mhurhangee/ep-ind-claims huggingface dataset:
A method performed by a wireless station, STA, comprising: creating a physical layer convergence protocol data unit, PPDU, comprising a medium access control protocol data unit, MACPDU, and a preamble; determining (5020, 8020) an assignment of Orthogonal Frequency Division Multiplexing, OFDM, data tones that are specific to the STA, the assignment containing OFDM data tones in which a portion of the preamble is transmitted; inserting (5030, 8030) predetermined symbols into the determined assignment of OFDM data tones; transmitting the PPDU to an access point, AP, as part of an uplink multi-user multiple input, multiple output, UL MU-MIMO, transmission. creating a physical layer convergence protocol data unit, PPDU, comprising a medium access control protocol data unit, MACPDU, and a preamble; determining (5020, 8020) an assignment of Orthogonal Frequency Division Multiplexing, OFDM, data tones that are specific to the STA, the assignment containing OFDM data tones in which a portion of the preamble is transmitted; inserting (5030, 8030) predetermined symbols into the determined assignment of OFDM data tones; transmitting the PPDU to an access point, AP, as part of an uplink multi-user multiple input, multiple output, UL MU-MIMO, transmission.
A system comprising: a programmable implantable cardiac monitoring device having first and second sense electrodes on a housing of the device, a programmer, responsive to entry of a patient's age, the programmer being configured to thereafter transmit a programming command from the programmer to the implantable device including an arrhythmia detection criterion based upon the patient's age, and responsive to entry of a reason for monitoring, the programmer configured to thereafter transmit and/or store a programming command from the programmer to the implantable device including a prioritization of an arrhythmia storage criterion, wherein a prioritized set of waveforms for long term storage as well as a prioritized reduced set of waveforms for daily transmission is defined; wherein the implantable device is configured to, responsive to receipt of the programming commands, thereafter detect the arrhythmia according to the criterion and transmit records of the arrhythmia according to the prioritization; and wherein the implantable cardiac monitoring device is a leadless implantable cardiac monitoring device. a programmable implantable cardiac monitoring device having first and second sense electrodes on a housing of the device, a programmer, responsive to entry of a patient's age, the programmer being configured to thereafter transmit a programming command from the programmer to the implantable device including an arrhythmia detection criterion based upon the patient's age, and responsive to entry of a reason for monitoring, the programmer configured to thereafter transmit and/or store a programming command from the programmer to the implantable device including a prioritization of an arrhythmia storage criterion, wherein a prioritized set of waveforms for long term storage as well as a prioritized reduced set of waveforms for daily transmission is defined; wherein the implantable device is configured to, responsive to receipt of the programming commands, thereafter detect the arrhythmia according to the criterion and transmit records of the arrhythmia according to the prioritization; and wherein the implantable cardiac monitoring device is a leadless implantable cardiac monitoring device.
A method of erasing in a memory, comprising: erasing a block of memory with an erase voltage characterised in that the method further comprises: protecting string select gate transistors (106, 108) of the memory during discharge of the erase voltage; wherein protecting string select gate transistors (106, 108) during discharge of the erase voltage comprises: charging a tub, a source, and gates of the string select gate transistors (106, 108) to the erase voltage; discharging the tub and the source to an intermediate voltage; turning on the string select gate transistors (106, 108) to discharge data lines of the memory; and discharging the tub and the source to a reference voltage. erasing a block of memory with an erase voltage characterised in that the method further comprises: protecting string select gate transistors (106, 108) of the memory during discharge of the erase voltage; wherein protecting string select gate transistors (106, 108) during discharge of the erase voltage comprises: charging a tub, a source, and gates of the string select gate transistors (106, 108) to the erase voltage; discharging the tub and the source to an intermediate voltage; turning on the string select gate transistors (106, 108) to discharge data lines of the memory; and discharging the tub and the source to a reference voltage. protecting string select gate transistors (106, 108) of the memory during discharge of the erase voltage; charging a tub, a source, and gates of the string select gate transistors (106, 108) to the erase voltage; discharging the tub and the source to an intermediate voltage; turning on the string select gate transistors (106, 108) to discharge data lines of the memory; and discharging the tub and the source to a reference voltage.
Method for direct quantification of recombinant adenovirus particles in a biological sample, comprising: a) introducing said biological sample comprising recombinant adenovirus particles into a capillary tube containing a buffer solution; b) applying an electrical field to said capillary tube of sufficient voltage to allow for the separation of the adenovirus particles from additional constituents in said sample, to obtain electrophoretical fractions; and c) generating an electropherogram associated with the electrophoretical fractions; d) determining the concentration of adenovirus particles in said sample by comparing the electropherogram with an electropherogram generated from a reference sample containing a known concentration of said adenovirus particles, wherein said buffer solution comprises tris(hydroxymethyl)aminomethane in a concentration of between 100 and 500 mM and tricine in a concentration of between 100 and 500 mM, and has a pH of between 7.3 and 8.9, and wherein said capillary tube is flushed in reverse direction with a phosphoric acid solution before flushing and filling with said buffer solution. a) introducing said biological sample comprising recombinant adenovirus particles into a capillary tube containing a buffer solution; b) applying an electrical field to said capillary tube of sufficient voltage to allow for the separation of the adenovirus particles from additional constituents in said sample, to obtain electrophoretical fractions; and c) generating an electropherogram associated with the electrophoretical fractions; d) determining the concentration of adenovirus particles in said sample by comparing the electropherogram with an electropherogram generated from a reference sample containing a known concentration of said adenovirus particles,
Pneumatic vehicle tyre with a directional tread comprising profile blocks (2, 5) with a leading block edge region arriving first at ground level when rolling during forward travel and a trailing block edge, wherein the profile blocks (2, 5) are respectively provided with at least one group of at least two sipes (3a, 3b, 3c), which have a width of 0.4 mm to 1.0 mm and a depth (T 1) of 70% to 100% of the profile depth, in plan view run parallel to one another and to the axial direction at an angle of 0° to 45°, when viewed in cross section and in the radial direction have an outer portion running in the radial direction, at least one middle portion (3"a, 3"b, 3"c) running in an arcuate manner, and an inner portion running in the radial direction, wherein within each group of sipes (3a, 3b, 3c) the radially outer and radially inner portions (3', 3''') have a coinciding radial extent and the arcuately running middle portions (3"a, 3"b, 3"c) are oriented identically and wherein profile blocks (2, 5) that contain a group of sipes (3a, 3b, 3c) of which the arcuately running middle portions (3"a, 3"b, 3"c) are directed away from the leading block edge region are provided, characterized in that the middle portions (3"a, 3"b, 3"c) of the sipes (3a, 3b, 3c) belonging to that group of which the arcuately running middle portions (3"a, 3"b, 3"c) are directed away from the leading block edge region have, when viewed in cross section, perpendicularly to a line (L a, L b, L c) passing through the outer portion in the radial direction, with respect to the middle line of the sipes (3a, 3b, 3c), different maximum deflections (a, b, c), wherein the maximum deflection (a) of the middle portion (3"a) of the sipe that is closest to the leading block edge region is greater than the maximum extent (b) of the middle portion (3"b) of the sipe that is closest to the trailing block edge region.
A control device for controlling a transmission rate of each piece of traffic between communication devices having an adaptive modulation function, comprising: a throughput calculation means which receives information relating to a transmission rate change due to an adaptive modulation that occurs in a radio link between two communication devices included in the communication devices, and calculates a predicted end-to-end throughput of each piece of traffic that uses the radio link, wherein the predicted end-to-end throughput is calculated by referring to on the basis of the information and a table which includes a degree of priority and a band index requested transmission rate and a lowest transmission rate of said each piece of traffic, and by allocating band to each piece of traffic that uses the radio link in order of the priority; an adjustment means which calculates a missing band of each piece of traffic and/or an unused band of another radio link connecting between the communication devices, wherein the unused band indicates a transmission rate which is unused by the communication devices when a control of transmission rate with respect to said each piece of traffic is performed on a basis of the predicted end-to-end throughput, and performs the control of transmission rate with respect to said each piece of traffic, on a basis of the table and the missing band and/or the unused band; and a setting transmission means which transmits the band distribution decided by the adjustment means information relating to the control of transmission rate to the communication devices. a throughput calculation means which receives information relating to a transmission rate change due to an adaptive modulation that occurs in a radio link between two communication devices included in the communication devices, and calculates a predicted end-to-end throughput of each piece of traffic that uses the radio link, wherein the predicted end-to-end throughput is calculated by referring to on the basis of the information and a table which includes a degree of priority and a band index requested transmission rate and a lowest transmission rate of said each piece of traffic, and by allocating band to each piece of traffic that uses the radio link in order of the priority; an adjustment means which calculates a missing band of each piece of traffic and/or an unused band of another radio link connecting between the communication devices, wherein the unused band indicates a transmission rate which is unused by the communication devices when a control of transmission rate with respect to said each piece of traffic is performed on a basis of the predicted end-to-end throughput, and performs the control of transmission rate with respect to said each piece of traffic, on a basis of the table and the missing band and/or the unused band; and a setting transmission means which transmits the band distribution decided by the adjustment means information relating to the control of transmission rate to the communication devices.
A method performed by a terminal in a wireless communication system, the method comprising: receiving, from a base station, a radio resource control, RRC, message including information on a priority for a plurality of reference signals, RSs; identifying activated transmission configuration indicator, TCI, states for control resource sets, CORESETs; identifying one or more RSs associated with the activated TCI states; determining a beam failure detection, BFD, RS set that includes at least one RS among the one or more RSs, based on the information on the priority for the one or more RSs; identifying whether a beam failure is detected based on the at least one RS included in the BFD RS set; and in case that the beam failure is detected, transmitting, to the base station, a beam failure recovery, BFR, request message. receiving, from a base station, a radio resource control, RRC, message including information on a priority for a plurality of reference signals, RSs; identifying activated transmission configuration indicator, TCI, states for control resource sets, CORESETs; identifying one or more RSs associated with the activated TCI states; determining a beam failure detection, BFD, RS set that includes at least one RS among the one or more RSs, based on the information on the priority for the one or more RSs; identifying whether a beam failure is detected based on the at least one RS included in the BFD RS set; and in case that the beam failure is detected, transmitting, to the base station, a beam failure recovery, BFR, request message.
A nanoparticle organic hybrid material comprising inorganic nanoparticles covalently grafted with at least one anion of an organic sodium or lithium salt through a linker group, according to the following formula: wherein: Np represents the inorganic nanoparticle; L is the linker group selected from a C 1 -C 6 alkylene and a phenylene-C 1 -C 4 -alkylene group, and is the anion of the organic sodium or lithium salt, X + is a sodium or lithium cation. Np represents the inorganic nanoparticle; L is the linker group selected from a C 1 -C 6 alkylene and a phenylene-C 1 -C 4 -alkylene group, and is the anion of the organic sodium or lithium salt, X + is a sodium or lithium cation.
A thermoelectric power generation system (10, 10A) comprising: a first flow path along which a first fluid flows; a second flow path along which a second fluid having a lower temperature than the first fluid flows; a thermoelectric module arranged between the first flow path and the second flow path; and a controller that switches between a power generation mode, in which the thermoelectric module is caused to generate electric power based on a difference between a temperature of the first fluid and a temperature of the second fluid, and a heating mode, in which a first surface (110a, 110b) of the thermoelectric module is heated using the Peltier effect caused by supplying electric power to the thermoelectric module, wherein a distance between the first surface (110a, 110b) and the first flow path is shorter than a distance between the first surface (110a, 110b) and the second flow path. a first flow path along which a first fluid flows; a second flow path along which a second fluid having a lower temperature than the first fluid flows; a thermoelectric module arranged between the first flow path and the second flow path; and a controller that switches between a power generation mode, in which the thermoelectric module is caused to generate electric power based on a difference between a temperature of the first fluid and a temperature of the second fluid, and a heating mode, in which a first surface (110a, 110b) of the thermoelectric module is heated using the Peltier effect caused by supplying electric power to the thermoelectric module, wherein a distance between the first surface (110a, 110b) and the first flow path is shorter than a distance between the first surface (110a, 110b) and the second flow path.
A method performed by a communication device comprising: having an ongoing communication session via a packet switched network; causing said communication session to be transferred from the packet switched network to a second network providing both packet and circuit switched access; informing an application server maintaining said ongoing communication session that the communication session is to be split into a packet switched part in the second network and a circuit switched part in the second network; characterized in that the method further comprises: sending, towards the application server, separate transfer requests of the packet switched part and the circuit switched part; and including at least in one of the transfer requests an indication that the communication session is to be split. having an ongoing communication session via a packet switched network; causing said communication session to be transferred from the packet switched network to a second network providing both packet and circuit switched access; informing an application server maintaining said ongoing communication session that the communication session is to be split into a packet switched part in the second network and a circuit switched part in the second network; sending, towards the application server, separate transfer requests of the packet switched part and the circuit switched part; and including at least in one of the transfer requests an indication that the communication session is to be split.
A method for capturing and barcoding single cell RNA comprising: - a) providing a plurality of microfluidic droplets, wherein at least some of the microfluidic droplets comprise a single cell, a lysis composition, a reverse transcriptase and at least one type of an oligonucleotide, wherein the at least one type of oligonucleotide comprises a barcode sequence and a primer sequence, wherein one type of an oligonucleotide distinguishes from another type of an oligonucleotide by its primer sequence, and wherein the droplets of the plurality of the microfluidic droplets contain one or more barcode sequences distinguishable from barcode sequences contained in other droplets of the plurality of microfluidic droplets; - b) lysing at least some of the cells within the droplets to release RNAs from the cells; - c) hybridizing at least some of the released RNAs to said oligonucleotide in at least some of the droplets; - d) reverse transcribing the released RNAs hybridized to said oligonucleotide using the primer sequence in at least some of the droplets; characterized in that, the plurality of microfluidic droplets has a volume of less than 3 nL; and the concentration of each type of oligonucleotide in the microfluidic droplets is at least 100 nM. - a) providing a plurality of microfluidic droplets, wherein at least some of the microfluidic droplets comprise a single cell, a lysis composition, a reverse transcriptase and at least one type of an oligonucleotide, wherein the at least one type of oligonucleotide comprises a barcode sequence and a primer sequence, wherein one type of an oligonucleotide distinguishes from another type of an oligonucleotide by its primer sequence, and wherein the droplets of the plurality of the microfluidic droplets contain one or more barcode sequences distinguishable from barcode sequences contained in other droplets of the plurality of microfluidic droplets; - b) lysing at least some of the cells within the droplets to release RNAs from the cells; - c) hybridizing at least some of the released RNAs to said oligonucleotide in at least some of the droplets; - d) reverse transcribing the released RNAs hybridized to said oligonucleotide using the primer sequence in at least some of the droplets;
A surgical apparatus for cutting and grasping, the apparatus comprising: first and third jaw elements (001, 003) each comprising a surface, an extension, and a protrusion; second and fourth jaw elements (002, 004) each comprising a surface and first and second depressions (010, 007); a hinge coupling the jaw elements at their respective bases; a shifter shaft coupled to the second and fourth jaw elements (002, 004) at a distal end of the shifter shaft, there being a longitudinal axis defined by opposite ends of the shifter shaft; the shifter shaft in a first position along the longitudinal axis causing the first and second jaw elements (001, 002) to be coupled to each other by the first depression of the second jaw element receiving the extension of the first jaw element, and further causing the third and fourth jaw elements (003, 004) to be coupled to each other by the first depression of the fourth jaw element receiving the extension of the third jaw element; and the shifter shaft in a second position along the longitudinal axis different from the first position causing the first and fourth jaw elements (001, 004) to be coupled to each other by the second depression of the fourth jaw element receiving the protrusion of the first jaw element, and further causing the second and third jaw elements (002, 003) to be coupled to each other by the second depression of the second jaw element receiving the protrusion of the third jaw element. first and third jaw elements (001, 003) each comprising a surface, an extension, and a protrusion; second and fourth jaw elements (002, 004) each comprising a surface and first and second depressions (010, 007); a hinge coupling the jaw elements at their respective bases; a shifter shaft coupled to the second and fourth jaw elements (002, 004) at a distal end of the shifter shaft, there being a longitudinal axis defined by opposite ends of the shifter shaft; the shifter shaft in a first position along the longitudinal axis causing the first and second jaw elements (001, 002) to be coupled to each other by the first depression of the second jaw element receiving the extension of the first jaw element, and further causing the third and fourth jaw elements (003, 004) to be coupled to each other by the first depression of the fourth jaw element receiving the extension of the third jaw element; and the shifter shaft in a second position along the longitudinal axis different from the first position causing the first and fourth jaw elements (001, 004) to be coupled to each other by the second depression of the fourth jaw element receiving the protrusion of the first jaw element, and further causing the second and third jaw elements (002, 003) to be coupled to each other by the second depression of the second jaw element receiving the protrusion of the third jaw element.
Roll frame having a first corrugating roll which has a multiplicity of first corrugating edges and first corrugating backs, and having a second corrugating roll which has a multiplicity of second corrugating edges and second corrugating backs, the roll frame being designed to be operated either in an edge/edge operating mode, in which the first edges and the second edges are brought closer to one another, or in a back/back operating mode, in which the first backs and the second backs are brought closer to one another, characterized in that a change between the edge/edge operating mode and the back/back operating mode takes place during running operation by way of a change in the rotational speed of the first corrugating roll and/or a change in the rotational speed of the second corrugating roll.