mhurhangee/patent-ind-claim-en huggingface dataset:
Gas meter comprising: - a measuring device arranged to produce measurements of a gas consumption of an installation ; - a valve , or means for communicating with a cutoff box located outside of the meter and integrating a valve; - a processing unit characterized in that the processing unit is arranged for, each current day, during each current period of a predetermined set of at least one successive period defined in the current day: o analysing the measurements of the gas consumption to produce predefined parameter measurements relating to the gas consumption, and detecting, from said predefined parameter measurements, one or more operating phases of at least one predetermined system of the installation; o for each predetermined system, following each operating phase of said predetermined system, if a cumulated gas consumption during the current period of said predetermined system exceeds a predetermined threshold associated with said predetermined system, closing the valve until the end of said current period. - a measuring device arranged to produce measurements of a gas consumption of an installation ; - a valve , or means for communicating with a cutoff box located outside of the meter and integrating a valve; - a processing unit characterized in that the processing unit is arranged for, each current day, during each current period of a predetermined set of at least one successive period defined in the current day: o analysing the measurements of the gas consumption to produce predefined parameter measurements relating to the gas consumption, and detecting, from said predefined parameter measurements, one or more operating phases of at least one predetermined system of the installation; o for each predetermined system, following each operating phase of said predetermined system, if a cumulated gas consumption during the current period of said predetermined system exceeds a predetermined threshold associated with said predetermined system, closing the valve until the end of said current period. o analysing the measurements of the gas consumption to produce predefined parameter measurements relating to the gas consumption, and detecting, from said predefined parameter measurements, one or more operating phases of at least one predetermined system of the installation; o for each predetermined system, following each operating phase of said predetermined system, if a cumulated gas consumption during the current period of said predetermined system exceeds a predetermined threshold associated with said predetermined system, closing the valve until the end of said current period.
An identity authentication method, applied to a network function virtualization, NFV, system, wherein the NFV system comprises a virtual network function, VNF, and the VNF comprises a first virtual network function component, VNFC, and a second VNFC, characterized in that the method comprises: generating a first public key and a first private key of the first VNFC and a second public key and a second private key of the second VNFC; writing or sending the first private key of the first VNFC and the second public key of the second VNFC to the first VNFC; and writing or sending the first public key of the first VNFC and the second private key of the second VNFC to the second VNFC, wherein the first public key and the first private key of the first VNFC and the second public key and the second private key of the second VNFC are used for identity authentication of the first VNFC and the second VNFC. generating a first public key and a first private key of the first VNFC and a second public key and a second private key of the second VNFC; writing or sending the first private key of the first VNFC and the second public key of the second VNFC to the first VNFC; and writing or sending the first public key of the first VNFC and the second private key of the second VNFC to the second VNFC, wherein the first public key and the first private key of the first VNFC and the second public key and the second private key of the second VNFC are used for identity authentication of the first VNFC and the second VNFC.
Actuation device for a textile machine drive arrangement comprising at least one drive train having a plurality of drives and having a control module for operating the drives , each drive having an electric motor having a plurality of motor winding lines , an inverter acting as an actuation member for the drive , and a controller assigned to the electric motor for actuating the electric motor , and comprising a machine control unit which is data-linked to the control module of the at least one drive train , at least one first data bus line being provided for connecting the machine control unit to the control module and the at least one drive train having a further data bus line via which the control module of the drive train is data-linked to the controllers of the drives , characterised in that a detector arrangement is assigned to the motor winding lines of each drive and is formed to detect and evaluate a direction of rotation and angle of rotation of a rotor of the electric motor , in that an actuation circuit comprising the inverter is further assigned to the motor winding lines and is formed for selectively driving the electric motor and for applying a holding torque countering the rotation of the electric motor in a stationary state, and in that the controller of the electric motor and/or the control module of the drive trains and/or the superordinate machine control unit are formed to cooperate with the detector arrangement and the actuation circuit in such a way that a local rotational sluggishness occurs as a function of the direction of rotation and angle of rotation in such a way that smooth and sluggish angular ranges are formed within a shaft rotation.
A first wireless transmit/receive unit, WTRU, for inter-user equipment, UE, transfer, IUT, of collaborative session control comprising: a receiver configured to receive a collaborative session control transfer request message from a Service Centralization and Continuity Application Server, SCC AS, that includes session information associated with a first collaborative session, the session information including a list of public user identities that share the service profile with the public user identity used by a second WTRU; a processor configured to determine whether to accept collaborative session control; and a transmitter configured to transmit a collaborative session control transfer response message to the SCC AS, on a condition the collaborative session control is accepted, wherein the first WTRU and the second WTRU are involved in the collaborative session via the SCC AS. a receiver configured to receive a collaborative session control transfer request message from a Service Centralization and Continuity Application Server, SCC AS, that includes session information associated with a first collaborative session, the session information including a list of public user identities that share the service profile with the public user identity used by a second WTRU; a processor configured to determine whether to accept collaborative session control; and a transmitter configured to transmit a collaborative session control transfer response message to the SCC AS, on a condition the collaborative session control is accepted, wherein the first WTRU and the second WTRU are involved in the collaborative session via the SCC AS.
An anti-idiotype antibody or antigen-binding fragment thereof, wherein the anti-idiotype antibody or antigen-binding fragment thereof specifically binds to an anti-c-Met antibody or an antibody fragment of the anti-c-Met antibody with an affinity of 50 nM or less, and wherein the anti-c-Met antibody or the antibody fragment of the anti-c-Met antibody comprises: a CDR-H1 comprising SEQ ID NO: 1; a CDR-H2 comprising SEQ ID NO: 2; a CDR-H3 comprising SEQ ID NO: 3; a CDR-L1 comprising SEQ ID NO: 10; a CDR-L2 comprising SEQ ID NO: 11; and a CDR-L3 comprising SEQ ID NO: 13; and wherein the anti-idiotype antibody or antigen-binding fragment thereof comprises: (i) a CDR-H1 of SEQ ID NO: 115, a CDR-H2 of SEQ ID NO: 125, a CDR-H3 of SEQ ID NO: 139, a CDR-L1 of SEQ ID NO: 155, a CDR-L2 of SEQ ID NO: 172, and a CDR-L3 of SEQ ID NO: 188; or (ii) a CDR-H1 of SEQ ID NO: 116, a CDR-H2 of SEQ ID NO: 126, a CDR-H3 of SEQ ID NO: 140, a CDR-L1 of SEQ ID NO: 156, a CDR-L2 of SEQ ID NO: 173, and a CDR-L3 of SEQ ID NO: 189. a CDR-H1 comprising SEQ ID NO: 1; a CDR-H2 comprising SEQ ID NO: 2; a CDR-H3 comprising SEQ ID NO: 3; a CDR-L1 comprising SEQ ID NO: 10; a CDR-L2 comprising SEQ ID NO: 11; and a CDR-L3 comprising SEQ ID NO: 13; and (i) a CDR-H1 of SEQ ID NO: 115, a CDR-H2 of SEQ ID NO: 125, a CDR-H3 of SEQ ID NO: 139, a CDR-L1 of SEQ ID NO: 155, a CDR-L2 of SEQ ID NO: 172, and a CDR-L3 of SEQ ID NO: 188; or (ii) a CDR-H1 of SEQ ID NO: 116, a CDR-H2 of SEQ ID NO: 126, a CDR-H3 of SEQ ID NO: 140, a CDR-L1 of SEQ ID NO: 156, a CDR-L2 of SEQ ID NO: 173, and a CDR-L3 of SEQ ID NO: 189.
A method performed by a terminal in a wireless communication system, the method comprising: identifying a subcarrier spacing of a synchronization signal block, SSB, corresponding to a frequency band of the SSB, wherein the SSB includes a primary synchronization signal, PSS, secondary synchronization signal, SSS, and physical broadcast channel, PBCH; identifying a synchronization signal frame structure type, wherein the frame structure type is defined based on the subcarrier spacing of the SSB and the frequency band; identifying a symbol location of the SSB in a time domain, based on the frame structure type; detecting the SSB based on the symbol location of the SSB, wherein the SSB is one among SSB candidates for the frame structure type; and acquiring synchronization by the detected SSB. identifying a subcarrier spacing of a synchronization signal block, SSB, corresponding to a frequency band of the SSB, wherein the SSB includes a primary synchronization signal, PSS, secondary synchronization signal, SSS, and physical broadcast channel, PBCH; identifying a synchronization signal frame structure type, wherein the frame structure type is defined based on the subcarrier spacing of the SSB and the frequency band; identifying a symbol location of the SSB in a time domain, based on the frame structure type; detecting the SSB based on the symbol location of the SSB, wherein the SSB is one among SSB candidates for the frame structure type; and acquiring synchronization by the detected SSB.
A method comprising: receiving, by a network computing device and from a first sensor located at a premises, data indicative of an increase in a wireless noise level for the first sensor ; determining, by the network computing device , that the first sensor is located within a particular range of a second sensor located at the premises; determining, by the network computing device , that a message associated with the second sensor is delayed; triggering, by the network computing device , an alarm at the premises; and sending, by the network computing device and to a user device, a notification that is indicative of the alarm. receiving, by a network computing device and from a first sensor located at a premises, data indicative of an increase in a wireless noise level for the first sensor ; determining, by the network computing device , that the first sensor is located within a particular range of a second sensor located at the premises; determining, by the network computing device , that a message associated with the second sensor is delayed; triggering, by the network computing device , an alarm at the premises; and sending, by the network computing device and to a user device, a notification that is indicative of the alarm.
Internally hollow body made of plastic, having a cavity , preferably suitable to contain liquid, solid or gaseous material, comprising: - a main body shaped so as to comprise side walls , having an inner surface which at least partially defines said cavity and which ends with a shaped edge which delimits a coupling aperture to the cavity ; - a closure body , comprising closure side walls having an outer sealing surface , said outer sealing surface being suitable to engage at least partially with the inner surface of the side walls of the main body and said closure body being suitable to at least partially close the cavity at the coupling aperture ; - a joining element , made of plastic; wherein the main body is joined to the closure body at least partially along the shaped edge by means of said joining element , and wherein between the main body and the closure body there is an over-moulding seat , said joining element being over-moulded to the main body and to the closure body by injection, and covering said over-moulding seat ; characterized in that said closure body has a mould coupling cavity in which a mould for injection moulding is at least partially coupleable according to a shaped coupling, suitable to counteract the pressure generated on the over-moulding seat by injection means during an over-moulding step of the joining element and in that the mould coupling cavity is formed externally to the cavity of the hollow body . - a main body shaped so as to comprise side walls , having an inner surface which at least partially defines said cavity and which ends with a shaped edge which delimits a coupling aperture to the cavity ; - a closure body , comprising closure side walls having an outer sealing surface , said outer sealing surface being suitable to engage at least partially with the inner surface of the side walls of the main body and said closure body being suitable to at least partially close the cavity at the coupling aperture ; - a joining element , made of plastic;
Solar module , comprising at least - a substrate and a cover layer , between which a layer structure for forming solar cells is arranged, and - on a substrate surface facing away from the layer structure , at least one module support made of metallic material for stiffening and/or supporting mounting of the solar module , which has at least one adhesive surface , which is bonded to the substrate surface via at least one adhesive layer , characterized in that the adhesive layer contains a hardened, electrically highly-insulating adhesive , wherein the adhesive has a specific resistance of ≥1500 GOhm*cm, preferably >4000 GOhm*cm, particularly preferably of 5000 GOhm*cm to 15000 GOhm*cm, wherein the thickness (d) of the adhesive layer is from 1mm to 3 mm, wherein the solar module has no metallic frame and is provided with grounding only via the at least one module support . - a substrate and a cover layer , between which a layer structure for forming solar cells is arranged, and - on a substrate surface facing away from the layer structure , at least one module support made of metallic material for stiffening and/or supporting mounting of the solar module , which has at least one adhesive surface , which is bonded to the substrate surface via at least one adhesive layer , characterized in that the adhesive layer contains a hardened, electrically highly-insulating adhesive , wherein the adhesive has a specific resistance of ≥1500 GOhm*cm, preferably >4000 GOhm*cm, particularly preferably of 5000 GOhm*cm to 15000 GOhm*cm, wherein the thickness (d) of the adhesive layer is from 1mm to 3 mm, wherein the solar module has no metallic frame and is provided with grounding only via the at least one module support .
A high efficiency non-metallic corrosion resistant heat exchange device, comprising multiple non-metallic corrosion resistant heat conduct plates, upper supporting ribs disposed on a top surface of each heat conduct plate, lower supporting ribs disposed on a bottom surface of each heat conduct plate, sealing strips disposed on upper edges of the top surface and lower edges of the bottom surface of each heat conduct plate, and spacers; wherein these heat conduct plates consisting of multiple odd number heat conduct plates and multiple even number heat conduct plates, which are stacked alternatively; the upper supporting ribs, the lower supporting ribs and the sealing strips being fixed on the corresponding heat conduct plate; the adjacent upper and lower supporting ribs located between the adjacent odd and even number heat conduct plates together defining multiple sealing channels, which can be used as cold fluid channels and hot fluid channels; and these sealing channels having different shapes and directions and being not communicated with each other; characterised in that the spacers are arranged between the lower supporting ribs of a bottom surface of the odd number heat conduct plate and the corresponding upper supporting ribs of a top surface of the even number heat conduct plate and are also arranged between the sealing strips of the bottom surface of the odd number heat conduct plate and the corresponding sealing strips of the even number heat conduct plate; the spacers completely sealing the corresponding upper and lower supporting ribs and the corresponding sealing strips by a press force.
A catalytic system comprising a REDOX catalyst and a porous polymeric matrix wherein - the porous polymeric matrix has pores with a size from 1 to 1000 nm and it is covalently functionalized with functional groups R 1 or, alternatively, with functional groups R' 1 and R 2 , - the REDOX catalyst comprises an isoalloxazine moiety which has one or more functional groups R 3 , - R 1 and R 2 are capable of forming non-covalent reversible interactions, selected from the group consisting of: electrostatic, hydrophobic, and hydrogen bonds, with R 3 ; - R 1 and R 2 are in a molar concentration excess with respect to the molar concentration of the REDOX catalyst; - R 1 and R' 1 are electron donor or electron acceptor groups having a REDOX potential between +2.70 to -2.5 V as determined by cyclic voltammetry using an Ag/AgCl electrode as reference. - the porous polymeric matrix has pores with a size from 1 to 1000 nm and it is covalently functionalized with functional groups R 1 or, alternatively, with functional groups R' 1 and R 2 , - the REDOX catalyst comprises an isoalloxazine moiety which has one or more functional groups R 3 , - R 1 and R 2 are capable of forming non-covalent reversible interactions, selected from the group consisting of: electrostatic, hydrophobic, and hydrogen bonds, with R 3 ; - R 1 and R 2 are in a molar concentration excess with respect to the molar concentration of the REDOX catalyst; - R 1 and R' 1 are electron donor or electron acceptor groups having a REDOX potential between +2.70 to -2.5 V as determined by cyclic voltammetry using an Ag/AgCl electrode as reference.
A light source device comprising: a light-emitting section including a light-emitting element, the light-emitting element including a thyristor(S) and a vertical cavity surface emitting laser (VCSEL) that is connected to the thyristor (S) in series; and a controller that performs control to supply a light-emitting current to the light-emitting section so as to cause the light-emitting element to emit light according to a light-emitting signal (pI) and to supply a reemission stop pulse (pJ) to the light-emitting section so as to disable light reemission of the light-emitting element by removing electric charge remaining in the thyristor (S) of the light-emitting element that has emitted, wherein the controller comprises a light source driver and a reemission stop current limiting resistor (RJ), when the reemission stop pulse (pJ) is supplied to the light source driver , the reemission stop current limiting resistor (RJ) reduces a voltage at the thyristor (S) to a value which makes the VCSEL unable to reemit light. a light-emitting section including a light-emitting element, the light-emitting element including a thyristor(S) and a vertical cavity surface emitting laser (VCSEL) that is connected to the thyristor (S) in series; and a controller that performs control to supply a light-emitting current to the light-emitting section so as to cause the light-emitting element to emit light according to a light-emitting signal (pI) and to supply a reemission stop pulse (pJ) to the light-emitting section so as to disable light reemission of the light-emitting element by removing electric charge remaining in the thyristor (S) of the light-emitting element that has emitted, wherein the controller comprises a light source driver and a reemission stop current limiting resistor (RJ), when the reemission stop pulse (pJ) is supplied to the light source driver , the reemission stop current limiting resistor (RJ) reduces a voltage at the thyristor (S) to a value which makes the VCSEL unable to reemit light.
A backsheet for a photovoltaic module comprising: - a support; and - an adhesive layer provided on one side of the support characterized in that the adhesive layer is coated from an aqueous composition, the aqueous composition comprising a water soluble or dispersible binder and a water dispersible core/shell polyisocyanate, wherein the core includes a hydrophobic polyisocyanate and the shell of the polyisocyanate includes a polymer comprising a hydrophilic dispersing group and a hydrophobic isocyanate-shielding group. - a support; and - an adhesive layer provided on one side of the support characterized in that the adhesive layer is coated from an aqueous composition, the aqueous composition comprising a water soluble or dispersible binder and a water dispersible core/shell polyisocyanate, wherein the core includes a hydrophobic polyisocyanate and the shell of the polyisocyanate includes a polymer comprising a hydrophilic dispersing group and a hydrophobic isocyanate-shielding group.