公开(公告)号：WO2012118722A2

公开(公告)日：2012-09-07

申请号：PCT/US2012026679

申请日：2012-02-27

Applicant: CORNING INC ,  BOUGHTON DANIEL ROBERT ,  JARVIS SCOTT MICHAEL ,  KIM JONGHAK ,  SHI ZHIQIANG

Inventor： BOUGHTON DANIEL ROBERT ,  JARVIS SCOTT MICHAEL ,  KIM JONGHAK ,  SHI ZHIQIANG

IPC: B01F11/02

CPC classification number: C03B5/18 ,  B01F11/0258 ,  C03B5/225

Abstract: An ultrasonic transducer assembly is provided comprising an ultrasonic transducer, an ultrasonic booster, an ultrasonic probe, and a booster cooling unit. The ultrasonic booster is connected to the ultrasonic transducer to amplify acoustic energy generated by the ultrasonic transducer and transfer the amplified acoustic energy to the ultrasonic probe. A seated end of the ultrasonic probe is positioned in a probe seat of the ultrasonic booster. The booster cooling unit is positioned to regulate the temperature of the probe seat of the ultrasonic booster such that the assembly supports a temperature dependent press-fit engagement of the seated end of the ultrasonic probe and the probe seat of the ultrasonic booster. The temperature dependent press-fit engagement is such that the seated end of the ultrasonic probe can be reversibly moved in and out of the probe seat at an elevated temperature ???t and is fixed in the probe seat at room temperature TCOLD. A method of applying ultrasonic acoustic energy to a glass melt by monitoring a glass melt temperature TY and transferring ultrasonic acoustic energy from an ultrasonic transducer to the glass melt at a controller power Pc and a controller frequency Vc through an ultrasonic probe positioned in the glass melt is provided. Systems for applying ultrasonic acoustic energy to glass melts are also provided.

Abstract translation: 提供超声换能器组件，其包括超声换能器，超声波助力器，超声波探头和增压器冷却单元。 超声波助力器连接到超声波换能器，以放大由超声换能器产生的声能并将放大的声能传递到超声波探头。 超声波探头的座位端位于超声波助力器的探头座中。 放大器冷却单元被定位成调节超声波助力器的探针座的温度，使得组件支持超声波探头的就座端和超声波助力器的探针座的温度相关的压配合接合。 温度相关的压配合使得超声波探头的就座端可以在升高的温度t t可逆地移入和移出探针座，并且在室温TCOLD固定在探针座中。 通过监测玻璃熔体温度TY并将超声波能量以控制器功率Pc和控制器频率Vc通过位于玻璃熔体中的超声波探头传递到玻璃熔体的方式，将玻璃熔体施加超声波能量的方法 被提供。 还提供了将超声波能量应用于玻璃熔体的系统。

公开(公告)号：WO2012051038A1

公开(公告)日：2012-04-19

申请号：PCT/US2011/055065

申请日：2011-10-06

Applicant: CORNING INCORPORATED ,  FISHER, William Keith ,  MOORE, Michael John ,  ROSENBLUM, Steven S. ,  SHI, Zhiqiang ,  THOMAS, John Christopher

Inventor： FISHER, William Keith ,  MOORE, Michael John ,  ROSENBLUM, Steven S. ,  SHI, Zhiqiang ,  THOMAS, John Christopher

IPC: B32B17/10 ,  B60J1/00 ,  B60J7/00

CPC classification number: B32B17/10137 ,  B32B17/10036 ,  B32B17/10045 ,  B32B17/10119 ,  B32B17/1055 ,  B32B17/10761 ,  Y10T428/24628 ,  Y10T428/24967 ,  Y10T428/266

Abstract: A glass laminate includes at least one chemically-strengthened glass sheet and a polymer interlayer formed over a surface of the sheet. The chemically-strengthened glass sheet has a thickness of less than 2.0 mm, and a near-surface region under a compressive stress. The near surface region extends from a surface of the glass sheet to a depth of layer (in micrometers) of at least 65-0.06(CS), where CS is the compressive stress at the surface of the chemically-strengthened glass sheet and CS > 300 MPa.

Abstract translation: 玻璃层压体包括至少一个化学强化玻璃片和在该片的表面上形成的聚合物中间层。 化学强化玻璃板的厚度小于2.0mm，压缩应力下的近表面区域。 近表面区域从玻璃板的表面延伸至至少65-0.06（CS）的层（微米）深度，其中CS是化学强化玻璃板表面处的压应力，CS> 300 MPa。

公开(公告)号：WO2014066448A1

公开(公告)日：2014-05-01

申请号：PCT/US2013/066273

申请日：2013-10-23

Applicant: CORNING INCORPORATED ,  SHI, Zhiqiang

Inventor： SHI, Zhiqiang

IPC: H04R23/00

CPC classification number: G06F3/0412 ,  G06F3/041 ,  H04R23/002

Abstract: Embodiments disclosed herein include a device with an integrated acoustics function that includes a patterned touch screen cover, an acoustic thin film, a plurality of electrodes, and a substrate. In some embodiments, the substrate is coupled to the acoustic thin film and reduces heat loss from the acoustic thin film through the substrate. The acoustic thin film may be coupled to the patterned touch screen cover and conducts an oscillating electrical current provided by the plurality of electrodes, thereby acting as a nano-scale acoustic generator. In still some embodiments, the patterned touch screen cover provides an array of microspeakers and a viewing area, where the array of microspeakers is disposed around a perimeter of the patterned touch screen cover.

Abstract translation: 本文公开的实施例包括具有集成声学功能的装置，其包括图案化触摸屏盖，声学薄膜，多个电极和基板。 在一些实施例中，衬底耦合到声学薄膜并减少从声学薄膜通过衬底的热损失。 声学薄膜可以耦合到图案化的触摸屏盖并且传导由多个电极提供的振荡电流，从而用作纳米级声发生器。 在仍然的一些实施例中，图案化触摸屏盖提供了一组微型扬声器和观看区域，其中微阵列阵列围绕图案化的触摸屏盖的周边设置。

公开(公告)号：WO2012118722A3

公开(公告)日：2012-09-07

申请号：PCT/US2012/026679

申请日：2012-02-27

Applicant: CORNING INCORPORATED ,  BOUGHTON, Daniel Robert ,  JARVIS, Scott Michael ,  KIM, Jonghak ,  SHI, Zhiqiang

Inventor： BOUGHTON, Daniel Robert ,  JARVIS, Scott Michael ,  KIM, Jonghak ,  SHI, Zhiqiang

IPC: B01F11/02 ,  B06B3/00 ,  C03B5/18 ,  C03B5/225

Abstract: An ultrasonic transducer assembly is provided comprising an ultrasonic transducer, an ultrasonic booster, an ultrasonic probe, and a booster cooling unit. The ultrasonic booster is connected to the ultrasonic transducer to amplify acoustic energy generated by the ultrasonic transducer and transfer the amplified acoustic energy to the ultrasonic probe. A seated end of the ultrasonic probe is positioned in a probe seat of the ultrasonic booster. The booster cooling unit is positioned to regulate the temperature of the probe seat of the ultrasonic booster such that the assembly supports a temperature dependent press-fit engagement of the seated end of the ultrasonic probe and the probe seat of the ultrasonic booster. The temperature dependent press-fit engagement is such that the seated end of the ultrasonic probe can be reversibly moved in and out of the probe seat at an elevated temperature Τ Ηοτ and is fixed in the probe seat at room temperature T COLD . A method of applying ultrasonic acoustic energy to a glass melt by monitoring a glass melt temperature TY and transferring ultrasonic acoustic energy from an ultrasonic transducer to the glass melt at a controller power P c and a controller frequency V c through an ultrasonic probe positioned in the glass melt is provided. Systems for applying ultrasonic acoustic energy to glass melts are also provided.

公开(公告)号：WO2010059405A1

公开(公告)日：2010-05-27

申请号：PCT/US2009/062677

申请日：2009-10-30

Applicant: CORNING INCORPORATED ,  DAWES, Steven, B. ,  HOGUE, Lisa, A. ,  JENNINGS, Douglas, H ,  THOMAS, Christopher, S. ,  SHI, Zhiqiang ,  WANG, Ji

Inventor： DAWES, Steven, B. ,  HOGUE, Lisa, A. ,  JENNINGS, Douglas, H ,  THOMAS, Christopher, S. ,  SHI, Zhiqiang ,  WANG, Ji

IPC: C03B37/012

CPC classification number: C03B37/01282

Abstract: A method of forming a cladding portion of an optical fiber preform assembly includes positioning a glass core cane in a mold cavity and loading the mold cavity with silica glass soot. The silica glass soot is compressed in an axial direction as the vibratory energy is applied to the mold body to form a soot compact around the glass core cane, wherein the soot compact is the cladding portion of an optical fiber preform assembly and the glass core cane is a core portion of the optical fiber preform assembly.

Abstract translation: 形成光纤预制组件的包层部分的方法包括将玻璃芯棒定位在模腔中并且用石英玻璃烟灰装载模腔。 随着振动能量施加到模具体上，二氧化硅玻璃烟灰在轴向被压缩以在玻璃芯棒周围形成烟炱压块，其中烟炱压实体是光纤预制组件的包层部分，并且玻璃芯棒 是光纤预制组件的核心部分。

公开(公告)号：WO2006113101A2

公开(公告)日：2006-10-26

申请号：PCT/US2006012083

申请日：2006-03-29

Applicant: CORNING INC ,  DANG DIEU-HIEN X ,  SHI ZHIQIANG

Inventor： DANG DIEU-HIEN X ,  SHI ZHIQIANG

IPC: G08B13/00

CPC classification number: G01N33/386 ,  C03B17/064 ,  C03B33/0215 ,  G01N29/14 ,  G01N2291/0232 ,  G01N2291/101 ,  Y02P40/57

Abstract: An acoustic emission system and method are described herein that detect the glass break energy (or another parameter) that is created when a glass sheet is scored and broken. In the preferred embodiment, the acoustic emission system includes an acoustic emission sensor, a data acquisition system and a processor. The acoustic emission sensor interfaces with a glass sheet and generates an acoustic emission signal which is representative of acoustic emission waveforms that are created when the glass sheet was scored and broken. The data acquisition system records the acoustic emission signal. And, the processor processes the recorded acoustic emission signal to determine the glass break energy (or another parameter). Then, the processor can use the glass break energy (or another parameter) to determine the quality of an edge of the broken glass sheet. In addition, the processor can use the glass break energy (or another parameter) as feedback to adjust the scoring and breaking of subsequent glass sheets.

Abstract translation: 本文描述了一种声发射系统和方法，其检测当玻璃板被刻痕和断裂时产生的玻璃破裂能（或另一参数）。 在优选实施例中，声发射系统包括声发射传感器，数据采集系统和处理器。 声发射传感器与玻璃板接口，并产生声发射信号，该声发射信号代表当玻璃片刻痕破裂时产生的声发射波形。 数据采集​​系统记录声发射信号。 并且，处理器处理所记录的声发射信号以确定玻璃破裂能（或另一参数）。 然后，处理器可以使用玻璃破碎能量（或另一参数）来确定碎玻璃板的边缘的质量。 此外，处理器可以使用玻璃破碎能量（或另一参数）作为反馈来调整后续玻璃板的刻痕和断裂。

公开(公告)号：WO2010099272A1

公开(公告)日：2010-09-02

申请号：PCT/US2010/025332

申请日：2010-02-25

Applicant: CORNING INCORPORATED ,  DAWES, Steven B ,  SHI, Zhiqiang

Inventor： DAWES, Steven B ,  SHI, Zhiqiang

IPC: G01N27/26 ,  G01N27/00

CPC classification number: C01F17/0043 ,  B01J23/10 ,  B01J23/63 ,  B01J35/1019 ,  B01J35/1023 ,  B01J35/1042 ,  B01J35/1047 ,  B01J35/1061 ,  B01J37/0018 ,  C01P2002/72 ,  C01P2006/12 ,  C01P2006/16 ,  G01N29/036 ,  G01N2291/0256 ,  Y10T428/249921

Abstract: A mesoporous, transition metal oxide material having an average pore diameter ranging from 2 to 20 nm, a basic surface character defined by an isoelectric point > pH 7, and a specific surface area greater than 50 m 2 /g can be incorporated into a NO x sensing device as a NO x film. The mesoporous, transition metal oxide material includes an oxide of yttrium, lanthanum and/or cerium, and can be formed using a surfactant-templated self-assembly process.

Abstract translation: 具有2〜20nm的平均孔径，等电点> pH7所定义的基本表面特性，比表面积大于50m 2 / g的中孔性过渡金属氧化物材料可以并入到NOx感测 装置作为NOx膜。 介孔的过渡金属氧化物材料包括钇，镧和/或铈的氧化物，并且可以使用表面活性剂模板的自组装方法形成。

公开(公告)号：WO2010030736A1

公开(公告)日：2010-03-18

申请号：PCT/US2009/056452

申请日：2009-09-10

Applicant: NEOGAS INC. ,  SHI, Zhiqiang ,  PANG, David, W.

Inventor： SHI, Zhiqiang ,  PANG, David, W.

IPC: F17C7/02

CPC classification number: F17C5/06 ,  F17C2201/0109 ,  F17C2201/056 ,  F17C2205/0142 ,  F17C2205/0329 ,  F17C2205/0332 ,  F17C2205/0335 ,  F17C2205/0341 ,  F17C2205/0364 ,  F17C2205/0397 ,  F17C2221/012 ,  F17C2221/033 ,  F17C2223/0123 ,  F17C2223/036 ,  F17C2225/0123 ,  F17C2225/036 ,  F17C2227/0157 ,  F17C2227/0192 ,  F17C2227/043 ,  F17C2250/043 ,  F17C2260/025 ,  Y02E60/321

Abstract: A fixed and/or stationary modular unit consists of a hydraulic fluid tank and a pressurization pump. A compressed gas transportation system consists of a set of cylinders. Each cylinder has a charging port and a dispensing port. A valve is connected at the dispensing port of each cylinder. Each of the valves at the dispensing ports of the cylinders are connected to one another. After an idle period of dispensing activity, the valves on the dispensing ports of the cylinders are opened and compressed gas is bled from one of the cylinders into at least one of the other cylinders in the set until the at least one of the other cylinders reaches a desired dispensing pressure. Hydraulic fluid is pumped from the tank into the cylinder being bled from to maintain a substantially constant pressure within the cylinder.

Abstract translation: 固定和/或固定模块单元由液压油箱和加压泵组成。 压缩气体运输系统由一组气缸组成。 每个气缸都具有一个充气口和一个分配口。 阀在每个气缸的分配口连接。 气缸的分配口处的每个阀彼此连接。 在分配活动的空闲时段之后，气瓶的分配端口上的阀打开，并且压缩气体从一个气缸排放到组中的至少一个其它气缸中，直到其它气缸中的至少一个达到 所需的分配压力。 液压油从罐中被泵送到被排出的气缸中，以保持气缸内的基本恒定的压力。

公开(公告)号：WO2007133215A1

公开(公告)日：2007-11-22

申请号：PCT/US2006/019098

申请日：2006-05-16

Applicant: CORNING INCORPORATED ,  HAMPTON, Leslie E ,  SHI, Zhiqiang

Inventor： HAMPTON, Leslie E ,  SHI, Zhiqiang

IPC: G01N29/00 ,  G01B17/00 ,  C04B33/00 ,  C04B35/10 ,  C04B35/195 ,  G01S15/00

CPC classification number: B01D46/2418 ,  B01D46/0086 ,  B01D2046/2433 ,  B01D2273/18 ,  B01D2279/30

Abstract: A method and device for detecting the presence or absence of internal discontinuities or inhomogeneities in a fired or green ceramic honeycomb structure is provided. In the method, an ultrasonic transmitter (33) and receiver (35) are positioned on outer locations of the honeycomb structure, and the transmitter is actuated to generate an ultrasonic wave that is conducted through an inner portion of the honeycomb structure (40), and received by the ultrasonic receiver. The received ultrasonic wave is filtered and then analyzed to determine the presence of internal discontinuities (17). The transmitter generates ultrasonic waves having a frequency of five megahertz or less to maintain a high signal to noise ratio in the propagated wave received by the ultrasonic receiver. The device of the invention includes an array of ultrasonic transmitters and receivers which are simultaneously actuated as a ceramic substrate is moved relative thereto to quickly and efficiently provide a full, non-contact scan of the ceramic body for discontinuities.

Abstract translation: 提供了一种用于检测烧制或绿色陶瓷蜂窝结构中内部不连续性或不均匀性是否存在的方法和装置。 在该方法中，超声波发送器（33）和接收器（35）位于蜂窝结构体的外部位置，并且致动发射器以产生通过蜂窝结构体（40）的内部部分传导的超声波， 并由超声波接收器接收。 接收的超声波被过滤，然后进行分析以确定是否存在内部不连续性（17）。 发射机产生频率为5兆赫或更小的超声波，以保持由超声波接收机接收的传播波中的高信噪比。 本发明的装置包括一组超声波发射器和接收器，它们随着陶瓷衬底相对于其移动而同时致动，以快速有效地提供陶瓷体的不连续的完全非接触式扫描。

公开(公告)号：WO2006113101A3

公开(公告)日：2006-10-26

申请号：PCT/US2006/012083

申请日：2006-03-29

Applicant: CORNING INCORPORATED ,  DANG, Dieu-Hien, X. ,  SHI, Zhiqiang

Inventor： DANG, Dieu-Hien, X. ,  SHI, Zhiqiang

IPC: G08B13/00

Abstract: An acoustic emission system and method are described herein that detect the glass break energy (or another parameter) that is created when a glass sheet (150) is scored and broken. In the preferred embodiment, the acoustic emission system (100) includes an acoustic emission sensor (102), a data acquisition system (104) and a processor (106). The acoustic emission sensor (102) interfaces with a glass sheet (150) and generates of acoustic emission waveforms (108) that are created when the glass sheet (150) was scored and broken. The data acquisition system (105) records the acoustic emission signals (108). And, the processor (106) processes the recorded acoustic emission signals to determine the glass break energy (or another parameter). Then, the processor (106) can use the glass break energy (or another parameter) to determine the quality of an edge of the broken glass sheet (150). In addition, the processor ( 106) can use the glass break energy (or another parameter) as feedback to adjust the scoring and breaking of subsequent glass sheets (150).