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    • 1. 发明申请
    • FLUID COMPOSITION ANALYSIS MECHANISM, CALORIFIC VALUE MEASUREMENT DEVICE AND POWER PLANT
    • 流体成分分析机制,计量值测量装置和发电厂
    • US20130055697A1
    • 2013-03-07
    • US13482565
    • 2012-05-29
    • Yoshihiro DeguchiYosuke KitauchiMitsuru Inada
    • Yoshihiro DeguchiYosuke KitauchiMitsuru Inada
    • G01K17/00F02C9/00G01J3/44
    • G01N21/65G01N21/85
    • A fluid composition analysis mechanism includes a light source for configured to irradiate excitation light to a sample fluid at a measurement position; a light receiving unit arranged on an extended line of the excitation light for configured to receive and disperse Raman scattering light generated from the sample fluid irradiated with the excitation light; a Raman scattering light collection optical system arranged on an optical path for the excitation light or on the extended line of the excitation light configured to collect the Raman scattering light generated at the measurement position and to cause the condensed Raman scattering light to be incident on the light receiving unit; a calculation unit configured to calculate a composition of the sample fluid based on an output of the light receiving unit; and a light shielding member arranged on the optical path or on the extended line of the excitation light.
    • 流体组成分析机构包括:光源,用于将测量位置处的激发光照射到样品流体; 配置在所述激发光的延长线上的光接收单元,用于接收和分散由激发光照射的样品流体产生的拉曼散射光; 布置在用于激发光的光路上的激光的延伸线上的拉曼散射光收集光学系统,其被配置为收集在测量位置处产生的拉曼散射光,并使聚光的拉曼散射光入射到 光接收单元; 计算单元,被配置为基于所述光接收单元的输出来计算所述样本流体的组成; 以及设置在激发光的光路或延伸线上的遮光部件。
    • 2. 发明授权
    • Steam cooling type gas turbine combustor
    • 蒸汽冷却式燃气轮机燃烧器
    • US6164075A
    • 2000-12-26
    • US155937
    • 1999-04-29
    • Kiryo IgarashiAkio OgoseKouichi AkagiMitsuru Inada
    • Kiryo IgarashiAkio OgoseKouichi AkagiMitsuru Inada
    • F02C7/141F02C7/18F23M5/08F23R3/00F23R3/42
    • F23R3/005F05B2260/205F05B2260/233
    • This invention concerns the use of pressurized steam as the cooling medium in the combustor wall of a gas turbine combustor. It is distinguished by the following. The combustor wall is configured by 1) a plurality of cooling channels for cooling steam, sealed by an exterior wall panel and a heat-resistant plate which are assembled by soldering or some other method; 2) a supply manifold for supplying the cooling steam into the cooling channels, which is provided on one end of the cooling channels; and 3) a recovery manifold for recovering the cooling steam from the cooling channels, which is provided on another end of the cooling channels. This arrangement can form strong enough steam-channels that do not allow any leakage of the high pressure steam from the cooling system.
    • PCT No.PCT / JP98 / 00552 Sec。 371日期1999年4月29日第 102(e)日期1999年4月29日PCT提交1998年2月12日PCT公布。 公开号WO98 / 36220 PCT 日期1998年8月20日本发明涉及使用加压蒸汽作为燃气轮机燃烧器的燃烧器壁中的冷却介质。 它的区别在于以下内容。 燃烧室壁由1个冷却通道构成,冷却通道用于通过焊接或其它方法组装的外壁板和耐热板进行密封; 2)供应歧管,用于将冷却蒸汽供应到设置在冷却通道一端的冷却通道中; 以及3)回收歧管,用于从冷却通道的冷却通道的另一端回收冷却蒸汽。 这种布置可以形成足够强的蒸汽通道,其不允许来自冷却系统的高压蒸汽的任何泄漏。
    • 4. 发明授权
    • Steam cooling method for gas turbine combustor and apparatus therefor
    • 燃气轮机燃烧器的蒸汽冷却方法及其设备
    • US06173561B1
    • 2001-01-16
    • US09155938
    • 1999-04-29
    • Minoru SatoYuichi KobayashiKouichi AkagiMitsuru Inada
    • Minoru SatoYuichi KobayashiKouichi AkagiMitsuru Inada
    • F23R342
    • F02C7/18F05D2260/205F05D2260/2322F23R3/005
    • This invention concerns the use of pressurized steam as the cooling medium for a gas turbine combustor. It is distinguished by the following. Steam supply manifolds or ports for the cooling steam are provided on the gas inlet and outlet sides of the combustion chamber in the gas turbine combustor. A steam exhaust manifold or port for the cooling steam is provided between the gas inlet and outlet sides, in approximately the center of the chamber. Cooling channels for the steam are created in the external wall panel of the chamber between the steam supply manifolds and the exhaust manifold. The steam supplied into the wall panel through the steam supply manifolds on the gas inlet and outlet sides of the chamber is exhausted to the exterior via the steam exhaust manifold in the center of the chamber. This design allows pressurized steam with a high thermal capacity to be used to effectively cool the wall panels of the combustor, which are exposed to extremely hot combustion gases.
    • 本发明涉及使用加压蒸汽作为燃气轮机燃烧器的冷却介质。 它的区别在于以下内容。 用于冷却蒸汽的蒸汽供应歧管或端口设置在燃气轮机燃烧器中的燃烧室的气体入口侧和出口侧。 用于冷却蒸汽的蒸汽排气歧管或端口设置在气体入口侧和出口侧之间,大致在室的中心。 蒸汽的冷却通道在蒸汽供应歧管和排气歧管之间的室的外壁板中产生。 通过腔室的气体入口和出口侧的蒸汽供应歧管向壁板供应的蒸汽通过腔室中心的蒸汽排气歧管排放到外部。 这种设计允许具有高热容量的加压蒸汽用于有效地冷却暴露于极热燃烧气体的燃烧器的壁板。
    • 8. 发明授权
    • Three-dimensional swirler in a gas turbine combustor
    • 燃气轮机燃烧器中的三维旋流器
    • US06502399B2
    • 2003-01-07
    • US09794134
    • 2001-02-28
    • Shigemi MandaiMasataka OhtaMitsuru InadaShinji Akamatsu
    • Shigemi MandaiMasataka OhtaMitsuru InadaShinji Akamatsu
    • F23R314
    • F23R3/14
    • A pre-mixture forming swirler in a gas turbine pre-mixed flame type low NOx combustor is improved so as to accelerate mixing of fuel and air and to prevent the occurrence of flame stagnation and burning of components. In particular, a three-dimensional swirler is constructed such that each swirler vane is twisted from a hub side thereof to a tip side so that a fitting angle of the tip side relative to a center axis of a fuel nozzle is larger than an angle of the hub side. Thereby, while the angle of the hub side is set smaller so that flame stagnation and burning of components resulted therefrom may be prevented from occurring, the angle of the tip side may be selected so that the shearing flow necessary for appropriate mixing of fuel and air is obtained. Thus, favorable pre-mixing is achieved, life deterioration due to burning, etc., is prevented and combustion efficiency is enhanced.
    • 在燃气轮机预混合火焰型低NOx燃烧器中形成旋流器的预混合物得到改善,以加速燃料和空气的混合,并防止部件火焰停滞和燃烧。 特别地,三维旋流器被构造成使得每个旋流器叶片从其轮毂侧扭转到尖端侧,使得尖端侧相对于燃料喷嘴的中心轴线的配合角度大于 集线器侧。 由此,在将轮毂侧的角度设定得较小的同时,能够防止由此引起的部件产生火焰停滞和燃烧的情况下,可以选择前端侧的角度,使得适当地混合燃料和空气所需的剪切流 获得。 因此,可以实现良好的预混合,防止燃烧等引起的寿命劣化,提高燃烧效率。