mhurhangee/patent-ind-claim-en huggingface dataset:
A wafer processing laminate consisting of a support, a temporary adhesive material layer formed on the support, and a wafer stacked on the temporary adhesive material layer, the wafer having a front surface on which a circuit is formed and a back surface to be processed, wherein the temporary adhesive material layer consists of a three-layered complex temporary adhesive material layer that consists of a first temporary adhesive layer composed of a thermoplastic organopolysiloxane polymer layer (A) and releasably laminated to the front surface of the wafer, a second temporary adhesive layer composed of a thermosetting siloxane-modified polymer layer (B) releasably laminated to the first temporary adhesive layer, and a third temporary adhesive layer composed of a thermoplastic organopolysiloxane polymer layer (A'), releasably laminated to the second temporary adhesive layer, and releasably laminated to the support, characterized in that the first temporary adhesive layer composed of a thermoplastic organopolysiloxane polymer layer (A) has a thickness of less than 100 nm and the third temporary adhesive layer composed of a thermoplastic organopolysiloxane polymer layer (A') has a thickness of less than 100 nm.
A medical device , comprising: a support shaft having a proximal end region and a distal end region ; a sensing member having a proximal end region and a distal end region , the distal end region of the sensing member coupled to the distal end region of the support shaft ; one or more ultrasound sensors disposed along the sensing member ; and a support member having a first end coupled to the sensing member and a second end coupled to the support shaft ; wherein the sensing member is configured to shift from a first configuration in which the sensing member is adjacent to the support shaft to a second configuration in which at least a portion of the sensing member extends away from the support shaft ; wherein the second end of the support member is coupled to the support shaft via an attachment collar, and wherein the attachment collar is designed to slide along the support shaft . a support shaft having a proximal end region and a distal end region ; a sensing member having a proximal end region and a distal end region , the distal end region of the sensing member coupled to the distal end region of the support shaft ; one or more ultrasound sensors disposed along the sensing member ; and a support member having a first end coupled to the sensing member and a second end coupled to the support shaft ; wherein the sensing member is configured to shift from a first configuration in which the sensing member is adjacent to the support shaft to a second configuration in which at least a portion of the sensing member extends away from the support shaft ; wherein the second end of the support member is coupled to the support shaft via an attachment collar, and wherein the attachment collar is designed to slide along the support shaft .
An arrangement for implementing kissing balloons (6a, 7a; 8a, 8b; 45a, 47) simulating a bifurcated vessel, comprising a first catheter having a first inflatable balloon (6a, 6b, 6c; 8a; 38; 45a, 45b, 45c) at or near its distal portion, a second catheter having a second inflatable balloon at or near its distal portion, wherein the first balloon (6a, 6b, 6c; 8a; 38; 45a, 45b, 45c) comprises a holding element , the said holding element being adapted for: i) allowing the distal portion of the second catheter to pass there through; ii) affixing the second catheter in a proximal vicinity to the first catheter so that, in use, respective facing surfaces of the inflated first balloon and the inflated second balloon touch each other. i) allowing the distal portion of the second catheter to pass there through; ii) affixing the second catheter in a proximal vicinity to the first catheter so that, in use, respective facing surfaces of the inflated first balloon and the inflated second balloon touch each other.
A method of producing gasoline from raw hydrocarbon fractions, fractions of gaseous olefins and oxygenates, wherein the feedstock component flow is supplied to a unit for supplying the flows to be processed into a reactor, wherein the reaction is carried out in the presence of a zeolite-containing catalyst, high-octane gasoline is isolated by separation of the conversion product, while diverting simultaneously the reaction water and the exhaust gases, characterized in that (a) as a reactor, a reactor is used, which contains at least two reaction zones with a zeolite-containing catalyst, (b) between which there are further arranged means for mixing the reaction product from the previous reaction zone and the supplied methanol and / or other oxygenates and olefin-containing feedstock, and (c) by means of the unit for supplying flows the methanol and / or other oxygenates and olefin-containing feedstock are separated into at least two flows, wherein a first flow of methanol and / or other oxygenates and olefin-containing feedstock is directed into the space upstream the first reaction zone where it is mixed with the flow of raw hydrocarbon fractions and is supplied into the first reaction zone of the reactor, and a second flow of methanol and / or other oxygenates and olefin-containing feedstock is mixed in the downstream reaction zones with the conversion product from the upstream reaction zone. (a) as a reactor, a reactor is used, which contains at least two reaction zones with a zeolite-containing catalyst, (b) between which there are further arranged means for mixing the reaction product from the previous reaction zone and the supplied methanol and / or other oxygenates and olefin-containing feedstock, and (c) by means of the unit for supplying flows the methanol and / or other oxygenates and olefin-containing feedstock are separated into at least two flows, wherein a first flow of methanol and / or other oxygenates and olefin-containing feedstock is directed into the space upstream the first reaction zone where it is mixed with the flow of raw hydrocarbon fractions and is supplied into the first reaction zone of the reactor, and a second flow of methanol and / or other oxygenates and olefin-containing feedstock is mixed in the downstream reaction zones with the conversion product from the upstream reaction zone. a first flow of methanol and / or other oxygenates and olefin-containing feedstock is directed into the space upstream the first reaction zone where it is mixed with the flow of raw hydrocarbon fractions and is supplied into the first reaction zone of the reactor, and a second flow of methanol and / or other oxygenates and olefin-containing feedstock is mixed in the downstream reaction zones with the conversion product from the upstream reaction zone.
System for storing energy, comprising a heat accumulator which has a storage region and an outer wall surrounding the storage region, the storage region having a solid heat storage medium , an intermediate region between the storage region and the outer wall being at least partially filled with a gaseous medium and a support material, and the intermediate region being coupled to a pump device such that a pressure of the gaseous medium can be regulated, characterized in that the heat accumulator has only the outer wall and is free of inner walls and further outer walls.
A method for decoding an encoded data stream representative of at least one image (I m ), said image being divided into blocks, characterised in that the decoding method comprises, for a current block, the following steps: - Evaluating (D3) a plurality of value hypotheses of at least one description element of the current block, by calculating a likelihood measurement (V) per hypothesis, said calculation being the same as that used to encode the data stream; - Calculating (D4) a disparity (DV) of the obtained likelihood measurements; - Determining (D5) at least one parameter (p) of an entropy decoder as a function of the calculated disparity (DV), said at least one parameter belonging to a group comprising at least: - a parameter comprising a context associated with an adaptive binary arithmetic decoder; - a parameter comprising a probability associated with a complementary information for identifying at least one of these hypotheses; - a parameter comprising an identifier of a predetermined decoder; - Decoding (D6) using an entropy decoder configured by said at least one parameter, of the complementary information (IC) for identifying at least one of said hypotheses; and - Identifying (D7) at least one of the hypotheses using at least the decoded complementary information and obtaining the value of said at least one description element for the current block, from said at least one identified hypothesis. - Evaluating (D3) a plurality of value hypotheses of at least one description element of the current block, by calculating a likelihood measurement (V) per hypothesis, said calculation being the same as that used to encode the data stream; - Calculating (D4) a disparity (DV) of the obtained likelihood measurements; - Determining (D5) at least one parameter (p) of an entropy decoder as a function of the calculated disparity (DV), said at least one parameter belonging to a group comprising at least: - a parameter comprising a context associated with an adaptive binary arithmetic decoder; - a parameter comprising a probability associated with a complementary information for identifying at least one of these hypotheses; - a parameter comprising an identifier of a predetermined decoder; - a parameter comprising a context associated with an adaptive binary arithmetic decoder; - a parameter comprising a probability associated with a complementary information for identifying at least one of these hypotheses; - a parameter comprising an identifier of a predetermined decoder; - Decoding (D6) using an entropy decoder configured by said at least one parameter, of the complementary information (IC) for identifying at least one of said hypotheses; and - Identifying (D7) at least one of the hypotheses using at least the decoded complementary information and obtaining the value of said at least one description element for the current block, from said at least one identified hypothesis.
A traffic light detection device comprising: an image pickup unit that is mounted on a vehicle to acquire images by taking images of surroundings of the vehicle; a synchronized pixel extraction unit that extracts synchronized pixels, whose brightness changes in synchronization with an alternating current period of electric power supplied to a traffic light, from the images; and a traffic light detection unit that detects the traffic light from the synchronized pixels, wherein the traffic light detection unit includes a positional variation calculation unit that calculates positional variation amounts in image coordinates of continuously extracted positions of the synchronized pixels in an image sequence, and a signal lamp determination unit that determines, as a signal lamp candidate, the synchronized pixels whose positional variation amount is equal to or smaller than a threshold value. an image pickup unit that is mounted on a vehicle to acquire images by taking images of surroundings of the vehicle; a synchronized pixel extraction unit that extracts synchronized pixels, whose brightness changes in synchronization with an alternating current period of electric power supplied to a traffic light, from the images; and a traffic light detection unit that detects the traffic light from the synchronized pixels, wherein the traffic light detection unit includes a positional variation calculation unit that calculates positional variation amounts in image coordinates of continuously extracted positions of the synchronized pixels in an image sequence, and a signal lamp determination unit that determines, as a signal lamp candidate, the synchronized pixels whose positional variation amount is equal to or smaller than a threshold value. a positional variation calculation unit that calculates positional variation amounts in image coordinates of continuously extracted positions of the synchronized pixels in an image sequence, and a signal lamp determination unit that determines, as a signal lamp candidate, the synchronized pixels whose positional variation amount is equal to or smaller than a threshold value.
An apparatus for producing metal organic frameworks, comprising: a tubular flow reactor comprising a tubular body into which, in use, precursor compounds which form the metal organic framework are fed and flow, said tubular body including at least one annular loop comprising a coil; a flow restriction device downstream of the tubular reactor for controlling the pressure within the tubular reactor; and an apparatus for separating a metal organic framework (MOF) from a solution, comprising: a housing having a reservoir capable of receiving a MOF containing solution; a high frequency ultrasound transducer operatively connected to the reservoir and capable of applying megasonic frequencies of at least 400 kHz to the MOF containing solution for separation of MOF from the MOF containing solution; and an acoustic reflector surface spaced apart from the transducer within the housing configured to reflect said applied high frequency ultrasound from the high frequency transducer off the acoustic reflector surface, said acoustic reflector surface being spaced away from the high frequency ultrasound transducer such that a standing wave is formed which forms pressure nodes and antinodes where particles are collected. a tubular flow reactor comprising a tubular body into which, in use, precursor compounds which form the metal organic framework are fed and flow, said tubular body including at least one annular loop comprising a coil; a flow restriction device downstream of the tubular reactor for controlling the pressure within the tubular reactor; and an apparatus for separating a metal organic framework (MOF) from a solution, comprising: a housing having a reservoir capable of receiving a MOF containing solution; a high frequency ultrasound transducer operatively connected to the reservoir and capable of applying megasonic frequencies of at least 400 kHz to the MOF containing solution for separation of MOF from the MOF containing solution; and an acoustic reflector surface spaced apart from the transducer within the housing configured to reflect said applied high frequency ultrasound from the high frequency transducer off the acoustic reflector surface, said acoustic reflector surface being spaced away from the high frequency ultrasound transducer such that a standing wave is formed which forms pressure nodes and antinodes where particles are collected. a housing having a reservoir capable of receiving a MOF containing solution; a high frequency ultrasound transducer operatively connected to the reservoir and capable of applying megasonic frequencies of at least 400 kHz to the MOF containing solution for separation of MOF from the MOF containing solution; and an acoustic reflector surface spaced apart from the transducer within the housing configured to reflect said applied high frequency ultrasound from the high frequency transducer off the acoustic reflector surface, said acoustic reflector surface being spaced away from the high frequency ultrasound transducer such that a standing wave is formed which forms pressure nodes and antinodes where particles are collected.
A condition monitoring method of an electric conductor, the conductor comprising a cable, a transmission line, or at least one segment of a cable/transmission line, and the conductor having a first end , a second end , and a given length, the method comprising: scanning the entire length of the conductor by means of applying a voltage signal to the first end of the conductor and by measuring, by a processor, in the time domain, a current at the first end for a given sampling period, said given sampling period assuring that a reflected voltage signal doesn't reach back the first end ; estimating, by a processor, a characteristic admittance of the conductor using the measured current and the voltage signal; and determining, by a processor, a health state parameter of the conductor by dividing the estimated characteristic admittance of the conductor by an original characteristic admittance of the conductor , the original characteristic admittance being calculated from parameters associated to the conductor or measured when the conductor is installed. scanning the entire length of the conductor by means of applying a voltage signal to the first end of the conductor and by measuring, by a processor, in the time domain, a current at the first end for a given sampling period, said given sampling period assuring that a reflected voltage signal doesn't reach back the first end ; estimating, by a processor, a characteristic admittance of the conductor using the measured current and the voltage signal; and determining, by a processor, a health state parameter of the conductor by dividing the estimated characteristic admittance of the conductor by an original characteristic admittance of the conductor , the original characteristic admittance being calculated from parameters associated to the conductor or measured when the conductor is installed.
An electronic device comprising: a display panel including a plurality of pixels; a random access memory, RAM, ; an application processor, AP, configured to execute an application; a first chip including a first display driving integrated circuit , wherein the first display driving integrated circuit includes a processor and a graphics memory ; and a second chip including a second display driving integrated circuit , wherein the second chip is connected to the display panel; wherein the first chip is configured to receive first image data from the AP and output second image data to a second chip; wherein the second display driving integrated circuit includes source drivers , gate drivers and a timing controller , configured to control the plurality of pixels according to the second image data output by the first chip; wherein the timing controller is configured to generate a source control signal for controlling an operation timing of the source drivers and a gate control signal for controlling an operation timing of the gate drivers ; and wherein the processor is configured to: when the AP is in a sleep state, compose the first image data based at least on at least one image stored in the graphics memory based on a control signal received from the AP or post-process the first image data, to generate the second image data, and output the second image data to the second chip. a display panel including a plurality of pixels; a random access memory, RAM, ; an application processor, AP, configured to execute an application; a first chip including a first display driving integrated circuit , wherein the first display driving integrated circuit includes a processor and a graphics memory ; and a second chip including a second display driving integrated circuit , wherein the second chip is connected to the display panel; wherein the first chip is configured to receive first image data from the AP and output second image data to a second chip; wherein the second display driving integrated circuit includes source drivers , gate drivers and a timing controller , configured to control the plurality of pixels according to the second image data output by the first chip; wherein the timing controller is configured to generate a source control signal for controlling an operation timing of the source drivers and a gate control signal for controlling an operation timing of the gate drivers ; and wherein the processor is configured to: when the AP is in a sleep state, compose the first image data based at least on at least one image stored in the graphics memory based on a control signal received from the AP or post-process the first image data, to generate the second image data, and output the second image data to the second chip. when the AP is in a sleep state, compose the first image data based at least on at least one image stored in the graphics memory based on a control signal received from the AP or post-process the first image data, to generate the second image data, and output the second image data to the second chip.
An apparatus for transporting a sample receptacle carrier coupled to a sample containing receptacle, comprising: a circular sample receptacle carrier coupled to the sample containing receptacle; a movable dock configured to support the sample receptacle carrier , the movable dock comprising: a first carrier support portion configured to support the sample receptacle carrier ; and a second carrier support portion extending upwardly from the first carrier support portion and configured to contact a side portion of the sample receptacle carrier ; the second carrier support portion defining a surface configured to engage the side portion of the sample receptacle carrier, the surface having a complementary circular concave portion having a contour that substantially matches the contour of the periphery of the sample receptacle carrier ; and one or more magnets , each of the one or more magnets being coupled to the second carrier support portion and configured to magnetically couple with a magnetic portion of the sample receptacle carrier , thereby securing the sample receptacle carrier to the movable dock. a circular sample receptacle carrier coupled to the sample containing receptacle; a movable dock configured to support the sample receptacle carrier , the movable dock comprising: a first carrier support portion configured to support the sample receptacle carrier ; and a second carrier support portion extending upwardly from the first carrier support portion and configured to contact a side portion of the sample receptacle carrier ; the second carrier support portion defining a surface configured to engage the side portion of the sample receptacle carrier, the surface having a complementary circular concave portion having a contour that substantially matches the contour of the periphery of the sample receptacle carrier ; and a first carrier support portion configured to support the sample receptacle carrier ; and a second carrier support portion extending upwardly from the first carrier support portion and configured to contact a side portion of the sample receptacle carrier ; the second carrier support portion defining a surface configured to engage the side portion of the sample receptacle carrier, the surface having a complementary circular concave portion having a contour that substantially matches the contour of the periphery of the sample receptacle carrier ; and one or more magnets , each of the one or more magnets being coupled to the second carrier support portion and configured to magnetically couple with a magnetic portion of the sample receptacle carrier , thereby securing the sample receptacle carrier to the movable dock.