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    • 4. 发明申请
    • Dedensification and Delivery Unit
    • 推销和交付单位
    • US20050271374A1
    • 2005-12-08
    • US11160061
    • 2005-06-07
    • Mark Dupuis
    • Mark Dupuis
    • G03B13/00
    • G03B13/00
    • A dedensification and delivery unit for the conversion of an alternative fuel source into fuel, comprising: a dedensification area for separating a densified alternative fuel source into its component parts to form a dedensified alternative fuel source; a compression area for holding the dedensified alternative fuel source; a refining area for further shaping a size of the dedensified alternative fuel source to form a refined alternative fuel source; and a delivery area for delivering the refined alternative fuel source into a burner.
    • 一种用于将替代燃料源转化为燃料的推动和运送单元,包括:用于将致密化的替代燃料源分离成其组成部分以形成被推荐的替代燃料源的净化区域; 一个压缩区,用于容纳被推荐的替代燃料源; 一个精炼区域,用于进一步塑造一定数量的被推荐的替代燃料源,以形成精炼的替代燃料源; 以及用于将精炼的替代燃料源输送到燃烧器中的输送区域。
    • 6. 发明申请
    • YIELD IMPROVEMENT IN SILICON-GERMANIUM EPITAXIAL GROWTH
    • 硅锗外延生长中的YIELD改进
    • US20060289959A1
    • 2006-12-28
    • US11468030
    • 2006-08-29
    • Mark DupuisWade HodgeDaniel KellyRyan Wuthrich
    • Mark DupuisWade HodgeDaniel KellyRyan Wuthrich
    • H01L31/00
    • H01L21/02381H01L21/0245H01L21/02532H01L21/0262H01L21/02639
    • A method for determining a SiGe deposition condition so as to improve yield of a semiconductor structure. Fabrication of the semiconductor structure starts with a single-crystal silicon (Si) layer. Then, first and second shallow trench isolation (STI) regions are formed in the single-crystal Si layer. The STI regions sandwich and define a first single-crystal Si region. Next, silicon-germanium (SiGe) mixture is deposited on top of the structure in a SiGe deposition condition so as to grow (i) a second single-crystal silicon region grows up from the top surface of the first single-crystal silicon region and (ii) first and second polysilicon regions from the top surfaces of the first and second STI regions, respectively. By increasing SiGe deposition temperature and/or lowering precursor flow rate until the resulting yield is within a pre-specified range, a satisfactory SiGe deposition condition can be determined for mass production of the structure.
    • 一种用于确定SiGe沉积条件以提高半导体结构的产量的方法。 半导体结构的制造以单晶硅(Si)层开始。 然后,在单晶Si层中形成第一和第二浅沟槽隔离(STI)区域。 STI区域夹持并限定第一单晶Si区域。 接下来,硅锗(SiGe)混合物以SiGe沉积条件沉积在结构的顶部,以便生长(i)第二单晶硅区域从第一单晶硅区域的顶表面生长, (ii)分别来自第一和第二STI区域的顶表面的第一和第二多晶硅区域。 通过提高SiGe沉积温度和/或降低前驱体流速直到得到的产率达到预定范围内,可以确定满足SiGe沉积条件以进行大规模生产。
    • 7. 发明授权
    • Multi-cutter self-piercing cover assembly for airbag
    • 用于安全气囊的多切割器自穿孔盖组件
    • US5046758A
    • 1991-09-10
    • US611978
    • 1990-11-13
    • Scott RaffertyBruce BatchelderMark Dupuis
    • Scott RaffertyBruce BatchelderMark Dupuis
    • B60R21/2165
    • B60R21/2165B60R2021/21652
    • A cover assembly for an air cushion restraint has a smooth cover with a layer of foam connected between the cover and a load bearing insert for covering a housing for an airbag and a gas generator which generates an inflatant for the airbag for deploying the airbag; three cutters are pivotally connected to the insert member to cut an insert cover member from the insert and to pierce the smooth outer cover member during inflation of the airbag so as to form a self-piercing cover assembly which will be cut to form a three sided opening through the cover assembly through which the airbag is deployed; the cutters are actuated by an insert cover member support system which will operate the cutters as the airbag is inflated to cause cutting edges on the cutters to pierce the smooth outer cover member. The cutters are recessed within the cover assembly to avoid incidental contact with the cutting edges prior to deployment. The cutters are configured such that on deployment the cutting edges have only a limited entry into the passenger compartment of a vehicle. The cutters are arranged to self-retract following airbag deployment to shield the cutting edges from passenger contact during secondary impacts.
    • 一种用于气垫限制器的盖组件具有光滑的盖,其具有连接在盖和用于覆盖用于气囊的壳体的承载插入件之间的泡沫层,以及产生用于展开气囊的气囊膨胀剂的气体发生器; 三个切割器枢转地连接到插入构件以从插入件切割插入物盖构件并且在气囊充气期间刺穿光滑的外盖构件,以便形成自动穿孔盖组件,其将被切割以形成三面 通过安装气囊展开的盖组件打开; 切割器由插入盖构件支撑系统致动,该插入盖构件支撑系统将在气囊膨胀时操作切割器,以使切割器上的切割刃刺穿光滑的外盖构件。 切割器凹入盖组件内以避免在展开之前与切割边缘的偶然接触。 切割器被构造成使得在展开时切割刃仅限于进入车辆的乘客舱。 切割器被布置成在安全气囊展开之后自动缩回以在二次冲击期间屏蔽切割边缘与乘客接触。
    • 8. 发明申请
    • Nozzle and Method of Use
    • 喷嘴和使用方法
    • US20070029409A1
    • 2007-02-08
    • US11461645
    • 2006-08-01
    • Mark Dupuis
    • Mark Dupuis
    • B05B1/34
    • B05B1/341F23D1/02F23D2201/10F23D2900/01001
    • A nozzle for controlling the spray pattern and the distribution of particles into a combustion chamber. The nozzle comprises a receiver in communication with a vortex chamber, which in turn is in communication with a discharge hood. The vortex chamber and the discharge hood are designed to reduce the air pressure within the nozzle, and to thereby decrease the velocity at which particles move through the nozzle. The nozzle further comprises a plurality of blades disposed on the vortex chamber which serve to control the spray pattern of the particles. The nozzle further optionally comprises a plurality of deflectors located on the discharge hood which further controls the spray pattern of the particles.
    • 用于控制喷射图案和颗粒分布到燃烧室中的喷嘴。 喷嘴包括与涡流室连通的接收器,涡流室又与排气罩连通。 涡流室和排气罩被设计成减小喷嘴内的空气压力,从而降低颗粒通过喷嘴移动的速度。 喷嘴还包括设置在涡流室上的多个叶片,其用于控制​​颗粒的喷雾图案。 喷嘴还可选地包括位于排气罩上的多个偏转器,其进一步控制颗粒的喷雾图案。
    • 9. 发明申请
    • YIELD IMPROVEMENT IN SILICON-GERMANIUM EPITAXIAL GROWTH
    • 硅锗外延生长中的YIELD改进
    • US20050260826A1
    • 2005-11-24
    • US10709644
    • 2004-05-19
    • Mark DupuisWade HodgeDaniel KellyRyan Wuthrich
    • Mark DupuisWade HodgeDaniel KellyRyan Wuthrich
    • H01L21/20H01L21/205H01L29/04H01L29/10H01L29/12H01L31/036
    • H01L21/02381H01L21/0245H01L21/02532H01L21/0262H01L21/02639
    • A method for determining a SiGe deposition condition so as to improve yield of a semiconductor structure. Fabrication of the semiconductor structure starts with a single-crystal silicon (Si) layer. Then, first and second shallow trench isolation (STI) regions are formed in the single-crystal Si layer. The STI regions sandwich and define a first single-crystal Si region. Next, silicon-germanium (SiGe) mixture is deposited on top of the structure in a SiGe deposition condition so as to grow (i) a second single-crystal silicon region grows up from the top surface of the first single-crystal silicon region and (ii) first and second polysilicon regions from the top surfaces of the first and second STI regions, respectively. By increasing SiGe deposition temperature and/or lowering precursor flow rate until the resulting yield is within a pre-specified range, a satisfactory SiGe deposition condition can be determined for mass production of the structure.
    • 一种用于确定SiGe沉积条件以提高半导体结构的产量的方法。 半导体结构的制造以单晶硅(Si)层开始。 然后,在单晶Si层中形成第一和第二浅沟槽隔离(STI)区域。 STI区域夹持并限定第一单晶Si区域。 接下来,硅锗(SiGe)混合物以SiGe沉积条件沉积在结构的顶部,以便生长(i)第二单晶硅区域从第一单晶硅区域的顶表面生长, (ii)分别来自第一和第二STI区域的顶表面的第一和第二多晶硅区域。 通过提高SiGe沉积温度和/或降低前驱体流速直到得到的产率达到预定范围内,可以确定满足SiGe沉积条件以进行大规模生产。