mhurhangee/ep-ind-claims huggingface dataset:
A method of transmission control for an audio device, the method comprising: receiving an audio input using a microphone; receiving an auxiliary input using a source other than the microphone; performing voice activity detection on the audio input to generate a voice activity confidence level; detecting individual nuisance events present in the auxiliary input; aggregating the nuisance events over time to generate a nuisance level; and combining the voice activity confidence level and the nuisance level to generate a transmit decision level and a gain level. receiving an audio input using a microphone; receiving an auxiliary input using a source other than the microphone; performing voice activity detection on the audio input to generate a voice activity confidence level; detecting individual nuisance events present in the auxiliary input; aggregating the nuisance events over time to generate a nuisance level; and combining the voice activity confidence level and the nuisance level to generate a transmit decision level and a gain level.
A container, particularly suitable for containing water-based liquids and the like, comprising a containment body which has an upper mouth delimited by a metallic ring that is associated with said containment body and can be engaged by pressing with a closure, said metallic ring being provided partly by a sealed band that is plastic-coated at least at the region of said metallic ring that is adapted to face the inside of said containment body to prevent direct contact of the water-based liquid substance contained in said containment body with said metallic ring, characterized in that said closure is disk-shaped and comprises an internal rim that protrudes in an axial direction, axially extending towards the inside of the containment body and adapted to be inserted in said upper mouth and such as to form an outer abutment ring, said metallic ring being clinched to said upper mouth so as to be flush with the internal part of said containment body and so as to form a circular groove that is radially internal to said internal wall, a circular edge being provided at the lower base of said containment body, wherein said circular edge protrudes axially from said lower base and is complementary to said circular groove for the stable stacking of said container with another underlying container.
A method, comprising: determining, in a cloud-based route reflector, whether a first root node is a leaf node in a spanning tree computed for a second root node (1120, 1140); determining route metric differences associated with a spanning tree computed for the first root node and the spanning tree of the second root node; and populating a delta database with the route metric differences, wherein the second root node is a backup of the first root node according to a failover policy group assigned to a plurality of client nodes in an autonomous system. determining, in a cloud-based route reflector, whether a first root node is a leaf node in a spanning tree computed for a second root node (1120, 1140); determining route metric differences associated with a spanning tree computed for the first root node and the spanning tree of the second root node; and populating a delta database with the route metric differences, wherein the second root node is a backup of the first root node according to a failover policy group assigned to a plurality of client nodes in an autonomous system.
A data processing apparatus formed on an integrated circuit comprising: a plurality of processors (12, 14, 16); power control circuitry configured to control power up and power down of said plurality of processors; a read only memory for storing boot up software for booting up each of said plurality of processors, for execution by a processor in response to power up of said processor, said boot up software being accessible to said plurality of processors during power up; wherein said power control circuitry is configured to respond to receipt of a check state request from one of said processors, to control another one of said plurality of processors that is currently powered down to power up and to access said boot up software, said boot up software accessed in response to said check state request controlling said processor to perform at least some initialising functions and to perform a measurement indicative of a current state of said data processing apparatus and to output a value indicative of said measurement to said processor from which said check state request was received. a plurality of processors (12, 14, 16); power control circuitry configured to control power up and power down of said plurality of processors; a read only memory for storing boot up software for booting up each of said plurality of processors, for execution by a processor in response to power up of said processor, said boot up software being accessible to said plurality of processors during power up; wherein said power control circuitry is configured to respond to receipt of a check state request from one of said processors, to control another one of said plurality of processors that is currently powered down to power up and to access said boot up software, said boot up software accessed in response to said check state request controlling said processor to perform at least some initialising functions and to perform a measurement indicative of a current state of said data processing apparatus and to output a value indicative of said measurement to said processor from which said check state request was received.
A system having an operating element with a biometrics sensor integrated into the operating element and a lighting system with at least one luminaire, wherein: • The biometrics sensor is set up to identify a person by means of a fingerprint detection; • the biometrics sensor is set up to transmit the result of the identification to the lighting system; • the biometrics sensor is set up to detect a first identification parameter-set of the person; characterized in that: • the biometrics sensor is set up to detect at least a second identification parameter set of the person; • the first and at least a second identification parameter set are different and in each case define, with which number of fingers and with which of the person's fingers the respective identification parameter set is stored, and at least one personally identifiable operating parameter is assigned to each identification parameter set; • the first identification parameter set and the at least one second identification parameter set can be stored either in the lighting system or in a network memory of a network; • the biometrics sensor is set up to detect identification parameters of the person, and the lighting system is set up to compare the detected identification parameters with the first and at least a second stored identification parameter set, in order to identify the person; • the lighting system is set up, in dependence on that identification parameter set, which corresponds with the detected identification parameters, to set the at least one personally identifiable operating parameter of the corresponding identification parameter set. • The biometrics sensor is set up to identify a person by means of a fingerprint detection; • the biometrics sensor is set up to transmit the result of the identification to the lighting system; • the biometrics sensor is set up to detect a first identification parameter-set of the person; • the biometrics sensor is set up to detect at least a second identification parameter set of the person; • the first and at least a second identification parameter set are different and in each case define, with which number of fingers and with which of the person's fingers the respective identification parameter set is stored, and at least one personally identifiable operating parameter is assigned to each identification parameter set; • the first identification parameter set and the at least one second identification parameter set can be stored either in the lighting system or in a network memory of a network; • the biometrics sensor is set up to detect identification parameters of the person, and the lighting system is set up to compare the detected identification parameters with the first and at least a second stored identification parameter set, in order to identify the person; • the lighting system is set up, in dependence on that identification parameter set, which corresponds with the detected identification parameters, to set the at least one personally identifiable operating parameter of the corresponding identification parameter set.
A method for producing a three-dimensional object by successive solidification of layers of a powder-like build material that is solidifiable by radiation, having the following method steps: - providing a laser sintering unit or laser melting unit having a housing, a build chamber situated therein, a coating device for applying build material in layers, an irradiation device for irradiating the applied layers of the build material, and a group structure onto which the object and/or a support structure for the object are/is generatively built up, - forming the support structure for supporting, at least in part, the three-dimensional object to be produced, by successive solidification of layers of the build material, - forming multiple individual partial objects, each of which forms a certain partial area of the three-dimensional object to be produced, by successive solidification of layers of the build material, wherein at least one partial object is formed, at least in part, on the support structure, - forming connecting areas between the partial objects for connecting, at least in part, the partial objects to form the three-dimensional object, - removing the three-dimensional object from the support structure after the connecting areas are formed. - providing a laser sintering unit or laser melting unit having a housing, a build chamber situated therein, a coating device for applying build material in layers, an irradiation device for irradiating the applied layers of the build material, and a group structure onto which the object and/or a support structure for the object are/is generatively built up, - forming the support structure for supporting, at least in part, the three-dimensional object to be produced, by successive solidification of layers of the build material, - forming multiple individual partial objects, each of which forms a certain partial area of the three-dimensional object to be produced, by successive solidification of layers of the build material, wherein at least one partial object is formed, at least in part, on the support structure, - forming connecting areas between the partial objects for connecting, at least in part, the partial objects to form the three-dimensional object, - removing the three-dimensional object from the support structure after the connecting areas are formed.
A method for relay communication, comprising: selecting, by a remote device, a target public land mobile network, PLMN; and selecting, by the remote device, a target relay device based on the target PLMN, wherein the selecting, by the remote device, the target PLMN, comprising: obtaining, by a non-access layer, NAS layer, of the remote device, at least one PLMN available for selection from a proximity-based service, ProSe, layer of the remote device, and selecting, by the NAS layer of the remote device, the target PLMN from the at least one PLMN, and wherein the method further comprises: determining, by the ProSe layer of the remote device, the at least one PLMN based on serving PLMNs of one or more relay devices, PLMNs of a cell of the one or more relay devices, and at least one authorized PLMN of the remote device. selecting, by a remote device, a target public land mobile network, PLMN; and selecting, by the remote device, a target relay device based on the target PLMN, wherein the selecting, by the remote device, the target PLMN, comprising: obtaining, by a non-access layer, NAS layer, of the remote device, at least one PLMN available for selection from a proximity-based service, ProSe, layer of the remote device, and selecting, by the NAS layer of the remote device, the target PLMN from the at least one PLMN, and wherein the method further comprises: determining, by the ProSe layer of the remote device, the at least one PLMN based on serving PLMNs of one or more relay devices, PLMNs of a cell of the one or more relay devices, and at least one authorized PLMN of the remote device. obtaining, by a non-access layer, NAS layer, of the remote device, at least one PLMN available for selection from a proximity-based service, ProSe, layer of the remote device, and selecting, by the NAS layer of the remote device, the target PLMN from the at least one PLMN, and wherein the method further comprises: determining, by the ProSe layer of the remote device, the at least one PLMN based on serving PLMNs of one or more relay devices, PLMNs of a cell of the one or more relay devices, and at least one authorized PLMN of the remote device.
An impact resistant modular braille display device comprising a main housing including forward and rearward extents, and first and second ends, an opening formed within the forward extent of the main housing; a subassembly positioned within the forward opening of the main housing, the subassembly including a back and a series of interconnected cell compartments, each cell compartment including forward and rearward ends and housing a plurality of bimorph reeds, each bimorph reed supporting an associated tactile pin; a series of backplanes positioned in end to end relationship along a back of the subassembly, each backplane including a shift register functioning to provide instructions to a group of associated cell compartments, a series of separable flex cables electrically interconnecting the series of backplanes, whereby an individual backplane and its associated cell compartments can be removed from the subassembly without disturbing the remaining cell compartments. a main housing including forward and rearward extents, and first and second ends, an opening formed within the forward extent of the main housing; a subassembly positioned within the forward opening of the main housing, the subassembly including a back and a series of interconnected cell compartments, each cell compartment including forward and rearward ends and housing a plurality of bimorph reeds, each bimorph reed supporting an associated tactile pin; a series of backplanes positioned in end to end relationship along a back of the subassembly, each backplane including a shift register functioning to provide instructions to a group of associated cell compartments, a series of separable flex cables electrically interconnecting the series of backplanes, whereby an individual backplane and its associated cell compartments can be removed from the subassembly without disturbing the remaining cell compartments.
Electrical connector comprising a connector body including a plurality of seats for a plurality of terminal contacts each associated with a respective conductor, and at least one sealing element in the form of a layer of resiliently deformable, electrically insulating material, received in the body of the connector in a plane transverse to the conductors associated with said terminal contacts, so as to provide a seal around said conductors, whereby said connector body is provided with means for mounting the sealing layer within the connector body, in such a way that said sealing layer can be inserted into the connector body after said terminal contacts along with the respective conductors have been received in the connector body, and in such a way that the sealing layer engages slidingly around said conductors until a final mounting position is reached characterised in that said means is a guide passage for slidingly mounting the sealing layer within the connector body, by moving the sealing layer parallel to the plane thereof.
A detection apparatus for placement on an investigation zone of an epidermis of a human or animal subject for detecting at least the nitric oxide dissolved in sweat, said detection apparatus comprising: a structure defining a microfluidic circuit, the structure comprising an entry orifice allowing passage of sweat from the epidermis, the microfluidic circuit comprising at least one microfluidic channel for guiding a flow of sweat, the microfluidic channel being in communication with the entry orifice, at least one electrochemical sensor configured to produce at least one signal that is representative of a concentration of the nitric oxide dissolved in the flow of sweat in the microfluidic channel, characterized in that the electrochemical sensor comprises at least four electrodes disposed successively in a longitudinal direction of the microfluidic channel, the at least four electrodes comprising a reference electrode, at least two working electrodes (20, 23) and a counter-electrode, and in that the electrochemical sensor is further configured to perform at least one additional operation from among the following: depleting a chemical species in the flow of sweat in the microfluidic channel, said chemical species having an oxidation potential lower than the oxidation potential of nitric oxide, and producing a signal that is representative of a flow rate of the flow of sweat in the microfluidic channel. a structure defining a microfluidic circuit, the structure comprising an entry orifice allowing passage of sweat from the epidermis, the microfluidic circuit comprising at least one microfluidic channel for guiding a flow of sweat, the microfluidic channel being in communication with the entry orifice, at least one electrochemical sensor configured to produce at least one signal that is representative of a concentration of the nitric oxide dissolved in the flow of sweat in the microfluidic channel, characterized in that the electrochemical sensor comprises at least four electrodes disposed successively in a longitudinal direction of the microfluidic channel, the at least four electrodes comprising a reference electrode, at least two working electrodes (20, 23) and a counter-electrode, and in that the electrochemical sensor is further configured to perform at least one additional operation from among the following: depleting a chemical species in the flow of sweat in the microfluidic channel, said chemical species having an oxidation potential lower than the oxidation potential of nitric oxide, and producing a signal that is representative of a flow rate of the flow of sweat in the microfluidic channel. depleting a chemical species in the flow of sweat in the microfluidic channel, said chemical species having an oxidation potential lower than the oxidation potential of nitric oxide, and producing a signal that is representative of a flow rate of the flow of sweat in the microfluidic channel.
An absorbent article, comprising: a chassis having a front waist region, a back waist region, and a crotch region extending between the front and back waist regions (14,12); an outer cover member and a bodyside liner extending between the front and back waist regions (14,12); an absorbent body structure between the outer cover member and the bodyside liner; a waistband structure extending across at least one of the front and back waist regions (11,17), the waistband structure comprising a filler material and a waistband material; wherein the waistband structure is bonded to the at least one of the front and back waist regions (11,17) via a bond pattern, the bond pattern varying position in the longitudinal direction and having at least one peak and one valley across the respective waist region, and wherein a z-directional height of the waistband structure varies on the respective waist region (11,17); wherein the filler material is selected from lofty nonwoven materials, laminates, spunbond fabrics, films, meltblown fabrics, elastic netting, microporous web, bonded carded webs, absorbent core materials, surge materials, or foams comprised of elastomeric or polymeric materials, cellulosic materials, and combinations thereof; and wherein the bond pattern is a continuous pattern of discrete bond points, wherein a distance between successive bond points is less than about 10 mm. a chassis having a front waist region, a back waist region, and a crotch region extending between the front and back waist regions (14,12); an outer cover member and a bodyside liner extending between the front and back waist regions (14,12); an absorbent body structure between the outer cover member and the bodyside liner; a waistband structure extending across at least one of the front and back waist regions (11,17), the waistband structure comprising a filler material and a waistband material; wherein the waistband structure is bonded to the at least one of the front and back waist regions (11,17) via a bond pattern, the bond pattern varying position in the longitudinal direction and having at least one peak and one valley across the respective waist region, and wherein a z-directional height of the waistband structure varies on the respective waist region (11,17); wherein the filler material is selected from lofty nonwoven materials, laminates, spunbond fabrics, films, meltblown fabrics, elastic netting, microporous web, bonded carded webs, absorbent core materials, surge materials, or foams comprised of elastomeric or polymeric materials, cellulosic materials, and combinations thereof; and wherein the bond pattern is a continuous pattern of discrete bond points, wherein a distance between successive bond points is less than about 10 mm.