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    • 1. 发明申请
    • Smart Photovoltaic Assembly and Photovoltaic System
    • 智能光伏组件和光伏系统
    • US20120037222A1
    • 2012-02-16
    • US13209637
    • 2011-08-15
    • Palvin Chee Leong ChanLang GuoRui Huang
    • Palvin Chee Leong ChanLang GuoRui Huang
    • H01L31/02
    • H02G3/16H02S40/34H02S40/345
    • A smart photovoltaic assembly and a photovoltaic system are provided. The smart photovoltaic assembly comprises a photovoltaic assembly main body, an installation plate disposed on a back surface of the photovoltaic assembly main body, and a current leading terminal connector provided on the installation plate for leading an electric current line from the photovoltaic assembly main body, wherein the current leading terminal connector has a first connector interface adapted for connecting with a second connector interface of a complementary electronic device. The current leading terminal connector is in electrical connection with the complementary electronic device by mutual connection of the first connector interface and the second connector interface. The photovoltaic system comprises the above mentioned smart photovoltaic assembly, wherein the electronic device may be a diode module, an electric voltage converting device, a monitor or other types of electronic devices according to the need of a user.
    • 提供智能光伏组件和光伏系统。 智能光伏组件包括光伏组件主体,设置在光伏组件主体的后表面上的安装板和设置在安装板上的用于引导来自光伏组件主体的电流线的电流引线端子连接器, 其中当前引线端子连接器具有适于与互补电子器件的第二连接器接口连接的第一连接器接口。 当前的引线端子连接器通过第一连接器接口和第二连接器接口的相互连接与互补电子器件电连接。 光伏系统包括上述智能光伏组件,其中根据用户的需要,电子设备可以是二极管模块,电压转换装置,监视器或其他类型的电子设备。
    • 6. 发明申请
    • ONE METHOD OF DELEGATE-BASED GROUP CHANNEL ACCESS
    • 基于代码的组通道访问的一种方法
    • US20150189458A1
    • 2015-07-02
    • US13997240
    • 2012-05-03
    • Honggang LiRui Huang
    • Honggang LiRui Huang
    • H04W4/00H04L29/08H04W72/04
    • H04W4/005H04L5/0039H04L67/12H04W4/70H04W56/004H04W72/0446H04W72/048
    • A delegate-based group channel access method is disclosed for machine-to-machine (M2M) communication. The delegate-based group channel access method groups M2M devices having common characteristics together, assigns a single delegate or multiple delegates from the group according to some criteria, and uses the assigned delegate to perform channel access. This method avoids unnecessary peer-to-peer communication between M2M devices reduces the probability of collision on the channel during initial channel access, and reduces the control signaling overhead. The, delegate-based group channel access method also coordinates the number of slots to backoff so that all M2M devices in the group keep pace with the delegate.
    • 公开了一种基于代理的组通道访问方法,用于机对机(M2M)通信。 基于代表的组信道接入方法将具有共同特征的M2M设备组合在一起,根据一些标准从组分配单个委托或多个代表,并使用分配的委托来执行信道接入。 该方法避免了M2M设备之间不必要的对等通信,降低了初始信道接入时信道上的冲突概率,降低了控制信令开销。 基于代表的组通道访问方法还协调插槽的次数以进行退避,使组内的所有M2M设备与代理保持同步。
    • 7. 发明申请
    • METHOD FOR PREPARING SULFURIC ACID BY USING HYDROGEN SULFIDE
    • 使用硫化氢制备硫酸的方法
    • US20140205534A1
    • 2014-07-24
    • US14130354
    • 2012-06-29
    • Ren ZhouRui Huang
    • Ren ZhouRui Huang
    • C01B17/76
    • C01B17/76C01B17/508C01B17/806F28D7/1623F28D2021/0022F28F9/10F28F19/002F28F19/04F28F21/006F28F2230/00F28F2265/26
    • Provided is a method for preparing sulfuric acid by using hydrogen sulfide. The method comprises the following steps: (1) performing a reduction-oxidation reaction between an H2S feed gas and oxygen comprised in an oxygen-rich air to prepare SO2, controlling residual oxygen after the reduction-oxidation reaction step at a molar percentage of ≧2%; (2) cooling the product acquired in step (1) to a temperature between 390° C. and 430° C., and then performing a catalyzed oxidation reaction with oxygen, wherein the catalyzed oxidation reaction is performed in stages until the conversion rate of SO2 is ≧98.7% or the outlet concentration of SO2 is ≦550 mg/Nm3; and (3) cooling the product acquired in step (2) to a temperature ≧10° C. over the dew point temperature of H2SO4, then further cooling to a temperature between 60° C. and 120° C., collecting H2SO4 product, and subjecting the gas acquired after cooling to a coalescent separation before discharging directly into the atmosphere. Also provided is a heat exchanger, comprising a housing and several glass pipes, wherein the glass pipes are arranged within the housing along the direction of a long axis of the housing, arching between two lateral walls thereof, and used for circulating cooling medium; the adjacent glass pipes are connected head-to-tail, thereby forming at least one cooling medium flow path of unidirectional flow. The method for preparing sulfuric acid provides high removal efficiency of hydrogen sulfide, simple process flow, and allows for economic efficiency of apparatus and reasonable utilization of energy.
    • 提供了通过使用硫化氢制备硫酸的方法。 该方法包括以下步骤:(1)在H2S进料气体和富氧空气中包含的氧气之间进行还原氧化反应以制备SO 2,在还原 - 氧化反应步骤之后控制残余氧以≧ 2%; (2)将步骤(1)中获得的产物冷却至390℃至430℃之间的温度,然后与氧气进行催化氧化反应,其中催化氧化反应分级进行直至转化率 SO2为≥98.7%,SO2出口浓度为“N”; 550mg / Nm3; 和(3)在H 2 SO 4的露点温度下将步骤(2)中获得的产物冷却至≥10℃的温度,然后进一步冷却至60℃至120℃的温度,收集H 2 SO 4产物, 并在冷却后获得的气体进行聚结分离,然后直接排放到大气中。 还提供了一种热交换器,其包括壳体和几个玻璃管,其中玻璃管沿壳体的长轴方向布置在壳体内,在其两个侧壁之间拱起并用于循环冷却介质; 相邻的玻璃管头对头连接,从而形成至少一个单向流动的冷却介质流动路径。 制备硫酸的方法提供了较高的硫化氢去除效率,工艺流程简单,并且能够提高设备的经济效益和合理利用能源。
    • 10. 发明申请
    • METHOD FOR TUNING SURFACE STRUCTURE OF METALLIC NANO-CATALYST AND PREPARATION METHOD THEREOF
    • 用于调谐金属纳米催化剂表面结构的方法及其制备方法
    • US20130184146A1
    • 2013-07-18
    • US13814462
    • 2011-06-13
    • Shi-gang SunRui HuangSheng-pei Chen
    • Shi-gang SunRui HuangSheng-pei Chen
    • B01J37/34
    • B01J37/348B01J21/18B01J21/185B01J23/42B01J23/44B01J23/462B01J23/464B01J23/468B01J23/50B01J23/52B01J23/72B01J23/745B01J23/75B01J23/755B01J35/0013B01J35/002B01J35/006B82Y30/00C25C5/02C25C7/00C25C7/06C25D1/006C25D1/04C25D3/50C25D5/18C25D17/00C25D17/02
    • The present disclosure relates to a surface structure control and preparation process for a metal nanocatalyst involving a metal nanocatalyst. The present disclosure provides a surface structure control and continuous preparation system for a metal nanocatalyst, a metal nanocatalyst having an open surface structure and high surface energy, and a surface structure control and a preparation process thereof. The system is provided with a nucleation electrolytic cell, a distribution valve, at least two growth electrolytic cells, with two ends of the distribution valve being connected to an output port of the nucleation electrolytic cell and to input port of all the growth electrolytic cells, respectively. The metal nanocatalyst having an open surface structure is a single metal nanoscale crystal and has a high density of terrace atoms or active sites on the surface thereof. The precursor reaction solution is injected into the nucleation electrolytic cell, and a nucleation programmed potential is applied to one pair of electrodes in the nucleation electrolytic cell to obtain a nucleation reaction solution having the metal crystal nucleus formed, which is conveyed to the growth electrolytic cell through the distribution valve, a growth programmed potential is applied to one pair of electrodes in the growth electrolytic cell to obtain a metal nanoscale crystal having an open surface structure; controlling the growth time to obtain a reaction solution, and collecting a product by centrifugation.
    • 本公开内容涉及涉及金属纳米催化剂的金属纳米催化剂的表面结构控制和制备方法。 本公开内容提供了一种用于金属纳米催化剂的表面结构控制和连续制备系统,具有开放表面结构和高表面能的金属纳米催化剂,以及表面结构控制及其制备方法。 该系统设置有成核电解池,分配阀,至少两个生长电解池,分配阀的两端连接到成核电解槽的输出端口和所有生长电解槽的输入口, 分别。 具有开放表面结构的金属纳米催化剂是单金属纳米级晶体,并且在其表面上具有高密度的平台原子或活性位点。 将前体反应溶液注入到成核电解槽中,并将成核程序电位施加到成核电解槽中的一对电极上,得到形成有金属晶核的成核反应溶液,将其输送至生长电解槽 通过分配阀,将生长编程电位施加到生长电解槽中的一对电极上,得到具有开放表面结构的金属纳米级晶体; 控制生长时间以获得反应溶液,并通过离心收集产物。