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    • 1. 发明授权
    • Intrusion protection using stress changes
    • 使用压力变化的入侵保护
    • US08330191B2
    • 2012-12-11
    • US12997576
    • 2009-05-26
    • Romano HoofmanRemco Henricus Wilhelmus PijnenburgYouri Victorovitch Ponomarev
    • Romano HoofmanRemco Henricus Wilhelmus PijnenburgYouri Victorovitch Ponomarev
    • H01L29/84G08B13/14
    • H01L23/576G06F21/87H01L2924/0002H01L2924/00
    • The invention relates to a integrated circuit comprising an electronic circuit integrated on a substrate (5), and further comprising protections means for protection of the electronic circuit (25). The protection means comprise: i) a first strained encapsulation layer (10) being provided on a first side of the substrate (5), wherein the first strained encapsulation layer (10) has a strain (S1) in a direction parallel to the substrate (5), and ii) disabling means (20) arranged for at least partially disabling the electronic circuit (25) under control of a strain change in the substrate (5). The invention further relates to a method of manufacturing such integrated circuit, and to a system comprising such integrated circuit. Such system is selected from a group comprising: a bank-card, a smart-card, a contact-less card and an RFID. All embodiments of the integrated circuit in accordance with the invention provide essentially an alternative tamper protection to the data stored or present in the electronic circuit therein. A first main group of embodiments concerns an integrated circuit wherein tamper protection is obtained by detecting a strain change during tampering and subsequently disabling the electronic circuit. A second main group of embodiments concerns an integrated circuit wherein tamper protection is obtained by designing a stack of strained encapsulation layers, such that tampering causes releasing of strain and thereby mechanical disintegrate (break, delaminate, etc) of the integrated circuit, and thus disabling the electronic circuit.
    • 本发明涉及一种集成电路,其包括集成在基板(5)上的电子电路,并且还包括用于保护电子电路(25)的保护装置。 保护装置包括:i)第一应变封装层(10),设置在基板(5)的第一侧上,其中第一应变封装层(10)在平行于基板的方向上具有应变(S1) (5),以及ii)布置成在所述衬底(5)中的应变变化的控制下至少部分地禁用所述电子电路(25)的禁用装置(20)。 本发明还涉及一种制造这种集成电路的方法,以及包括这种集成电路的系统。 这样的系统从包括银行卡,智能卡,无接触卡和RFID的组中选择。 根据本发明的集成电路的所有实施例基本上为存储或存在于其中的电子电路中的数据提供了替代的篡改保护。 第一主要实施例涉及集成电路,其中通过在篡改期间检测应变变化并随后禁用电子电路来获得篡改保护。 第二主要实施例涉及一种集成电路,其中通过设计应变封装层的堆叠来获得防篡改,使得篡改导致应变释放,从而导致集成电路的机械分解(破坏,分层等),从而导致无效 电子电路。
    • 9. 发明申请
    • SEMICONDUCTOR DEVICE AND METHOD OF MANUFACTURING THEREOF
    • 半导体器件及其制造方法
    • US20100001409A1
    • 2010-01-07
    • US12514214
    • 2007-10-29
    • Aurelie HumbertRomano Hoofman
    • Aurelie HumbertRomano Hoofman
    • H01L23/48H01L21/768H01L23/522
    • H01L21/7682H01L21/76825H01L21/76831H01L23/5222H01L23/53295H01L2924/0002H01L2924/09701H01L2924/00
    • The invention relates to a semiconductor device comprising: a substrate (1), the substrate (1) comprising a body (5), the body (5) having a surface, the substrate (1) being provided with an insulating layer (10) on the surface of the body (1);—a conductor (25) with insulating sidewall spacers (22) located in the insulating layer (10), the conductor (25) having a current-flow direction during operation, the conductor (25) having a first width, the insulating sidewall spacers (22) each having a second width being smaller than the first width of the conductor (25), the first width and the second width being measured in a direction perpendicular to the current-flow direction of the conductor (25) and parallel to said surface, the conductor (25) having a first top surface extending parallel to said surface, the insulating sidewall spacers (22) having a second top surface, and airgaps (30) located in the insulating layer (10) adjacent to the insulating sidewall spacers (22), characterized in that the first top surface coincides with the second top surface, and in that the airgaps (30) extend from the surface of the body (5) to said first and second top surface. The invention further relates to a method of manufacturing such a semiconductor device. The semiconductor device according to the invention enables a lower resistance of the conductor while still providing a tolerance for unlanded vias.
    • 本发明涉及一种半导体器件,包括:衬底(1),所述衬底(1)包括主体(5),所述主体(5)具有表面,所述衬底(1)设置有绝缘层(10) 在所述主体(1)的表面上; - 具有位于所述绝缘层(10)中的绝缘侧壁间隔物(22)的导体(25),所述导体(25)在操作期间具有电流流动方向,所述导体 ),所述绝缘侧壁间隔件(22)各自具有小于所述导体(25)的第一宽度的第二宽度,所述第一宽度和所述第二宽度在垂直于所述电流流动方向的方向上被测量 的导体(25)并且平行于所述表面,所述导体(25)具有平行于所述表面延伸的第一顶表面,所述绝缘侧壁间隔件(22)具有第二顶表面,以及位于绝缘体中的气隙(30) 邻近绝缘侧壁间隔物(22)的层(10),其特征在于 第一顶表面与第二顶表面重合,并且气囊(30)从主体(5)的表面延伸到所述第一和第二顶表面。 本发明还涉及一种制造这种半导体器件的方法。 根据本发明的半导体器件使得导体的电阻较低,同时仍然提供对未经过过孔的容差。
    • 10. 发明授权
    • Sensor and a method of assembling a sensor
    • 传感器和组装传感器的方法
    • US09375711B2
    • 2016-06-28
    • US13043352
    • 2011-03-08
    • Romano HoofmanGerard ReuversFranciscus Petrus WiddershovenEvelyne GrideletMarcus Henricus van Kleef
    • Romano HoofmanGerard ReuversFranciscus Petrus WiddershovenEvelyne GrideletMarcus Henricus van Kleef
    • G01N27/00B01L3/00G01N27/327
    • B01L3/502715B01L2200/12B01L2300/0645G01N27/3275Y10T29/49105
    • “Click-assembly” methods of assembling a sensor for sensing biologically-active molecules by measuring impedance changes, are disclosed, comprising supporting a bio-sensor on a carrier, the bio-sensor comprising an electronic component having at least one micro-electrode and at least one electrical contact, functionalizing the bio-sensor by physically or chemically coupling a bio-receptor molecule to each of the at least one micro-electrode, and subsequently assembling the bio-sensor with a micro-fluidic unit by means of a clamp which clamps the bio-sensor with the micro-fluidic unit, such that in use a fluid introduced into the micro-fluidic unit is able to contact the bio-receptor and is isolated from the electrical contact. The clamp may be a spring, and the method may avoid a requirement for sealing by chemical or thermal means and thereby avoid damaging the bio-receptor.Sensors which can be assembled according to such methods are also disclosed.
    • 公开了通过测量阻抗变化来组装用于感测生物活性分子的传感器的“点击组装”方法,其包括在载体上支撑生物传感器,所述生物传感器包括具有至少一个微电极的电子部件和 至少一个电接触,通过将所述生物受体分子物理或化学耦合至所述至少一个微电极中的每一个来官能化所述生物传感器,以及随后通过夹具将所述生物传感器与微流体单元组装 其利用微流体单元夹持生物传感器,使得在使用中,引入微流体单元的流体能够接触生物接受体并与电接触物隔离。 夹具可以是弹簧,并且该方法可以避免通过化学或热方式对密封的要求,从而避免损坏生物受体。 还公开了可以根据这些方法组装的传感器。