mhurhangee/ep-ind-claims huggingface dataset:
A method for wireless communications performed by a user equipment, UE, comprising: receiving system information via an anchor carrier including an indication that a cell-specific reference signal will be transmitted in a second carrier different from the anchor carrier during a paging occasion; determining whether a paging message is available to be received; monitoring, based at least in part on the indication, the second carrier for the cell-specific reference signal during the paging occasion; and processing the cell-specific reference signal received on the second carrier during the paging occasion; wherein when it is determined that no paging message is available to be received: determining a quality of the second carrier based on measurements made of the cell-specific reference signal; and wherein when it is determined that a paging message is available to be received processing an additional reference signal received on the second carrier during the paging occasion, wherein the additional reference signal is a narrow-band signal; and determining a quality of the second carrier based on measurements made of the cell-specific reference signal and the additional reference signal. receiving system information via an anchor carrier including an indication that a cell-specific reference signal will be transmitted in a second carrier different from the anchor carrier during a paging occasion; determining whether a paging message is available to be received; monitoring, based at least in part on the indication, the second carrier for the cell-specific reference signal during the paging occasion; and processing the cell-specific reference signal received on the second carrier during the paging occasion; monitoring, based at least in part on the indication, the second carrier for the cell-specific reference signal during the paging occasion; and processing the cell-specific reference signal received on the second carrier during the paging occasion; wherein when it is determined that no paging message is available to be received: determining a quality of the second carrier based on measurements made of the cell-specific reference signal; and wherein when it is determined that a paging message is available to be received processing an additional reference signal received on the second carrier during the paging occasion, wherein the additional reference signal is a narrow-band signal; and determining a quality of the second carrier based on measurements made of the cell-specific reference signal and the additional reference signal.
An apparatus for coloring hair comprising: a housing, for holding the packing system of the coloring mixture, for coloring hair; a lid, attached to said housing; a power spring, located underneath said lid, for pressuring said packing system, within said housing, for squeezing the color mixture from said packing system; a base having at least 2 compartments which receive and store some of said squeezed color mixture from said packing system; at least 2 tines (310, 311, 312, 313), each having a conduit fixed within, and each tine is independently movably connected, at its upper part, to said base, for combing said hair and dividing said hair strands into groups of the required width while at the same time distributing and applying said coloring mixture to said hair roots of said separated strands through said conduits, fixed within said tines; and wherein each of said tines has a spring, for pushing it downwards, and wherein said conduit openings are aligned with their said respective base compartments for allowing said color mixture to flow from said packing system, pressured by said power spring, through the said compartments and through said conduits to the tips of said tines and onto said hair when said tines tips are pressed from below by said hair. a housing, for holding the packing system of the coloring mixture, for coloring hair; a lid, attached to said housing; a power spring, located underneath said lid, for pressuring said packing system, within said housing, for squeezing the color mixture from said packing system; a base having at least 2 compartments which receive and store some of said squeezed color mixture from said packing system; at least 2 tines (310, 311, 312, 313), each having a conduit fixed within, and each tine is independently movably connected, at its upper part, to said base, for combing said hair and dividing said hair strands into groups of the required width while at the same time distributing and applying said coloring mixture to said hair roots of said separated strands through said conduits, fixed within said tines; and wherein each of said tines has a spring, for pushing it downwards, and wherein said conduit openings are aligned with their said respective base compartments for allowing said color mixture to flow from said packing system, pressured by said power spring, through the said compartments and through said conduits to the tips of said tines and onto said hair when said tines tips are pressed from below by said hair.
A communication device, comprising: a millimeter wave (mm-wave) antenna array means having antenna elements; a first transceiving means (150.1), selectively couplable to the antenna elements, for driving a first selected antenna element (132.1) of the antenna elements to transmit a first beam (302.1) from the selected first antenna element (132.1), and wherein the first transceiving means (150.1) is configured to operate at least along a line-of-sight path; a second transceiving means (150.2), selectively couplable to the antenna elements, for driving a second selected antenna element (132.2) of the antenna elements to transmit a second beam (302.2) from the selected second antenna element (132.2); and a mm-wave lensing means for steering the first beam (302.1) and the second beam (302.2) as the first and second beams (302.1, 302.2) pass through the mm-wave lensing means, characterized in that the second transceiving means (150.2) is configured to sequentially select different antenna elements to determine alternate angles of arrival, and the first transceiving means (150.1) is configured to decouple from the first antenna element (132.1) and couple to a different antenna element, based on the determined alternate angles of arrival, in response to a decrease in link quality associated with the first antenna element (132.1). a millimeter wave (mm-wave) antenna array means having antenna elements; a first transceiving means (150.1), selectively couplable to the antenna elements, for driving a first selected antenna element (132.1) of the antenna elements to transmit a first beam (302.1) from the selected first antenna element (132.1), and wherein the first transceiving means (150.1) is configured to operate at least along a line-of-sight path; a second transceiving means (150.2), selectively couplable to the antenna elements, for driving a second selected antenna element (132.2) of the antenna elements to transmit a second beam (302.2) from the selected second antenna element (132.2); and a mm-wave lensing means for steering the first beam (302.1) and the second beam (302.2) as the first and second beams (302.1, 302.2) pass through the mm-wave lensing means, characterized in that the second transceiving means (150.2) is configured to sequentially select different antenna elements to determine alternate angles of arrival, and the first transceiving means (150.1) is configured to decouple from the first antenna element (132.1) and couple to a different antenna element, based on the determined alternate angles of arrival, in response to a decrease in link quality associated with the first antenna element (132.1).
A method for transmitting RTP packets (100, 101) from at least a first transmitter node to a receiver node within a RTP session through a packet switched communication network, said method comprising the steps of: generating and transmitting at said first transmitter node first RTP packets including a first SSRC identifier (SSRC1); generating and transmitting second RTP packets including a second SSRC identifier (SSRC2); generating and transmitting a tracking information associating said first SSRC identifier (SSRC1) with said second SSRC identifier (SSRC2) in order to indicate to said receiver node that said first RTP packets and second RTP packets can be combined into a single packets stream as packets generated by the same source. generating and transmitting at said first transmitter node first RTP packets including a first SSRC identifier (SSRC1); generating and transmitting second RTP packets including a second SSRC identifier (SSRC2); generating and transmitting a tracking information associating said first SSRC identifier (SSRC1) with said second SSRC identifier (SSRC2) in order to indicate to said receiver node that said first RTP packets and second RTP packets can be combined into a single packets stream as packets generated by the same source.
An apparatus for switching media content playback from a first playback device to a second playback device across a plurality of playback devices, comprising: a controller programmed to: detect a change in location of a portable device from a first media zone including a first playback device to a second media zone including a second playback device; determining a playback position of currently played media content provided from a first media source to the first playback device; identify a second media source that is available at the second media zone based at least in part on a media source hierarchy and content availability of the currently played media content; and control the second media source to transmit the currently played media content to the second playback device to switch playback from the first playback device to the second playback device in response to detecting the change in location of the portable device from the first media zone to the second media zone, wherein switching playback of the media content is done according to a user defined setting that selects between switching playback of the media content from the first playback device to the second playback device after the media content is finished playing, and switching playback of the media content from the first playback device to the second playback device at the playback position. detect a change in location of a portable device from a first media zone including a first playback device to a second media zone including a second playback device; determining a playback position of currently played media content provided from a first media source to the first playback device; identify a second media source that is available at the second media zone based at least in part on a media source hierarchy and content availability of the currently played media content; and control the second media source to transmit the currently played media content to the second playback device to switch playback from the first playback device to the second playback device in response to detecting the change in location of the portable device from the first media zone to the second media zone, wherein switching playback of the media content is done according to a user defined setting that selects between switching playback of the media content from the first playback device to the second playback device after the media content is finished playing, and switching playback of the media content from the first playback device to the second playback device at the playback position.
A system (1,21) for rendering a plurality of different lighting designs in a virtual and/or augmented reality environment, each of said plurality of different lighting designs comprising a lighting condition and/or an appearance of a lighting device, and determining a user's preference with respect to said plurality of different lighting designs, said system (1,21) comprising: at least one input interface (8,9); at least one output interface (4,9,28,29); and at least one processor (5,25) configured to: - use said at least one output interface (9,28,29) to render a plurality of different lighting designs in said virtual and/or augmented reality environment, said virtual and/or augmented reality environment comprising at least a first spatial area demonstrating a first one of said plurality of lighting designs and a second spatial area demonstrating a second one of said plurality of lighting designs, - use said at least one input interface (8,9) to determine a path taken by said user in said virtual and/or augment reality environment, and - determine whether said user prefers said first lighting design over said second lighting design or said second lighting design over said first lighting design based on said determined path. at least one input interface (8,9); at least one output interface (4,9,28,29); and at least one processor (5,25) configured to: - use said at least one output interface (9,28,29) to render a plurality of different lighting designs in said virtual and/or augmented reality environment, said virtual and/or augmented reality environment comprising at least a first spatial area demonstrating a first one of said plurality of lighting designs and a second spatial area demonstrating a second one of said plurality of lighting designs, - use said at least one input interface (8,9) to determine a path taken by said user in said virtual and/or augment reality environment, and - determine whether said user prefers said first lighting design over said second lighting design or said second lighting design over said first lighting design based on said determined path. - use said at least one output interface (9,28,29) to render a plurality of different lighting designs in said virtual and/or augmented reality environment, said virtual and/or augmented reality environment comprising at least a first spatial area demonstrating a first one of said plurality of lighting designs and a second spatial area demonstrating a second one of said plurality of lighting designs, - use said at least one input interface (8,9) to determine a path taken by said user in said virtual and/or augment reality environment, and - determine whether said user prefers said first lighting design over said second lighting design or said second lighting design over said first lighting design based on said determined path.
An apparatus, comprising at least one LED-based light source configured to generate radiation, the generated radiation including at least visible light to provide illumination; and a controller coupled to the at least one LED-based light source and configured to control the at least one LED-based light source so as to transmit data via the visible light; characterised in that: the controller is configured to: - control the at least one LED-based light source with a control signal to both provide the illumination and transmit the data via the visible light, - employ a pulse width modulation scheme to control an intensity of the illumination by controlling a duty cycle of the control signal, and - independently encode said data into the same control signal using a further modulation scheme which preserves the duty cycle on average, wherein the controller is configured to generate the control signal by combining an intermediate control signal and a data signal, the intermediate control signal being based on the pulse width modulation scheme, and the data signal being generated using the further modulation scheme. - control the at least one LED-based light source with a control signal to both provide the illumination and transmit the data via the visible light, - employ a pulse width modulation scheme to control an intensity of the illumination by controlling a duty cycle of the control signal, and - independently encode said data into the same control signal using a further modulation scheme which preserves the duty cycle on average,
Infant torso simulator for learning the act of respiratory kinesitherapy, comprising an infant torso body that is deformable in a sagittal plane (X, Z), characterized in that said torso body is moulded in one piece using materials with different moduli of elasticity in a first, thoracic part and in a second, abdominal part, in that the thoracic part is more deformable than the abdominal part in the longitudinal direction, and in that a plurality of recesses are formed in the thoracic and abdominal inner part of said torso body, in order to facilitate the deformation of the torso body in a longitudinal direction during the performance of an act of respiratory kinesitherapy.
A sheath cable comprising: a conductor; and a sheath layer that is configured to sheathe the conductor, and includes a resin composition, wherein the resin composition comprises a resin component containing a copolymer of olefin and a comonomer having polarity and an ethylene-propylene-diene terpolymer, wherein the resin component is cross-linked, tensile stress at 19% strain of the resin composition is 2.0 MPa or less, which is measured in accordance with JIS K7161-1 under the conditions as described in the specification, and the resin composition has a sea-island structure in which the copolymer of olefin and the comonomer having polarity is a continuous phase, and the ethylene-propylene-diene terpolymer is a dispersed phase. a conductor; and a sheath layer that is configured to sheathe the conductor, and includes a resin composition, wherein the resin composition comprises a resin component containing a copolymer of olefin and a comonomer having polarity and an ethylene-propylene-diene terpolymer, wherein the resin component is cross-linked, tensile stress at 19% strain of the resin composition is 2.0 MPa or less, which is measured in accordance with JIS K7161-1 under the conditions as described in the specification, and the resin composition has a sea-island structure in which the copolymer of olefin and the comonomer having polarity is a continuous phase, and the ethylene-propylene-diene terpolymer is a dispersed phase.
An automatic failure recovery system that, using machine learning, is configured to create an operation procedure for recovering from a network failure or to correct the created operation procedure, the automatic failure recovery system comprising: recovery execution means having a plurality of recovery tasks for recovering from the network failure; parameter creation means for outputting failure data indicating network configuration information and failure information acquired upon occurrence of the network failure; learning means for selecting an execution procedure of the recovery tasks, based on the failure data and a recovery model acquired in advance; procedure execution means for executing the selected execution procedure when the network failure occurs; success determination means for determining whether or not recovery from the network failure was achieved by the execution procedure; and procedure correction means for notifying the learning means that the procedure is to be corrected, depending upon the result of the determination and a recovery level of the network failure, wherein, if the network is not capable of communication, the success determination means is configured to notify the procedure correction means that an execution procedure that is next most probable, with respect to the execution procedure, is to be executed, the procedure correction means is configured to select the execution procedure that is next most probable, with respect to the execution procedure, and the procedure execution means is configured to execute the execution procedure selected by the procedure correction means. recovery execution means having a plurality of recovery tasks for recovering from the network failure; parameter creation means for outputting failure data indicating network configuration information and failure information acquired upon occurrence of the network failure; learning means for selecting an execution procedure of the recovery tasks, based on the failure data and a recovery model acquired in advance; procedure execution means for executing the selected execution procedure when the network failure occurs; success determination means for determining whether or not recovery from the network failure was achieved by the execution procedure; and procedure correction means for notifying the learning means that the procedure is to be corrected, depending upon the result of the determination and a recovery level of the network failure, wherein, if the network is not capable of communication, the success determination means is configured to notify the procedure correction means that an execution procedure that is next most probable, with respect to the execution procedure, is to be executed, the procedure correction means is configured to select the execution procedure that is next most probable, with respect to the execution procedure, and the procedure execution means is configured to execute the execution procedure selected by the procedure correction means.
An electronic device for decoding a video parameter set comprising a receiving circuit configured to: receive said video parameter set, wherein said video parameter set comprises a syntax element of layer_dependency_information_pattern signaling a pattern of 0 and 1 bits, wherein layer_dependency_information_pattern (i) is the i'th bit of said layer_dependency_information_pattern and is a 1 bit value, and wherein said layer_dependency_information_pattern (i) with a value of 0 specifies that a first layer of a video is an independent layer, and said layer_dependency_information_pattern (i) with a value of 1 specifies that said first layer is a dependent layer which depends on one or more other layers of said video; and wherein said video parameter set further comprises a syntax element of num_direct_ref_layers [i] and at least one syntax element of ref_layer_id [i][j] when said layer_dependency_information_pattern (i) has a value of 1, wherein said num_direct_ref_layers [i] specifies the number of layers the first layer directly depends on, and said syntax element of ref_layer_id [i][j] identifies a second layer of said video the first layer directly depends on. receive said video parameter set, wherein said video parameter set comprises a syntax element of layer_dependency_information_pattern signaling a pattern of 0 and 1 bits, wherein layer_dependency_information_pattern (i) is the i'th bit of said layer_dependency_information_pattern and is a 1 bit value, and wherein said layer_dependency_information_pattern (i) with a value of 0 specifies that a first layer of a video is an independent layer, and said layer_dependency_information_pattern (i) with a value of 1 specifies that said first layer is a dependent layer which depends on one or more other layers of said video; and wherein said video parameter set further comprises a syntax element of num_direct_ref_layers [i] and at least one syntax element of ref_layer_id [i][j] when said layer_dependency_information_pattern (i) has a value of 1, wherein said num_direct_ref_layers [i] specifies the number of layers the first layer directly depends on, and said syntax element of ref_layer_id [i][j] identifies a second layer of said video the first layer directly depends on.