mhurhangee/ep-ind-claims huggingface dataset:
A method to encode video, the method comprising: capturing a video frame that includes a face of a person; detecting the face in the video frame; segmenting the video frame into a plurality of rectangles, the plurality of rectangles including a face rectangle with pixels corresponding to the face; packing the video frame based on the plurality of rectangles, wherein a greater number of pixels in the packed video frame are allocated to the face rectangle as compared to other rectangles of the plurality of rectangles, wherein packing the video frame comprises generating metadata descriptive of the packing, wherein the metadata describes a face transform center, which is a location of a center of the face in the video frame before the packing, and a face transform x/y scale, which is a size of the face rectangle before the packing; continuing the packing by packing one or more subsequent frames based on the plurality of rectangles and without recomputing the metadata as long as a movement of the face between the video frames is below a threshold amount of movement; and encoding the packed video frames, wherein the encoded video frames include the metadata descriptive of the packing. capturing a video frame that includes a face of a person; detecting the face in the video frame; segmenting the video frame into a plurality of rectangles, the plurality of rectangles including a face rectangle with pixels corresponding to the face; packing the video frame based on the plurality of rectangles, wherein a greater number of pixels in the packed video frame are allocated to the face rectangle as compared to other rectangles of the plurality of rectangles, wherein packing the video frame comprises generating metadata descriptive of the packing, wherein the metadata describes a face transform center, which is a location of a center of the face in the video frame before the packing, and a face transform x/y scale, which is a size of the face rectangle before the packing; continuing the packing by packing one or more subsequent frames based on the plurality of rectangles and without recomputing the metadata as long as a movement of the face between the video frames is below a threshold amount of movement; and encoding the packed video frames, wherein the encoded video frames include the metadata descriptive of the packing.
A seating system for a passenger aircraft, comprising - at least one aircraft seat having at least one sensor device which is configured to detect a seat load on the aircraft seat by a passenger sitting thereon, - a storage device which is configured to store the detected seat load, a determined sitting posture, a history of the detected seat load and/or a history of the determined sitting posture, and - an evaluation device which is configured to ascertain how well the passenger feels on the aircraft seat depending on the detected seat load, the determined sitting posture, the history of the detected seat load and/or the history of the determined sitting posture, wherein the sense of well-being of the passenger on the aircraft seat is determined depending on how often the passenger moves, how intensely the passenger moves, in which way the passenger moves, how often and/or how long the passenger sleeps and/or how often the passenger stands up. - at least one aircraft seat having at least one sensor device which is configured to detect a seat load on the aircraft seat by a passenger sitting thereon, - a storage device which is configured to store the detected seat load, a determined sitting posture, a history of the detected seat load and/or a history of the determined sitting posture, and - an evaluation device which is configured to ascertain how well the passenger feels on the aircraft seat depending on the detected seat load, the determined sitting posture, the history of the detected seat load and/or the history of the determined sitting posture, wherein the sense of well-being of the passenger on the aircraft seat is determined depending on how often the passenger moves, how intensely the passenger moves, in which way the passenger moves, how often and/or how long the passenger sleeps and/or how often the passenger stands up.
A carburetor for feeding internal combustion engines, comprising an outer shell, which defines internally at least one air and fuel mixing duct, said duct being interposed between at least one opening (4a, 4b) for the inflow of air, and an outlet, which can be connected to a combustion chamber of an internal combustion engine, said duct being affected by at least one nozzle, for introducing the fuel to be mixed with the air, prior to sending to the combustion chamber of the internal combustion engine, the carburetor further comprising at least one trimming element, which is constituted substantially by a stem that can move selectively between at least one first configuration, for free passage of the air through said at least one opening (4a, 4b), and at least one adjustment configuration, in which said stem is arranged so as to at least partially obstruct said at least one opening (4a, 4b), with consequent reduction of the overall passage section available for the inflow of the air, characterized in that said shell is provided with a plurality of said openings (4a, 4b), said stem being movable selectively between said at least one first configuration and a plurality of said adjustment configurations, in each one of said adjustment configurations said stem being arranged correspondingly so as to partially obstruct at least one of said openings (4a, 4b), with consequent reduction of the overall passage section available for the inflow of the air.
A device for synchronization of at least two sensors (101, 102), wherein the device is configured to: - generate a first graphic representation of a first signal obtained by a first sensor of the device; - generate a second graphic representation of a second signal obtained by a second sensor of the device; - apply a transformation to the second graphic representation to align the second graphic representation and the first graphic representation and to obtain a combined graphic representation; - determine a time offset between the first signal and the second signal based on the first graphic representation, the second graphic representation and the combined graphic representation (107; and - synchronize the first sensor and the second sensor based on the time offset; wherein the first signal is a radio frequency, RF, signal, and wherein the second signal is a RF signal; and wherein the first graphic representation and the second graphic representation and the combined graphic representation are frequency over time diagrams. - generate a first graphic representation of a first signal obtained by a first sensor of the device; - generate a second graphic representation of a second signal obtained by a second sensor of the device; - apply a transformation to the second graphic representation to align the second graphic representation and the first graphic representation and to obtain a combined graphic representation; - determine a time offset between the first signal and the second signal based on the first graphic representation, the second graphic representation and the combined graphic representation (107; and - synchronize the first sensor and the second sensor based on the time offset; wherein the first signal is a radio frequency, RF, signal, and wherein the second signal is a RF signal; and wherein the first graphic representation and the second graphic representation and the combined graphic representation are frequency over time diagrams.
A modified adeno-associated virus capsid protein comprising a targeting peptide, wherein the targeting peptide is from 3 to 10 amino acids in length; and wherein: (i) the modified AAV capsid comprising the targeting peptide targets an AAV to wildtype brain vascular endothelium, and the targeting peptide is TLH (SEQ ID NO:3), or QSXY (SEQ ID NO:4), PYFPSLS (SEQ ID NO:5), YAPLTPS (SEQ ID NO:6), PLSPSAY (SEQ ID NO:7), DSPAHPS (SEQ ID NO:8), GTPTHPS (SEQ ID NO:9), PDAPSNH (SEQ ID NO: 10), TEPHWPS (SEQ ID NO: 11), SPPLPPK (SEQ ID NO: 12), SPKPPPG (SEQ ID NO: 13), NWSPWDP (SEQ ID NO:14), DSPAHPS (SEQ ID NO:15), GWTLHNK (SEQ ID NO:16), KIPPTLH (SEQ ID NO:17), ISQTLHG (SEQ ID NO:18), QSFYILT (SEQ ID NO:19), or TTQSEYG (SEQ ID NO:20) as expressed in an amino to carboxy orientation or in a carboxy to amino orientation; or (ii) the modified AAV capsid comprising the targeting peptide targets an AAV to diseased brain vascular endothelium, wherein the targeting peptide is LXSS (SEQ ID NO:21), or SIXA (SEQ ID NO:23), MLVSSPA (SEQ ID NO:24), LPSSLQK (SEQ ID NO:25), PPLLKSS (SEQ ID NO:26), PXKLDSS (SEQ ID NO:27), AWTLASS (SEQ ID NO:28), WPFYGTP (SEQ ID NO:29), GTFPFLG (SEQ ID NO:30), GQVPFMG (SEQ ID NO:31), ANFSILA (SEQ ID NO:32), GSIWAPA (SEQ ID NO:33), SIAASFS (SEQ ID NO:34), or GMNAFRA (SEQ ID NO:41), as expressed in an amino to carboxy orientation or in a carboxy to amino orientation. (i) the modified AAV capsid comprising the targeting peptide targets an AAV to wildtype brain vascular endothelium, and the targeting peptide is TLH (SEQ ID NO:3), or QSXY (SEQ ID NO:4), PYFPSLS (SEQ ID NO:5), YAPLTPS (SEQ ID NO:6), PLSPSAY (SEQ ID NO:7), DSPAHPS (SEQ ID NO:8), GTPTHPS (SEQ ID NO:9), PDAPSNH (SEQ ID NO: 10), TEPHWPS (SEQ ID NO: 11), SPPLPPK (SEQ ID NO: 12), SPKPPPG (SEQ ID NO: 13), NWSPWDP (SEQ ID NO:14), DSPAHPS (SEQ ID NO:15), GWTLHNK (SEQ ID NO:16), KIPPTLH (SEQ ID NO:17), ISQTLHG (SEQ ID NO:18), QSFYILT (SEQ ID NO:19), or TTQSEYG (SEQ ID NO:20) as expressed in an amino to carboxy orientation or in a carboxy to amino orientation; or (ii) the modified AAV capsid comprising the targeting peptide targets an AAV to diseased brain vascular endothelium, wherein the targeting peptide is LXSS (SEQ ID NO:21), or SIXA (SEQ ID NO:23), MLVSSPA (SEQ ID NO:24), LPSSLQK (SEQ ID NO:25), PPLLKSS (SEQ ID NO:26), PXKLDSS (SEQ ID NO:27), AWTLASS (SEQ ID NO:28), WPFYGTP (SEQ ID NO:29), GTFPFLG (SEQ ID NO:30), GQVPFMG (SEQ ID NO:31), ANFSILA (SEQ ID NO:32), GSIWAPA (SEQ ID NO:33), SIAASFS (SEQ ID NO:34), or GMNAFRA (SEQ ID NO:41), as expressed in an amino to carboxy orientation or in a carboxy to amino orientation.
An electronic device for interfacing with an earphone, the apparatus comprising: an external port configured to receive an earplug of the earphone; and at least one processor configured: to control to apply a voltage to a MIC_BIAS terminal of the external port of the electronic device if insertion of the earplug into the external port is sensed by the electronic device; to detect loose insertion of the earplug into the external port; and if loose insertion is detected, to continue to apply the voltage to the MIC_BIAS terminal and to output a notification to a user of the detected loose insertion. an external port configured to receive an earplug of the earphone; and at least one processor configured: to control to apply a voltage to a MIC_BIAS terminal of the external port of the electronic device if insertion of the earplug into the external port is sensed by the electronic device; to detect loose insertion of the earplug into the external port; and if loose insertion is detected, to continue to apply the voltage to the MIC_BIAS terminal and to output a notification to a user of the detected loose insertion. to control to apply a voltage to a MIC_BIAS terminal of the external port of the electronic device if insertion of the earplug into the external port is sensed by the electronic device; to detect loose insertion of the earplug into the external port; and if loose insertion is detected, to continue to apply the voltage to the MIC_BIAS terminal and to output a notification to a user of the detected loose insertion.
A chip packaging method, comprising: providing a wafer, wherein the wafer has a first surface and a second surface which are opposite to each other, and at least two functional circuit regions and a plurality of pads around the functional circuit regions are formed on the first surface of the wafer; forming a passivation layer on the pads; forming a first groove on the passivation layer; and filling the first groove by an embedded process to form a first bonding layer, wherein a surface of the first bonding layer facing away from the passivation layer is aligned with a surface of the passivation layer facing away from the pads; providing a substrate, wherein the substrate has a third surface and a fourth surface which are opposite to each other, and a second bonding layer is formed on the third surface of the substrate; bonding the first bonding layer and the second bonding layer, so that the third surface and a surface of the passivation layer away from the wafer are attached together; thinning the substrate to obtain a thinned substrate; making a via-hole, wherein the via-hole at least sequentially penetrates the substrate and the passivation layer to expose the pads; filling the via-hole; and cutting along an area between adjacent pads, to form a plurality of chip packaging structures. providing a wafer, wherein the wafer has a first surface and a second surface which are opposite to each other, and at least two functional circuit regions and a plurality of pads around the functional circuit regions are formed on the first surface of the wafer; forming a passivation layer on the pads; forming a first groove on the passivation layer; and filling the first groove by an embedded process to form a first bonding layer, wherein a surface of the first bonding layer facing away from the passivation layer is aligned with a surface of the passivation layer facing away from the pads; providing a substrate, wherein the substrate has a third surface and a fourth surface which are opposite to each other, and a second bonding layer is formed on the third surface of the substrate; bonding the first bonding layer and the second bonding layer, so that the third surface and a surface of the passivation layer away from the wafer are attached together; thinning the substrate to obtain a thinned substrate; making a via-hole, wherein the via-hole at least sequentially penetrates the substrate and the passivation layer to expose the pads; filling the via-hole; and cutting along an area between adjacent pads, to form a plurality of chip packaging structures.
Water supply system for an aircraft with a water tank, a pressure source and a plurality of consumers with buffer reservoirs, wherein the plurality of consumers are connected to the water tank via lines and the pressure source, wherein each consumer of the plurality of consumers with buffer tanks has a buffer tank for water, a filling valve and a consumer valve (11, 13), wherein in each consumer of the plurality of consumers with buffer tanks the filling valve is arranged between the respective buffer tank and the pressure source and is configured in such a way that the respective buffer tank can be filled by opening the filling valve, and the consumer valve (11, 13) is arranged and configured in such a way that water can be removed from the buffer tank by opening the consumer valve (11, 13), characterised in that each consumer with a buffer tank is configured to transmit at least one status parameter, which describes a status of the buffer tank of the respective consumer, to a control system (18, 22) of the water supply system, and wherein the control system (18, 22) is configured to control the opening and closing of the filling valves of the consumers with buffer tanks, taking into account the transmitted status parameters, in such a way that a water withdrawal from the water tank by the pressure source does not exceed a limit value at any time. wherein each consumer of the plurality of consumers with buffer tanks has a buffer tank for water, a filling valve and a consumer valve (11, 13), wherein in each consumer of the plurality of consumers with buffer tanks the filling valve is arranged between the respective buffer tank and the pressure source and is configured in such a way that the respective buffer tank can be filled by opening the filling valve, and the consumer valve (11, 13) is arranged and configured in such a way that water can be removed from the buffer tank by opening the consumer valve (11, 13), characterised in that each consumer with a buffer tank is configured to transmit at least one status parameter, which describes a status of the buffer tank of the respective consumer, to a control system (18, 22) of the water supply system, and wherein the control system (18, 22) is configured to control the opening and closing of the filling valves of the consumers with buffer tanks, taking into account the transmitted status parameters, in such a way that a water withdrawal from the water tank by the pressure source does not exceed a limit value at any time.
A method of PIN entering on a payment terminal to confirm cashless payment, in the phase when the authorization of the payment is requested, where the PIN entering is realized over a contactless communication channel, the payment terminal is connected with a payment processor center, a separate identifier with a secure element, in which the PIN code and even a private key is stored, is used; the identifier is supplied with energy in a contactless way over the payment terminal's electromagnetic field, when the direct energy and/or the energy accumulated during the tap of the identifier to the payment terminal is used in the identifier wherein an unique identification file containing the data on the current payment including a PAN primary account number is sent from the payment terminal to the distance lower than 10 cm into the identifier, after a customer receives instructions from the payment terminal attendee, separate identifier is tapped to the payment terminal; the identifier is put to the payment terminal within a distance that is lower than 10 cm; the identifier receives the emitted file with the PAN, the PIN code is loaded from the secure element and it is assigned to the received identification file in the identifier's processor, the resulting file is electronically signed using the private key that is stored in the identifier's memory and an electronically signed file thus created is encrypted and subsequently sent into the payment terminal, over which it is transferred into the payment processing centre, the received file is decrypted in the payment processing centre and then it is read using a public key; the PIN code is extracted from the file received and then verified. an unique identification file containing the data on the current payment including a PAN primary account number is sent from the payment terminal to the distance lower than 10 cm into the identifier, after a customer receives instructions from the payment terminal attendee, separate identifier is tapped to the payment terminal; the identifier is put to the payment terminal within a distance that is lower than 10 cm; the identifier receives the emitted file with the PAN, the PIN code is loaded from the secure element and it is assigned to the received identification file in the identifier's processor, the resulting file is electronically signed using the private key that is stored in the identifier's memory and an electronically signed file thus created is encrypted and subsequently sent into the payment terminal, over which it is transferred into the payment processing centre, the received file is decrypted in the payment processing centre and then it is read using a public key; the PIN code is extracted from the file received and then verified.
A matrix for supporting repair of a tissue, the matrix comprising poly(lactide-co-glycolide), entangled with hyaluronic acid, said matrix being formed by the steps of: (i) dissolving poly(lactide-co-glycolide) having a molecular weight of 1.5x10 5 Dalton in dichloromethane at a concentration of 125 mg/ml; (ii) dissolving hyaluronic acid having a molecular weight of 1.3x10 6 Dalton in water at a concentration of 15 mg/ml; (iii) blending 1 part water, 2 parts poly(lactide-co-glycolide) in dichloromethane of step (i), and 1 part hyaluronic acid in water of step (ii) by vortexing for about 5 minutes, thereby forming an emulsified mixture; (iv) freezing the emulsified mixture by pouring the emulsified mixture into a mold pre-cooled to -70°C; (v) removing the dichloromethane from the frozen emulsified mixture at a temperature of -70°C to -40°C; and (vi) raising the temperature of the result of step (v) to -10°C and removing the water; wherein said matrix is characterized by the ability to promote the growth of tissue in vivo. (i) dissolving poly(lactide-co-glycolide) having a molecular weight of 1.5x10 5 Dalton in dichloromethane at a concentration of 125 mg/ml; (ii) dissolving hyaluronic acid having a molecular weight of 1.3x10 6 Dalton in water at a concentration of 15 mg/ml; (iii) blending 1 part water, 2 parts poly(lactide-co-glycolide) in dichloromethane of step (i), and 1 part hyaluronic acid in water of step (ii) by vortexing for about 5 minutes, thereby forming an emulsified mixture; (iv) freezing the emulsified mixture by pouring the emulsified mixture into a mold pre-cooled to -70°C; (v) removing the dichloromethane from the frozen emulsified mixture at a temperature of -70°C to -40°C; and (vi) raising the temperature of the result of step (v) to -10°C and removing the water;
Method for assembling a passenger car with a self-supporting body-in-white, in which the respective body-in-white of the motor vehicle is equipped with an associated chassis, wherein the chassis is equipped with vehicle wheels at least before reaching an end of a main assembly line, characterised in that after the chassis has been equipped with the vehicle wheels, the motor vehicle is moved completely autonomously by its own drive. characterised in that after the chassis has been equipped with the vehicle wheels, the motor vehicle is moved completely autonomously by its own drive.
A method of constructing a large flat panel, the method comprising: producing a first subpanel of a thermoplastic with carbon fiber reinforcement; constructing a first machined surface along an edge of the first subpanel; producing a second subpanel of a thermoplastic with carbon fiber reinforcement; constructing a second machined surface along an edge of the second subpanel; positioning the first machined surface on the first subpanel oppositely against the second machined surface on the second subpanel, wherein the first machined surface and the second machined surface are complementary scarf surfaces that engage in surface contact with each other; heating, after positioning, the first machined surface and the second machined surface and applying pressure thereto; and, cooling the first machined surface and the second machined surface; wherein a full melt bond and a co-consolidation between the engaging first machined surface and the second machined surface is produced by the heating of the engaging first machined surface and the second machined surface and the pressure applied thereto. producing a first subpanel of a thermoplastic with carbon fiber reinforcement; constructing a first machined surface along an edge of the first subpanel; producing a second subpanel of a thermoplastic with carbon fiber reinforcement; constructing a second machined surface along an edge of the second subpanel; positioning the first machined surface on the first subpanel oppositely against the second machined surface on the second subpanel, wherein the first machined surface and the second machined surface are complementary scarf surfaces that engage in surface contact with each other; heating, after positioning, the first machined surface and the second machined surface and applying pressure thereto; and, cooling the first machined surface and the second machined surface; wherein a full melt bond and a co-consolidation between the engaging first machined surface and the second machined surface is produced by the heating of the engaging first machined surface and the second machined surface and the pressure applied thereto.