mhurhangee/ep-ind-claims huggingface dataset:
A first network node for a wireless communication system, the first network node comprising a processor, and a transceiver; wherein the transceiver is configured to receive a first signal S1 comprising a network information message indicating network information associated with a first network operator or a second network operator in a region; wherein the processor is configured to determine an allocation of frequency resources for operation W n, for the first network operator or the second network operator in the region, n = 1,..., N are indices of network operators, based on the network information, and wherein the processor is further configured to determine a density of network nodes for operation λ n,b, for the first network operator or the second network operator, based on the network information; and wherein the transceiver further is configured to transmit a second signal S2 to a second network node of the first network operator or the second network operator, the second signal S2 comprising a first network resource allocation message (NRAM1) indicating the allocation of frequency resources for operation W n, and the density of network nodes for operation λ n,b, characterised in that the density of network nodes for operation λ n,b and the allocation of frequency resources for operation W n are determined by minimizing a cost function ∑ n = 1 N c n, b λ n, b + c n, w W n subject to traffic demand constraints associated to each network operator. a processor, and a transceiver; wherein the transceiver is configured to receive a first signal S1 comprising a network information message indicating network information associated with a first network operator or a second network operator in a region; wherein the processor is configured to determine an allocation of frequency resources for operation W n, for the first network operator or the second network operator in the region, n = 1,..., N are indices of network operators, based on the network information, and wherein the processor is further configured to determine a density of network nodes for operation λ n,b, for the first network operator or the second network operator, based on the network information; and wherein the transceiver further is configured to transmit a second signal S2 to a second network node of the first network operator or the second network operator, the second signal S2 comprising a first network resource allocation message (NRAM1) indicating the allocation of frequency resources for operation W n, and the density of network nodes for operation λ n,b, characterised in that
An artificial intelligence-based system, comprising: an input preparation module that accesses a sequence database and generates an input base sequence, wherein the input base sequence comprises (i) a target base sequence with target bases, wherein the target base sequence is flanked by (ii) a right base sequence with downstream context bases, and (iii) a left base sequence with upstream context bases; a convolutional neural network, CNN, based sequence-to-sequence model that processes the input base sequence and generates an alternative representation of the input base sequence; wherein the CNN has been trained on input base sequences of the target base sequence, the right base sequence and the left base sequence, and on ground truth signal levels in sequences of a plurality of epigenetic tracks; and an output module that processes the alternative representation of the input base sequence and produces at least one per-base output for each of the target bases in the target base sequence, wherein the per-base output specifies, for a corresponding target base, signal levels of a plurality of epigenetic tracks. an input preparation module that accesses a sequence database and generates an input base sequence, wherein the input base sequence comprises (i) a target base sequence with target bases, wherein the target base sequence is flanked by (ii) a right base sequence with downstream context bases, and (iii) a left base sequence with upstream context bases; (i) a target base sequence with target bases, wherein the target base sequence is flanked by (ii) a right base sequence with downstream context bases, and (iii) a left base sequence with upstream context bases; a convolutional neural network, CNN, based sequence-to-sequence model that processes the input base sequence and generates an alternative representation of the input base sequence; wherein the CNN has been trained on input base sequences of the target base sequence, the right base sequence and the left base sequence, and on ground truth signal levels in sequences of a plurality of epigenetic tracks; and an output module that processes the alternative representation of the input base sequence and produces at least one per-base output for each of the target bases in the target base sequence, wherein the per-base output specifies, for a corresponding target base, signal levels of a plurality of epigenetic tracks.
A moulded part coated with non-woven fabric, comprising a core consisting of a foamed material or a fibrous material, a heat-cured binding agent and at least one non-woven fabric layer connected to the core by means of a hot-melt adhesive powder comprising (i) non-cross-linking thermoplastic filling bodies and (ii) at least one duroplastically cross-linking component, characterised in that the moulded part has a monomer scavenger and/or the adduct of a monomer scavenger and a monomer, wherein the monomer scavenger or the adduct thereof with the monomer are contained in the hot-melt adhesive powder in the form of powder, wherein the reactive molecules of the monomer scavenger are applied to a solid inert substrate material, and the monomer scavenger and/or the adduct of the monomer scavenger and the monomer is located between the non-woven fabric layer and the core.
A wireless communication system comprising: a mobile station; and base stations including a source base station and a target base station, the mobile station configured to communicate with the base station by use of one or more component carriers, while the mobile station in connected mode prepares for a handoff from the source base station to the target base station, the source base station configured to send, to the mobile station, a configuration for performing measurements with respect to downlink component carriers of the target base station, the mobile station configured to receive the configuration from the source base station, to perform the measurement with respect to the downlink component carriers of the target base station based on the configuration, and to send results of the measurements to the source base station, the source base station configured to receive the result of the measurements from the mobile station, and the target base station configured to receive the result of the measurements with respect to the downlink component carriers based on the configuration from the source base station, to determine, which component carrier is available to the mobile station after the handoff, and to send, to the source base station, information with respect to the determined component carrier. a mobile station; and base stations including a source base station and a target base station, the mobile station configured to communicate with the base station by use of one or more component carriers, while the mobile station in connected mode prepares for a handoff from the source base station to the target base station, the source base station configured to send, to the mobile station, a configuration for performing measurements with respect to downlink component carriers of the target base station, the mobile station configured to receive the configuration from the source base station, to perform the measurement with respect to the downlink component carriers of the target base station based on the configuration, and to send results of the measurements to the source base station, the source base station configured to receive the result of the measurements from the mobile station, and the target base station configured to receive the result of the measurements with respect to the downlink component carriers based on the configuration from the source base station, to determine, which component carrier is available to the mobile station after the handoff, and to send, to the source base station, information with respect to the determined component carrier.
An endoscope comprising: an inserted portion that is adapted to be inserted into the body of a patient; securing means for securing the inserted portion to tissue inside the body, the securing means being provided at least at a distal-end portion of the inserted portion; an observation optical system that is provided at the inserted portion and that is adapted to acquire an image of the tissue or adjacent tissue adjacent to the tissue; and observation-distance adjusting means for adjusting the distance between the observation optical system and a surface of the tissue or a surface of the adjacent tissue, wherein the observation optical system is provided at a different position from a position where the securing means is provided along a lengthwise direction, wherein the observation-distance adjusting means is provided at a different position from the position where the securing means is provided along the lengthwise direction, and characterized in that the securing means includes an attachment unit (7, 8) that is adapted to attach to the tissue by using a negative pressure, and the attachment unit (7, 8) has an attachment surface having a plurality of suction holes for attachment to the tissue and is configured such that the angle of the attachment surface relative to the inserted portion is changeable, wherein the negative pressure is independently provided to the plurality of suction holes, so that the suction holes can be attached to the tissue individually. an inserted portion that is adapted to be inserted into the body of a patient; securing means for securing the inserted portion to tissue inside the body, the securing means being provided at least at a distal-end portion of the inserted portion; an observation optical system that is provided at the inserted portion and that is adapted to acquire an image of the tissue or adjacent tissue adjacent to the tissue; and observation-distance adjusting means for adjusting the distance between the observation optical system and a surface of the tissue or a surface of the adjacent tissue, wherein the observation optical system is provided at a different position from a position where the securing means is provided along a lengthwise direction, wherein the observation-distance adjusting means is provided at a different position from the position where the securing means is provided along the lengthwise direction, and characterized in that the securing means includes an attachment unit (7, 8) that is adapted to attach to the tissue by using a negative pressure, and the attachment unit (7, 8) has an attachment surface having a plurality of suction holes for attachment to the tissue and is configured such that the angle of the attachment surface relative to the inserted portion is changeable, wherein the negative pressure is independently provided to the plurality of suction holes, so that the suction holes can be attached to the tissue individually.
A saddle (1, 50) for an animal, the saddle comprising a main support for mounting on and securing to the back of an animal, and a seat for supporting a rider on the animal, the seat being resiliently coupled to the main support for absorbing shocks between the main support and the seat, the main support comprising a main central member formed by a pair of side support panels for engaging the back of the animal adjacent the spine on respective opposite sides thereof, wherein the seat is resiliently coupled to the side support panels by a pair of resilient mounting members extending downwardly from the seat to the side support panels adjacent the front of the seat, so that the side support panels are resiliently coupled to each other by the mounting members through the seat, for facilitating movement of the side support panels relative to each other, for in turn accommodating movement of the back of the animal, characterised in that the mounting members and the side support panels are spaced apart, in that the seat, the side support panels and the mounting members are integrally formed from a single resilient piece of layered material, and in that the side support panels diverge outwardly downwardly for accommodating the contour of the animal's back.
A method of depositing stabilized lithium metal powder onto a substrate, said substrate being an electrode or a current collector, said method comprising: a) depositing stabilized lithium metal powder as a foil onto a carrier to a thickness of 20 microns or less to form a single layer; b) contacting the carrier with a substrate having a higher affinity for the lithium metal powder of the foil as compared to the affinity of the carrier for the lithium metal powder of the foil; c) subjecting the substrate while in contact with the carrier to conditions sufficient to transfer the lithium metal powder foil deposited on the carrier to the substrate without the use of a solvent, wherein said conditions comprise pressing the carrier and substrate together; and d) separating the carrier and substrate so as to maintain the lithium metal powder foil deposited on the substrate. a) depositing stabilized lithium metal powder as a foil onto a carrier to a thickness of 20 microns or less to form a single layer; b) contacting the carrier with a substrate having a higher affinity for the lithium metal powder of the foil as compared to the affinity of the carrier for the lithium metal powder of the foil; c) subjecting the substrate while in contact with the carrier to conditions sufficient to transfer the lithium metal powder foil deposited on the carrier to the substrate without the use of a solvent, wherein said conditions comprise pressing the carrier and substrate together; and d) separating the carrier and substrate so as to maintain the lithium metal powder foil deposited on the substrate.
Method for acquiring projection data of a sensor device for monitoring and/or controlling track-bound traffic, wherein - projection data relating to the sensor device is determined, - the determined projection data is stamped onto the sensor device in the form of an information pattern, - the stamped information pattern is transferred from the sensor device to a processing device and - the projection data is acquired by the processing device on the basis of the transferred information pattern. - projection data relating to the sensor device is determined, - the determined projection data is stamped onto the sensor device in the form of an information pattern, - the stamped information pattern is transferred from the sensor device to a processing device and - the projection data is acquired by the processing device on the basis of the transferred information pattern.
A cable-type secondary battery which comprises: at least one inner electrode formed to have a closely packed structure without any cavity; a separation layer formed to surround the outer surface of the inner electrode and configured to prevent a short of the electrodes; and a sheet-type outer electrode (30; 30') surrounding the separation layer and formed by spiral winding, or at least one inner electrode formed to have a closely packed structure without any cavity; and a sheet-type outer electrode (30; 30') integrated with the separation layer, surrounding the inner electrode to prevent a short of the electrodes, and formed by spiral winding, wherein the outer electrode (30; 30') includes an outer current collector, an outer electrode active material layer formed on one surface of the outer current collector, and a first support layer formed on the other surface of the outer current collector, and the sheet-type outer electrode (30; 30') is formed by spiral winding to avoid an overlap, characterized in that a polymer electrolyte coating layer is formed to surround the sheet-type outer electrode (30; 30').
A method for providing encrypted information by an information entity - IE - having a database for storing information to one or more operating entities - OE - (TA1, TA2,..., SJ1, SJ2,...) for operating on said stored encrypted information, wherein the information in the database is stored encrypted with an encryption key, wherein the encryption key is known to said OEs (TA1, TA2,..., SJ1, SJ2,...), and wherein a request by an OE (TA1, TA2,..., SJ1, SJ2,...) is performed on the encrypted information, wherein the plaintext information to be stored encrypted is provided in tuples (R1, R2,...), each having id information, one or more fields with field information specifying the fields and values, wherein at least said values are encrypted with non-deterministic order preserving encryption - ND-OPE - with at least one encryption key, such that each plaintext value is encrypted into a set of encrypted values - SEV -, wherein said SEV is partitioned into a left set - LS - and a right set - RS -, wherein each element (L) in the LS is smaller than each element (R) in the RS, and wherein each of said elements (L, R) upon decryption results in the corresponding plaintext value,and wherein each value is stored encrypted by using at least one of LS or RS, the information stored in the database comprise configuring information for other devices (SW1, SW2,..., O1, O2,...) connected to and configurable by the OE (TA1, TA2,..., SJ1, SJ2,...) and/or the IE, wherein upon performing operations on the encrypted data a result is generated and based on this result a configuration allowance token is generated for the OE to allow configuration of one or more of said other devices (SW1, SW2,..., O1, O2,...) or the IE itself performs said configuration on said other devices (SW1, SW2,..., 01, 02,...).
A hydrophilic dehydrated partially purified bone replacement material of natural origin, wherein substantially all non-collagenous organic material is removed while inorganic, porous osseous structure and collagenous structure of natural bone are substantially preserved, characterized in that the bone replacement material contains 0.05 to 1.5 w/w % of at least one of a saccharide or a sugar alcohol, and 0.7 to 5.6 w/w % of a phosphate group selected from the group consisting of phosphate HPO 4 2- and H 2 PO 4 -, this phosphate group being part of a physiologically acceptable salt which is sodium phosphate buffer.
A method for fault detection, comprising: creating a Bidirectional Forwarding Detection session on a service function path established between a first service function instance in a management domain of a local-end service function node and a second service function instance in a management domain of an opposite-end service function node; and performing connectivity fault detection by interaction of a BFD control packet between the local-end service function node and the opposite-end service function node; characterized in that performing connectivity fault detection by the interaction of the BFD control packet comprises: receiving the BFD control packet from the opposite-end service function node within a preset time period specified by a timer, wherein the BFD control packet carries an identification number of the first service function instance; and keeping the BFD session in an open state and resetting the timer in the case of determining that the first service function instance corresponding to the identification number in the management domain of the local-end service function node is in an active state. creating a Bidirectional Forwarding Detection session on a service function path established between a first service function instance in a management domain of a local-end service function node and a second service function instance in a management domain of an opposite-end service function node; and performing connectivity fault detection by interaction of a BFD control packet between the local-end service function node and the opposite-end service function node; characterized in that performing connectivity fault detection by the interaction of the BFD control packet comprises: receiving the BFD control packet from the opposite-end service function node within a preset time period specified by a timer, wherein the BFD control packet carries an identification number of the first service function instance; and keeping the BFD session in an open state and resetting the timer in the case of determining that the first service function instance corresponding to the identification number in the management domain of the local-end service function node is in an active state.
A method implemented by a server, comprising: determining a first configuration setting for a computing device accessible via a network that communicatively couples the server and the computing device; transmitting, via the network, the first configuration setting to the computing device; maintaining a reference to the first configuration setting on the server; receiving, via the network, an acknowledgment from the computing device that the first configuration setting has been implemented thereby; designating the computing device as being in compliance with a compliance rule responsive to receiving the acknowledgment; determining that the compliance rule has been changed; determining, based on the reference to the first configuration setting and the changed compliance rule, that the computing device does not remain in compliance; and responsive to determining that the computing device does not remain in compliance: designating the computing device as not in compliance with the changed compliance rule; and transmitting, via the network, a second configuration setting to the computing device that, when implemented by the computing devices, causes the computing device to be in compliance with the changed compliance rule. determining a first configuration setting for a computing device accessible via a network that communicatively couples the server and the computing device; transmitting, via the network, the first configuration setting to the computing device; maintaining a reference to the first configuration setting on the server; receiving, via the network, an acknowledgment from the computing device that the first configuration setting has been implemented thereby; designating the computing device as being in compliance with a compliance rule responsive to receiving the acknowledgment; determining that the compliance rule has been changed; determining, based on the reference to the first configuration setting and the changed compliance rule, that the computing device does not remain in compliance; and responsive to determining that the computing device does not remain in compliance: designating the computing device as not in compliance with the changed compliance rule; and transmitting, via the network, a second configuration setting to the computing device that, when implemented by the computing devices, causes the computing device to be in compliance with the changed compliance rule. designating the computing device as not in compliance with the changed compliance rule; and transmitting, via the network, a second configuration setting to the computing device that, when implemented by the computing devices, causes the computing device to be in compliance with the changed compliance rule.