mhurhangee/ep-ind-claims huggingface dataset:
A method by a wireless device for communicating in a wireless network, the method comprising: receiving configuration parameters within layer 3 signaling from a network controller comprising a discovery signal, DS, parameter associated to a network component being either a cell or an eNodeB; said method being characterized by: listening for a common reference signal, CRS, from the network component during an activation time frame of the network component; receiving a DS that conforms to the DS parameter from the network component during a deactivation time frame of the network component; and refraining from monitoring CRS from the network component during said deactivation time frame; and performing at least one of synchronization, cell identification, and DS based radio resource management, RRM, measurements according to the DS, wherein a start of the activation time frame is determined by the wireless device according to activation signaling being layer 1 or layer 2 signaling received by the wireless decive, and wherein a start of the deactivation time frame is determined by the wireless device according to a network component deactivation timer expiry, during the activation time frame, wherein the deactivation timer is specified in the configuration parameters. listening for a common reference signal, CRS, from the network component during an activation time frame of the network component; receiving a DS that conforms to the DS parameter from the network component during a deactivation time frame of the network component; and refraining from monitoring CRS from the network component during said deactivation time frame; and performing at least one of synchronization, cell identification, and DS based radio resource management, RRM, measurements according to the DS, wherein a start of the activation time frame is determined by the wireless device according to activation signaling being layer 1 or layer 2 signaling received by the wireless decive, and wherein a start of the deactivation time frame is determined by the wireless device according to a network component deactivation timer expiry, during the activation time frame, wherein the deactivation timer is specified in the configuration parameters.
Magnetic radial bearing for the rotatable mounting of a rotor having - a stator comprising several coil assemblies, wherein - the coil assemblies are arranged around an axis of the radial bearing in a circumferential direction, - each of the coil assemblies comprises a laminated core with single sheets and - each of the coil assemblies comprises a coil that is wound the around the corresponding laminated core, - wherein the single sheets in every laminated core are stacked in the circumferential direction, - wherein each laminated core is arched in the circumferential direction and, in the circumferential direction, has a contour which is at a constant distance to a prespecified shaft to be mounted, - wherein the coil assemblies overall have an approximately kidney-shaped form in each case, - wherein the magnetic radial bearing has an annular housing (17, 22) in which the coil assemblies are secured, - wherein the housing (17, 22) is in two parts and each of the two parts of the housing has an annular shape and - wherein a separate supporting ring for radially supporting the coil assemblies is attached to the inner circumference of the annular housing (17,22). - a stator comprising several coil assemblies, wherein - the coil assemblies are arranged around an axis of the radial bearing in a circumferential direction, - each of the coil assemblies comprises a laminated core with single sheets and - each of the coil assemblies comprises a coil that is wound the around the corresponding laminated core, - wherein the single sheets in every laminated core are stacked in the circumferential direction, - wherein each laminated core is arched in the circumferential direction and, in the circumferential direction, has a contour which is at a constant distance to a prespecified shaft to be mounted, - wherein the coil assemblies overall have an approximately kidney-shaped form in each case, - wherein the magnetic radial bearing has an annular housing (17, 22) in which the coil assemblies are secured, - wherein the housing (17, 22) is in two parts and each of the two parts of the housing has an annular shape and - wherein a separate supporting ring for radially supporting the coil assemblies is attached to the inner circumference of the annular housing (17,22).
Method for detecting the status of a distance sensor arranged on a motor vehicle, with a processor and a memory for storing first values which represent probabilities of a presence of objects within a sensing range of the distance sensor wherein the probabilities result from the likelihood quotients whose numerators are linked to estimated probabilities relating to incoming signals, which probabilities are measured according to the hypothesis that real objects are present and their denominators are linked to further estimated probabilities relating to incoming signals, which probabilities are measured according to the hypothesis that no real objects are present, and a cruise controller by means of which the speed of the motor vehicle can be regulated, having the following method steps: - a maximum is determined from first values which represent probabilities of a presence of objects within a predefinable sensing partial range of the distance sensor, - the maximum is compared with a first predefinable threshold value, and - a status bit which indicates blindness is set as a function of the comparison. - a maximum is determined from first values which represent probabilities of a presence of objects within a predefinable sensing partial range of the distance sensor, - the maximum is compared with a first predefinable threshold value, and - a status bit which indicates blindness is set as a function of the comparison.
A process for solubilizing graphite, characterized in that it comprises the following steps, which are carried out under inert atmosphere: a) Reduction of graphite by an alkali metal to lead to a graphite intercalation compound; and b) Exposure of the graphite intercalation compound to a polar aprotic solvent to lead to a solution of reduced graphene, wherein the polar aprotic solvent has a dielectric constant from 25 to 200. a) Reduction of graphite by an alkali metal to lead to a graphite intercalation compound; and b) Exposure of the graphite intercalation compound to a polar aprotic solvent to lead to a solution of reduced graphene, wherein the polar aprotic solvent has a dielectric constant from 25 to 200.
An inductor comprising an inductor core (5,15) having a higher magnetic permeability than air, and an inductor winding comprising at least one conductor wound in one or more loops, where the inductor core at least partly extends along a first axis, and the inductor winding extends completely around the first axis of the inductor core in such a way that the inductor winding has a number of discrete positions or first sections where it extends in a direction being perpendicular to the first axis of the inductor core, and wherein the inductor winding between the discrete positions or sections has second sections where the inductor winding extends at least partly along the first axis; wherein the inductor core completely encapsulates the inductor winding.
A machine for forming filter-bags containing infusion products, including at least one transporting element configured for picking up, transporting and releasing individual filter-bags from a operating station for forming the filter-bags, rotating about a first axis, to a station for preparing and packaging groups of filter-bags formed; the preparing and packaging station comprising at least: - a tubular conduit having an upper end opening positioned facing the transporting element and configured for receiving single filter-bags; - units (6, 7) for controlling the descent of the individual filter-bags and for defining the group of filter-bags to be formed, movable along the tubular conduit; the units (6, 7) being configured to form, retain and transfer the stacked group of filter-bags beyond the bottom of the tubular conduit; - a unit for transferring the group of filter-bags positioned, in a receiving position, al below the tubular conduit; the transfer unit having a body for housing the group of filter-bags; the body being associated with at least one supporting frame connected to a unit for moving the body configured to rotate about a second axis parallel to the first axis so as to allow a rotation of the body from the position for receiving the group of filter-bags to a position for releasing the group of filter-bags inside a box and vice versa; the transfer unit having the frame for supporting the housing body articulated to the unit for moving the body in such a way as to rotate also about a third axis transversal to the second axis of rotation of the movement unit of the body; kinematic means of rotation about the third axis being interposed between the unit for moving the body and the supporting frame and configured to allow a synchronised rotation of the frame about the second and the third axis in such a way as to rotate and orient the group of filter-bags prior to the arrival of the body in the release position inside the box. - a tubular conduit having an upper end opening positioned facing the transporting element and configured for receiving single filter-bags; - units (6, 7) for controlling the descent of the individual filter-bags and for defining the group of filter-bags to be formed, movable along the tubular conduit; the units (6, 7) being configured to form, retain and transfer the stacked group of filter-bags beyond the bottom of the tubular conduit; - a unit for transferring the group of filter-bags positioned, in a receiving position, al below the tubular conduit; the transfer unit having a body for housing the group of filter-bags; the body being associated with at least one supporting frame connected to a unit for moving the body configured to rotate about a second axis parallel to the first axis so as to allow a rotation of the body from the position for receiving the group of filter-bags to a position for releasing the group of filter-bags inside a box and vice versa;
An additive manufacturing machine (100; 300) comprising: a spreader (102; 302) to dispense a powdered build material to a target surface; a vibrator to cause vibration of the spreader (102; 302); a sensor (134; 304) to measure a vibrational characteristic of the spreader (102; 302) during an operation of the spreader (102; 302); and a controller (202; 306) to control, based on the measured vibrational characteristic, a sweep of a frequency of vibration of the spreader (102; 302) via the vibrator across a range of frequencies. a spreader (102; 302) to dispense a powdered build material to a target surface; a vibrator to cause vibration of the spreader (102; 302); a sensor (134; 304) to measure a vibrational characteristic of the spreader (102; 302) during an operation of the spreader (102; 302); and a controller (202; 306) to control, based on the measured vibrational characteristic, a sweep of a frequency of vibration of the spreader (102; 302) via the vibrator across a range of frequencies.
An actuator (502, 600) coupled to a valve, the actuator (502, 600) comprising: - a motor configured to control an orientation of the valve within a conduit (700, 720, 802); and - an actuator controller operatively connected to the motor and configured to selectively rotate the valve, the actuator controller including a processor and memory, the memory storing instructions that, when executed by the processor, cause the processor to perform operations, the operations including: - receiving a request for a desired valve orientation; - controlling the motor to move the valve into the desired valve orientation; - sensing a condition within the conduit (700, 720, 802), the condition corresponding to a current valve orientation following movement by the motor; - determining if the sensed condition indicates that the current valve orientation matches the desired valve orientation from the request; and - responsive to determining that the current valve orientation does not match the desired valve orientation from the request, controlling the motor to selectively rotate the valve in a direction to move the valve towards the desired valve orientation. - a motor configured to control an orientation of the valve within a conduit (700, 720, 802); and - an actuator controller operatively connected to the motor and configured to selectively rotate the valve, the actuator controller including a processor and memory, the memory storing instructions that, when executed by the processor, cause the processor to perform operations, the operations including: - receiving a request for a desired valve orientation; - controlling the motor to move the valve into the desired valve orientation; - sensing a condition within the conduit (700, 720, 802), the condition corresponding to a current valve orientation following movement by the motor; - determining if the sensed condition indicates that the current valve orientation matches the desired valve orientation from the request; and - responsive to determining that the current valve orientation does not match the desired valve orientation from the request, controlling the motor to selectively rotate the valve in a direction to move the valve towards the desired valve orientation. - receiving a request for a desired valve orientation; - controlling the motor to move the valve into the desired valve orientation; - sensing a condition within the conduit (700, 720, 802), the condition corresponding to a current valve orientation following movement by the motor; - determining if the sensed condition indicates that the current valve orientation matches the desired valve orientation from the request; and - responsive to determining that the current valve orientation does not match the desired valve orientation from the request, controlling the motor to selectively rotate the valve in a direction to move the valve towards the desired valve orientation.
A fan for generating an air flow in a temperature conditioning system, comprising: - a blade assembly, rotatable about a longitudinal axis to generate said air flow; - a bell mouth, surrounding the blade assembly coaxially to the longitudinal axis, wherein the bell mouth has a minimum diameter defining an annular gap with respect to the blade assembly; - a diffuser having a first edge, facing the bell mouth, and a second edge, axially displaced downstream the blade assembly, to guide the air flowing away from the blade assembly, wherein the diffuser has a first diameter at its first edge, which is smaller than the minimum diameter of the bell mouth, characterized in that the diffuser is a separate, distinct element, with respect to the bell mouth, is positioned downstream of the bell mouth and downstream of the blade assembly. - a blade assembly, rotatable about a longitudinal axis to generate said air flow; - a bell mouth, surrounding the blade assembly coaxially to the longitudinal axis, wherein the bell mouth has a minimum diameter defining an annular gap with respect to the blade assembly; - a diffuser having a first edge, facing the bell mouth, and a second edge, axially displaced downstream the blade assembly, to guide the air flowing away from the blade assembly, wherein the diffuser has a first diameter at its first edge, which is smaller than the minimum diameter of the bell mouth,
An absorbent article having a wearer-facing side and a garment-facing side, and extending in a longitudinal direction and a transversal direction, the article comprising: - a topsheet on the wearer-facing side; - a backsheet on the garment-facing side; - an absorbent core between the topsheet and the backsheet, the absorbent core being free of cellulose fibers, wherein the absorbent core comprises an absorbent layer in a core wrap (16, 16') and the absorbent material of the absorbent layer consists of superabsorbent particles, the absorbent layer having a longitudinally-extending central portion, a first side portion disposed transversally outward of the central portion and a second side portion disposed transversally outward of the central portion on another side of the central portion; wherein the absorbent core further comprises a first folding guide between the central portion and the first side portion, and a second folding guide between the central portion and the second side portion, wherein the folding guides are inwardly curved towards the absorbent layer's central portion; wherein each side portion comprises a plurality of winglets (610-613, 620-623), each winglet having a proximal side (6200, 6210, 6220) relative to a folding guide and extending outward from this proximal side, and wherein neighboring winglets are separated by a gap between their neighboring sides (6202-6211, 6213-6221); wherein when the absorbent core is folded along the folding guides, the central portion and the side portions form a three dimensional basin and the gaps between the winglets decrease, the neighboring sides optionally coming into contact. - a topsheet on the wearer-facing side; - a backsheet on the garment-facing side; - an absorbent core between the topsheet and the backsheet, the absorbent core being free of cellulose fibers,
A method for the detection of human parvovirus from a sample comprising the steps of: a) in a sample suspected of containing human parvovirus genotype 1, genotype 2, or genotype 3, contacting said sample with amplification oligomers, wherein said amplification oligomers comprise at least one amplification oligomer member that is SEQ ID NO: 47 or SEQ ID NO: 50 and promoter-based amplification oligomer members that are SEQ ID NO: 73 and SEQ ID NO: 78; b) performing an amplification reaction on said sample to generate an amplicon from a human parvovirus in said sample; and c) detecting said amplicon with a detection probe oligomer that is SEQ ID NO:42; wherein the presence of the amplicon as determined by said detecting step indicates that one or more of human parvovirus genotypes 1, 2 or 3 are present in said sample. a) in a sample suspected of containing human parvovirus genotype 1, genotype 2, or genotype 3, contacting said sample with amplification oligomers, wherein said amplification oligomers comprise at least one amplification oligomer member that is SEQ ID NO: 47 or SEQ ID NO: 50 and promoter-based amplification oligomer members that are SEQ ID NO: 73 and SEQ ID NO: 78; b) performing an amplification reaction on said sample to generate an amplicon from a human parvovirus in said sample; and c) detecting said amplicon with a detection probe oligomer that is SEQ ID NO:42; wherein the presence of the amplicon as determined by said detecting step indicates that one or more of human parvovirus genotypes 1, 2 or 3 are present in said sample.
A segmented electrode assembly comprising: an inner electrode support (2565; 2665), a layer of conductive material (2516; 2668; 2880; 2968, 2984), an outer support segment (2569; 2669; 2769; 2882), an outer polymeric skin (2463; 2563; 2763; 2863) and a plurality of electrode segments (2461, 2462; 2561; 2773, 2775; 2905; 3005); wherein the outer support segment (2569; 2669; 2769; 2882) comprises a plurality of notches (2672; 2772; 2872), wherein the outer polymeric skin (2463; 2563; 2763; 2863) comprises a plurality of notches that align with the plurality of notches (2672; 2772; 2872) of the outer support segment (2569; 2669; 2769; 2882), wherein the layer of conductive material (2516; 2668; 2880; 2968, 2984) is deposited on an outer surface of the inner electrode support (2565; 2665), the plurality of electrode segments (2461, 2462; 2561; 2773, 2775; 2905; 3005) are each electrically coupled to the layer of conductive material (2516; 2668; 2880; 2968, 2984), and wherein the outer support segment (2569; 2669; 2769; 2882) is configured to circumferentially surround the inner electrode support (2565; 2665) and the plurality of notches (2672; 2772; 2872) of the outer support segment (2569; 2669; 2769; 2882) are configured to overlay an electrode ridge (2777; 3077) on each of the plurality of electrode segments (2462; 2561; 2773, 2775; 2905; 3005), and wherein the outer support segment (2569; 2669; 2769; 2882) and the outer polymeric skin (2463; 2563; 2763; 2863) are positioned such that a portion of each is contacting the electrode ridge (2777; 3077). an inner electrode support (2565; 2665), a layer of conductive material (2516; 2668; 2880; 2968, 2984), an outer support segment (2569; 2669; 2769; 2882), an outer polymeric skin (2463; 2563; 2763; 2863) and a plurality of electrode segments (2461, 2462; 2561; 2773, 2775; 2905; 3005); wherein the outer support segment (2569; 2669; 2769; 2882) comprises a plurality of notches (2672; 2772; 2872), wherein the outer polymeric skin (2463; 2563; 2763; 2863) comprises a plurality of notches that align with the plurality of notches (2672; 2772; 2872) of the outer support segment (2569; 2669; 2769; 2882), wherein the layer of conductive material (2516; 2668; 2880; 2968, 2984) is deposited on an outer surface of the inner electrode support (2565; 2665), the plurality of electrode segments (2461, 2462; 2561; 2773, 2775; 2905; 3005) are each electrically coupled to the layer of conductive material (2516; 2668; 2880; 2968, 2984), and wherein the outer support segment (2569; 2669; 2769; 2882) is configured to circumferentially surround the inner electrode support (2565; 2665) and the plurality of notches (2672; 2772; 2872) of the outer support segment (2569; 2669; 2769; 2882) are configured to overlay an electrode ridge (2777; 3077) on each of the plurality of electrode segments (2462; 2561; 2773, 2775; 2905; 3005), and wherein the outer support segment (2569; 2669; 2769; 2882) and the outer polymeric skin (2463; 2563; 2763; 2863) are positioned such that a portion of each is contacting the electrode ridge (2777; 3077).
A method performed by a cellular system, the cellular system including at least a first base station and a neighbor base station, the method comprising: transmitting, by the neighbor base station via at least one interface to the first base station, an indication of neighbor uplink orthogonal resources allocated to at least one neighbor user equipment near an edge of a cell of the neighbor base station for uplink transmission, wherein the first base station is informed not to use the neighbor uplink orthogonal resources for relatively near an edge of a cell of the first base station; transmitting, by the first base station, an allocation of uplink orthogonal resources for use by a first user equipment located relatively near a center of the cell of the first base station; and transmitting, by the first base station, an allocation of other uplink orthogonal resources for use by a second user equipment located relatively near the edge of the cell of the first base station, wherein the allocation of the other uplink orthogonal resources is based on the indication. transmitting, by the neighbor base station via at least one interface to the first base station, an indication of neighbor uplink orthogonal resources allocated to at least one neighbor user equipment near an edge of a cell of the neighbor base station for uplink transmission, wherein the first base station is informed not to use the neighbor uplink orthogonal resources for relatively near an edge of a cell of the first base station; transmitting, by the first base station, an allocation of uplink orthogonal resources for use by a first user equipment located relatively near a center of the cell of the first base station; and transmitting, by the first base station, an allocation of other uplink orthogonal resources for use by a second user equipment located relatively near the edge of the cell of the first base station, wherein the allocation of the other uplink orthogonal resources is based on the indication.