mhurhangee/patent-ind-claim-en huggingface dataset:
A method comprising: receiving , by a sink device and from a source device , identity information corresponding to a subscriber information module , SIM, of the source device via a connection between the sink device and the source device; creating , at the sink device, a remote SIM with the identity information corresponding to the SIM of the source device; and communicating , by an application of the sink device using the remote SIM, with an external device via a cellular radio transceiver of the source device. receiving , by a sink device and from a source device , identity information corresponding to a subscriber information module , SIM, of the source device via a connection between the sink device and the source device; creating , at the sink device, a remote SIM with the identity information corresponding to the SIM of the source device; and communicating , by an application of the sink device using the remote SIM, with an external device via a cellular radio transceiver of the source device.
A method , in a wireless device operating in a wireless network, the method comprising: receiving a message or signaling from a wireless access node ; based on the received message or signaling, selecting between a first format and a second format of a random access preamble signal; generating a random access preamble signal based on the selected format; and transmitting the random access preamble signal; wherein the generated random access preamble signal comprises a random access symbol group that comprises a plurality of consecutive symbols, each of the plurality of consecutive symbols being modulated on a corresponding subcarrier frequency and each of the plurality of consecutive symbols corresponding to a truncated sinusoid of 3.75/N kHz, with N=1 for the first format and with N > 1 the second format, wherein one or more of the plurality of consecutive symbols of the random access symbol group are modulated on a first subcarrier frequency and one or more others of the plurality of consecutive symbols of the random access symbol group are modulated on a second subcarrier frequency, differing from the first subcarrier frequency. receiving a message or signaling from a wireless access node ; based on the received message or signaling, selecting between a first format and a second format of a random access preamble signal; generating a random access preamble signal based on the selected format; and transmitting the random access preamble signal; wherein the generated random access preamble signal comprises a random access symbol group that comprises a plurality of consecutive symbols, each of the plurality of consecutive symbols being modulated on a corresponding subcarrier frequency and each of the plurality of consecutive symbols corresponding to a truncated sinusoid of 3.75/N kHz, with N=1 for the first format and with N > 1 the second format, wherein one or more of the plurality of consecutive symbols of the random access symbol group are modulated on a first subcarrier frequency and one or more others of the plurality of consecutive symbols of the random access symbol group are modulated on a second subcarrier frequency, differing from the first subcarrier frequency.
A method of operating a particle beam microscope , comprising: scanning at least one particle beam across a scanning region of a surface of an object ; detecting particles, by a detector system , for a plurality of impingement locations of the primary beam within the scanning region; wherein the detected particles are released from an interaction region at the respective impingement location, wherein in each of the interaction regions , the primary beam interacts with the object ; generating, by the detector system , detector signals which represent for each of the impingement locations an intensity of the detected particles; and calculating material data of for at least a portion of the interaction regions ; wherein the calculation of the material data is performed depending on one or more of the detector signals, characterized in that the calculating of the material data is performed also depending on topography data by using the topography data, wherein the topography data represent a topography of the object surface in at least a portion of the scanning region, wherein the topography data comprise inclination data values of the object surface , wherein the calculating depends on a relationship between the material data on the one hand and the intensities of the detected particles and the topography data on the other hand obtained by performing measurements or simulations on samples having known material properties. scanning at least one particle beam across a scanning region of a surface of an object ; detecting particles, by a detector system , for a plurality of impingement locations of the primary beam within the scanning region; wherein the detected particles are released from an interaction region at the respective impingement location, wherein in each of the interaction regions , the primary beam interacts with the object ; generating, by the detector system , detector signals which represent for each of the impingement locations an intensity of the detected particles; and calculating material data of for at least a portion of the interaction regions ; wherein the calculation of the material data is performed depending on one or more of the detector signals, characterized in that the calculating of the material data is performed also depending on topography data by using the topography data, wherein the topography data represent a topography of the object surface in at least a portion of the scanning region, wherein the topography data comprise inclination data values of the object surface , wherein the calculating depends on a relationship between the material data on the one hand and the intensities of the detected particles and the topography data on the other hand obtained by performing measurements or simulations on samples having known material properties.
Pool basin with a peripheral overflow having walls (P) and a bottom (E), at least the walls (P) being shaped to delimit a peripheral space (E), resulting from the interlocking of two shells corresponding to the shape of the pool, said shells having different perimeter lengths by forming an inner shell and an outer shell made integral with each other, the inner shell having a height higher than the height of the outer shell , to allow the water contained in the inner shell to overflow into the space (E) delimited by said shells and , which acts as a buffer tank, said space (E) being secured to means for pumping and filtering said water, the tank being characterized in that it comprises reinforcements acting as struts and spacers which are fixed in the space between the two shells on all or part of the height of said shells
An imaging lens , comprising in an ordered way from an object side: a first lens having positive (+) refractive power; a second lens having negative (-) refractive power; a third lens having positive (+) refractive power; a fourth lens having positive (+) refractive power; a fifth lens having negative (-) refractive power and which is formed in a meniscus shape having a convex surface on an object side; and a sixth lens having negative (-) refractive power and having a concave surface on the object side, wherein the sixth lens is formed with an infrared filter coated film , wherein both an object side surface and an image side surface of the fifth lens have positive curvature at an optical axis of the imaging lens , wherein an object side surface of the sixth lens has negative curvature at the optical axis of the imaging lens , and wherein an object side surface of the second lens has positive curvature at the optical axis of the imaging lens , wherein a separate aperture stop is interposed between the first lens and the second lens . a first lens having positive (+) refractive power; a second lens having negative (-) refractive power; a third lens having positive (+) refractive power; a fourth lens having positive (+) refractive power; a fifth lens having negative (-) refractive power and which is formed in a meniscus shape having a convex surface on an object side; and a sixth lens having negative (-) refractive power and having a concave surface on the object side, wherein the sixth lens is formed with an infrared filter coated film , wherein both an object side surface and an image side surface of the fifth lens have positive curvature at an optical axis of the imaging lens , wherein an object side surface of the sixth lens has negative curvature at the optical axis of the imaging lens , and wherein an object side surface of the second lens has positive curvature at the optical axis of the imaging lens , wherein a separate aperture stop is interposed between the first lens and the second lens .
A method performed by one or more data processing apparatus for generating a simulation of an environment that is being interacted with by a plurality of agents (102A-E) over a plurality of time steps, wherein the simulation comprises a respective simulation state for each time step that specifies a respective state of each agent at the time step, the method comprising, for each time step: obtaining a current simulation state for the current time step; generating a plurality of candidate next simulation states for a next time step based on the current simulation state, wherein generating each candidate next simulation state comprises: sampling , for each agent, a respective action from a set of possible actions that can be performed by the agent; and determining , for each agent, a respective next state of the agent at the next time step if the agent performs the corresponding sampled action at the current time step; determining, for each candidate next simulation state, a discriminative score characterizing a likelihood that the candidate next simulation state is a realistic simulation state; selecting a candidate next simulation state as the simulation state for the next time step based on the discriminative scores for the candidate next simulation state; and using the simulation of the environment to test a planning system for an autonomous vehicle. obtaining a current simulation state for the current time step; generating a plurality of candidate next simulation states for a next time step based on the current simulation state, wherein generating each candidate next simulation state comprises: sampling , for each agent, a respective action from a set of possible actions that can be performed by the agent; and determining , for each agent, a respective next state of the agent at the next time step if the agent performs the corresponding sampled action at the current time step; sampling , for each agent, a respective action from a set of possible actions that can be performed by the agent; and determining , for each agent, a respective next state of the agent at the next time step if the agent performs the corresponding sampled action at the current time step; determining, for each candidate next simulation state, a discriminative score characterizing a likelihood that the candidate next simulation state is a realistic simulation state; selecting a candidate next simulation state as the simulation state for the next time step based on the discriminative scores for the candidate next simulation state; and using the simulation of the environment to test a planning system for an autonomous vehicle.
Method of determining the body temperature or of a temperature correlated therewith of a patient connected to an extracorporeal blood circuit, wherein the extracorporeal blood circuit has a heat exchanger which is flowed through by blood at one side and by a heat carrier medium at the other side, and wherein the temperature (T di ) of the heat carrier medium at the inlet side is measured at the inlet of the heat exchanger and the temperature (T do ) of the heat carrier medium at the outlet side is measured at the outlet of the heat exchanger and the volume flow of the heat carrier medium (Q d ) is measured; characterized in that the temperature (T bi ) of the blood at the inlet side is measured at the inlet of the heat exchanger in accordance with the relationship T bi = T di + Q d / D T do − T di where the value D is a value characteristic of the heat transfer by the heat exchanger.
An apparatus comprising: an amplifier in a first channel , the amplifier configured to receive a first frequency band of an analog signal and apply a gain to the first frequency band ; a first analog-to-digital converter in the first channel , coupled with an output of the amplifier , configured to convert the first frequency band of the analog signal to a first digital signal; a second analog-to-digital converter in a second channel , the second analog-to-digital converter configured to receive a second frequency band of the analog signal and convert the second frequency band to a second digital signal, the second frequency band being different from the first frequency band ; a gain controller configured to adjust the gain of the amplifier based on the first digital signal to increase a signal-to-noise ratio of the first digital signal; and a de-embed controller configured to receive an input describing a phase and magnitude effect caused by a component in the first channel , and to generate a correction filter to remove the phase and magnitude effect from the first digital signal; and a sum block , coupled with an output of the first analog-to-digital converter and an output of the second analog-to-digital converter , configured to: combine the first digital signal and the second digital signal into an output signal that is a digital representation of the analog signal , and output the output signal for additional processing. an amplifier in a first channel , the amplifier configured to receive a first frequency band of an analog signal and apply a gain to the first frequency band ; a first analog-to-digital converter in the first channel , coupled with an output of the amplifier , configured to convert the first frequency band of the analog signal to a first digital signal; a second analog-to-digital converter in a second channel , the second analog-to-digital converter configured to receive a second frequency band of the analog signal and convert the second frequency band to a second digital signal, the second frequency band being different from the first frequency band ; a gain controller configured to adjust the gain of the amplifier based on the first digital signal to increase a signal-to-noise ratio of the first digital signal; and a de-embed controller configured to receive an input describing a phase and magnitude effect caused by a component in the first channel , and to generate a correction filter to remove the phase and magnitude effect from the first digital signal; and a sum block , coupled with an output of the first analog-to-digital converter and an output of the second analog-to-digital converter , configured to: combine the first digital signal and the second digital signal into an output signal that is a digital representation of the analog signal , and output the output signal for additional processing. combine the first digital signal and the second digital signal into an output signal that is a digital representation of the analog signal , and output the output signal for additional processing.
A compound of Formula A: wherein each of X 1 , X 2 and X 3 are independently selected from the group consisting of H, F and CI, wherein at least two of X 1 , X 2 and X 3 are F or Cl; R 1 is C 1 to C 3 alkyl; and R 2 is C 1 to C 3 alkyl; or a pharmaceutically acceptable salt thereof for use in treating a brain tumor by oral administration to a subject in need of such treatment.
A filament comprising, as a chemical composition, by mass%, C: 0.70% to 1.20%, Si: 0.15% to 0.60%, Mn: 0.10% to 1.00%, N: 0.0010% to 0.0050%, Al: 0% to 0.010%, Ti: 0% to 0.10%, Cr: 0% to 0.50%, Co: 0% to 0.50%, V: 0% to 0.50%, Cu: 0% to 0.20%, Nb: 0% to 0.100%, Mo: 0% to 0.20%, W: 0% to 0.200%, B: 0% to 0.0030%, REM: 0% to 0.0050%, Ca: 0% to 0.0050%, Mg: 0% to 0.0050%, Zr: 0% to 0.0100%, and the remainder consisting of Fe and impurities, wherein the diameter r of the filament is 0.15 mm to 0.35 mm, a soft portion is formed along an outer circumference of the filament, the Vickers hardness of the soft portion is lower than that of the filament at a depth of 1/4 of the diameter r by a Hv 50 or higher, the thickness of the soft portion, determined from a hardness distribution of the filament in a depth direction as described at paragraph , is 1 μm to 0.1 × r mm, the metallographic structure of the filament other than the soft portion contains 95% to 100% of pearlite by area%, the average lamellar spacing of the pearlite in a region from a surface of the filament to a depth of 1 μm is less than that of the pearlite at the center of the filament, wherein the average lamellar spacing of the pearlite in a region from a surface of the filament to a depth of 1 μm is determined by transmission electron microscopy as described at paragraph and the average lamellar spacing of the pearlite at the center of the filament is determined by transmission electron microscopy as described at paragraph , the difference between the average lamellar spacing of the pearlite in the region from the surface of the filament to the depth of 1 μm and the average lamellar spacing of the pearlite at the center of the filament is more than 0 nm to 2.0 nm or less, and the tensile strength, obtained in a tensile test according to JIS Z 2241, is 3200 MPa or higher.
A central unit, CU, of a base station in a wireless communication system, the CU comprising: a transceiver; and at least one processor coupled to the transceiver and configured to: transmit, to a distributed unit, DU, of the base station, a configuration instruction message comprising a first configuration information of two different tunnels on an interface between the CU and the DU for a radio bearer supporting a packet data convergence protocol, PDCP, duplication function in uplink; receive, from the DU, a configuration response message comprising a second configuration information of two different tunnels on the interface between the CU and the DU for the radio bearer supporting the PDCP duplication function in downlink; and transmit and/or receive, to/from the DU, a data packet of the radio bearer using two different tunnels in uplink and/or downlink for the radio bearer supporting the PDCP duplication function based on the first configuration information and the second configuration information. a transceiver; and at least one processor coupled to the transceiver and configured to: transmit, to a distributed unit, DU, of the base station, a configuration instruction message comprising a first configuration information of two different tunnels on an interface between the CU and the DU for a radio bearer supporting a packet data convergence protocol, PDCP, duplication function in uplink; receive, from the DU, a configuration response message comprising a second configuration information of two different tunnels on the interface between the CU and the DU for the radio bearer supporting the PDCP duplication function in downlink; and transmit and/or receive, to/from the DU, a data packet of the radio bearer using two different tunnels in uplink and/or downlink for the radio bearer supporting the PDCP duplication function based on the first configuration information and the second configuration information. transmit, to a distributed unit, DU, of the base station, a configuration instruction message comprising a first configuration information of two different tunnels on an interface between the CU and the DU for a radio bearer supporting a packet data convergence protocol, PDCP, duplication function in uplink; receive, from the DU, a configuration response message comprising a second configuration information of two different tunnels on the interface between the CU and the DU for the radio bearer supporting the PDCP duplication function in downlink; and transmit and/or receive, to/from the DU, a data packet of the radio bearer using two different tunnels in uplink and/or downlink for the radio bearer supporting the PDCP duplication function based on the first configuration information and the second configuration information.
A compound of formula (I) shown below: wherein: Q is selected from: wherein: indicates the point of attachment to the C(=O) moiety of the compound of formula I; R 1 , R 2a , R 2b and R 3 are each independently selected from hydrogen, halo, methyl, hydroxymethyl, CF 3 and OCF 3 ; or R 2a and R 2b are linked such that together they form a 4, 5 or 6- membered carbocyclic or heterocyclic ring; R 4 and R 5 are each independently selected from hydrogen, halo, methyl, hydroxymethyl, CF 3 and OCF 3 ; R 6 and R 7 are each independently selected from hydrogen, halo, methyl, hydroxymethyl, CF 3 and OCF 3 ; R 8 and R 9 are each independently selected from hydrogen, methyl, CF 3 halo, hydroxymethyl and OCF 3 ; R 10 and R 11 are each independently selected from hydrogen, methyl, CF 3 halo, hydroxymethyl and OCF 3 ; R 12 is selected from hydrogen, (1-4C)alkyl or (1-4C)haloalkyl; or a pharmaceutically acceptable salt thereof. indicates the point of attachment to the C(=O) moiety of the compound of formula I; R 1 , R 2a , R 2b and R 3 are each independently selected from hydrogen, halo, methyl, hydroxymethyl, CF 3 and OCF 3 ; or R 2a and R 2b are linked such that together they form a 4, 5 or 6- membered carbocyclic or heterocyclic ring; R 4 and R 5 are each independently selected from hydrogen, halo, methyl, hydroxymethyl, CF 3 and OCF 3 ; R 6 and R 7 are each independently selected from hydrogen, halo, methyl, hydroxymethyl, CF 3 and OCF 3 ; R 8 and R 9 are each independently selected from hydrogen, methyl, CF 3 halo, hydroxymethyl and OCF 3 ; R 10 and R 11 are each independently selected from hydrogen, methyl, CF 3 halo, hydroxymethyl and OCF 3 ; R 12 is selected from hydrogen, (1-4C)alkyl or (1-4C)haloalkyl;
A method for producing a bis (fluorosulfonyl) imide alkali metal salt by a reaction of a mixture containing bis (fluorosulfonyl) imide and an alkali metal compound, wherein, after said reaction, a total of weight ratios of said bis (fluorosulfonyl) imide, said alkali metal compound and said bis (fluorosulfonyl) imide alkali metal salt to an entire reacted mixture is not less than 0.8.