mhurhangee/ep-ind-claims huggingface dataset:
A method in a base station, eNB, serving a cell for maintaining synchronization in a cellular network between a plurality of user equipment, UE, in the cell and the eNB, comprising: tracking the plurality of UE as a scheduled group and an unscheduled group, wherein a UE is included in the scheduled group in response to receiving a scheduling request from the UE; maintaining synchronization of each UE in the scheduled group with the eNB by sending a timing adjustment, TA, command if needed in response to receiving a scheduled transmission from each respective UE in the scheduled group; and maintaining synchronization of each UE in the unscheduled group with the eNB by allocating a periodic reference signal, sync-RS, to each UE in the unscheduled group and by sending a respective TA command if needed in response to a respective sync-RS received from each UE in the unscheduled group, wherein each sync-RS is allocated every n sub-frames in a symbol slot neither used by a demodulation reference signal, DMRS, nor by data transmission. tracking the plurality of UE as a scheduled group and an unscheduled group, wherein a UE is included in the scheduled group in response to receiving a scheduling request from the UE; maintaining synchronization of each UE in the scheduled group with the eNB by sending a timing adjustment, TA, command if needed in response to receiving a scheduled transmission from each respective UE in the scheduled group; and maintaining synchronization of each UE in the unscheduled group with the eNB by allocating a periodic reference signal, sync-RS, to each UE in the unscheduled group and by sending a respective TA command if needed in response to a respective sync-RS received from each UE in the unscheduled group, wherein
A method of forming a component having an internal passage defined therein, said method comprising: positioning a jacketed core with respect to a mold, wherein the jacketed core includes: a hollow structure; an inner core disposed within the hollow structure; and a first coating layer disposed between the hollow structure and the inner core, the first coating layer formed from a first coating material; introducing a component material in a molten state into a cavity of the mold; and cooling the component material in the cavity to form the component, wherein the inner core is formed from an inner core material and positioned to define the internal passage within the component, and at least a portion of the first coating material lines at least a portion of the internal passage, characterized in that it further comprises forming the jacketed core by: forming the hollow structure incrementally or from a substantially straight metal tube that is suitably manipulated into a nonlinear shape, applying the first coating layer to an interior portion of the hollow structure; and filling the coated hollow structure with the inner core material. positioning a jacketed core with respect to a mold, wherein the jacketed core includes: a hollow structure; an inner core disposed within the hollow structure; and a first coating layer disposed between the hollow structure and the inner core, the first coating layer formed from a first coating material; a hollow structure; an inner core disposed within the hollow structure; and a first coating layer disposed between the hollow structure and the inner core, the first coating layer formed from a first coating material; introducing a component material in a molten state into a cavity of the mold; and cooling the component material in the cavity to form the component, wherein the inner core is formed from an inner core material and positioned to define the internal passage within the component, and at least a portion of the first coating material lines at least a portion of the internal passage, characterized in that it further comprises forming the jacketed core by: forming the hollow structure incrementally or from a substantially straight metal tube that is suitably manipulated into a nonlinear shape, applying the first coating layer to an interior portion of the hollow structure; and filling the coated hollow structure with the inner core material.
Device for expanding steam, whereby this device comprises an expander with a rotor for converting steam energy into mechanical energy on the shaft of the rotor, whereby this expander comprises an inlet that is connected to an inlet pipe for steam and an outlet that is connected to an outlet pipe for steam, whereby the inlet pipe is provided with an inlet valve and the outlet pipe is provided with an outlet valve for isolating the space between the inlet valve and the outlet valve, that contains the expander, by closing these valves (7, 8) when the expander is not operating, wherein the device is further provided with a steam supply adapted to provide steam to the aforementioned space between the inlet valve and the outlet valve when the expander is not operating, in such a way that no air can penetrate into the aforementioned space and, characterised in that the steam supply is formed by a steam supply pipe configured to tap off steam from the inlet pipe upstream from the inlet valve and/or the outlet pipe downstream from the outlet valve.
A synchronization signal processing method, comprising: Acquiring (301, 601) multiple to-be-processed signals of a power supply, wherein the to-be-processed signals are signals changing periodically; acquiring (302, 603) points with a same quantity of the signal in each period of the to-be-processed signals, wherein the quantity is a time or a phase; generating a synchronization signal that has the same period as the to-be-processed signals by generating (303, 604) pulses at each of the acquired points, wherein all of the generated pulses are used as the synchronization signal and wherein the widths of the pulses generated at points with a same quantity of the signal are the same and the widths of the pulses generated at points with a different quantity of the signal are different, and wherein at least two pulses are comprised in each period of the synchronization signal; detecting (304, 605) whether the synchronization signal is normal by acquiring a time interval between rising edges or falling edges of two pulses in the synchronization signal and determining whether each time interval is within a preset range; and if the synchronization signal is normal, performing (305, 606) time alignment on the rising edges or falling edges of the pulses in the synchronization signal, so as to synchronize the to-be-processed signals. Acquiring (301, 601) multiple to-be-processed signals of a power supply, wherein the to-be-processed signals are signals changing periodically; acquiring (302, 603) points with a same quantity of the signal in each period of the to-be-processed signals, wherein the quantity is a time or a phase; generating a synchronization signal that has the same period as the to-be-processed signals by generating (303, 604) pulses at each of the acquired points, wherein all of the generated pulses are used as the synchronization signal and wherein the widths of the pulses generated at points with a same quantity of the signal are the same and the widths of the pulses generated at points with a different quantity of the signal are different, and wherein at least two pulses are comprised in each period of the synchronization signal; detecting (304, 605) whether the synchronization signal is normal by acquiring a time interval between rising edges or falling edges of two pulses in the synchronization signal and determining whether each time interval is within a preset range; and if the synchronization signal is normal, performing (305, 606) time alignment on the rising edges or falling edges of the pulses in the synchronization signal, so as to synchronize the to-be-processed signals.
An automated beverage dispenser using a number of cups and a number of lids, comprising: a lid stack with the number of lids; and a lidding mechanism; characterised in that: the lidding mechanism comprises a base with a plurality of lid attachment members; and the automated beverage dispenser further comprises a positioning device for maneuvering the lidding mechanism so as to remove one of the number of lids by the plurality of lid attachment members from the lid stack and to snap the lid on to one of the number of cups by the base. a lid stack with the number of lids; and a lidding mechanism; the lidding mechanism comprises a base with a plurality of lid attachment members; and the automated beverage dispenser further comprises a positioning device for maneuvering the lidding mechanism so as to remove one of the number of lids by the plurality of lid attachment members from the lid stack and to snap the lid on to one of the number of cups by the base.
An apparatus for the treatment of air, wherein air having a first concentration of carbon monoxide enters the apparatus and breathable air having a second concentration of carbon monoxide exits the apparatus, said first concentration being higher than said second concentration, the apparatus comprising a gas treatment means, comprising: i) a catalyst for the oxidation of carbon monoxide comprising palladium and iron oxide and ii) a source of a volatile nitrogen-containing compound, the source of volatile nitrogen-containing compound comprising an absorbent material impregnated with an amine or ammonia. i) a catalyst for the oxidation of carbon monoxide comprising palladium and iron oxide and ii) a source of a volatile nitrogen-containing compound, the source of volatile nitrogen-containing compound comprising an absorbent material impregnated with an amine or ammonia.
A computing device comprising: a processor; a network connection; and memory; the computing device configured, via computer-executable instructions, to perform operations for managing synchronized jitter buffers for a given type of streaming data, the operations comprising: upon receiving, via the network connection, a network packet comprising streaming data: placing the received streaming data in a first jitter buffer when the received streaming data is associated with a first codec; and placing the received streaming data in a second jitter buffer when the received streaming data is associated with a second codec; and at each instance where data is read: obtaining an amount of data from the first jitter buffer; and obtaining the same amount of data from the second jitter buffer; wherein the first jitter buffer and the second jitter buffer both use a playout timestamp that is synchronized across the first jitter buffer and the second jitter buffer. a processor; a network connection; and memory; the computing device configured, via computer-executable instructions, to perform operations for managing synchronized jitter buffers for a given type of streaming data, the operations comprising: upon receiving, via the network connection, a network packet comprising streaming data: placing the received streaming data in a first jitter buffer when the received streaming data is associated with a first codec; and placing the received streaming data in a second jitter buffer when the received streaming data is associated with a second codec; and at each instance where data is read: obtaining an amount of data from the first jitter buffer; and obtaining the same amount of data from the second jitter buffer; wherein the first jitter buffer and the second jitter buffer both use a playout timestamp that is synchronized across the first jitter buffer and the second jitter buffer. upon receiving, via the network connection, a network packet comprising streaming data: placing the received streaming data in a first jitter buffer when the received streaming data is associated with a first codec; and placing the received streaming data in a second jitter buffer when the received streaming data is associated with a second codec; and placing the received streaming data in a first jitter buffer when the received streaming data is associated with a first codec; and placing the received streaming data in a second jitter buffer when the received streaming data is associated with a second codec; and at each instance where data is read: obtaining an amount of data from the first jitter buffer; and obtaining the same amount of data from the second jitter buffer; obtaining an amount of data from the first jitter buffer; and obtaining the same amount of data from the second jitter buffer; wherein the first jitter buffer and the second jitter buffer both use a playout timestamp that is synchronized across the first jitter buffer and the second jitter buffer.
A rotary milking parlour, wherein the rotary milking parlour comprises a annular rotary platform, a plurality of milking stalls (3a, 3b) arranged on the platform, and a washing device and a blocking system (11, 15a, 47); the rotary milking parlour being characterised in that it comprises a first milk line system conducting milk from a first group of milking stalls on the platform and a second milk line system conducting milk from a second group of milking stalls on the platform, the first milk line system and the second milk line system being separate milk line systems; and that the washing device is arranged to perform a washing process of one of said milk line systems at a time; and that the blocking system (11, 15a, 47) is arranged to prevent animals from entering the group of milking stalls (3a, 3b) in which the milk line system is currently being washed and allow animals to enter and be milked in the group of milking stalls (3a, 3b) in which the milk line system is not currently being washed.
An amplifier circuit comprising: first and second nodes (N1,N2) configured to receive input of differential signals; third and fourth nodes (N3,N4); a plurality of first inductors configured to be connected in series between the first and second nodes; a plurality of second inductors configured to be connected in series between the third and fourth nodes; a plurality of field effect transistors configured to have gates each configured to be connected between the plurality of first inductors, sources each configured to be connected to a reference potential node, and drains each configured to be connected between the plurality of second inductors; and balanced type dipole antennas configured to synthesize the signals at the third and fourth nodes in space and output a radio signal. first and second nodes (N1,N2) configured to receive input of differential signals; third and fourth nodes (N3,N4); a plurality of first inductors configured to be connected in series between the first and second nodes; a plurality of second inductors configured to be connected in series between the third and fourth nodes; a plurality of field effect transistors configured to have gates each configured to be connected between the plurality of first inductors, sources each configured to be connected to a reference potential node, and drains each configured to be connected between the plurality of second inductors; and balanced type dipole antennas configured to synthesize the signals at the third and fourth nodes in space and output a radio signal.
A vascular-hyperpermeability-inhibiting amount of a compound selected from danazol and pharmaceutically acceptable salts of danazol, for use in treating a disease or condition mediated by vascular hyperpermeability in an animal in need thereof, wherein the disease or condition is diabetes, wherein the vascular-hyperpermeability-inhibiting amount is from 1 mg to 100 mg of the danazol compound per day, wherein the danazol compound is administered orally, and wherein the animal is an adult human.
Apparatus to feed bars comprising a support plane suitable to support said bars; a removal unit configured to remove at least one bar (B, B') from said support plane; a drawing unit configured to draw said bar (B,B') in a direction of feed located distanced from said support plane; a work unit to work said bar (B, B') located downstream of said drawing unit and a feed unit, wherein said removal unit comprises at least one gripper selectively movable at least in a first direction incident to the support plane in order to lift said bar (B, B') from said support plane and put it aligned to said direction of feed, and wherein said feed unit is configured to move said bar in said direction of feed and toward said drawing unit, characterized in that said feed unit is interposed between said removal unit and said drawing unit, configured to receive said bar (B, B') from said removal unit and comprising at least an introduction element aligned with said direction of feed and configured to receive the bar (B, B') removed by said removal unit, and to put it in line with said direction of feed, wherein said at least one gripper is also selectively movable in a second direction parallel to said direction of feed to introduce said bar into said introduction element, and in that said removal unit comprises a second gripper adjacent to the gripper and configure to straighten and align said bar (B, B') removed by said gripper.
Method for providing a quality of service on a radio interface of an access network in a WiMAX communication network by means of an application function that wants to provide a QoS-related application to a user of the WiMAX communication network, characterised in that - the desired quality of service is signalled via an authentication, authorisation and accounting infrastructure of the WiMAX communication network, - the application function communicates with an authentication, authorisation and accounting server (Home AAA Server) of a home network (Home NSP) of the user for the purpose of authenticating and authorising the user, and - the desired quality of service for the QoS-related application is transmitted to the authentication, authorisation and accounting server (Home AAA Server) in the context of this communication for authorisation. - the desired quality of service is signalled via an authentication, authorisation and accounting infrastructure of the WiMAX communication network, - the application function communicates with an authentication, authorisation and accounting server (Home AAA Server) of a home network (Home NSP) of the user for the purpose of authenticating and authorising the user, and - the desired quality of service for the QoS-related application is transmitted to the authentication, authorisation and accounting server (Home AAA Server) in the context of this communication for authorisation.
A method performed by a terminal in a communication system, the method comprising: receiving, from a base station, first information for a dormant bandwidth part, BWP, configuration for a secondary cell, SCell, and second information for a resource allocation type; receiving, from the base station, downlink control information, DCI, format 1_1; and identifying the DCI format 1_1 as a secondary cell dormancy indication without a scheduling, in case that a cyclic redundancy check, CRC, of the DCI format 1_1 is scrambled by a cell radio network temporary identifier, C-RNTI, or a modulation and coding scheme, MCS-C-RNTI, and all bits of the frequency domain resource assignment field is a specific value, wherein a physical downlink control channel, PDCCH, on a BWP of the secondary cell is not monitored, in case that the BWP of the secondary cell is the dormant BWP, wherein all bits of the frequency domain resource assignment field in the DCI format 1_1 for the secondary cell dormancy indication are equal to 0, in case that the resource allocation type is configured as type 0 based on the second information, wherein all bits of the frequency domain resource assignment field in the DCI format 1_1 for the secondary cell dormancy indication are equal to 1, in case that the resource allocation type is configured as type 1 based on the second information, and wherein all bits of the frequency domain resource assignment field in the DCI format 1_1 for the secondary cell dormancy indication are equal to 0 or 1, in case that the resource allocation type is configured as dynamic switch based on the second information. receiving, from a base station, first information for a dormant bandwidth part, BWP, configuration for a secondary cell, SCell, and second information for a resource allocation type; receiving, from the base station, downlink control information, DCI, format 1_1; and identifying the DCI format 1_1 as a secondary cell dormancy indication without a scheduling, in case that a cyclic redundancy check, CRC, of the DCI format 1_1 is scrambled by a cell radio network temporary identifier, C-RNTI, or a modulation and coding scheme, MCS-C-RNTI, and all bits of the frequency domain resource assignment field is a specific value, wherein a physical downlink control channel, PDCCH, on a BWP of the secondary cell is not monitored, in case that the BWP of the secondary cell is the dormant BWP, wherein all bits of the frequency domain resource assignment field in the DCI format 1_1 for the secondary cell dormancy indication are equal to 0, in case that the resource allocation type is configured as type 0 based on the second information, wherein all bits of the frequency domain resource assignment field in the DCI format 1_1 for the secondary cell dormancy indication are equal to 1, in case that the resource allocation type is configured as type 1 based on the second information, and wherein all bits of the frequency domain resource assignment field in the DCI format 1_1 for the secondary cell dormancy indication are equal to 0 or 1, in case that the resource allocation type is configured as dynamic switch based on the second information.