • THE JOHNS HOPKINS UNIVERSITYGLOBAL GEOPHYSICAL SERVICES, INC.
    • MARSH, Bruce D.HILPERT, MarkusGEISER, Peter Anderson
    • F24J3/08
    • F24T10/20Y02E10/14
    • An embodiment in accordance with the present invention includes an EGS configured to allow the commercial production of electrical energy. One criteria of an EGS according to the present invention is that the temperature and volume of the fluids extracted are sufficiently high and large enough as to allow the commercial production of electrical energy. The system is able to operate for at least N years before the extracted fluid falls below the minimum temperature needed for energy production. Additionally, fractures are separated from each other by a sufficiently large volume of rock (Vcrit) relative to the fractures surface area such that the ratio of the rate of heat extraction to the rate of heat supply controlled by the thermal conductivity of the rock is such that the intervening rock is cooled at a rate that is sufficiently slow to be economic.
    • 根据本发明的实施例包括被配置为允许商业生产电能的EGS。 根据本发明的EGS的一个标准是提取的流体的温度和体积足够高并且足够大以允许商业生产电能。 该系统能够在提取的液体低于能量产生所需的最低温度之前运行至少N年。 另外,相对于裂缝表面积,通过足够大的岩石体积(Vcrit)将裂缝彼此分离,使得热提取速率与由岩石的热导率控制的供热速率的比率是这样的 中间的岩石以足够慢的经济速度冷却。
    • 9. 发明申请
    • DIRECT INSERTION GROUND LOOP HEAT EXCHANGER
    • 直接插入式接地热交换器
    • WO2015175703A1
    • 2015-11-19
    • PCT/US2015/030635
    • 2015-05-13
    • CAUCHY, Charles, J.
    • CAUCHY, Charles, J.
    • F24J3/08
    • F24T10/17F24T2010/53Y02E10/125
    • A direct insertion ground loop heat exchanger, comprising an at least partially hollow pointed driving tip having at least one orifice therethrough for dispersing water through the driving tip to ease insertion into the ground, such that placing the driving tip onto the ground and urging water through the orifices will separate and part the ground easily, permitting the insertion of the driving tip deeper and deeper into the ground in combination with a hollow outer tube having an inner diameter attached to the driving tip, said tube extending upwardly from out of the driving tip and terminating above the ground for accessibility. Therefore, by urging water through the direct insertion ground loop heat exchanger, water sprays out from orifices in the driving tip, making insertion into the ground quite simple and easy.
    • 一种直接插入接地回路热交换器,其包括至少部分中空的尖锐的驱动尖端,其具有穿过其中的至少一个孔口,用于将水分散通过驱动尖端以便于插入到地面中,使得将驱动尖端放置在地面上并促使水通过 孔将容易地分离和分开地面,允许驱动尖端更深更深地插入地面,与具有附接到驱动尖端的内径的中空外管组合,所述管从驱动尖端向上延伸 并终止于地面以便接近。 因此,通过直接插入式接地回路换热器促使水从驱动尖端的喷嘴喷出,使其插入地面非常简单易行。
    • 10. 发明申请
    • SYSTEM AND METHOD FOR UTILIZING OIL AND GAS WELLS FOR GEOTHERMAL POWER GENERATION
    • 用于地热发电的油气井的系统和方法
    • WO2015175142A1
    • 2015-11-19
    • PCT/US2015/026077
    • 2015-04-16
    • WYNN, JR, Richard L.
    • WYNN, JR, Richard L.
    • F25B30/06F24J3/08
    • F24T10/00F24T10/17F25B30/06Y02E10/125
    • A method and system for extracting geothermal heat from a well is provided, wherein the well casing has positioned therein an inner pipe nested within an outer pipe. The space between the well casing and the outer pipe may be filled with an insulating medium. A liquid heat conducting material flows into and down through the inner pipe. The inner pipe may be fitted with a one-way valve so that the liquid heat conducting material does not reverse direction and flow upwards towards the surface. As the liquid heat conducting material approaches the bottom of the inner pipe, it enters into a heat exchanger, absorbs heat and transforms to its gaseous state. The gas rises upward through the space between the outer pipe and the inner pipe and into the electricity generating component
    • 提供了一种用于从井中提取地热的方法和系统,其中所述井套管在其中定位有嵌套在外管内的内管。 井套管和外管之间的空间可以填充绝缘介质。 液体导热材料流入和流过内管。 内管可以装有单向阀,使得液体导热材料不反向并朝向表面向上流动。 当液体导热材料接近内管的底部时,它进入热交换器,吸收热量并转变成其气态。 气体通过外管和内管之间的空间向上升起并进入发电部件