mhurhangee/ep-ind-claims huggingface dataset:
A method of transmitting data packets from a terminal of a broadband radio communication system, the terminal being capable of transmitting radio signals which may interfere with radar pulses, the radar pulses being transmitted with one or more pulse repetition intervals, the method comprising, for each of a plurality of transmission cycles in a transmission period: receiving data at a data interface of the terminal; buffering the received data at the terminal; enabling transmission of radio signals comprising the received data on expiry of a respective transmission repetition interval (38a, 38b) for the cycle, the transmission repetition interval being an interval from the start of a previous transmission, wherein the transmission repetition intervals are controlled to reduce a proportion of the transmission period for which transmission may occur at an allowed pulse repetition interval of the radar; checking for the presence of radar pulses during a respective wait period (30a, 30b) for each cycle whilst the terminal is not transmitting radio signals comprising received data packets; and if radar pulses are present, inhibiting the transmission of radio signals which may interfere with the radar pulses. receiving data at a data interface of the terminal; buffering the received data at the terminal; enabling transmission of radio signals comprising the received data on expiry of a respective transmission repetition interval (38a, 38b) for the cycle, the transmission repetition interval being an interval from the start of a previous transmission, wherein the transmission repetition intervals are controlled to reduce a proportion of the transmission period for which transmission may occur at an allowed pulse repetition interval of the radar; checking for the presence of radar pulses during a respective wait period (30a, 30b) for each cycle whilst the terminal is not transmitting radio signals comprising received data packets; and if radar pulses are present, inhibiting the transmission of radio signals which may interfere with the radar pulses.
A bimodal-type positive electrode active material comprising a first lithium composite oxide as a small particle and a second lithium composite oxide as a large particle, wherein the first lithium composite oxide and the second lithium composite oxide include at least nickel and cobalt, and the cobalt in each of the first lithium composite oxide and the second lithium composite oxide has a concentration gradient that decreases from a surface portion toward a central portion, and when s1 represents an absolute value of a slope of the concentration gradient of the cobalt decreasing from the surface portion toward the central portion of the first lithium composite oxide and s2 represents an absolute value of a slope of the concentration gradient of the cobalt decreasing from the surface portion toward the central portion of the second lithium composite oxide, s1 and s2 satisfy the following Equation 1: s1 < s2 wherein: the first lithium composite oxide and the second lithium composite oxide are composite particles comprising at least one primary particle; and the primary particles are represented by the following Chemical Formula 1: [Chemical Formula 1] Li w Ni (x+y+z) Co x M1 y M2 z O 2 where M1 is at least one selected from Mn and Al, M2 is at least one selected from P, Sr, Ba, B, Ce, Cr, Mn, Mo, Na, K, Ti, Zr, Al, Hf, Ta, Mg, V, Zn, Si, Y, Sn, Ge, Nb, W, and Cu, M1 and M2 are different from each other, 0.5≤w≤1.5, 0<x≤0.50, 0≤y≤0.20, and 0≤z≤0.20. wherein the first lithium composite oxide and the second lithium composite oxide include at least nickel and cobalt, and the cobalt in each of the first lithium composite oxide and the second lithium composite oxide has a concentration gradient that decreases from a surface portion toward a central portion, and when s1 represents an absolute value of a slope of the concentration gradient of the cobalt decreasing from the surface portion toward the central portion of the first lithium composite oxide and s2 represents an absolute value of a slope of the concentration gradient of the cobalt decreasing from the surface portion toward the central portion of the second lithium composite oxide, s1 and s2 satisfy the following Equation 1: s1 < s2 wherein: the first lithium composite oxide and the second lithium composite oxide are composite particles comprising at least one primary particle; and the primary particles are represented by the following Chemical Formula 1: [Chemical Formula 1] Li w Ni (x+y+z) Co x M1 y M2 z O 2 where M1 is at least one selected from Mn and Al, M2 is at least one selected from P, Sr, Ba, B, Ce, Cr, Mn, Mo, Na, K, Ti, Zr, Al, Hf, Ta, Mg, V, Zn, Si, Y, Sn, Ge, Nb, W, and Cu, M1 and M2 are different from each other, 0.5≤w≤1.5, 0<x≤0.50, 0≤y≤0.20, and 0≤z≤0.20.
A stator of an electric motor with a stator body, at least one stator winding arranged in the stator body, and at least one electrical contact element (42, 46) which is arranged at a first axial end of the stator body and to which a winding wire of the stator winding is connected, wherein the winding wire (22, 26, 28, 30, 32) departing from its exit out of the stator body, is led around at least one deflection element (50, 52, 56, 58, 62, 64, 66) in a manner such that it extends from a position which in a direction parallel to the radius lies further inwards than an inner side of the contact element (42, 46), to an outer side of the electric contact element (42, 46), wherein the winding wire (22, 26, 28, 30, 32) is connected to the contact element (42, 46) from its radially outward side, and the at least one deflection element (50, 52, 56, 58, 62, 64, 66) is arranged such that it permits a stretched course of the winding wire (22, 26, 28, 30, 32) between the deflection element (50, 52, 56, 58, 62, 64, 66) and at least one further deflection point and/or the electrical contact element (42, 46), characterised in that a winding protection cap is applied onto the first axial end of the stator body, and that at least one exit opening (10, 12, 14, 16, 18, 20) is present, through which opening the winding wire (22, 26, 28, 30, 32) exits outwards out of the stator body and that the at least one contact element (42, 46) is arranged on an axial face side of the winding protection cap which is away from the stator body
A method for enhancing security of a communication device when conducting a transaction using the communication device, the method comprising: receiving, by the communication device from a remote computer, a signature key, and a limited-use key that is associated with a first set of one or more limited-use thresholds that limits usage of the LUK, wherein the set of one or more limited-use thresholds includes a predetermined number of more than one transactions for which the LUK is valid; receiving, by the communication device from an access device, terminal transaction data; generating, by the communication device, a transaction cryptogram by encrypting the received terminal transaction data using the LUK as an encryption key, and a signature by computing a hash value over at least a portion of the terminal transaction data, and applying a signing function with the signature key to at least the hash value; sending, by the communication device to the access device, a token that is a substitute for an account identifier, the transaction cryptogram, and the signature to request access to a good or a service associated with the transaction; and the access terminal authenticating the communication device, by verifying the signature, to grant the access to the good or the service without requiring authorization from an issuer at time of transaction, and sending an authorization request message including the token and the transaction cryptogram to the issuer for verification after the access to the good or the service has been granted. receiving, by the communication device from a remote computer, a signature key, and a limited-use key that is associated with a first set of one or more limited-use thresholds that limits usage of the LUK, wherein the set of one or more limited-use thresholds includes a predetermined number of more than one transactions for which the LUK is valid; receiving, by the communication device from an access device, terminal transaction data; generating, by the communication device, a transaction cryptogram by encrypting the received terminal transaction data using the LUK as an encryption key, and a signature by computing a hash value over at least a portion of the terminal transaction data, and applying a signing function with the signature key to at least the hash value; sending, by the communication device to the access device, a token that is a substitute for an account identifier, the transaction cryptogram, and the signature to request access to a good or a service associated with the transaction; and the access terminal authenticating the communication device, by verifying the signature, to grant the access to the good or the service without requiring authorization from an issuer at time of transaction, and sending an authorization request message including the token and the transaction cryptogram to the issuer for verification after the access to the good or the service has been granted.
Method for automatically locating at least one target marker (3, 5), having ▪ emission of radiation (4s, 6s) by the target marker (3, 5), wherein by means of modulation, in particular phase modulation, the radiation (4s, 6s) recurrently has a characteristic signature (4, 6), ▪ recording a first image sequence with a first frame rate, characterized by ▪ statistically evaluating (9, 10) the first image sequence by reference to the signature (4, 6) with determination of a quality function, wherein the value of the quality function specifies a probability that target marker radiation (4s, 6s) is detected in a respective pixel (P1-P4), and ▪ identifying pixels (P1-P3) with which target marker radiation (4s, 6s) is likely detected, based on the associated value of the quality function, ▪ recording a second image sequence with a second frame rate, different from the first frame rate, ▪ evaluating intensity signals of the second image sequence for said identified pixels (P1-P3) and ▪ identifying (15, 17) the target marker radiation (4s, 6s) using the intensity signals on the basis of the signature (4, 6). ▪ emission of radiation (4s, 6s) by the target marker (3, 5), wherein by means of modulation, in particular phase modulation, the radiation (4s, 6s) recurrently has a characteristic signature (4, 6), ▪ recording a first image sequence with a first frame rate, ▪ statistically evaluating (9, 10) the first image sequence by reference to the signature (4, 6) with determination of a quality function, wherein the value of the quality function specifies a probability that target marker radiation (4s, 6s) is detected in a respective pixel (P1-P4), and ▪ identifying pixels (P1-P3) with which target marker radiation (4s, 6s) is likely detected, based on the associated value of the quality function, ▪ recording a second image sequence with a second frame rate, different from the first frame rate, ▪ evaluating intensity signals of the second image sequence for said identified pixels (P1-P3) and ▪ identifying (15, 17) the target marker radiation (4s, 6s) using the intensity signals on the basis of the signature (4, 6).
A method of selecting a data center to host a conference call, characterized in that the method comprises: selecting, from among a plurality of data centers, an initial data center to host a conference call having participants on the conference call that include a first plurality of participants each associated with one of a first plurality of participant locations, the selection being based at least in part on the first plurality of participant locations; and, selecting, from among the plurality of data centers, a second data center to host the conference call, the selection being based on a first plurality of effective distances each associated with one of the first plurality of participants, the conference call being handed-off to the second data center if the second data center differs from the initial data center; wherein each effective distance of the first plurality of effective distances is based on a combination of: a physical distance of a participant of the first plurality of participants from the second data center; and an effective distance factor of the participant of the first plurality of participants; wherein the effective distance factor of the participant of the first plurality of participants is based on one or more of: a device type associated with the participant; a connection type of the participant; a weighting factor for the participant, wherein the weighting factor for the participant depends on the relative importance associated with the participant. selecting, from among a plurality of data centers, an initial data center to host a conference call having participants on the conference call that include a first plurality of participants each associated with one of a first plurality of participant locations, the selection being based at least in part on the first plurality of participant locations; and, selecting, from among the plurality of data centers, a second data center to host the conference call, the selection being based on a first plurality of effective distances each associated with one of the first plurality of participants, the conference call being handed-off to the second data center if the second data center differs from the initial data center; wherein each effective distance of the first plurality of effective distances is based on a combination of: a physical distance of a participant of the first plurality of participants from the second data center; and an effective distance factor of the participant of the first plurality of participants; wherein the effective distance factor of the participant of the first plurality of participants is based on one or more of: a device type associated with the participant; a connection type of the participant; a weighting factor for the participant, wherein the weighting factor for the participant depends on the relative importance associated with the participant.
A method for device handover, comprising: obtaining (101, 201) a multimedia broadcast multicast service (MBMS) service configuration information of one or more neighbor cells from one of: a concentrated Multi-Cell/Multicast Coordination Entity node on the radio access network side; a first interface that is a manual Operation Administration and Maintenance interface; and an establishment or update process of a second interface which is an X2 communication interface; selecting (102, 203) a target cell for a user equipment from among the one or more neighbor cells, the target cell having MBMS service configuration information which matches the MBMS service reception information of the user equipment that is to be handed over; and handing (103, 204) over the user equipment to the target cell. obtaining (101, 201) a multimedia broadcast multicast service (MBMS) service configuration information of one or more neighbor cells from one of: a concentrated Multi-Cell/Multicast Coordination Entity node on the radio access network side; a first interface that is a manual Operation Administration and Maintenance interface; and an establishment or update process of a second interface which is an X2 communication interface; selecting (102, 203) a target cell for a user equipment from among the one or more neighbor cells, the target cell having MBMS service configuration information which matches the MBMS service reception information of the user equipment that is to be handed over; and handing (103, 204) over the user equipment to the target cell.
A reactor with an apparatus for introduction of droplets into the reactor, the apparatus comprising a holder for at least one dropletizer unit and at least one dropletizer unit, where the dropletizer unit has a feed for a liquid to be dropletized and a dropletizer plate and the dropletizer plate has holes through which a liquid to be dropletized is introduced into the reactor, where the holder for the at least one dropletizer unit can be pushed into the reactor or pulled out of the reactor through an opening in the shell of the reactor, wherein at least one rail is accommodated within the reactor and is used to guide the holder for the at least one dropletizer unit along it.
Rubber composition based on at least: - an elastomer matrix comprising more than 50 phr of a copolymer containing ethylene units and 1,3-diene units, the ethylene units in the copolymer representing more than 50 mol% of the monomer units of the copolymer, - a 1,3-dipolar compound corresponding to the formula Q-Sp-B in which: ∘ Q comprises a dipole containing at least and preferably one nitrogen atom, ∘ Sp, which is preferably divalent, is an atom or a group of atoms connecting Q to B, ∘ B comprises an imidazole ring corresponding to the following formula in which: • three of the four symbols Z, Y, R and R', which are identical or different, each represent an atom or a group of atoms, it being possible for Z and Y to form, together with the carbon atoms to which they are attached, a ring, • and the fourth symbol Z, Y, R or R' denotes a direct attachment to Sp, - a reinforcing filler comprising carbon black, the carbon black representing more than 50% by weight of the reinforcing filler, the fraction by volume of filler in the rubber composition being greater than 18%, - a crosslinking system. - an elastomer matrix comprising more than 50 phr of a copolymer containing ethylene units and 1,3-diene units, the ethylene units in the copolymer representing more than 50 mol% of the monomer units of the copolymer, - a 1,3-dipolar compound corresponding to the formula Q-Sp-B in which: ∘ Q comprises a dipole containing at least and preferably one nitrogen atom, ∘ Sp, which is preferably divalent, is an atom or a group of atoms connecting Q to B, ∘ B comprises an imidazole ring corresponding to the following formula in which: • three of the four symbols Z, Y, R and R', which are identical or different, each represent an atom or a group of atoms, it being possible for Z and Y to form, together with the carbon atoms to which they are attached, a ring, • and the fourth symbol Z, Y, R or R' denotes a direct attachment to Sp, ∘ Q comprises a dipole containing at least and preferably one nitrogen atom, ∘ Sp, which is preferably divalent, is an atom or a group of atoms connecting Q to B, ∘ B comprises an imidazole ring corresponding to the following formula in which: • three of the four symbols Z, Y, R and R', which are identical or different, each represent an atom or a group of atoms, it being possible for Z and Y to form, together with the carbon atoms to which they are attached, a ring, • and the fourth symbol Z, Y, R or R' denotes a direct attachment to Sp, • three of the four symbols Z, Y, R and R', which are identical or different, each represent an atom or a group of atoms, it being possible for Z and Y to form, together with the carbon atoms to which they are attached, a ring, • and the fourth symbol Z, Y, R or R' denotes a direct attachment to Sp, - a reinforcing filler comprising carbon black, the carbon black representing more than 50% by weight of the reinforcing filler, the fraction by volume of filler in the rubber composition being greater than 18%, - a crosslinking system.
A purified chondroitinase B mutant polypeptide consisting of an amino acid sequence selected from SEQ ID NO: 13, SEQ ID NO: 14, SEQ ID NO: 15, SEQ ID NO: 16, and SEQ ID NO: 17.
A method for producing molten metal from a raw material comprising metal oxide agglomerates by reduction and melting in a furnace, comprising: selectively removing a portion of the raw material from the furnace through one or more openings disposed in a bottom portion thereof such that a raw material bed or layer has predetermined characteristics over time using raw material charging chutes comprising hoppers and being equipped with outer chutes including feeding ports that are adjusted vertically, and adjusting a lower portion of an agglomerate layer to occur at a desired position by adjusting the outer chutes and feeding ports vertically, depending on an angle of repose of the agglomerate layer. selectively removing a portion of the raw material from the furnace through one or more openings disposed in a bottom portion thereof such that a raw material bed or layer has predetermined characteristics over time using raw material charging chutes comprising hoppers and being equipped with outer chutes including feeding ports that are adjusted vertically, and adjusting a lower portion of an agglomerate layer to occur at a desired position by adjusting the outer chutes and feeding ports vertically, depending on an angle of repose of the agglomerate layer.
An image forming system, comprising: a spatial light modulator, SLM, including a plurality of pixels (405A, 405B, 405C) configured to diffract incident light (Li) and to cause the diffracted light to exit the SLM, the SLM being configured such that a first diffraction order of light exiting the SLM passes through a first exit pupil and one or more higher diffraction orders of light exiting the SLM each pass through a respective additional exit pupil, each additional exit pupil having a different position from the first exit pupil, a spacing between each exit pupil (506A, 506B) at which copies of an image are formed being greater than a predetermined human eye pupil width; control logic operatively coupled to the plurality of pixels (405A, 405B, 405C), the control logic configured to control each pixel to control its modulation of the light incident on the pixel and to cause the plurality of pixels to collectively form the respective copy of the image at each exit pupil; a light source configured to emit the incident light (Li) toward the SLM; and a resampling layer disposed between the light source and the SLM, the resampling layer configured to interact with the incident light to subsample each of the plurality of pixels (405A, 405B, 405C) with two or more discrete samples of the incident light (412A, 412B) per pixel at respective positions on the pixel, to affect an angle of each diffraction order of light exiting the SLM, thereby increasing the spacing between each of the exit pupils to expand an eyebox of the image forming system. a spatial light modulator, SLM, including a plurality of pixels (405A, 405B, 405C) configured to diffract incident light (Li) and to cause the diffracted light to exit the SLM, the SLM being configured such that a first diffraction order of light exiting the SLM passes through a first exit pupil and one or more higher diffraction orders of light exiting the SLM each pass through a respective additional exit pupil, each additional exit pupil having a different position from the first exit pupil, a spacing between each exit pupil (506A, 506B) at which copies of an image are formed being greater than a predetermined human eye pupil width; control logic operatively coupled to the plurality of pixels (405A, 405B, 405C), the control logic configured to control each pixel to control its modulation of the light incident on the pixel and to cause the plurality of pixels to collectively form the respective copy of the image at each exit pupil; a light source configured to emit the incident light (Li) toward the SLM; and a resampling layer disposed between the light source and the SLM, the resampling layer configured to interact with the incident light to subsample each of the plurality of pixels (405A, 405B, 405C) with two or more discrete samples of the incident light (412A, 412B) per pixel at respective positions on the pixel, to affect an angle of each diffraction order of light exiting the SLM, thereby increasing the spacing between each of the exit pupils to expand an eyebox of the image forming system.