mhurhangee/patent-ind-claim-en huggingface dataset:
A yeast cell having the following characteristics and genotypes: characteristic II: capable of utilizing panose as sole carbon source; and genotype IV: comprising at least 3 genes encoding IMA1p, wherein IMA1p is selected from the group consisting of IMA1p of SEQ ID NO:12, IMA1p of SEQ ID NO:13, IMA1p of SEQ ID NO:14, IMA1p of SEQ ID NO:15, IMA1p of SEQ ID NO:21, IMA1p of SEQ ID NO:22, IMA1p of SEQ ID NO:23, IMA1p of SEQ ID NO:24, IMA1p of SEQ ID NO:25 and functional homologues of any of the aforementioned sharing at least 80%, preferably at least 90%, yet more preferably at least 95%, such as at least 98% sequence identity therewith; and genotype VI: comprising at least 2 genes encoding AGT1 selected from the group consisting of AGT1 of SEQ ID NO:18, AGT1 of SEQ ID NO:19, AGT1 of SEQ ID NO:20, AGT1 of SEQ ID NO:27, AGT1 of SEQ ID NO:28, AGT1 of SEQ ID NO:30, AGT1 of SEQ ID NO:31, AGT1 of SEQ ID NO:32 and functional homologues of any of the aforementioned sharing at least 80%, preferably at least 90%, yet more preferably at least 95%, such as at least 98% sequence identity therewith; and characteric VIII: capable of utilizing melibiose as the sole carbon source. characteristic II: capable of utilizing panose as sole carbon source; and genotype IV: comprising at least 3 genes encoding IMA1p, wherein IMA1p is selected from the group consisting of IMA1p of SEQ ID NO:12, IMA1p of SEQ ID NO:13, IMA1p of SEQ ID NO:14, IMA1p of SEQ ID NO:15, IMA1p of SEQ ID NO:21, IMA1p of SEQ ID NO:22, IMA1p of SEQ ID NO:23, IMA1p of SEQ ID NO:24, IMA1p of SEQ ID NO:25 and functional homologues of any of the aforementioned sharing at least 80%, preferably at least 90%, yet more preferably at least 95%, such as at least 98% sequence identity therewith; and genotype VI: comprising at least 2 genes encoding AGT1 selected from the group consisting of AGT1 of SEQ ID NO:18, AGT1 of SEQ ID NO:19, AGT1 of SEQ ID NO:20, AGT1 of SEQ ID NO:27, AGT1 of SEQ ID NO:28, AGT1 of SEQ ID NO:30, AGT1 of SEQ ID NO:31, AGT1 of SEQ ID NO:32 and functional homologues of any of the aforementioned sharing at least 80%, preferably at least 90%, yet more preferably at least 95%, such as at least 98% sequence identity therewith; and characteric VIII: capable of utilizing melibiose as the sole carbon source.
Gripper for a picking device having horizontal shelves for storing small piece goods, comprising: a deposit table which extends in a first horizontal direction (X direction) and a second horizontal direction (Y direction) which is orthogonal to the first horizontal direction and has at least one end portion having a dispensing end face , wherein the deposit table and the end portion define an upper support surface , a transport device arranged above the deposit table and movable in the first horizontal direction for moving small piece goods from a horizontal shelf to the deposit table , characterized in that the gripper further comprises: at least one sensor device coupled to a control device and arranged in the at least one end portion having detection regions DBx associated therewith, wherein the sensor device is arranged along a vertical Z axis in such a way that the detection regions DBx cover a vertically extending space DB1-DBn in front of the dispensing end face and wherein the control device is designed in such a way that the alignment of the gripper on a horizontal shelf can be determined by evaluating the sensor device, wherein the sensor device is arranged centrally in the end portion in relation to the Y direction. a deposit table which extends in a first horizontal direction (X direction) and a second horizontal direction (Y direction) which is orthogonal to the first horizontal direction and has at least one end portion having a dispensing end face , wherein the deposit table and the end portion define an upper support surface , a transport device arranged above the deposit table and movable in the first horizontal direction for moving small piece goods from a horizontal shelf to the deposit table , characterized in that the gripper further comprises: at least one sensor device coupled to a control device and arranged in the at least one end portion having detection regions DBx associated therewith, wherein the sensor device is arranged along a vertical Z axis in such a way that the detection regions DBx cover a vertically extending space DB1-DBn in front of the dispensing end face and wherein the control device is designed in such a way that the alignment of the gripper on a horizontal shelf can be determined by evaluating the sensor device, wherein the sensor device is arranged centrally in the end portion in relation to the Y direction. at least one sensor device coupled to a control device and arranged in the at least one end portion having detection regions DBx associated therewith, wherein the sensor device is arranged along a vertical Z axis in such a way that the detection regions DBx cover a vertically extending space DB1-DBn in front of the dispensing end face and wherein the control device is designed in such a way that the alignment of the gripper on a horizontal shelf can be determined by evaluating the sensor device, wherein the sensor device is arranged centrally in the end portion in relation to the Y direction.
A User Equipment, UE, comprising: a controller configured to perform an attach procedure in an Evolved Packet System, EPS, and a transmission and/or reception unit, wherein in a procedure to establish a Packet Data Network, PDN, connection in the EPS, the transmission and/or reception unit is configured to: transmit a PDN connectivity request to a Mobility Management Entity, MME; and receive first information in an ACTIVATE DEFAULT EPS BEARER CONTEXT REQUEST message from the MME, wherein the first information indicates that the PDN connection is available only for control plane Cellular IoT Evolved Packet System, CIoT EPS, optimization, the controller is configured to perform mapping between a Protocol Data Unit, PDU, session in a fifth generation system, 5GS, and the PDN connection according to the first information, and the mapping is performed in a case that the PDN connection is established in the EPS in a handover of the UE from the EPS to the 5GS. a controller configured to perform an attach procedure in an Evolved Packet System, EPS, and a transmission and/or reception unit, wherein in a procedure to establish a Packet Data Network, PDN, connection in the EPS, the transmission and/or reception unit is configured to: transmit a PDN connectivity request to a Mobility Management Entity, MME; and receive first information in an ACTIVATE DEFAULT EPS BEARER CONTEXT REQUEST message from the MME, wherein the first information indicates that the PDN connection is available only for control plane Cellular IoT Evolved Packet System, CIoT EPS, optimization, the controller is configured to perform mapping between a Protocol Data Unit, PDU, session in a fifth generation system, 5GS, and the PDN connection according to the first information, and the mapping is performed in a case that the PDN connection is established in the EPS in a handover of the UE from the EPS to the 5GS. transmit a PDN connectivity request to a Mobility Management Entity, MME; and receive first information in an ACTIVATE DEFAULT EPS BEARER CONTEXT REQUEST message from the MME, wherein the first information indicates that the PDN connection is available only for control plane Cellular IoT Evolved Packet System, CIoT EPS, optimization, the controller is configured to perform mapping between a Protocol Data Unit, PDU, session in a fifth generation system, 5GS, and the PDN connection according to the first information, and the mapping is performed in a case that the PDN connection is established in the EPS in a handover of the UE from the EPS to the 5GS.
A zirconia-binding peptide represented by the amino acid sequence of SEQ ID NO: 1.
Production method for hydrocarbons contained in an underground formation passed through by at least one well, characterized in that the following steps are carried out: - a computer is used to construct a numerical model of said underground formation comprising a meshing, and by taking into account at least petrophysical data applied to the meshes, and the characteristics of at least one well passing through said underground formation, - a function of pressure and temperature dependencies of the permeabilities taken into account in said model is determined, said function of pressure and temperature dependencies of the permeabilities taken into account in said model comprising permeability multipliers Mult i (T,P) , in order to have an effective permeability K e i ff T P = Mult i (T,P) ∗ K i , Ki being obtained in the numerical model constructed in the preceding step, - a model of productivity index as a function of the permeability of said meshes is determined, according to: IP K eff = 2 ⁢ π K eff x K eff y h ln r 0 r w + s with the thickness perpendicular to the flow h , well radius r w , drainage radius r 0 and skin factor s , - for at least one mesh of said model, a pressure and temperature dependent productivity index is determined, by taking into account said functions of pressure and temperature dependencies of the permeabilities, and said productivity index model, and - said underground formation is exploited as a function of said productivity index. - a computer is used to construct a numerical model of said underground formation comprising a meshing, and by taking into account at least petrophysical data applied to the meshes, and the characteristics of at least one well passing through said underground formation, - a function of pressure and temperature dependencies of the permeabilities taken into account in said model is determined, said function of pressure and temperature dependencies of the permeabilities taken into account in said model comprising permeability multipliers Mult i (T,P) , in order to have an effective permeability K e i ff T P = Mult i (T,P) ∗ K i , Ki being obtained in the numerical model constructed in the preceding step, - a model of productivity index as a function of the permeability of said meshes is determined, according to: IP K eff = 2 ⁢ π K eff x K eff y h ln r 0 r w + s with the thickness perpendicular to the flow h , well radius r w , drainage radius r 0 and skin factor s , - for at least one mesh of said model, a pressure and temperature dependent productivity index is determined, by taking into account said functions of pressure and temperature dependencies of the permeabilities, and said productivity index model, and - said underground formation is exploited as a function of said productivity index.
An electrode arrangement for forming a dielectric barrier plasma discharge between a flat surface of the electrode arrangement and a surface to be treated which functions as a counterelectrode and on which a fluid can collect, comprising a flat electrode which can be connected to a high voltage source by means of a connector and which is completely embedded in a flat dielectric , except for the connector for the high voltage source, wherein the dielectric forms a top surface and a bottom surface being a flat surface, facing the surface to be treated, characterized in that the flat electrode has through-holes distributed over its plane, and the dielectric is provided with through-holes which extend from the bottom surface to the top surface , align with the through-holes of the electrode , and have smaller dimensions than the through-holes of the electrode , whereby the dielectric completely covers the electrode also in the region of the through-holes .
An exhaust nozzle assembly for a gas turbine engine having a centre axis , said assembly comprising: concentrically arranged inner mixer and outer exhaust nozzles, the exhaust nozzle extending axially downstream of said mixer nozzle , a centre-body axially mounted within and extending axially downstream from the mixer nozzle; a core flow duct defined by the mixer nozzle and the centre-body, the core flow duct having a core exit area (A HOT ); an exhaust duct defined at least in part by the exhaust nozzle downstream of the mixer nozzle, the exhaust duct having an exhaust exit area (A 8 ); and an actuation mechanism; wherein the mixer nozzle comprises a mixer cowl which defines the core exit area and is axially-translatable along the centre axis and wherein the exhaust nozzle comprises an exhaust cowl which defines the exhaust exit area and is either axially-translatable along or angularly-adjustable relative to the centre axis; and wherein the mixer cowl and exhaust cowl are movable by the actuation mechanism between a first position in which the core exit area and exhaust exit area are maximum and a second position in which the core exit area and exhaust exit area are minimum. concentrically arranged inner mixer and outer exhaust nozzles, the exhaust nozzle extending axially downstream of said mixer nozzle , a centre-body axially mounted within and extending axially downstream from the mixer nozzle; a core flow duct defined by the mixer nozzle and the centre-body, the core flow duct having a core exit area (A HOT ); an exhaust duct defined at least in part by the exhaust nozzle downstream of the mixer nozzle, the exhaust duct having an exhaust exit area (A 8 ); and an actuation mechanism; wherein the mixer nozzle comprises a mixer cowl which defines the core exit area and is axially-translatable along the centre axis and wherein the exhaust nozzle comprises an exhaust cowl which defines the exhaust exit area and is either axially-translatable along or angularly-adjustable relative to the centre axis; and wherein the mixer cowl and exhaust cowl are movable by the actuation mechanism between a first position in which the core exit area and exhaust exit area are maximum and a second position in which the core exit area and exhaust exit area are minimum.
A method for automating tuning of a multiband compressor so as to minimize loudspeaker distortion, the method comprising: playing one or more test loudspeaker signals that vary in frequency and in amplitude out of a loudspeaker (104-110); recording the responses of the loudspeaker at a microphone (112-118), thereby deriving a microphone signal; measuring a distortion of the loudspeaker, relative to a frequency and an amplitude, using the one or more test loudspeaker signals and the microphone signal; and calculating a plurality of tunable parameters of the multiband compressor that includes a plurality of frequency bands of the one or more test loudspeaker signals and crossover frequencies of the multiband compressor in response to the measured distortion; wherein calculating a plurality of tunable parameters includes calculating a loudness difference between the one or more test loudspeaker signals and the microphone signal, and wherein the tunable parameters are calculated so as to minimize the loudness difference. playing one or more test loudspeaker signals that vary in frequency and in amplitude out of a loudspeaker (104-110); recording the responses of the loudspeaker at a microphone (112-118), thereby deriving a microphone signal; measuring a distortion of the loudspeaker, relative to a frequency and an amplitude, using the one or more test loudspeaker signals and the microphone signal; and calculating a plurality of tunable parameters of the multiband compressor that includes a plurality of frequency bands of the one or more test loudspeaker signals and crossover frequencies of the multiband compressor in response to the measured distortion; wherein calculating a plurality of tunable parameters includes calculating a loudness difference between the one or more test loudspeaker signals and the microphone signal, and wherein the tunable parameters are calculated so as to minimize the loudness difference.
A refrigerator , comprising: a cabinet, comprising a lowermost storage; a top cover , configured to divide the storage liner into a storage space located above and a cooling space located below; an evaporator , arranged in the cooling space, and configured to cool airflow entering the cooling space to form cooled airflow; and an air supply duct , arranged at an inner side of a rear wall of the storage liner , communicating with the cooling space, and configured to deliver at least part of the cooled airflow into the storage space ; wherein the top cover comprises a top cover body and a supporting portion protruding upward from a rear end of the top cover body , a bearing portion protruding forward is formed on a front wall surface of the air supply duct , and the top cover and the air supply duct are arranged such that the supporting portion supports the bearing portion to prevent the air supply duct from falling down, characterized in that the air supply duct comprises an air duct front cover plate and an air duct rear cover plate located at a rear side of the air duct front cover plate , a channel communicating with the cooling space is defined by the air duct front cover plate and the air duct rear cover plate , and the bearing portion is formed on the air duct front cover plate ; and the air duct front cover plate and the air duct rear cover plate are fixed through a screw penetrating through a center of the air supply duct . a cabinet, comprising a lowermost storage; a top cover , configured to divide the storage liner into a storage space located above and a cooling space located below; an evaporator , arranged in the cooling space, and configured to cool airflow entering the cooling space to form cooled airflow; and an air supply duct , arranged at an inner side of a rear wall of the storage liner , communicating with the cooling space, and configured to deliver at least part of the cooled airflow into the storage space ; wherein the top cover comprises a top cover body and a supporting portion protruding upward from a rear end of the top cover body , a bearing portion protruding forward is formed on a front wall surface of the air supply duct , and the top cover and the air supply duct are arranged such that the supporting portion supports the bearing portion to prevent the air supply duct from falling down, characterized in that the air supply duct comprises an air duct front cover plate and an air duct rear cover plate located at a rear side of the air duct front cover plate , a channel communicating with the cooling space is defined by the air duct front cover plate and the air duct rear cover plate , and the bearing portion is formed on the air duct front cover plate ; and the air duct front cover plate and the air duct rear cover plate are fixed through a screw penetrating through a center of the air supply duct .
Cooking appliance for large-capacity kitchens, including large-capacity-kitchen pressure cooker, having a tiltable, pan-shaped cooking vessel which has a substantially rectangular cooking chamber for receiving in particular liquid or partially liquid food to be cooked, wherein the cooking vessel has a base , a front wall , two side walls and a rear wall , wherein each of the walls is formed from an outer side and an inner side spaced apart therefrom, said outer side and inner side being connected to one another by a covering plate forming an upper covering surface , the inner sides of the walls surrounding the cooking chamber , wherein the cooking vessel is mounted rotatably on one side or both sides in appliance supports and is closable by an appliance lid , wherein the front wall of the cooking vessel has a spout recess which forms a pouring-out channel and via which the liquid or partially liquid food to be cooked is poured out, and wherein a drip edge is provided which serves to guide the spout stream of the liquid or partially liquid food away from the outer side of the front wall , characterized in that the drip edge is formed from a longitudinal rail which has a substantially rectangular cross-sectional profile with an upper side which forms an overflow surface and is at least partially bevelled in the flow direction and a lower side running substantially parallel to the upper covering surface , the bevelled upper side extending obliquely downwards in the flow direction. wherein the cooking vessel has a base , a front wall , two side walls and a rear wall , wherein each of the walls is formed from an outer side and an inner side spaced apart therefrom, said outer side and inner side being connected to one another by a covering plate forming an upper covering surface , the inner sides of the walls surrounding the cooking chamber , wherein the cooking vessel is mounted rotatably on one side or both sides in appliance supports and is closable by an appliance lid , wherein the front wall of the cooking vessel has a spout recess which forms a pouring-out channel and via which the liquid or partially liquid food to be cooked is poured out, and wherein a drip edge is provided which serves to guide the spout stream of the liquid or partially liquid food away from the outer side of the front wall , characterized in that the drip edge is formed from a longitudinal rail which has a substantially rectangular cross-sectional profile with an upper side which forms an overflow surface and is at least partially bevelled in the flow direction and a lower side running substantially parallel to the upper covering surface , the bevelled upper side extending obliquely downwards in the flow direction.
A plasma treatment arrangement for carrying out a dielectric barrier plasma discharge on a surface to be treated, comprising a planar electrode unit that has a treatment side, and a control unit which supplies at least one electrode of the electrode unit with a high-voltage AC potential for a power required for generating a plasma between the at least one electrode and a counter electrode that forms a reference potential, wherein the at least one electrode receiving the high-voltage AC potential is shielded by a planar dielectric at least toward the treatment side and wherein the planar electrode unit is formed to mechanically reduce the size of its contact face on the surface to be treated for the adaptation to the size of the surface to be treated, characterized in that the control unit has a device for determining the size of the adapted contact face and a control device for adjusting the power to be output to the at least one electrode on the basis of the determined size of the contact face.