mhurhangee/ep-ind-claims huggingface dataset:
A wireless transmit/receive unit, WTRU, comprising: a processor; and a transceiver, wherein the processor and transceiver are configured to monitor a first control channel search space using at least one beam of a first set of beams, wherein the processor and the transceiver are further configured to evaluate a radio link quality of a second set of beams, on a condition that a radio link quality of one or more beams of the first set of beams is below a first threshold, wherein the processor and the transceiver are further configured to identify at least one beam of the second set of beams that has the radio link quality above a second threshold, and wherein the processor and the transceiver are further configured to monitor a second control channel search space using the at least one beam of the second set of beams. a processor; and a transceiver, wherein the processor and transceiver are configured to monitor a first control channel search space using at least one beam of a first set of beams, wherein the processor and the transceiver are further configured to evaluate a radio link quality of a second set of beams, on a condition that a radio link quality of one or more beams of the first set of beams is below a first threshold, wherein the processor and the transceiver are further configured to identify at least one beam of the second set of beams that has the radio link quality above a second threshold, and wherein the processor and the transceiver are further configured to monitor a second control channel search space using the at least one beam of the second set of beams.
A lawn care vehicle comprising: a frame to which at least a first drive wheel (14A, 14B) and a second drive wheel (14A, 14B) of the lawn care vehicle are operably coupled; a cutting deck operably coupled to the frame and comprising a cutting blade; a conveyor operably coupled to the cutting deck and configured to convey yard clippings from the cutting deck to a yard waste collection assembly, the conveyor comprising an auger; characterized in that the lawn care vehicle further comprises: a clog cleaning assembly operably coupled to an outside of a housing of the cutting deck and configured to pivot from a neutral position through an opening in the housing of the cutting deck to an activated position to dislodge a clog disposed proximate or at the cutting blade or the auger, wherein the clog cleaning assembly comprises a cleaning member, wherein the cleaning member comprises a first portion and a second portion, wherein the first portion is operably coupled to the outside of the housing of the cutting deck, and the second portion is configured to dislodge the clog disposed proximate or at the cutting blade or the auger. a frame to which at least a first drive wheel (14A, 14B) and a second drive wheel (14A, 14B) of the lawn care vehicle are operably coupled; a cutting deck operably coupled to the frame and comprising a cutting blade; a conveyor operably coupled to the cutting deck and configured to convey yard clippings from the cutting deck to a yard waste collection assembly, the conveyor comprising an auger; characterized in that the lawn care vehicle further comprises: a clog cleaning assembly operably coupled to an outside of a housing of the cutting deck and configured to pivot from a neutral position through an opening in the housing of the cutting deck to an activated position to dislodge a clog disposed proximate or at the cutting blade or the auger, wherein the clog cleaning assembly comprises a cleaning member, wherein the cleaning member comprises a first portion and a second portion, wherein the first portion is operably coupled to the outside of the housing of the cutting deck, and the second portion is configured to dislodge the clog disposed proximate or at the cutting blade or the auger.
A method for a user equipment, UE, (115, 116) configured to communicate with a plurality of base stations (102,103) in a wireless network, the method comprising: receiving downlink control information, DCI, scheduling a physical downlink shared channel, PDSCH, for the UE; and receiving UE-specific demodulation reference signals, UE-RS, provided for demodulation of the PDSCH, wherein the UE-RS are generated using a pseudo random sequence initialized with an initialization value, said pseudo random sequence being used to scramble said UE-RS; said method being characterized in that: the DCI comprises a one-bit scrambling identifier, SCID, information field configured to indicate a pair of values comprising a scrambling identifier and a virtual cell ID, and the initialization value is determined based on the scrambling identifier. receiving downlink control information, DCI, scheduling a physical downlink shared channel, PDSCH, for the UE; and receiving UE-specific demodulation reference signals, UE-RS, provided for demodulation of the PDSCH, wherein the UE-RS are generated using a pseudo random sequence initialized with an initialization value, said pseudo random sequence being used to scramble said UE-RS; the DCI comprises a one-bit scrambling identifier, SCID, information field configured to indicate a pair of values comprising a scrambling identifier and a virtual cell ID, and the initialization value is determined based on the scrambling identifier.
A milling apparatus for cutting desired contours into a workpiece, the apparatus comprising: a head configured to be carried by a milling machine that is configured to move at least one of the head and a workpiece to be machined such that relative motion is imparted between the head and the workpiece in a direction of cut; first and second spindles supported on the head for rotation about parallel spaced-apart spindle z axes and comprising respective rotary cutters adapted for use in machining operations; and a first spindle z axis actuator operably connected to the first spindle and configured to adjust the axial position of the first spindle, characterised in that a rotary head positioner is operatively connected between the head and the milling machine to rotate the head about a head axis to enable a spindle stagger angle to be achieved; and in that the apparatus is configured such that an angle of at least one of the spindles relative to the head axis can be adjusted a) laterally relative to the cut direction and/or b) toward the rear relative to the cut direction. a head configured to be carried by a milling machine that is configured to move at least one of the head and a workpiece to be machined such that relative motion is imparted between the head and the workpiece in a direction of cut; first and second spindles supported on the head for rotation about parallel spaced-apart spindle z axes and comprising respective rotary cutters adapted for use in machining operations; and a first spindle z axis actuator operably connected to the first spindle and configured to adjust the axial position of the first spindle, characterised in that a rotary head positioner is operatively connected between the head and the milling machine to rotate the head about a head axis to enable a spindle stagger angle to be achieved; and in that the apparatus is configured such that an angle of at least one of the spindles relative to the head axis can be adjusted a) laterally relative to the cut direction and/or b) toward the rear relative to the cut direction.
Application server (AS_DETECT) capable of detecting a connection loss between an interconnection gateway and at least one application service accessible by said gateway via an S-CSCF server of an IMS network, the interconnection gateway connecting a local area network to the IMS network, the application server comprising: - means for receiving, from the S-CSCF server, a registration validation message (200 OK) indicating the registration of the interconnection gateway with the IMS network; - means for determining, from the validation registration message received, a predefined period (EXPIRES) within which the interconnection gateway has to renew its registration with the IMS network; - detection means for determining whether a request for registration of the interconnection gateway, with the IMS network, is received from the S-CSCF server within the predetermined period and for detecting a connection loss between the gateway and said at least one application service if no said request for registration is received from the S-CSCF server within the predefined period (EXPIRES) or whether a message for suspending registration of the interconnection gateway, with the IMS network, is received from said S-CSCF server within the predefined period, said connection loss signifying that the interconnection gateway is unable to access the application service; and - means (2, 20...32) for triggering, in response to the detection of said connection loss, at least one first predetermined action. - means for receiving, from the S-CSCF server, a registration validation message (200 OK) indicating the registration of the interconnection gateway with the IMS network; - means for determining, from the validation registration message received, a predefined period (EXPIRES) within which the interconnection gateway has to renew its registration with the IMS network; - detection means for determining whether a request for registration of the interconnection gateway, with the IMS network, is received from the S-CSCF server within the predetermined period and for detecting a connection loss between the gateway and said at least one application service if no said request for registration is received from the S-CSCF server within the predefined period (EXPIRES) or whether a message for suspending registration of the interconnection gateway, with the IMS network, is received from said S-CSCF server within the predefined period, said connection loss signifying that the interconnection gateway is unable to access the application service; and - means (2, 20...32) for triggering, in response to the detection of said connection loss, at least one first predetermined action.
A chemical, biological, radiological, nuclear and high-yield explosives, CBRNE, system, comprising: a computing device; a base station node communicatively coupled with the computing device; a sensor node communicatively coupled with the base station node via a wireless network; and a CBRNE sensor configured to detect chemical, biological, radiological and/or explosive substances, wherein the CBRNE sensor is communicatively coupled with the sensor node, wherein the computing device is configured to transmit a sensor driver to the base station node and the base station node is configured to transmit the sensor driver to the sensor node via the wireless network, the sensor node being configured to dynamically load the sensor driver, the sensor node being configured to execute the sensor driver to establish communication between the computing device and the CBRNE sensor, wherein the sensor driver is configured for operating, querying and/or controlling the CBRNE sensor; wherein the CBRNE sensor is configured to collect and transmit CBRNE sensor data to the computing device; and wherein the computing device is configured to record, interpret and display the CBRNE sensor data. a computing device; a base station node communicatively coupled with the computing device; a sensor node communicatively coupled with the base station node via a wireless network; and a CBRNE sensor configured to detect chemical, biological, radiological and/or explosive substances, wherein the CBRNE sensor is communicatively coupled with the sensor node, wherein the computing device is configured to transmit a sensor driver to the base station node and the base station node is configured to transmit the sensor driver to the sensor node via the wireless network, the sensor node being configured to dynamically load the sensor driver, the sensor node being configured to execute the sensor driver to establish communication between the computing device and the CBRNE sensor, wherein the sensor driver is configured for operating, querying and/or controlling the CBRNE sensor; wherein the CBRNE sensor is configured to collect and transmit CBRNE sensor data to the computing device; and wherein the computing device is configured to record, interpret and display the CBRNE sensor data.
A method for the enzymatic formation of a thioester bond comprising the following step - incubating i) a first polypeptide comprising the amino acid sequence LPXTG (SEQ ID NO: 01, wherein X can be any amino acid residue), ii) a second polypeptide that has at its N-terminus the amino acid sequence CGGG (SEQ ID NO: 02) or CAAA (SEQ ID NO: 03), and iii) a third polypeptide that is a sortase A or a catalytically active fragment thereof, and thereby forming a thioester bond. - incubating i) a first polypeptide comprising the amino acid sequence LPXTG (SEQ ID NO: 01, wherein X can be any amino acid residue), ii) a second polypeptide that has at its N-terminus the amino acid sequence CGGG (SEQ ID NO: 02) or CAAA (SEQ ID NO: 03), and iii) a third polypeptide that is a sortase A or a catalytically active fragment thereof, i) a first polypeptide comprising the amino acid sequence LPXTG (SEQ ID NO: 01, wherein X can be any amino acid residue), ii) a second polypeptide that has at its N-terminus the amino acid sequence CGGG (SEQ ID NO: 02) or CAAA (SEQ ID NO: 03), and iii) a third polypeptide that is a sortase A or a catalytically active fragment thereof,
A method of manufacturing a light-guide apparatus having a plurality of light extraction features comprising the steps of: - printing a transparent textured ink onto a surface of light-guide plate to define the position of each of the plurality of light extraction features; and - curing the transparent textured ink to form light extraction features consisting of the transparent textured ink, wherein the curing of the transparent textured ink causes an exterior surface of each of the light extraction features to become uneven and irregular and comprise at least one randomly sized and shaped micro-lens-like element, wherein light rays passing through the light extraction features that are incident upon the uneven, irregular exterior surface are refracted out of the light-guide apparatus. - printing a transparent textured ink onto a surface of light-guide plate to define the position of each of the plurality of light extraction features; and - curing the transparent textured ink to form light extraction features consisting of the transparent textured ink, wherein the curing of the transparent textured ink causes an exterior surface of each of the light extraction features to become uneven and irregular and comprise at least one randomly sized and shaped micro-lens-like element, wherein light rays passing through the light extraction features that are incident upon the uneven, irregular exterior surface are refracted out of the light-guide apparatus.
Cell culture support with a surface, characterised in that the structure of the surface is a positive or negative derivation of the surface structure of one cell or an association of cells, wherein the structure of the surface is derived by recording the surface structure of the one cell or the association of cells of the specific cell type and reproducing a surface structure that resembles the recorded surface structure onto the cell culture support.
Process for absorption of odour emissions in the production of rubber mixtures with a mixer comprising the steps of: a) extraction of odour emissions, aerosols and dusts with an extractor apparatus, wherein the odour emissions, aerosols and dusts are generated during rubber processing, b) adsorption of the odour emissions with a filtering apparatus arranged in the extractor, wherein the filtering apparatus comprises an adsorbent for odour emissions and/or aerosols and a filtering means for the separation of dusts and the retaining of the adsorbent, wherein the adsorbent removes the odour emissions and/or aerosols from the exhaust air with high efficiency and is employable for mixture production, wherein the filtering apparatus is a single-stage apparatus, wherein the adsorbent is supplied to the extractor apparatus together with the dusts before step b) and the laden adsorbent is separated from the exhaust air with the dusts at the filtering means in the form of a dust separator, wherein the adsorbent and the dusts are blown into the dust separator in a quantity ratio of 100:1 to 1:100, c) discharging of clean, odour-free air from the extractor apparatus with a conveying means, d) discharging the laden adsorbent and the separated dusts from the extractor apparatus. a) extraction of odour emissions, aerosols and dusts with an extractor apparatus, wherein the odour emissions, aerosols and dusts are generated during rubber processing, b) adsorption of the odour emissions with a filtering apparatus arranged in the extractor, wherein the filtering apparatus comprises an adsorbent for odour emissions and/or aerosols and a filtering means for the separation of dusts and the retaining of the adsorbent, wherein the adsorbent removes the odour emissions and/or aerosols from the exhaust air with high efficiency and is employable for mixture production, wherein the filtering apparatus is a single-stage apparatus, wherein the adsorbent is supplied to the extractor apparatus together with the dusts before step b) and the laden adsorbent is separated from the exhaust air with the dusts at the filtering means in the form of a dust separator, wherein the adsorbent and the dusts are blown into the dust separator in a quantity ratio of 100:1 to 1:100, c) discharging of clean, odour-free air from the extractor apparatus with a conveying means, d) discharging the laden adsorbent and the separated dusts from the extractor apparatus.
A method of treating a hard tissue medical implant having a porous metal surface, the method comprising: delivering a polymer and a therapeutically active agent to the porous surface; and delivering at least one particle stream from at least one fluid jet to the hard tissue implant, wherein the particle stream removes at least 90% of the polymer from the outer surface of the hard tissue implant, such that the hard tissue medical implant comprises the polymer and therapeutic agent impregnated within the pores of the hard tissue implant. delivering a polymer and a therapeutically active agent to the porous surface; and delivering at least one particle stream from at least one fluid jet to the hard tissue implant, wherein the particle stream removes at least 90% of the polymer from the outer surface of the hard tissue implant, such that the hard tissue medical implant comprises the polymer and therapeutic agent impregnated within the pores of the hard tissue implant.
A method for supporting transaction processing in a transactional system comprising transaction groups including transactional application servers and transaction managers that participate in managing the processing of a global transaction on the transactional application servers, the transactional application servers in a same group sharing one transaction branch, and resource manager instances (1604, 1605) that connect to a database, the method comprising: propagating, via a participant transaction manager of a first transaction group that forms a coordinator transaction manager, a common transaction identifier and information for a resource manager instance to one or more other participant transaction managers; allowing one or more of said other participant transaction managers that share the resource manager instance with the coordinator transaction manager, to use the common transaction identifier; and processing the global transaction, via the coordinator transaction manager and the shared resource manager instance using the transaction branch of the coordinator transaction manager and ignoring the branch of said other participant transaction managers that share the resource manager instance with the coordinator transaction manager. propagating, via a participant transaction manager of a first transaction group that forms a coordinator transaction manager, a common transaction identifier and information for a resource manager instance to one or more other participant transaction managers; allowing one or more of said other participant transaction managers that share the resource manager instance with the coordinator transaction manager, to use the common transaction identifier; and processing the global transaction, via the coordinator transaction manager and the shared resource manager instance using the transaction branch of the coordinator transaction manager and ignoring the branch of said other participant transaction managers that share the resource manager instance with the coordinator transaction manager.
A solenoid comprising first and second coils (2, 4) connected to an electrical power supply circuit, wherein in a first mode of operation the power supply circuit is arranged to provide a current flowing in opposite directions through the respective first and second coils and in a second mode of operation the power supply circuit is arranged to provide a current flowing in the same direction through the respective first and second coils; characterised in that: the first and second coils (2, 4) are both connected to the electrical power supply circuit by a shared pair of electrical connections; the electrical power supply circuit comprises a single bi-directional current driver connected to both of the first and second coils; and the power supply circuit includes a bridge rectifier or full wave rectifier connected to the bi-directional current driver. the first and second coils (2, 4) are both connected to the electrical power supply circuit by a shared pair of electrical connections; the electrical power supply circuit comprises a single bi-directional current driver connected to both of the first and second coils; and the power supply circuit includes a bridge rectifier or full wave rectifier connected to the bi-directional current driver.
A method for laser welding a workpiece (1, 1b), wherein an I-seam (8, 8b) at the corner joint (2a, 2b) of two workpiece parts (3a, 3b, 3a, 3b) of the workpiece (1, 1b), which consist substantially of aluminium, is welded with a welding laser beam, whereby an aluminium connection is produced between the workpiece parts (3a, 3b, 3a, 3b), characterised in that to generate the welding laser beam, an output laser beam is fed into a first end of a multi-clad fibre, in particular a 2-in-1 fibre, wherein the multi-clad fibre has at least one core fibre and a ring fibre surrounding it, wherein a first part LK of the laser power of the output laser beam is fed into the core fibre and a second part LR of the laser power of the output laser beam is fed into the ring fibre, wherein a second end of the multi-clad fibre is projected onto the workpiece (1, 1b), and wherein the laser welding of the workpiece (1, 1b) is carried out by deep penetration welding. wherein an I-seam (8, 8b) at the corner joint (2a, 2b) of two workpiece parts (3a, 3b, 3a, 3b) of the workpiece (1, 1b), which consist substantially of aluminium, is welded with a welding laser beam, whereby an aluminium connection is produced between the workpiece parts (3a, 3b, 3a, 3b), characterised in that to generate the welding laser beam, an output laser beam is fed into a first end of a multi-clad fibre, in particular a 2-in-1 fibre, wherein the multi-clad fibre has at least one core fibre and a ring fibre surrounding it, wherein a first part LK of the laser power of the output laser beam is fed into the core fibre and a second part LR of the laser power of the output laser beam is fed into the ring fibre, wherein a second end of the multi-clad fibre is projected onto the workpiece (1, 1b), and wherein the laser welding of the workpiece (1, 1b) is carried out by deep penetration welding.