mhurhangee/patent-ind-claim-en huggingface dataset:
A compound represented by: or wherein: E is S or NR 10 ; R 2 -R 9 are individually H, F, Cl, Br, I, CN, OR 11 , SR 11 , NO 2 , alkyl, alkoxy, aryl, amino, or any two adjacent groups of R 2 -R 9 may join to form a monocyclic, polycyclic, or heterocyclic group; each R 11 is individually H or alkyl; R 12 is an alkylene group; R 1 and R 10 are individually represented by: or R 15 -R 18 are individually H or alkyl; n is 1, 2, 3, 4, 5, 6, 7, 8, 9, 10, 11, or 12; n' is 1, 2, 3, 4, 5, 6, 7, 8, 9, 10, 11, or 12; and x is 1, 2, 3, 4, 5, 6, 7, 8, 9, 10, 11, or 12. E is S or NR 10 ; R 2 -R 9 are individually H, F, Cl, Br, I, CN, OR 11 , SR 11 , NO 2 , alkyl, alkoxy, aryl, amino, or any two adjacent groups of R 2 -R 9 may join to form a monocyclic, polycyclic, or heterocyclic group; each R 11 is individually H or alkyl; R 12 is an alkylene group; R 1 and R 10 are individually represented by: or R 15 -R 18 are individually H or alkyl; n is 1, 2, 3, 4, 5, 6, 7, 8, 9, 10, 11, or 12; n' is 1, 2, 3, 4, 5, 6, 7, 8, 9, 10, 11, or 12; and x is 1, 2, 3, 4, 5, 6, 7, 8, 9, 10, 11, or 12.
An electronic marking for the verification of the authenticity of an object, comprising: an antenna , an analogue transceiver circuit , a microcontroller , and at least one secure cryptoprocessor , wherein the antenna is connected to the analogue transceiver circuit , wherein the microcontroller is connected to the analogue transceiver circuit and to the at least one secure cryptoprocessor , and wherein the at least one secure cryptoprocessor is configured for securely generating a digital signature, wherein the electronic marking comprises one or more electrical sensor lines , wherein the at least one secure cryptoprocessor is connected to at least one of the sensor lines , and is configured for determining at least one electrical property of the at least one connected sensor line, characterised in that the one or more electrical sensor lines are distinct from the antenna , and are arranged at least partly overlapping with the antenna . an antenna , an analogue transceiver circuit , a microcontroller , and at least one secure cryptoprocessor , wherein the antenna is connected to the analogue transceiver circuit , wherein the microcontroller is connected to the analogue transceiver circuit and to the at least one secure cryptoprocessor , and wherein the at least one secure cryptoprocessor is configured for securely generating a digital signature, wherein the electronic marking comprises one or more electrical sensor lines , wherein the at least one secure cryptoprocessor is connected to at least one of the sensor lines , and is configured for determining at least one electrical property of the at least one connected sensor line, characterised in that the one or more electrical sensor lines are distinct from the antenna , and are arranged at least partly overlapping with the antenna .
A system for transporting persons, comprising: a rail-guided drive unit comprising a guide device and at least one bogie arranged on the guide device ; at least one vehicle with at least one passenger carrier coupled to and moved by said drive unit on/in water and/or on land, said drive unit pulling and/or pushing said vehicle ; and a connection unit between the drive unit and the vehicle, wherein the drive unit is arranged laterally and/or above the vehicle , and the connection unit is configured in such a way that the vehicle can perform at least one rotational movement relative to the drive unit , so that the vehicle can swing out and/or drift obliquely or laterally relative to a direction of travel with respect to a path (F) determined by the guide device , characterized in that the vehicle can execute a translational movement (z) oriented transversely or perpendicularly to the direction of travel upwards and/or downwards relative to a travel surface. a rail-guided drive unit comprising a guide device and at least one bogie arranged on the guide device ; at least one vehicle with at least one passenger carrier coupled to and moved by said drive unit on/in water and/or on land, said drive unit pulling and/or pushing said vehicle ; and a connection unit between the drive unit and the vehicle, wherein the drive unit is arranged laterally and/or above the vehicle , and the connection unit is configured in such a way that the vehicle can perform at least one rotational movement relative to the drive unit , so that the vehicle can swing out and/or drift obliquely or laterally relative to a direction of travel with respect to a path (F) determined by the guide device , characterized in that the vehicle can execute a translational movement (z) oriented transversely or perpendicularly to the direction of travel upwards and/or downwards relative to a travel surface.
Supporting device for two transmissions , having a first supporting flange which can be coupled with a first of the transmissions , having a second supporting flange which can be coupled with the second transmission , and having at least one support via which a supporting force can be transmitted from the first supporting flange to the second supporting flange , wherein the at least one support has: - a lever element which is coupled in an articulated manner with an attachment element provided on the first supporting flange and thus in an articulated manner with the first supporting flange ; and - a supporting element which is coupled in an articulated manner with the lever element and connected to the second supporting flange ; characterized in that : - the attachment element has two attachment parts spaced apart from one another; - the supporting element has two supporting parts spaced apart from one another; and - the lever element is arranged partly between the attachment parts and partly between the supporting parts and is coupled in an articulated manner with the attachment element via the attachment parts and in an articulated manner with the supporting element via the supporting parts . - a lever element which is coupled in an articulated manner with an attachment element provided on the first supporting flange and thus in an articulated manner with the first supporting flange ; and - a supporting element which is coupled in an articulated manner with the lever element and connected to the second supporting flange ; - the attachment element has two attachment parts spaced apart from one another; - the supporting element has two supporting parts spaced apart from one another; and - the lever element is arranged partly between the attachment parts and partly between the supporting parts and is coupled in an articulated manner with the attachment element via the attachment parts and in an articulated manner with the supporting element via the supporting parts .
A method of controlling a digital printer having a print head with an array of printing elements , the print head being arranged to scan a recording medium in a main scanning direction (B), and the print head and the recording medium being arranged to be moved relative to one another in a sub-scanning direction (A) normal to the main scanning direction (B), the printer being arranged to operate in a selected one of a plurality of print modes which differ in productivity due to differences in a pattern of scan passes in which the array of printing elements moves over the recording medium, the printer further having a failure detection system arranged to detect malfunctioning printing elements, and a failure compensation system arranged to compensate a malfunction of a printing element by activating at least one other printing element in the array, said method being provided with the steps of: a) establishing a list of print modes sorted by decreasing productivity; b) selecting an initial print mode; c) simulating a print operation in the currently selected print mode and obtaining a count result counting a number of incidents in which a malfunction of a printing element cannot be compensated; d) if the count result is below a given threshold value: keep the selected print mode; e) if not: select the next print mode in the list and repeat steps (c) to (e) for that print mode; f) printing the image with specific image content in the selected print mode, said step (c) being characterized in that it includes simulating a print operation in which an image with specific image content is printed. a) establishing a list of print modes sorted by decreasing productivity; b) selecting an initial print mode; c) simulating a print operation in the currently selected print mode and obtaining a count result counting a number of incidents in which a malfunction of a printing element cannot be compensated; d) if the count result is below a given threshold value: keep the selected print mode; e) if not: select the next print mode in the list and repeat steps (c) to (e) for that print mode; f) printing the image with specific image content in the selected print mode, said step (c) being characterized in that it includes simulating a print operation in which an image with specific image content is printed.
A method of determining the geographic location of a portable electronic device , said portable electronic device comprising a signal receiving unit configured to receive a signal from at least one remote transmitter , and a local positioning unit for determining a local position of the portable electronic device , said method comprising the following steps performed at the portable electronic device: obtaining a plurality of data samples from the signal at different time points during a measurement period with arbitrary movement of the portable electronic device ; associating each data sample with a local position obtained from the local positioning unit to thereby form a synthetic antenna array which associates said each data sample with said local position; obtaining an array response of the synthetic antenna array; and identifying the geographic location of the portable electronic device , by processing the synthetic antenna array as a function of the array response and by using knowledge about the geographic location of the or each transmitter . obtaining a plurality of data samples from the signal at different time points during a measurement period with arbitrary movement of the portable electronic device ; associating each data sample with a local position obtained from the local positioning unit to thereby form a synthetic antenna array which associates said each data sample with said local position; obtaining an array response of the synthetic antenna array; and identifying the geographic location of the portable electronic device , by processing the synthetic antenna array as a function of the array response and by using knowledge about the geographic location of the or each transmitter .
A wireless fidelity, Wi-Fi, connection control method, performed by an electronic device supporting dual Wi-Fi and comprising a Wi-Fi communication module, the electronic device accessing a first access point, AP, and a second AP through the Wi-Fi communication module in a dual Wi-Fi state, a first frequency band of the first AP being different from a second frequency band of the second AP, the method characterized by comprising: detecting (S101, S301) existence of a resource conflict between a third AP and the second AP in response to detecting that the electronic device roams from the first AP to the third AP; and releasing (S102, S204, S302) a connection between the electronic device and the second AP in response to detecting that the resource conflict exists between the third AP and the second AP. detecting (S101, S301) existence of a resource conflict between a third AP and the second AP in response to detecting that the electronic device roams from the first AP to the third AP; and releasing (S102, S204, S302) a connection between the electronic device and the second AP in response to detecting that the resource conflict exists between the third AP and the second AP.
A monoclonal antibody, or an antigen-binding fragment thereof, capable of binding to human IL-1 R7, wherein the antibody comprises a) a VH region of SEQ ID NO: 1189 and comprises a CDR1H region of SEQ ID NO: 309, a CDR2H region of SEQ ID NO: 457 and a CDR3H region of SEQ ID NO: 605, and b) a VL region of SEQ ID NO: 1198 or 1203 and comprises a CDR1L region of SEQ ID NO: 753, a CDR2L region of SEQ ID NO: 901 and a CDR3L region of SEQ ID NO: 1049 or 1205. a) a VH region of SEQ ID NO: 1189 and comprises a CDR1H region of SEQ ID NO: 309, a CDR2H region of SEQ ID NO: 457 and a CDR3H region of SEQ ID NO: 605, and b) a VL region of SEQ ID NO: 1198 or 1203 and comprises a CDR1L region of SEQ ID NO: 753, a CDR2L region of SEQ ID NO: 901 and a CDR3L region of SEQ ID NO: 1049 or 1205.
A system for managing a sensor node , the system comprising, as components: a) a sensor node that is enclosed in a weather resistant case and comprises a sensor unit and an RFID tag that comprises a memory , the sensor unit comprising power supply means to supply power to the sensor node , authentication means to perform authentication of a user terminal based on a telegram written in the memory , and stop instruction means to send a stop command to the power supply means when the authentication fails; and b) a user terminal that comprises generation means to generate the telegram, and an RFID reader/writer, wherein the power supply means is started up and allowed to be in an ON state by power generated by the RFID tag due to proximity of the user terminal , and is stopped and allowed to be in an OFF state by receiving the stop command. a) a sensor node that is enclosed in a weather resistant case and comprises a sensor unit and an RFID tag that comprises a memory , the sensor unit comprising power supply means to supply power to the sensor node , authentication means to perform authentication of a user terminal based on a telegram written in the memory , and stop instruction means to send a stop command to the power supply means when the authentication fails; and b) a user terminal that comprises generation means to generate the telegram, and an RFID reader/writer, wherein the power supply means is started up and allowed to be in an ON state by power generated by the RFID tag due to proximity of the user terminal , and is stopped and allowed to be in an OFF state by receiving the stop command.
A system of a dental restoration part or several dental restoration parts, and/or with a dental restoration part which is possibly embedded in a muffle, and a cooling device, characterized in that the cooling device comprises cooling bodies as bulk material and a movement device by means of which cooling bodies and the dental restoration part(s) are movable relative to one another, and in that a closed or open vessel receives the cooling bodies and the dental restoration part , wherein in particular the volume of the cooling bodies is at least three times the volume of the dental restoration part , and in that the vessel for receiving the cooling bodies and the dental restoration part, possibly including the muffle, comprises a cooling body support surface which in turn comprises active cooling elements, by means of which the cooling bodies may possibly be after-cooled.
A coolant distribution arrangement (24, 24', 24") for a vehicle propulsion battery cooling system , the cooling system comprising a coolant inlet circuit , a coolant outlet circuit , and at least one coolant branch , configured to cool a set of propulsion battery packs , wherein - the arrangement (24, 24', 24") comprises a first manifold section (22, 22', 22"), which first manifold section (22, 22', 22") comprises: - a coolant inlet (20, 20', 20") configured to receive coolant from the coolant inlet circuit , - at least one supply outlet (28, 28', 28") configured to supply coolant to the at least one coolant branch (30, 37; 30', 37'), wherein the arrangement comprises a second manifold section (32, 32', 32"), which second manifold section (32, 32', 32") comprises: - at least one receiving inlet (36, 36', 36") configured to receive coolant from the at least one coolant branch (30, 37; 30', 37'), - a coolant outlet (38, 38', 38") configured to return coolant to the coolant outlet circuit , and wherein the arrangement (24, 24', 24") comprises a deairing connection (44, 44', 44") between the first manifold section (22, 22', 22") and the second manifold section (32, 32', 32") configured to evacuate air from the first manifold section (22, 22', 22") to the second manifold section (32, 32', 32"), characterized in that the first and the second manifold sections are discrete components and wherein the deairing connection comprises a separate conduit. - the arrangement (24, 24', 24") comprises a first manifold section (22, 22', 22"), which first manifold section (22, 22', 22") comprises: - a coolant inlet (20, 20', 20") configured to receive coolant from the coolant inlet circuit , - at least one supply outlet (28, 28', 28") configured to supply coolant to the at least one coolant branch (30, 37; 30', 37'), wherein the arrangement comprises a second manifold section (32, 32', 32"), which second manifold section (32, 32', 32") comprises: - at least one receiving inlet (36, 36', 36") configured to receive coolant from the at least one coolant branch (30, 37; 30', 37'), - a coolant outlet (38, 38', 38") configured to return coolant to the coolant outlet circuit , and - at least one receiving inlet (36, 36', 36") configured to receive coolant from the at least one coolant branch (30, 37; 30', 37'), - a coolant outlet (38, 38', 38") configured to return coolant to the coolant outlet circuit , and wherein the arrangement (24, 24', 24") comprises a deairing connection (44, 44', 44") between the first manifold section (22, 22', 22") and the second manifold section (32, 32', 32") configured to evacuate air from the first manifold section (22, 22', 22") to the second manifold section (32, 32', 32"), characterized in that the first and the second manifold sections are discrete components and wherein the deairing connection comprises a separate conduit.
A method of detecting a genomic fusion event, comprising: a. contacting a sample comprising DNA molecules of interest (DMOIs) with a pool of at least 20 region-specific forward primers and a pool of at least 20 region-specific reverse primers, wherein: i. each of the forward primers in the forward primer pool comprises a sequence specific for a first region of interest and a first primer binding site; ii. each of the reverse primers in the reverse primer pool comprises a sequence specific for a second, different, region of interest and a second primer binding site; and iii. wherein the forward and reserve primers tile their respective regions at intervals of up to about 100 base pairs; b. amplifying the DMOIs using the region-specific primers; c. conducting PCR using forward primers that target the first primer binding site and reverse primers that target the second primer binding site; d. sequencing the PCR amplification product to provide a library of sequence reads, wherein the sequence reads comprise the sequence of a forward and/or reverse primer used in step (a); e. using the sequence reads provided in step (d) to determine the sequence of the genomic fusion between the first and second regions of interest. a. contacting a sample comprising DNA molecules of interest (DMOIs) with a pool of at least 20 region-specific forward primers and a pool of at least 20 region-specific reverse primers, wherein: i. each of the forward primers in the forward primer pool comprises a sequence specific for a first region of interest and a first primer binding site; ii. each of the reverse primers in the reverse primer pool comprises a sequence specific for a second, different, region of interest and a second primer binding site; and iii. wherein the forward and reserve primers tile their respective regions at intervals of up to about 100 base pairs; i. each of the forward primers in the forward primer pool comprises a sequence specific for a first region of interest and a first primer binding site; ii. each of the reverse primers in the reverse primer pool comprises a sequence specific for a second, different, region of interest and a second primer binding site; and iii. wherein the forward and reserve primers tile their respective regions at intervals of up to about 100 base pairs; b. amplifying the DMOIs using the region-specific primers; c. conducting PCR using forward primers that target the first primer binding site and reverse primers that target the second primer binding site; d. sequencing the PCR amplification product to provide a library of sequence reads, wherein the sequence reads comprise the sequence of a forward and/or reverse primer used in step (a); e. using the sequence reads provided in step (d) to determine the sequence of the genomic fusion between the first and second regions of interest.
A polypeptide having hemicellulase activity which comprises the amino acid sequence set out in SEQ ID NO: 37 or an amino acid sequence encoded by the nucleotide sequence of SEQ ID NO: 36, SEQ ID NO: 39 or a variant polypeptide or variant polynucleotide thereof, wherein the variant polypeptide has at least 85% sequence identity with the sequence set out in SEQ ID NO: 37, or the variant polynucleotide encodes a polypeptide that has at least 85% sequence identity with the sequence set out in SEQ ID NO: 37, wherein the polypeptide or variant polypeptide has alpha-arabinofuranosidase activity.
An aircraft comprising: ductwork including: a cabin recirculation vent disposed to draw air from an aircraft cabin ; a riser defining a return conduit , or a portion thereof, for recirculating air to the aircraft cabin , the return conduit disposed to convey air from the cabin recirculation vent ; characterized by a thermoelectric heat pump having a first side and a second side , the first side in thermal contact with the return conduit that transfers heat to the second side upon application of an electrical input; and an exhaust defining an exhaust conduit joined with the ductwork disposed to expel air from the cabin recirculation vent offboard the aircraft , and the second side is in thermal contact with the exhaust conduit and transfers heat to the exhaust conduit; and wherein the cabin recirculation vent is divided by the thermoelectric heat pump defining a riser vent portion associated with the riser and an exhaust vent portion associated with the exhaust. ductwork including: a cabin recirculation vent disposed to draw air from an aircraft cabin ; a riser defining a return conduit , or a portion thereof, for recirculating air to the aircraft cabin , the return conduit disposed to convey air from the cabin recirculation vent ; characterized by a cabin recirculation vent disposed to draw air from an aircraft cabin ; a riser defining a return conduit , or a portion thereof, for recirculating air to the aircraft cabin , the return conduit disposed to convey air from the cabin recirculation vent ; characterized by a thermoelectric heat pump having a first side and a second side , the first side in thermal contact with the return conduit that transfers heat to the second side upon application of an electrical input; and an exhaust defining an exhaust conduit joined with the ductwork disposed to expel air from the cabin recirculation vent offboard the aircraft , and the second side is in thermal contact with the exhaust conduit and transfers heat to the exhaust conduit; and wherein the cabin recirculation vent is divided by the thermoelectric heat pump defining a riser vent portion associated with the riser and an exhaust vent portion associated with the exhaust.