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    • 1. 发明申请
    • PLANAR MICROSTRIP ANTENNA INTEGRATED INTO CONTAINER
    • PLANAR MICROSTRIP天线集成在容器中
    • US20080024305A1
    • 2008-01-31
    • US11684406
    • 2007-03-09
    • Daniel D. DEAVOURS
    • Daniel D. DEAVOURS
    • G08B13/14
    • G06K19/07749G06K19/07786
    • An RFID tag (20) associated with a container (22) having a container wall (24) constructed of a container material (26). The RFID tag (20) includes a microstrip antenna (32) associated with an exterior surface of the wall (24) of the container (22) and a ground plane (30) associated with an interior surface of the wall (24) of the container (22). The container material (26) is interposed between the microstrip antenna (32) and the ground plane (30) and acts as a dielectric substrate. The microstrip antenna (32) may be embedded below, substantially flush with, or affixed to the exterior surface. Similarly, the ground plane (30) may be embedded below, substantially flush with, or affixed to the interior surface. Use of the microstrip antenna (32) reduces or eliminates detuning, while locating the components below or flush with the surfaces of the container (22) protects them from damage.
    • 与具有由容器材料(26)构成的容器壁(24)的容器(22)相关联的RFID标签(20)。 RFID标签(20)包括与容器(22)的壁(24)的外表面相关联的微带天线(32)和与所述容器(22)的壁(24)的内表面相关联的接地平面(30) 容器(22)。 容器材料(26)介于微带天线(32)和接地平面(30)之间,并用作电介质基片。 微带天线(32)可以嵌入到外表面的下方,基本上齐平或固定在外表面上。 类似地,接地平面(30)可以嵌入到内表面的下方,基本上与其齐平或固定在内表面上。 微带天线(32)的使用可减少或消除失谐,同时将组件定位在容器(22)的下方或与其表面齐平,以防止其损坏。
    • 3. 发明授权
    • Microstrip antenna for RFID device
    • RFID设备微带天线
    • US08564439B2
    • 2013-10-22
    • US12788550
    • 2010-05-27
    • Daniel D. DeavoursMutharasu Sivakumar
    • Daniel D. DeavoursMutharasu Sivakumar
    • G08B13/14
    • G06K19/07775G06K19/07773H01Q9/0407H01Q9/045H01Q9/0464H01Q9/06
    • Microstrip patch antenna (46), feed structure (48), and matching circuit (50) designs for an RFID tag (10). A balanced feed design using balanced feeds coupled by a shorting stub (56) to create a virtual short between the two feeds so as to eliminate the need for physically connecting the substrate to the ground plane. A dual feed structure design using a four-terminal IC can be connected to two antennas (46a,46b) resonating at different frequencies so as to provide directional and polarization diversity. A combined near-field/far-field design using a microstrip antenna providing electromagnetic coupling for far-field operation, and a looping matching circuit providing inductive coupling for near-field operation. A dual-antenna design using first and second microstrip antennas providing directional diversity when affixed to a cylindrical or conical object, and a protective superstrate (66). An annular antenna (46c) design for application to the top of a metal cylinder around a stem.
    • 用于RFID标签(10)的微带贴片天线(46),馈电结构(48)和匹配电路(50)设计。 平衡进给设计,使用通过短路短线(56)耦合的平衡进给,以在两个进给之间产生虚拟短路,以便不需要将基板物理连接到接地平面。 使用四端子IC的双馈电结构设计可以连接到以不同频率谐振的两个天线(46a,46b),以便提供方向和极化分集。 使用提供用于远场操作的电磁耦合的微带天线的组合近场/远场设计,以及为近场操作提供感应耦合的循环匹配电路。 使用第一和第二微带天线的双天线设计,当固定到圆柱形或圆锥形物体上时提供定向分集,以及保护性覆层(66)。 环形天线(46c)设计用于施加到围绕杆的金属圆筒的顶部。
    • 5. 发明授权
    • Microstrip antenna for RFID device
    • RFID设备微带天线
    • US07750813B2
    • 2010-07-06
    • US11610048
    • 2006-12-13
    • Daniel D. DeavoursMutharasu Sivakumar
    • Daniel D. DeavoursMutharasu Sivakumar
    • G08B13/14
    • G06K19/07749G06K19/07786H01Q1/22H01Q1/2208H01Q1/2216H01Q1/2225H01Q1/38H01Q1/48H01Q5/35H01Q5/40H01Q9/0407H01Q9/0442H01Q9/28H01Q9/30H01Q9/40H01Q23/00
    • Microstrip patch antenna (46), feed structure (48), and matching circuit (50) designs for an RFID tag (10). A balanced feed design using balanced feeds coupled by a shorting stub (56) to create a virtual short between the two feeds so as to eliminate the need for physically connecting substrate to the ground plane. A dual feed structure design using a four-terminal IC can be connected to two antennas (46a,46b) resonating at different frequencies so as to provide directional and polarization diversity. A combined near/field-far/field design using a microstrip antenna providing electromagnetic coupling for far-field operation, and a looping matching circuit providing inductive coupling for near-field operation. A dual-antenna design using first and second microstrip antennas providing directional diversity when affixed to a cylindrical or conical object, and a protective superstrate (66). An annual antenna (46c) design for application to the top of a metal cylinder around a stem.
    • 用于RFID标签(10)的微带贴片天线(46),馈电结构(48)和匹配电路(50)设计。 平衡进给设计,使用由短路短线(56)耦合的平衡进给,以在两个进给之间产生虚拟短路,从而消除将基板物理连接到接地平面的需要。 使用四端子IC的双馈电结构设计可以连接到以不同频率谐振的两个天线(46a,46b),以便提供方向和极化分集。 使用提供用于远场操作的电磁耦合的微带天线的组合近/场远场/场设计,以及为近场操作提供感应耦合的循环匹配电路。 使用第一和第二微带天线的双天线设计,当固定到圆柱形或圆锥形物体上时提供定向分集,以及保护性覆层(66)。 一个年度天线(46c)设计,用于应用于围绕杆的金属圆柱顶部。
    • 7. 发明授权
    • Radio-frequency identification device with foam substrate
    • 带泡沫衬底的射频识别装置
    • US08653975B2
    • 2014-02-18
    • US12327686
    • 2008-12-03
    • Daniel D. Deavours
    • Daniel D. Deavours
    • G08B13/14H01Q9/16
    • H01Q9/285H01Q1/38
    • The present invention encompasses an antenna (12) for use with a radio-frequency identification transponder (10) that performs optimally in free space and near optimally when near a conductive surface. The radio-frequency identification transponder (10) broadly comprises an antenna (12); an integrated circuit (14); a matching circuit (16) interposed between the antenna (12) and integrated circuit (14); and a substrate (18). The antenna (12) is designed with a length so the antenna (12) as a microstrip resonates at a starting frequency and a matching circuit is constructed. The antenna (12) is placed near a conductive surface and the length of the antenna is adjusted until the antenna reactance is approximately the opposite of the integrated circuit reactance.
    • 本发明包括一种与射频识别应答器(10)一起使用的天线(12),其在自由空间中最佳地执行,并且在靠近导电表面时接近最佳。 射频识别应答器(10)广泛地包括天线(12); 集成电路(14); 插入在天线(12)和集成电路(14)之间的匹配电路(16); 和基底(18)。 天线(12)被设计成具有一定的长度,因此作为微带的天线(12)以起始频率谐振并构成匹配电路。 天线(12)放置在导电表面附近,并且天线的长度被调节直到天线电抗大致与集成电路电抗相反。
    • 8. 发明申请
    • MICROSTRIP ANTENNA FOR RFID DEVICE
    • 用于RFID设备的MICROSTRIP天线
    • US20110291836A1
    • 2011-12-01
    • US12788550
    • 2010-05-27
    • Daniel D. DEAVOURSMutharasu Sivakumar
    • Daniel D. DEAVOURSMutharasu Sivakumar
    • G08B13/14
    • G06K19/07775G06K19/07773H01Q9/0407H01Q9/045H01Q9/0464H01Q9/06
    • Microstrip patch antenna (46), feed structure (48), and matching circuit (50) designs for an RFID tag (10). A balanced feed design using balanced feeds coupled by a shorting stub (56) to create a virtual short between the two feeds so as to eliminate the need for physically connecting the substrate to the ground plane. A dual feed structure design using a four-terminal IC can be connected to two antennas (46a,46b) resonating at different frequencies so as to provide directional and polarization diversity. A combined near-field/far-field design using a microstrip antenna providing electromagnetic coupling for far-field operation, and a looping matching circuit providing inductive coupling for near-field operation. A dual-antenna design using first and second microstrip antennas providing directional diversity when affixed to a cylindrical or conical object, and a protective superstrate (66). An annular antenna (46c) design for application to the top of a metal cylinder around a stem.
    • 用于RFID标签(10)的微带贴片天线(46),馈电结构(48)和匹配电路(50)设计。 平衡进给设计,使用通过短路短线(56)耦合的平衡进给,以在两个进给之间产生虚拟短路,以便不需要将基板物理连接到接地平面。 使用四端子IC的双馈电结构设计可以连接到以不同频率谐振的两个天线(46a,46b),以便提供方向和极化分集。 使用提供用于远场操作的电磁耦合的微带天线的组合近场/远场设计,以及为近场操作提供感应耦合的循环匹配电路。 使用第一和第二微带天线的双天线设计,当固定到圆柱形或圆锥形物体上时提供定向分集,以及保护性覆层(66)。 环形天线(46c)设计用于施加到围绕杆的金属圆筒的顶部。
    • 9. 发明申请
    • RADIO-FREQUENCY IDENTIFICATION DEVICE WITH FOAM SUBSTRATE
    • 具有泡沫衬底的无线电频率识别装置
    • US20100134292A1
    • 2010-06-03
    • US12327686
    • 2008-12-03
    • Daniel D. Deavours
    • Daniel D. Deavours
    • G08B13/14H01Q9/16H01Q9/00G06F17/50
    • H01Q9/285H01Q1/38
    • The present invention encompasses an antenna (12) for use with a radio-frequency identification transponder (10) that performs optimally in free space and near optimally when near a conductive surface. The radio-frequency identification transponder (10) broadly comprises an antenna (12); an integrated circuit (14); a matching circuit (16) interposed between the antenna (12) and integrated circuit (14); and a substrate (18). The antenna (12) is designed with a length so the antenna (12) as a microstrip resonates at a starting frequency and a matching circuit is constructed. The antenna (12) is placed near a conductive surface and the length of the antenna is adjusted until the antenna reactance is approximately the opposite of the integrated circuit reactance.
    • 本发明包括一种与射频识别应答器(10)一起使用的天线(12),其在自由空间中最佳地执行,并且在靠近导电表面时接近最佳。 射频识别应答器(10)广泛地包括天线(12); 集成电路(14); 插入在天线(12)和集成电路(14)之间的匹配电路(16); 和基底(18)。 天线(12)被设计成具有一定的长度,因此作为微带的天线(12)以起始频率谐振并构成匹配电路。 天线(12)放置在导电表面附近,并且天线的长度被调节直到天线电抗大致与集成电路电抗相反。
    • 10. 发明授权
    • Inductively coupled feed structure and matching circuit for RFID device
    • 用于RFID设备的电感耦合馈电结构和匹配电路
    • US07557757B2
    • 2009-07-07
    • US11610288
    • 2006-12-13
    • Daniel D. DeavoursMadhuri Bharadwaj Eunni
    • Daniel D. DeavoursMadhuri Bharadwaj Eunni
    • H01Q1/38
    • G06K19/07749G06K19/07786H01Q1/22H01Q1/2208H01Q1/2216H01Q1/2225H01Q1/38H01Q1/48H01Q5/35H01Q5/40H01Q9/0407H01Q9/0442H01Q9/28H01Q9/30H01Q9/40H01Q23/00
    • A feed structure (18) and matching circuit (20) for inductively coupling an antenna (16) with an IC (22) in an RFID tag (10). The tag (10) includes first and second feed structures (26,28) coupled with the antenna (16), a first transmission line (30) coupling the feed structures (26,28), and a matching circuit (20) including a second transmission line (32) having a portion that is substantially parallel to and spaced apart from the first transmission line (30) such that the first and second transmission lines (30,32) inductively couple. Where two or more antenna elements (56,57) are used, the elements (56,57) are sufficiently loosely coupled by inductive coupling that they can operate at nearly the same frequency without forming a single resonant antenna. Thus, for example, different elements can operate at approximately 905 MHz and approximately 925 MHz, respectively, to effectively cover the FCC range of 900-930 MHz.
    • 一种用于将天线(16)与RFID标签(10)中的IC(22)感应耦合的馈电结构(18)和匹配电路(20)。 标签(10)包括与天线(16)耦合的第一和第二馈送结构(26,28),耦合馈电结构(26,28)的第一传输线(30)和包括 第二传输线(32)具有基本上与第一传输线(30)平行并间隔开的部分,使得第一和第二传输线(30,32)感应耦合。 在使用两个或多个天线元件(56,57)的情况下,元件(56,57)通过电感耦合足够松散地耦合,使得它们可以以几乎相同的频率工作而不形成单个谐振天线。 因此,例如,不同的元件可以分别在大约905MHz和大约925MHz下工作,以有效地覆盖900-930MHz的FCC范围。