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    • 5. 发明申请
    • PLASMONIC ENHANCEMENT OF WHISPERING GALLERY MODE BIOSENSORS
    • 通过画廊模式生物传感器的等离子体增强
    • US20120069331A1
    • 2012-03-22
    • US13205756
    • 2011-08-09
    • Siyka SHOPOVAStephen ArnoldRaaj Haresh Rajmangal
    • Siyka SHOPOVAStephen ArnoldRaaj Haresh Rajmangal
    • G01J3/44G01N21/55
    • G01N21/554G01N21/7746
    • A sensor for determining the presence or concentration of a target entity in a medium is described, and includes (a) an optical waveguide; (b) a microresonator optically coupled with the optical waveguide such that light within the optical waveguide induces a resonant mode within the microresonator at an equator region (or a mode volume); and (c) at least one plasmonic nanoparticle adsorbed onto a surface area of the microresonator within the equator region (or the mode volume) such that light inducing a resonant mode within the microresonator also causes a plasmonic resonance in the at least one plasmonic nanoparticle. Detection methods for using such sensors are also described. Finally, methods, involving the use of carousel forces, for fabricating such sensors are also described.
    • 描述了用于确定介质中目标实体的存在或集中的传感器,并且包括(a)光波导; (b)与所述光波导光学耦合的微谐振器,使得所述光波导内的光在赤道区域(或模式体积)下在微谐振器内引起谐振模式; 和(c)至少一种等离子体激元纳米粒子吸附在赤道区域内的微谐振器的表面区域(或模式体积)上,使得在微谐振器内产生共振模式的光也导致至少一种等离子体激元纳米粒子中的等离子体共振。 还描述了使用这种传感器的检测方法。 最后,还描述了涉及使用转盘力的方法来制造这种传感器。
    • 7. 发明授权
    • Plasmonic enhancement of whispering gallery mode biosensors
    • 等离子体增强的耳语画廊模式生物传感器
    • US08493560B2
    • 2013-07-23
    • US13205756
    • 2011-08-09
    • Siyka ShopovaStephen ArnoldRaaj Haresh Rajmangal
    • Siyka ShopovaStephen ArnoldRaaj Haresh Rajmangal
    • G01J3/44
    • G01N21/554G01N21/7746
    • A sensor for determining the presence or concentration of a target entity in a medium is described, and includes (a) an optical waveguide; (b) a microresonator optically coupled with the optical waveguide such that light within the optical waveguide induces a resonant mode within the microresonator at an equator region (or a mode volume); and (c) at least one plasmonic nanoparticle adsorbed onto a surface area of the microresonator within the equator region (or the mode volume) such that light inducing a resonant mode within the microresonator also causes a plasmonic resonance in the at least one plasmonic nanoparticle. Detection methods for using such sensors are also described. Finally, methods, involving the use of carousel forces, for fabricating such sensors are also described.
    • 描述了用于确定介质中目标实体的存在或集中的传感器,并且包括(a)光波导; (b)与所述光波导光学耦合的微谐振器,使得所述光波导内的光在赤道区域(或模式体积)下在微谐振器内引起谐振模式; 和(c)至少一种等离子体激元纳米粒子吸附在赤道区域内的微谐振器的表面区域(或模式体积)上,使得在微谐振器内产生共振模式的光也导致至少一种等离子体激元纳米粒子中的等离子体共振。 还描述了使用这种传感器的检测方法。 最后,还描述了涉及使用转盘力的方法来制造这种传感器。
    • 8. 发明申请
    • Method for using a static electric field to induce crystallization and to control crystal form
    • 使用静电场诱导结晶和控制晶体形式的方法
    • US20050256300A1
    • 2005-11-17
    • US11104714
    • 2005-04-13
    • Bruce GaretzAllan MyersonStephen ArnoldJanice Aber
    • Bruce GaretzAllan MyersonStephen ArnoldJanice Aber
    • B01D9/00C07K1/30C07K14/47C12N13/00C30B7/00C30B29/54C30B30/02
    • C30B29/58B01D9/005C07K1/306C12N13/00C30B7/00C30B29/54C30B30/02
    • Applying a strong static DC electric field to supersaturated aqueous glycine solutions resulted in the nucleation of the γ polymorph attributed to the electric-field induced orientation of the highly polar glycine molecules in large preexisting solute clusters, helping them organize into a crystalline structure. A method to induce crystallization and to prepare polymorphs and/or morphologies of materials by using a static electric field to cause nucleation and crystal growth to occur in a supersaturated solution in such a way as to obtain a crystal structure that would not normally appear without the use of the static electric field. Aqueous glycine solutions were prepared by combining solid glycine and water. Supersaturated solutions were generated by heating the tubes to 62-64° C. and holding them at that temperature in an ultrasonicator overnight. Once the glycine was completely dissolved, the solutions were slowly cooled to room temperature. A chamber was constructed consisting of two brass electrodes separated by a 5 mm insulating gap, with a hole drilled down through the center, parallel to the gap-electrode interface, with a diameter large enough to accommodate the test tube. A DC voltage was applied across the electrodes, large enough to produce electric fields in the range of 400,000 to 800,000 V/m. Tests tubes containing the aged solutions were placed in the high-voltage chamber. Exposure of the aged solutions to fields of 600,000 V/m resulted in crystallization typically within 30-90 min. The onset of nucleation was observed visually by the formation of a needle-shaped crystallite.
    • 将强静态DC电场应用于过饱和甘氨酸水溶液导致伽马多晶型物的成核归因于大量预先存在的溶质簇中高极性甘氨酸分子的电场诱导取向,有助于它们组织成晶体结构。 通过使用静电场引起结晶并制备材料的多晶型物和/或形态的方法,以使得在过饱和溶液中发生成核和晶体生长,以获得通常不会出现的晶体结构 使用静电场。 通过将固体甘氨酸和水混合制备甘氨酸水溶液。 通过将管加热至62-64℃并将其在超声波隔离器中保持在该温度下来产生过饱和溶液。 一旦甘氨酸完全溶解,将溶液缓慢冷却至室温。 由两个黄铜电极构成的腔体由两个黄铜电极隔开,绝缘间隔为5mm,孔穿过中心平行于间隙 - 电极界面钻出,直径足够大以容纳试管。 在电极之间施加直流电压,其足够大以产生在400,000至800,000V / m的范围内的电场。 将含有老化溶液的试管置于高压室中。 将老化溶液暴露于600,000V / m的场中,结晶通常在30-90分钟内。 通过形成针状微晶目测观察成核的开始。