会员体验
专利管家(专利管理)
工作空间(专利管理)
风险监控(情报监控)
数据分析(专利分析)
侵权分析(诉讼无效)
联系我们
交流群
官方交流:
QQ群: 891211   
微信请扫码    >>>
现在联系顾问~
热词
    • 2. 发明申请
    • Microdevice for the In Situ Detection of Particles of Interest in a Fluid Medium and Operating Method
    • 用于在流体介质中感兴趣的颗粒的原位检测的微型设备和操作方法
    • US20100244855A1
    • 2010-09-30
    • US12731963
    • 2010-03-25
    • Vincent AgacheGuillaume Delapierre
    • Vincent AgacheGuillaume Delapierre
    • G01R27/04
    • G01N27/127B82Y15/00G01N27/122
    • The invention relates to a detection device of small size, allowing direct in situ detection of particles with no labelling, enabling the particles to be rapidly analysed, and having both a specificity and a sensitivity that are at least equivalent to the existing devices. In one embodiment, the invention provides a device having a nanowire, intended for interacting with the particles of interest, which is suspended between two anchors that define a source and a drain, the source and the drain are configured to be connected to an AC voltage generator and to a DC voltage generator, respectively, in order to generate a first input signal; an excitation electrode, placed laterally facing the nanowire and configured to be connected to an AC voltage generator, in order to generate a second input signal; and a measurement electrode placed opposite the excitation electrode relative to the nanowire and generating a single output signal representative of the particles of interest.
    • 本发明涉及一种小尺寸的检测装置,允许直接原位检测没有标记的颗粒,使得能够快速分析颗粒,同时具有至少等同于现有装置的特异性和灵敏度。 在一个实施例中,本发明提供了一种具有纳米线的装置,其旨在与感兴趣的颗粒相互作用,所述颗粒悬挂在限定源极和漏极的两个锚点之间,源极和漏极被配置为连接到AC电压 发电机和DC电压发生器,以便产生第一输入信号; 激励电极,横向面对纳米线并且被配置为连接到AC电压发生器,以便产生第二输入信号; 以及与激发电极相对于纳米线放置的测量电极,并产生表示感兴趣的颗粒的单个输出信号。
    • 6. 发明申请
    • Method For Extracting At Least One Compound From A Liquid Phase Comprising A Functionalized Ionic Liquid, And Microfluidic System For Implementing Said Method
    • 从包含官能化离子液体的液相中提取至少一种化合物的方法和用于实施所述方法的微流体系统
    • US20080185339A1
    • 2008-08-07
    • US11912077
    • 2006-04-06
    • Guillaume DelapierreNicolas SarrutGilles Marchand
    • Guillaume DelapierreNicolas SarrutGilles Marchand
    • B01D15/00B01D11/04
    • B01D11/04B01D11/0496
    • (EN) The invention concerns a method for extracting at least one chemical or biological compound from a liquid phase comprising at least one functionalized ionic liquid, via a liquid extracting fluid (F) which is miscible with said ionic liquid(s), and a microfluidic system (10) for implementing said method. The inventive extraction method includes moving, on one surface (12) of a microfluidic system (19), at least one microdrop (14) of said liquid phase into an extraction solution (20) which comprises said extracting fluid and which is localized on said surface to obtain in output of said solution, under the effect of an electric field, an extract (E) moving away from said surface which is rich in extracting fluid and enriched in said or at least one of said compound(s), and a raffinate (R) moving on said surface which is rich in ionic liquid(s) and deleted in said or one of said compound(s).
    • (EN)本发明涉及通过与所述离子液体混溶的液体提取液(F)从包含至少一种官能化离子液体的液相中提取至少一种化学或生物化合物的方法,以及 用于实现所述方法的微流体系统(10)。 本发明的提取方法包括在微流体系统(19)的一个表面(12)上移动所述液相的至少一个微滴(14)至包含所述提取流体并且位于所述液相 在所述溶液的作用下获得所述溶液的输出,所述提取物(E)在电场的作用下离开所述表面移动,所述提取物(E)富含提取流体并富集所述化合物或所述化合物中的至少一种,并且所述提取物 所述残液在所述表面上移动,所述表面富含离子液体并在所述化合物或所述化合物之一中缺失。
    • 8. 发明授权
    • Microdevice for the in situ detection of particles of interest in a fluid medium and operating method
    • 用于在流体介质中原位检测感兴趣的颗粒的微型装置和操作方法
    • US08334702B2
    • 2012-12-18
    • US12731963
    • 2010-03-25
    • Vincent AgacheGuillaume Delapierre
    • Vincent AgacheGuillaume Delapierre
    • G01R27/32G01N11/00
    • G01N27/127B82Y15/00G01N27/122
    • The invention relates to a detection device of small size, allowing direct in situ detection of particles with no labelling, enabling the particles to be rapidly analysed, and having both a specificity and a sensitivity that are at least equivalent to the existing devices. In one embodiment, the invention provides a device havinga nanowire, intended for interacting with the particles of interest, which is suspended between two anchors that define a source and a drain, the source and the drain are configured to be connected to an AC voltage generator and to a DC voltage generator, respectively, in order to generate a first input signal;an excitation electrode, placed laterally facing the nanowire and configured to be connected to an AC voltage generator, in order to generate a second input signal; anda measurement electrode placed opposite the excitation electrode relative to the nanowire and generating a single output signal representative of the particles of interest.
    • 本发明涉及一种小尺寸的检测装置,允许直接原位检测没有标记的颗粒,使得能够快速分析颗粒,同时具有至少等同于现有装置的特异性和灵敏度。 在一个实施例中,本发明提供了一种具有纳米线的装置,其旨在与感兴趣的颗粒相互作用,所述颗粒悬挂在限定源极和漏极的两个锚点之间,源极和漏极被配置为连接到AC电压 发电机和DC电压发生器,以便产生第一输入信号; 激励电极,横向面对纳米线并且被配置为连接到AC电压发生器,以便产生第二输入信号; 以及与激发电极相对于纳米线放置的测量电极,并产生表示感兴趣的颗粒的单个输出信号。
    • 9. 发明申请
    • METHOD TO FABRICATE A CHIP FOR THE DETECTION OF BIOLOGICAL ELEMENTS
    • 用于制作用于检测生物元素的芯片的方法
    • US20100124791A1
    • 2010-05-20
    • US12620881
    • 2009-11-18
    • Julien BUCKLEYOlivier BillointGuillaume Delapierre
    • Julien BUCKLEYOlivier BillointGuillaume Delapierre
    • H01L21/336
    • G01N27/4145
    • Improved method to fabricate a microelectronic device provided with at least one circuit to detect biological elements, comprising the steps of: a) forming transistors, depositing at least one layer in at least one insulating material (141) coating said transistors, forming one or more holes (143) in said layer of insulating material (141), so as to expose the upper face of the respective gate (135) of first-type transistors, filling the holes with a gate material, b) removing, at least in part, the respective gate (135) of the first-type transistors, whilst the gate of second-type transistors is protected, the method prior to or at the same time as said removal conducted at step b) further comprising the removal of said gate material.
    • 制造具有检测生物元件的至少一个电路的微电子器件的改进方法包括以下步骤:a)形成晶体管,在涂覆所述晶体管的至少一个绝缘材料(141)中沉积至少一层,形成一个或多个 在所述绝缘材料层(141)中的孔(143)中,以露出第一型晶体管的各个栅极(135)的上表面,用栅极材料填充孔,b)至少部分地去除 ,第一型晶体管的相应栅极(135),同时第二型晶体管的栅极被保护,该方法在与在步骤b)进行的所述去除之前或同时进一步包括去除所述栅极材料 。
    • 10. 发明申请
    • Method for Bonding Two Free Surfaces, Respectively of First and Second Different Substrates
    • 分别接合第一和第二不同基板的两个自由表面的方法
    • US20080009123A1
    • 2008-01-10
    • US11667919
    • 2005-12-06
    • Marek KostrzewaLea Di CioccioGuillaume Delapierre
    • Marek KostrzewaLea Di CioccioGuillaume Delapierre
    • H01L21/30
    • C09J5/02
    • A method for bonding two free surfaces, respectively of first and second different substrates, includes a formation step, on the free surface of the first substrate, of a self-assembled mono-molecular layer consisting of a thiol compound of the SH—R—X type, where —R is a carbonaceous chain and —X is a group selected from the group consisting in —H, —OH and —COOH, at least said free surface of the first substrate being formed by a material able to form molecular bonds with the —SH group of the thiol compound. The method also includes preparing the free surface of the second substrate consisting in saturating the free surface of the second substrate with —H groups if —X is a —H group or with —OH groups if —X is selected from the group consisting in —OH and —COOH, and placing the two free surfaces in contact.
    • 分别用于接合第一和第二不同基板的两个自由表面的方法包括在第一基板的自由表面上形成由SH-RX型硫醇化合物组成的自组装单分子层的形成步骤 ,其中-R是碳质链,-X是选自-H,-OH和-COOH的基团,所述第一基底的至少所述自由表面由能够与所述第一基底形成分子键的材料形成 -SH组的硫醇化合物。 该方法还包括制备第二衬底的自由表面,其组成为:如果-X为-H基团则用-H基团饱和第二衬底的自由表面,如果-X选自 - OH和-COOH,并将两个自由表面接触。