| 序号 | 专利名 | 申请号 | 申请日 | 公开（公告）号 | 公开（公告）日 | 发明人 |
|---|---|---|---|---|---|---|
| 61 | Checking Unit and Method for Calibrating a Checking Unit | US14130053 | 2012-07-03 | US20140130568A1 | 2014-05-15 | Michael Bloss; Wolfgang Deckenbach; Werner Heimann; Hans-Peter Ehrl; Erich Kerst |
| The invention relates to a checking unit for checking a material web and to a calibrating method for the checking unit. The checking unit is equipped with drive means for transporting the calibration medium past the checking unit in order to detect a multiplicity of measurement values of the calibration medium. The drive means are arranged in the housing of the checking unit in order for the drive means to be protected from moisture or contaminants from the environment. To obtain a transporting of the calibration medium past the checking unit in spite of the arrangement of the drive means in the housing, drive means are employed that are configured for a contactless interaction with the calibration medium and can transport the calibration medium past the checking unit contactlessly. For this purpose there is preferably used a magnetic interaction between the drive means and the calibration medium. | ||||||
| 62 | Exercise Equipment Usage Monitoring Method and Apparatus | US14107179 | 2013-12-16 | US20140107974A1 | 2014-04-17 | Rhoderick Euan McGown |
| A method of monitoring the use of exercise equipment at an exercise facility having a plurality of items of exercise equipment, the method comprising the steps of: providing a plurality of usage monitors, each associated with an item of exercise equipment, monitoring the usage of the plurality of items of exercise equipment concurrently using the usage monitors, and thereby calculating, for at least some of the items of exercise equipment, a measure of the proportion of the period of time during which respective items of exercise equipment are used. In some embodiments, the usage monitors can detect when an item of exercise equipment is occupied, even if it is not being operated, for example using a heat sensor. A graphical representation may be prepared of the usage of items of exercise equipment at each of a plurality of locations within the exercise facility. | ||||||
| 63 | RISK-MANAGED, SINGLE-USE, PRE-CALIBRATED, PRE-STERILIZED SENSORS FOR USE IN BIO-PROCESSING APPLICATIONS | US13964833 | 2013-08-12 | US20140060161A1 | 2014-03-06 | Karl G. Schick; David Uhen |
| Single-use, pre-sterilized, and pre-calibrated, pre-validated sensors are provided. These sensors are designed to store sensor-specific information, such as calibration and production information, in a non-volatile memory chip on the sensor or in a barcode printed on the sensor. These sensors may be utilized with in-line systems, closed fluid circuits, bioprocessing systems, or systems which require an aseptic environment while avoiding or reducing cleaning procedures and quality assurance variances. The sensors exhibit both their primary sensing function such as conductivity, pH level, dissolved oxygen, pressure or temperature, as well as at least one secondary sensing function of risk management or risk mitigation. | ||||||
| 64 | Circuits and methods for artifact elimination | US11511794 | 2006-08-29 | US08639329B2 | 2014-01-28 | Edgar A. Brown; James D. Ross; Richard A. Blum; Stephen P. DeWeerth |
| Disclosed are apparatus and methods that provide the ability to electrical stimulate a physical system, and actively eliminate interference with signal acquisition (artifacts) that arises from the stimulation. The technique implemented in the circuits and methods for eliminating interference connects a discharge path to a physical interface to the system to remove charge that is built-up during stimulation. By placing the discharge path in a feedback loop that includes a recording preamplifier and AC-coupling circuitry, the physical interface is brought back to its pre-stimulation offset voltage. The disclosed apparatus and methods may be used with piezoelectric transducers, ultrasound devices, optical diodes, and polarizable and non-polarizable electrodes. The disclosed apparatus can be employed in implantable devices, in vitro or in vivo setups with vertebrate and invertebrate neural tissue, muscle fibers, pancreatic islet cells, osteoblasts, osteoclasts, bacteria, algae, fungi, protists, and plants. | ||||||
| 65 | Gas-measuring probe for determining the physical characteristic of a measuring gas | US13788190 | 2013-03-07 | US08627706B2 | 2014-01-14 | Bernhard Wild; Rainer Maier; Gregor Jaehnig; Peter Dettling; Stefan Heinzelmann; Bernd Rattay; Bastian Buchholz; Juergen Moratz |
| A gas-measuring probe for determining a physical characteristic of a measuring gas, in particular the concentration of a gas component or the temperature or pressure of the measuring gas, which includes a sensor element accommodated in a housing, at least one connection cable for the sensor element having an electrical conductor, which is enclosed by an insulation sheath and contacts the sensor element, and a cable channel sealing the housing end, which has at least one axial cable feedthrough through which the connection cable is guided out of the housing. To achieve long-lasting sealing at the cable-exit end of the housing even at higher temperatures, the insulation sheath of the connection cable is at least regionally welded to the cable wall of the cable feedthrough. To this end, a tube made of a material that fuses with the insulation sheath and the cable channel when heated is slipped over the cable section of the connection cable lying inside the cable channel. | ||||||
| 66 | Methods for optimizing conductor patterns for ECP and CMP in semiconductor processing | US13650783 | 2012-10-12 | US08627243B1 | 2014-01-07 | Chi-Feng Lin; Yu-Wei Chou; Wen-Cheng Huang; Cheng-I Huang; Ching-Hua Hsieh |
| Methods for optimizing conductor patterns for conductors formed by ECP and CMP processes. A method includes receiving layout data for an IC design where electrochemical plating (ECP) processes form patterned conductors in at least one metal layer over a semiconductor wafer; determining from the received layout data a global effects factor corresponding to a global pattern density; determining layout effects factors for unit grid areas corresponding to the pattern density of the at least one metal layer within the unit grid areas, determining local effects factors for each unit grid area; using a computing device, executing an ECP simulator using at least one of the global effects factor and the local effects factors, and using the layout effects factor; outputting an predicted post-ECP hump data map from the ECP simulator; and if indicated by a threshold comparison, modifying the layout data. | ||||||
| 67 | DEVICE FOR MONITORING THE INTEGRITY AND SOUNDNESS OF A MECHANICAL STRUCTURE, AND METHOD FOR OPERATING SUCH A DEVICE | US13982426 | 2012-01-31 | US20130307703A1 | 2013-11-21 | Bruno Foucher; Vincent Rouet; Remy Reynet |
| The invention relates to a device for monitoring the integrity and soundness of a mechanical structure, such as an aircraft. The device comprises a control unit, a radio frequency transmission means, and an electric battery. The control unit recovers data from a set of digital and/or analog sensors. The radio frequency transmission means enables the control unit to transmit the data received from the sensors to a man/machine interface. The electric battery powers the device and is rechargeable. The device further comprises a module for recovering electromagnetic energy capable of converting the recovered electromagnetic energy into electric power so as to recharge the battery and/or directly power the device. | ||||||
| 68 | SENSOR CONTROL DEVICE AND SENSOR CONTROL SYSTEM | US13680288 | 2012-11-19 | US20130131997A1 | 2013-05-23 | Hiroshi INAGAKI |
| A sensor control device for connection to an oxygen sensor including a sensing element that measures oxygen concentration in an intake atmosphere of an internal combustion engine and a heater that heats the sensing element, including a detection unit that detects an output signal corresponding to the oxygen concentration output from the sensing element and a calculation unit that calculates a compensation coefficient of the output signal that is used when calculating the oxygen concentration. The calculation unit collects compensation information used in calculating the compensation coefficient when the internal combustion engine is in operation and in a specific operation state in which the oxygen concentration in the intake atmosphere is subject to estimation. Also disclosed is a sensor control system which includes an oxygen sensor and the sensor control device. | ||||||
| 69 | DATA STORAGE DEVICE TESTER | US12749243 | 2010-03-29 | US20110154112A1 | 2011-06-23 | Curtis E. Stevens; Lawrence J. Dalphy |
| A data storage device (DSD) tester is disclosed for testing a DSD. The DSD tester comprises control circuitry operable to receive production line data through an interface, wherein the production line data is related to the DSD. The control circuitry executes a DSD test on the DSD, and transmits failure data generated by the DSD test and the production line data to a failure information database. | ||||||
| 70 | EXERCISE EQUIPMENT USAGE MONITORING METHOD AND APPARATUS | US12844221 | 2010-07-27 | US20110059825A1 | 2011-03-10 | Rhoderick Euan MCGOWN |
| A method of monitoring the use of exercise equipment at an exercise facility having a plurality of items of exercise equipment, the method comprising the steps of: providing a plurality of usage monitors, each associated with an item of exercise equipment, monitoring the usage of the said plurality of items of exercise equipment concurrently using the said usage monitors, and thereby calculating, for at least some of the items of exercise equipment, a measure of the proportion of the period of time during which respective items of exercise equipment are used. In some embodiments, the usage monitors can detect when an item of exercise equipment is occupied, even if it is not being operated, for example using a heat sensor. A graphical representation may be prepared of the usage of items of exercise equipment at each of a plurality of locations within the exercise facility. | ||||||
| 71 | RISK-MANAGED, SINGLE-USE, PRE-CALIBRATED, PRE-STERILIZED SENSORS FOR USE IN BIO-PROCESSING APPLICATIONS | PCT/US2013058208 | 2013-09-05 | WO2014039640A2 | 2014-03-13 | SCHICK KARL G; UHEN DAVID |
| Single-use, pre-sterilized, and pre-calibrated, prevalidated sensors are provided. These sensors are designed to store sensor-specific information, such as calibration and production information, in a non-volatile memory chip on the sensor or in a barcode printed on the sensor. These sensors may be utilized with in-line systems, closed fluid circuits, bioprocessing systems, or systems which require an aseptic environment while avoiding or reducing cleaning procedures and quality assurance variances. The sensors exhibit both their primary sensing function such as conductivity, pH level, dissolved oxygen, pressure or temperature, as well as at least one secondary sensing function of risk management or risk mitigation. | ||||||
| 72 | METHOD AND APPARATUS FOR PROCESSING ASSAY TEST RESULTS | PCT/US2004002578 | 2004-01-29 | WO2004070353A3 | 2005-10-27 | HUTCHINSON MICHAEL; ZIN BENEDICT L |
| There is disclosed a method and apparatus for analyzing assay test results for determining whether a fluid under test contains a certain substance. The disclosed method and apparatus includes detecting the certain substance in the fluid under test received on a test strip, and generating an electrical signal indicative of the amount of the substance detected. The method and apparatus disclosed also includes responding to an output signal to indicate the presence or absence of a predetermined quantity of the certain substance contained within the fluid under test. The disclosed method and apparatus includes delaying in the detecting until after a predetermined time delay interval, and storing the detected information at the completion of the time delay interval. | ||||||
| 73 | SYSTEM, METHOD AND PROGRAM PRODUCT FOR AUTOMATICALLY MATCHING NEW MEMBERS OF A POPULATION WITH ANALOGOUS MEMBERS | PCT/EP2013076418 | 2013-12-12 | WO2014090954A3 | 2015-02-26 | HEGAZY MOHAMED AHMED; EMBID DROZ SONIA MARIETTE; MARTIN ROGRÍGUEZ HILARIO; FLACH BRUNO DA COSTA; VALLADAO DAVI MICHEL; ZADROZNY BIANCA |
| A population comparison system, method and a computer program product thereof. A stored list of population members, e.g., hydrocarbon reservoirs, characteristics and analogous members is partitioned into lists for each member. A weighting system automatically uses the partitions to determine a weight set (w*) for population member characteristic and a similarity function. The weighting system may include an objective model that iteratively, blindly identifies analogous members for each population member until the identified analogous members match the listed analogous members. An analogous member selector uses the weights set (w*) and similarity function to automatically select analogous listed members for each new population member. | ||||||
| 74 | LINKING GENE SEQUENCE TO GENE FUNCTION BY THREE DIMENSIONAL (3D) PROTEIN STRUCTURE DETERMINATION | PCT/US9916417 | 1999-07-21 | WO0005414A9 | 2000-07-06 | ANDERSON STEPHEN; MONTELIONE GAETANO; HUANG YUANPENG |
| The present invention provides a structure-functional analysis engine for the high-throughput determination of the biochemical function of protein domains of unknown function, as exemplified in the flowchart of the figure. The present invention uses bioinformatics, molecular biology and nuclear magnetic resonance tools for the rapid and automated determination of the three-dimensional structures of proteins and protein domains. | ||||||
| 75 | SYSTEMS AND METHODS FOR RAPIDLY SENSING MICROBIAL METABOLISM | US15611586 | 2017-06-01 | US20180345278A1 | 2018-12-06 | Christopher Michael Puleo; Christine Lynne Surrette; Erik Leeming Kvam; Steven Yuehin Go; Feng Chen; John Richard Nelson; Craig Patrick Galligan; Radislav Alexandrovich Potyrailo; Gregory Andrew Grossmann |
| A system includes a bacteria culture array that includes a plurality of chambers each configured to receive a portion of a sample that includes bacteria. Each individual chamber of the plurality of chambers includes a chamber opening configured to permit access of the portion of the sample to the individual chamber. The system also includes one or more sensors configured to collect data from the individual chamber. The sensors are configured to contact the sample. Additionally, the system includes a monitoring and analysis system that includes a processor configured to receive the data from the one or more sensors at a first time and a second time, compare the data received at the second time to the data received at the first time, and identify a portion of the plurality of chambers of the bacteria culture array based on the comparing. | ||||||
| 76 | DETECTION METHOD, DETECTION APPARATUS AND TEST KIT | US15776297 | 2016-10-28 | US20180321269A1 | 2018-11-08 | Mami TAKEUCHI; Masataka MATSUO |
| Supplying a liquid to a detection chip including a housing having an opening portion and internally housing the liquid and including an elastic sheet covering the opening portion and having a penetrating portion providing communicating between the inside and the outside of the housing, specifically by inserting a liquid delivery nozzle to the housing via the penetrating portion and supplying the liquid into the housing in a state where the nozzle is in contact with the elastic sheet so as to close the penetrating portion. The penetrating portion is one of a hole and a notch. One of the maximum length of the opening of the hole and the maximum length of the notch is smaller than the outer diameter of the nozzle at a portion coming in contact with the elastic sheet when the nozzle is inserted to close the penetrating portion when a liquid is supplied into the housing. | ||||||
| 77 | MICROFLUIDIC DEVICES AND OBSERVATION METHODS | US16018277 | 2018-06-26 | US20180299380A1 | 2018-10-18 | Yoichi Makino; Keisuke Goto |
| A microfluidic device includes a substrate having an electromagnetic wave transmission property, a lid member facing the substrate and being separated from the substrate such that a flow channel is formed between the substrate and the lid member, a light absorption layer which is placed in the flow channel and absorbs an electromagnetic wave, and a microwell array formed on the substrate and having plural microwells that are open to the flow channel to receive a target of analysis. | ||||||
| 78 | Check-valve and microchemical chip using the same | US15568143 | 2016-04-27 | US10100949B2 | 2018-10-16 | Tsutomu Takano |
| A check-valve comprises: a thin sheet and a thick sheet; flow paths for flowing fluid which are formed by penetrating the thin sheet and the thick sheet; a flow-in chamber and a flow-out chamber which are connected to the flow paths; a partition sheet which is bonded to the thin sheet and the thick sheet while being sandwiched therebetween, and has a flexible inner flange which projects in cavities of the flow-in chamber and the flow-out chamber and does not close the flow-out valve chamber by flexing toward the flow-out valve chamber in a normal flow, and closes the flow-in valve chamber by flexing toward the flow-in valve chamber in a reverse flow; and a through-pass hole which is opened at the partition sheet and connects the both valve chambers. | ||||||
| 79 | IMMUNOLOGICAL MEASUREMENT DEVICE | US15958923 | 2018-04-20 | US20180238870A1 | 2018-08-23 | Tsutomu Iwasaki; Ryuuji Oonuki; Masahiro Kuninori |
| An immunological measurement device includes a micro fluid device. The micro fluid device includes a flowpath to move a specimen that is subjected to an immunological measurement by an antigen-antibody reaction; and a labeling reagent supplier that is disposed in an upstream section of the flowpath and labels the specimen. The flowpath includes a detection flowpath that is disposed downstream of the labeling reagent supplier and measures the antigen-antibody reaction of the specimen. The labeling reagent supplier includes a labeling reagent that labels the specimen by the antigen-antibody reaction, and the labeling reagent includes a labeling substance in which an antigen or an antibody is solidified. | ||||||
| 80 | FLOW CHANNEL STRUCTURE AND MEASURING DEVICE FOR MEASUREMENT TARGET LIQUID | US15939825 | 2018-03-29 | US20180224408A1 | 2018-08-09 | Osamu SAKAI; Yoshihiro TAGUCHI; Kenichiro SAMESHIMA; Yoshimune SUZUKI |
| A flow channel structure includes a substrate including a supply flow channel that guides a measurement target liquid toward inside; a separation element accommodating unit that accommodates a separation element that separates components included in the measurement target liquid; and a detection unit that guides the measurement target liquid passing through the separation element accommodating unit, wherein measuring light for measuring information about the components is to be irradiated onto the measurement target liquid. The detection unit includes a measurement flow channel part that guides the measurement target liquid, an incident part that is provided at an end of the measurement flow channel part and that guides the measuring light toward inside the measurement flow channel part, and an emission part that is provided at the other end of the measurement flow channel part and that derives the measuring light from the measurement flow channel part. | ||||||
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