mhurhangee/patent-ind-claim-en huggingface dataset:
An edge connector , comprising a base and a first row of golden fingers and a second row of golden fingers , wherein the first row of golden fingers and the second row of golden fingers are disposed in parallel on a surface of the base, the first row of golden fingers is adjacent to a plugging end of the edge connector , and the second row of golden fingers is adjacent to the first row of golden fingers ; the first row of golden fingers comprises a plurality of golden fingers that are disposed in parallel and isolated from each other, and the second row of golden fingers comprises a plurality of golden fingers that are disposed in parallel and isolated from each other; in a plugging direction of the edge connector , each golden finger in the first row of golden fingers has a first end that is close to the plugging end and a second end that is opposite to the first end, a first end of a grounded golden finger in the first row of golden fingers is protruded relative to other golden fingers, and second ends of two or more than two of the plurality of golden fingers in the first row of golden fingers are not aligned with each other; in addition to the grounded golden finger, the first row of golden fingers further comprises a golden finger for transmitting a power signal and a golden finger for transmitting a communication signal, in the plugging direction of the edge connector , a second end of the grounded golden finger in the first row of golden fingers is protruded relative to a second end of the golden finger for transmitting a power signal in the first row of golden fingers , the second end of the golden finger for transmitting a power signal in the first row of golden fingers is protruded relative to a second end of the golden finger for transmitting a communication signal in the first row of golden fingers ; and a first end that is of a grounded golden finger in the second row of golden fingers and that is close to the plugging end in the plugging direction of the edge connector is protruded relative to other golden fingers.
An antenna comprising: a printed circuit board , a first radiation part formed in a cover shape on a first surface of the printed circuit board , wherein the first radiation part is spaced apart from the first surface of the printed circuit board at a predetermined distance to be formed in the shape of a cover to cover the first surface of the printed circuit board , wherein the antenna further comprises a second radiation part penetrating the printed circuit board from one end of the first radiation part and extending onto a second surface of the printed circuit board , wherein the second radiation part comprises a radiation pattern on the second surface of the printed circuit board , and wherein the radiation pattern is spaced apart as much as a predetermined distance from the first surface of the printed circuit board or a ground pattern formed inside the printed circuit board . a printed circuit board , a first radiation part formed in a cover shape on a first surface of the printed circuit board , wherein the first radiation part is spaced apart from the first surface of the printed circuit board at a predetermined distance to be formed in the shape of a cover to cover the first surface of the printed circuit board , wherein the antenna further comprises a second radiation part penetrating the printed circuit board from one end of the first radiation part and extending onto a second surface of the printed circuit board , wherein the second radiation part comprises a radiation pattern on the second surface of the printed circuit board , and wherein the radiation pattern is spaced apart as much as a predetermined distance from the first surface of the printed circuit board or a ground pattern formed inside the printed circuit board .
Use of a material comprising a synthetic functional polymer and optionally at least one functional additive in the detection of material contamination or degradation or wear, wherein said material is marked with at least one isotope, wherein the isotope or isotopes are present in a functional component of the material, wherein the term "functional" has the meaning as defined in the description, and wherein the at least one isotope is selected from 2 H, 13 C, 15 N, 17 O, 18 O, 29 Si, 30 Si, 33 S, 34 S, 36 S, 37 Cl, wherein said material is a space material or an industrial material, preferably wherein the industrial material is a material to be used in a clean room.
An outdoor device for a timing system configured to receive clock information from a satellite system, the outdoor device comprising: - a receiver configured to receive the clock information from the satellite system, - a processing system configured to run master functionality of a clock synchronization protocol to transfer the clock information to an indoor device of the timing system, and - a transceiver configured to transfer, via a data transfer link, data between the outdoor device and the indoor device in accordance with the clock synchronization protocol, characterized in that the outdoor device comprises a memory device configured to store a fixed delay value estimating a time delay from a moment of reception (T_RX_req) of a request message related to the clock synchronization protocol at the transceiver to a moment of transmission (T_TX_res) of a reply message from the transceiver, and the processing system is configured to include the fixed delay value into the reply message to be transmitted. - a receiver configured to receive the clock information from the satellite system, - a processing system configured to run master functionality of a clock synchronization protocol to transfer the clock information to an indoor device of the timing system, and - a transceiver configured to transfer, via a data transfer link, data between the outdoor device and the indoor device in accordance with the clock synchronization protocol,
A method of detecting a target polynucleotide in a sample comprising: (a) contacting the sample with: (i) a first guide polynucleotide that binds to a first sequence in the target polynucleotide and a first polynucleotide-guided effector protein, wherein the first guide polynucleotide has an adaptor attached thereto; and (ii) a second guide polynucleotide that binds to a second sequence in the target polynucleotide and a second polynucleotide-guided effector protein, wherein the second guide polynucleotide or the second polynucleotide-guided effector protein has a membrane anchor capable of coupling to a membrane attached thereto, wherein the guide polynucleotides and polynucleotide-guided effector proteins form a complex with any target polynucleotide present in the sample; (b) contacting the sample with a membrane comprising a transmembrane pore, wherein the second polynucleotide-guided effector protein tethers to the membrane via its membrane anchor; (c) applying a potential difference across the membrane; and (d) monitoring for the presence or absence of an effect resulting from the interaction of the complex with the transmembrane pore to determine the presence or absence of the complex, thereby detecting the target polynucleotide in the sample. (a) contacting the sample with: (i) a first guide polynucleotide that binds to a first sequence in the target polynucleotide and a first polynucleotide-guided effector protein, wherein the first guide polynucleotide has an adaptor attached thereto; and (ii) a second guide polynucleotide that binds to a second sequence in the target polynucleotide and a second polynucleotide-guided effector protein, wherein the second guide polynucleotide or the second polynucleotide-guided effector protein has a membrane anchor capable of coupling to a membrane attached thereto, wherein the guide polynucleotides and polynucleotide-guided effector proteins form a complex with any target polynucleotide present in the sample; (i) a first guide polynucleotide that binds to a first sequence in the target polynucleotide and a first polynucleotide-guided effector protein, wherein the first guide polynucleotide has an adaptor attached thereto; and (ii) a second guide polynucleotide that binds to a second sequence in the target polynucleotide and a second polynucleotide-guided effector protein, wherein the second guide polynucleotide or the second polynucleotide-guided effector protein has a membrane anchor capable of coupling to a membrane attached thereto, (b) contacting the sample with a membrane comprising a transmembrane pore, wherein the second polynucleotide-guided effector protein tethers to the membrane via its membrane anchor; (c) applying a potential difference across the membrane; and (d) monitoring for the presence or absence of an effect resulting from the interaction of the complex with the transmembrane pore to determine the presence or absence of the complex, thereby detecting the target polynucleotide in the sample.
A method of improved hybrid automatic repeat request, HARQ, retransmissions of data streams in a node in a multiple-input multiple-output, MIMO, wireless communication system having a plurality of available MIMO links associated with transmit-receive antenna pairs of the MIMO wireless communication system, the method comprising: transmitting (S1) data across a plurality of available MIMO links according to a predetermined rank and radio resource allocation, wherein each of the plurality of available MIMO links occupies one rank in a signal space of the MIMO system; receiving (S2) a retransmission request for at least part of the transmitted data; reducing (S3) the rank for the retransmissions by selecting a subset of the plurality of available MIMO links; adaptively re-allocating (S4) available radio resources to said subset by at least reassigning pilot space to the subset of the plurality of available MIMO links; and retransmitting (S5) the requested data on said selected subset according to the reduced rank and radio resource re-allocation, wherein, the reallocation comprises spatial domain hopping. transmitting (S1) data across a plurality of available MIMO links according to a predetermined rank and radio resource allocation, wherein each of the plurality of available MIMO links occupies one rank in a signal space of the MIMO system; receiving (S2) a retransmission request for at least part of the transmitted data; reducing (S3) the rank for the retransmissions by selecting a subset of the plurality of available MIMO links; adaptively re-allocating (S4) available radio resources to said subset by at least reassigning pilot space to the subset of the plurality of available MIMO links; and retransmitting (S5) the requested data on said selected subset according to the reduced rank and radio resource re-allocation, wherein, the reallocation comprises spatial domain hopping.
Open roof construction for a vehicle , comprising a panel and a moving mechanism intended for moving the panel between different positions, wherein the moving mechanism comprises at least a movable lever to which, by means of a pin-like member , a slide shoe is connected that, for defining a movement of the movable lever, cooperates with and moves longitudinally along a guide , wherein the pin-like member at a first end is connected to said lever and at a second end is connected to said slide shoe and wherein the guide is provided with two guide parts at opposite sides of the pin-like member , whereas the slide shoe is provided with two slide shoe parts at opposite sides of the pin-like member, such as to define two opposite pairs (12,14;13,15) of cooperating guide part and slide shoe part, and wherein the pin-like member at its second end is provided with an enlarged head intended for engaging the slide shoe at a side thereof facing away from the lever , wherein the dimensions of the enlarged head are such that, as seen in a direction from the enlarged head towards the lever, at least part of said enlarged head overlaps at least one guide part , characterized in that at least one pair (12,14;13,15) of cooperating guide part and slide shoe part is located between the enlarged head and the lever .
A dispensing device for dispensing material, comprising: a dispensing head ; a capsule magazine , including at least one void; at least one material capsule , having a tubular shape, a distal end and a proximal end, wherein the at least one material capsule is disposed within the at least one void in the capsule magazine ; a motor , operable to provide mechanical power for material dispensing operations, wherein the motor is disposed within the dispensing head ; and a gear mechanically connected to the motor , wherein the gear is further disposed in connection with the at least one material capsule such that operation of the motor causes rotation of the gear and, in turn, rotation of the at least one materia capsule ; characterized in that said at least one material capsule comprises: a. distal end cap located at said distal end of said at least one material capsule and comprising a dispensing element comprising a first face and a second face; said first face facing material located inside of said at least one material capsule ; b. a pusher configured to compact said material into a single bulk material; characterized in that said dispensing element comprises an extending scraping blade located on said first face; and said rotation of said at least one material capsule causes a rotation of said single bulk material against said extending scraping blade to knock loose a calibrated unit of said single bulk material. a dispensing head ; a capsule magazine , including at least one void; at least one material capsule , having a tubular shape, a distal end and a proximal end, wherein the at least one material capsule is disposed within the at least one void in the capsule magazine ; a motor , operable to provide mechanical power for material dispensing operations, wherein the motor is disposed within the dispensing head ; and a gear mechanically connected to the motor , wherein the gear is further disposed in connection with the at least one material capsule such that operation of the motor causes rotation of the gear and, in turn, rotation of the at least one materia capsule ; characterized in that said at least one material capsule comprises: a. distal end cap located at said distal end of said at least one material capsule and comprising a dispensing element comprising a first face and a second face; said first face facing material located inside of said at least one material capsule ; b. a pusher configured to compact said material into a single bulk material; a. distal end cap located at said distal end of said at least one material capsule and comprising a dispensing element comprising a first face and a second face; said first face facing material located inside of said at least one material capsule ; b. a pusher configured to compact said material into a single bulk material; characterized in that said dispensing element comprises an extending scraping blade located on said first face; and said rotation of said at least one material capsule causes a rotation of said single bulk material against said extending scraping blade to knock loose a calibrated unit of said single bulk material.
A compressor , comprising: a casing at least partially defining a discharge cavity and a seal cavity ; a rotary shaft disposed in the casing ; a shaft seal assembly disposed in the seal cavity and radially outward from the rotary shaft ; an impeller coupled with and configured to be driven by the rotary shaft ; a balance piston integral with the impeller and at least partially defining the discharge cavity and the seal cavity ; a balance piston seal disposed radially outward from the balance piston such that the balance piston seal and the balance piston define a radial clearance therebetween, the radial clearance being configured to provide fluid communication from the impeller to the discharge cavity ; and a heat shield disposed in the discharge cavity and configured to prevent the conduction of heat from the discharge cavity to the seal cavity via the casing , wherein the heat shield is disposed proximal to an inner surface of the casing such that the heat shield and the inner surface define a cooling gap therebetween, characterized in that the compressor further comprises a cooling fluid source in fluid communication with a first end portion of the cooling gap and configured to direct a cooling fluid to the cooling gap . a casing at least partially defining a discharge cavity and a seal cavity ; a rotary shaft disposed in the casing ; a shaft seal assembly disposed in the seal cavity and radially outward from the rotary shaft ; an impeller coupled with and configured to be driven by the rotary shaft ; a balance piston integral with the impeller and at least partially defining the discharge cavity and the seal cavity ; a balance piston seal disposed radially outward from the balance piston such that the balance piston seal and the balance piston define a radial clearance therebetween, the radial clearance being configured to provide fluid communication from the impeller to the discharge cavity ; and a heat shield disposed in the discharge cavity and configured to prevent the conduction of heat from the discharge cavity to the seal cavity via the casing , wherein the heat shield is disposed proximal to an inner surface of the casing such that the heat shield and the inner surface define a cooling gap therebetween, characterized in that the compressor further comprises a cooling fluid source in fluid communication with a first end portion of the cooling gap and configured to direct a cooling fluid to the cooling gap .
A nucleotide molecule comprising an engineered immunoglobulin heavy chain diversity (D H ) region ("engineered D H region") comprising: (i) an engineered D H gene segment comprising a D H gene segment immediately adjacent to a 23-mer RSS ("engineered D H gene segment") and (ii) an unrearranged D H gene segment flanked on its 5' side by a first 12-mer RSS and on its 3' side by a second 12-mer RSS ("unrearranged D H gene segment"), wherein (i) the engineered D H gene segment and (ii) the unrearranged D H gene segment are operably linked such that (i) the engineered D H gene segment and (ii) the unrearranged D H gene segment are able to join in a D H -D H recombination event according to the 12/23 rule, wherein the nucleotide molecule is suitable for obtaining rodents having the engineered D H region, and optionally wherein the engineered D H region comprises only human D H gene segments. (i) an engineered D H gene segment comprising a D H gene segment immediately adjacent to a 23-mer RSS ("engineered D H gene segment") and (ii) an unrearranged D H gene segment flanked on its 5' side by a first 12-mer RSS and on its 3' side by a second 12-mer RSS ("unrearranged D H gene segment"), wherein (i) the engineered D H gene segment and (ii) the unrearranged D H gene segment are operably linked such that (i) the engineered D H gene segment and (ii) the unrearranged D H gene segment are able to join in a D H -D H recombination event according to the 12/23 rule, wherein the nucleotide molecule is suitable for obtaining rodents having the engineered D H region, and optionally wherein the engineered D H region comprises only human D H gene segments.
A method for determining particulate emissions (PE) at an outlet of a gasoline engine , the method comprising: determining a logarithmic particulate emission value (LPE) at the engine outlet by means of a dynamic machine-learning-based model , using parameters (RS,AMF,AFR) associated with an engine operating state as an input; the parameters associated with the engine operating state comprising engine rotational speed, air-mass flow, and air-fuel ratio; applying an exponential function to the determined logarithmic particulate emission value (LPE) to yield the particulate emissions (PE) at the engine outlet ; the machine-learning-based model being trained to determine logarithmic particulate emission values (LPE) at an outlet of a gasoline engine using a training method with a training dataset (D) and a loss function; the training dataset comprising parameters associated with an engine operating state, as an input, and logarithmic particulate emission values (LPE) at the engine outlet obtained by applying a logarithm function to measured particulate emission values (PE) at the engine outlet, as ground truth; an output of the loss function being based on a difference between a logarithm of measured values of the particulate emission values at the engine outlet and outputted values of the particulate emission values at the engine outlet outputted by the dynamic machine-learning-based unit . determining a logarithmic particulate emission value (LPE) at the engine outlet by means of a dynamic machine-learning-based model , using parameters (RS,AMF,AFR) associated with an engine operating state as an input; the parameters associated with the engine operating state comprising engine rotational speed, air-mass flow, and air-fuel ratio; applying an exponential function to the determined logarithmic particulate emission value (LPE) to yield the particulate emissions (PE) at the engine outlet ; the machine-learning-based model being trained to determine logarithmic particulate emission values (LPE) at an outlet of a gasoline engine using a training method with a training dataset (D) and a loss function; the training dataset comprising parameters associated with an engine operating state, as an input, and logarithmic particulate emission values (LPE) at the engine outlet obtained by applying a logarithm function to measured particulate emission values (PE) at the engine outlet, as ground truth; an output of the loss function being based on a difference between a logarithm of measured values of the particulate emission values at the engine outlet and outputted values of the particulate emission values at the engine outlet outputted by the dynamic machine-learning-based unit .