mhurhangee/patent-ind-claim-en huggingface dataset:
A bipolar lithium secondary battery comprising, a current collector ; a polymer film attached in the form surrounding the edge of the current collector ; an electrode layer comprising positive and negative electrodes formed on both sides of the current collector ; first and second separators respectively formed on the positive electrode and the negative electrode ; and electrolyte solutions contained between the first and second separators , wherein the electrolyte solutions contained between the first and second separators are separated by the polymer film . a current collector ; a polymer film attached in the form surrounding the edge of the current collector ; an electrode layer comprising positive and negative electrodes formed on both sides of the current collector ; first and second separators respectively formed on the positive electrode and the negative electrode ; and electrolyte solutions contained between the first and second separators , wherein the electrolyte solutions contained between the first and second separators are separated by the polymer film .
A method of brokering trusted execution of a workload payload (206; 306, 308; 408) among multiple trusted execution platforms (106 - 112; 228; 302, 304; 406), the multiple trusted execution platforms including heterogeneous trusted execution platforms having different compilation requirements, the workload payload including input data , trusted execution code , and one or more trusted execution policies , the method comprising: selecting , by a trusted execution broker (104; 202; 312; 412; 642), at least one of the multiple trusted execution platforms based on the one or more trusted execution policies of the workload payload received from the source computing system, wherein the one or more trusted execution policies of the workload payload are associated with an attestation record, wherein the selecting operation comprises evaluating the one or more trusted execution policies against the trusted execution platforms to identify one or more of the multiple trusted execution platforms satisfying the one or more trusted execution policies, wherein the evaluating comprises: decrypting the one or more trusted execution policies by the trusted execution broker; and validating the one or more trusted execution policies by the trusted execution broker using the attestation record; generating a brokered payload (314, 316; 422) including executable trusted execution code and the input data; and returning , to the source computing platform, a workload result (136; 322, 324; 426) based on a brokered result generated from the brokered payload by the selected at least one of the multiple trusted execution platforms. selecting , by a trusted execution broker (104; 202; 312; 412; 642), at least one of the multiple trusted execution platforms based on the one or more trusted execution policies of the workload payload received from the source computing system, wherein the one or more trusted execution policies of the workload payload are associated with an attestation record, wherein the selecting operation comprises evaluating the one or more trusted execution policies against the trusted execution platforms to identify one or more of the multiple trusted execution platforms satisfying the one or more trusted execution policies, wherein the evaluating comprises: decrypting the one or more trusted execution policies by the trusted execution broker; and validating the one or more trusted execution policies by the trusted execution broker using the attestation record; decrypting the one or more trusted execution policies by the trusted execution broker; and validating the one or more trusted execution policies by the trusted execution broker using the attestation record; generating a brokered payload (314, 316; 422) including executable trusted execution code and the input data; and returning , to the source computing platform, a workload result (136; 322, 324; 426) based on a brokered result generated from the brokered payload by the selected at least one of the multiple trusted execution platforms.
Method for producing a receptacle , in particular a receptacle for a cosmetic product, method wherein a material is injected into a moulding cavity in a so-called injection step, the moulding cavity is expanded during the injection so as to increase the thickness of a wall of the receptacle in a so-called separation step, wherein said material is injected facing a core using an injection station and the core is separated from the injection station by way of a drive mechanism comprising a gearing during said separation step so as to increase the thickness of the receptacle located between the core and the injection station , said gearing comprising a gearwheel helicoidally connected to the core .
A network function, NF, comprising: a communication unit configured to receive, from another NF, a first message regarding association between the NF and the another NF, the first message including delivery information on a second message to be transmitted to the another NF; and a message processing unit configured to: obtain, from the first message, delivery information designated for each message type using the first message, select, from a list of resources included in the delivery information, a resource based on a message type of the second message to be transmitted to the another NF, and transmit the second message to the another NF using the selected resource, wherein the list of resources indicates resources of the another NF that the NF can select, when the NF transmits the second message to the another NF, and wherein an IP and a port, used for transmission of the second message, are designated as among a plurality of IPs and a plurality of ports supported by the another NF, based on the delivery information. a communication unit configured to receive, from another NF, a first message regarding association between the NF and the another NF, the first message including delivery information on a second message to be transmitted to the another NF; and a message processing unit configured to: obtain, from the first message, delivery information designated for each message type using the first message, select, from a list of resources included in the delivery information, a resource based on a message type of the second message to be transmitted to the another NF, and transmit the second message to the another NF using the selected resource, obtain, from the first message, delivery information designated for each message type using the first message, select, from a list of resources included in the delivery information, a resource based on a message type of the second message to be transmitted to the another NF, and transmit the second message to the another NF using the selected resource, wherein the list of resources indicates resources of the another NF that the NF can select, when the NF transmits the second message to the another NF, and wherein an IP and a port, used for transmission of the second message, are designated as among a plurality of IPs and a plurality of ports supported by the another NF, based on the delivery information.
Aluminium alloy for the manufacture of semi-finished products or components for motor vehicles, which comprises the following alloy components in % by weight: 0.6% ≤ Si ≤ 0.9%, 0.6% ≤ Fe ≤ 1.0%, Cu ≤ 0.1%, 0.6% ≤ Mn ≤ 0.9%, 0.5% ≤ Mg ≤ 0.8%, Cr ≤ 0.05%, the remainder A1 and impurities, individually up to a maximum of 0.05% by weight, in total up to a maximum of 0.15% by weight. 0.6% ≤ Si ≤ 0.9%, 0.6% ≤ Fe ≤ 1.0%, Cu ≤ 0.1%, 0.6% ≤ Mn ≤ 0.9%, 0.5% ≤ Mg ≤ 0.8%, Cr ≤ 0.05%, the remainder A1 and impurities, individually up to a maximum of 0.05% by weight, in total up to a maximum of 0.15% by weight.
A method for unified networking for a device (UE 1; UE 2; UE 3; UE 4) in heterogeneous mobile environments comprising: maintaining and monitoring active network interfaces; managing the location of the device (UE 1; UE 2; UE 3; UE 4); managing network access security; managing system parameters for one or more active application sessions on the device (UE 1; UE 2; UE 3; UE 4); maintaining a mapping for one or more flows corresponding to the one or more active application sessions, maintaining one or more policies, and performing flow control decisions based upon the policies using a policy engine ; maintaining a knowledge base (3403; 3404) on the device (UE 1; UE 2; UE 3; UE 4) comprising past network information for the device (UE 1; UE 2; UE 3; UE 4) including one or more of location, resource, and bandwidth information; and performing flow decisions using the knowledge base (3403; 3404). maintaining and monitoring active network interfaces; managing the location of the device (UE 1; UE 2; UE 3; UE 4); managing network access security; managing system parameters for one or more active application sessions on the device (UE 1; UE 2; UE 3; UE 4); maintaining a mapping for one or more flows corresponding to the one or more active application sessions, maintaining one or more policies, and performing flow control decisions based upon the policies using a policy engine ; maintaining a knowledge base (3403; 3404) on the device (UE 1; UE 2; UE 3; UE 4) comprising past network information for the device (UE 1; UE 2; UE 3; UE 4) including one or more of location, resource, and bandwidth information; and performing flow decisions using the knowledge base (3403; 3404).
A method for determining an emission behaviour of a gas turbine engine , comprising the steps of: - creating a kinetic model describing a combustion system of the gas turbine engine ; - running the model by varying at least one selected first state variable (P0, P1, P2, P3, P4, T0, T1, T2, T3, T4, T5, P2B, MCI, TFIRE, QF, QH, QT, SPLIT) used as an input of the model ; - obtaining an output (OUT) of the model representing an emission behaviour of the gas turbine engine ; - wherein the output of the model comprises a further state variable of the gas turbine engine; - parameterising the emission behaviour of the gas turbine engine for the at least one selected first state variable (P0, P1, P2, P3, P4, T0, T1, T2, T3, T4, T5, P2B, MCI, TFIRE, QF, QH, QT, SPLIT) of the gas turbine engine by converting the output (OUT) into mathematical functions, - using the parameterisation of the emission behaviour of the gas turbine engine to predict an emission behaviour for predetermined values of the at least one selected first state variable and - determining the emission behaviour of the gas turbine engine by using the mathematical functions - creating a kinetic model describing a combustion system of the gas turbine engine ; - running the model by varying at least one selected first state variable (P0, P1, P2, P3, P4, T0, T1, T2, T3, T4, T5, P2B, MCI, TFIRE, QF, QH, QT, SPLIT) used as an input of the model ; - obtaining an output (OUT) of the model representing an emission behaviour of the gas turbine engine ; - wherein the output of the model comprises a further state variable of the gas turbine engine; - parameterising the emission behaviour of the gas turbine engine for the at least one selected first state variable (P0, P1, P2, P3, P4, T0, T1, T2, T3, T4, T5, P2B, MCI, TFIRE, QF, QH, QT, SPLIT) of the gas turbine engine by converting the output (OUT) into mathematical functions, - using the parameterisation of the emission behaviour of the gas turbine engine to predict an emission behaviour for predetermined values of the at least one selected first state variable and - determining the emission behaviour of the gas turbine engine by using the mathematical functions
Grate for a waste incineration plant, comprising - a drive unit , - multiple grate rod lines , each comprising a grate bar support on which multiple grate bars are pivoted, - a grate mechanics , the drive unit being operatively connected via the grate mechanics to at least some of the grate rod lines in such a way that a movement can be transferred into the grate bars , characterised in that the grate mechanics comprises at least one tilt sensor for determining and putting out a pitch information (I), said pitch information (I) being formed depending on an incline (N) of the tilt sensor in relation to a reference direction (R). - a drive unit , - multiple grate rod lines , each comprising a grate bar support on which multiple grate bars are pivoted, - a grate mechanics , the drive unit being operatively connected via the grate mechanics to at least some of the grate rod lines in such a way that a movement can be transferred into the grate bars , characterised in that the grate mechanics comprises at least one tilt sensor for determining and putting out a pitch information (I), said pitch information (I) being formed depending on an incline (N) of the tilt sensor in relation to a reference direction (R).
A structural beam comprising: a first beam and a cover plate configured to be attached to the first beam , the first beam having a cross-section with a substantially U-shape along at least a first portion of its length, the U-shape including a bottom wall , and two sidewalls , and wherein the cross-section further comprises an outwardly projecting lateral flange at an end of at least one of the two sidewalls , and a groove in a junction between the sidewall and the outwardly projecting lateral flange , wherein the groove has a first joining region at or near the bottom of the groove, the first joining region being substantially flat and the cover plate having a substantially flat second joining region wherein the cover plate(220, 230, 320, 420, 521, 522, 602, 622, 720 is welded to the first beam at first and second joining regions, and wherein the first joining region and the second joining region have a width of about 2 - 10 mm. a first beam and a cover plate configured to be attached to the first beam , the first beam having a cross-section with a substantially U-shape along at least a first portion of its length, the U-shape including a bottom wall , and two sidewalls , and wherein the cross-section further comprises an outwardly projecting lateral flange at an end of at least one of the two sidewalls , and a groove in a junction between the sidewall and the outwardly projecting lateral flange , wherein the groove has a first joining region at or near the bottom of the groove, the first joining region being substantially flat and a cross-section with a substantially U-shape along at least a first portion of its length, the U-shape including a bottom wall , and two sidewalls , and wherein the cross-section further comprises an outwardly projecting lateral flange at an end of at least one of the two sidewalls , and a groove in a junction between the sidewall and the outwardly projecting lateral flange , wherein the groove has a first joining region at or near the bottom of the groove, the first joining region being substantially flat and the cover plate having a substantially flat second joining region wherein the cover plate(220, 230, 320, 420, 521, 522, 602, 622, 720 is welded to the first beam at first and second joining regions, and wherein the first joining region and the second joining region have a width of about 2 - 10 mm.
Flow system for dividing a multiphase flow into several flows which have substantially the same mixture of phases, including a manifold, the manifold comprising a longitudinal main pipe section with one inlet connected to a feed pipe of the flow system and at least two outlets arranged in a row along the main pipe section , where a centre axis of the main pipe section extends in a mainly horizontal direction, wherein the outlets are arranged in a lower half of the main pipe section and connected to outlet pipe sections arranged with a centre axis extending with a downward angle from the main pipe section , characterized in that all of the outlets are arranged, when seen in a cross section of the main pipe section , with the centre axis of the outlet pipe sections connected to the outlets forming the same angle θ between 35-50 degrees in relation to a vertical axis .
A compound represented by formula (IIB), an N-oxide thereof, or a pharmaceutically acceptable salt thereof: wherein K represents CH 2 or C=O; R 1 represents heteroaryl, which group may be optionally substituted by one or more substituents; R 2 represents hydrogen or halogen; R 3 represents hydrogen or trifluoromethyl; R 4 represents hydrogen, halogen or C 1-6 alkyl; R 5 represents halogen, -OR a , difluoromethoxy or trifluoromethoxy; R 6 represents hydrogen, halogen or trifluoromethyl; R 7 represents hydrogen or trifluoromethyl; R 8 represents hydrogen, halogen or trifluoromethyl; R a represents C 1-6 alkyl, C 3-7 cycloalkyl, C 3-7 heterocycloalkyl, aryl, aryl(C 1-6 )alkyl, heteroaryl or heteroaryl(C 1-6 )alkyl, any of which groups may be optionally substituted by one or more substituents; and R f represents hydrogen, C 1-6 alkylcarbonyl or C 1-6 alkyl, which groups may be optionally substituted by one or more substituents selected from halogen and C 1-6 alkyl.
An antibody or an antigen-binding fragment thereof that has a specific binding affinity to an epitope located within the domain 3 of human vascular endothelial growth factor receptor 2 (VEGFR2; SEQ ID NO: 74), wherein the epitope within the domain 3 of the VEGFR2 is located between amino acid residues 250 and 270 of SEQ ID NO: 74, and further wherein the antibody or antigen-binding fragment thereof comprises a heavy chain variable region (V H ) and a light chain variable region (V L ), the V H comprising V H CDR1, V H CDR2, and V H CDR3, and the V L comprising V L CDR1, V L CDR2, and V L CDR3, wherein: the V H CDR1, V H CDR2, and V H CDR3 comprise the amino acid sequence of SEQ ID NO: 6, SEQ ID NO: 7, and SEQ ID NO: 8, respectively; and the V L CDR1, V L CDR2, and V L CDR3 comprise the amino acid sequence of SEQ ID NO: 9, Asp Ala Ser, and SEQ ID NO: 73, respectively. the V H CDR1, V H CDR2, and V H CDR3 comprise the amino acid sequence of SEQ ID NO: 6, SEQ ID NO: 7, and SEQ ID NO: 8, respectively; and the V L CDR1, V L CDR2, and V L CDR3 comprise the amino acid sequence of SEQ ID NO: 9, Asp Ala Ser, and SEQ ID NO: 73, respectively.
A method for polishing a material having a Vickers hardness of 1500 Hv or higher, the method comprising a step of carrying out preliminary polishing using a preliminary polishing composition that comprises an abrasive A PRE , and a step of carrying out final polishing using a final polishing composition that comprises an abrasive A FIN , wherein the abrasive A FIN is lower in hardness than the abrasive A PRE , the abrasive A PRE has a Vickers hardness in a range of 800 Hv to 3000 Hv, the abrasive A FIN has a Vickers hardness in a range of 200 Hv to 1500 Hv, and the mean secondary particle diameter P PRE of the abrasive A PRE is greater than the mean secondary particle diameter P FIN of the abrasive A FIN . a step of carrying out preliminary polishing using a preliminary polishing composition that comprises an abrasive A PRE , and a step of carrying out final polishing using a final polishing composition that comprises an abrasive A FIN , wherein the abrasive A FIN is lower in hardness than the abrasive A PRE , the abrasive A PRE has a Vickers hardness in a range of 800 Hv to 3000 Hv, the abrasive A FIN has a Vickers hardness in a range of 200 Hv to 1500 Hv, and the mean secondary particle diameter P PRE of the abrasive A PRE is greater than the mean secondary particle diameter P FIN of the abrasive A FIN .
An optical film comprising a polymeric base layer and a polymerized microstructured optical layer, the polymerized microstructured optical layer comprising a linear array of regular right prisms having an apex angle in the range from 70° to 120°, wherein the polymerized microstructured optical layer comprises the reaction product of a polymerizable resin composition comprising nanoparticles; at least one first monomer comprising at least two (meth)acrylate groups; and at least one second (meth)acrylate monomer having the structure wherein at least one R1 comprises an aromatic substituent selected from the group consisting of t is an integer from 1 to 4, and R2 is hydrogen or methyl. t is an integer from 1 to 4, and R2 is hydrogen or methyl.
A method for managing a plurality of rechargeable electrical energy storage modules (106 1 -106 8 ) of an electrical supply installation , said modules (106 1 -106 8 ) each comprising at least one rechargeable electrochemical lithium-metal-polymer battery, and being arranged in parallel with one another, said method comprising: - separating said modules (106 1 -106 8 ) into at least two groups , and - supplying from one of said groups at a time; said method comprising, during the supply by one group , called active group, a phase , called regulation phase, within at least one group , called passive group, other than the active group , said regulation phase comprising supplying (306 1 ) at least one module, called passive module, of said passive group by at least one other module, called operational module, of said passive group . - separating said modules (106 1 -106 8 ) into at least two groups , and - supplying from one of said groups at a time;
A radio resource control, RRC, connection management method, comprising: negotiating , by user equipment , UE, when in an RRC connected mode before entering an RRC idle mode, with an access network node on a target security parameter to be used next time the UE enters the RRC connected mode, characterized in that the target security parameter has not been used previously in the RRC connected mode; performing, by the UE , security protection on uplink data by using the target security parameter obtained through the negotiation; sending , by the UE , when in the RRC idle mode, an uplink data request to the access network node by using a shared data sending resource, wherein the uplink data request comprises the uplink data and request information that is used for requesting to enter the RRC connected mode; and receiving , by the UE , an access network dedicated identifier from the access network node . negotiating , by user equipment , UE, when in an RRC connected mode before entering an RRC idle mode, with an access network node on a target security parameter to be used next time the UE enters the RRC connected mode, characterized in that the target security parameter has not been used previously in the RRC connected mode; performing, by the UE , security protection on uplink data by using the target security parameter obtained through the negotiation; sending , by the UE , when in the RRC idle mode, an uplink data request to the access network node by using a shared data sending resource, wherein the uplink data request comprises the uplink data and request information that is used for requesting to enter the RRC connected mode; and receiving , by the UE , an access network dedicated identifier from the access network node .