mhurhangee/patent-ind-claim-en huggingface dataset:
A device for detecting a hazardous condition in an area, comprising: a housing defining a chamber ; and at least one smoke sensing device for detecting the presence of smoke in the chamber , characterised by further comprising: an extremely-high frequency detector including at least one extremely-high frequency transmitter and at least one extremely-high frequency receiver , wherein the at least one extremely-high frequency transmitter is configured to generate a frequency between 180 GHz and 190 GHz for detecting if water is present in the air adjacent the device ; wherein the device is configured to determine if an alarm should be triggered to indicate a hazardous condition based on the extremely-high frequency detector and the at least one smoke sensing device . a housing defining a chamber ; and at least one smoke sensing device for detecting the presence of smoke in the chamber , characterised by further comprising: an extremely-high frequency detector including at least one extremely-high frequency transmitter and at least one extremely-high frequency receiver , wherein the at least one extremely-high frequency transmitter is configured to generate a frequency between 180 GHz and 190 GHz for detecting if water is present in the air adjacent the device ; wherein the device is configured to determine if an alarm should be triggered to indicate a hazardous condition based on the extremely-high frequency detector and the at least one smoke sensing device . an extremely-high frequency detector including at least one extremely-high frequency transmitter and at least one extremely-high frequency receiver , wherein the at least one extremely-high frequency transmitter is configured to generate a frequency between 180 GHz and 190 GHz for detecting if water is present in the air adjacent the device ; wherein the device is configured to determine if an alarm should be triggered to indicate a hazardous condition based on the extremely-high frequency detector and the at least one smoke sensing device .
A solenoid valve provided with a valve element that abuts against and separates from a valve seat to seal fuel, a movable iron core capable of being separated from the valve element , and a fixed iron core arranged opposed to the movable iron core , the solenoid valve comprising: a first spring member that energizes the valve element toward a side of the valve seat ; a second spring member that energizes the movable iron core toward the fixed iron core ; and a stopper part disposed on the side of the valve seat with respect to the movable iron core , and arranged with the movable iron core via a gap (g3) in a displacement direction in a valve closed state, wherein the gap (g3) is set such that the movable iron core collides with the stopper part when being displaced in the valve closing direction after the valve element is opened; characterized in that the solenoid valve further comprises: an intermediate member that is displaceable from the movable iron core , and is in contact with an upper surface of the movable iron core in a valve closed state, wherein the movable iron core is arranged with the valve element via a pre-stroke gap (g1) in an axial direction in a valve closed state, and moves in a valve opening direction to axially contact with the valve element . a first spring member that energizes the valve element toward a side of the valve seat ; a second spring member that energizes the movable iron core toward the fixed iron core ; and a stopper part disposed on the side of the valve seat with respect to the movable iron core , and arranged with the movable iron core via a gap (g3) in a displacement direction in a valve closed state, wherein the gap (g3) is set such that the movable iron core collides with the stopper part when being displaced in the valve closing direction after the valve element is opened; an intermediate member that is displaceable from the movable iron core , and is in contact with an upper surface of the movable iron core in a valve closed state, wherein the movable iron core is arranged with the valve element via a pre-stroke gap (g1) in an axial direction in a valve closed state, and moves in a valve opening direction to axially contact with the valve element .
A method of calibrating a printing apparatus comprising a plurality of print modules, the method comprising: printing a first plurality of test patches for each print module of the plurality of print modules ; analysing the first plurality of test patches to identify at least two clusters of print modules, wherein each cluster comprises a sub-group of print modules having substantially similar performance ; printing a second plurality of test patches for each cluster of print modules, the second plurality of test patches being distributed across the print modules of the respective cluster ; and analysing the second plurality of test patches for each cluster to determine a calibration parameter for the printing apparatus . printing a first plurality of test patches for each print module of the plurality of print modules ; analysing the first plurality of test patches to identify at least two clusters of print modules, wherein each cluster comprises a sub-group of print modules having substantially similar performance ; printing a second plurality of test patches for each cluster of print modules, the second plurality of test patches being distributed across the print modules of the respective cluster ; and analysing the second plurality of test patches for each cluster to determine a calibration parameter for the printing apparatus .
A terminal comprising: a receiving section adapted to receive a medium access control-control element, MAC CE, indicating a transmission configuration indication, TCI, state for a physical downlink control channel; and a control section adapted to, when a reference signal for pathloss reference for a physical uplink control channel is not configured, apply to transmission of the physical uplink control channel a pathloss estimation based on a reference signal with quasi co-location type of type D in the TCI state. a receiving section adapted to receive a medium access control-control element, MAC CE, indicating a transmission configuration indication, TCI, state for a physical downlink control channel; and a control section adapted to, when a reference signal for pathloss reference for a physical uplink control channel is not configured, apply to transmission of the physical uplink control channel a pathloss estimation based on a reference signal with quasi co-location type of type D in the TCI state.
A magnetic actuator assembly , comprising: a core constructed of a magnetic material, the core including a first end and a second end ; wiring wound around a portion of the core , wherein a predetermined amount of electric current is applied to the wiring to induce a magnetic field within the core ; and a gate assembly positioned between the first end and a second end of the core , the gate assembly comprising: a first gate member defining a first aperture ; a second gate member defining a second aperture ; and an elastic member defining a passageway therethrough; wherein the elastic member is received between the first gate member and the second gate member and the first aperture , the second aperture , and the passageway define a passage through the gate assembly , and wherein both the first gate member and the second gate member and the elastic member travel together between the first end and a second end of the core based on a threshold force being applied to the gate assembly , wherein the threshold force is created by the magnetic field. a core constructed of a magnetic material, the core including a first end and a second end ; wiring wound around a portion of the core , wherein a predetermined amount of electric current is applied to the wiring to induce a magnetic field within the core ; and a gate assembly positioned between the first end and a second end of the core , the gate assembly comprising: a first gate member defining a first aperture ; a second gate member defining a second aperture ; and an elastic member defining a passageway therethrough; wherein the elastic member is received between the first gate member and the second gate member and the first aperture , the second aperture , and the passageway define a passage through the gate assembly , and wherein both the first gate member and the second gate member and the elastic member travel together between the first end and a second end of the core based on a threshold force being applied to the gate assembly , wherein the threshold force is created by the magnetic field. a first gate member defining a first aperture ; a second gate member defining a second aperture ; and an elastic member defining a passageway therethrough; wherein the elastic member is received between the first gate member and the second gate member and the first aperture , the second aperture , and the passageway define a passage through the gate assembly , and wherein both the first gate member and the second gate member and the elastic member travel together between the first end and a second end of the core based on a threshold force being applied to the gate assembly , wherein the threshold force is created by the magnetic field.
Method for manufacturing a packaging or holding unit from a recycled paper fraction of domestic waste, the method comprising the steps of: - collecting domestic waste; - separating the paper fraction from the collected domestic waste; - dissolving and fiberizing the paper fraction, and producing a pulp material; - cleaning and sorting the pulp material; and - moulding the packaging or holding unit from the pulp material, further comprising the step of adding an impregnant to the paper fraction and/or pulp material, wherein the impregnant comprises an organic tricarboxylic acid and glycerol. - collecting domestic waste; - separating the paper fraction from the collected domestic waste; - dissolving and fiberizing the paper fraction, and producing a pulp material; - cleaning and sorting the pulp material; and - moulding the packaging or holding unit from the pulp material,
A wireless communication system comprising a network element operably coupled to an antenna array that is capable of receiving concurrently wireless communication signals on a common carrier frequency from more than one remote wireless communication unit, wherein the antenna array comprises plurality of radiating elements and where the network element comprises: first beam-former logic arranged to create a radiation pattern that comprises a sector beam by first radiating elements of the plurality of radiating elements; and a second beam-former logic arranged to create a radiation pattern that comprises a major portion of at least one sub-sector beam within the sector beam by second radiating elements of the plurality of radiating elements such that the at least one sub-sector beam and the sector beam are of a common polarisation on the commor carrier frequency, and such that the first beam-former logic and second beam-former logic simultaneously process wireless communication signals emanating from more than one remote wireless communication unit on the common carrier frequency by concurrently using both the sector beam and the at least one sub-sector beam for each of the wireless communication units. first beam-former logic arranged to create a radiation pattern that comprises a sector beam by first radiating elements of the plurality of radiating elements; and a second beam-former logic arranged to create a radiation pattern that comprises a major portion of at least one sub-sector beam within the sector beam by second radiating elements of the plurality of radiating elements such that the at least one sub-sector beam and the sector beam are of a common polarisation on the commor carrier frequency, and such that the first beam-former logic and second beam-former logic simultaneously process wireless communication signals emanating from more than one remote wireless communication unit on the common carrier frequency by concurrently using both the sector beam and the at least one sub-sector beam for each of the wireless communication units.
Checking method for checking quality and/or measuring dimensional parameters of profiles produced in a production line from at least one strip of material, more particularly at least one strip of cardboard or of thermoplastic material such as PVC for example, each profile having an angle bracket form or other profile form foldend with at least two longitudinal wings that are inclined with respect to one another and extend along a longitudinal axis (X) while being delimited in the thicknesswise direction thereof, on one side, by its outer longitudinal surface and, on the other opposite side, by its inner longitudinal surface , consisting, from a checking device included in said production line, said checking device comprising, on the one hand, at least one optical unit comprising a light projection device , such as a laser, capable of emitting a flat light beam that makes it possible to form a light line (L) on the profile to be checked and an imaging device , such as a camera, having an optical axis (O) and being associated with said light projection device and capable of acquiring at least one image of said light line (L) and, on the other hand, an electronic processing unit linked operationally to the or each optical unit for processing said image or images acquired and transmitted by said imaging device or devices : - in projecting onto the profile to be checked, on its outer longitudinal surface and/or on its inner longitudinal surface , at least one flat light beam , in a plane substantially at right angles to the longitudinal axis (X), to form, on said profile , on at least one of said outer or inner longitudinal surfaces , at least one light line (L) extending substantially at right angles to the longitudinal axis (X), - in acquiring at least one image of the or each light line and - in analysing the or each image of a light line (L) in order to check the quality and/or measure dimensional parameters of the profile , characterized in that it consists, from the or one of the light lines formed on the outer or inner longitudinal surface and comprising two light branches (L1, L2) inclined with respect to one another by virtue of the inclination of said wings, one of said light branches (L1) being formed on one of said longitudinal wings and the other light branch (L2) being formed on the other longitudinal wing , in checking the value of the angle between said wings by measuring, on the image or images acquired, the angle (a) between the two branches (L1, L2) of the light line and by comparing it with a reference angle value. - in projecting onto the profile to be checked, on its outer longitudinal surface and/or on its inner longitudinal surface , at least one flat light beam , in a plane substantially at right angles to the longitudinal axis (X), to form, on said profile , on at least one of said outer or inner longitudinal surfaces , at least one light line (L) extending substantially at right angles to the longitudinal axis (X), - in acquiring at least one image of the or each light line and - in analysing the or each image of a light line (L) in order to check the quality and/or measure dimensional parameters of the profile ,
A device comprising: memory configured to store cryptographic material required to execute one or more device functions; a communications interface for communicating over a network; and logic configured to: receive from a server over the communications interface the cryptographic material required to execute the one or more device functions, wherein the device is configured to delete the cryptographic material when triggered by detection of movement or location change of the device, wherein the logic is further configured to run a generic bootstrapping architecture, GBA, protocol and further wherein the cryptographic material is received from the server protected using said GBA protocol. memory configured to store cryptographic material required to execute one or more device functions; a communications interface for communicating over a network; and logic configured to: receive from a server over the communications interface the cryptographic material required to execute the one or more device functions, wherein the device is configured to delete the cryptographic material when triggered by detection of movement or location change of the device, wherein the logic is further configured to run a generic bootstrapping architecture, GBA, protocol and further wherein the cryptographic material is received from the server protected using said GBA protocol.
An EphA4 receptor antagonist comprising a cyclised peptide having a length of 12 amino acids and comprising an amino acid sequence selected from the following: i) X 1 -P 2 -X 3 -C 4 -V 5 -Y 6 -X 7 -βA 8 -X 9 -W 10 -X 11 -C 12 (SEQ ID NO: 18), wherein X 1 is independently βA, D-A, A, E, G or Q; X 3 is independently Y, F, W, V, L or H; X 7 is independently any amino acid except P; X 9 is independently any amino acid except P; and X 11 is independently any amino acid except P; ii) X 1 -P 2 -Y 3 -C 4 -V 5 -Y 6 -X 7 -βA 8 -X 9 -W 10 -X 11 -C 12 (SEQ ID NO: 21), wherein X 1 is independently βA, D-A, A, E, G or Q; X 7 is independently any amino acid except P; X 9 is independently any amino acid except P; and X 11 is independently any amino acid except P; iii) X 1 -P 2 -Y 3 -C 4 -V 5 -Y 5 -R 7 -βA 8 -X 9 -W 10 -X 11 -C 12 (SEQ ID NO: 24), wherein X 1 is independently βA, D-A, A, E, G or Q; X 9 is independently any amino acid except P; and X 11 is independently any amino acid except P; wherein C 4 and C 12 form a disulfide bridge; and wherein C 12 is optionally amidated. i) X 1 -P 2 -X 3 -C 4 -V 5 -Y 6 -X 7 -βA 8 -X 9 -W 10 -X 11 -C 12 (SEQ ID NO: 18), wherein X 1 is independently βA, D-A, A, E, G or Q; X 3 is independently Y, F, W, V, L or H; X 7 is independently any amino acid except P; X 9 is independently any amino acid except P; and X 11 is independently any amino acid except P; ii) X 1 -P 2 -Y 3 -C 4 -V 5 -Y 6 -X 7 -βA 8 -X 9 -W 10 -X 11 -C 12 (SEQ ID NO: 21), wherein X 1 is independently βA, D-A, A, E, G or Q; X 7 is independently any amino acid except P; X 9 is independently any amino acid except P; and X 11 is independently any amino acid except P; iii) X 1 -P 2 -Y 3 -C 4 -V 5 -Y 5 -R 7 -βA 8 -X 9 -W 10 -X 11 -C 12 (SEQ ID NO: 24), wherein X 1 is independently βA, D-A, A, E, G or Q; X 9 is independently any amino acid except P; and X 11 is independently any amino acid except P; wherein C 4 and C 12 form a disulfide bridge; and wherein C 12 is optionally amidated.
A method in a distributed and nonhierarchical node comprising a set of data items for determining a synchronization state between said node and one or more distributed and nonhierarchical nodes communicatively coupled to form a cluster, wherein the set of data items are locally replicated at each node, the method comprising: generating a snapshot comprising information relating to the set of data items at a snapshot time T s , said information identifying changes to the data items where each change comprises a time stamp, wherein only changes to the data items with a time stamp ≤ T 0 , where T s > T 0 and T 0 is determined in such a way that it for the selected snapshot time T s represents a corresponding time in all nodes, are included in the snapshot, although changes to the data items up to the time T s have been received and stored in the nodes; receiving corresponding generated snapshots from all other nodes in the cluster; and determining a synchronization state based on a comparison between the generated and received snapshots, wherein the synchronization state is determined to be not synchronized if the generated snapshot and the received corresponding snapshots do not all match, wherein the snapshot time T s is at least a delay time T d after T 0 , i.e. T s ≥ T 0 + T d , wherein the delay time T d is set to be longer than the maximum transmission delay time between the nodes in the system. generating a snapshot comprising information relating to the set of data items at a snapshot time T s , said information identifying changes to the data items where each change comprises a time stamp, wherein only changes to the data items with a time stamp ≤ T 0 , where T s > T 0 and T 0 is determined in such a way that it for the selected snapshot time T s represents a corresponding time in all nodes, are included in the snapshot, although changes to the data items up to the time T s have been received and stored in the nodes; receiving corresponding generated snapshots from all other nodes in the cluster; and determining a synchronization state based on a comparison between the generated and received snapshots, wherein the synchronization state is determined to be not synchronized if the generated snapshot and the received corresponding snapshots do not all match, wherein the snapshot time T s is at least a delay time T d after T 0 , i.e. T s ≥ T 0 + T d , wherein the delay time T d is set to be longer than the maximum transmission delay time between the nodes in the system.
A nonwoven fabric obtainable by forming a mixture comprising: (I) a fiber obtained by producing a propylene based resin composition from (i) 1 to 40 weight parts of an isotactic polypropylene and (ii) 60 to 99 weight parts of a propylene/ethylene/α-olefin copolymer and spinning, and (II) a fiber obtained by producing a resin other than the propylene based resin composition and spinning, wherein said propylene/ethylene/α-olefin copolymer is obtained by copolymerizing 45 to 89 mole % of propylene, 10 to 25 mole % of ethylene and the balance of α-olefin having 4 to 20 carbon atoms, with the proviso that the copolymerized amount of the α-olefin having 4 to 20 carbon atoms does not exceed 30 mole % wherein the mixture ratio of fiber (II) is not more than 30 weight % of the total nonwoven fabric, and the fiber (II) comprises a resin containing polyolefin as a main component. (I) a fiber obtained by producing a propylene based resin composition from (i) 1 to 40 weight parts of an isotactic polypropylene and (ii) 60 to 99 weight parts of a propylene/ethylene/α-olefin copolymer and spinning, and (i) 1 to 40 weight parts of an isotactic polypropylene and (ii) 60 to 99 weight parts of a propylene/ethylene/α-olefin copolymer and spinning, and (II) a fiber obtained by producing a resin other than the propylene based resin composition and spinning,
Portable-power-tool clamping device having at least one fastening unit (12; 12b; 12c) for securing a tool (14a; 14b; 14c) in an axial direction (16a; 16b; 16c) on a spindle (18a; 18b; 18c) and having at least one uncoupling unit (20a; 20b; 20c) for uncoupling at least one fastening element (20a; 20b; 20c) of the fastening unit (12a; 12b; 12c) in the axial direction (16a; 16b; 16c), characterized by a run-off securing unit (26a; 26b; 26c), which, in order to avoid the fastening unit (12; 12b; 12c) and/or the tool (14a; 14b; 14c) running off the spindle (18a; 18b; 18c) during braking operation, is provided at least partially to convert a first relative movement, forming a rotary movement, between at least two fastening elements (22a, 28a; 22b, 28b; 22c, 28c) of the fastening unit (12a; 12b; 12c) into a second relative movement such that the first fastening element, as a result of the first relative movement, is moved relative to the second fastening element in the axial direction, wherein the first fastening element bears on the spindle by way of a screw connection of a first fastening element of the fastening unit and is movable relative to the second fastening element.