Patent search ap:("Tapesh Yadav") AND inv:"Tapesh Yadav" Page 6

51.

发明授权
Nanotechnology for electrochemical and energy devices 有权
Title translation: 电化学和能量装置的纳米技术

公开(公告)号：US06569518B2

公开(公告)日：2003-05-27

申请号：US10147599

申请日：2002-05-17

Applicant: Tapesh Yadav , Ming Au

Inventor： Tapesh Yadav , Ming Au

IPC: B32B516

CPC classification number: H01L23/5328 , A61L27/06 , B01J12/005 , B01J12/02 , B01J19/0046 , B01J19/24 , B01J23/002 , B01J23/08 , B01J23/14 , B01J35/0013 , B01J37/18 , B01J2219/00094 , B01J2219/00135 , B01J2219/00155 , B01J2219/00177 , B01J2219/0018 , B01J2219/00317 , B01J2219/00385 , B01J2219/0043 , B01J2219/00653 , B01J2219/00707 , B01J2219/00745 , B01J2219/00747 , B01J2219/0075 , B01J2219/00754 , B01J2219/00756 , B01J2219/0894 , B01J2523/00 , B05B1/12 , B22F1/0003 , B22F9/04 , B22F9/12 , B22F2009/041 , B22F2998/00 , B22F2999/00 , B29C70/58 , B82B1/00 , B82Y5/00 , B82Y25/00 , B82Y30/00 , C01B3/001 , C01B13/145 , C01B19/007 , C01B21/062 , C01B32/956 , C01B35/04 , C01F5/06 , C01F11/06 , C01F17/0043 , C01G23/006 , C01G25/00 , C01G25/02 , C01G41/02 , C01G53/00 , C01G53/006 , C01P2002/01 , C01P2002/02 , C01P2002/34 , C01P2002/54 , C01P2002/60 , C01P2002/72 , C01P2004/03 , C01P2004/04 , C01P2004/38 , C01P2004/51 , C01P2004/54 , C01P2004/61 , C01P2004/62 , C01P2004/64 , C01P2006/10 , C01P2006/12 , C01P2006/40 , C01P2006/60 , C04B35/00 , C04B35/01 , C04B35/265 , C04B35/2666 , C04B35/453 , C04B35/457 , C04B35/56 , C04B35/5611 , C04B35/581 , C04B35/62222 , C04B41/009 , C04B41/4549 , C04B41/52 , C04B41/87 , C04B41/89 , C04B41/90 , C04B2111/00844 , C04B2235/3241 , C04B2235/3262 , C04B2235/3275 , C04B2235/3279 , C04B2235/3284 , C04B2235/3298 , C04B2235/79 , C04B2235/80 , C08K3/01 , C08K3/08 , C08K2201/011 , C08K2201/016 , G01N27/127 , H01C7/112 , H01C17/0652 , H01F1/0036 , H01F1/0045 , H01F1/36 , H01F41/0246 , H01G4/12 , H01G4/33 , H01L23/49883 , H01L2924/0002 , H01L2924/3011 , H01M4/02 , H01M4/04 , H01M4/242 , H01M4/581 , H01M4/5815 , H01M4/582 , H01M4/8875 , H01M4/8885 , H01M4/90 , H01M4/9066 , H01M8/1213 , H01M8/1246 , H01M8/1253 , H01M10/0562 , H01M10/0566 , Y02E60/324 , Y02E60/525 , Y02P70/56 , Y10S428/90 , Y10S977/762 , Y10S977/783 , Y10S977/81 , Y10S977/811 , Y10S977/948 , Y10T29/4902 , Y10T428/12056 , Y10T428/1216 , Y10T428/12181 , Y10T428/25 , Y10T428/254 , Y10T428/256 , Y10T428/257 , Y10T428/259 , Y10T428/2982 , Y10T428/2991 , Y10T428/2998 , B01J2523/33 , B01J2523/43 , B22F1/0018 , B22F2202/13 , B01J2523/31 , B01J2523/54 , B01J2523/67 , B01J2523/72 , B01J2523/845 , B01J2523/847 , B01J2523/22 , B01J2523/3706 , B01J2523/48 , B01J2523/18 , B01J2523/27 , B01J2523/824 , B01J2523/842 , B01J2523/17 , B01J2523/47 , B01J2523/56 , B01J2523/57 , C04B41/4539 , C04B41/5059 , C04B41/5116 , C04B41/5122 , C04B41/5027 , C04B41/5049 , C04B41/524 , C04B35/10 , B22F2201/11 , B01J2523/305 , B01J2523/69 , H01L2924/00

Abstract: Novel non-ionics and energy device materials made from non-stoichiometric nanomaterials and their applications are discussed. More specifically, the specifications teach the use of nanotechnology and nanostructured materials for developing novel energy related products.

Abstract translation: 讨论了由非化学计量纳米材料制成的新型非离子和能量器件材料及其应用。更具体地说，该规范教导了纳米技术和纳米结构材料用于开发新型能量相关产品的应用。

52.

发明授权
Nanotechnology for electrical devices 有权
Title translation: 电子器件纳米技术

公开(公告)号：US06554609B2

公开(公告)日：2003-04-29

申请号：US10147837

申请日：2002-05-17

Applicant: Tapesh Yadav , Roger Dirstine , John Alexander

Inventor： Tapesh Yadav , Roger Dirstine , John Alexander

IPC: B22F100

CPC classification number: H01L23/5328 , A61L27/06 , B01J12/005 , B01J12/02 , B01J19/0046 , B01J19/24 , B01J23/002 , B01J23/08 , B01J23/14 , B01J35/0013 , B01J37/18 , B01J2219/00094 , B01J2219/00135 , B01J2219/00155 , B01J2219/00177 , B01J2219/0018 , B01J2219/00317 , B01J2219/00385 , B01J2219/0043 , B01J2219/00653 , B01J2219/00707 , B01J2219/00745 , B01J2219/00747 , B01J2219/0075 , B01J2219/00754 , B01J2219/00756 , B01J2219/0894 , B01J2523/00 , B05B1/12 , B22F1/0003 , B22F9/04 , B22F9/12 , B22F2009/041 , B22F2998/00 , B22F2999/00 , B29C70/58 , B82B1/00 , B82Y5/00 , B82Y25/00 , B82Y30/00 , C01B3/001 , C01B13/145 , C01B19/007 , C01B21/062 , C01B32/956 , C01B35/04 , C01F5/06 , C01F11/06 , C01F17/0043 , C01G23/006 , C01G25/00 , C01G25/02 , C01G41/02 , C01G53/00 , C01G53/006 , C01P2002/01 , C01P2002/02 , C01P2002/34 , C01P2002/54 , C01P2002/60 , C01P2002/72 , C01P2004/03 , C01P2004/04 , C01P2004/38 , C01P2004/51 , C01P2004/54 , C01P2004/61 , C01P2004/62 , C01P2004/64 , C01P2006/10 , C01P2006/12 , C01P2006/40 , C01P2006/60 , C04B35/00 , C04B35/01 , C04B35/265 , C04B35/2666 , C04B35/453 , C04B35/457 , C04B35/56 , C04B35/5611 , C04B35/581 , C04B35/62222 , C04B41/009 , C04B41/4549 , C04B41/52 , C04B41/87 , C04B41/89 , C04B41/90 , C04B2111/00844 , C04B2235/3241 , C04B2235/3262 , C04B2235/3275 , C04B2235/3279 , C04B2235/3284 , C04B2235/3298 , C04B2235/79 , C04B2235/80 , C08K3/01 , C08K3/08 , C08K2201/011 , C08K2201/016 , G01N27/127 , H01C7/112 , H01C17/0652 , H01F1/0036 , H01F1/0045 , H01F1/36 , H01F41/0246 , H01G4/12 , H01G4/33 , H01L23/49883 , H01L2924/0002 , H01L2924/3011 , H01M4/02 , H01M4/04 , H01M4/242 , H01M4/581 , H01M4/5815 , H01M4/582 , H01M4/8875 , H01M4/8885 , H01M4/90 , H01M4/9066 , H01M8/1213 , H01M8/1246 , H01M8/1253 , H01M10/0562 , H01M10/0566 , Y02E60/324 , Y02E60/525 , Y02P70/56 , Y10S428/90 , Y10S977/762 , Y10S977/783 , Y10S977/81 , Y10S977/811 , Y10S977/948 , Y10T29/4902 , Y10T428/12056 , Y10T428/1216 , Y10T428/12181 , Y10T428/25 , Y10T428/254 , Y10T428/256 , Y10T428/257 , Y10T428/259 , Y10T428/2982 , Y10T428/2991 , Y10T428/2998 , B01J2523/33 , B01J2523/43 , B22F1/0018 , B22F2202/13 , B01J2523/31 , B01J2523/54 , B01J2523/67 , B01J2523/72 , B01J2523/845 , B01J2523/847 , B01J2523/22 , B01J2523/3706 , B01J2523/48 , B01J2523/18 , B01J2523/27 , B01J2523/824 , B01J2523/842 , B01J2523/17 , B01J2523/47 , B01J2523/56 , B01J2523/57 , C04B41/4539 , C04B41/5059 , C04B41/5116 , C04B41/5122 , C04B41/5027 , C04B41/5049 , C04B41/524 , C04B35/10 , B22F2201/11 , B01J2523/305 , B01J2523/69 , H01L2924/00

Abstract: Nanostructured non-stoichiometric non-equilibrium materials are disclosed. Novel electromagnetic materials and their applications are discussed. More specifically, the specifications teach the use of nanotechnology and nanostructured materials for developing novel electrical devices and products.

Abstract translation: 公开了纳米结构非化学计量非平衡材料。讨论了新型电磁材料及其应用。更具体地说，该规范教导了使用纳米技术和纳米结构材料来开发新的电子器件和产品。

53.

发明授权
Combustion of emulsions: A method and process for producing fine powders 失效
Title translation: 乳液燃烧：一种生产细粉的方法和方法

公开(公告)号：US5984997A

公开(公告)日：1999-11-16

申请号：US46465

申请日：1998-03-23

Applicant: Clint Bickmore , Benjamin Galde , Tapesh Yadav , John Freim

Inventor： Clint Bickmore , Benjamin Galde , Tapesh Yadav , John Freim

IPC: B01J6/00 , C01B13/14 , C01G3/00 , C01G15/00 , C01G19/00 , C01G41/02 , C01G53/00 , B22F9/30

CPC classification number: B82Y30/00 , B01J6/008 , C01B13/14 , C01G15/00 , C01G19/00 , C01G19/006 , C01G3/006 , C01G41/02 , C01G53/006 , C01P2002/32 , C01P2002/52 , C01P2002/54 , C01P2002/60 , C01P2002/72 , C01P2004/03 , C01P2004/16 , C01P2004/32 , C01P2004/62 , C01P2004/64 , C01P2006/12 , Y10S977/776 , Y10S977/777

Abstract: A process for producing nanoscale powders, and the powders so produced. The process comprises mixing an emulsion comprising all of the elements of the desired powder composition and a combustible fuel, and then combusting that emulsion to produce a powder. Powders with a median particle size of less than 50 nm have been made by this process. The process is suitable for the production of many types of powders, including particles and nanowhiskers of simple, doped, and polymetallic powders.

Abstract translation: 一种制备纳米级粉末的方法和如此制备的粉末。该方法包括将包含所需粉末组合物的所有元素和可燃燃料的乳液混合，然后将该乳液燃烧以产生粉末。通过该方法制备了中值粒径小于50nm的粉末。该方法适用于生产许多类型的粉末，包括简单，掺杂和多金属粉末的颗粒和纳米晶须。

54.

发明授权
Method of producing nanoscale powders by quenching of vapors 失效
Title translation: 通过蒸汽骤冷生产纳米级粉末的方法

公开(公告)号：US5788738A

公开(公告)日：1998-08-04

申请号：US707341

申请日：1996-09-03

Applicant: Shahid Pirzada , Tapesh Yadav

Inventor： Shahid Pirzada , Tapesh Yadav

IPC: B01J12/00 , B01J12/02 , B01J19/24 , B22F9/12 , C01B13/14 , C01B19/00 , C01B21/06 , C01B31/36 , C01B35/04 , C01F5/06 , C01F11/06 , C01F17/00 , C01G23/00 , C01G41/02 , C01G53/00 , C04B2/10

CPC classification number: B82Y30/00 , B01J12/005 , B01J12/02 , B01J19/088 , B01J19/24 , B22F9/12 , B82Y25/00 , B82Y5/00 , C01B13/145 , C01B19/007 , C01B21/062 , C01B31/36 , C01B35/04 , C01F11/06 , C01F17/0043 , C01F5/06 , C01G23/006 , C01G41/02 , C01G53/006 , C04B2/10 , B01J2219/00094 , B01J2219/00135 , B01J2219/00177 , B01J2219/0018 , B01J2219/0894 , B22F2999/00 , C01P2002/01 , C01P2002/02 , C01P2002/34 , C01P2002/60 , C01P2002/72 , C01P2004/03 , C01P2004/04 , C01P2004/38 , C01P2004/51 , C01P2004/54 , C01P2004/61 , C01P2004/62 , C01P2004/64 , C01P2006/10 , C01P2006/12 , C01P2006/40 , C01P2006/60

Abstract: A thermal reactor system that produces nanoscale powders by ultra-rapid thermal quench processing of high-temperature vapors through a boundary-layer converging-diverging nozzle. A gas suspension of precursor material is continuously fed to a thermal reaction chamber and vaporized under conditions that minimize superheating and favor nucleation of the resulting vapor. According to one aspect of the invention, the high temperature vapor is quenched using the principle of Joule-Thompson adiabatic expansion. Immediately after the initial nucleation stages, the vapor stream is passed through the nozzle and rapidly quenched through expansion at rates of at least 1,000.degree. C. per second, preferably greater than 1,000,000.degree. C. per second, to block the continued growth of the nucleated particles and produce a nanosize powder suspension of narrow particle-size distribution. According to another aspect of the invention, a gaseous boundary-layer stream is injected to form a blanket over the internal surface of the nozzle to prevent vapor condensation in the throat of the nozzle and its potential failure.

Abstract translation: 一种热反应器系统，通过边界层会聚发散喷嘴通过高温蒸气的超快速热淬火处理产生纳米级粉末。将前体材料的气体悬浮液连续地供给到热反应室，并在使过热最小化并有利于所得蒸汽成核的条件下蒸发。根据本发明的一个方面，使用焦耳汤普森绝热膨胀原理淬火高温蒸气。在初始成核阶段之后，蒸气流通过喷嘴，并以每秒至少1000℃，优选大于1,000,000℃/秒的速率通过膨胀快速骤冷，以阻止有成核的颗粒并产生窄粒度分布的纳米尺寸粉末悬浮液。根据本发明的另一方面，喷射气体边界层流以在喷嘴的内表面上形成橡皮布，以防止喷嘴喉部中的蒸汽冷凝及其潜在的故障。

55.

发明授权
Nano-engineered inks, methods for their manufacture and their applications 有权
Title translation: 纳米工程油墨，其制造方法及其应用

公开(公告)号：US08263685B2

公开(公告)日：2012-09-11

申请号：US13050361

申请日：2011-03-17

Applicant: Tapesh Yadav

Inventor： Tapesh Yadav

IPC: C08K9/00 , C08K3/10 , G11B11/105

CPC classification number: C09C3/08 , B82Y30/00 , C01P2004/64 , C01P2006/22 , C09C1/3669 , C09C1/402 , C09C1/62 , C09C3/10 , C09D11/03 , C09D11/037 , Y10S977/786 , Y10T428/26

Abstract: Nanoparticle dispersions, inks, pastes, lotions and methods of their manufacture are disclosed. Multifunctional, nanocomposite, hollow nanoparticles, and coated nanoparticle dispersions are also discussed.

Abstract translation: 公开了纳米颗粒分散体，油墨，糊剂，洗剂及其制造方法。还讨论了多功能纳米复合材料，中空纳米颗粒和涂覆的纳米颗粒分散体。

56.

发明申请
Zinc Comprising Nanoparticles And Related Nanotechnology 审中-公开
Title translation: 锌包含纳米粒子和相关纳米技术

公开(公告)号：US20120164561A1

公开(公告)日：2012-06-28

申请号：US12121099

申请日：2008-05-15

Applicant: Tapesh Yadav

Inventor： Tapesh Yadav

IPC: H01M4/86 , H01M4/60 , H01M4/04 , H01M4/48 , H01M4/42 , B05D5/12 , B82Y30/00

CPC classification number: B82Y30/00 , H01M4/364 , H01M4/42 , H01M4/463 , H01M4/48 , H01M4/50 , H01M4/62 , H01M4/622 , H01M2004/021

Abstract: Nanoparticles comprising zinc, methods of manufacturing nanoparticles comprising zinc, and applications of nanoparticles comprising zinc, such as electrically conducting formulations, reagents for fine chemical synthesis, pigments and catalysts are provided, and more particularly, a coating, comprising a nanomaterial composition comprising zinc and at least one metal other than zinc, wherein the at least one metal comprises an element that (a) has an oxidation state higher than an oxidation state of zinc and that (b) dopes zinc in the nanomaterial composition, and wherein the coating has an electrical conductivity greater than 0.0001 mhos·cm.

Abstract translation: 提供了包含锌的纳米颗粒，制造包含锌的纳米颗粒的方法，以及包含锌的纳米颗粒的应用，例如导电制剂，用于精细化学合成的试剂，颜料和催化剂，更具体地，涉及一种包含纳米材料组合物的涂层，其包含锌和至少一种不是锌的金属，其中所述至少一种金属包含（a）具有高于锌的氧化态的氧化态的元素和（b）所述纳米材料组合物中的掺杂锌，并且其中所述涂层具有电导率大于0.0001 mhos·cm。

57.

发明申请
NANOCOMPOSITES 有权

公开(公告)号：US20110152427A1

公开(公告)日：2011-06-23

申请号：US13036851

申请日：2011-02-28

Applicant: Tapesh Yadav , Clayton Kostelecky , Evan Franke , Bijan Miremadi , Ming Au , Anthony Vigliotti

Inventor： Tapesh Yadav , Clayton Kostelecky , Evan Franke , Bijan Miremadi , Ming Au , Anthony Vigliotti

IPC: C08L33/12 , C08K3/10 , C08K3/22 , B82Y10/00

CPC classification number: B82Y30/00 , B82Y5/00 , B82Y25/00 , C01P2006/12 , C01P2006/40 , C08K3/01 , C08K3/08 , C08K2201/011 , H01F1/0063 , Y10T428/31504

Abstract: Methods for preparing nanocomposites with electrical properties modified by powder size below 100 nanometers. Both low-loaded and highly-loaded nanocomposites are included. Nanoscale coated, un-coated, whisker type fillers are taught. Electrical nanocomposite layers may be prepared on substrates.

Abstract translation: 制备具有由粉末尺寸低于100纳米改性的电学性质的纳米复合材料的方法。包括低负载和高负载的纳米复合材料。教导了纳米级涂层，未涂覆的晶须型填料。可以在基底上制备电纳米复合层。