mhurhangee/ep-ind-claims huggingface dataset:
A method of controlling communication between a base station and a user equipment in a multicarrier wireless communications system in which a predetermined set of a plurality of carriers are utilised to support communication between said base station and said user equipment, said predetermined set of said plurality of carriers comprising a primary carrier and at least one secondary carrier, said method comprising, at the base station, the steps of: determining an occurrence of an event requiring a change in said primary carrier, said event comprising detecting an occurrence of an actual or impending radio link failure; indicating to an RNC that a physical layer instruction is to be transmitted between the base station and the user equipment; and transmitting a physical layer instruction between said base station and said user equipment, said physical layer instruction encoding reselection information to cause said user equipment to select a different carrier from said set of said plurality of carriers as a new primary carrier to support communication between said base station and said user equipment. determining an occurrence of an event requiring a change in said primary carrier, said event comprising detecting an occurrence of an actual or impending radio link failure; indicating to an RNC that a physical layer instruction is to be transmitted between the base station and the user equipment; and transmitting a physical layer instruction between said base station and said user equipment, said physical layer instruction encoding reselection information to cause said user equipment to select a different carrier from said set of said plurality of carriers as a new primary carrier to support communication between said base station and said user equipment.
A method performed by a user equipment, UE, in a wireless communication system supporting carrier aggregation, wherein the UE is configured by an access node with one primary carrier and at least one secondary carrier and wherein the at least one secondary carrier can be dynamically switched on and off by the access node on a subframe by subframe basis via an activation/deactivation indication, in the following referred to as on/off-feature, comprising the step of receiving an indicator from the access node indicating whether the on/off-feature is used for the at least one secondary carrier or not, such that when said indicator indicates that the on/off feature is not used, ignoring the activation/deactivation indication on a subframe by subframe basis for the at least one secondary carrier from the access node.
A specimen processing device comprising: a processing unit configured to aspirate a specimen from a specimen container accommodating the specimen, and to process the aspirated specimen, wherein the processing unit includes a pneumatic source configured to generate pressure to transport the aspirated specimen and the pneumatic source has a positive pressure source and a negative pressure source; a state transition section configured to make the processing unit undergo transition to a pause state where power supply to the pneumatic source of the processing unit is stopped; and an instruction accepting section configured to accept an instruction made by a user to start processing of the specimen when the processing unit is in the pause state; characterized by a pause state releasing section configured to release the processing unit from the pause state, by driving the pneumatic source, to make the processing unit perform the processing of specimen when the instruction to start the processing is accepted by the instruction accepting section. a processing unit configured to aspirate a specimen from a specimen container accommodating the specimen, and to process the aspirated specimen, wherein the processing unit includes a pneumatic source configured to generate pressure to transport the aspirated specimen and the pneumatic source has a positive pressure source and a negative pressure source; a state transition section configured to make the processing unit undergo transition to a pause state where power supply to the pneumatic source of the processing unit is stopped; and an instruction accepting section configured to accept an instruction made by a user to start processing of the specimen when the processing unit is in the pause state; a pause state releasing section configured to release the processing unit from the pause state, by driving the pneumatic source, to make the processing unit perform the processing of specimen when the instruction to start the processing is accepted by the instruction accepting section.
A device (10, 20, 40) for inductively heating metal components (15, 32) during welding, comprising: - at least one flexible induction element, and - means for automatically controlling and regulating the power and if applicable the frequency of a medium-frequency generator (16, 30) connected with the induction element, wherein said means comprise one or a plurality of sensors for, in particular contactless, recording of the temperature of the components (15, 32), and a corresponding control and regulation unit that depending on the temperature acquired by the temperature sensor or sensors operates the medium-frequency generator, (16, 30), characterised in that - at least one flexible coolant line is provided for a coolant for cooling the induction element, - the flexible induction element and the coolant line are plastically or elastically deformable multiple times and can manually or automatically be matched to the shape of components (15, 32) to be heated, such that their shape and a distance between them and the components to be heated (15, 32) can be maintained in a self-supporting manner during the operation of the device, and - the flexible induction element and the coolant line can be adapted to the component (15, 32) to be heated such that they encompass approximately half to two thirds of the outer periphery of the component (15, 32), or can run along approximately half to two thirds of the inner periphery of the component. - at least one flexible induction element, and - means for automatically controlling and regulating the power and if applicable the frequency of a medium-frequency generator (16, 30) connected with the induction element, wherein said means comprise one or a plurality of sensors for, in particular contactless, recording of the temperature of the components (15, 32), and a corresponding control and regulation unit that depending on the temperature acquired by the temperature sensor or sensors operates the medium-frequency generator, (16, 30), - at least one flexible coolant line is provided for a coolant for cooling the induction element, - the flexible induction element and the coolant line are plastically or elastically deformable multiple times and can manually or automatically be matched to the shape of components (15, 32) to be heated, such that their shape and a distance between them and the components to be heated (15, 32) can be maintained in a self-supporting manner during the operation of the device, and - the flexible induction element and the coolant line can be adapted to the component (15, 32) to be heated such that they encompass approximately half to two thirds of the outer periphery of the component (15, 32), or can run along approximately half to two thirds of the inner periphery of the component.
A display device, comprising: a display screen, comprising a display layer and a light shielding layer, the display layer having an upper surface and a lower surface opposite to the upper surface, the upper surface being configured to face a user, the light shielding layer being arranged to the lower surface, the light shielding layer having a hole; an optical fingerprint module for recognizing fingerprints; and a frame, the display screen and the optical fingerprint module being fastened to the frame; the optical fingerprint module being disposed at a side of the light shielding layer away from the display layer and located at a position corresponding to the hole, wherein the hole is configured to allow an optical sensing signal of the optical fingerprint module to pass through; wherein the display layer comprises an upper covering plate and a touch sensitive layer, characterized in that the display layer further comprises an organic luminous layer and a lower covering plate, the upper covering plate, the touch sensitive layer, the organic luminous layer and the lower covering plate being superposed in that sequence, and the light shielding layer is a foam layer. a display screen, comprising a display layer and a light shielding layer, the display layer having an upper surface and a lower surface opposite to the upper surface, the upper surface being configured to face a user, the light shielding layer being arranged to the lower surface, the light shielding layer having a hole; an optical fingerprint module for recognizing fingerprints; and a frame, the display screen and the optical fingerprint module being fastened to the frame; the optical fingerprint module being disposed at a side of the light shielding layer away from the display layer and located at a position corresponding to the hole, wherein the hole is configured to allow an optical sensing signal of the optical fingerprint module to pass through; wherein the display layer comprises an upper covering plate and a touch sensitive layer, characterized in that the display layer further comprises an organic luminous layer and a lower covering plate, the upper covering plate, the touch sensitive layer, the organic luminous layer and the lower covering plate being superposed in that sequence, and the light shielding layer is a foam layer.
Multi-layer polyolefin films for envelope windows, comprising at least three layers wherein the central layer comprises a propylene homopolymer; the layer of film on the outer part of the envelope is based on propylene copolymers in mixture with HDPE, HDPE being comprised between 40 and 50% by weight of the mixture; the inner layer in contact with the contents of the envelope is based on propylene copolymers, the film being isotropic in relation to shear strength.
A surface layer obtainable by curing a terrazzo composition comprising: (a) a resin component; (b) a hardener component; and (c) an aggregate component comprising foamed beads and/or hollow spheres, wherein the surface layer has a tensile strength of 8500 psi (58.61 N/mm 2) to 8900 psi (61.36 N/mm 2), a compressive strength of 2600 psi (17.93 N/mm 2) to 3000 psi (20.68 N/mm 2), a Shore D Hardness of 50 to 100, and a weight of 0.60 pounds per square foot (2.9 kg/m 2) at 0.25 inch (6.4 mm) thickness to 0.76 pounds per square foot (3.7 kg/m 2) at 0.25 (6.4 mm) inch thickness. (a) a resin component; (b) a hardener component; and (c) an aggregate component comprising foamed beads and/or hollow spheres,
Parametric encoder for encoding a multi-channel audio signal having a first audio signal and a second audio signal, the parametric encoder having: a transformer for transforming the first audio signal into frequency domain to obtain a first transformed audio signal, and for transforming the second audio signal into frequency domain to obtain a second transformed audio signal; a parameter generator for generating a first encoding parameter, X(i), from the first transformed audio signal and from the second transformed audio signal at a first frequency band i, and for generating a second encoding parameter, X(j), from the first transformed audio signal and from the second transformed audio signal at a second frequency band j; and a parameter combiner for combining the first encoding parameter and the second encoding parameter to obtain a combined encoding parameter, X, according to the formula X = ∑ i ∈ I g i ⁢ P 1 i + P 2 i ⁢ X i ∑ i ∈ I g i ⁢ P 1 i + P 2 i wherein parameter I denotes a set of indices of frequency bands, parameter g i is a weight given to frequency band i, parameter P 1 (i) denotes a signal power of the first audio signal in the i-th frequency band, parameter P 2 (i) denotes a signal power of the second audio signal in the i-th frequency band, and wherein the first encoding parameter, X(i), and the second encoding parameter, X(j), is an inter-channel phase difference or an inter-channel coherence or an inter-channel intensity difference or an inter-channel level difference. a transformer for transforming the first audio signal into frequency domain to obtain a first transformed audio signal, and for transforming the second audio signal into frequency domain to obtain a second transformed audio signal; a parameter generator for generating a first encoding parameter, X(i), from the first transformed audio signal and from the second transformed audio signal at a first frequency band i, and for generating a second encoding parameter, X(j), from the first transformed audio signal and from the second transformed audio signal at a second frequency band j; and a parameter combiner for combining the first encoding parameter and the second encoding parameter to obtain a combined encoding parameter, X, according to the formula X = ∑ i ∈ I g i ⁢ P 1 i + P 2 i ⁢ X i ∑ i ∈ I g i ⁢ P 1 i + P 2 i wherein parameter I denotes a set of indices of frequency bands, parameter g i is a weight given to frequency band i, parameter P 1 (i) denotes a signal power of the first audio signal in the i-th frequency band, parameter P 2 (i) denotes a signal power of the second audio signal in the i-th frequency band, and wherein the first encoding parameter, X(i), and the second encoding parameter, X(j), is an inter-channel phase difference or an inter-channel coherence or an inter-channel intensity difference or an inter-channel level difference.
Household cooking appliance having a door and a substantially vertically arranged control panel which has a support element, on which a storage surface for a storage container for operating liquid that can be placed thereon is arranged and which can be retracted in the control panel, wherein - the support element with the storage surface projects out over the control panel in the manner of an oriel in its position protruding from the control panel and - the retracted support element terminates flush with the control panel, characterised in that - the storage surface is a substantially horizontally arranged storage surface which is embodied on a top side of the support element; - the storage surface has an opening for coupling the storage container; - the support element is embodied such that it can be moved automatically by a horizontal movement out of the control panel by a control unit on selection of a specific operating mode and/or on reaching a specific operating state of the household appliance. - the support element with the storage surface projects out over the control panel in the manner of an oriel in its position protruding from the control panel and - the retracted support element terminates flush with the control panel, characterised in that - the storage surface is a substantially horizontally arranged storage surface which is embodied on a top side of the support element; - the storage surface has an opening for coupling the storage container; - the support element is embodied such that it can be moved automatically by a horizontal movement out of the control panel by a control unit on selection of a specific operating mode and/or on reaching a specific operating state of the household appliance.
A method for operating a device, the method comprising: determining, by the device, adaptation criteria for a waveform to be transmitted by a transmitting device over a communications channel towards a receiving device; adjusting, by the device, values for a generalized multi-carrier multiplexing parameter, GMMP, of the waveform in accordance with the adaptation criteria, wherein the GMMP specifies multiple waveforms and associated communications system parameters, wherein different values for the GMMP correspond to different waveforms, wherein each of said waveforms includes one of a orthogonal frequency division multiple access, OFDM, a sparse code multiple access, SCMA, a low density spreading, LDS, a low density signature OFDM, LDS-OFDM, a code division multiple access OFDM, CDMA-OFDM, a faster than Nyquist signaling, FTN and a filter bank multi-carrier, FBMC; and transmitting, by the device, an indicator of the adjusted values for the GMMP to at least one of the transmitting device and the receiving device; the adjusting the values for the GMMP permits the co-existence of different of said waveforms, wherein the different of said waveforms are assigned to different network resource partitions. determining, by the device, adaptation criteria for a waveform to be transmitted by a transmitting device over a communications channel towards a receiving device; adjusting, by the device, values for a generalized multi-carrier multiplexing parameter, GMMP, of the waveform in accordance with the adaptation criteria, wherein the GMMP specifies multiple waveforms and associated communications system parameters, wherein different values for the GMMP correspond to different waveforms, wherein each of said waveforms includes one of a orthogonal frequency division multiple access, OFDM, a sparse code multiple access, SCMA, a low density spreading, LDS, a low density signature OFDM, LDS-OFDM, a code division multiple access OFDM, CDMA-OFDM, a faster than Nyquist signaling, FTN and a filter bank multi-carrier, FBMC; and transmitting, by the device, an indicator of the adjusted values for the GMMP to at least one of the transmitting device and the receiving device; the adjusting the values for the GMMP permits the co-existence of different of said waveforms, wherein the different of said waveforms are assigned to different network resource partitions.
A method performed by a server connected to a network, wherein the server comprises a processor and memory, and wherein the server further includes computer-executable instructions stored in the memory which, when executed by the processor, perform functions of a server in the network, the method comprising: determining an indication of a probability that a user requests multiple machine-to-machine content resources simultaneously, the multiple machine-to-machine content resources associated with multiple machine-to-machine devices operatively connected to the network, and determining, using the indication, a first machine-to-machine gateway in the network at which to store the multiple machine-to-machine content resources. determining an indication of a probability that a user requests multiple machine-to-machine content resources simultaneously, the multiple machine-to-machine content resources associated with multiple machine-to-machine devices operatively connected to the network, and determining, using the indication, a first machine-to-machine gateway in the network at which to store the multiple machine-to-machine content resources.
A prosthetic heart valve (200, 300, 400, 500, 700), comprising: a stent body (202, 302, 402, 502, 702) including a plurality of cells (212a-d, 312a-d, 412a-d, 512a-d, 712a-d) arranged in circumferential rows; a cuff (206, 306, 406) sutured to the stent body and covering at least part of a luminal or abluminal surface of the stent body; at least one leaflet attachment panel (260, 360, 600, 610, 620, 630, 640, 650) sutured to and spanning at least a portion of one of the cells; and at least one prosthetic valve element sutured to a single layer of the at least one leaflet attachment panel; characterised in that the leaflet attachment panel is not integral with none of the stent body, the cuff, and the prosthetic valve element. a stent body (202, 302, 402, 502, 702) including a plurality of cells (212a-d, 312a-d, 412a-d, 512a-d, 712a-d) arranged in circumferential rows; a cuff (206, 306, 406) sutured to the stent body and covering at least part of a luminal or abluminal surface of the stent body; at least one leaflet attachment panel (260, 360, 600, 610, 620, 630, 640, 650) sutured to and spanning at least a portion of one of the cells; and at least one prosthetic valve element sutured to a single layer of the at least one leaflet attachment panel; characterised in that the leaflet attachment panel is not integral with none of the stent body, the cuff, and the prosthetic valve element.
A composition comprising hyaluronan for use in alleviating pain and discomfort associated with wound healing in a subject in need thereof, wherein: the hyaluronan is present in said composition at a concentration of greater than about 30 mg/mL; the hyaluronan has an average molecular weight of between about 1 and about 2 million; the hyaluronan is not cross-linked and/or is free of chemical modifications; and wherein the composition is free of polyol and a local anesthetic, thereby alleviating said pain and discomfort associated with wound healing. the hyaluronan is present in said composition at a concentration of greater than about 30 mg/mL; the hyaluronan has an average molecular weight of between about 1 and about 2 million; the hyaluronan is not cross-linked and/or is free of chemical modifications; and wherein the composition is free of polyol and a local anesthetic, thereby alleviating said pain and discomfort associated with wound healing.
A manual vibrato system, including a manually operated vibrato control device comprising an arm, a rotation sensor to sense rotation of the arm and produce rotation data, and a processor receiving said rotation data, and in response to the rotation data generating pitch change instructions for communication to a pitch modification device, characterized in that the processor is adapted to define a null region of rotation of the arm in one or both directions so that if rotation data falls within said null region, no pitch change instructions are generated; in that the processor is adapted to further define a transition region, separate to the null region; and in that where the location and duration of location of the rotational position of the arm, determined from the rotation data, meet predetermined criteria, the centre position of the arm is redefined in the processor to be a new position, and the null region and transition region are redefined within the processor relative to the new centre position.
A wet laid basemat for an acoustical tile made primarily of mineral fiber and binder of starch and/or latex, the mineral fiber being formed of slag and a natural rock content exceeding 6% by weight, the mineral fiber having an average diameter of between 4.5 and 8.3 microns, the basemat having a density of between 182.61 kg/m 3 and 227.46 kg/m 3 (11.4 and 14.2 lbs/cubic foot).
Gas hob (21, 22) with a gas burner for a household cooking appliance, with a hob plate, which has a passage opening and a gas burner opening embodied as a passage hole, wherein the gas burner is arranged at the gas burner opening of the hob plate, and a pan support that is arranged on the hob plate and has a channel fluidically connected to the passage opening, wherein the channel and the passage opening are configured to provide primary air for the gas burner, characterised in that the channel has an air inlet opening that has a spacing from the hob plate.
A cut-off device comprising: a conductive element and a movable piston, the piston being able to move between a first position in which the current passes in the conductive element and a second position in which the current is cut off, the piston being configured to break the conductive element when moving from its first position to its second position, the piston being positioned in a receiving cavity of a receiving element when said piston is in its second position, the receiving element further comprises at least one additional cavity separate from the receiving cavity and linked to said receiving cavity by at least one channel, said at least one channel being open when the conductive element is broken by the piston, characterized in that the at least one channel is obturated by the piston when said piston is in its second position.