CONE TYPE VENTURI INTEGRATED VALVE DEVICE
    1.
    发明申请
    CONE TYPE VENTURI INTEGRATED VALVE DEVICE 有权
    CONE型VENTURI集成阀装置

    公开(公告)号:US20110041622A1

    公开(公告)日:2011-02-24

    申请号:US12734701

    申请日:2010-01-20

    IPC分类号: G01F1/44

    摘要: Provided is a valve device into which a cone type venturi for a flow measurement and valves are integrated. According to the present invention, the venturi cone is formed in venturi path in the lower portion of the main body, and then valve path is formed thereafter. According to the present invention, efforts for adjusting heights between both of pressure taps during connecting of valves and flow measurement parts are not required and installation time and costs of installation could be decreased drastically. Also, the possibilities of leakage as well as manufacturing costs also could be reduced by integrating valves and flow measurement parts into a one-body valve device.

    摘要翻译: 提供了一种阀装置,用于流量测量和阀门的锥形文氏管被集成在该阀装置中。 根据本发明,文丘里管在主体的下部形成文丘里管路,之后形成阀通路。 根据本发明,不需要在阀和流量测量部件的连接期间在两个压力抽头之间调节高度的努力,并且可以大大降低安装时间和安装成本。 此外,通过将阀和流量测量部件集成到单体阀装置中,也可以减少渗漏的可能性以及制造成本。

    Cone type venturi integrated valve device
    2.
    发明授权
    Cone type venturi integrated valve device 有权
    圆锥型文丘里一体式阀门装置

    公开(公告)号:US08434373B2

    公开(公告)日:2013-05-07

    申请号:US12734701

    申请日:2010-01-20

    IPC分类号: G01F1/44

    摘要: A cone type venturi integrated valve device includes a main body, a venturi cone, a valve path, and valves disposed in the valve path. The main body has a venturi path which penetrates though the main body in a horizontal direction and a hole which penetrates through the main body from the venturi path to a bottom of the main body, wherein the venturi path includes an inlet, an outlet, a first pressure point P1 at a distance from the inlet, and a second pressure point P2 at a distance from the outlet. The venturi cone is mounted between the first pressure point P1 and the second pressure point P2 in the venturi path of the main body. The venturi cone has a fixing leg bent downward and a bent end of the fixing leg is inserted into the hole of the main body and attached by welding.

    摘要翻译: 圆锥型文丘里一体式阀装置包括主体,文丘里锥,阀通道和设置在阀通道中的阀。 主体具有沿水平方向穿过主体的文丘里路径和从文丘里路径穿过主体穿过主体的底部的孔,其中文丘里路径包括入口,出口, 距离入口一定距离的第一压力点P1和离出口一定距离的第二压力点P2。 文丘里锥安装在主体的文丘里路径中的第一压力点P1和第二压力点P2之间。 文丘里锥具有向下弯曲的固定腿,并且固定腿的弯曲端插入主体的孔中并通过焊接附接。

    Process for the production of liquid pig iron or liquid steel pre-products
    3.
    发明授权
    Process for the production of liquid pig iron or liquid steel pre-products 失效
    生产液态生铁或液态钢前产品的工艺

    公开(公告)号:US06416566B1

    公开(公告)日:2002-07-09

    申请号:US09221494

    申请日:1998-12-28

    IPC分类号: C21B1314

    CPC分类号: C21B13/14 Y02P10/136

    摘要: In the process for the production of liquid pig iron 943) or liquid steel pre-products from charging substances comprising iron ore (5) and fluxes and at least partially containing a portion of fines, the iron ore is directly reduced to sponge iron in at least two reduction stages (1, 2) by the fluidized bed method, the sponge iron is melted in a melt-down gasifying zone (39) under the supply of carbon carriers and an oxygen-containing gas, and a CO- and H2-containing reducing gas is produced which is injected into reduction zones of the reduction stages (1, 2), is reacted there, is withdrawn as a top gas and optionally is supplied to a consumer. To achieve uniform reduction of the iron ore at optimum exploitation of the reducing gas, the iron ore (5) in a first reduction stage (1) by aid of the reducing gas is fractionated into at least two fractions having different grain size distributions each, each fraction is reduced by the reducing gas in a separate fluidized bed (6, 15), wherein the reducing gas maintains a first fluidized bed (6) containing the coarse-grain fraction and separates the fine-grain fraction from the same, and wherein, further, reducing gas is additionally introduced into the further fluidized bed (15) directly reduced iron ore (5) is discharged both from the first and from the further fluidized bed (6, 15) and the fine- and the coarse-grain fraction reduced in the first reduction stage (1) are further reduced in at least one further reduction stage (2) operating in the same manner as the first reduction stage (1) and from the last reduction stage (2) the fine-grain fraction is introduced into the melt-down gasifying zone (39) while being agglomerated by provision of oxygen, and the coarse-grain fraction is fed directly into the melt-down gasifying zone (39) gravitationally (FIG. 1).

    摘要翻译: 在生产液体生铁943)或含铁矿石(5)和助熔剂的物料的液态钢产品的过程中,至少部分含有一部分细粉,铁矿石直接还原成海绵铁 通过流化床法将至少两个还原阶段(1,2),海绵铁在碳载体和含氧气体的供应下在熔化气化区(39)中熔化,并且CO-和H 2 - 产生含有还原气体的废气,其被注入到还原段(1,2)的还原区中,在其中反应,作为顶部气体排出并任选地供应给消费者。 为了在最佳利用还原气体的情况下实现铁矿石的均匀还原,通过还原气体将第一还原段(1)中的铁矿石(5)分级成至少两个具有不同粒度分布的级分, 在分离的流化床(6,15)中每个馏分被还原气体还原,其中还原气体保持含有粗晶粒部分的第一流化床(6),并将细晶粒部分与其分离,其中 进一步地,将还原气体另外引入到另外的流化床(15)中,直接还原的铁矿石(5)从第一流化床(6,15)和另外的流化床(6,15)排出,并且精细和粗颗粒馏分 在与第一还原阶段(1)相同的方式和从最后的还原阶段(2)操作的至少一个另外的还原阶段(2)中,第一还原阶段(1)中的还原进一步减少,细晶粒分数为 引入熔化 气化区(39),同时通过提供氧气而聚集,并且粗粒部分重力地直接进入熔化气化区(39)。 1)。

    Process for the production of liquid pig iron or liquid steel pre-products

    公开(公告)号:US06254663B1

    公开(公告)日:2001-07-03

    申请号:US09221494

    申请日:1998-12-28

    IPC分类号: C21B1314

    摘要: In the process for the production of liquid pig iron 943) or liquid steel pre-products from charging substances comprising iron ore (5) and fluxes and at least partially containing a portion of fines, the iron ore is directly reduced to sponge iron in at least two reduction stages (1, 2) by the fluidized bed method, the sponge iron is melted in a melt-down gasifying zone (39) under the supply of carbon carriers and an oxygen-containing gas, and a CO- and H2-containing reducing gas is produced which is injected into reduction zones of the reduction stages (1, 2), is reacted there, is withdrawn as a top gas and optionally is supplied to a consumer. To achieve uniform reduction of the iron ore at optimum exploitation of the reducing gas, the iron ore (5) in a first reduction stage (1) by aid of the reducing gas is fractionated into at least two fractions having different grain size distributions each, each fraction is reduced by the reducing gas in a separate fluidized bed (6, 15), wherein the reducing gas maintains a first fluidized bed (6) containing the coarse-grain fraction and separates the fine-grain fraction from the same, and wherein, further, reducing gas is additionally introduced into the further fluidized bed (15) directly reduced iron ore (5) is discharged both from the first and from the further fluidized bed (6, 15) and the fine- and the coarse-grain fraction reduced in the first reduction stage (1) are further reduced in at least one further reduction stage (2) operating in the same manner as the first reduction stage (1) and from the last reduction stage (2) the fine-grain fraction is introduced into the melt-down gasifying zone (39) while being agglomerated by provision of oxygen, and the coarse-grain fraction is fed directly into the melt-down gasifying zone (39) gravitationally (FIG. 1).

    RAPID PREPARATION PROCESS OF AEROGEL
    5.
    发明申请
    RAPID PREPARATION PROCESS OF AEROGEL 审中-公开
    航空快速准备过程

    公开(公告)号:US20080081014A1

    公开(公告)日:2008-04-03

    申请号:US11737450

    申请日:2007-04-19

    IPC分类号: C01B33/12

    CPC分类号: C01B33/1585 C01B33/158

    摘要: Disclosed herein is a rapid preparation process of aerogel. More specifically, the present invention relates to a rapid preparation process of aerogel which enables a considerable reduction in preparation time and preparation costs via simultaneous treatment of solvent exchange and surface-modification of hydrophilic-to-hydrophobic transition.The rapid preparation process comprises mixing a cation exchange resin with sodium silicate (water glass) as a starting material, and removing the sodium ion from the sodium silicate, to subject the sodium silicate to ion exchange; adding a base catalyst and an organosilane compound to the sodium silicate to subject the sodium silicate to gelation; aging the gellized silica gel at room temperature for 2 to 4 hours to discharge water from the silica gel and to modify the surface of the silica gel into hydrophobicity; and drying the hydrophobic silica gel at atmospheric pressure for 18 to 27 hours.

    摘要翻译: 本文公开了气凝胶的快速制备方法。 更具体地说,本发明涉及一种气凝胶的快速制备方法,其通过同时处理亲水 - 疏水过渡的溶剂交换和表面改性,能够显着降低制备时间和制备成本。 快速制备方法包括将阳离子交换树脂与硅酸钠(水玻璃)作为起始原料混合,并从硅酸钠中除去钠离子,使硅酸钠进行离子交换; 向硅酸钠中加入碱催化剂和有机硅烷化合物以使硅酸钠发生凝胶化; 将胶凝硅胶在室温下老化2至4小时,以从硅胶中排出水,并将硅胶表面改性为疏水性; 并在大气压下干燥疏水性硅胶18至27小时。

    Process for reducing ore fines and arrangement for carrying out the
process
    6.
    发明授权
    Process for reducing ore fines and arrangement for carrying out the process 失效
    减少矿石罚款和进行安排的过程

    公开(公告)号:US6030432A

    公开(公告)日:2000-02-29

    申请号:US913505

    申请日:1997-11-17

    CPC分类号: C21B13/0033 Y02P10/136

    摘要: In a process for the reduction of fine ore by reducing gas in the fluidized bed method, the following characteristic features are realized in order to achieve a uniform and even degree of metallization at optimum utilization of the reducing gas and while minimizing the amount of reducing gas employed, that the fine ore is fractionated by aid of the reducing gas into at least two fractions having different grain size distributions, that each fraction is reduced by the reducing gas in a separate fluidized bed, wherein the reducing gas maintains a first fluidized bed containing the coarse-grain fraction and separates the fine-grain fraction from the same, is accelerated together with the fine-grain fraction, subsequently under pressure release forms a further fluidized bed, into which it is continuously injected in a radially symmetrical manner and from below, and wherein, furthermore, secondary reducing gas additionally is directly injected into the further fluidized bed in a radially symmetrical manner, and that reduced ore is discharged from both the first and the second fluidized beds.

    摘要翻译: PCT No.PCT / AT96 / 00045 Sec。 371日期:1997年11月17日 102(e)1997年11月17日PCT PCT 1996年3月11日PCT公布。 公开号WO96 / 29435 日期1996年9月26日在流化床方法中通过还原气体还原细矿石的方法中,实现了以下特征,以便在最佳利用还原气体的同时实现均匀均匀的金属化,同时最小化 所用的还原气体的量,将细矿石通过还原气体分级成至少两个具有不同粒度分布的馏分,每个馏分在单独的流化床中被还原气体还原,其中还原气体保持 含有粗晶粒部分并将细晶粒部分与其分离的第一流化床与细晶粒部分一起加速,随后在压力释放下形成另外的流化床,其中它以径向方式连续注入 另外,二次还原气体另外直接注入到另外的流化床中 d以径向对称的方式,并且还原的矿石从第一和第二流化床排出。