mhurhangee/ep-ind-claims huggingface dataset:
A method for controlling access to a service on a first device, comprising at a processor of the first device (101, 102, 103): - obtaining a time reference through a first broadcast communication network; - obtaining a message from a second device through a second broadcast communication network different from the first broadcast communication network, wherein the message comprises at least a group identifier common to a set of devices for which the service is authorized and an emission time of the message on the second broadcast communication network, where the emission time is given with reference to the time reference obtained from the first broadcast communication network; - determining a transmission delay between the emission time of the message and an arrival time of the message, wherein the emission time of the message is comprised in the message and the arrival time is measured by the first device with reference to the time reference obtained from the first broadcast communication network; - determining the validity of the received message, the message being determined valid in case the group identifier comprised in the message is the same as the group identifier of the first device and in case said transmission delay is lower than a threshold; and - authorizing the access to the service to the first device in case the received message is valid. - obtaining a time reference through a first broadcast communication network; - obtaining a message from a second device through a second broadcast communication network different from the first broadcast communication network, wherein the message comprises at least a group identifier common to a set of devices for which the service is authorized and an emission time of the message on the second broadcast communication network, where the emission time is given with reference to the time reference obtained from the first broadcast communication network; - determining a transmission delay between the emission time of the message and an arrival time of the message, wherein the emission time of the message is comprised in the message and the arrival time is measured by the first device with reference to the time reference obtained from the first broadcast communication network; - determining the validity of the received message, the message being determined valid in case the group identifier comprised in the message is the same as the group identifier of the first device and in case said transmission delay is lower than a threshold; and - authorizing the access to the service to the first device in case the received message is valid.
A spin-coatable liquid for formation of a carbon nanotube film, comprising: a liquid medium comprising one of ethyl lactate, dimethyl sulfoxide (DMSO), monomethyl ether, 4-methyl-2 pentanone, N-methylpyrrolidone, t-butyl alcohol, methoxy propanol, propylene glycol, ethylene glycol, gamma butyrolactone, benzyl benzoate, salicyladehyde, tetramethyl ammonium hydroxide and esters of alpha-hydroxy carboxylic acids and containing a controlled concentration of carbon nanotubes of 1mg/l to 1g/l, purified to an impurity content of less than 0.2 wt% free metal, wherein the controlled concentration is sufficient to form a carbon nanotube fabric or film of preselected density and uniformity, wherein the spin-coatable liquid comprises less than 1 x 10 18 atoms/cm 3 of metallic impurities, and wherein the spin-coatable liquid is substantially free of alkali metal ions, halogen ions, oligomers or polymers as active or inactive chemical components.
An energy storage system, comprising: one or more renewable energy power stations generating power with a renewable energy source (210, 230); and an energy storage facility including a plurality of energy storage apparatuses (300a, 300b) to be charged by one of an external power grid supplying power to a power load and the one or more renewable energy power stations, and to be discharged to supply power to the power load, characterized in that the plurality of energy storage apparatuses (300a, 300b) have different charging and/or discharging periods, wherein a first energy storage apparatus includes a short duration battery and a second energy storage apparatus includes a long duration battery, the short duration battery having a charging and/or discharging period that is relatively shorter than that of the long duration battery, and wherein a third energy storage apparatus includes an ultra-short duration battery having a charging and/or discharging period relatively shorter than that of the short duration battery. one or more renewable energy power stations generating power with a renewable energy source (210, 230); and an energy storage facility including a plurality of energy storage apparatuses (300a, 300b) to be charged by one of an external power grid supplying power to a power load and the one or more renewable energy power stations, and to be discharged to supply power to the power load, characterized in that the plurality of energy storage apparatuses (300a, 300b) have different charging and/or discharging periods, wherein a first energy storage apparatus includes a short duration battery and a second energy storage apparatus includes a long duration battery, the short duration battery having a charging and/or discharging period that is relatively shorter than that of the long duration battery, and wherein a third energy storage apparatus includes an ultra-short duration battery having a charging and/or discharging period relatively shorter than that of the short duration battery.
A servo actuator, comprising: a servo micro control unit, MCU,; a first interface coupled to the servo MCU via a bus; a second interface coupled to the first interface and the servo MCU via the bus; a first servo switch connected between the first interface and the servo MCU configured to turn on or off the first interface; a second servo switch connected between the second interface and the servo MCU configured to turn on or off the second interface; a first connection line connected between the first interface and the servo MCU; and a second connection line connected between the second interface and the servo MCU, wherein the servo MCU is configured to: control the first servo switch and the second servo switch; and detect an access signal of the first interface via the first connection line and an access signal of the second interface via the second connection line and detect which of the first interface and the second interface is the output interface or the input interface when the first servo switch and the second servo switch are turned off. a servo micro control unit, MCU,; a first interface coupled to the servo MCU via a bus; a second interface coupled to the first interface and the servo MCU via the bus; a first servo switch connected between the first interface and the servo MCU configured to turn on or off the first interface; a second servo switch connected between the second interface and the servo MCU configured to turn on or off the second interface; a first connection line connected between the first interface and the servo MCU; and a second connection line connected between the second interface and the servo MCU, wherein the servo MCU is configured to: control the first servo switch and the second servo switch; and detect an access signal of the first interface via the first connection line and an access signal of the second interface via the second connection line and detect which of the first interface and the second interface is the output interface or the input interface when the first servo switch and the second servo switch are turned off. control the first servo switch and the second servo switch; and detect an access signal of the first interface via the first connection line and an access signal of the second interface via the second connection line and detect which of the first interface and the second interface is the output interface or the input interface when the first servo switch and the second servo switch are turned off.
A method for supporting packet switching in a network environment, the method performed by a networking device having a shared memory, which is associated with a plurality of input ports (202, 212) and a plurality of output ports (207, 217), the method comprising: using a plurality of virtual output queues "VOQs" to store one or more packets that are received at the plurality of input ports, wherein each said input port is associated with one or more of said virtual output queues; using an output scheduler to schedule an input port to forward one or more packets stored in a virtual output queue to an output port; detecting a down link at an output port of the plurality of output ports; sending, via the output port, a state change notification to the output scheduler; broadcasting, via the output scheduler, the state change notification to the plurality of input ports; using the state change notification to configure an output port filter mask; receiving, at one or more of the plurality of input ports, packets directed to the down link at the output port; using the output port filter mask to drop the packets received at the one or more of the plurality of input ports and directed to the down link at the output port thereby preventing enqueuing, in the plurality of VOQs the packets directed to the down link at the input ports; and correspondently returning one or more credits to one or more source virtual lanes associated with the input port. using a plurality of virtual output queues "VOQs" to store one or more packets that are received at the plurality of input ports, wherein each said input port is associated with one or more of said virtual output queues; using an output scheduler to schedule an input port to forward one or more packets stored in a virtual output queue to an output port; detecting a down link at an output port of the plurality of output ports; sending, via the output port, a state change notification to the output scheduler; broadcasting, via the output scheduler, the state change notification to the plurality of input ports; using the state change notification to configure an output port filter mask; receiving, at one or more of the plurality of input ports, packets directed to the down link at the output port; using the output port filter mask to drop the packets received at the one or more of the plurality of input ports and directed to the down link at the output port thereby preventing enqueuing, in the plurality of VOQs the packets directed to the down link at the input ports; and correspondently returning one or more credits to one or more source virtual lanes associated with the input port.
A thermotechnical system, with a plurality of heat exchanger units (10, 20) assembled in accordance with a modular arrangement, wherein: - the plurality of heat exchanger units (10, 20) are each formed with an evaporator unit, which is configured to evaporate a heat exchanger operation agent, and a condenser unit, which is configured to liquefy the heat exchanger operation agent, wherein the evaporator unit and condenser unit are fluidically connected for an overflow of the heat exchanger operation agent and arranged in a face-to-face configuration relative to each other, and - the plurality of heat exchanger units (10, 20) form a thermodynamic and process engineering unit, such that, during operation, - evaporated operation agent flows over from an evaporator unit to a condenser unit of one of the heat exchanger units, so as to there at least partially liquefy, - that the liquid generated in the condenser unit is then transferred to an evaporator unit of another one of the heat exchanger units, so as to there evaporate into vapor, and - the vapor subsequently flows over to a condenser unit of the other heat exchanger units, where liquefaction once again takes place, and the liquid generated thereby is again fed to the evaporator unit. - the plurality of heat exchanger units (10, 20) are each formed with an evaporator unit, which is configured to evaporate a heat exchanger operation agent, and a condenser unit, which is configured to liquefy the heat exchanger operation agent, wherein the evaporator unit and condenser unit are fluidically connected for an overflow of the heat exchanger operation agent and arranged in a face-to-face configuration relative to each other, and - the plurality of heat exchanger units (10, 20) form a thermodynamic and process engineering unit, such that, during operation, - evaporated operation agent flows over from an evaporator unit to a condenser unit of one of the heat exchanger units, so as to there at least partially liquefy, - that the liquid generated in the condenser unit is then transferred to an evaporator unit of another one of the heat exchanger units, so as to there evaporate into vapor, and - the vapor subsequently flows over to a condenser unit of the other heat exchanger units, where liquefaction once again takes place, and the liquid generated thereby is again fed to the evaporator unit. - evaporated operation agent flows over from an evaporator unit to a condenser unit of one of the heat exchanger units, so as to there at least partially liquefy, - that the liquid generated in the condenser unit is then transferred to an evaporator unit of another one of the heat exchanger units, so as to there evaporate into vapor, and - the vapor subsequently flows over to a condenser unit of the other heat exchanger units, where liquefaction once again takes place, and the liquid generated thereby is again fed to the evaporator unit.
A mirror device for a vehicle, comprising: a support body that is fixed to a vehicle body side and supports a mirror of the vehicle; and a covering body that is in a substantially tubular shape, and that covers an outer periphery of the support body, wherein the covering body includes: a first covering body, mounting of which to the support body by a linear movement is constrained, the mounting of the first covering body to the support body including turning of the first covering body relative to the support body, and a second covering body that is combined with the first covering body. a support body that is fixed to a vehicle body side and supports a mirror of the vehicle; and a covering body that is in a substantially tubular shape, and that covers an outer periphery of the support body, wherein the covering body includes: a first covering body, mounting of which to the support body by a linear movement is constrained, the mounting of the first covering body to the support body including turning of the first covering body relative to the support body, and a second covering body that is combined with the first covering body. a first covering body, mounting of which to the support body by a linear movement is constrained, the mounting of the first covering body to the support body including turning of the first covering body relative to the support body, and a second covering body that is combined with the first covering body.
An optical frequency domain reflectivity measuring apparatus comprising: a local light delay fiber that delays local light by a delay, τ D; an optical 90-degree hybrid that receives an input of the local light delayed by τ D by the local light delay fiber and backscattered light from a measurement target, causes the local light and the backscattered light to interfere with each other, and generates an in-phase component and an orthogonal component of a beat signal generated by the interference; and a balance photodetector that detects the in-phase component and the orthogonal component of the beat signal, wherein an optical frequency response of the measurement target is measured with respect to a relative distance based on τ D in the local light delay fiber, wherein τ D gives a distance offset to distances measured by the local light delay fiber; characterized in that the optical frequency domain reflectivity measuring apparatus further comprises: an auxiliary interferometer that receives an input of the local light delayed by τ D by the local light delay fiber, delays the input by a further delay, τ AUX, and provides a sampling clock having a sampling period of 1/τ Aux for sampling the frequency response of the measurement target at equal optical frequency intervals. a local light delay fiber that delays local light by a delay, τ D; an optical 90-degree hybrid that receives an input of the local light delayed by τ D by the local light delay fiber and backscattered light from a measurement target, causes the local light and the backscattered light to interfere with each other, and generates an in-phase component and an orthogonal component of a beat signal generated by the interference; and a balance photodetector that detects the in-phase component and the orthogonal component of the beat signal, wherein an optical frequency response of the measurement target is measured with respect to a relative distance based on τ D in the local light delay fiber, wherein τ D gives a distance offset to distances measured by the local light delay fiber; characterized in that the optical frequency domain reflectivity measuring apparatus further comprises: an auxiliary interferometer that receives an input of the local light delayed by τ D by the local light delay fiber, delays the input by a further delay, τ AUX, and provides a sampling clock having a sampling period of 1/τ Aux for sampling the frequency response of the measurement target at equal optical frequency intervals.
Necking machine for containers with an open end to be conformed, comprising a plurality of holding stations for containers and a plurality of tool stations contiguous and opposite, the holding stations and the tool stations being movable with respect to each other, the machine also comprising an inspection device for containers comprising a light detector for detecting light in the interior of each container, so that, in the event of any holes or cracks in the container, the exterior light, which may be ambient light or light irradiated by a light source, reaches the interior of the container and is detected by the light detector, characterized in that the inspection device is attached to a tool station, such that said inspection device shifts together with the tool station with respect to the container during the inspection of each container, light communication of the light detector with the interior of the container being maintained during said inspection, wherein the inspection device comprises a stop with an opening communicating the light detector with the exterior, said stop shifting only to the open end of the container to be inspected, and the inspection of the container being carried out during the time in which said stop is in contact with the open end of the container.
A coating system for an article comprising a first component having a surface in frictional engagement with a surface of a second component, wherein at least a portion of at least one surface of the component(s) is coated with a coating prepared from a composition comprising: (a) a first, curable organopolysiloxane comprising at least two alkenyl groups; and (b) a second, curable organopolysiloxane comprising at least two polar groups, the second organopolysiloxane being different from the first organopolysiloxane, each polar group of the second organopolysiloxane (b) being independently selected from the group consisting of acrylate and methacrylate. (a) a first, curable organopolysiloxane comprising at least two alkenyl groups; and (b) a second, curable organopolysiloxane comprising at least two polar groups, the second organopolysiloxane being different from the first organopolysiloxane, each polar group of the second organopolysiloxane (b) being independently selected from the group consisting of acrylate and methacrylate.
Method for continuously producing molten steel from scrap metal, comprising the steps of: - continuously melting scrap metal in a shaft furnace - discharging the molten steel produced and the accumulated slag through a discharge opening arranged in the lower part of the shaft furnace, - continuously introducing the discharged molten steel and slag into a continuous furnace, - continuously superheating and refining the molten steel in the continuous furnace, - discharging the molten steel and the slag from the continuous furnace continuously and separately from each other, - drawing the furnace gas out of the continuous furnace, - at least partially dedusting the furnace gas, - passing the at least partially dedusted furnace gas through a waste heat recovery boiler to enable the sensible heat thereof to be used for energy purposes, - using the furnace gas as combustion gas for a burner of the shaft furnace. - continuously melting scrap metal in a shaft furnace - discharging the molten steel produced and the accumulated slag through a discharge opening arranged in the lower part of the shaft furnace, - continuously introducing the discharged molten steel and slag into a continuous furnace, - continuously superheating and refining the molten steel in the continuous furnace, - discharging the molten steel and the slag from the continuous furnace continuously and separately from each other, - drawing the furnace gas out of the continuous furnace, - at least partially dedusting the furnace gas, - passing the at least partially dedusted furnace gas through a waste heat recovery boiler to enable the sensible heat thereof to be used for energy purposes, - using the furnace gas as combustion gas for a burner of the shaft furnace.
A cable hook (10, 110) fixing a rebound mat to a trampoline frame by means of two elastic elements and at least one flexible strap element, wherein the cable hook comprises a cable hook housing (11, 111) with four receivers (14, 114), wherein each elastic element has two free ends, each of which has a clamping element enlarging the periphery of the elastic element, wherein a clamping element of the two elastic elements can be inserted in each of said receivers (14, 114), wherein the cable hook (10, 110) has at least one receiving cavity (18, 118) arranged centrally between two of the receivers (14, 114) and a terminating piece assigned to said receiving cavity (18, 118), which terminating piece can be inserted in said receiving cavity (18, 118) and has a cover rounding which points away from the cable hook housing (11, 111) and is oriented towards the flexible strap element to be arranged centrally.
An aerosolized drug delivery device, comprising: a container for holding a liquid formulation, and a nozzle in fluid connection with the container comprising: a sheet of material with a plurality of pores in the sheet, characterized in that the pores are grouped in a plurality of groups and each group is comprised of a plurality of pores of substantially the same size within a given group and further wherein the pore size within different groups change in a direction from a first side (204, 206) of the sheet to a second side of the sheet (204, 206); wherein the groups of pores are in rows and different rows have gradually different pore sizes between rows from the first edge of the sheet to the second edge of the sheet; and wherein pores of different rows (208, 308) have a negative gradient wherein the pore size decreases in a direction of air flow in the device toward a user patient. a container for holding a liquid formulation, and a nozzle in fluid connection with the container comprising: a sheet of material with a plurality of pores in the sheet, characterized in that the pores are grouped in a plurality of groups and each group is comprised of a plurality of pores of substantially the same size within a given group and further wherein the pore size within different groups change in a direction from a first side (204, 206) of the sheet to a second side of the sheet (204, 206); wherein the groups of pores are in rows and different rows have gradually different pore sizes between rows from the first edge of the sheet to the second edge of the sheet; and wherein pores of different rows (208, 308) have a negative gradient wherein the pore size decreases in a direction of air flow in the device toward a user patient.