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    • 51. 发明授权
    • Self-healing electrical communication paths
    • 自愈电路通路
    • US08063307B2
    • 2011-11-22
    • US12272616
    • 2008-11-17
    • Leonid BukshpunRanjit PradhanKang S. LeeThomas ForresterTomasz Jannson
    • Leonid BukshpunRanjit PradhanKang S. LeeThomas ForresterTomasz Jannson
    • H01B3/30
    • A41D1/005
    • Self-healing electrical garments and self-healing electrical conductors and components for use in electrical garments are provided. A communication medium of various forms is integrated into a garment seam that is used to join two or more portions of a garment. The communication media can be used to provide electrical or other electromagnetic connection for coupling among a plurality of electrical devices associated with the garment. The self-healing electrical conductor may be used as part of a garment portion or may be used as a joining fiber in a variety of techniques to join garment portions together. The self-healing electrical conductor comprises an electrical conductor, a conductive polymer immediately surrounding or adjacent to the electrical conductor, an insulator enclosing the electrical conductor and the conductive polymer.
    • 提供自愈式电气服装和自愈电导体和用于电气服装的部件。 将各种形式的通信介质集成到用于连接衣服的两个或更多个部分的衣服缝中。 通信介质可用于提供用于在与服装相关联的多个电气设备之间耦合的电气或其它电磁连接。 自修复电导体可以用作衣服部分的一部分,或者可以以各种技术用于连接衣服部分的连接纤维。 自修复电导体包括电导体,直接围绕或邻近电导体的导电聚合物,封闭电导体和导电聚合物的绝缘体。
    • 54. 发明授权
    • System and method for soil strength measurement
    • 土体强度测量系统及方法
    • US07581452B2
    • 2009-09-01
    • US11968867
    • 2008-01-03
    • Sergey SandomirskyTomasz JannsonPaul ShnitserGajendra Savant
    • Sergey SandomirskyTomasz JannsonPaul ShnitserGajendra Savant
    • G01N3/24
    • E02D1/022
    • A system and method for characterizing soil shear strength from a vehicle, comprises a plurality of sensors mounted on a vehicle and configured to measure distances from the sensors to the soil surface. The sensors comprise a first sensor disposed on the vehicle and configured to measure a first distance between the first sensor and the soil and a second sensor disposed on the vehicle and configure to measure a second distance between a the sensor and a track made in the soil by the vehicle, wherein the first sensor measures the distance at a location before the vehicle wheel travels over that location and the second sensor measures the distance to the bottom of the track made by the wheel. A processing module is communicatively coupled to the sensors and is configured to calculate track depth as a function of the first and second distance measurements; and to derive soil shear strength as a function of the calculated track depth and the vehicle parameters.
    • 用于表征来自车辆的土壤剪切强度的系统和方法包括安装在车辆上并被配置成测量从传感器到土壤表面的距离的多个传感器。 所述传感器包括布置在所述车辆上并被配置成测量所述第一传感器和所述土壤之间的第一距离的第一传感器和设置在所述车辆上的第二传感器,并且被配置为测量所述传感器与所述土壤中制成的轨道之间的第二距离 其中,所述第一传感器测量在所述车轮在所述位置之前行进的位置处的距离,并且所述第二传感器测量到由所述车轮制成的轨道的底部的距离。 处理模块通信地耦合到传感器,并且被配置为根据第一和第二距离测量来计算轨道深度; 并根据计算的轨迹深度和车辆参数导出土体剪切强度。
    • 55. 发明申请
    • SYSTEM AND METHOD FOR SOIL STRENGTH MEASUREMENT
    • 土壤强度测量系统与方法
    • US20090173147A1
    • 2009-07-09
    • US11968867
    • 2008-01-03
    • SERGEY SANDOMIRSKYTOMASZ JANNSONPAUL SHNITSERGAJENDRA SAVANT
    • SERGEY SANDOMIRSKYTOMASZ JANNSONPAUL SHNITSERGAJENDRA SAVANT
    • G01B5/18
    • E02D1/022
    • A system and method for characterizing soil shear strength from a vehicle, comprises a plurality of sensors mounted on a vehicle and configured to measure distances from the sensors to the soil surface. The sensors comprise a first sensor disposed on the vehicle and configured to measure a first distance between the first sensor and the soil and a second sensor disposed on the vehicle and configure to measure a second distance between a the sensor and a track made in the soil by the vehicle, wherein the first sensor measures the distance at a location before the vehicle wheel travels over that location and the second sensor measures the distance to the bottom of the track made by the wheel. A processing module is communicatively coupled to the sensors and is configured to calculate track depth as a function of the first and second distance measurements; and to derive soil shear strength as a function of the calculated track depth and the vehicle parameters.
    • 用于表征来自车辆的土壤剪切强度的系统和方法包括安装在车辆上并被配置成测量从传感器到土壤表面的距离的多个传感器。 所述传感器包括布置在所述车辆上并被配置成测量所述第一传感器和所述土壤之间的第一距离的第一传感器和设置在所述车辆上的第二传感器,并且被配置为测量所述传感器与所述土壤中制成的轨道之间的第二距离 其中,所述第一传感器测量在所述车轮在所述位置之前行进的位置处的距离,并且所述第二传感器测量到由所述车轮制成的轨道的底部的距离。 处理模块通信地耦合到传感器,并且被配置为根据第一和第二距离测量来计算轨道深度; 并根据计算的轨迹深度和车辆参数导出土体剪切强度。
    • 56. 发明授权
    • Electrical connector configured as a fastening element
    • 电连接器构造为紧固元件
    • US07462035B2
    • 2008-12-09
    • US11190697
    • 2005-07-27
    • Kang LeeThomas ForresterTomasz JannsonAndrew KostrzewskiEugene LevinGajendra Savant
    • Kang LeeThomas ForresterTomasz JannsonAndrew KostrzewskiEugene LevinGajendra Savant
    • H01R33/00
    • H01R13/625A41D1/002H01R4/04H01R4/06H01R12/592H01R13/24H01R13/5219H01R13/6277H01R39/64
    • An entirely wearable electrical connector for power/data connectivity. The principal element of a modular network is the wearable electrical connector, which is integrated into a personal area network with USB compatibility. Several wearable connector embodiments are disclosed. The first, an O-ring based version, was subsequently replaced by a more mature second version, which is based on anisotropic pressure sensitive conductive elastomer. Both are snap-style, low-profile, 360°-moving, round, blind operable plug-and-play, reconfigurable wearable connectors with power/data daisy-lattice-style connectivity. A third embodiment comprises a non-conductive elastomeric environmental seal. A fourth embodiment utilizes a self-acting, automatic shutter-type environmental seal. A fifth embodiment comprises a smaller version that resembles a conventional snap fastener commonly used on clothing. The inventive technology will benefit the military and public safety personnel such as police, fire, EMT and other services that require special protective clothing integrated with multiple electronic devices. Other applications include special clothing for the disabled, prisoners, the mentally ill and children. A non-wearable embodiment is used to provide evidence of tampering of a container.
    • 用于电源/数据连接的完全可佩戴的电连接器。 模块化网络的主要元件是可佩戴的电连接器,它集成到具有USB兼容性的个人区域网络中。 公开了几种可穿戴式连接器实施例。 第一个基于O形圈的版本随后被更为成熟的第二版本替代,该版本基于各向异性压敏导电弹性体。 两种都是卡式,低调,360度移动,圆形,可操作的即插即用,可重新配置的可穿戴式连接器,具有电源/数据菊花格子式连接。 第三实施例包括非导电弹性体环境密封。 第四实施例利用自动的自动快门式环境密封。 第五实施例包括类似于通常用于衣服上的常规按扣的较小版本。 本发明技术将使警察,消防,EMT等需要特殊防护服的多个电子设备的军事和公共安全人员受益。 其他应用包括为残疾人士,囚犯,精神病患者和儿童提供特别服装。 使用非穿戴性实施例来提供篡改容器的证据。
    • 57. 发明申请
    • Roll-to-roll method and system for micro-replication of a pattern of large relief three-dimensional microstructures
    • 用于微复制的大型浮雕三维微结构的卷对卷方法和系统
    • US20080156421A1
    • 2008-07-03
    • US11649428
    • 2007-01-03
    • Kang LeeNanda NathanEngin ArikThomas ForresterTomasz JannsonEdward M. KaiserKevin H. Yu
    • Kang LeeNanda NathanEngin ArikThomas ForresterTomasz JannsonEdward M. KaiserKevin H. Yu
    • B32B37/12
    • G02B5/0231B29C39/148B29C39/18G02B5/0221G02B5/0268G02B5/045Y10T156/1168Y10T156/1174Y10T156/1195
    • A method and system referred to as PALM (Patterning by Adhesive of Large Relief Three-Dimensional Microstructures) with large reliefs exceeding 1 μm and being as large as 100 μm. The microstructures can be either deterministic (such as microprisms), or random (such as diffusers), the first obtained by copying an original supermaster, and latter obtained by copying a laser speckle pattern. The master process entails copying a supermaster into the form of the microstructure constituting a pattern on the patterning cylinder (called a drum), to be then continuously multiplied in the PALM system, in a continuous roll-to-roll web process. The latter method, together with the related system, is the subject of this invention. The rolls continuously repeat the master pattern, copying by adhesive with large viscosity on acrylic (hybrid) as well as by a monolithic process. The monolithic process can be accomplished using temperature and pressure, or by UV-cured polymerization. Therefore, the invention comprises three alternative processes: one, hybrid (adhesive on acrylic), and two monolithic ones. In the PALM (hybrid) process, an epoxy is wet-coated on film substrates such as polycarbonate (PC), polyester (PET), (PE), or other flexible material. The adhesive, in liquid form, is applied to the substrate by a self-metered coating sub-process. In the present invention, the adhesive is used for forming the microstructure pattern. The microstructure pattern is replicated from a master roll or image drum onto a coating roll.
    • 一种称为PALM(大型浮雕三维显微结构的图案化)的方法和系统,其具有超过1um的大浮雕并且大至100mum。 微结构可以是确定性的(例如微棱镜)或随机的(如扩散器),这是通过复制原始超高分子获得的,而后者是通过复制激光斑纹图案获得的。 主处理过程需要将超高分子复制到构图图案化圆筒(称为滚筒)上的图案的微结构的形式中,然后在连续的卷对卷网过程中在PALM系统中连续地倍增。 后一种方法与相关系统一起是本发明的主题。 辊连续重复主图案,通过丙烯酸(混合)上的粘度大的粘合剂以及通过单片工艺复印。 整体方法可以使用温度和压力,或通过UV固化聚合来完成。 因此,本发明包括三种可选方法:一种,混合型(丙烯酸粘合剂)和两种单片。 在PALM(混合)方法中,将环氧树脂湿式涂覆在诸如聚碳酸酯(PC),聚酯(PET),(PE)或其它柔性材料的薄膜基材上。 液体形式的粘合剂通过自动计量涂层子方法施加到基底上。 在本发明中,粘合剂用于形成微结构图案。 将微结构图案从主辊或图像鼓复制到涂布辊上。