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1. 发明申请

WO02071013B1 OPTICAL DEVICES AND METHODS EMPLOYING NANOPARTICLES, MICROCAVITIES, AND SEMICONTINUOUS METAL FILMS 审中-公开
标题翻译：采用纳米颗粒，微量元素和半金属膜的光学器件和方法
公开(公告)号：WO02071013B1
公开(公告)日：2003-02-13
申请号：PCT/US0206277
申请日：2002-03-01
申请人： UNIV NEW MEXICO STATE TECH TRA , ARMSTRONG ROBERT L , SHALAEV VLADIMIR M , SMITH HAROLD V , SARYCHEV ANDREY K , YING Z CHARLES
发明人： ARMSTRONG ROBERT L , SHALAEV VLADIMIR M , SMITH HAROLD V , SARYCHEV ANDREY K , YING Z CHARLES
IPC分类号： B82B1/00 , G01J3/44 , G01N21/64 , G01N21/65 , G01N21/76
CPC分类号： G01N21/658 , B82Y10/00 , B82Y20/00 , G01J3/44 , G01N2021/655
摘要： An optical sensing enhancing material (and corresponding method of making) comprising: a medium, the medium comprising a plurality of aggregated nanoparticles (32) comprising fractals; and a microcavity (44), wherein the medium is located in a vicinity of the microcavity. Also an optical sensor and sensing method comprising: providing a doped medium, the medium comprising a plurality of aggregated nanoparticles comprising fractals, with the material; locating the doped medium in the vicinity of a microcavity; exciting the doped medium with a light source; and detecting light reflected from the doped medium. Also an optical sensing enhancing material comprising a medium, the medium comprising a semicontinuous metal film of randomly distributed metal particles and their clusters at approximately their percolation threshold. The medium preferably additionally comprises a microcavity/microresonator. Also devices and methods employing such material.
摘要翻译：一种光学感测增强材料（和相应的制备方法），包括：介质，所述介质包括多个包含分形的聚集的纳米颗粒（32）; 和微腔（44），其中介质位于微腔附近。还有一种光学传感器和感测方法，包括：提供掺杂介质，所述介质包含多个包含分形的聚集的纳米颗粒与所述材料; 将掺杂介质定位在微腔附近; 用光源激发掺杂介质; 以及检测从掺杂介质反射的光。还有一种包括介质的光学感测增强材料，所述介质包括大致其渗透阈值处的随机分布的金属颗粒及其簇的半连续金属膜。该介质优选地另外包括微腔/微谐振器。也是采用这种材料的装置和方法。

2. 发明申请

WO02086557A3 PLASMONIC NANOPHOTONICS METHODS, MATERIALS, AND APPARATUSES 审中-公开
标题翻译： PLASMONIC NANOPHOTONICS方法，材料和装置
公开(公告)号：WO02086557A3
公开(公告)日：2003-02-27
申请号：PCT/US0213033
申请日：2002-04-25
申请人： UNIV NEW MEXICO STATE TECH TRA , SARYCHEV ANDREY K , PODOLSKIY VIKTOR A , DYKHNE ALEXANDER M , SHALAEV VLADIMIR M
发明人： SARYCHEV ANDREY K , PODOLSKIY VIKTOR A , DYKHNE ALEXANDER M , SHALAEV VLADIMIR M
IPC分类号： G01N21/35 , G01N21/55 , G02F1/19 , G02F1/35 , G02F3/00 , G02F1/295 , H01S3/08
CPC分类号： G02B1/007 , B82Y20/00 , G01N21/554 , G01N2021/3568 , G02F1/195 , G02F1/3515 , G02F3/00 , G02F2202/36 , G02F2203/10
摘要： Controlling, guiding, manipulating, and circuiting light and performing surface-enhanced spectroscopy in a medium comprising plasmonic nanomaterials via the excitation of plasmon modes in the materials. The plasmonic nanomaterials are based on metal films with or without arrays of nanoholes and/or on metal nanowires and/or spheroids. Also devices and methods employing such plasmonic nanomaterials.
摘要翻译：通过在材料中激发等离子体激发模式，在包含等离子体激元纳米材料的介质中控制，引导，操纵和电路化光并进行表面增强光谱。等离子体激元纳米材料基于具有或不具有纳米孔阵列和/或金属纳米线和/或球体的金属膜。也是使用这种等离子体激元纳米材料的装置和方法。

3. 发明公开

EP1218972A4 OPTICAL ENHANCEMENT WITH NANOPARTICLES AND MICROCAVITIES 审中-公开
标题翻译：纳米粒子和微谐振器的光学改进
公开(公告)号：EP1218972A4
公开(公告)日：2003-06-18
申请号：EP00932643
申请日：2000-05-17
申请人： UNIV NEW MEXICO STATE TECH TRA
发明人： ARMSTRONG ROBERT L , SHALAEV VLADIMIR M , SHAY THOMAS M , KIM WON-TAE , YING Z CHARLES , DRACHEV VLADIMIR P , SAFONOV VLADIMIR P
IPC分类号： G01N21/65 , G02F1/35 , G02F1/355 , G02F1/37 , G02F1/39 , G11B7/0045 , H01S3/06 , H01S3/30 , H01S3/094 , G01S7/481 , G11B7/00 , H01S3/08
CPC分类号： G01N21/658 , B82Y10/00 , B82Y20/00 , G02F1/353 , G02F1/3534 , G02F1/3536 , G02F1/3538 , G02F1/355 , G02F1/37 , G02F1/39 , G02F2202/36 , G02F2203/15 , G11B7/00453 , H01S3/0602 , H01S3/30
摘要： A method and apparatus for enhanced optical emissions, the apparatus comprising a light source (12), a microcavity (14), and a medium comprising nanoparticles, located within or near the microcavity. The nanoparticles are either non-aggregated or are aggregated in the form of fractals. The nanoparticles and microcavity exhibit enhanced linear and non-linear optical parametric oscillation, light detection and ranging, increased sensitivity, high density optical data storage, and near-field optical spectroscopy.

4. 发明专利

CA2374392A1 OPTICAL ENHANCEMENT WITH NANOPARTICLES AND MICROCAVITIES 未知
公开(公告)号：CA2374392A1
公开(公告)日：2001-03-01
申请号：CA2374392
申请日：2000-05-17
申请人： UNIV NEW MEXICO STATE TECH TRA
发明人： ARMSTRONG ROBERT L , KIM WON-TAE , SHAY THOMAS M , SHALAEV VLADIMIR M , YING Z CHARLES
IPC分类号： G01N21/65 , G02F1/35 , G02F1/355 , G02F1/37 , G02F1/39 , G11B7/0045 , H01S3/06 , H01S3/30 , H01S3/00
摘要： A method and apparatus for enhanced optical emissions, the apparatus comprising a light source (12), a microcavity (14), and a medium comprising nanoparticles, located within or near the microcavity. The nanoparticles are either non-aggregated or are aggregated in the form of fractals. The nanoparticles and microcavity exhibit enhanced linear and non-linear optical parametric oscillation, light detection and ranging, increased sensitivity, high density optical data storage, and near-field optical spectroscopy.

5. 发明专利

AU5033900A Optical enhancement with nanoparticles and microcavities 未知
公开(公告)号：AU5033900A
公开(公告)日：2001-03-19
申请号：AU5033900
申请日：2000-05-17
申请人： UNIV NEW MEXICO STATE TECH TRA
发明人： ARMSTRONG ROBERT L , SHALAEV VLADIMIR M , SHAY THOMAS M , KIM WON-TAE , YING Z CHARLES
IPC分类号： G01N21/65 , G02F1/35 , G02F1/355 , G02F1/37 , G02F1/39 , G11B7/0045 , H01S3/06 , H01S3/30 , H01S3/00

6. 发明专利

AU767234B2 Optical enhancement with nanoparticles and microcavities 未知
公开(公告)号：AU767234B2
公开(公告)日：2003-11-06
申请号：AU5033900
申请日：2000-05-17
申请人： UNIV NEW MEXICO STATE TECH TRA
发明人： ARMSTRONG ROBERT L , SHALAEV VLADIMIR M , SHAY THOMAS M , KIM WON-TAE , YING Z CHARLES , DRACHEV VLADIMIR P , SAFONOV VLADIMIR P
IPC分类号： G01N21/65 , G02F1/35 , G02F1/355 , G02F1/37 , G02F1/39 , G11B7/0045 , H01S3/06 , H01S3/30 , H01S3/00

7. 发明专利

CA2439907A1 OPTICAL DEVICES AND METHODS EMPLOYING NANOPARTICLES, MICROCAVITIES, AND SEMICONTINUOUS METAL FILMS 未知
公开(公告)号：CA2439907A1
公开(公告)日：2002-09-12
申请号：CA2439907
申请日：2002-03-01
申请人： UNIV NEW MEXICO STATE TECH TRA
发明人： YING Z CHARLES , ARMSTRONG ROBERT L , SHALAEV VLADIMIR M , SARYCHEV ANDREY K , SMITH HAROLD V
IPC分类号： B82B1/00 , G01J3/44 , G01N21/64 , G01N21/65 , G01N21/76
摘要： An optical sensing enhancing material (and corresponding method of making) comprising: a medium, the medium comprising a plurality of aggregated nanoparticles (32) comprising fractals; and a microcavity (44), wherein the medium is located in a vicinity of the microcavity. Also an optical sensor a nd sensing method comprising: providing a doped medium, the medium comprising a plurality of aggregated nanoparticles comprising fractals, with the material ; locating the doped medium in the vicinity of a microcavity; exciting the dop ed medium with a light source; and detecting light reflected from the doped medium. Also an optical sensing enhancing material comprising a medium, the medium comprising a semicontinuous metal film of randomly distributed metal particles and their clusters at approximately their percolation threshold. T he medium preferably additionally comprises a microcavity/microresonator. Also devices and methods employing such material.

8. 发明申请

WO2007103077A3 NEGATIVE INDEX MATERIAL WITH COMPENSATED LOSSES 审中-公开
标题翻译：负指数材料与补偿损失
公开(公告)号：WO2007103077A3
公开(公告)日：2008-05-15
申请号：PCT/US2007005152
申请日：2007-02-28
申请人： PURDUE RESEARCH FOUNDATION , SHALAEV VLADIMIR M , DRACHEV VLADIMIR P , KLAR THOMAS A , KILDISHEV ALEXANDER V
发明人： SHALAEV VLADIMIR M , DRACHEV VLADIMIR P , KLAR THOMAS A , KILDISHEV ALEXANDER V
IPC分类号： B82B1/00
CPC分类号： G01J3/02 , B82Y20/00 , G01J3/0256 , G01J3/0297 , G02B1/007 , G02B6/1225 , G02B6/1226 , H01S3/0632 , H01S3/1608 , H01S3/169
摘要： A composition of resonant passive metal-dielectric elements with gain medium results in a meta-material with an effective negative refractive index and compensated losses. To compensate for losses, additional energy is supplied using the stimulated emission from active elements made of a gain material. The overall objective is to overcome the fundamental threshold in resolution for conventional optical imaging limited to about a half-wavelength of incident light. The negative index material with compensated losses (NIMCOL) can be used in NIM-based optical imaging and sensing devices with enhanced sub-wavelength resolution. A lasing device based on overcompensating for the loss in NIM structures is disclosed as well.
摘要翻译：具有增益介质的谐振无源金属 - 介电元件的组成导致具有有效负折射率和补偿损耗的超常材料。为了补偿损耗，使用由增益材料制成的有源元件的受激发射来提供额外的能量。总体目标是克服限于约半波长的入射光的常规光学成像的分辨率的基本阈值。具有补偿损耗的负指数材料（NIMCOL）可用于具有增强的亚波长分辨率的基于NIM的光学成像和感测装置。还公开了一种基于对NIM结构的损耗进行过补偿的激光装置。

9. 发明申请

WO2008133769A3 NEAR FIELD SUPER LENS EMPLOYING TUNABLE NEGATIVE INDEX MATERIALS 审中-公开
标题翻译：使用可调整的负性指标材料的近场超级透镜
公开(公告)号：WO2008133769A3
公开(公告)日：2008-12-31
申请号：PCT/US2008002482
申请日：2008-02-26
申请人： PURDUE RESEARCH FOUNDATION , SHALAEV VLADIMIR M , KILDISHEV ALEXANDER V , DRACHEV VLADIMIR P , CAI WENSHAN
发明人： SHALAEV VLADIMIR M , KILDISHEV ALEXANDER V , DRACHEV VLADIMIR P , CAI WENSHAN
IPC分类号： G01J3/00
CPC分类号： G02B3/02 , B82Y20/00 , G02B1/007 , G02B21/02
摘要： A tunable super-lens (TSL) for nanoscale optical sensing and imaging of bio-molecules and nano-manufacturing utilizes negative-index materials (NIMs) that operate in the visible or near infrared light. The NIMs can create a lens that will perform sub-wavelength imaging, enhanced resolution imaging, or flat lens imaging. This new TSL covers two different operation scales. For short distances between the object and its image, a near-field super-lens (NFSL) can create or enhance images of objects located at distances much less than the wavelength of light. For the far-zone, negative values are necessary for both the permittivity e and permeability µ. While well-structured periodic meta-materials, which require delicate design and precise fabrication, can be used, metal-dielectric composites are also candidates for NIMs in the optical range. The negative-refraction in the composite films can be made by using frequency-selective photomodification.
摘要翻译：用于纳米级光学传感和生物分子成像和纳米制造的可调超级透镜（TSL）利用在可见光或近红外光下工作的负折射率材料（NIM）。 NIM可以创建一个能够执行亚波长成像，增强分辨率成像或平面镜头成像的镜头。这个新的TSL涵盖两种不同的操作规模。对于物体与其图像之间的短距离，近场超级透镜（NFSL）可以创建或增强位于距离远小于光波长的物体的图像。对于远区，介电常数ε和磁导率μ都需要负值。尽管可以使用需要精细设计和精确制造的结构良好的周期性超材料，但金属 - 电介质复合材料也可用于光学范围内的NIM。在复合膜中的负折射可以通过使用频率选择性光修饰来进行。

10. 发明申请

WO2011019817A3 NANOPARTICLES AND METHODS OF GENERATING COHERENT EMISSION THEREFROM 审中-公开
标题翻译：产生其相关排放的纳米颗粒和方法
公开(公告)号：WO2011019817A3
公开(公告)日：2011-06-30
申请号：PCT/US2010045170
申请日：2010-08-11
申请人： CORNELL RES FOUNDATION INC , HERZ ERIK , BURNS ANDREW , WIESNER ULRICH B , NOGINOV MIKHAIL A , STOUT SAMANTHA , BELGRAVE AKEISHA , ZHU GUOHUA , SHALAEV VLADIMIR M
发明人： HERZ ERIK , BURNS ANDREW , WIESNER ULRICH B , NOGINOV MIKHAIL A , STOUT SAMANTHA , BELGRAVE AKEISHA , ZHU GUOHUA , SHALAEV VLADIMIR M
IPC分类号： B82B3/00 , B82B1/00
CPC分类号： B82Y30/00 , B82Y20/00 , C23C18/1254 , H01S3/0627 , H01S3/169
摘要： Nanoparticles with a metal or metallic core and an outer shell comprising a matrix and a dopant. For example, a nanoparticle can have a gold core and outer shell comprising silica and an organic dye. Such nanoparticles can have use in, for example, optical communication applications, chemical and biosensing applications, and imaging applications.
摘要翻译：具有金属或金属芯的纳米颗粒和包含基质和掺杂剂的外壳。例如，纳米颗粒可以具有金核和包含二氧化硅和有机染料的外壳。这样的纳米颗粒可以用于例如光学通信应用，化学和生物传感应用以及成像应用。

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