mhurhangee/ep-ind-claims huggingface dataset:
A method for wireless communications, comprising: initiating (705, 805), by a source device, a media stream to a sink device over a first protocol during a Wi-Fi peer-to-peer remote display session; identifying a second protocol supported by the sink device; and dynamically switching (715, 820) to the second protocol to transmit the media stream during the Wi-Fi peer-to-peer remote display session; and wherein identifying the second protocol supported by the sink device is characterized by comprising: transmitting, by the source device, a query to the sink device to determine whether the sink device supports Transmission Control Protocol, TCP, and one or more ports to be used for a TCP connection; and receiving, by the source device, a message, in response to the query, affirming that the sink device supports TCP and the ports information. initiating (705, 805), by a source device, a media stream to a sink device over a first protocol during a Wi-Fi peer-to-peer remote display session; identifying a second protocol supported by the sink device; and dynamically switching (715, 820) to the second protocol to transmit the media stream during the Wi-Fi peer-to-peer remote display session; and wherein identifying the second protocol supported by the sink device is characterized by comprising: transmitting, by the source device, a query to the sink device to determine whether the sink device supports Transmission Control Protocol, TCP, and one or more ports to be used for a TCP connection; and receiving, by the source device, a message, in response to the query, affirming that the sink device supports TCP and the ports information. transmitting, by the source device, a query to the sink device to determine whether the sink device supports Transmission Control Protocol, TCP, and one or more ports to be used for a TCP connection; and receiving, by the source device, a message, in response to the query, affirming that the sink device supports TCP and the ports information.
Method for parameterizing a protective arrangement (200,201,202) for an electrical energy network (L1,L2,L3), having the steps of: assigning output channels (I1,I2,I3,I4,V1,V2,V3,V4) of measuring devices to input channels of a data collection device by means of a first configuration device, and parameterizing communication connections between the data collection device and a protective device by means of a second configuration device, characterized in that the assignment of the measuring devices and the parameterization of the communication connections are predefined by means of a third configuration device using a single-line diagram, and in that process bus is used for the communication connections. assigning output channels (I1,I2,I3,I4,V1,V2,V3,V4) of measuring devices to input channels of a data collection device by means of a first configuration device, and parameterizing communication connections between the data collection device and a protective device by means of a second configuration device, characterized in that the assignment of the measuring devices and the parameterization of the communication connections are predefined by means of a third configuration device using a single-line diagram, and in that process bus is used for the communication connections.
A method for secure communications, comprising: identifying a subset of a plurality of channels of a system bandwidth available for a transmission in a time period (120; 125), wherein the subset of the plurality of channels is non-contiguous, and wherein each of the plurality of channels has a respective channel bandwidth; generating a first wideband waveform having a bandwidth determined according to a number of channels in the subset of the plurality of channels; separating the first wideband waveform into a plurality of segments, each segment of the plurality of segments having a bandwidth corresponding to the respective channel bandwidth of a corresponding one of the subset of the plurality of channels; mapping the plurality of segments to the subset of the plurality of channels of the system bandwidth; combining the mapped plurality of segments to generate a second wideband waveform; and transmitting the second wideband waveform in the time period. identifying a subset of a plurality of channels of a system bandwidth available for a transmission in a time period (120; 125), wherein the subset of the plurality of channels is non-contiguous, and wherein each of the plurality of channels has a respective channel bandwidth; generating a first wideband waveform having a bandwidth determined according to a number of channels in the subset of the plurality of channels; separating the first wideband waveform into a plurality of segments, each segment of the plurality of segments having a bandwidth corresponding to the respective channel bandwidth of a corresponding one of the subset of the plurality of channels; mapping the plurality of segments to the subset of the plurality of channels of the system bandwidth; combining the mapped plurality of segments to generate a second wideband waveform; and transmitting the second wideband waveform in the time period.
A method of assigning a node identification to an audio-related device in a network of multiple audio-related devices, the method comprising the steps of: powering up a first audio-related device in the network; generating a first test node identification for the first audio-related device; broadcasting the first test node identification to the other devices over the network; determining, based on notifications from the other devices in the network, whether the first test node identification is a unique node identification in the network; if the first test node identification is not a unique node identification, generating a new first test node identification and repeating the broadcasting and determining steps until the first test node identification is a unique node identification in the network; if the first test node identification is a unique node identification, assigning the first test node identification as a first node identification to the first audio-related device, characterized in that the steps of generating the first test node identification and the new first test node identification for the first audio-related device comprises generating a random node identification which is independent of a network interface of the first audio-related device. powering up a first audio-related device in the network; generating a first test node identification for the first audio-related device; broadcasting the first test node identification to the other devices over the network; determining, based on notifications from the other devices in the network, whether the first test node identification is a unique node identification in the network; if the first test node identification is not a unique node identification, generating a new first test node identification and repeating the broadcasting and determining steps until the first test node identification is a unique node identification in the network; if the first test node identification is a unique node identification, assigning the first test node identification as a first node identification to the first audio-related device, characterized in that the steps of generating the first test node identification and the new first test node identification for the first audio-related device comprises generating a random node identification which is independent of a network interface of the first audio-related device.
A nonwoven fabric comprising at least one polymer comprising a polyester, and at least one filler comprising calcium carbonate, wherein the calcium carbonate has an average particle size d 50 from 1.2 to 1.8 μm, and a top cut particle size d 98 from 4 to 7 μm, wherein the calcium carbonate is present in the nonwoven fabric in an amount from 0.1 to 50 wt.-%, and wherein the polyester is a polyethylene terephthalate.
A docking station (1, 1', 1 ") for an installation for the mass flow of rod-shaped articles used in the tobacco industry, provided with a storage means (2, 2', 2") adapted to store a cleaning device, and further comprises a moving means (14, 22) initializing leading-in or leading-out of the cleaning device after the storage means (2, 2', 2") has been led in into the channel of the installation for the mass flow of rod-shaped articles used in the tobacco industry; characterized in that the docking station (1, 1', 1") is adapted to receive a signal of presence of the end face of mass flow; a signal of presence of the end face of the cleaning device; and the storage means (2, 2', 2") is further adapted in such a way that the storage means (2, 2', 2") is led in into a channel of the installation for the mass flow of rod-shaped articles used in the tobacco industry in response to the signal of presence of the end face of mass flow at the place where the cleaning device is led in or out; and the storage means (2, 2', 2") is adapted in such a way that the storage means (2, 2', 2") is led out of the channel of the installation for the mass flow of rod-shaped articles used in the tobacco industry in response to the signal of presence of the end face of the cleaning device in the channel of the installation for the mass flow of rod-shaped articles used in the tobacco industry. a storage means (2, 2', 2") adapted to store a cleaning device, and further comprises a moving means (14, 22) initializing leading-in or leading-out of the cleaning device after the storage means (2, 2', 2") has been led in into the channel of the installation for the mass flow of rod-shaped articles used in the tobacco industry; characterized in that the docking station (1, 1', 1") is adapted to receive a signal of presence of the end face of mass flow; a signal of presence of the end face of the cleaning device; a signal of presence of the end face of mass flow; a signal of presence of the end face of the cleaning device; and the storage means (2, 2', 2") is further adapted in such a way that the storage means (2, 2', 2") is led in into a channel of the installation for the mass flow of rod-shaped articles used in the tobacco industry in response to the signal of presence of the end face of mass flow at the place where the cleaning device is led in or out; and the storage means (2, 2', 2") is adapted in such a way that the storage means (2, 2', 2") is led out of the channel of the installation for the mass flow of rod-shaped articles used in the tobacco industry in response to the signal of presence of the end face of the cleaning device in the channel of the installation for the mass flow of rod-shaped articles used in the tobacco industry.
Computed tomography apparatus for odontology, which apparatus comprises an arm part arranged turnable abound at least one rotation axis (21, 22, 23) with the help of an actuator (31, 32, 33), to which arm part and at a distance from each other a radiation source and an imaging detector have been arranged, a control system to control said actuator (31, 32, 33), radiation source and imaging detector, said control system comprising a first control routine arranged to control said radiation source to produce pulsed radiation and in which apparatus said arm part is arranged to be located or transferable with respect to the volume desired to become imaged to such location, and the control system to comprise such control routine that when the arm part is turned during a CT imaging scan, at least over a substantial angular range or over the whole angular range of the imaging scan, only a portion of the volume arranged to become imaged is within the radiation beam, characterised in that the apparatus comprises a means to measure anode current of the radiation source and that said first control routine comprises adjusting duration of the radiation pulses such that anode current of the radiation source is measured and the pulse is always terminated at the point when integral of the current reaches a preset value.
An operation device, comprising: a magnetic sensor disposed on a first board; and a trigger button used for operation input by a user, characterized in that the trigger button is in a rotatable manner mounted to a rotating shaft, relative to a second board for the trigger button and has a helical torsion coil spring which is wound around the rotating shaft and inserted with one end into a spring supporting portion of said trigger button and inserted with another end into a spring fixing portion provided to the second board, in such a manner that a portion of the spring which extends from the rotating shaft to the spring supporting portion is operated in a direction toward the magnetic sensor along with an operation performed on the trigger button by the user, wherein the spring is formed of a non-magnetic material that comprises phosphor bronze. a magnetic sensor disposed on a first board; and a trigger button used for operation input by a user, characterized in that the trigger button is in a rotatable manner mounted to a rotating shaft, relative to a second board for the trigger button and has a helical torsion coil spring which is wound around the rotating shaft and inserted with one end into a spring supporting portion of said trigger button and inserted with another end into a spring fixing portion provided to the second board, in such a manner that a portion of the spring which extends from the rotating shaft to the spring supporting portion is operated in a direction toward the magnetic sensor along with an operation performed on the trigger button by the user, wherein the spring is formed of a non-magnetic material that comprises phosphor bronze.
A hemostatic foam for packing antrums or other cavities of the human or animal body comprising a blend of a chitosan hemostatic agent and a phase-separated polymer that provides the foam with a porosity of 85-99% and a foam density of 0.01-0.2 g/cm 3, wherein the foam density is calculated as the polymer mass per volume unit foam, wherein said phase-separated polymer comprises an amorphous segment and a crystalline segment, wherein at least said amorphous segment comprises a hydrophilic segment; and wherein the amount of chitosan hemostatic agent is 5-35 wt. % of the total weight of the foam. wherein said phase-separated polymer comprises an amorphous segment and a crystalline segment, wherein at least said amorphous segment comprises a hydrophilic segment; and wherein the amount of chitosan hemostatic agent is 5-35 wt. % of the total weight of the foam.
A sheet stacker comprising: - a sheet conveyor arrangement, configured for feeding a plurality of sheets in succession in a sheet feeding direction, said sheet conveyor arrangement having a sheet discharge end; - a stacking bay, wherein sheets delivered by the sheet conveyor arrangement at the sheet discharge end thereof are formed into stacks; the stacking bay comprising a stacker platform, and wherein the stacker platform is provided with a vertical lifting and lowering movement with respect to a stationary supporting structure (9, 11) and is controlled to move downwards while a stack of sheets is formed thereon; characterized in that the stacker platform supports a stack conveyor movable in a direction parallel to a feed direction of the sheets in the stacking bay, configured and controlled to perform at least an evacuation motion, to remove a completed stack from the stacking bay; and the evacuation motion of said stack conveyor is oriented such that a completed stack is moved from the stacking bay onto an evacuation conveyor arranged under the sheet conveyor arrangement. - a sheet conveyor arrangement, configured for feeding a plurality of sheets in succession in a sheet feeding direction, said sheet conveyor arrangement having a sheet discharge end; - a stacking bay, wherein sheets delivered by the sheet conveyor arrangement at the sheet discharge end thereof are formed into stacks; the stacking bay comprising a stacker platform, and wherein the stacker platform is provided with a vertical lifting and lowering movement with respect to a stationary supporting structure (9, 11) and is controlled to move downwards while a stack of sheets is formed thereon;
Drawing and/or straightening unit for feeding simultaneously two or more oblong metal products to a machine for working said metal products, such as a stirrup machine for making reinforcement stirrups for the building trade, comprising at least a first driven roller with two or more circular throats (17, 19) inside each of which are able to be positioned respective metal products, two or more second contrasting rollers (13, 15), independent from each other in movement and opposite said first roller with respect to an axis of feed of said metal products, each of said contrasting roller (13, 15) being adapted to keep one relative of said metal products correctly positioned in the relative throat (17, 19) during feed, and actuator means (23, 25, 26) operationally associated with said second contrasting rollers (13, 15), and able to move, at least in the initial positioning step, said second contrasting rollers (13, 15) with respect to said first driven roller, in order to vary the distance between said second contrasting rollers (13, 15) and said first driven roller, characterized in that said actuator means comprise a first linear actuator common for all the second contrasting rollers (13, 15), and two second linear actuators (25, 26) each for a relative second roller (13, 15), each of said second linear actuators (25, 26) being connected to one respective of said second contrasting rollers (13, 15) in order to move it linearly independently from the other second contrasting roller (13, 15) so as to contrast in an independent and optimized manner the relative metal products positioned in the respective throat (17, 19) of the first driven roller, wherein said first linear actuator is able to command, for both said second rollers (13, 15), an initial movement of approach toward the first driven roller, and wherein said second linear actuators (25, 26) are able to carry out the selective and controlled movement of said second contrasting rollers (13, 15), and hence the contrast applied to the metal product, substantially continuously during the feed steps, according to the actual sizes of the respective advancing metal product, wherein the unit further comprises sensor members and/or pressure controllers for commanding the activation of one or the other of said two linear actuators (25, 26) so that they act always at the same pressure.
A cork stopper (1A, 1B) used for sealing a container opening, wherein (a) said cork stopper (1A, 1B) comprises a cork stopper body having a molded cork body and a synthetic resin outer layer covering the circumferential surface of said molded cork body; characterized in that (b) the surface of said synthetic resin outer layer is treated with a roughening process and has a concave-convex surface comprising a flat portion and a plurality of concave portions (12a, 12e), (c) said concave portions (12a, 12e) are formed in columns at equal intervals in the axial direction and are displaced so as not to form portions only with flat portions in the axial direction of the cork stopper (1A, 1B), and in that (d) said plurality of concave portions are formed in a substantially linear manner intermittently at equal intervals in the circumferential direction of said cork stopper (1A, 1B) so as not to overlap each other, or (e) said plurality of concave portions are wavy concave portions which are formed in the shape of waves intermittently at equal intervals in the circumferential direction of the cork stopper (1A, 1B) so as not to overlap each other. (a) said cork stopper (1A, 1B) comprises a cork stopper body having a molded cork body and a synthetic resin outer layer covering the circumferential surface of said molded cork body; (b) the surface of said synthetic resin outer layer is treated with a roughening process and has a concave-convex surface comprising a flat portion and a plurality of concave portions (12a, 12e), (c) said concave portions (12a, 12e) are formed in columns at equal intervals in the axial direction and are displaced so as not to form portions only with flat portions in the axial direction of the cork stopper (1A, 1B), and in that (d) said plurality of concave portions are formed in a substantially linear manner intermittently at equal intervals in the circumferential direction of said cork stopper (1A, 1B) so as not to overlap each other, or (e) said plurality of concave portions are wavy concave portions which are formed in the shape of waves intermittently at equal intervals in the circumferential direction of the cork stopper (1A, 1B) so as not to overlap each other.
A laser welded body comprising: a first resin member which is a laser-irradiated subject, contains a thermoplastic resin and nigrosine sulfate having a sulfate ion concentration of 0.3 to 5.0% by mass and has an absorbance a 1 of 0.09 to 0.9 and a second resin member which contains a thermoplastic resin as the same kind as or different kind from the thermoplastic resin and a laser beam absorbent and has an absorbance a 2 of 3.0 to 15, wherein the first resin member and the second resin member are laser-welded at a part at which the both resin members are overlapped and/or butted; the absorbances a 1 and a 2 are obtained through measuring transmittance and reflectance of the first resin member and the second resin member relative to a laser beam having 940 nm of a wavelength, setting I o of 100% in the following equation Absorbance a = − log T = − log I T / I O − I R and entering the transmittance and the reflectance which are percentages of measured values into I T and I R, respectively; and the sulfate ion concentration in the nigrosine sulfate is measured through instrumental analysis by using ion chromatography after extracting the sulfate ions from the nigrosine sulfate. a first resin member which is a laser-irradiated subject, contains a thermoplastic resin and nigrosine sulfate having a sulfate ion concentration of 0.3 to 5.0% by mass and has an absorbance a 1 of 0.09 to 0.9 and a second resin member which contains a thermoplastic resin as the same kind as or different kind from the thermoplastic resin and a laser beam absorbent and has an absorbance a 2 of 3.0 to 15, wherein the first resin member and the second resin member are laser-welded at a part at which the both resin members are overlapped and/or butted; the absorbances a 1 and a 2 are obtained through measuring transmittance and reflectance of the first resin member and the second resin member relative to a laser beam having 940 nm of a wavelength, setting I o of 100% in the following equation Absorbance a = − log T = − log I T / I O − I R and entering the transmittance and the reflectance which are percentages of measured values into I T and I R, respectively; and the sulfate ion concentration in the nigrosine sulfate is measured through instrumental analysis by using ion chromatography after extracting the sulfate ions from the nigrosine sulfate.