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    • 154. 发明申请
    • Orientation coating method of the top of micro tip
    • 微尖顶方向涂层方法
    • US20050163931A1
    • 2005-07-28
    • US10508128
    • 2002-07-12
    • Ningsheng XuShaozhi DengJuncong SheJun Chen
    • Ningsheng XuShaozhi DengJuncong SheJun Chen
    • B81B1/00B81C1/00B05D1/36B05D5/00
    • B81C1/00111B81B2201/055B82Y30/00
    • This invention relates to a method for locally depositing coatings on microtip apex. The technical procedures are listed as following. (1) Using parting layer to cover the tip body and only leave the apex protruded A parting layer was deposited on the entire microtip sample surface. The film thickness is thicker than the height of microtip. By thinning the parting layer, the tip apex was exposed, but the body remains being covered. The height of the exposed tip apex can be controlled by adjusting the thinning parameters. (2) Surface cleaning and passivation treatment Surface cleaning and passivation treatment are performed on the apex of the microtip according to actual needs. (3) Coating Based on actual needs, a selected functional thin film is coated on the microtip sample. (4) Remove the parting layer to form the locally coated tip By using an etchant that only react with the parting layer but not the microtip and the coated material, the parting layer can selectively removed, leave a locally coated microtip. Using the aforementioned method, it is able to perform surface cleaning and locally thin film depositing on microtip apex.
    • 本发明涉及一种在微尖端上局部沉积涂层的方法。 技术手续如下。 (1)使用分离层覆盖顶端体并且只留下顶点突出的A分离层沉积在整个微尖端样品表面上。 膜厚比微尖的厚度厚。 通过使分离层变薄,尖端尖端被暴露,但是身体保持被覆盖。 可以通过调整稀化参数来控制暴露顶端顶点的高度。 (2)表面清洁和钝化处理根据实际需要,在微尖端上进行表面清洁和钝化处理。 (3)涂层根据实际需要,在微尖端样品上涂覆选定的功能性薄膜。 (4)去除分层以形成局部涂覆的尖端通过使用仅与分离层反应但不与微尖端和涂覆材料反应的蚀刻剂,可以选择性地除去分层,留下局部涂覆的微尖端。 使用上述方法,能够在微尖端上进行表面清洁和局部薄膜沉积。
    • 157. 发明授权
    • Low drop-out voltage regulator with power supply rejection boost circuit
    • 具有电源抑制升压电路的低压差稳压器
    • US06897637B2
    • 2005-05-24
    • US10314931
    • 2002-12-09
    • Jun ChenSiew K. Hoon
    • Jun ChenSiew K. Hoon
    • G05F1/575G05F1/618
    • G05F1/575
    • A low drop-out voltage regulator uses a voltage subtractor circuit 36 to form a power supply rejection boost circuit. The voltage subtractor 36 is inserted between the pass element 20 and the amplifier 26 of the low drop-out regulator. The voltage regulator circuit includes a pass element 20 coupled between an input node and an output node; a voltage feedback circuit 28 and 30 coupled to the output node Vo; an amplifier 26 having an input coupled to the voltage feedback circuit; and a voltage subtractor 36 having a control node coupled to an output of the amplifier 26, an output coupled to a control node of the pass element 20, and an input coupled to the input node. The boost circuit improves supply noise rejection performance significantly without adding much complexity to the regulator system. The boost circuit is simple and consumes negligible silicon area and power.
    • 低压降稳压器使用电压减法器电路36形成电源抑制升压电路。 电压减法器36插入到低压差调节器的通过元件20和放大器26之间。 电压调节器电路包括耦合在输入节点和输出节点之间的通过元件20; 耦合到输出节点Vo的电压反馈电路28和30; 具有耦合到电压反馈电路的输入的放大器26; 以及具有耦合到放大器26的输出的控制节点的电压减法器36,耦合到通过元件20的控制节点的输出以及耦合到输入节点的输入。 升压电路可以显着提高电源噪声抑制性能,而不会增加稳压器系统的复杂性。 升压电路简单,消耗了微不足道的硅面积和功率。
    • 158. 发明授权
    • Method for analyzing creep characteristic of a plastic molded substance
    • 分析塑料成型物质蠕变特性的方法
    • US06581473B2
    • 2003-06-24
    • US09942875
    • 2001-08-31
    • Tadayoshi TakaharaJun ChenYoshio Sugimoto
    • Tadayoshi TakaharaJun ChenYoshio Sugimoto
    • G01N1100
    • G06F17/5018G01N2203/0071G01N2203/0216G06F2217/41
    • A method for analyzing creep characteristic of a plastic molded substance is provided wherein the creep characteristic can be analyzed of an actual plastic molded substance having various shape and fastening conditions with high precision. The main stress value for each section of the analysis target is read out, hydrostatic stress &sgr;m of each section is calculated from the main stress value, and the stress condition is determined to be tensile stress when &sgr;m is positive and to be compressive stress when &sgr;m is negative. Tensile or compressive characteristic value is assigned based on the stress condition at each section, and creep is calculated for a predetermined time period based on the characteristic value. By employing characteristic values depending on the stress conditions of each section, precision of creep characteristic analysis is greatly enhanced.
    • 提供一种用于分析塑料模制物质的蠕变特性的方法,其中可以高精度地分析具有各种形状和紧固条件的实际塑料模制物质的蠕变特性。 读出分析目标每个部分的主应力值,从主应力值计算每个截面的静水压应力sigmam,当Sigmam为正时应力条件为拉应力,Sigmam为压应力 是否定的 基于每个部分的应力条件分配拉伸或压缩特性值,并且基于特征值计算预定时间段的蠕变。 通过根据各部分的应力条件采用特征值,大大提高了蠕变特性分析的精度。
    • 159. 发明授权
    • Hydrogel composites and superporous hydrogel composites having fast swelling, high mechanical strength, and superabsorbent properties
    • 水凝胶复合材料和具有快速溶胀,高机械强度和超吸收性能的多孔水凝胶复合材料
    • US06271278B1
    • 2001-08-07
    • US08855499
    • 1997-05-13
    • Kinam ParkJun ChenHaesun Park
    • Kinam ParkJun ChenHaesun Park
    • C08F3604
    • A61L15/60C08F251/00C08F291/00
    • A superporous hydrogel composite is formed by polymerizing one or more ethylenically-unsaturated monomers, and a multiolefinic crosslinking agent, in the presence of particles of a disintegrant and a blowing agent. The disintegrant, which rapidly absorbs water, serves to greatly increase the mechanical strength of the superporous hydrogel and significantly shorten the time required to absorb water and swell. Superporous hydrogel composites prepared by this method have an average pore size in the range of 10 &mgr;m to 3,000 &mgr;m. Preferred particles of disintegrant include natural and synthetic charged polymers, such as crosslinked sodium carboxymethylcellulose, crosslinked sodium starch glycolate, and crosslinked polyvinylpyrrolidone. The blowing agent is preferably a compound that releases gas bubbles upon acidification, such as NaHCO3. Improved hydrogel composites formed without a blowing agent are also provided.
    • 通过在崩解剂和发泡剂的颗粒存在下聚合一种或多种烯属不饱和单体和多烯属交联剂来形成多孔水凝胶复合物。 迅速吸收水分的崩解剂大大增加了多孔水凝胶的机械强度,显着缩短了吸收水分和膨胀所需的时间。 通过该方法制备的多孔水凝胶复合材料的平均孔径在10〜3000μm的范围内。 优选的崩解剂颗粒包括天然和合成的带电聚合物,例如交联的羧甲基纤维素钠,交联的羟基乙酸淀粉钠和交联的聚乙烯吡咯烷酮。 发泡剂优选是在酸化时释放气泡的化合物,例如NaHCO 3。 还提供了没有发泡剂形成的改进的水凝胶复合材料。