mhurhangee/ep-ind-claims huggingface dataset:
A method of wireless power transfer, comprising: transmitting a recurring beacon signal in a beacon mode via an electromagnetic field at a resonant frequency of a transmit antenna (114, 204) to create a coupling-mode region; detecting an increase in power supplied to the electromagnetic field indicative of a reverse link coupling generated by a first receiver (108, 300, 530) in response to the transmitted beacon signal; communicating with the first receiver via a wireless communication channel, the wireless communication channel separate from the electromagnetic field used to transmit the beacon signal; supplying power in a charging mode to the electromagnetic field in response to the detected increase in power supplied to the electromagnetic field and in response to communicating with the first receiver via the wireless communication channel; characterized by determining, during the charging mode, whether two consecutive ping reply messages expected to be received from the first receiver, via the wireless communication channel, were not received; and removing, based at least in part on determining that the two consecutive ping reply messages expected to be received were not received, the first receiver from a list of allocated devices, wherein the allocated devices are receivers, other than the first receiver, that receive power supplied to the electromagnetic field. transmitting a recurring beacon signal in a beacon mode via an electromagnetic field at a resonant frequency of a transmit antenna (114, 204) to create a coupling-mode region; detecting an increase in power supplied to the electromagnetic field indicative of a reverse link coupling generated by a first receiver (108, 300, 530) in response to the transmitted beacon signal; communicating with the first receiver via a wireless communication channel, the wireless communication channel separate from the electromagnetic field used to transmit the beacon signal; supplying power in a charging mode to the electromagnetic field in response to the detected increase in power supplied to the electromagnetic field and in response to communicating with the first receiver via the wireless communication channel; characterized by determining, during the charging mode, whether two consecutive ping reply messages expected to be received from the first receiver, via the wireless communication channel, were not received; and removing, based at least in part on determining that the two consecutive ping reply messages expected to be received were not received, the first receiver from a list of allocated devices, wherein the allocated devices are receivers, other than the first receiver, that receive power supplied to the electromagnetic field.
A recoil damping device for firearms, comprising a casing in which a recoil damping means is inserted; said damping means comprising a fixed part and a movable part, said fixed part being substantially integral with said casing, said movable part being able to slide along a substantially axial direction inside said casing; said damping means being made of a material having an elastic hysteresis; said device being characterized in that said damping means comprises a set of flexible members (61, 62, 63, 64, 71, 72, 73, 74) connecting said fixed part to said movable part; said flexible members being constituted by blades (61, 62, 63, 64, 71, 72, 73, 74) arranged transversely to the direction of movement of said movable part, at least some of said blades (61, 62, 63, 64, 71, 72, 73, 74) having mutually different stiffnesses.
A peptide comprising a striapathic region consisting of alternating hydrophilic and hydrophobic modules, wherein the striapathic region comprises a sequence selected from RP182 (SEQ ID NO: 121), RP185 (SEQ ID NO: 123).
A method of wireless communication performed by a user equipment, UE, comprising: receiving a sounding reference signal, SRS, resource configuration, the SRS resource configuration indicating at least a comb pattern for at least one SRS resource allocated to the UE and a puncturing unit for the comb pattern, wherein the comb pattern is divided into one or more puncturing units, wherein each puncturing unit of the one or more puncturing units comprises one or more time units of the comb pattern, and wherein each of the one or more time units of the comb pattern comprises two or more symbols; and transmitting at least one SRS transmission of the at least one SRS resource outside a first puncturing unit of the one or more puncturing units based on a determination that one or more SRS transmissions of the at least one SRS resource within the first puncturing unit are to be dropped. receiving a sounding reference signal, SRS, resource configuration, the SRS resource configuration indicating at least a comb pattern for at least one SRS resource allocated to the UE and a puncturing unit for the comb pattern, wherein the comb pattern is divided into one or more puncturing units, wherein each puncturing unit of the one or more puncturing units comprises one or more time units of the comb pattern, and wherein each of the one or more time units of the comb pattern comprises two or more symbols; and transmitting at least one SRS transmission of the at least one SRS resource outside a first puncturing unit of the one or more puncturing units based on a determination that one or more SRS transmissions of the at least one SRS resource within the first puncturing unit are to be dropped.
A method for bandwidth allocation in a Frequency Division Multiple Access communication system wherein a bandwidth is divided into a plurality of sub-bands, the method comprising: determining a channel condition in association with a user equipment; determining a portion of maximum uplink transmit power that the UE may transmit at based on the determined channel condition; determining an uplink transmit power level per sub-band for the UE; determining a supportable data rate based on the determined uplink transmit power level per sub-band and assuming that the UE is allocated all available sub-bands; and determining a minimum bandwidth for allocation to the UE based on the supportable data rate, wherein the minimum bandwidth is fewer sub-bands than the sub-bands considered in determining the supportable data rate and wherein determining a minimum bandwidth comprises determining a minimum bandwidth that will support the supportable data rate with less than a determined level of signal degradation. determining a channel condition in association with a user equipment; determining a portion of maximum uplink transmit power that the UE may transmit at based on the determined channel condition; determining an uplink transmit power level per sub-band for the UE; determining a supportable data rate based on the determined uplink transmit power level per sub-band and assuming that the UE is allocated all available sub-bands; and determining a minimum bandwidth for allocation to the UE based on the supportable data rate, wherein the minimum bandwidth is fewer sub-bands than the sub-bands considered in determining the supportable data rate and wherein determining a minimum bandwidth comprises determining a minimum bandwidth that will support the supportable data rate with less than a determined level of signal degradation.
An oligonucleotide for specific identification of C. glabrata comprising a nucleic acid having at least 90% sequence identity to one of SEQ ID NOS: 1 to 5 or a complement thereof, which oligonucleotide has between 15 and 35 nucleotides.
Method for controlling the position and speed of a vehicle capable of moving in an autonomous manner and having at least one steered wheel, said method comprising the following steps: - determining an overall path defining the course of the vehicle between a starting point and an endpoint, said overall path comprising a plurality of intermediate points between the starting point and the endpoint, a position being defined for each point of the overall path; - determining the current position of the vehicle; - if the current position does not correspond to a point on the overall path, generating a local path connecting the current position of the vehicle to a point on the overall path, said local path comprising a plurality of points, a position and a speed being defined for each point of the local path; - generating a steering control signal for the steered wheel and a speed control signal for the vehicle so that the vehicle moves along said local path; characterized in that the steering and speed control signals are generated by convex optimization of linear matrix inequalities. - determining an overall path defining the course of the vehicle between a starting point and an endpoint, said overall path comprising a plurality of intermediate points between the starting point and the endpoint, a position being defined for each point of the overall path; - determining the current position of the vehicle; - if the current position does not correspond to a point on the overall path, generating a local path connecting the current position of the vehicle to a point on the overall path, said local path comprising a plurality of points, a position and a speed being defined for each point of the local path; - generating a steering control signal for the steered wheel and a speed control signal for the vehicle so that the vehicle moves along said local path;
An electronic control unit that communicates through a bus in accordance with a CAN, Controller Area Network, protocol, the electronic control unit comprising: a reception unit that receives one or a plurality of data frames including an identifier relating to data used for calculation for obtaining a message authentication code indicating authenticity of transmission content; and characterized in that; a verification unit that, after the reception unit receives the one or plurality of data frames, selects the data used for the calculation for obtaining the message authentication code in accordance with the identifier included in the one or plurality of data frames received, and performs a process for verifying the message authentication code. a reception unit that receives one or a plurality of data frames including an identifier relating to data used for calculation for obtaining a message authentication code indicating authenticity of transmission content; and characterized in that; a verification unit that, after the reception unit receives the one or plurality of data frames, selects the data used for the calculation for obtaining the message authentication code in accordance with the identifier included in the one or plurality of data frames received, and performs a process for verifying the message authentication code.
A food peeler, comprising: a handle having a first end and a second end, a holder rotatably mounted on the first end of the handle for rotation around a rotation axis, a cutting element mounted on the holder, and an actuating assembly configured to actuate the holder to rotate around the rotation axis from a first position where the cutting element is retained at a first angle with respect to the handle to a second position where the cutting element is retained at a second angle with respect to the handle, characterized in that the actuating assembly comprises a ballpoint pen mechanism arranged on or in the handle and configured to actuate the rotation of the holder in a plane in parallel with a length of the handle and around the rotation axis, and a button connected to the ballpoint pen mechanism for axially moving the ballpoint pen mechanism along the rotation axis; and the axial movement causes the rotation of the holder around the rotation axis. a handle having a first end and a second end, a holder rotatably mounted on the first end of the handle for rotation around a rotation axis, a cutting element mounted on the holder, and an actuating assembly configured to actuate the holder to rotate around the rotation axis from a first position where the cutting element is retained at a first angle with respect to the handle to a second position where the cutting element is retained at a second angle with respect to the handle, characterized in that the actuating assembly comprises a ballpoint pen mechanism arranged on or in the handle and configured to actuate the rotation of the holder in a plane in parallel with a length of the handle and around the rotation axis, and a button connected to the ballpoint pen mechanism for axially moving the ballpoint pen mechanism along the rotation axis; and the axial movement causes the rotation of the holder around the rotation axis.
A method implemented by a base station in a wireless communication network of scheduling a downlink transmission to a user terminal, said method comprising: receiving a channel quality indication from the user terminal indicative of a channel condition between the base station and the user terminal; determining a retransmission rate for the user terminal; determining a current load at the base station; comparing the determined current load to a load threshold; responsive to a determination that the determined current load exceeds the load threshold, selectively determining a transmission parameter for scheduling the downlink transmission to the user terminal based at least in part on the channel quality indication and the retransmission rate; and sending a scheduling grant containing the transmission parameter to the user terminal, wherein selectively determining a transmission parameter for scheduling the transmission comprises: comparing the retransmission rate to a retransmission rate threshold; determining the transmission parameter for the downlink transmission based at least in part on the channel quality indication and retransmission rate if the retransmission rate exceeds the retransmission rate threshold; and otherwise determining (140, 160) the transmission parameter for the downlink transmission based on the channel quality indication and not the retransmission rate. receiving a channel quality indication from the user terminal indicative of a channel condition between the base station and the user terminal; determining a retransmission rate for the user terminal; determining a current load at the base station; comparing the determined current load to a load threshold; responsive to a determination that the determined current load exceeds the load threshold, selectively determining a transmission parameter for scheduling the downlink transmission to the user terminal based at least in part on the channel quality indication and the retransmission rate; and sending a scheduling grant containing the transmission parameter to the user terminal, wherein selectively determining a transmission parameter for scheduling the transmission comprises: comparing the retransmission rate to a retransmission rate threshold; determining the transmission parameter for the downlink transmission based at least in part on the channel quality indication and retransmission rate if the retransmission rate exceeds the retransmission rate threshold; and otherwise determining (140, 160) the transmission parameter for the downlink transmission based on the channel quality indication and not the retransmission rate. comparing the retransmission rate to a retransmission rate threshold; determining the transmission parameter for the downlink transmission based at least in part on the channel quality indication and retransmission rate if the retransmission rate exceeds the retransmission rate threshold; and otherwise determining (140, 160) the transmission parameter for the downlink transmission based on the channel quality indication and not the retransmission rate.
A deflation catheter device, comprising: a catheter tube having a lumen, a proximal end, and a distal end; a stylet having a distal end within the lumen of the catheter tube and configured to extend beyond the distal end of the catheter tube to puncture a wall of the implanted balloon device; a handle at a proximal end of the catheter tube and attached to the stylet, wherein the handle is configured to controllably extend and retract the distal end of the stylet relative to the catheter tube; and a suction port at the proximal end of the catheter tube, wherein the suction port is in fluid communication with the lumen of the catheter tube, characterised in that the catheter tube includes at least one aspiration hole (14,16) configured to provide fluid communication between an interior of an implanted balloon device and the lumen of the catheter tube. a catheter tube having a lumen, a proximal end, and a distal end; a stylet having a distal end within the lumen of the catheter tube and configured to extend beyond the distal end of the catheter tube to puncture a wall of the implanted balloon device; a handle at a proximal end of the catheter tube and attached to the stylet, wherein the handle is configured to controllably extend and retract the distal end of the stylet relative to the catheter tube; and a suction port at the proximal end of the catheter tube, wherein the suction port is in fluid communication with the lumen of the catheter tube, characterised in that the catheter tube includes at least one aspiration hole (14,16) configured to provide fluid communication between an interior of an implanted balloon device and the lumen of the catheter tube.
A milking parlor arrangement, in particular a rotary milking parlor, having at least one milking parlor for milking milk-producing animals, an inner robot device having at least one robot arm, wherein the at least one milking parlor comprises two longitudinal sides and two narrow sides, namely one head narrow side and one hind quarter narrow side, of which one narrow side as head narrow side is associated with the head end of an animal to be milked, and one arm device with a milking cluster which is adjustable from a park position into an operating position and back, characterized in that the at least one robot arm is arranged on the head narrow side of the at least one milking parlor of the milking parlor arrangement for adjusting the arm device.
An expression vector which is capable of replicating autonomously in a human host cell comprising a TT virus polynucleic acid operably linked to (i) prokaryotic transcription and translation control elements, wherein the prokaryotic control elements comprise a promoter, a ribosomal binding site, splicing sites and a terminator, or (ii) eukaryotic transcription and translation control elements, wherein the eukaryotic control elements comprise a promoter, splicing sites and a terminater and the transcription and translation control elements control the expression of the TT virus polynucleic acid consisting of (a) a nucleotide sequence selected from the group consisting of the sequences shown in Figure 6 and coding one of the peptides designated as zyb2.1.pep, zyb9.1.pep, zkb69.1.pep, zyb2.3.pep, zyb9.3.pep, zkb5.3.pep and zkb69.3.pep shown in Figure 14; or (b) a nucleotide sequence which is the complement of the nucleotide sequence of (a). (i) prokaryotic transcription and translation control elements, wherein the prokaryotic control elements comprise a promoter, a ribosomal binding site, splicing sites and a terminator, or (ii) eukaryotic transcription and translation control elements, wherein the eukaryotic control elements comprise a promoter, splicing sites and a terminater and (a) a nucleotide sequence selected from the group consisting of the sequences shown in Figure 6 and coding one of the peptides designated as zyb2.1.pep, zyb9.1.pep, zkb69.1.pep, zyb2.3.pep, zyb9.3.pep, zkb5.3.pep and zkb69.3.pep shown in Figure 14; or (b) a nucleotide sequence which is the complement of the nucleotide sequence of (a).
A safety device (10, 10a) for a portable electric cutting tool, of the type comprising a cutting portion with a movable blade that is actuated by way of an electric motor powered by a battery to which it is connected by way of an electric cable, said safety device comprising a shielding layer (18, 18a) made of conducting material with which it covers a body to be protected (17, 17a) from cutting, either said movable blade or said shielding layer (18, 18a) being arranged at a constant and different potential with respect to the other of the two, which is connected to means for detecting the potential and for controlling the movement of said movable blade in order to lock it in the event of variation of the potential of said movable blade or of said shielding layer (18, 18a) at the input of said potential detection and motion control means to which one of the two is connected, said shielding layer (18, 18a) consisting of a weave of conducting metallic material, the safety device being characterized in that it comprises a conducting sheet (19, 19a) made of metallic material, which is interposed between said body to be protected (17, 17a) and said shielding layer (18, 18a).
A method comprising: receiving, by an intermediate node located in a network between a source and a plurality of destinations, a first multicast message from the source and forwarding the first multicast message to the plurality of destinations (A, F, J) based on a first bitmap included in the first multicast message, wherein the first bitmap identifies the plurality of destinations; receiving, at the intermediate node, acknowledgements from two or more of the plurality of destinations, wherein a particular received acknowledgement includes an acknowledgement bitmap that identifies a particular one of the plurality of destinations that acknowledged receipt of the multicast message; aggregating, by the intermediate node, the received acknowledgements by aggregating the acknowledgement bitmaps into an aggregated bitmap, wherein the aggregated bitmap identifies those of the plurality of destinations that acknowledged receipt of the first multicast message; and providing, by the intermediate node, an aggregated acknowledgement that includes the aggregated bitmap to the source of the multicast message; wherein the received acknowledgements are aggregated by the intermediate node in response to expiration of a first timer maintained by the intermediate node, the method further comprising: providing, by the intermediate node, a further aggregated acknowledgement for acknowledgements received after expiration of the first timer based on a second timer shorter than the first timer. receiving, by an intermediate node located in a network between a source and a plurality of destinations, a first multicast message from the source and forwarding the first multicast message to the plurality of destinations (A, F, J) based on a first bitmap included in the first multicast message, wherein the first bitmap identifies the plurality of destinations; receiving, at the intermediate node, acknowledgements from two or more of the plurality of destinations, wherein a particular received acknowledgement includes an acknowledgement bitmap that identifies a particular one of the plurality of destinations that acknowledged receipt of the multicast message; aggregating, by the intermediate node, the received acknowledgements by aggregating the acknowledgement bitmaps into an aggregated bitmap, wherein the aggregated bitmap identifies those of the plurality of destinations that acknowledged receipt of the first multicast message; and providing, by the intermediate node, an aggregated acknowledgement that includes the aggregated bitmap to the source of the multicast message; wherein the received acknowledgements are aggregated by the intermediate node in response to expiration of a first timer maintained by the intermediate node, the method further comprising: providing, by the intermediate node, a further aggregated acknowledgement for acknowledgements received after expiration of the first timer based on a second timer shorter than the first timer.