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1.发明申请公开(公告)号：US20100304204A1
公开(公告)日：2010-12-02
申请号：US12772913
申请日：2010-05-03
Applicant: Dmitri Routkevitch , Rikard A. Wind
Inventor： Dmitri Routkevitch , Rikard A. Wind
CPC classification number: H01M10/0436 , C01B3/042 , G01T1/24 , G01T3/08 , H01L31/035281 , H01L31/115 , H01L33/18 , H01L33/24 , H01L51/0037 , H01L51/4213 , H01L2924/0002 , H01M6/40 , H01M8/1097 , Y02E10/549 , Y02E60/364 , Y02P20/135 , Y02P70/56 , H01L2924/00
Abstract: Energy devices such as energy conversion devices and energy storage devices and methods for the manufacture of such devices. The devices include a support member having an array of pore channels having a small average pore channel diameter and having a pore channel length. Material layers that may include energy conversion materials and conductive materials are coaxially disposed within the pore channels to form material rods having a relatively small cross-section and a relatively long length. By varying the structure of the materials in the pore channels, various energy devices can be fabricated, such as photovoltaic (PV) devices, radiation detectors, capacitors, batteries and the like.
Abstract translation: 能量装置如能量转换装置和储能装置以及用于制造这种装置的方法。 这些装置包括具有孔通道阵列的支撑构件，其具有小的平均孔道直径并具有孔隙长度。 可以包括能量转换材料和导电材料的材料层同轴地设置在孔隙通道内以形成具有相对小的横截面和相对长的长度的材料棒。 通过改变孔道中的材料的结构，可以制造各种能量装置，例如光伏（PV）装置，辐射探测器，电容器，电池等。
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2.发明申请公开(公告)号：US20100219079A1
公开(公告)日：2010-09-02
申请号：US12715379
申请日：2010-03-01
Applicant: Dmitri Routkevitch , Oleg G. Polyakov
Inventor： Dmitri Routkevitch , Oleg G. Polyakov
CPC classification number: B01D53/228 , B01D67/0065 , B01D69/10 , B01D2323/18 , B01D2325/021 , B01D2325/06 , C01B3/323 , C01B3/503 , C01B2203/0233 , C01B2203/0405 , C01B2203/041 , C01B2203/0465 , C01B2203/1223
Abstract: Membranes including anodic aluminum oxide structures that are adapted for separation, purification, filtration, analysis, reaction and sensing. The membranes can include a porous anodic aluminum oxide (AAO) structure having pore channels extending through the AAO structure. The membrane may also include an active layer, such as one including an active layer material and/or active layer pore channels. The active layer is intimately integrated within the AAO structure, thus enabling great robustness, reliability, resistance to mechanical stress and thermal cycling, and high selectivity. Methods for the fabrication of anodic aluminum oxide structures and membranes are also provided.
Abstract translation: 包括适用于分离，纯化，过滤，分析，反应和感测的阳极氧化铝结构的膜。 膜可以包括具有延伸穿过AAO结构的孔道的多孔阳极氧化铝（AAO）结构。 膜还可以包括活性层，例如包括活性层材料和/或活性层孔隙通道的活性层。 活性层紧密地集成在AAO结构内，因此具有很强的鲁棒性，可靠性，耐机械应力和热循环性能以及高选择性。 还提供了制造阳极氧化铝结构和膜的方法。
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公开(公告)号：US20070256562A1
公开(公告)日：2007-11-08
申请号：US11745449
申请日：2007-05-07
Applicant: Dmitri Routkevitch , Oleg Polyakov
Inventor： Dmitri Routkevitch , Oleg Polyakov
IPC: B01D53/22
CPC classification number: B01D67/0062 , B01D53/228 , B01D2325/021 , B01D2325/06 , C01B3/12 , C01B3/323 , C01B2203/0233 , C01B2203/041 , C01B2203/1223 , Y02P20/52
Abstract: Composite membranes that are adapted for separation, purification, filtration, analysis, reaction and sensing. The composite membranes can include a porous support structure having elongate pore channels extending through the support structure. The composite membrane also includes an active layer comprising an active layer material, where the active layer material is completely disposed within the pore channels between the surfaces of the support structure. The active layer is intimately integrated within the support structure, thus enabling great robustness, reliability, resistance to mechanical stress and thermal cycling, and high selectivity. Methods for the fabrication of composite membranes are also provided.
Abstract translation: 适用于分离，纯化，过滤，分析，反应和感测的复合膜。 复合膜可以包括具有延伸穿过支撑结构的细孔通道的多孔支撑结构。 复合膜还包括有源层，其包括有源层材料，其中有源层材料完全设置在支撑结构表面之间的孔隙通道内。 有源层紧密地集成在支撑结构内，从而实现了强大的鲁棒性，可靠性，对机械应力和热循环的抵抗力和高选择性。 还提供了制备复合膜的方法。
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公开(公告)号：US20130005561A1
公开(公告)日：2013-01-03
申请号：US13408744
申请日：2012-02-29
Applicant: Dmitri Routkevitch , Oleg G. Polyakov
Inventor： Dmitri Routkevitch , Oleg G. Polyakov
CPC classification number: B01D67/0062 , B01D53/228 , B01D2325/021 , B01D2325/06 , C01B3/12 , C01B3/323 , C01B2203/0233 , C01B2203/041 , C01B2203/1223 , Y02P20/52
Abstract: Composite membranes that are adapted for separation, purification, filtration, analysis, reaction and sensing. The composite membranes can include a porous support structure having elongate pore channels extending through the support structure. The composite membrane also includes an active layer comprising an active layer material, where the active layer material is completely disposed within the pore channels between the surfaces of the support structure. The active layer is intimately integrated within the support structure, thus enabling great robustness, reliability, resistance to mechanical stress and thermal cycling, and high selectivity. Methods for the fabrication of composite membranes are also provided.
Abstract translation: 适用于分离，纯化，过滤，分析，反应和感测的复合膜。 复合膜可以包括具有延伸穿过支撑结构的细孔通道的多孔支撑结构。 复合膜还包括有源层，其包括有源层材料，其中有源层材料完全设置在支撑结构表面之间的孔隙通道内。 有源层紧密地集成在支撑结构内，从而实现了强大的鲁棒性，可靠性，对机械应力和热循环的抵抗力和高选择性。 还提供了制备复合膜的方法。
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Patent Agency Ranking
5.发明授权公开(公告)号：US06946197B2
公开(公告)日：2005-09-20
申请号：US10783629
申请日：2004-02-20
Applicant: Tapesh Yadav , Dmitri Routkevitch , Peter Mardilovich , Alex Govyadinov , Stephanie Hooker , Stephen S. Williams
Inventor： Tapesh Yadav , Dmitri Routkevitch , Peter Mardilovich , Alex Govyadinov , Stephanie Hooker , Stephen S. Williams
IPC: A61L27/06 , B01J23/00 , B01J23/08 , B01J23/14 , B01J35/00 , B01J37/18 , B81C1/00 , C01B3/00 , C04B35/00 , G01N27/12 , H01F1/00 , H01M4/02 , H01M4/90 , B32B5/16
CPC classification number: G01N27/125 , A61L27/06 , B01J23/002 , B01J23/08 , B01J23/14 , B01J35/0013 , B01J37/18 , B82Y25/00 , C01B3/001 , C04B35/00 , G01N27/127 , H01F1/0045 , H01F1/405 , H01M4/02 , H01M4/90 , Y02E60/324 , Y10S977/89 , Y10T29/49002 , Y10T428/2982
Abstract: Device nanotechnology based on silicon wafers and other substrates is described. Methods for preparing such devices are discussed. The teachings allow integration of current semiconductor device, sensor device and other device fabrication methods with nanotechnology. Integration of nanotubes and nanowires to wafers is discussed. Sensors, electronics, biomedical and other devices are presented.
Abstract translation: 描述了基于硅晶片和其他基板的器件纳米技术。 讨论了制备这种装置的方法。 该教导允许当前半导体器件，传感器器件和其他器件制造方法与纳米技术的集成。 讨论纳米管和纳米线与晶圆的集成。 介绍了传感器，电子，生物医学和其他设备。
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公开(公告)号：US08939293B2
公开(公告)日：2015-01-27
申请号：US13408744
申请日：2012-02-29
Applicant: Dmitri Routkevitch , Oleg G. Polyakov
Inventor： Dmitri Routkevitch , Oleg G. Polyakov
CPC classification number: B01D67/0062 , B01D53/228 , B01D2325/021 , B01D2325/06 , C01B3/12 , C01B3/323 , C01B2203/0233 , C01B2203/041 , C01B2203/1223 , Y02P20/52
Abstract: Composite membranes that are adapted for separation, purification, filtration, analysis, reaction and sensing. The composite membranes can include a porous support structure having elongate pore channels extending through the support structure. The composite membrane also includes an active layer comprising an active layer material, where the active layer material is completely disposed within the pore channels between the surfaces of the support structure. The active layer is intimately integrated within the support structure, thus enabling great robustness, reliability, resistance to mechanical stress and thermal cycling, and high selectivity. Methods for the fabrication of composite membranes are also provided.
Abstract translation: 适用于分离，纯化，过滤，分析，反应和感测的复合膜。 复合膜可以包括具有延伸穿过支撑结构的细孔通道的多孔支撑结构。 复合膜还包括有源层，其包括有源层材料，其中有源层材料完全设置在支撑结构表面之间的孔隙通道内。 有源层紧密地集成在支撑结构内，从而实现了强大的鲁棒性，可靠性，对机械应力和热循环的抵抗力和高选择性。 还提供了制备复合膜的方法。
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公开(公告)号：US08624105B2
公开(公告)日：2014-01-07
申请号：US12772913
申请日：2010-05-03
Applicant: Dmitri Routkevitch , Rikard A. Wind
Inventor： Dmitri Routkevitch , Rikard A. Wind
IPC: H01L31/00
CPC classification number: H01M10/0436 , C01B3/042 , G01T1/24 , G01T3/08 , H01L31/035281 , H01L31/115 , H01L33/18 , H01L33/24 , H01L51/0037 , H01L51/4213 , H01L2924/0002 , H01M6/40 , H01M8/1097 , Y02E10/549 , Y02E60/364 , Y02P20/135 , Y02P70/56 , H01L2924/00
Abstract: Energy devices such as energy conversion devices and energy storage devices and methods for the manufacture of such devices. The devices include a support member having an array of pore channels having a small average pore channel diameter and having a pore channel length. Material layers that may include energy conversion materials and conductive materials are coaxially disposed within the pore channels to form material rods having a relatively small cross-section and a relatively long length. By varying the structure of the materials in the pore channels, various energy devices can be fabricated, such as photovoltaic (PV) devices, radiation detectors, capacitors, batteries and the like.
Abstract translation: 能量装置如能量转换装置和储能装置以及用于制造这种装置的方法。 这些装置包括具有孔通道阵列的支撑构件，其具有小的平均孔道直径并具有孔隙长度。 可以包括能量转换材料和导电材料的材料层同轴地设置在孔隙通道内以形成具有相对小的横截面和相对长的长度的材料棒。 通过改变孔道中的材料的结构，可以制造各种能量装置，例如光伏（PV）装置，辐射探测器，电容器，电池等。
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公开(公告)号：US08210360B2
公开(公告)日：2012-07-03
申请号：US11745449
申请日：2007-05-07
Applicant: Dmitri Routkevitch , Oleg G. Polyakov
Inventor： Dmitri Routkevitch , Oleg G. Polyakov
CPC classification number: B01D67/0062 , B01D53/228 , B01D2325/021 , B01D2325/06 , C01B3/12 , C01B3/323 , C01B2203/0233 , C01B2203/041 , C01B2203/1223 , Y02P20/52
Abstract: Composite membranes that are adapted for separation, purification, filtration, analysis, reaction and sensing. The composite membranes can include a porous support structure having elongate pore channels extending through the support structure. The composite membrane also includes an active layer comprising an active layer material, where the active layer material is completely disposed within the pore channels between the surfaces of the support structure. The active layer is intimately integrated within the support structure, thus enabling great robustness, reliability, resistance to mechanical stress and thermal cycling, and high selectivity. Methods for the fabrication of composite membranes are also provided.
Abstract translation: 适用于分离，纯化，过滤，分析，反应和感测的复合膜。 复合膜可以包括具有延伸穿过支撑结构的细孔通道的多孔支撑结构。 复合膜还包括有源层，其包括有源层材料，其中有源层材料完全设置在支撑结构表面之间的孔隙通道内。 有源层紧密地集成在支撑结构内，从而实现了强大的鲁棒性，可靠性，对机械应力和热循环的抵抗力和高选择性。 还提供了制备复合膜的方法。
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9.发明授权Nanostructured ceramic platform for micromachined devices and device arrays 有权用于微加工设备和器件阵列的纳米结构陶瓷平台公开(公告)号：US06705152B2
公开(公告)日：2004-03-16
申请号：US10004258
申请日：2001-10-24
Applicant: Dmitri Routkevitch , Peter Mardilovich , Alex Govyadinov , Stephanie Hooker , Stephen S. Williams
Inventor： Dmitri Routkevitch , Peter Mardilovich , Alex Govyadinov , Stephanie Hooker , Stephen S. Williams
IPC: G01N2700
CPC classification number: G01N27/125 , A61L27/06 , B01J23/002 , B01J23/08 , B01J23/14 , B01J35/0013 , B01J37/18 , B82Y25/00 , C01B3/001 , C04B35/00 , G01N27/127 , H01F1/0045 , H01F1/405 , H01M4/02 , H01M4/90 , Y02E60/324 , Y10S977/89 , Y10T29/49002 , Y10T428/2982
Abstract: The present invention discloses a type of nanostructured ceramic platform for gas sensors and sensor arrays. These sensors comprise micromachined anodic aluminum oxide films, which contains extremely high density (e.g., 1011 cm−2) nanoscale pores. Sensing materials deposited inside this self-organized network of nanopores have ultra-high surface area and nanometer grain structure, therefore enabling high sensitivity. Refractory nature of alumina ceramic enables the desired robustness, long lifetime and stability in harsh environment. This sensor platform can been used for both chemical gas and physical (humidity, temperature) sensors and sensor arrays.
Abstract translation: 本发明公开了一种用于气体传感器和传感器阵列的纳米结构陶瓷平台。 这些传感器包括微加工阳极氧化铝膜，其包含非常高密度（例如10 11 cm -2）的纳米级孔。 沉积在纳米孔内自组织网络内的感应材料具有超高的表面积和纳米晶粒结构，因此具有高灵敏度。 氧化铝陶瓷的耐火性能能够在恶劣环境下实现所需的坚固性，长寿命和稳定性。 该传感器平台可用于化学气体和物理（湿度，温度）传感器和传感器阵列。
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