mhurhangee/patent-ind-claim-en huggingface dataset:
A library comprising a plurality of partitions comprising at least 1,000 barcoded beads comprising a plurality of barcode sequences, wherein: each barcoded bead of said at least 1,000 barcoded beads comprises a polynucleotide comprising a different barcode sequence of said plurality of barcode sequences; said at least 1,000 barcoded beads are distributed across said plurality of partitions; said at least 1,000 barcoded beads are partitioned such that each barcoded bead is included in a separate partition; wherein said plurality of partitions contains, on average, less than one barcoded bead per partition; and greater than 5% of said plurality of partitions comprise a barcode sequence of said plurality of barcode sequences. each barcoded bead of said at least 1,000 barcoded beads comprises a polynucleotide comprising a different barcode sequence of said plurality of barcode sequences; said at least 1,000 barcoded beads are distributed across said plurality of partitions; said at least 1,000 barcoded beads are partitioned such that each barcoded bead is included in a separate partition; wherein said plurality of partitions contains, on average, less than one barcoded bead per partition; and greater than 5% of said plurality of partitions comprise a barcode sequence of said plurality of barcode sequences.
An enhanced Circuit Switch Fallback, eCSFB, enabled Heterogeneous Network, HETNET, comprising: a macro access network; a femtocell access network including a single-carrier femtocell access point, 1xFAP, and a co-located single-carrier interworking server, 1xIWS, arranged in an enabled Node B; and a mobile management entity coupled to the macro access network and the femtocell access network, wherein the mobile management entity is configured to tunnel a single-carrier Radio Transmission Technology, 1xRTT, message directly from the 1xIWS to a convergence server over session initiation protocol, SIP, the convergence server serving the macro access network and the femto access network, and wherein the HETNET is configured to provide a correct FAP identification to the convergence server for handover preparation using one of: an FSM/EMS assisted inter-RAT NRT, automated NRT discovery based on user equipment tracking, or multiple target preparation and NRT optimization. a macro access network; a femtocell access network including a single-carrier femtocell access point, 1xFAP, and a co-located single-carrier interworking server, 1xIWS, arranged in an enabled Node B; and a mobile management entity coupled to the macro access network and the femtocell access network, wherein the mobile management entity is configured to tunnel a single-carrier Radio Transmission Technology, 1xRTT, message directly from the 1xIWS to a convergence server over session initiation protocol, SIP, the convergence server serving the macro access network and the femto access network, and wherein the HETNET is configured to provide a correct FAP identification to the convergence server for handover preparation using one of: an FSM/EMS assisted inter-RAT NRT, automated NRT discovery based on user equipment tracking, or multiple target preparation and NRT optimization. an FSM/EMS assisted inter-RAT NRT, automated NRT discovery based on user equipment tracking, or multiple target preparation and NRT optimization.
An apparatus , comprising: an enclosure defining an enclosed cavity ; a thermoelectric component arranged to receive thermal energy and to convert the thermal energy to electrical energy; one or more components coupled to the thermoelectric component and arranged to receive the electrical energy from the thermoelectric component; a phase change material disposed within the enclosed cavity, the phase change material operative to absorb thermal energy and change from an initial state of matter to a secondary state of matter in response to absorption of the thermal energy; the apparatus being characterized by one or more traces coupling the thermoelectric component with the one or more components, the one or more traces comprised of a thermal conductive material operative to thermally couple with the phase change material to transfer the absorbed thermal energy from the phase change material to the thermoelectric component and operative to convey the electrical energy from the thermoelectric component to the one or more components; and a printed circuit board, the one or more components disposed on the printed circuit board. an enclosure defining an enclosed cavity ; a thermoelectric component arranged to receive thermal energy and to convert the thermal energy to electrical energy; one or more components coupled to the thermoelectric component and arranged to receive the electrical energy from the thermoelectric component; a phase change material disposed within the enclosed cavity, the phase change material operative to absorb thermal energy and change from an initial state of matter to a secondary state of matter in response to absorption of the thermal energy; the apparatus being characterized by one or more traces coupling the thermoelectric component with the one or more components, the one or more traces comprised of a thermal conductive material operative to thermally couple with the phase change material to transfer the absorbed thermal energy from the phase change material to the thermoelectric component and operative to convey the electrical energy from the thermoelectric component to the one or more components; and a printed circuit board, the one or more components disposed on the printed circuit board.
A slurry powder cosmetic composition comprising particulates coated with: a binder composition that contains at least one nonpolar oil, at least one wax having a melting point of from 30°C to 110°C that is selected from ozokerite, ceresin, and microcrystalline wax, and at least one film former selected from trimethylsiloxy silicate or polymethylsilsesquioxane wherein any monofunctional, difunctional or trifunctional units in the trimethylsiloxy silicate or polymethylsilsesquioxane optionally contain substitutions other than methyl selected from ethyl, propyl, butyl, or C 10-30 straight or branched chain alkyl groups; a silicone gel composition; and the evaporation residue of an alcohol based composition, wherein the alcohol based composition comprises alcohol either alone or in combination with water, wherein the alcohol is selected from benzyl alcohol or a C 1-6 monohydric aliphatic or aromatic alcohol, and wherein the alcohol based composition optionally further comprises one or more polymers, one or more humectants and/or one or more botanical extracts. a binder composition that contains at least one nonpolar oil, at least one wax having a melting point of from 30°C to 110°C that is selected from ozokerite, ceresin, and microcrystalline wax, and at least one film former selected from trimethylsiloxy silicate or polymethylsilsesquioxane wherein any monofunctional, difunctional or trifunctional units in the trimethylsiloxy silicate or polymethylsilsesquioxane optionally contain substitutions other than methyl selected from ethyl, propyl, butyl, or C 10-30 straight or branched chain alkyl groups; a silicone gel composition; and the evaporation residue of an alcohol based composition, wherein the alcohol based composition comprises alcohol either alone or in combination with water, wherein the alcohol is selected from benzyl alcohol or a C 1-6 monohydric aliphatic or aromatic alcohol, and wherein the alcohol based composition optionally further comprises one or more polymers, one or more humectants and/or one or more botanical extracts.
A HLA-G specific chimeric antigen receptor, comprising, in order from an N-terminus to a C-terminus: an antigen recognition domain comprising a monoclonal antibody fragment specific to human leukocyte antigen G (HLA-G), wherein the antigen recognition domain comprises an amino acid sequence of SEQ ID NO: 1; a transmembrane domain comprising an amino acid sequence of SEQ ID NO: 2; an IL2 receptor β chain signaling domain comprising an amino acid sequence of SEQ ID NO: 3; and a CD3ζ signaling domain comprising an amino acid sequence of SEQ ID NO: 4. an antigen recognition domain comprising a monoclonal antibody fragment specific to human leukocyte antigen G (HLA-G), wherein the antigen recognition domain comprises an amino acid sequence of SEQ ID NO: 1; a transmembrane domain comprising an amino acid sequence of SEQ ID NO: 2; an IL2 receptor β chain signaling domain comprising an amino acid sequence of SEQ ID NO: 3; and a CD3ζ signaling domain comprising an amino acid sequence of SEQ ID NO: 4.
Motor vehicle bodywork part (4; 42) comprising: - a main body , and - a movable aerodynamic element (8; 44) capable of occupying a retracted position and a deployed position in relation to the main body , the body part (4; 42) comprising an articulated mechanism capable of accommodating a straight deployment of the aerodynamic element (8; 44), the articulated mechanism comprising two articulated arms , each comprising two portions , a portion connected to the main body and a portion connected to the movable aerodynamic element (8; 44), characterized in that the articulated arms are capable of deploying in a direction parallel to a longitudinal axis of the vehicle . - a main body , and - a movable aerodynamic element (8; 44) capable of occupying a retracted position and a deployed position in relation to the main body ,
A control method for controlling a lighting system and automatically adjusting the colour temperature of the lighting system, comprising a step of adjusting the colour temperature of the light emitted by the lighting system during one day according to a pre-set daily emission profile; characterised in that the colour temperature of the light emitted by the lighting system is progressively adjusted during the day according to the pre-set daily emission profile represented by a spline function consisting of a plurality of spline function portions corresponding to respective pre-set time periods; and in that the method comprises a step of acquiring a latitude of the controlled lighting system; a step of acquiring a current date; a step of selecting the pre-set daily emission profile depending on the acquired latitude and date, wherein the pre-set daily emission profile is determined by using said spline function which is specific for the acquired current date and for the acquired latitude; and wherein the spline function is contructed according to the following steps: - defining a Cartesian reference plane having the time as abscissa, i.e. on the horizontal axis, and the colour temperature as ordinate, i.e. on the vertical axis; - selecting n times (h1, h2, ... hn), spaced from one another, during the day and defining respective time periods between the times; - assigning to each time a value of colour temperature, depending on the acquired latitude and date, thus defining respective n nodes in the Cartesian reference plane; each node being defined by one of said n times and by the value of the colour temperature assigned to that time; interpolating the nodes by means of said spline function, assigning to each time period a spline function portion. - defining a Cartesian reference plane having the time as abscissa, i.e. on the horizontal axis, and the colour temperature as ordinate, i.e. on the vertical axis; - selecting n times (h1, h2, ... hn), spaced from one another, during the day and defining respective time periods between the times; - assigning to each time a value of colour temperature, depending on the acquired latitude and date, thus defining respective n nodes in the Cartesian reference plane; each node being defined by one of said n times and by the value of the colour temperature assigned to that time; interpolating the nodes by means of said spline function, assigning to each time period a spline function portion.
A braking system for a universal motor having field windings , comprising: a motor control circuit connecting the field windings to an external power supply; a storage device connected to the motor control circuit across the field windings ; and a controller operably coupled to the motor control circuit and configured in a braking mode to disconnect the field windings from the external power supply and to connect the energy storage device to the field windings to produce a braking torque in the motor , wherein the controller is configured to selectively connect the energy storage device to the external power supply to charge the energy storage device , wherein the energy storage device includes one or more capacitors, characterized in that the controller is configured to: sense the phase of the voltage wave from the external power supply; and connect the one or more capacitors of the energy storage device to the external power supply only at the voltage wave peak. a motor control circuit connecting the field windings to an external power supply; a storage device connected to the motor control circuit across the field windings ; and a controller operably coupled to the motor control circuit and configured in a braking mode to disconnect the field windings from the external power supply and to connect the energy storage device to the field windings to produce a braking torque in the motor , wherein the controller is configured to selectively connect the energy storage device to the external power supply to charge the energy storage device , wherein the energy storage device includes one or more capacitors, characterized in that the controller is configured to: sense the phase of the voltage wave from the external power supply; and connect the one or more capacitors of the energy storage device to the external power supply only at the voltage wave peak. sense the phase of the voltage wave from the external power supply; and connect the one or more capacitors of the energy storage device to the external power supply only at the voltage wave peak.
A recombinant polypeptide or an active fragment thereof, comprising an amino acid sequence having at least 90% identity to the amino acid sequence selected from the group consisting of SEQ ID NOs: 3, 6 and 7, and comprising protease activity in the presence of a surfactant.
Current collector for a multi-pole contact line system, having: - a lower arm pivotally mounted on a base , - at least two upper arms which are pivotally mounted relative to one another on an end of the lower arm opposite the base , - at least two separate contact assemblies (7 a, 7b) which are arranged on the respective upper arms and are associated with different poles of a contact line, - a central compensating rocker arranged on the base , characterised by - at least two connecting rods whose first end is pivotally connected to the central compensating rocker respectively and whose second end is pivotally connected to one of the at least two upper arms respectively. - a lower arm pivotally mounted on a base , - at least two upper arms which are pivotally mounted relative to one another on an end of the lower arm opposite the base , - at least two separate contact assemblies (7 a, 7b) which are arranged on the respective upper arms and are associated with different poles of a contact line, - a central compensating rocker arranged on the base , characterised by - at least two connecting rods whose first end is pivotally connected to the central compensating rocker respectively and whose second end is pivotally connected to one of the at least two upper arms respectively.
A stacking-type header , comprising: a first plate-shaped unit having a plurality of first outlet flow passages formed therein; and a second plate-shaped unit stacked on the first plate-shaped unit and having a first inlet flow passage formed therein and a distribution flow passage formed therein, the distribution flow passage being configured to distribute refrigerant, which passes through the first inlet flow passage to flow into the second plate-shaped unit , to the plurality of first outlet flow passages to cause the refrigerant to flow out from the second plate-shaped unit , wherein the distribution flow passage comprises a branching flow passage including a straight-line part extending in a direction perpendicular to a gravity direction, and wherein the branching flow passage is configured to allow the refrigerant to flow thereinto through a part between both ends of the straight-line part , pass through both the ends, and flow out from the branching flow passage through a plurality of end portions , and characterised in that the plurality of end portions of the branching flow passage comprise an end portion positioned on an upper side relative to the straight-line part , and an end portion positioned on a lower side relative to the straight-line part . a first plate-shaped unit having a plurality of first outlet flow passages formed therein; and a second plate-shaped unit stacked on the first plate-shaped unit and having a first inlet flow passage formed therein and a distribution flow passage formed therein, the distribution flow passage being configured to distribute refrigerant, which passes through the first inlet flow passage to flow into the second plate-shaped unit , to the plurality of first outlet flow passages to cause the refrigerant to flow out from the second plate-shaped unit , wherein the distribution flow passage comprises a branching flow passage including a straight-line part extending in a direction perpendicular to a gravity direction, and wherein the branching flow passage is configured to allow the refrigerant to flow thereinto through a part between both ends of the straight-line part , pass through both the ends, and flow out from the branching flow passage through a plurality of end portions , and characterised in that the plurality of end portions of the branching flow passage comprise an end portion positioned on an upper side relative to the straight-line part , and an end portion positioned on a lower side relative to the straight-line part .
Retainer for securing an insulating layer to a fixed building part , wherein the retainer comprises a plastic part and a metallic fastening element , wherein the plastic part comprises a sleeve and a retaining plate and the fastening element is a nail or a screw and the fastening element extends from a central cavity of the plastic part into the fixed building part in an assembled state, wherein the plastic part comprises two halves that can be connected to one another, characterised in that each of the two halves has a notch and the notches in the two halves form the central cavity after the two halves are joined together, enabling the circumference of the fastening element to be surrounded.
A composition comprising: an isolated protein having at least 80% identity to amino acids 25-968 of SEQ ID NO:2, an isolated protein having at least 80% identity to amino acids 27-790 of SEQ ID NO:4, an isolated protein having at least 80% identity to amino acids 23-727 of SEQ ID NO: 6, an isolated protein having at least 80% identity to amino acids 25-964 of SEQ ID NO:8, an isolated protein having at least 80% identity to amino acids 26-848 of SEQ ID NO: 10, an isolated protein having at least 80% identity to amino acids 27-784 of SEQ ID NO: 12 and an isolated protein having at least 80% identity to amino acids 25-742 of SEQ ID NO: 14, wherein the composition protects a chicken against challenge with Pasteurella multocida. an isolated protein having at least 80% identity to amino acids 25-968 of SEQ ID NO:2, an isolated protein having at least 80% identity to amino acids 27-790 of SEQ ID NO:4, an isolated protein having at least 80% identity to amino acids 23-727 of SEQ ID NO: 6, an isolated protein having at least 80% identity to amino acids 25-964 of SEQ ID NO:8, an isolated protein having at least 80% identity to amino acids 26-848 of SEQ ID NO: 10, an isolated protein having at least 80% identity to amino acids 27-784 of SEQ ID NO: 12 and an isolated protein having at least 80% identity to amino acids 25-742 of SEQ ID NO: 14, wherein the composition protects a chicken against challenge with Pasteurella multocida.
A thermoplastic molding composition consisting of: A a mixture of at least one polyamide A1, at least one polyphenylene ether A2 and optionally a compatibilizer A3 and optionally an olefinic and/or vinylaromatic polymer A4; B 10 to 40% by weight of glass filler, the glass composition of which comprises at least 10.0% by weight of boron oxide and at most 15% by weight for the sum of magnesium oxide and calcium oxide; C 20 to 50% by weight of salts of titanic acids, salts of stannic acids, salts of zirconic acids or mixtures thereof; D 1 to 8% by weight of LDS additive; E 0 to 5% by weight of additives other than components A, B, C and D; wherein 80 to 100% by weight of mixture A consists of a mixture M of components A1, A2 and A3 and 0 to 20% by weight of component A4, in each case based on the sum of components M and A4, and wherein the sum of components M and A4 gives 100% by weight of mixture A; and where the mixture M consists of 36 to 92% by weight of component A2, 8 to 60% by weight of component A1 and 0 to 4% by weight of component A3, in each case based on the sum of components A1 to A3, and where the sum of components A1 to A3 gives 100% by weight of the mixture M; and wherein the sum of B and C is in the range from 35 to 70% by weight, based on the sum of components A to E; and wherein the sum of components A to E gives 100% by weight of the molding composition. A a mixture of at least one polyamide A1, at least one polyphenylene ether A2 and optionally a compatibilizer A3 and optionally an olefinic and/or vinylaromatic polymer A4; B 10 to 40% by weight of glass filler, the glass composition of which comprises at least 10.0% by weight of boron oxide and at most 15% by weight for the sum of magnesium oxide and calcium oxide; C 20 to 50% by weight of salts of titanic acids, salts of stannic acids, salts of zirconic acids or mixtures thereof; D 1 to 8% by weight of LDS additive; E 0 to 5% by weight of additives other than components A, B, C and D; wherein 80 to 100% by weight of mixture A consists of a mixture M of components A1, A2 and A3 and 0 to 20% by weight of component A4, in each case based on the sum of components M and A4, and wherein the sum of components M and A4 gives 100% by weight of mixture A; and where the mixture M consists of 36 to 92% by weight of component A2, 8 to 60% by weight of component A1 and 0 to 4% by weight of component A3, in each case based on the sum of components A1 to A3, and where the sum of components A1 to A3 gives 100% by weight of the mixture M; and wherein the sum of B and C is in the range from 35 to 70% by weight, based on the sum of components A to E; and wherein the sum of components A to E gives 100% by weight of the molding composition.