mhurhangee/patent-ind-claim-en huggingface dataset:
A method at a first image capture apparatus of a security system, the method comprising: receiving, at the first image capture apparatus , from a second image capture apparatus a wake-up trigger to begin image capture for a fixed duration, wherein the wake-up trigger includes the location of the second image capture apparatus and a range around the second image capture apparatus for which image capture data is needed, wherein the wake-up trigger further includes an event identifier and a server to report information to; determining, by the first image capture apparatus , the location of the first image capture apparatus ; finding, by the first image capture apparatus , whether the first image capture apparatus is within the range around the second image capture apparatus based on the location of the first image capture apparatus , the location of the second image capture apparatus included in the wake-up trigger and the range around the second image capture apparatus included in the wake-up trigger ; if the first image capture apparatus is within the range around the second image capture apparatus , starting , by the first image capture apparatus , the image capture; and providing, by the first image capture apparatus , image capture data, the event identifier, the position of the first image capture apparatus and a bearing for an image sensor on the first image capture apparatus to the server. receiving, at the first image capture apparatus , from a second image capture apparatus a wake-up trigger to begin image capture for a fixed duration, wherein the wake-up trigger includes the location of the second image capture apparatus and a range around the second image capture apparatus for which image capture data is needed, wherein the wake-up trigger further includes an event identifier and a server to report information to; determining, by the first image capture apparatus , the location of the first image capture apparatus ; finding, by the first image capture apparatus , whether the first image capture apparatus is within the range around the second image capture apparatus based on the location of the first image capture apparatus , the location of the second image capture apparatus included in the wake-up trigger and the range around the second image capture apparatus included in the wake-up trigger ; if the first image capture apparatus is within the range around the second image capture apparatus , starting , by the first image capture apparatus , the image capture; and providing, by the first image capture apparatus , image capture data, the event identifier, the position of the first image capture apparatus and a bearing for an image sensor on the first image capture apparatus to the server.
A process for producing adhesive-coated articles, wherein an aqueous dispersion adhesive composition comprising (a) at least one adhesive polymer dispersed in the aqueous phase and (b) at least one polyvinylpyrrolidone dissolved in the aqueous phase is applied to a film substrate using a coating machine with at least one rotating roller, wherein the web speed of the film substrate is not less than 150 m/min, preferably not less than 200 m/min, and wherein the coated film substrate is optionally bonded to a further substrate. (a) at least one adhesive polymer dispersed in the aqueous phase and (b) at least one polyvinylpyrrolidone dissolved in the aqueous phase
A session migration method, comprising: determining (S201, S301), by a source user plane network element, whether to continue to provide a service for a terminal device; and if the source user plane network element determines not to continue to provide a service for the terminal device, retaining (S202, S302), by the source user plane network element, a context of a first session, and sending (S202, S302) a first notification message to a control plane network element, wherein the first notification message is used to trigger the control plane network element to send instruction information to the terminal device, and the instruction information is used to instruct the terminal device to trigger establishment of a second session after data to be sent to the terminal device is obtained, wherein the first session is an established session between the source user plane network element and the terminal device, and the second session is a session between a target user plane network element and the terminal device. determining (S201, S301), by a source user plane network element, whether to continue to provide a service for a terminal device; and if the source user plane network element determines not to continue to provide a service for the terminal device, retaining (S202, S302), by the source user plane network element, a context of a first session, and sending (S202, S302) a first notification message to a control plane network element, wherein the first notification message is used to trigger the control plane network element to send instruction information to the terminal device, and the instruction information is used to instruct the terminal device to trigger establishment of a second session after data to be sent to the terminal device is obtained, wherein the first session is an established session between the source user plane network element and the terminal device, and the second session is a session between a target user plane network element and the terminal device.
A method, comprising: - a radio communication device (10; 100) applying a beamforming pattern defining plurality of beams ; - from the plurality of beams , the radio communication device (10; 100) selecting at least one main beam and a set of auxiliary beams; - exclusively on the at least one main beam, the radio communication device (10; 100) sending radio transmissions to a further radio communication device(10; 100); - on the at least one main beam and the set of auxiliary beams, the radio communication device (10; 100) monitoring signals transmitted by the further communication device (10; 100); - depending on the monitored signals, the communication device (10; 100) reselecting at least one beam from the set of auxiliary beams as the at least one main beam, and - adapting an angular region covered by the set of auxiliary beams depending on relative movement of the radio communication device (10; 100) with respect to the further radio communication device (10; 100), wherein the angular region is adapted by adapting a number of beams in the set of auxiliary beams. - a radio communication device (10; 100) applying a beamforming pattern defining plurality of beams ; - from the plurality of beams , the radio communication device (10; 100) selecting at least one main beam and a set of auxiliary beams; - exclusively on the at least one main beam, the radio communication device (10; 100) sending radio transmissions to a further radio communication device(10; 100); - on the at least one main beam and the set of auxiliary beams, the radio communication device (10; 100) monitoring signals transmitted by the further communication device (10; 100); - depending on the monitored signals, the communication device (10; 100) reselecting at least one beam from the set of auxiliary beams as the at least one main beam, and - adapting an angular region covered by the set of auxiliary beams depending on relative movement of the radio communication device (10; 100) with respect to the further radio communication device (10; 100), wherein the angular region is adapted by adapting a number of beams in the set of auxiliary beams.
A method for monitoring a physical downlink control channel, PDCCH, comprising: switching from a source bandwidth part, BWP, to a target BWP; and characterized in that , monitoring within on-durations associated with a wake-up signal (WUS1, WUS2, WUS3), the PDCCH according to a monitoring strategy of determining that the wake-up signal is monitored, in response to missing a monitoring moment of the wake-up signal on the target BWP during BWP switching, wherein the monitoring strategy is predefined by a protocol to indicate that the wake-up signal is monitored in response to missing the monitoring moment of the wake-up signal on the target BWP. switching from a source bandwidth part, BWP, to a target BWP; and characterized in that , monitoring within on-durations associated with a wake-up signal (WUS1, WUS2, WUS3), the PDCCH according to a monitoring strategy of determining that the wake-up signal is monitored, in response to missing a monitoring moment of the wake-up signal on the target BWP during BWP switching, wherein the monitoring strategy is predefined by a protocol to indicate that the wake-up signal is monitored in response to missing the monitoring moment of the wake-up signal on the target BWP.
An apparatus (50, 50', 50") for fixing a bone, comprising: a plate defining a plurality of openings configured to receive fasteners that attach the plate to a shaft region of the bone; characterised in that the apparatus further comprises: a coupler (54, 54', 54", 170, 180, 200) configured to be disposed on an end region of the bone, the coupler defining a bore extending along a longitudinal axis and an aperture having a through-axis that is transverse to a line parallel to the longitudinal axis of the bore ; a first flexible member including a wire or cable and a crimp member ; and a second flexible member including a wire or cable and a crimp member ; wherein the coupler (54, 54', 54", 170, 180, 200) and the plate are configured to be connected to one another using the first flexible member extending from the plate , through the bore of the coupler (54, 54', 54", 170, 180, 200), and back to the plate , and using the second flexible member extending from the plate to the aperture of the coupler (54, 54', 54", 170, 180, 200) on a path that approaches the aperture transverse to a line that is parallel to the longitudinal axis of the bore . a plate defining a plurality of openings configured to receive fasteners that attach the plate to a shaft region of the bone; characterised in that the apparatus further comprises: a coupler (54, 54', 54", 170, 180, 200) configured to be disposed on an end region of the bone, the coupler defining a bore extending along a longitudinal axis and an aperture having a through-axis that is transverse to a line parallel to the longitudinal axis of the bore ; a first flexible member including a wire or cable and a crimp member ; and a second flexible member including a wire or cable and a crimp member ; wherein the coupler (54, 54', 54", 170, 180, 200) and the plate are configured to be connected to one another using the first flexible member extending from the plate , through the bore of the coupler (54, 54', 54", 170, 180, 200), and back to the plate , and using the second flexible member extending from the plate to the aperture of the coupler (54, 54', 54", 170, 180, 200) on a path that approaches the aperture transverse to a line that is parallel to the longitudinal axis of the bore . a coupler (54, 54', 54", 170, 180, 200) configured to be disposed on an end region of the bone, the coupler defining a bore extending along a longitudinal axis and an aperture having a through-axis that is transverse to a line parallel to the longitudinal axis of the bore ; a first flexible member including a wire or cable and a crimp member ; and a second flexible member including a wire or cable and a crimp member ; wherein the coupler (54, 54', 54", 170, 180, 200) and the plate are configured to be connected to one another using the first flexible member extending from the plate , through the bore of the coupler (54, 54', 54", 170, 180, 200), and back to the plate , and using the second flexible member extending from the plate to the aperture of the coupler (54, 54', 54", 170, 180, 200) on a path that approaches the aperture transverse to a line that is parallel to the longitudinal axis of the bore .
A vacuum cleaner floor nozzle comprising a housing , a sliding base arranged on the underside of the housing , and a suction mouth , which is arranged in the sliding base and which extends in a transverse direction (y) and which is limited by a boundary , wherein, in a working direction (x), which is perpendicular to the transverse direction (y), the sliding base has a flat region in front of and/or behind the suction mouth , wherein, between the flat region and the suction mouth , the sliding base has a superelevation , which connects continuously to the flat region and which protrudes beyond the extension of the flat region , characterized in that the maximum height (h) of the superelevation has a distance of less than 1 mm from the boundary of the suction mouth .
A method for stabilizing a fire suppression agent, comprising: substantially continuously contacting 0.1 to 1 weight percent of a solid radical scavenging agent with a liquid fire suppression agent in a fire extinguisher, wherein the fire suppression agent comprises CF 3 I, and characterized in that the amount of solid radical scavenging agent is based on the total amount of CF 3 I, and the solid radical scavenging agent comprises zeolite or a solid support coated with one or more of an iodide compound having a melting point greater than 96.11°C (205°F), copper, and silver; wherein "substantially continuously contacting" is defined as having the fire suppression agent in contact with the solid radical scavenging agent for at least 90% of the time that the fire suppression agent is stored in the fire extinguisher.
A harvester comprising: a grain processing unit with a multistage separation unit to separate grain from crop material other than grain; and a material flow sensor to form an electromagnetic plane through which crop material passes while being sensed, wherein the electromagnetic plane is sandwiched between consecutive stages of the separation unit , the material flow sensor comprising a plurality of emitters and a plurality of detectors extending both along an entire length of the sides of the electromagnetic plane , the signals of the detectors indicating crop flow differences along the length of the plane , characterized in that the material flow sensor comprises additional emitters and detectors along opposite ends of the electromagnetic plane , the ends of the plane extending between the respective ends of the sides, the signals of the detectors on the opposite ends indicating crop flow differences between the sides of the plane . a grain processing unit with a multistage separation unit to separate grain from crop material other than grain; and a material flow sensor to form an electromagnetic plane through which crop material passes while being sensed, wherein the electromagnetic plane is sandwiched between consecutive stages of the separation unit , the material flow sensor comprising a plurality of emitters and a plurality of detectors extending both along an entire length of the sides of the electromagnetic plane , the signals of the detectors indicating crop flow differences along the length of the plane , characterized in that the material flow sensor comprises additional emitters and detectors along opposite ends of the electromagnetic plane , the ends of the plane extending between the respective ends of the sides, the signals of the detectors on the opposite ends indicating crop flow differences between the sides of the plane .
A method of setting a transmission power of enhanced uplink dedicated physical channels, by a user equipment, UE, in a mobile communication system, when an enhanced dedicated channel, E-DCH, is established, and a dedicated channel, DCH, is not established, wherein a dedicated physical data channel, DPDCH, is mapped to the DCH, based on configuration information signalled from a network, the method comprising the steps of: setting a first gain factor β c representing a transmit power of a dedicated physical control channel, DPCCH, to a predetermined constant; receiving, from a radio network controller, RNC, an offset A E-DPCCH relative to the first gain factor β c , and another offset Δ E-DPDCH relative to the first gain factor β c for setting a transmission power of an enhanced dedicated physical control channel, E-DPCCH, and a transmission power of an enhanced dedicated physical data channel, E-DPDCH, respectively; calculating a second gain factor β ec representing the transmit power of the E-DPCCH based on the first gain factor β c and the offsetΔ E-DPCCH , wherein the received offsetΔ E-DPCCH determines the ratio of the second gain factor β ec to the first gain factor β c ; calculating a third gain factor β ed representing the transmit power of the E-DPDCH based on the first gain factor β c and the offsetΔ E-DPDCH , wherein the received offsetΔ E-DPDCH determines the ratio of the third gain factor β ed to the first gain factor β c ; and setting the transmission power of the E-DPDCH and the E-DPCCH using the gain factors β ed and β ec , respectively, wherein the third gain factor β ed and the second gain factor β ec are determined using: β ed = β c × 10 Δ E − DPDCH 20 β ec = β c × 10 Δ E − DPCCH 20 setting a first gain factor β c representing a transmit power of a dedicated physical control channel, DPCCH, to a predetermined constant; receiving, from a radio network controller, RNC, an offset A E-DPCCH relative to the first gain factor β c , and another offset Δ E-DPDCH relative to the first gain factor β c for setting a transmission power of an enhanced dedicated physical control channel, E-DPCCH, and a transmission power of an enhanced dedicated physical data channel, E-DPDCH, respectively; calculating a second gain factor β ec representing the transmit power of the E-DPCCH based on the first gain factor β c and the offsetΔ E-DPCCH , wherein the received offsetΔ E-DPCCH determines the ratio of the second gain factor β ec to the first gain factor β c ; calculating a third gain factor β ed representing the transmit power of the E-DPDCH based on the first gain factor β c and the offsetΔ E-DPDCH , wherein the received offsetΔ E-DPDCH determines the ratio of the third gain factor β ed to the first gain factor β c ; and setting the transmission power of the E-DPDCH and the E-DPCCH using the gain factors β ed and β ec , respectively, wherein the third gain factor β ed and the second gain factor β ec are determined using:
Apparatus for sensing a movement of a moving object relative to a fluid , e.g. for sensing relative movements of a surf board in water, comprising a housing mounted inside the object in fixed arrangement to a surface of the object, the housing comprising a cover element , which is mounted in flush arrangement to the surface, the housing receiving a spring member having a plurality of blades , wherein each blade has an outer end which is fixed to the housing, and an inner end which is connecting to a center portion of the spring, the plurality of blades defining a plane , wherein a plurality of strain gauges is positioned on the blades, and wherein a rigid pin is mounted, the rigid pin being elongate and having an inner end and a free end , the rigid pin being mounted with its inner end on the center portion of the spring member, said pin is extending in a direction of a normal vector of the plane, through a bore in the cover element, and said pin protruding outward from the bore , and said free end of the pin being configured to dip into the fluid.
A converter system , comprising: a plurality of converter cells , each converter cell being adapted for converting an AC cell input voltage into a cell output voltage; a transformer with a plurality of secondary windings , each secondary winding connected with one converter cell and providing the AC cell input voltage of the one converter cell ; wherein the secondary windings are arranged into at least two groups (G 1 , G 2 , G 3 ) and the converter cells connected to one group (G 1 , G 2 , G 3 ) are series-connected; wherein each group (G 1 , G 2 , G 3 ) comprises at least three secondary windings and converter cells ; wherein the transformer is designed such that the secondary windings of different groups (G 1 , G 2 , G 3 ) provide AC cell input voltages that are phase-shifted with respect to each other, such that higher order harmonics generated by the converter cells cancel each other; wherein the secondary windings of one group (G 1 , G 2 , G 3 ) provide AC cell input voltages with at least two equal phase-shifts (θ 1 , θ 2 , θ 3 , θ 4 , θ 5 , θ 6 ) characterized in that the secondary windings of the one group (G 1 , G 2 , G 3 ) provide AC cell input voltages with two different phase-shifts (θ 1 , θ 2 , θ 3 , θ 4 , θ 5 , θ 6 ). a plurality of converter cells , each converter cell being adapted for converting an AC cell input voltage into a cell output voltage; a transformer with a plurality of secondary windings , each secondary winding connected with one converter cell and providing the AC cell input voltage of the one converter cell ; wherein the secondary windings are arranged into at least two groups (G 1 , G 2 , G 3 ) and the converter cells connected to one group (G 1 , G 2 , G 3 ) are series-connected; wherein each group (G 1 , G 2 , G 3 ) comprises at least three secondary windings and converter cells ; wherein the transformer is designed such that the secondary windings of different groups (G 1 , G 2 , G 3 ) provide AC cell input voltages that are phase-shifted with respect to each other, such that higher order harmonics generated by the converter cells cancel each other; wherein the secondary windings of one group (G 1 , G 2 , G 3 ) provide AC cell input voltages with at least two equal phase-shifts (θ 1 , θ 2 , θ 3 , θ 4 , θ 5 , θ 6 ) characterized in that the secondary windings of the one group (G 1 , G 2 , G 3 ) provide AC cell input voltages with two different phase-shifts (θ 1 , θ 2 , θ 3 , θ 4 , θ 5 , θ 6 ).
Method for heat energy recovery in installations comprising at least one reformer , in particular in synthesis gas installations having steam reforming means, in which installations at least the following process streams of the installation are interconnected: combustion air (VL) for the reformer, boiler feed water (KSW) for steam generation, process condensate (PK) on a cooling section of the installation, and flue gas (RG) from the reformer; wherein at least partial evaporation of the process condensate on the cooling section is realized; wherein the flue gas is discharged through a flue gas duct in which heat energy recovery is realized; and wherein the combustion air is conducted through the flue gas duct prior to being supplied to the reformer for the purpose of heat energy recovery; characterized in that , for the purpose of heat energy recovery, the process condensate (PK) is preheated and/or evaporated on the cooling section by heat exchange with gas generated in the installation , in particular synthesis gas (SG), and in that , prior to being preheated in the flue gas duct , the combustion air (VL) is preheated by heat exchange by means of the boiler feed water (KSW). combustion air (VL) for the reformer, boiler feed water (KSW) for steam generation, process condensate (PK) on a cooling section of the installation, and flue gas (RG) from the reformer; wherein at least partial evaporation of the process condensate on the cooling section is realized; wherein the flue gas is discharged through a flue gas duct in which heat energy recovery is realized; and wherein the combustion air is conducted through the flue gas duct prior to being supplied to the reformer for the purpose of heat energy recovery; characterized in that , for the purpose of heat energy recovery, the process condensate (PK) is preheated and/or evaporated on the cooling section by heat exchange with gas generated in the installation , in particular synthesis gas (SG), and in that , prior to being preheated in the flue gas duct , the combustion air (VL) is preheated by heat exchange by means of the boiler feed water (KSW).