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公开(公告)号：US20170236423A1
公开(公告)日：2017-08-17
申请号：US15419891
申请日：2017-01-30
Applicant: Elwha LLC
Inventor： Jeffrey A. Bowers , Geoffrey F. Deane , Roderick A. Hyde , Nathan Kundtz , Nathan P. Myhrvold , David R. Smith , Clarence T. Tegreene , Lowell L. Wood, JR.
IPC: G08G1/16
Abstract: A vehicle collision detection system may be configured to coordinate with collision detection systems of other vehicles. The coordination may comprise sharing sensor data with other vehicles, receiving sensor information from other vehicles, using sensor information to generate a collision detection model, sharing the collision detection model with other vehicles, receiving a collision detection model from other vehicles, and the like. In some embodiments, vehicles may coordinate sensor operation to form a bistatic and/or multistatic sensor configuration, in which a detection signal generated at a first land vehicle is detected at a sensing system at a second land vehicle.
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52.发明授权公开(公告)号：US09715159B1
公开(公告)日：2017-07-25
申请号：US15434914
申请日：2017-02-16
Applicant: Elwha LLC
Inventor： Gleb M. Akselrod , Roderick A. Hyde , Muriel Y. Ishikawa , Jordin T. Kare , Maiken H. Mikkelsen , Tony S. Pan , David R. Smith , Clarence T. Tegreene , Yaroslav A. Urzhumov , Charles Whitmer , Lowell L. Wood, Jr. , Victoria Y. H. Wood
CPC classification number: G02F1/353 , B82Y20/00 , G02B5/008 , G02F1/355 , G02F2001/354 , G02F2202/36 , G02F2203/10 , G02F2203/15 , H01S3/169 , H01S5/041 , H01S5/1046 , H01S5/1067 , Y10S977/773
Abstract: Embodiments include a gain system and method. The system includes a gain medium with a plurality of plasmonic apparatus. Each plasmonic apparatus includes a substrate having a first plasmonic surface, a plasmonic nanoparticle having a second plasmonic surface, and a dielectric-filled gap between the first plasmonic surface and the second plasmonic surface. A plasmonic cavity is created by an assembly of the first plasmonic surface, the second plasmonic surface, and the dielectric-filled gap, and has a first fundamental wavelength λ1 and second fundamental wavelength λ2. Fluorescent particles are located in the dielectric-filled gap. Each fluorescent particle has an absorption spectrum at the first fundamental wavelength λ1 and an emission spectrum at the second fundamental wavelength λ2. An excitation applied to the gain medium at the first fundamental wavelength λ1 produces an amplified electromagnetic wave emission at the second resonant wavelength λ2.
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公开(公告)号：US09711831B2
公开(公告)日：2017-07-18
申请号：US14708043
申请日：2015-05-08
Applicant: Elwha LLC
Inventor： Tom Driscoll , John Desmond Hunt , Nathan Ingle Landy , David R. Smith , Yaroslav A. Urzhumov
CPC classification number: H01P1/16 , G02B1/002 , G02B5/32 , G02B6/00 , G02B6/2848 , G02B27/286 , G03H1/0005 , G03H1/0808 , H01P5/022 , H01P5/19 , H01P5/20 , H01P5/222 , H01Q1/42 , H01Q13/02 , H01Q13/06 , H01Q15/02 , H01Q19/062 , H01Q19/067
Abstract: The present disclosure provides systems and methods associated with mode conversion for electromagnetic field modification. A mode converting structure (holographic metamaterial) is formed with a distribution of dielectric constants chosen to convert an electromagnetic radiation pattern from a first mode to a second mode to attain a target electromagnetic radiation pattern that is different from the input electromagnetic radiation pattern. A solution to a holographic equation provides a sufficiently accurate approximation of a distribution of dielectric constants that can be used to form a mode converting device for use with one or more transmission lines, such as waveguides. One or more optimization algorithms can be used to improve the efficiency of the mode conversion.
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公开(公告)号：US09677897B2
公开(公告)日：2017-06-13
申请号：US14078881
申请日：2013-11-13
Applicant: Elwha LLC
Inventor： Tom Driscoll , Joseph R. Guerci , Russell J. Hannigan , Roderick A. Hyde , Muriel Y. Ishikawa , Jordin T. Kare , Nathan P. Myhrvold , David R. Smith , Clarence T. Tegreene , Yaroslav A. Urzhumov , Charles Whitmer , Lowell L. Wood, Jr. , Victoria Y. H. Wood
CPC classification number: G01C21/3602 , G01C21/14 , G01C21/26 , G06T7/32 , G06T7/33 , G06T2207/30252 , H04N5/2256 , H04N5/247 , H04N5/332
Abstract: Described embodiments include a system and method. A system includes a first and second digital imaging devices. Each digital imaging device is configured to capture digital images of a surface traveled by a vehicle. A digital image correlator is configured to (i) correlate a first digital image of the surface captured by a first digital imaging device at a first time and a second digital image of the surface captured by a second digital imaging device at a subsequent second time, and (ii) determine a correlation vector. The first and second imaging devices are separated by a known distance. A kinematics circuit is configured to determine in response to the correlation vector an incremental translation and rotation of the vehicle. The system includes a navigation circuit configured to combine at least two instances of the incremental translation and rotation into data indicative of travel by the vehicle.
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公开(公告)号：US09627115B2
公开(公告)日：2017-04-18
申请号：US14853410
申请日：2015-09-14
Applicant: Elwha LLC
Inventor： Gleb M. Akselrod , Roderick A. Hyde , Muriel Y. Ishikawa , Jordin T. Kare , Maiken H. Mikkelsen , Tony S. Pan , David R. Smith , Clarence T. Tegreene , Yaroslav A. Urzhumov , Charles Whitmer , Lowell L. Wood, Jr. , Victoria Y. H. Wood
CPC classification number: H01F1/06 , G02B5/008 , H01F1/0018 , H01F1/0045 , H01F1/20
Abstract: Described embodiments include a system, method, and apparatus. The apparatus includes a plasmonic nanoparticle dimer. The dimer includes a first plasmonic nanoparticle having a first magnetic element covered by a first negative-permittivity layer comprising a first plasmonic outer surface. The dimer includes a second plasmonic nanoparticle having a second magnetic element covered by a second negative-permittivity layer comprising a second plasmonic outer surface. The dimer includes a separation control structure configured to establish a dielectric-filled gap between the first plasmonic outer surface and the second plasmonic outer surface. A magnetic attraction between the first magnetic element and the second magnetic element binds the first plasmonic nanoparticle and the second plasmonic nanoparticle together, separated by the dielectric-filled gap established by the separation control structure. The first plasmonic outer surface, the dielectric-filled gap, and the second plasmonic outer surface are configured to cooperatively support one or more mutually coupled plasmonic excitations.
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Patent Agency Ranking
公开(公告)号：US20170076844A1
公开(公告)日：2017-03-16
申请号：US14853410
申请日：2015-09-14
Applicant: Elwha LLC
Inventor： Gleb M. Akselrod , Roderick A. Hyde , Muriel Y. Ishikawa , Jordin T. Kare , Maiken H. Mikkelsen , Tony S. Pan , David R. Smith , Clarence T. Tegreene , Yaroslav A. Urzhumov , Charles Whitmer , Lowell L. Wood, JR. , Victoria Y.H. Wood
CPC classification number: H01F1/06 , G02B5/008 , H01F1/0018 , H01F1/0045 , H01F1/20
Abstract: Described embodiments include a system, method, and apparatus. The apparatus includes a plasmonic nanoparticle dimer. The dimer includes a first plasmonic nanoparticle having a first magnetic element covered by a first negative-permittivity layer comprising a first plasmonic outer surface. The dimer includes a second plasmonic nanoparticle having a second magnetic element covered by a second negative-permittivity layer comprising a second plasmonic outer surface. The dimer includes a separation control structure configured to establish a dielectric-filled gap between the first plasmonic outer surface and the second plasmonic outer surface. A magnetic attraction between the first magnetic element and the second magnetic element binds the first plasmonic nanoparticle and the second plasmonic nanoparticle together, separated by the dielectric-filled gap established by the separation control structure. The first plasmonic outer surface, the dielectric-filled gap, and the second plasmonic outer surface are configured to cooperatively support one or more mutually coupled plasmonic excitations.
Abstract translation: 所描述的实施例包括系统，方法和装置。 该装置包括等离子体激元纳米颗粒二聚体。 二聚体包括具有由包含第一等离子体激元外表面的第一负介电常数层覆盖的第一磁性元件的第一等离子体纳米颗粒。 二聚体包括具有由包含第二等离子体激元外表面的第二负介电常数层覆盖的第二磁性元件的第二等离子体纳米颗粒。 二聚体包括分离控制结构，其被配置为在第一等离子体激元外表面和第二等离子体激元外表面之间建立介电填充间隙。 第一磁性元件和第二磁性元件之间的磁吸引力将第一等离子体激元纳米粒子和第二等离子体激元纳米粒子结合在一起，由分离控制结构建立的介电填充间隙分开。 第一等离子体激元外表面，电介质填充间隙和第二等离子体激元外表面被配置为协同地支持一个或多个相互耦合的等离激元激发。
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57.发明申请MAGNETIC PLASMONIC NANOPARTICLE POSITIONED ON A MAGNETIC PLASMONIC SUBSTRATE 有权位于磁性等离子体基板上的磁性等离子体纳米颗粒公开(公告)号：US20170076843A1
公开(公告)日：2017-03-16
申请号：US14853370
申请日：2015-09-14
Applicant: Elwha LLC
Inventor： Gleb M. Akselrod , Roderick A. Hyde , Muriel Y. Ishikawa , Jordin T. Kare , Maiken H. Mikkelsen , Tony S. Pan , David R. Smith , Clarence T. Tegreene , Yaroslav A. Urzhumov , Charles Whitmer , Lowell L. Wood, JR. , Victoria Y.H. Wood
CPC classification number: H01F1/0045 , G02B5/008
Abstract: Described embodiments include a system, method, and apparatus. The apparatus includes a magnetic substrate at least partially covered by a first negative-permittivity layer comprising a first plasmonic outer surface. The apparatus includes a plasmonic nanoparticle having a magnetic element at least partially covered by a second negative-permittivity layer comprising a second plasmonic outer surface. The apparatus includes a dielectric-filled gap between the first plasmonic outer surface and the second outer surface. The first plasmonic outer surface, the dielectric-filled gap, and the second plasmonic outer surface are configured to support one or more mutually coupled plasmonic excitations.
Abstract translation: 所描述的实施例包括系统，方法和装置。 该装置包括至少部分地由包括第一等离子体激元外表面的第一负介电常数层覆盖的磁性基底。 该装置包括等离子体纳米颗粒，其具有至少部分地由包含第二等离子体外部表面的第二负介电常数层覆盖的磁性元件。 该装置包括在第一等离子体激元外表面和第二外表面之间的介电填充间隙。 第一等离子体体外表面，电介质填充间隙和第二等离子体外表面被配置为支撑一个或多个相互耦合的等离激元激发。
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公开(公告)号：US20170053190A1
公开(公告)日：2017-02-23
申请号：US14830950
申请日：2015-08-20
Applicant: Elwha LLC
Inventor： Jesse R. Cheatham, III , Joel Cherkis , Paul H. Dietz , Tom Driscoll , William David Duncan , William Gates , Roderick A. Hyde , Muriel Y. Ishikawa , Neil Jordan , Jordin T. Kare , Eric C. Leuthardt , Nathan P. Myhrvold , Patrick Neill , Tony S. Pan , Robert C. Petroski , David R. Smith , Elizabeth A. Sweeney , Desney S. Tan , Clarence T. Tegreene , David Lawrence Tennenhouse , Yaroslav A. Urzhumov , Gary Wachowicz , Lowell L. Wood , Victoria Y.H. Wood
CPC classification number: G06K9/00362 , H04N5/232 , H04N21/44218 , G06F3/0605 , G06T2207/30196 , G06F3/04812 , G06K7/10475
Abstract: Described embodiments include a system, article of manufacture, a system implemented in a machine, article of manufacture, or composition of matter, and computer-implemented method. A computer-implemented method includes electronically receiving a digital image of person observing a subject person. The method includes determining from the digital image an interest-level in the subject person by the imaged person. The method includes electronically outputting the determined interest-level. In an embodiment, the method includes storing at least one digital image of the monitored person in a non-transitory computer readable storage media.
Abstract translation: 描述的实施例包括系统，制造品，在机器中实现的系统，制造品或物质的组成以及计算机实现的方法。 计算机实现的方法包括电子地接收观察对象的人的数字图像。 所述方法包括从所述数字图像确定被所述人的所述被摄体中的兴趣等级。 该方法包括以电子方式输出所确定的利益水平。 在一个实施例中，该方法包括将被监视人的至少一个数字图像存储在非暂时的计算机可读存储介质中。
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公开(公告)号：US20170004367A1
公开(公告)日：2017-01-05
申请号：US15269013
申请日：2016-09-19
Applicant: Elwha LLC
Inventor： Tom Driscoll , Joseph R. Guerci , Russell J. Hannigan , Roderick A. Hyde , Muriel Y. Ishikawa , Jordin T. Kare , Nathan P. Myhrvold , David R. Smith , Clarence T. Tegreene , Yaroslav A. Urzhumov , Charles Whitmer , Lowell L. Wood, JR. , Victoria Y.H. Wood
CPC classification number: G06K9/00805 , B60W30/02 , G01C21/005 , G01C21/14 , G01C21/26 , G01C21/36 , G01C21/3697 , G06K9/481 , G06T7/246 , G06T7/248 , G06T7/292 , G06T7/32 , G06T7/33 , G06T2207/30241 , G06T2207/30252 , G06T2207/30261 , H04N5/2256 , H04N5/23229 , H04N5/247 , H04N5/332 , H04N7/181
Abstract: Described embodiments include a system and method. A computer-implemented method includes receiving electronic data indicative of at least two incremental movements of a vehicle moving over a stochastic surface during a period of time proximate to an event. The electronic data is responsive to a correlation vector between a feature of the stochastic surface in a first digital image captured at a first time by a first digital imaging device carried by the vehicle and the feature of the stochastic surface in a second digital image captured at a subsequent second time by a second digital imaging device carried by the vehicle. The method includes determining in response to the received electronic data a behavior of the vehicle during the period of time proximate to the event. The method includes electronically outputting data indicative of the determined behavior of the vehicle during the period of time proximate to the event.
Abstract translation: 描述的实施例包括系统和方法。 计算机实现的方法包括接收指示在靠近事件的时间段期间在随机表面上移动的车辆的至少两个增量运动的电子数据。 电子数据响应于由第一时间由车辆携带的第一数字成像装置捕获的第一数字图像中的随机表面的特征与在第二数字图像中随机表面的特征在第二数字图像中捕获的相关向量 随后由车辆携带的第二数字成像装置第二次。 该方法包括响应于所接收的电子数据确定车辆在接近事件的时间段内的行为。 该方法包括在接近事件的时间段期间电子地输出指示车辆所确定的行为的数据。
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公开(公告)号：US20160334864A1
公开(公告)日：2016-11-17
申请号：US14708599
申请日：2015-05-11
Applicant: Elwha LLC
Inventor： Jesse R. Cheatham, III , Joel Cherkis , Paul H. Dietz , Tom Driscoll , William Gates , Roderick A. Hyde , Muriel Y. Ishikawa , Neil Jordan , Jordin T. Kare , Eric C. Leuthardt , Nathan P. Myhrvold , Patrick Neill , Tony S. Pan , Robert C. Petroski , David R. Smith , Elizabeth A. Sweeney , Desney S. Tan , Clarence T. Tegreene , David Lawrence Tennenhouse , Yaroslav A. Urzhumov , Gary Wachowicz , Lowell L. Wood, Jr. , Victoria Y.H. Wood
IPC: G06F3/01
CPC classification number: G06F3/01 , A61B34/00 , A61B46/00 , A61B46/40 , A61B90/37 , A61B2017/00022 , A61B2017/00221 , A61B2090/372
Abstract: Embodiments disclosed herein relate to an interactive surgical drape and system including at least one sensor and at least one controller that operates indicating sensing feedback from the at least one sensor to cause display of information on a dynamic display integrated with the interactive surgical drape. The dynamic display assists the surgical team while performing surgery and can operate to improve the efficiency and/or effectiveness of the surgical team.
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