mhurhangee/patent-ind-claim-en huggingface dataset:
A solid state cooler device comprising: a first normal metal pad ; a first aluminum layer a second aluminum layer disposed on the first normal metal pad and separated from one another by a first gap ; a first aluminum oxide layer formed on the first aluminum layer ; and a second aluminum oxide layer formed on the second aluminum layer ; a first superconductor pad disposed on the first aluminum oxide layer and a second superconductor pad disposed on the second aluminum oxide layer ; a first conductive pad coupled to the first superconductor pad , and a second conductive pad coupled to the second superconductor pad ; and wherein hot electrons are removed from the first normal metal pad when a bias voltage is applied between the first conductive pad and the second conductive pad . a first normal metal pad ; a first aluminum layer a second aluminum layer disposed on the first normal metal pad and separated from one another by a first gap ; a first aluminum oxide layer formed on the first aluminum layer ; and a second aluminum oxide layer formed on the second aluminum layer ; a first superconductor pad disposed on the first aluminum oxide layer and a second superconductor pad disposed on the second aluminum oxide layer ; a first conductive pad coupled to the first superconductor pad , and a second conductive pad coupled to the second superconductor pad ; and wherein hot electrons are removed from the first normal metal pad when a bias voltage is applied between the first conductive pad and the second conductive pad .
A vibration wave motor comprising: a vibrator including a vibrating element and a piezoelectric element ; a friction member ; and a pressurizing member configured to press the vibrator and the friction member into contact with each other, wherein the vibrator and the friction member are relatively moved in a direction (X) orthogonal to a pressurizing direction (Z) of the pressurizing member by vibrations generated on the vibrator , the vibrator and the friction member are configured so as to move in parallel with the pressurizing direction (Z) with respect to a fixed member that does not move according to the movement of the vibrator and the friction member in the direction (X) of the relative movement, and characterized in that the vibration wave motor further comprises at least one first restricting portion that is configured to restrict an amount (D2) of movement of the friction member in the pressurizing direction (Z) and at least one second restricting portion that is configured to restrict an amount (D1) of movement of the vibrator in the pressurizing direction (Z), such that the amount (D2) of movement of the friction member is smaller than the amount (D1) of movement of the vibrator in the pressurizing direction (Z), wherein the fixed member includes the at least one first restricting portion and the at least one second restricting portion fixed to the fixed member . a vibrator including a vibrating element and a piezoelectric element ; a friction member ; and a pressurizing member configured to press the vibrator and the friction member into contact with each other, wherein the vibrator and the friction member are relatively moved in a direction (X) orthogonal to a pressurizing direction (Z) of the pressurizing member by vibrations generated on the vibrator , the vibrator and the friction member are configured so as to move in parallel with the pressurizing direction (Z) with respect to a fixed member that does not move according to the movement of the vibrator and the friction member in the direction (X) of the relative movement, and characterized in that the vibration wave motor further comprises at least one first restricting portion that is configured to restrict an amount (D2) of movement of the friction member in the pressurizing direction (Z) and at least one second restricting portion that is configured to restrict an amount (D1) of movement of the vibrator in the pressurizing direction (Z), such that the amount (D2) of movement of the friction member is smaller than the amount (D1) of movement of the vibrator in the pressurizing direction (Z), wherein the fixed member includes the at least one first restricting portion and the at least one second restricting portion fixed to the fixed member .
A thin battery , comprising: a surface ; a first electrode layer provided on the surface ; a second electrode layer provided on the surface ; an electrolyte layer printed on the first electrode layer and the second electrode layer , wherein the electrolyte layer possesses substantial mechanical strength such that further printings on top of the electrolyte layer can be done, and wherein the electrolyte layer comprises at least one first functional group; a photopolymerizable protection layer printed on the electrolyte layer and around a perimeter of the electrolyte layer , wherein the photopolymerizable protection layer solidifies on exposure to suitable radiation, and the photopolymerizable protection layer comprises at least one second functional group, and wherein the thin battery further comprises chemical bonds formed on exposure to the suitable radiation by some of the at least one first functional group with some of the at least one second functional group. a surface ; a first electrode layer provided on the surface ; a second electrode layer provided on the surface ; an electrolyte layer printed on the first electrode layer and the second electrode layer , wherein the electrolyte layer possesses substantial mechanical strength such that further printings on top of the electrolyte layer can be done, and wherein the electrolyte layer comprises at least one first functional group; a photopolymerizable protection layer printed on the electrolyte layer and around a perimeter of the electrolyte layer , wherein the photopolymerizable protection layer solidifies on exposure to suitable radiation, and the photopolymerizable protection layer comprises at least one second functional group, and wherein the thin battery further comprises chemical bonds formed on exposure to the suitable radiation by some of the at least one first functional group with some of the at least one second functional group.
A security checkpoint , comprising: (a) a one-way mirror for concealingly permitting the automated recordation of data concerning a person at the security checkpoint ; (b) recording equipment (12; 26, 28, 30, 32, 34; 58) for recording said data, said recording equipment (12; 26, 28, 30, 32, 34; 58) being concealed by said one-way mirror ; and (c) a document scanner arranged to scan a document carried by the person, wherein the data recorded by the recording equipment is automatically compared to the data produced by the document scanner, wherein the security checkpoint is operable to display information on the one-way mirror , characterized in that the one-way mirror is disposed at approximately head-height so that the information is visible to persons present at the security checkpoint . (a) a one-way mirror for concealingly permitting the automated recordation of data concerning a person at the security checkpoint ; (b) recording equipment (12; 26, 28, 30, 32, 34; 58) for recording said data, said recording equipment (12; 26, 28, 30, 32, 34; 58) being concealed by said one-way mirror ; and (c) a document scanner arranged to scan a document carried by the person,
Method for transmitting data from a wheel unit (20-1 to 20-4) arranged on a wheel (W1-W4) of a vehicle to a central unit of the vehicle , involving: - sending the data in the form of data transmissions (R1-R4) at intervals of time from the wheel unit (20-1 to 20-4) to the central unit , wherein transmission times of the data transmissions (R1-R4) are stipulated by the wheel unit (20-1 to 20-4) according to a transmission algorithm, - receiving the data transmissions (R1-R4) sent by the wheel unit (20-1 to 20-4) by means of the central unit , - evaluating reception times at which the data transmissions (R1-R4) are each received by the central unit , according to an evaluation algorithm that takes into consideration the transmission algorithm, - rating the data transmissions (R1-R4) on the basis of a result of the evaluation of the reception times, characterized in that after a respective reception of a data transmission (R1-R4) the central unit stipulates a period of time (dtf) and, should a data transmission (R1-R4) of the relevant wheel unit (20-1 to 20-4) be received during this period of time (dtf), said data transmission is fundamentally rated as invalid unless the content of this data transmission (R1-R4) reveals that the relevant wheel unit (20-1 to 20-4) has changed to an alarm mode of operation, and that the detected reception time is compatible with the provisions of the transmission algorithm for the alarm mode of operation. - sending the data in the form of data transmissions (R1-R4) at intervals of time from the wheel unit (20-1 to 20-4) to the central unit , wherein transmission times of the data transmissions (R1-R4) are stipulated by the wheel unit (20-1 to 20-4) according to a transmission algorithm, - receiving the data transmissions (R1-R4) sent by the wheel unit (20-1 to 20-4) by means of the central unit , - evaluating reception times at which the data transmissions (R1-R4) are each received by the central unit , according to an evaluation algorithm that takes into consideration the transmission algorithm, - rating the data transmissions (R1-R4) on the basis of a result of the evaluation of the reception times,
A distinguishing device for distinguishing, between vehicles passing in front of the device , a heavy goods vehicle (HGV) from a coach including over at least a major portion of its length windows between a top side member and a bottom side member , the device being arranged to be placed at the side of a road and comprising: - a vertical stack of emitters (Ei) of incident beams (Fi) towards at least top halves of flanks of at least some of the vehicles; - a vertical stack of receivers (Ri) for detecting the beams (FRi) that are reflected by the flanks of said vehicles; - calculation means for calculating the time that elapses between each emission of a beam and the detection of the corresponding reflected beam in order to establish an image (18.1, 18.2, 110) of each vehicle flank; and - image processor means for detecting therein the absence or the presence of a top side member . - a vertical stack of emitters (Ei) of incident beams (Fi) towards at least top halves of flanks of at least some of the vehicles; - a vertical stack of receivers (Ri) for detecting the beams (FRi) that are reflected by the flanks of said vehicles; - calculation means for calculating the time that elapses between each emission of a beam and the detection of the corresponding reflected beam in order to establish an image (18.1, 18.2, 110) of each vehicle flank; and - image processor means for detecting therein the absence or the presence of a top side member .
An image processing system comprising: an imaging device including a plurality of lens optical systems and imaging elements, the imaging device being configured to capture image data; a sensor configured to detect three attitude angles of the imaging device when the image data is being captured and output; an image generator configured to generate an omnidirectional image from a plurality of images captured by the imaging device, based on the three attitude angles; a second unit configured to transform a coordinate of omnidirectional image data according to the three attitude angles and output transformed image data, wherein the coordinate transformation is performed based on a point of interest determined by the three attitude angles, wherein the point of interest is at a center point of the transformed image data; a first unit configured to extract a portion of said transformed image data around the center point of transformed image data; a third unit configured to output the portion extracted by the first unit as video data to be displayed on a display. an imaging device including a plurality of lens optical systems and imaging elements, the imaging device being configured to capture image data; a sensor configured to detect three attitude angles of the imaging device when the image data is being captured and output; an image generator configured to generate an omnidirectional image from a plurality of images captured by the imaging device, based on the three attitude angles; a second unit configured to transform a coordinate of omnidirectional image data according to the three attitude angles and output transformed image data, wherein the coordinate transformation is performed based on a point of interest determined by the three attitude angles, wherein the point of interest is at a center point of the transformed image data; a first unit configured to extract a portion of said transformed image data around the center point of transformed image data; a third unit configured to output the portion extracted by the first unit as video data to be displayed on a display.
A scanning device , wherein the scanning device comprises: a processor ; an aimer for generating an aimer pattern; and a memory that stores executable instructions that, when executed by the processor , cause the processor to: decode a first image frame of first image data captured using the scanning device , wherein the first image frame is related to an object associated with a barcode; capture , using the scanning device , a second image frame of second image data related to the object associated with the barcode, wherein the second image frame comprises the aimer pattern generated by the aimer of the scanning device ; characterized in that the executable instructions, when executed by the processor, further cause the processor to: determine a location of the aimer pattern in the second image frame based on a motion transform correlation between the barcode in the first image frame and the aimer pattern in the second image frame; and calibrate an aiming position of the aimer based on the location of the aimer pattern determined by the motion transform correlation. a processor ; an aimer for generating an aimer pattern; and a memory that stores executable instructions that, when executed by the processor , cause the processor to: decode a first image frame of first image data captured using the scanning device , wherein the first image frame is related to an object associated with a barcode; capture , using the scanning device , a second image frame of second image data related to the object associated with the barcode, wherein the second image frame comprises the aimer pattern generated by the aimer of the scanning device ; characterized in that the executable instructions, when executed by the processor, further cause the processor to: determine a location of the aimer pattern in the second image frame based on a motion transform correlation between the barcode in the first image frame and the aimer pattern in the second image frame; and calibrate an aiming position of the aimer based on the location of the aimer pattern determined by the motion transform correlation. decode a first image frame of first image data captured using the scanning device , wherein the first image frame is related to an object associated with a barcode; capture , using the scanning device , a second image frame of second image data related to the object associated with the barcode, wherein the second image frame comprises the aimer pattern generated by the aimer of the scanning device ; characterized in that the executable instructions, when executed by the processor, further cause the processor to: determine a location of the aimer pattern in the second image frame based on a motion transform correlation between the barcode in the first image frame and the aimer pattern in the second image frame; and calibrate an aiming position of the aimer based on the location of the aimer pattern determined by the motion transform correlation.
A method for determining at least one of a blood pressure, an arterial compliance parameter, or an arterial distensibility of a subject, the method comprising; measuring a value for pulse wave velocity within an arterial segment or segments of a subject; providing a value for flow velocity within the arterial segment or segments of the subject; providing a value for blood density of the subject; determining values of material characteristics of an artery; and calculating, by a computer, at least one of a blood pressure, an arterial compliance parameter, or an arterial distensibility of the subject by inputting the value for pulse wave velocity, the value for flow velocity, the value for blood density, and the values of the material characteristics of the artery into a calibrated model of a fluid-structure interaction incorporating conservation of mass and momentum for a fluid, and non-linear elasticity of a structure. measuring a value for pulse wave velocity within an arterial segment or segments of a subject; providing a value for flow velocity within the arterial segment or segments of the subject; providing a value for blood density of the subject; determining values of material characteristics of an artery; and calculating, by a computer, at least one of a blood pressure, an arterial compliance parameter, or an arterial distensibility of the subject by inputting the value for pulse wave velocity, the value for flow velocity, the value for blood density, and the values of the material characteristics of the artery into a calibrated model of a fluid-structure interaction incorporating conservation of mass and momentum for a fluid, and non-linear elasticity of a structure.
A polypeptide comprising the amino acid sequence YAEGTFISDYSIAMHPQQPWIL (SEQ ID NO:7).
A computer-implemented method for transmitting data from a source to a destination through a plurality of interconnected forwarding devices , comprising: a) receiving , at a forwarding device , on a common channel from the source to the forwarding device, a first packet in a first data stream, wherein the common channel has a common capacity; b) forwarding on the common channel , the first packet from the forwarding device to the destination; c) determining whether the first data stream is a critical data stream based on information about the first packet in the first packet; d) when the first stream is determined not to be critical in c), configuring the forwarding device to forward a second packet of the first data stream on the common channel from the forwarding device to the destination, wherein the common channel is shared with another non-critical data stream; and e) when the first data stream is determined to be critical in c), configuring the forwarding device to forward a second packet of the first data stream on a first channel from the forwarding device to the destination, wherein the first channel has a first capacity, is dedicated to the first data stream and is different from the common channel . a) receiving , at a forwarding device , on a common channel from the source to the forwarding device, a first packet in a first data stream, wherein the common channel has a common capacity; b) forwarding on the common channel , the first packet from the forwarding device to the destination; c) determining whether the first data stream is a critical data stream based on information about the first packet in the first packet; d) when the first stream is determined not to be critical in c), configuring the forwarding device to forward a second packet of the first data stream on the common channel from the forwarding device to the destination, wherein the common channel is shared with another non-critical data stream; and e) when the first data stream is determined to be critical in c), configuring the forwarding device to forward a second packet of the first data stream on a first channel from the forwarding device to the destination, wherein the first channel has a first capacity, is dedicated to the first data stream and is different from the common channel .
An open emission analysis method comprising: taking in exhaust gas discharged from an exhaust port together with ambient outside air using an exhaust gas sampling unit ; and analyzing the collected exhaust gas, the method being characterised in that it further comprises covering an outside air inflow gap by an air-permeable filter located between a sampling port of the exhaust gas sampling unit and a periphery of the exhaust port ; and suppressing inflow of the outside air by the filter in order to prevent leakage of the exhaust gas from the sampling port . taking in exhaust gas discharged from an exhaust port together with ambient outside air using an exhaust gas sampling unit ; and analyzing the collected exhaust gas, the method being characterised in that it further comprises covering an outside air inflow gap by an air-permeable filter located between a sampling port of the exhaust gas sampling unit and a periphery of the exhaust port ; and suppressing inflow of the outside air by the filter in order to prevent leakage of the exhaust gas from the sampling port .
A proton conducting polymer electrolyte comprised of a sulfonated polyphenyl compound having a plurality of repeating units, wherein two or more sulfonic groups are introduced on average into one repeating unit, wherein the sulfonated polyphenyl compound is selected from the following group: wherein n is such a value that the weight average molecular weight M w of the polyphenyl compound in terms of polystyrene measured by gel permeation chromatography is in the range of 5,000 to 500,000.