mhurhangee/patent-ind-claim-en huggingface dataset:
A method implemented in a Sidelink, SL, User Equipment, UE, (706-1), the method comprising: detecting a trigger for sending a Radio Resource Control, RRC, information, wherein the RRC information comprises one of: • a request for an RRC procedure related to one or more SL-related communications; and • a message that both requests the RRC procedure related to the one or more SL-related configurations and comprises the information that informs the network about the one or more changes made by the SL UE (706-1) related to the one or more SL communications; and sending the RRC information to a network node; wherein the RRC procedure comprises either an SL configuration procedure or an SL configuration update procedure. detecting a trigger for sending a Radio Resource Control, RRC, information, wherein the RRC information comprises one of: • a request for an RRC procedure related to one or more SL-related communications; and • a message that both requests the RRC procedure related to the one or more SL-related configurations and comprises the information that informs the network about the one or more changes made by the SL UE (706-1) related to the one or more SL communications; and • a request for an RRC procedure related to one or more SL-related communications; and • a message that both requests the RRC procedure related to the one or more SL-related configurations and comprises the information that informs the network about the one or more changes made by the SL UE (706-1) related to the one or more SL communications; and sending the RRC information to a network node; wherein the RRC procedure comprises either an SL configuration procedure or an SL configuration update procedure.
A method performed by a node in a wireless communications network for improving multi-user transmissions in the wireless communications network , the method comprising determining channel estimates based on demodulation reference signals, or a data symbol in at least one Physical Resource Block, PRB, of the latest received subframe; and being characterized by the following steps: determining a phase difference and an amplitude difference between Resource Elements, REs, in a first set of contiguous REs in the at least one PRB of the latest received subframe based on the obtained channel estimates; and pre-equalizing at least one channel within at least one PRB of a transmission subframe by aligning the phase and amplitude of REs in a second set of contiguous REs therein based on the determined phase and amplitude differences. determining channel estimates based on demodulation reference signals, or a data symbol in at least one Physical Resource Block, PRB, of the latest received subframe; and being characterized by the following steps: determining a phase difference and an amplitude difference between Resource Elements, REs, in a first set of contiguous REs in the at least one PRB of the latest received subframe based on the obtained channel estimates; and pre-equalizing at least one channel within at least one PRB of a transmission subframe by aligning the phase and amplitude of REs in a second set of contiguous REs therein based on the determined phase and amplitude differences.
A vehicle body structure comprising: a main floor panel which has a backbone portion bulging toward a vehicle interior in a tunnel shape; a rear floor panel which forms a floor continuous with a vehicle rear of the main floor panel ; a tank which is provided below the rear floor panel and stores an additive to be supplied to exhaust; and a muffler which is connected to an exhaust pipe and disposed in parallel with the tank in a vehicle width direction, wherein a passage portion between the tank and the muffler is disposed at a position displaced from a position opposite to the backbone portion to a left or right direction with respect to a center in the vehicle width direction so that the passage portion is not positioned directly rearward of the backbone portion , and wherein one of the tank and the muffler which is positioned at a side opposite to a displacement direction of the passage portion includes a notched portion having an expanded shape from the passage portion toward a backbone portion side. a main floor panel which has a backbone portion bulging toward a vehicle interior in a tunnel shape; a rear floor panel which forms a floor continuous with a vehicle rear of the main floor panel ; a tank which is provided below the rear floor panel and stores an additive to be supplied to exhaust; and a muffler which is connected to an exhaust pipe and disposed in parallel with the tank in a vehicle width direction, wherein a passage portion between the tank and the muffler is disposed at a position displaced from a position opposite to the backbone portion to a left or right direction with respect to a center in the vehicle width direction so that the passage portion is not positioned directly rearward of the backbone portion , and wherein one of the tank and the muffler which is positioned at a side opposite to a displacement direction of the passage portion includes a notched portion having an expanded shape from the passage portion toward a backbone portion side.
A method for amplifying a nucleic acid template, comprising: a) forming a reaction mixture by combining the nucleic acid template, a polymerase, a recombinase, a first primer, a second primer, and an RNase H enzyme, wherein the first primer binds to a first primer binding site on the nucleic acid template and the second primer binds to a second primer binding site on the nucleic acid template, wherein one or both of the first primer and the second primer is not extendable by the polymerase due to a blocking moiety, and wherein the non-extendable primer comprises a 5' domain and a 3' domain separated by a ribonucleotide that is cleavable by the RNase H enzyme, wherein the 5' domain is at least 10 nucleotides in length and the 3' domain is 10 to 30 nucleotides in length; and b) incubating the reaction mixture under substantially isothermal amplification conditions, between 20°C and 50°C for 10 minutes to 120 minutes for recombinase polymerase amplification (RPA), thereby amplifying the nucleic acid template. a) forming a reaction mixture by combining the nucleic acid template, a polymerase, a recombinase, a first primer, a second primer, and an RNase H enzyme, wherein the first primer binds to a first primer binding site on the nucleic acid template and the second primer binds to a second primer binding site on the nucleic acid template, wherein one or both of the first primer and the second primer is not extendable by the polymerase due to a blocking moiety, and wherein the non-extendable primer comprises a 5' domain and a 3' domain separated by a ribonucleotide that is cleavable by the RNase H enzyme, wherein the 5' domain is at least 10 nucleotides in length and the 3' domain is 10 to 30 nucleotides in length; and b) incubating the reaction mixture under substantially isothermal amplification conditions, between 20°C and 50°C for 10 minutes to 120 minutes for recombinase polymerase amplification (RPA), thereby amplifying the nucleic acid template.
Fill level measuring device with a transit time correction, comprising: a transmitting and receiving unit for emitting a measuring signal in direction of a surface of a filling material and for receiving the measuring signal reflected at the surface of the filling material and at a reference reflection point ; an evaluation unit for determining a process parameter at the location of the reference reflection point using the measuring signal reflected at the reference reflection point and known physical properties of the filling material or the atmosphere ; wherein the evaluation unit is further configured to determine a correction factor for a transit time, determined by the fill level measuring device, of the measuring signal reflected at the surface of the filling material using the process parameter, the known physical properties of the filling material or the atmosphere and a deviation in the process parameter. a transmitting and receiving unit for emitting a measuring signal in direction of a surface of a filling material and for receiving the measuring signal reflected at the surface of the filling material and at a reference reflection point ; an evaluation unit for determining a process parameter at the location of the reference reflection point using the measuring signal reflected at the reference reflection point and known physical properties of the filling material or the atmosphere ; wherein the evaluation unit is further configured to determine a correction factor for a transit time, determined by the fill level measuring device, of the measuring signal reflected at the surface of the filling material using the process parameter, the known physical properties of the filling material or the atmosphere and a deviation in the process parameter.
An apparatus for steering and driving a concrete screed having a frame and a screed head secured thereto comprising: a plurality of spaced drive wheels each rotatably and pivotably secured to said frame at a plurality of points; a steering member coupled to a one of said drive wheels for controlling the directional orientation thereof; wherein the apparatus has a single rear drive wheel coupled to said steering member and a pair of spaced front drive wheels , characterized in that the apparatus comprises: a steering linkage coupling said single rear drive wheel to said spaced front drive wheels whereby said drive wheels pivot in unison; and a removable steering linkage decoupler for disconnecting said steering linkage between said front and rear drive wheels whereby said rear wheel pivots responsive to said steering member and said front wheels pivot freely. a plurality of spaced drive wheels each rotatably and pivotably secured to said frame at a plurality of points; a steering member coupled to a one of said drive wheels for controlling the directional orientation thereof; wherein the apparatus has a single rear drive wheel coupled to said steering member and a pair of spaced front drive wheels , characterized in that the apparatus comprises: a steering linkage coupling said single rear drive wheel to said spaced front drive wheels whereby said drive wheels pivot in unison; and a removable steering linkage decoupler for disconnecting said steering linkage between said front and rear drive wheels whereby said rear wheel pivots responsive to said steering member and said front wheels pivot freely. a steering linkage coupling said single rear drive wheel to said spaced front drive wheels whereby said drive wheels pivot in unison; and a removable steering linkage decoupler for disconnecting said steering linkage between said front and rear drive wheels whereby said rear wheel pivots responsive to said steering member and said front wheels pivot freely.
Process for the preparation of a compound of the formula (V): wherein R is C 1-6 alkyl, C 1-6 alkoxyphenyl-C x H 2x - or phenyl-C x H 2x -, wherein x is an integer selected from 1 to 6; comprising the following steps: Step a) Conversion of carboxy group of a compound of formula (III) to carbamate to form a compound of formula (IV) wherein R is as defined above; Step b) Amination of a compound of formula (IV) to form said compound of formula (V) Step a) Conversion of carboxy group of a compound of formula (III) to carbamate to form a compound of formula (IV) wherein R is as defined above; Step b) Amination of a compound of formula (IV) to form said compound of formula (V)
A helical antenna system, comprising a printed circuit board and a radiation body arranged on the printed circuit board , wherein the radiation body comprises at least one main helical arm and at least one parasitic helical arm , each main helical arm corresponds to at least one parasitic helical arm , each main helical arm is arranged in parallel with and is spaced with its corresponding parasitic helical arm , wherein, a first terminal of each main helical arm is electrically connected to a first terminal of the corresponding parasitic helical arm , to form a feed output terminal of the helical antenna system; a second terminal of the main helical arm and a second terminal of the parasitic helical arm are both in a floating state; and a length of the parasitic helical arm is greater than a length of its corresponding main helical arm , and characterized in that : a helix angle (β) of a part of the parasitic helical arm exceeding its corresponding main helical arm is less than a helix angle (α) of a part of the parasitic helical arm not exceeding its corresponding main helical arm . a first terminal of each main helical arm is electrically connected to a first terminal of the corresponding parasitic helical arm , to form a feed output terminal of the helical antenna system; a second terminal of the main helical arm and a second terminal of the parasitic helical arm are both in a floating state; and a length of the parasitic helical arm is greater than a length of its corresponding main helical arm , and characterized in that : a helix angle (β) of a part of the parasitic helical arm exceeding its corresponding main helical arm is less than a helix angle (α) of a part of the parasitic helical arm not exceeding its corresponding main helical arm .
A control system for a magnetic resonance imaging system , the control system comprising: - a control module configured to control the magnetic resonance imaging system to perform an examination comprising multiple scans; - a monitor module configured to monitor a sleep state of a patient on the basis of sensor data received from a patient state sensing system of the magnetic resonance imaging system; and - a sequencing module configured dynamically to determine at least part of a sequence in which the control module is to control the magnetic resonance imaging system to perform the scans, the determination being made according to the monitored sleep state of the patient and according to a sleep-appropriateness score associated with one or more of the scans. - a control module configured to control the magnetic resonance imaging system to perform an examination comprising multiple scans; - a monitor module configured to monitor a sleep state of a patient on the basis of sensor data received from a patient state sensing system of the magnetic resonance imaging system; and - a sequencing module configured dynamically to determine at least part of a sequence in which the control module is to control the magnetic resonance imaging system to perform the scans, the determination being made according to the monitored sleep state of the patient and according to a sleep-appropriateness score associated with one or more of the scans.
Portable apparatus having at least one rechargeable battery pack and one cleaning device , wherein the at least one rechargeable battery pack is designed for supplying electrical power to the cleaning device , further comprising at least one first interface for electrically and mechanically receiving and connecting the at least one rechargeable battery pack and also comprising a control unit (μC) and a user interface , wherein a second interface is provided, by means of which at least one electric machine tool can be supplied with electrical power by the at least one rechargeable battery pack and can be operated by the user interface and is connected to the control unit (μC) for exchanging data, characterized in that at least two first interfaces are provided for receiving in each case one rechargeable battery pack , which two first interfaces are designed to interconnect the rechargeable battery packs electrically in series and/or electrically in parallel.
A semiconductor optical modulation element of a Mach-Zehnder type that performs modulation of light using a refractive index modulation region where a refractive index of the light guided to an optical waveguide is modulated and an input and output region where multiplexing/demultiplexing of the light split in the refractive index modulation region is performed, in the refractive index modulation region, the optical waveguide, is formed of a semiconductor multilayer structure including at least an n-type clad layer , an i core layer , a p-type clad layer , and an n-type clad layer successively on a substrate surface equivalent to a plane of a sphalerite-type semi-insulating semiconductor crystal substrate from a top layer toward the substrate surface, the n-type clad layer is subjected to etching in a direction equivalent to a plane direction in a Mach-Zehnder waveguide shape, and thus is formed so as to have a ridge shape in the inverted mesa direction, a capacity loaded electrode is provided on the n-type clad layer , and characterized in that said p-type clad layer is in a slab shape which is wider than the ridge shape.
Device for closing a container with a container cap , preferably for closing a beverage container with a container cap in a beverage filling system, comprising a transport unit , which can be moved in a transport direction (T), with a capping unit , which can be moved on the transport unit transversely to the transport direction (T), for selectively applying a first type of cap to a container opening of a first type of container and a second type of cap to a container opening of a second type of container , wherein a guide curve for determining a position of the capping unit transversely to the transport direction (T) is engaged with the capping unit , characterised in that the guide curve comprises a first guide section for guiding the capping unit for applying the first type of cap and a second guide section located downstream of the first guide section in the transport direction (T) for guiding the capping unit for applying the second type of cap .
A computer-implemented method for determining activity, the method comprising: receiving, from an inertial measurement sensor, a plurality of inertial measurements in three dimensions for a time period; calculating statistical data derived from the inertial measurements; providing the plurality of inertial measurements and the statistical data to a predictive model; receiving, from the predictive model, a determined activity from a plurality of predefined activities based on the inertial measurements, wherein the plurality of predefined activities comprises: (i) asleep, (ii) stirring, and (iii) settled, wherein stirring represents movement more than a first threshold amount, and settled represents movement less than a second threshold amount; determining, based on the predictive model, a plurality of activities, each corresponding to a different one of a plurality of time periods; adjusting an activity from the plurality of activities by: when the activity is stirring in a predetermined time period between time periods whose determined activity is asleep, changing the activity to asleep, and/or when the activity is settled in a predetermined time period before a time period whose determined activity is asleep, changing the activity to asleep; and providing the determined activity to an output device. receiving, from an inertial measurement sensor, a plurality of inertial measurements in three dimensions for a time period; calculating statistical data derived from the inertial measurements; providing the plurality of inertial measurements and the statistical data to a predictive model; receiving, from the predictive model, a determined activity from a plurality of predefined activities based on the inertial measurements, wherein the plurality of predefined activities comprises: (i) asleep, (ii) stirring, and (iii) settled, wherein stirring represents movement more than a first threshold amount, and settled represents movement less than a second threshold amount; determining, based on the predictive model, a plurality of activities, each corresponding to a different one of a plurality of time periods; adjusting an activity from the plurality of activities by: when the activity is stirring in a predetermined time period between time periods whose determined activity is asleep, changing the activity to asleep, and/or when the activity is settled in a predetermined time period before a time period whose determined activity is asleep, changing the activity to asleep; and when the activity is stirring in a predetermined time period between time periods whose determined activity is asleep, changing the activity to asleep, and/or when the activity is settled in a predetermined time period before a time period whose determined activity is asleep, changing the activity to asleep; and providing the determined activity to an output device.
A method for mass spectrometric analysis using a device for mass spectrometric analysis of substances present in liquid and gaseous samples, comprising the steps of: a) introducing at least one substance from a liquid sample into a first flow element of a device by volatilizing the at least one substance from the liquid sample at a liquid-impermeable and gas-permeable membrane and introducing at least one substance of a gaseous sample into a second flow element of the device , wherein the first flow element is different from the second flow element , so that after introducing the at least one substance into the first and second flow elements the at least one substance is present gaseously in the respective flow element, and b) mass spectrometric analysis of the at least one substance present gaseously in step a) from the liquid sample and of the at least one substance present gaseously in step a) from the gaseous sample. a) introducing at least one substance from a liquid sample into a first flow element of a device by volatilizing the at least one substance from the liquid sample at a liquid-impermeable and gas-permeable membrane and introducing at least one substance of a gaseous sample into a second flow element of the device , wherein the first flow element is different from the second flow element , so that after introducing the at least one substance into the first and second flow elements the at least one substance is present gaseously in the respective flow element, and b) mass spectrometric analysis of the at least one substance present gaseously in step a) from the liquid sample and of the at least one substance present gaseously in step a) from the gaseous sample.
A power supply trunk line routing structure (100; 200; 300) for a vehicle, the power supply trunk line routing structure comprising: a first power supply trunk line extending in a vehicle front and rear direction along a right-side part of the vehicle in a vehicle width direction; a second power supply trunk line extending in the vehicle front and rear direction along a left-side part of the vehicle in the vehicle width direction; and a third power supply trunk line connected to a predetermined power supply device, the third power supply trunk line connecting the first power supply trunk line and the second power supply trunk line at a front part of the vehicle, characterized in that each of the first power supply trunk line and the second power supply trunk line includes a flat strip-shaped flat wiring material extending in a straight line and using a steel material at least partially having an electrically conductive property. a first power supply trunk line extending in a vehicle front and rear direction along a right-side part of the vehicle in a vehicle width direction; a second power supply trunk line extending in the vehicle front and rear direction along a left-side part of the vehicle in the vehicle width direction; and a third power supply trunk line connected to a predetermined power supply device, the third power supply trunk line connecting the first power supply trunk line and the second power supply trunk line at a front part of the vehicle, characterized in that each of the first power supply trunk line and the second power supply trunk line includes a flat strip-shaped flat wiring material extending in a straight line and using a steel material at least partially having an electrically conductive property.