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公开(公告)号:US20240361275A1
公开(公告)日:2024-10-31
申请号:US18643390
申请日:2024-04-23
申请人: ChampionX LLC
发明人: Yuntao Thomas Hu
IPC分类号: G01N29/02
CPC分类号: G01N29/022 , G01N2291/022 , G01N2291/0426
摘要: A liquid-facing crystal surface of a crystal of a quartz crystal microbalance assembly is flush mounted with respect to an inner surface of a wall of a laboratory-scale equipment for purposes of measuring particle deposition from a liquid under high shear conditions. The side(s) of the crystal does not bond with a side wall of a hole formed in the wall of the equipment or with a side wall of a housing or support member, so as to allow un-impeded shear oscillation of a liquid-facing crystal surface relative to a dry-facing crystal surface of the crystal in a thickness shear mode of operation.
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公开(公告)号:US20240353376A1
公开(公告)日:2024-10-24
申请号:US18573593
申请日:2021-06-29
申请人: Qorvo US, Inc.
发明人: Cody ROMBACH , Matthew WASILIK , Buu Quoc DIEP
CPC分类号: G01N29/30 , G01N29/022 , G01N2291/0255 , G01N2291/0426
摘要: Embodiments described herein involve a sensor test structure, comprising a substrate. A moat structure is configured to at least partially surround a resonating structure comprising at least one piezoelectric layer. An electrode comprises an electrode path. The electrode path crosses the moat region at least one time. Each moat crossing is configured to cause a change in resistance based on passivation failure of the moat structure.
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公开(公告)号:US12117324B2
公开(公告)日:2024-10-15
申请号:US17636303
申请日:2020-08-12
申请人: Berkin B.V.
CPC分类号: G01F1/662 , G01F1/667 , G01N29/02 , G01N29/036 , G01N29/221 , G01N29/222 , G10K11/002 , G10K11/161
摘要: An ultrasonic flow measurement system (1) comprising a flow tube (11), an ultrasound damping layer (12), an ultrasound transmitter (13) covered by the ultrasound damping layer, and an ultrasound receiver (14) covered by the ultrasound damping layer, characterised in that the ultrasound damping layer comprises: —a first damping portion (121) that is at least partially positioned in between the ultrasound transmitter and the ultrasound receiver as well as—a second damping portion (122) that is at least partially positioned in between the ultrasound transmitter and the ultrasound receiver, wherein the first damping portion and the second damping portion of the ultrasound damping layer are spaced apart from each other by a distance (d) in an axial direction (A) of the flow tube.
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4.
公开(公告)号:US20240326289A1
公开(公告)日:2024-10-03
申请号:US18740866
申请日:2024-06-12
发明人: Donald P. Massa , Dawn F. Stancavish , Nathan A. Tregger , Mark F. Roberts , David F. Myers , Stephen P. Klaus
CPC分类号: B28C7/024 , B28C5/0806 , B28C5/388 , B28C5/422 , B28C5/4272 , G01N29/02 , G01N29/24 , G01N2291/02433
摘要: This invention relates to apparatus and method for measurement and monitoring of physical properties of materials, such as liquids, and more particularly to acoustic instruments, methods, and systems that automatically measure air content in real-time within liquids, including concrete, mortar, or other hydratable cementitious mix suspensions using resonant electroacoustic transducers that have their radiating surfaces in contact with the liquid.
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公开(公告)号:US12100920B2
公开(公告)日:2024-09-24
申请号:US17787176
申请日:2020-12-18
IPC分类号: H01R24/50 , G01N29/02 , G01N29/32 , H01R103/00
CPC分类号: H01R24/50 , G01N29/022 , G01N29/32 , G01N2291/022 , G01N2291/0426 , H01R2103/00 , H01R2201/20
摘要: A connector assembly and method of attaching the same to one or more biosensor module boards. The connector assembly includes a body portion defining a first surface and a second surface opposite the first surface. The connector assembly also includes a coaxial RF connector positioned in the body portion and extending between the first surface and the second surface. The coaxial RF connector includes a ground ring, an RF pin positioned within the ground ring, and dielectric therebetween. The connector assembly is configured to be coupled to an RF detection board such that the coaxial RF connector is operably coupled thereto. The connector assembly is also configured to be connected to a biosensor module board such that the coaxial RF connector is operably connected thereto.
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公开(公告)号:US20240272123A1
公开(公告)日:2024-08-15
申请号:US18621485
申请日:2022-12-21
申请人: Apoha Limited
发明人: Shamit Shrivastava
CPC分类号: G01N29/022 , G01N29/222 , G01N29/28 , G01N2291/022 , G01N2291/0423
摘要: The present disclosure provides a method for determining a property of a test substance. The method may comprise first encoding the test substance as a wave through a non-solid medium by chemical excitation before processing the wave through the non-solid medium, wherein the processing modifies one or more features of the wave into one or more processed wave features according to one or more conditions of the non-solid medium. The one or more processed wave features are decoded to determine one or more features of the test substance.
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7.
公开(公告)号:US20240272073A1
公开(公告)日:2024-08-15
申请号:US18440471
申请日:2024-02-13
发明人: Jitao ZHANG
CPC分类号: G01N21/636 , G01N21/21 , G01N29/02 , G01N29/2425 , G01N2021/638 , G01N2291/02466
摘要: A multimodal optical technique that can measure the mechanical, optical, and acoustical properties of the sample at microscopic resolution, which is based on the integration of a Brillouin microscope and a photoacoustic (PA) microscopy is provided. The multimodal technique not only can acquire co-registered Brillouin and PA signals of the sample but also allows us to utilize the sound speed measurements by PA to quantify the sample's refractive index, which is an essential property of the material and cannot be measured by either technique individually. We demonstrated the colocalization of Brillouin and time-resolved PA signals by measuring the interface of kerosene and 1% CuSO4 aqueous solution. In addition, we measured the refractive index of saline solutions with a precision of 0.003 and validated the result against published data. This multimodal modality could open new way for charactering biological cell and tissue in physiological and pathological conditions.
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公开(公告)号:US20240230593A1
公开(公告)日:2024-07-11
申请号:US18615290
申请日:2024-03-25
发明人: Gernot Fattinger , Rio Rivas
IPC分类号: G01N29/02 , G01N29/024 , G01N29/032 , G01N29/036 , G01N29/22 , G01N29/24 , G01N33/543 , H03H9/17
CPC分类号: G01N29/022 , G01N29/024 , G01N29/032 , G01N29/036 , G01N29/222 , G01N29/2437 , G01N33/54373 , G01N2291/012 , G01N2291/014 , G01N2291/015 , G01N2291/02466 , G01N2291/0255 , G01N2291/0256 , G01N2291/0421 , G01N2291/0422 , G01N2291/0426 , G01N2291/056 , H03H9/175
摘要: A fluidic device includes at least one bulk acoustic wave (BAW) resonator structure with a functionalized active region, and at least one first (inlet) port defined through a cover structure arranged over a fluidic passage containing the active region. At least a portion of the at least one inlet port is registered with the active region, permitting fluid to be introduced in a direction orthogonal to a surface of the active region bearing functionalization material. Such arrangement promotes mixing proximate to a BAW resonator structure surface, thereby reducing analyte stratification, increasing analyte binding rate, and reducing measurement time.
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公开(公告)号:US20240226889A1
公开(公告)日:2024-07-11
申请号:US18612611
申请日:2024-03-21
申请人: Qorvo US, Inc.
发明人: Rio Rivas , Kevin McCarron , Matthew Wasilik , David Doerr
CPC分类号: B01L3/50273 , G01N29/022 , G01N29/2462 , B01L2400/0436 , G01N2291/0426
摘要: Methods of fabricating a bulk acoustic wave resonator structure for a fluidic device. The methods can include a first step of disposing a first conductive material over a portion of a first surface of a substrate to form at least a portion of a first electrode, the substrate having a second surface opposite the first surface. Then, a piezoelectric material may be disposed over the first electrode. Next, a second conductive material can be disposed over the piezoelectric material to form at least a portion of a second electrode. The second conductive material extends substantially parallel to the first surface of the substrate and the second conductive material at least partially extends over the first conductive material. The overlapping region of the first conductive material, the piezoelectric material, and the second conductive material form a bulk acoustic wave resonator, the bulk acoustic wave resonator having a first side and an opposing second side. An acoustic energy management structure is then disposed over a first side of the bulk acoustic wave resonator. Next a third conductive material is disposed over a portion of the second conductive material that extends beyond the bulk acoustic wave resonator, wherein the third conductive material forms an interconnect extending above the acoustic energy management structure in a direction substantially perpendicular to the first surface of the substrate. Finally a portion of the second surface of the substrate is removed to expose a chemical mechanical connection at the first electrode at a second side of the bulk wave acoustic resonator. Devices formed thereby are also included.
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公开(公告)号:US20240159710A1
公开(公告)日:2024-05-16
申请号:US18548847
申请日:2022-03-03
申请人: FREC'N'SYS
CPC分类号: G01N29/022 , H03H9/14502 , H03H9/25 , G01N2291/0422
摘要: An acoustic wave sensor device comprises a first interdigitated transducer, a first reflection structure, a second reflection structure, a first resonance cavity comprising a first upper surface and formed between the first interdigitated transducer and the first reflection structure, and a second resonance cavity comprising a second upper surface and formed between the first interdigitated transducer and the second reflection structure. At least one of the first and second upper surfaces is covered at least partly by a metalization layer or a passivation layer. The present invention relates also to an acoustic wave sensor assembly.
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