mhurhangee/patent-ind-claim-en huggingface dataset:
A computer-readable medium encoded with instructions, executable by a processor, for determining a genotype for a genomic locus in a biological sample, the instructions comprising instructions for: receiving a data set for a genotyping assay, wherein the data set comprises a data point for each sample in a plurality of biological samples, the data point comprising two signal values corresponding to two alleles of a genomic locus; determining an angle for each data point in the data set, wherein a vertex for each angle contains a defined origin and wherein the angle is established using a baseline containing the defined origin; performing an optimal angle configuration search for the data set; said optimal angle configuration search comprising a best fit of the angles determined for each data point in the data set to an angle configuration in a plurality of angle configurations in a data base, the best-fit angle configuration comprising three angles, each angle corresponding to a cluster of data points in the data set; and assigning a final genotype classification to each sample in the plurality of biological samples based on the fit of the data set to the best-fit angle configuration, wherein each angle of the best-fit angle configuration is discretely associated with a finite number of allelic combinations defining a genotype classification. receiving a data set for a genotyping assay, wherein the data set comprises a data point for each sample in a plurality of biological samples, the data point comprising two signal values corresponding to two alleles of a genomic locus; determining an angle for each data point in the data set, wherein a vertex for each angle contains a defined origin and wherein the angle is established using a baseline containing the defined origin; performing an optimal angle configuration search for the data set; said optimal angle configuration search comprising a best fit of the angles determined for each data point in the data set to an angle configuration in a plurality of angle configurations in a data base, the best-fit angle configuration comprising three angles, each angle corresponding to a cluster of data points in the data set; and assigning a final genotype classification to each sample in the plurality of biological samples based on the fit of the data set to the best-fit angle configuration, wherein each angle of the best-fit angle configuration is discretely associated with a finite number of allelic combinations defining a genotype classification.
A process for forming cellulose nanofibers from a cellulosic material, comprising: treating the cellulosic material with a first mechanical refiner having stator and rotor plates having a configuration of blades separated by grooves , the first refiner producing a first specific edge loading (SEL); and subsequently treating the cellulosic material with a second mechanical refiner having stator and rotor plates having a configuration of blades separated by grooves that is different than the configuration of the first refiner, the second refiner producing a second SEL; wherein the beginning first SEL is greater than 1.0 J/m and is 2 to 40 times greater than the beginning second SEL, to obtain cellulose nanofibers. treating the cellulosic material with a first mechanical refiner having stator and rotor plates having a configuration of blades separated by grooves , the first refiner producing a first specific edge loading (SEL); and subsequently treating the cellulosic material with a second mechanical refiner having stator and rotor plates having a configuration of blades separated by grooves that is different than the configuration of the first refiner, the second refiner producing a second SEL; wherein the beginning first SEL is greater than 1.0 J/m and is 2 to 40 times greater than the beginning second SEL, to obtain cellulose nanofibers.
Shaping device comprising an inductor and one or more shaping half-shells , at least one shaping half-shell comprising a bottom shaping element made of mineral material and a top shaping element , wherein the top shaping element - is releasably connected to the bottom shaping element or integrally formed with it, - covers at least partially an inner surface of the bottom shaping element and - comprises an electrically conductive layer , and the inductor is set up to induce eddy currents in the electrically conductive layer , characterised in that the mineral material from which the bottom shaping element and/or the top shaping element is/are made comprises at least one additive which reduces the thermal conductivity of the mineral material. an inductor and one or more shaping half-shells , at least one shaping half-shell comprising a bottom shaping element made of mineral material and a top shaping element , wherein the top shaping element - is releasably connected to the bottom shaping element or integrally formed with it, - covers at least partially an inner surface of the bottom shaping element and - comprises an electrically conductive layer , - is releasably connected to the bottom shaping element or integrally formed with it, - covers at least partially an inner surface of the bottom shaping element and - comprises an electrically conductive layer , and the inductor is set up to induce eddy currents in the electrically conductive layer , characterised in that the mineral material from which the bottom shaping element and/or the top shaping element is/are made comprises at least one additive which reduces the thermal conductivity of the mineral material.
A data transmission method, comprising: receiving , by a target base station, a Radio Resource Control (RRC) resume request message and first data that are transmitted by a terminal device, the terminal device being in an inactive state or in an idle state or in a suspended state; transmitting , by the target base station, a retrieve terminal context request message to an anchor base station, wherein the retrieve terminal context request message carries the first data or first indication information indicating transmission of the first data; and receiving , by the target base station, a reply message transmitted by the anchor base station, characterized in that , the reply message carries second indication information, the second indication information indicating the anchor base station is capable of transmitting the first data to a core network or the second indication information indicating the anchor base station is incapable of transmitting the first data to the core network, wherein the first data is transmitted to the core network by the anchor base station in response to the second indication information indicating that the anchor base station is capable of transmitting the first data to the core network; or wherein the method further comprises: transmitting, by the target base station, the first data to the core network in response to the second indication information indicating that the anchor base station is incapable of transmitting the first data to the core network. receiving , by a target base station, a Radio Resource Control (RRC) resume request message and first data that are transmitted by a terminal device, the terminal device being in an inactive state or in an idle state or in a suspended state; transmitting , by the target base station, a retrieve terminal context request message to an anchor base station, wherein the retrieve terminal context request message carries the first data or first indication information indicating transmission of the first data; and receiving , by the target base station, a reply message transmitted by the anchor base station, characterized in that , the reply message carries second indication information, the second indication information indicating the anchor base station is capable of transmitting the first data to a core network or the second indication information indicating the anchor base station is incapable of transmitting the first data to the core network, wherein the first data is transmitted to the core network by the anchor base station in response to the second indication information indicating that the anchor base station is capable of transmitting the first data to the core network; or wherein the method further comprises: transmitting, by the target base station, the first data to the core network in response to the second indication information indicating that the anchor base station is incapable of transmitting the first data to the core network.
A user equipment, UE, (111-116) comprising: at least one transceiver configured to receive, from a base station, BS (101-103), a downlink control information, DCI, format comprising a plurality of blocks of bits, each block corresponding to a different UE, comprising a block of bits for the UE (111-116), wherein the block of bits comprises bits for a transmit power control, TPC, command and bits for an aperiodic sounding reference signal, A-SRS, request, and at least one processor configured to control a transmission of an A-SRS to the BS (101-103) based on a value of the bits for the TPC command and a value of the bits for the A-SRS request, wherein a configuration for a location of the block of bits in the DCI format is received by the UE (111-116) from the BS (101-103). at least one transceiver configured to receive, from a base station, BS (101-103), a downlink control information, DCI, format comprising a plurality of blocks of bits, each block corresponding to a different UE, comprising a block of bits for the UE (111-116), wherein the block of bits comprises bits for a transmit power control, TPC, command and bits for an aperiodic sounding reference signal, A-SRS, request, and at least one processor configured to control a transmission of an A-SRS to the BS (101-103) based on a value of the bits for the TPC command and a value of the bits for the A-SRS request, wherein a configuration for a location of the block of bits in the DCI format is received by the UE (111-116) from the BS (101-103).
A method for waking up a radio communications module, RCM , of a station with a wake-up receiver , the method comprising: receiving , by the station , a wake-up signal with the wake-up receiver , the wake-up signal including an identifier of the station ; waking up , by the station , the RCM from a sleeping mode; transmitting , by the station , a second frame if a first frame including a message integrity code, MIC, generated by a cryptographic hash function with values in the first frame and a first cryptographic key is received within a specified time after waking up the RCM and if an integrity of the first frame is verified successfully; and placing , by the station , the RCM into the sleeping mode and the wake-up receiver into an active mode if the first frame is not received within the specified time after waking up the RCM or if the first frame is received within the specified time after waking up the RCM but the integrity of the first frame is not verified successfully, wherein the method further comprises transmitting, by the station , a station RCM wake up latency needed for waking up the RCM to an access point, AP , serving the station . receiving , by the station , a wake-up signal with the wake-up receiver , the wake-up signal including an identifier of the station ; waking up , by the station , the RCM from a sleeping mode; transmitting , by the station , a second frame if a first frame including a message integrity code, MIC, generated by a cryptographic hash function with values in the first frame and a first cryptographic key is received within a specified time after waking up the RCM and if an integrity of the first frame is verified successfully; and placing , by the station , the RCM into the sleeping mode and the wake-up receiver into an active mode if the first frame is not received within the specified time after waking up the RCM or if the first frame is received within the specified time after waking up the RCM but the integrity of the first frame is not verified successfully, wherein the method further comprises transmitting, by the station , a station RCM wake up latency needed for waking up the RCM to an access point, AP , serving the station .
A system for determining a distance to an object comprising: - a solid-state light source arranged for projecting a pattern of discrete spots of laser light towards said object in a sequence of pulses; - a detector comprising a plurality of picture elements, said detector being configured for detecting light representing said pattern of discrete spots as reflected by said object in synchronization with said sequence of pulses; and - processing means configured to calculate said distance to said object as a function of exposure values generated by said picture elements in response to said detected light based on the amount of temporal overlap between the pulse emission window and the arrival of the reflected pulse by applying range gating to said sequence of pulses; wherein said picture elements are configured to generate said exposure values by accumulating, for all of the pulses of said sequence, a first amount of electrical charge representative of a first amount of light reflected by said object during a first predetermined time window overlapping with the pulse emission time window and a second electrical charge representative of a second amount of light reflected by said object during a second predetermined time window , said second predetermined time window occurring after said first predetermined time window ; wherein said system is configured to perform said projecting and said detecting for at least two consecutive sequences of pulses, each of said sequences being operated with a different duration of said first predetermined time window and said second predetermined time window. - a solid-state light source arranged for projecting a pattern of discrete spots of laser light towards said object in a sequence of pulses; - a detector comprising a plurality of picture elements, said detector being configured for detecting light representing said pattern of discrete spots as reflected by said object in synchronization with said sequence of pulses; and - processing means configured to calculate said distance to said object as a function of exposure values generated by said picture elements in response to said detected light based on the amount of temporal overlap between the pulse emission window and the arrival of the reflected pulse by applying range gating to said sequence of pulses;
A method executed on a computing device for facilitating unified communication, UC, sessions over a wireless network, the method comprising: receiving a request for a communication session; determining, from the request, a user profile and a plurality of requested modalities associated with the requested communication session; allocating a bandwidth to the requested communication session such that a Quality of Service, QoS, level based on the user profile and the plurality of requested modalities is maintained during the communication session; and following facilitation of the requested communication session, dynamically modifying the allocation of the bandwidth of the requested communication in response to a change in at least one of: the user profile; one or more of the requested modalities; and a location of a user. receiving a request for a communication session; determining, from the request, a user profile and a plurality of requested modalities associated with the requested communication session; allocating a bandwidth to the requested communication session such that a Quality of Service, QoS, level based on the user profile and the plurality of requested modalities is maintained during the communication session; and following facilitation of the requested communication session, dynamically modifying the allocation of the bandwidth of the requested communication in response to a change in at least one of: the user profile; one or more of the requested modalities; and a location of a user.
A method of manufacturing a fixed window assembly for a vehicle with the assembly having a fixed glass , an encapsulation and a trim portion , and the trim portion having a polymeric base and a decorative member , said method comprising the steps of: mounting the decorative member in a first half of a first molding apparatus ; moving a second half of the first molding apparatus into contact with the first half of the first molding apparatus to form a first mold cavity with the decorative member partially disposed within the first mold cavity ; injecting a polymeric material into the first mold cavity to form the polymeric base within the first mold cavity with the polymeric base moldably bonding to a portion of the decorative member to form the trim portion ; removing the trim portion from the first molding apparatus ; mounting the fixed glass in a first half of a second molding apparatus ; positioning the trim portion in the first half of the second molding apparatus adjacent the fixed glass with the decorative member of the trim portion abutting the first half of the second molding apparatus such that the polymeric base faces outwardly from the first half of the second molding apparatus ; moving a second half of the second molding apparatus into contact with the first half of the second molding apparatus to form a second mold cavity with the fixed glass and the polymeric base facing the second mold cavity ; and injecting a polymeric material into the second mold cavity to form the encapsulation with the encapsulation coupled to a periphery of the fixed glass and simultaneously coupled to the polymeric base to mount the trim portion in the adjacent position to the fixed glass . mounting the decorative member in a first half of a first molding apparatus ; moving a second half of the first molding apparatus into contact with the first half of the first molding apparatus to form a first mold cavity with the decorative member partially disposed within the first mold cavity ; injecting a polymeric material into the first mold cavity to form the polymeric base within the first mold cavity with the polymeric base moldably bonding to a portion of the decorative member to form the trim portion ; removing the trim portion from the first molding apparatus ; mounting the fixed glass in a first half of a second molding apparatus ; positioning the trim portion in the first half of the second molding apparatus adjacent the fixed glass with the decorative member of the trim portion abutting the first half of the second molding apparatus such that the polymeric base faces outwardly from the first half of the second molding apparatus ; moving a second half of the second molding apparatus into contact with the first half of the second molding apparatus to form a second mold cavity with the fixed glass and the polymeric base facing the second mold cavity ; and injecting a polymeric material into the second mold cavity to form the encapsulation with the encapsulation coupled to a periphery of the fixed glass and simultaneously coupled to the polymeric base to mount the trim portion in the adjacent position to the fixed glass .
An agricultural working machine , in particular a tractor, with a drive train comprising at least one propulsion engine as well as a transmission , for operating the working machine and for propelling at least one working assembly for carrying out or supporting agricultural working procedures or processes, as well as a control unit for determining operating parameters of at least the propulsion engine and a display device for visualisation of the determined operating parameters, wherein the control unit is configured, for a current operational status of the working machine , so as to determine values for an efficiency (Eff) and a power (PWR) transmitted by the drive train, to generate a respective current relative value for the efficiency (Eff_rel) and the power (PWR_rel) by a comparison of the determined values with stored and/or generated maximum values for the efficiency (Eff_max) and for the power (PWR_max), and to present these relative values (Eff_rel, PWR_rel) in a comparative representation by means of the display device , characterized in that the display of the relative values for the efficiency (Eff_rel) and for the power (PWR_rel) is carried out abstracted by means of a combined graphical representation, and in that the combined graphical representation is implemented using at least two substantially identical basic geometric shapes , wherein the at least two basic shapes are shown on the display device in a manner which is superimposed on each other.
A vehicle control apparatus comprising: braking force applying device of a hydraulic type, capable of applying a braking force to each of wheels; a hydraulic pressure controlling device capable of controlling a hydraulic pressure of said braking force applying device such that each of the wheels is not locked; a hydraulic pressure increasing or decreasing period changing device capable of changing an increasing or decreasing period of the hydraulic pressure controlled by said hydraulic pressure controlling device; and characterized by a controlling device for controlling said hydraulic pressure increasing or decreasing period changing device so as to make the increasing or decreasing period of the hydraulic pressure corresponding to each of the wheels in contact with a road surface having a high road surface friction coefficient different from a period corresponding to a yaw resonance frequency associated with a vehicle, in a case where a left-right braking force difference is generated due to operation of said hydraulic pressure controlling device. braking force applying device of a hydraulic type, capable of applying a braking force to each of wheels; a hydraulic pressure controlling device capable of controlling a hydraulic pressure of said braking force applying device such that each of the wheels is not locked; a hydraulic pressure increasing or decreasing period changing device capable of changing an increasing or decreasing period of the hydraulic pressure controlled by said hydraulic pressure controlling device; and characterized by a controlling device for controlling said hydraulic pressure increasing or decreasing period changing device so as to make the increasing or decreasing period of the hydraulic pressure corresponding to each of the wheels in contact with a road surface having a high road surface friction coefficient different from a period corresponding to a yaw resonance frequency associated with a vehicle, in a case where a left-right braking force difference is generated due to operation of said hydraulic pressure controlling device.