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    • 1. 发明公开
    • PHOTOCATALYTIC COLOR SWITCHING OF REDOX IMAGING NANOMATERIALS OF REWRITABLE MEDIA
    • 可再生介质中氧化还原成像纳米材料的光催化色彩转换
    • EP3210079A1
    • 2017-08-30
    • EP15852045.2
    • 2015-10-20
    • Yin, YadongWang, Wenshou
    • Yin, YadongWang, Wenshou
    • G03C1/705G03C8/04G03C8/10
    • G03C1/705G03C1/64G03C1/732G03C1/74G03C1/775G03C8/04G03C8/10
    • The production of photocatalytic color switching of redox imaging nanomaterials for rewritable media is disclosed. The new color switching system is based on photocatalytic redox reaction enabling reversible and considerably fast color switching in response to light irradiation. In accordance with an exemplary embodiment, the color switching system can include a photocatalyst and an imaging media. With the assistance of photocatalyst, UV light irradiation can rapidly reduce the redox imaging nanomaterials accompany with obvious color changing, while the resulting reduced system can be switched back to original color state through visible light irradiation or heating in air condition. The excellent performance of the new color switching system promises their potential use as an attractive rewritable media to meet increasing needs for sustainability and environmental protection.
    • 公开了用于可重写介质的氧化还原成像纳米材料的光催化颜色切换的产生。 新的颜色切换系统基于光催化氧化还原反应,可以在光照射的情况下实现可逆且相当快的颜色切换。 根据示例性实施例,颜色切换系统可以包括光催化剂和成像介质。 在光催化剂的帮助下,紫外光照射可以迅速降低氧化还原成像纳米材料伴随着明显的颜色变化,而通过可见光照射或在空气中加热所导致的还原系统可以切换回原始颜色状态。 新型色彩转换系统的卓越性能使其成为具有吸引力的可擦写介质,以满足日益增长的可持续发展和环境保护需求。
    • 2. 发明公开
    • PHOTOCATALYTIC COLOR SWITCHING OF REDOX IMAGING NANOMATERIALS OF REWRITABLE MEDIA
    • PHOTOKATALYTISCHE FARBUMSCHALTUNG VON REDOXBILDGEBUNGSNANOMATERIALIEN VON WIEDERBESCHREIBBAREN MEDIEN
    • EP3210079A4
    • 2017-08-30
    • EP15852045
    • 2015-10-20
    • YIN YADONGWANG WENSHOU
    • YIN YADONGWANG WENSHOU
    • G03C1/705G03C8/04G03C8/10
    • G03C1/705G03C1/64G03C1/732G03C1/74G03C1/775G03C8/04G03C8/10
    • The production of photocatalytic color switching of redox imaging nanomaterials for rewritable media is disclosed. The new color switching system is based on photocatalytic redox reaction enabling reversible and considerably fast color switching in response to light irradiation. In accordance with an exemplary embodiment, the color switching system can include a photocatalyst and an imaging media. With the assistance of photocatalyst, UV light irradiation can rapidly reduce the redox imaging nanomaterials accompany with obvious color changing, while the resulting reduced system can be switched back to original color state through visible light irradiation or heating in air condition. The excellent performance of the new color switching system promises their potential use as an attractive rewritable media to meet increasing needs for sustainability and environmental protection.
    • 公开了用于可重写介质的氧化还原成像纳米材料的光催化颜色切换的产生。 新的颜色切换系统基于光催化氧化还原反应,可以在光照射的情况下实现可逆且相当快的颜色切换。 根据示例性实施例,颜色切换系统可以包括光催化剂和成像介质。 在光催化剂的帮助下,紫外光照射可以迅速降低氧化还原成像纳米材料伴随着明显的颜色变化,而通过可见光照射或在空气中加热所导致的还原系统可以切换回原始颜色状态。 新型色彩转换系统的卓越性能使其成为具有吸引力的可擦写介质,以满足日益增长的可持续发展和环境保护需求。
    • 5. 发明申请
    • PHOTOCATALYTIC COLOR SWITCHING OF REDOX IMAGING NANOMATERIALS OF REWRITABLE MEDIA
    • 可再生媒体红外成像纳米光子的光催化色彩切换
    • WO2016064849A1
    • 2016-04-28
    • PCT/US2015/056425
    • 2015-10-20
    • YIN, YadongWANG, Wenshou
    • YIN, YadongWANG, Wenshou
    • G03C1/705G03C8/04G03C8/10
    • G03C1/705G03C1/64G03C1/732G03C1/74G03C1/775G03C8/04G03C8/10
    • The production of photocatalytic color switching of redox imaging nanomaterials for rewritable media is disclosed. The new color switching system is based on photocatalytic redox reaction enabling reversible and considerably fast color switching in response to light irradiation. In accordance with an exemplary embodiment, the color switching system can include a photocatalyst and an imaging media. With the assistance of photocatalyst, UV light irradiation can rapidly reduce the redox imaging nanomaterials accompany with obvious color changing, while the resulting reduced system can be switched back to original color state through visible light irradiation or heating in air condition. The excellent performance of the new color switching system promises their potential use as an attractive rewritable media to meet increasing needs for sustainability and environmental protection.
    • 公开了用于可重写介质的氧化还原成像纳米材料的光催化颜色切换的生产。 新的颜色切换系统是基于光催化氧化还原反应,能够响应于光照射而实现可逆且相当快的颜色切换。 根据示例性实施例,颜色切换系统可以包括光催化剂和成像介质。 在光催化剂的帮助下,紫外光照射可以快速减少氧化还原成像纳米材料伴随着明显的颜色变化,同时所产生的还原体系可以通过可见光照射或在空气条件下加热而切换回原色状态。 新的颜色切换系统的出色表现将其潜在的用途作为一种有吸引力的可重写媒体,以满足日益增长的可持续性和环境保护需求。
    • 7. 发明申请
    • BIOMATERIALS WITH A SUSTAINABLE SURFACE
    • 具有可持续表面的生物材料
    • WO2013176739A1
    • 2013-11-28
    • PCT/US2013/030543
    • 2013-03-12
    • REGENTS OF THE UNIVERSITY OF MINNESOTASIEGEL, RonWANG, ChunWANG, Wenshou
    • SIEGEL, RonWANG, ChunWANG, Wenshou
    • A01N25/34C08B37/08C08L67/04
    • A01N25/34A01N25/10C08B37/0072C08L101/16A01N33/12A01N43/16A01N47/12
    • Polymeric materials with improved (e.g. continuous) antifouling surfaces. The materials can be incorporated into a variety of materials, including medical devices, microspheres, nanoparticles, and containers. These materials combine amphiphilic copolymer conjugates having hyaluronan as the hydrophilic component, dispersed throughout bulk polymeric biomaterial. The hydrophobic component of the copolymer will have good compatibility with host bulk polymer, enabling excellent dispersion of the copolymer in the bulk, and anchorage for the hydrophilic component at the surface. The hydrophilic hyaluronan segment will spread on the surface of polymers and act as an antifouling layer in an aqueous environment; and the copolymer will dispersed uniformly in the polymer matrix and will not migrate to the surface because of its high molecular weight. Hence, as the bulk polymer degrades, the dispersed HA-amphiphile will become available to "coat" the dynamically evolving biointerface.
    • 具有改进(例如连续)防污表面的聚合材料。 这些材料可以结合到各种材料中,包括医疗装置,微球,纳米颗粒和容器。 这些材料将具有透明质酸的两亲性共轭物缀合物作为亲水性组分结合,分散在整体聚合物生物材料中。 共聚物的疏水组分与主体聚合物具有良好的相容性,可使本体上共聚物的分散性优异,并使表面上的亲水性组分固着。 亲水性透明质酸链段将在聚合物表面扩散,并在水性环境中作为防污层; 并且共聚物将均匀地分散在聚合物基质中,并且由于其高分子量而不会迁移到表面。 因此,当散体聚合物降解时,分散的HA-两亲物将可用于“涂覆”动态演化的生物界面。