mhurhangee/ep-ind-claims huggingface dataset:
Micromechanical component, comprising: a carrier structure with at least two membranes, wherein the at least two membranes each cover a cutout, which extends from a first side of the carrier structure into the carrier structure, such that, in the case of a pressure equality on the first side of the carrier structure and a second side of the carrier structure that is directed away from the first side, the at least two membranes are present in a plane which is defined by a first spatial direction (x) and a second spatial direction (y) which is oriented perpendicularly to the first spatial direction (x) and can be bent by means of a pressure difference between the first side of the carrier structure and the second side of the carrier structure; and at least one actuator electrode which is connected to the at least two membranes in such a way that the at least one actuator electrode can be adjusted by means of bending of the at least two membranes out of their respective initial position; characterized in that each of the at least two membranes is formed with the same first extent in the first spatial direction (x) and the same second extent in the second spatial direction (y), wherein the first extent is greater by at least a factor of 1.25 than the second extent. a carrier structure with at least two membranes, wherein the at least two membranes each cover a cutout, which extends from a first side of the carrier structure into the carrier structure, such that, in the case of a pressure equality on the first side of the carrier structure and a second side of the carrier structure that is directed away from the first side, the at least two membranes are present in a plane which is defined by a first spatial direction (x) and a second spatial direction (y) which is oriented perpendicularly to the first spatial direction (x) and can be bent by means of a pressure difference between the first side of the carrier structure and the second side of the carrier structure; and at least one actuator electrode which is connected to the at least two membranes in such a way that the at least one actuator electrode can be adjusted by means of bending of the at least two membranes out of their respective initial position; characterized in that each of the at least two membranes is formed with the same first extent in the first spatial direction (x) and the same second extent in the second spatial direction (y), wherein the first extent is greater by at least a factor of 1.25 than the second extent.
A resource allocation method, comprising: acquiring, by a first base station, resource configuration information of a first cell, wherein the first cell is a cell served by the first base station; receiving, by the first base station, resource configuration information of a second cell sent by a second base station, wherein the second cell is a cell served by the second base station; and allocating, by the first base station, a resource to user equipment for communicating with the first cell and the second cell, according to the resource configuration information of the first cell and the resource configuration information of the second cell; wherein when the resource configuration information comprises uplink power control common configuration information, the allocating a resource to the user equipment according to the resource configuration information of the first cell and the resource configuration information of the second cell comprises: sending the uplink power control common configuration information of the first cell and the uplink power control common configuration information of the second cell to the user equipment; receiving power headroom report, PHR, information sent by the user equipment according to the uplink power control common configuration information; and allocating an uplink resource to the user equipment according to the PHR information. acquiring, by a first base station, resource configuration information of a first cell, wherein the first cell is a cell served by the first base station; receiving, by the first base station, resource configuration information of a second cell sent by a second base station, wherein the second cell is a cell served by the second base station; and allocating, by the first base station, a resource to user equipment for communicating with the first cell and the second cell, according to the resource configuration information of the first cell and the resource configuration information of the second cell; wherein when the resource configuration information comprises uplink power control common configuration information, the allocating a resource to the user equipment according to the resource configuration information of the first cell and the resource configuration information of the second cell comprises: sending the uplink power control common configuration information of the first cell and the uplink power control common configuration information of the second cell to the user equipment; receiving power headroom report, PHR, information sent by the user equipment according to the uplink power control common configuration information; and allocating an uplink resource to the user equipment according to the PHR information. sending the uplink power control common configuration information of the first cell and the uplink power control common configuration information of the second cell to the user equipment; receiving power headroom report, PHR, information sent by the user equipment according to the uplink power control common configuration information; and allocating an uplink resource to the user equipment according to the PHR information.
A method for metering real-time streaming media for commercial purposes, the method comprising: ▪ receiving a request for a real-time media stream from a client computer; ▪ forwarding from a media server to the client computer a continuous sequence of individual pieces of information that correspond to a real-time media stream having a predetermined schedule of programming, wherein the forwarding is via unicast, multicast and/or broadcast; ▪ detecting a termination of the forwarding; ▪ after the termination, determining information for establishing an extent of the real-time media stream that was forwarded to the client computer, wherein the extent of the real-time media stream that was forwarded to the client is less than the entire real-time media stream; and ▪ logging the information for commercial purposes. ▪ receiving a request for a real-time media stream from a client computer; ▪ forwarding from a media server to the client computer a continuous sequence of individual pieces of information that correspond to a real-time media stream having a predetermined schedule of programming, wherein the forwarding is via unicast, multicast and/or broadcast; ▪ detecting a termination of the forwarding; ▪ after the termination, determining information for establishing an extent of the real-time media stream that was forwarded to the client computer, wherein the extent of the real-time media stream that was forwarded to the client is less than the entire real-time media stream; and ▪ logging the information for commercial purposes.
A media service presentation method, comprising: obtaining (501, 502, 503) media content, presentation template information and service guide, SG, information; generating a presentation script information according to the presentation template information and the SG information; and presenting the media content to a user according to the presentation script information. wherein generating the presentation script information according to the SG information and the presentation template information comprises: resolving the SG information to generate SG data; and converting the SG data into the presentation script information according to the presentation template information. obtaining (501, 502, 503) media content, presentation template information and service guide, SG, information; generating a presentation script information according to the presentation template information and the SG information; and presenting the media content to a user according to the presentation script information. wherein generating the presentation script information according to the SG information and the presentation template information comprises: resolving the SG information to generate SG data; and converting the SG data into the presentation script information according to the presentation template information. resolving the SG information to generate SG data; and converting the SG data into the presentation script information according to the presentation template information.
A method for recycling LED components from a waste lamp mixture, wherein a) a waste lamp mixture is fed to an irradiation chamber; b) the waste lamp mixture is irradiated using a radiation source emitting in the wavelength range of 400 to 500 nm, the LED lamps excited to fluoresce as a result of the irradiation emitting fluorescent radiation; c) the emitted fluorescent radiation is detected by way of a detector, and the LED lamps are identified thereby; d) the identified LED lamps are separated from the remaining waste lamp mixture; e) the separated LED lamps are subjected to mechanical comminution; f) the comminuted LED lamps comprising LED components and non-LED components are irradiated using a radiation source emitting in the wavelength range of 400 to 500 nm, the LED components excited to fluoresce as a result of the irradiation emitting fluorescent radiation; g) the emitted fluorescent radiation is detected by way of a detector, and the LED components are identified thereby; and h) the identified LED components are separated from the non-LED components. a) a waste lamp mixture is fed to an irradiation chamber; b) the waste lamp mixture is irradiated using a radiation source emitting in the wavelength range of 400 to 500 nm, the LED lamps excited to fluoresce as a result of the irradiation emitting fluorescent radiation; c) the emitted fluorescent radiation is detected by way of a detector, and the LED lamps are identified thereby; d) the identified LED lamps are separated from the remaining waste lamp mixture; e) the separated LED lamps are subjected to mechanical comminution; f) the comminuted LED lamps comprising LED components and non-LED components are irradiated using a radiation source emitting in the wavelength range of 400 to 500 nm, the LED components excited to fluoresce as a result of the irradiation emitting fluorescent radiation; g) the emitted fluorescent radiation is detected by way of a detector, and the LED components are identified thereby; and h) the identified LED components are separated from the non-LED components.
Ice maker comprising at least one tray which is twistable about a first axis, characterised in that a lever which projects in the radial direction in relation to the axis is mounted at the tray and is displaceable between a rest position and an actuating position, wherein the distance of a handle section of the lever from the axis is greater in the actuating position than in the rest position.
A method of manufacturing recycled pulp fibers from a pulp fiber-containing used sanitary product, wherein the method includes: a supply step (S19-2a) of supplying an aqueous solution containing the pulp fibers to a driving fluid supply port of a treatment tank provided with an ejector, the ejector comprising the driving fluid supply port, a mixed fluid discharge port connected to the treatment tank, and a suction fluid supply port between them, while supplying ozone to the suction fluid supply port, and a recycled pulp fiber-forming step (S19-2b) of forming recycled pulp fibers by discharging a liquid mixture formed by mixing of the aqueous solution and the ozone in the ejector into the treatment solution in the treatment tank from the mixed fluid discharge port, and decomposing the protein-containing components in the pulp fibers by treatment with the ozone, such that an aqueous dispersion comprising the recycled pulp fibers dispersed at a solid concentration of 5.0 mass% contains protein at a concentration of 60 μg/mL or lower, as measured by a Modified Lowry method in a protein concentration measurement step. a supply step (S19-2a) of supplying an aqueous solution containing the pulp fibers to a driving fluid supply port of a treatment tank provided with an ejector, the ejector comprising the driving fluid supply port, a mixed fluid discharge port connected to the treatment tank, and a suction fluid supply port between them, while supplying ozone to the suction fluid supply port, and a recycled pulp fiber-forming step (S19-2b) of forming recycled pulp fibers by discharging a liquid mixture formed by mixing of the aqueous solution and the ozone in the ejector into the treatment solution in the treatment tank from the mixed fluid discharge port, and decomposing the protein-containing components in the pulp fibers by treatment with the ozone, such that an aqueous dispersion comprising the recycled pulp fibers dispersed at a solid concentration of 5.0 mass% contains protein at a concentration of 60 μg/mL or lower, as measured by a Modified Lowry method in a protein concentration measurement step.
A method of quantifying quality of a plurality of service classes provided by a link between first and second forwarding nodes (902, 904) in a wide area network, the method comprising: at the second forwarding node: based on packets sent from the first forwarding node for a first service class, computing and storing a first path quality metric, PQM, value for the first service class to quantify the quality of service provided to packets processed through the first service class; based on packets sent from the first forwarding node for a second service class, computing and storing a second PQM value for the second service class to quantify the quality of service provided to packets processed through the second service class; and forwarding the first and second PQM values from the second forwarding node to the first forwarding node for the first forwarding node to use to assess the quality of the first and second service classes and based on the assessment select one of the service classes for forwarding data messages to the second forwarding node, wherein different service classes provided by the link are associated with different quality of service guarantees. based on packets sent from the first forwarding node for a first service class, computing and storing a first path quality metric, PQM, value for the first service class to quantify the quality of service provided to packets processed through the first service class; based on packets sent from the first forwarding node for a second service class, computing and storing a second PQM value for the second service class to quantify the quality of service provided to packets processed through the second service class; and forwarding the first and second PQM values from the second forwarding node to the first forwarding node for the first forwarding node to use to assess the quality of the first and second service classes and based on the assessment select one of the service classes for forwarding data messages to the second forwarding node, wherein different service classes provided by the link are associated with different quality of service guarantees.
An elevator system comprising: an elevator car arranged within an elevator shaft; a controller configured to control movement of the elevator car; a position reference system (234; 213) configured to provide a position of the elevator car within the elevator shaft; and at least one safety device configured to indicate, when triggered, a potential hazard within the elevator system; wherein when an actual position of the elevator car cannot be determined using the position reference system (234; 213), the controller is configured to: calculate at least one potential position of the elevator car based on an assumed motion profile of the elevator car; and characterized in that the controller is further configured to: allow the elevator car to move whilst no safety device, which corresponds to a potential position of elevator car is triggered; and stop movement of the elevator car when a safety device which corresponds to a potential position of the elevator car is triggered. an elevator car arranged within an elevator shaft; a controller configured to control movement of the elevator car; a position reference system (234; 213) configured to provide a position of the elevator car within the elevator shaft; and at least one safety device configured to indicate, when triggered, a potential hazard within the elevator system; wherein when an actual position of the elevator car cannot be determined using the position reference system (234; 213), the controller is configured to: calculate at least one potential position of the elevator car based on an assumed motion profile of the elevator car; and characterized in that the controller is further configured to: allow the elevator car to move whilst no safety device, which corresponds to a potential position of elevator car is triggered; and stop movement of the elevator car when a safety device which corresponds to a potential position of the elevator car is triggered. calculate at least one potential position of the elevator car based on an assumed motion profile of the elevator car; and characterized in that the controller is further configured to: allow the elevator car to move whilst no safety device, which corresponds to a potential position of elevator car is triggered; and stop movement of the elevator car when a safety device which corresponds to a potential position of the elevator car is triggered.
A network entity for a wireless network system, wherein the network entity is configured to: obtain an ingress time ( t 0) of a received packet, the ingress time ( t 0) indicating the time at which the packet enters the wireless network system; determine time information regarding the packet based on the ingress time ( t 0); determine if the packet belongs to a set of packets that enter the network system periodically; determine an interval, if the packet belongs to such a set of packets; provide the time information to another network entity; and provide information indicative of the periodicity to the other network entity, wherein the information indicative of the periodicity is based on the interval. obtain an ingress time ( t 0) of a received packet, the ingress time ( t 0) indicating the time at which the packet enters the wireless network system; determine time information regarding the packet based on the ingress time ( t 0); determine if the packet belongs to a set of packets that enter the network system periodically; determine an interval, if the packet belongs to such a set of packets; provide the time information to another network entity; and provide information indicative of the periodicity to the other network entity, wherein the information indicative of the periodicity is based on the interval.
A process for calibrating the loading force of a breaker element of a bale opener on a bale group comprising the following process steps: (a) Predefine upper and lower loading forces and setting a force sensor at no load; (b) Lowering the breaker element onto the bale group until achieving a loading force equal to at least twice the upper loading force at which the breaker element receives the command to lift during the breaking operation wherein the loading force is measured with the force sensor; (c) Relieving the load on the breaker element; (d) Setting the loading force measured with the force sensor at a negative value which includes signal distortion influences and (e) Lowering the breaker element until the loading force reaches at least the level of the upper loading force. (a) Predefine upper and lower loading forces and setting a force sensor at no load; (b) Lowering the breaker element onto the bale group until achieving a loading force equal to at least twice the upper loading force at which the breaker element receives the command to lift during the breaking operation wherein the loading force is measured with the force sensor; (c) Relieving the load on the breaker element; (d) Setting the loading force measured with the force sensor at a negative value which includes signal distortion influences and (e) Lowering the breaker element until the loading force reaches at least the level of the upper loading force.
A labeled container, comprising a label having a heat sealing layer, and a resin container to which the label is attached through the heat sealing layer, wherein a notch portion is provided around the label, characterized in that a part of the label is embedded in the resin container, the notch portion has a depth (d) of 40 μm or more, the notch portion has a width of 300 μm or more, and one selected from the resin container and the heat sealing layer on the attached surfaces contains a polyolefin resin as a main component, and the other contains a polyester resin as a main component. a notch portion is provided around the label, characterized in that a part of the label is embedded in the resin container, the notch portion has a depth (d) of 40 μm or more, the notch portion has a width of 300 μm or more, and one selected from the resin container and the heat sealing layer on the attached surfaces contains a polyolefin resin as a main component, and the other contains a polyester resin as a main component.
A refrigeration cycle apparatus, comprising: a refrigerant circuit in which a compressor, a condenser (2, 4), a pressure reducing device, and an evaporator (4, 2) are connected by refrigerant pipes; at least one auxiliary system device; an air-sending device provided to at least one of the condenser (2, 4) and the evaporator (4, 2); an indoor unit having mounted thereon at least one device of the compressor, the condenser (2, 4), the pressure reducing device, and the evaporator (4, 2); an outdoor unit having mounted thereon at least one device of the compressor, the condenser (2, 4), the pressure reducing device, and the evaporator (4, 2) other than the at least one device mounted on the indoor unit; characterized by a DC/AC converter device connected to the outdoor unit and the indoor unit, and configured to convert a DC voltage supplied from a DC power supply into an AC voltage, at least one of the compressor and the air-sending device being a power system device driven by the DC voltage, the at least one auxiliary system device including solenoid valves (5, 6), a pressure switch, and a belt heater, the at least one auxiliary system device being provided in one of the indoor unit and the outdoor unit and driven by the AC voltage, the DC/AC converter device being configured to supply power to the at least one auxiliary system device. a refrigerant circuit in which a compressor, a condenser (2, 4), a pressure reducing device, and an evaporator (4, 2) are connected by refrigerant pipes; at least one auxiliary system device; an air-sending device provided to at least one of the condenser (2, 4) and the evaporator (4, 2); an indoor unit having mounted thereon at least one device of the compressor, the condenser (2, 4), the pressure reducing device, and the evaporator (4, 2); an outdoor unit having mounted thereon at least one device of the compressor, the condenser (2, 4), the pressure reducing device, and the evaporator (4, 2) other than the at least one device mounted on the indoor unit; characterized by a DC/AC converter device connected to the outdoor unit and the indoor unit, and configured to convert a DC voltage supplied from a DC power supply into an AC voltage, at least one of the compressor and the air-sending device being a power system device driven by the DC voltage, the at least one auxiliary system device including solenoid valves (5, 6), a pressure switch, and a belt heater, the at least one auxiliary system device being provided in one of the indoor unit and the outdoor unit and driven by the AC voltage,