mhurhangee/patent-ind-claim-en huggingface dataset:
A terminal comprising: a receiving section adapted to: receive, as a downlink assignment, a first downlink control information, DCI, including a first two-bit downlink assignment index, DAI, when a first duplex mode of a cell, where a downlink shared channel is scheduled, is a frequency division duplex, FDD, mode, and receive, as a downlink assignment, a second DCI including a second two-bit DAI when a second duplex mode of the cell, where the downlink shared channel is scheduled, is a time division duplex, TDD, mode; and a control section adapted to control, based on a value of the received first or second DAI, transmission of a transmission acknowledgement signal for the downlink shared channel, wherein the control section is adapted to apply ACK/NACK bundling to the transmission acknowledgement signal. a receiving section adapted to: receive, as a downlink assignment, a first downlink control information, DCI, including a first two-bit downlink assignment index, DAI, when a first duplex mode of a cell, where a downlink shared channel is scheduled, is a frequency division duplex, FDD, mode, and receive, as a downlink assignment, a second DCI including a second two-bit DAI when a second duplex mode of the cell, where the downlink shared channel is scheduled, is a time division duplex, TDD, mode; and receive, as a downlink assignment, a first downlink control information, DCI, including a first two-bit downlink assignment index, DAI, when a first duplex mode of a cell, where a downlink shared channel is scheduled, is a frequency division duplex, FDD, mode, and receive, as a downlink assignment, a second DCI including a second two-bit DAI when a second duplex mode of the cell, where the downlink shared channel is scheduled, is a time division duplex, TDD, mode; and a control section adapted to control, based on a value of the received first or second DAI, transmission of a transmission acknowledgement signal for the downlink shared channel, wherein the control section is adapted to apply ACK/NACK bundling to the transmission acknowledgement signal.
Hydraulic drive unit having a hydraulic control apparatus which has a hydraulic block, a hydraulic tank and a support frame , wherein the hydraulic tank is assembled below the support frame and the hydraulic block is constructed on the support frame above the hydraulic tank, characterized in that the support frame designed as a support plate is formed with edges in such a way that it can support the load received by the hydraulic block and by the hydraulic tank on a statically load-bearing support surface .
A method for controlling a signal strength according to a mode of an electronic device, the method comprising: detecting a connection with an external device at initialization of the electronic device; determining whether the external device is a personal computer (PC) or an on-the-go (OTG) device; determining a mode of the electronic device as a device mode when the external device is the PC and determining the mode of the electronic device as a host mode when the external device is the OTG device; varying a characteristic setting of a register in an input output (IO) buffer as a certain characteristic of a communication signal corresponding to the determined mode, wherein varying the characteristic setting includes varying a first characteristic element, a second characteristic element and a third characteristic element; and communicating the signal at a strength corresponding to the determined characteristic setting, wherein the first characteristic element is a driver strength for applying to a signal transmitted to the external device, the second characteristic element is a pre-emphasis value for applying to the signal transmitted to the external device, and the third characteristic element is a sensitivity value for applying to a signal received from the external device.. detecting a connection with an external device at initialization of the electronic device; determining whether the external device is a personal computer (PC) or an on-the-go (OTG) device; determining a mode of the electronic device as a device mode when the external device is the PC and determining the mode of the electronic device as a host mode when the external device is the OTG device; varying a characteristic setting of a register in an input output (IO) buffer as a certain characteristic of a communication signal corresponding to the determined mode, wherein varying the characteristic setting includes varying a first characteristic element, a second characteristic element and a third characteristic element; and communicating the signal at a strength corresponding to the determined characteristic setting, wherein the first characteristic element is a driver strength for applying to a signal transmitted to the external device, the second characteristic element is a pre-emphasis value for applying to the signal transmitted to the external device, and the third characteristic element is a sensitivity value for applying to a signal received from the external device..
A driving assistance method for predicting an action of a moving object around a host vehicle to control the host vehicle according to the predicted action of the moving object , the method comprising: detecting, by means of an object detection sensor , a behavior of the moving object causing a blind spot area around the host vehicle ; detecting, by means of a controller, the blind spot area ; acquiring, by a map acquisition device , map information indicating a structure of the road on which the host vehicle is traveling; predicting, by the controller, an effective course that the moving object takes when the moving object keeps the behavior and an obstacle is present in the blind spot area ; predicting, by the controller, a primary course that the moving object takes when the obstacle is present in the blind spot area , according to the acquired road structure around the host vehicle ; evaluating, by the controller, a likelihood ratio of the primary course in accordance with a difference between the effective course and the primary course; and predicting, by the controller, the action of the moving object in accordance with the likelihood ratio. detecting, by means of an object detection sensor , a behavior of the moving object causing a blind spot area around the host vehicle ; detecting, by means of a controller, the blind spot area ; acquiring, by a map acquisition device , map information indicating a structure of the road on which the host vehicle is traveling; predicting, by the controller, an effective course that the moving object takes when the moving object keeps the behavior and an obstacle is present in the blind spot area ; predicting, by the controller, a primary course that the moving object takes when the obstacle is present in the blind spot area , according to the acquired road structure around the host vehicle ; evaluating, by the controller, a likelihood ratio of the primary course in accordance with a difference between the effective course and the primary course; and predicting, by the controller, the action of the moving object in accordance with the likelihood ratio.
An inductive sensing system arranged for sensing electromagnetic signals returned from a body responsive to application of electromagnetic excitation signals to said body, the system adapted to detect presence of bleeding in one or more regions of the body, the system comprising: a resonator circuit comprising at least two single loop antennas , and an electronic signal generator coupled to the at least two antennas, for driving the antennas with a drive signal to cause them to generate the electromagnetic excitation signals; and a signal sensing means arranged for sensing, simultaneously with signal generation, said returned signals from the body based on detecting a measure indicative of a respective additional inductance component added to each one of the antennas of the resonator circuit by said returned signals; the system configured to: determine a ratio between the detected measures of the additional inductance components added to each of the two antennas ; determine presence or absence of accumulation of blood based on the determined ratio of the additional inductance components; and generate a data output indicative of a result of the determination. a resonator circuit comprising at least two single loop antennas , and an electronic signal generator coupled to the at least two antennas, for driving the antennas with a drive signal to cause them to generate the electromagnetic excitation signals; and a signal sensing means arranged for sensing, simultaneously with signal generation, said returned signals from the body based on detecting a measure indicative of a respective additional inductance component added to each one of the antennas of the resonator circuit by said returned signals; the system configured to: determine a ratio between the detected measures of the additional inductance components added to each of the two antennas ; determine presence or absence of accumulation of blood based on the determined ratio of the additional inductance components; and generate a data output indicative of a result of the determination. determine a ratio between the detected measures of the additional inductance components added to each of the two antennas ; determine presence or absence of accumulation of blood based on the determined ratio of the additional inductance components; and generate a data output indicative of a result of the determination.
A ceramic green sheet comprising a plurality of substrate forming regions , wherein a barcode or a two-dimensional code being a QR code, a Data Matrix code or a PDF417 code is drawn in a portion of the ceramic green sheet , wherein a recess portion corresponding to a line of the barcode or a cell of the two-dimensional code is present in the portion of the ceramic green sheet where the barcode or the two-dimensional code is drawn, wherein a depth of the recess portion is 10 um or more and 100 um or less, and the barcode or the two-dimensional code is obtained by encoding one or more of the following information (a) to (d), (a) information relating to raw materials used when the ceramic green sheet is produced, (b) information relating to molding conditions of the ceramic green sheet , (c) information relating to a release agent used when a plurality of the ceramic green sheets are stacked, and (d) a serial number. wherein a barcode or a two-dimensional code being a QR code, a Data Matrix code or a PDF417 code is drawn in a portion of the ceramic green sheet , wherein a recess portion corresponding to a line of the barcode or a cell of the two-dimensional code is present in the portion of the ceramic green sheet where the barcode or the two-dimensional code is drawn, wherein a depth of the recess portion is 10 um or more and 100 um or less, and the barcode or the two-dimensional code is obtained by encoding one or more of the following information (a) to (d), (a) information relating to raw materials used when the ceramic green sheet is produced, (b) information relating to molding conditions of the ceramic green sheet , (c) information relating to a release agent used when a plurality of the ceramic green sheets are stacked, and (d) a serial number. (a) information relating to raw materials used when the ceramic green sheet is produced, (b) information relating to molding conditions of the ceramic green sheet , (c) information relating to a release agent used when a plurality of the ceramic green sheets are stacked, and (d) a serial number.
A self-propelled warning device comprising: a bracket ; a warning sign mounted to an upper side of the bracket ; and at least one driving mechanism ; characterized in that the at least one driving mechanism comprises: a supporting leg comprising a receiving portion , wherein the receiving portion defines an accommodating space ; a driving unit accommodated in the accommodating space ; and a wheel drivingly connected to the driving unit , the receiving portion being sheathed in the wheel ; wherein the wheel is driven by the driving unit to rotate around the receiving portion . a bracket ; a warning sign mounted to an upper side of the bracket ; and at least one driving mechanism ; characterized in that the at least one driving mechanism comprises: a supporting leg comprising a receiving portion , wherein the receiving portion defines an accommodating space ; a driving unit accommodated in the accommodating space ; and a wheel drivingly connected to the driving unit , the receiving portion being sheathed in the wheel ; wherein the wheel is driven by the driving unit to rotate around the receiving portion . a supporting leg comprising a receiving portion , wherein the receiving portion defines an accommodating space ; a driving unit accommodated in the accommodating space ; and a wheel drivingly connected to the driving unit , the receiving portion being sheathed in the wheel ; wherein the wheel is driven by the driving unit to rotate around the receiving portion .
A compound of general formula (I), R 1 CFY-O-C(O)-O-[(CX 1 X 2 ) m O] n -R 2 (I) wherein R 1 is hydrogen, alkyl, alkylene, alkylyne, aryl, fluorosubstituted alkyl, or fluorosubstituted aryl; Y is hydrogen, fluorine, or alkyl; R 2 is hydrogen, alkyl, alkylene, alkylyne, aryl, fluorosubstituted alkyl, fluorosubstituted aryl, or -C(O)-OR 2' , wherein R 2' is hydrogen, alkyl, aryl, fluorosubstituted alkyl, fluorosubstituted aryl; X 1 and X 2 are independently hydrogen, fluorine, or alkyl; and m and n are independently 1, 2, 3, 4, 5, 6, 7, 8, 9 or 10. wherein R 1 is hydrogen, alkyl, alkylene, alkylyne, aryl, fluorosubstituted alkyl, or fluorosubstituted aryl; Y is hydrogen, fluorine, or alkyl; R 2 is hydrogen, alkyl, alkylene, alkylyne, aryl, fluorosubstituted alkyl, fluorosubstituted aryl, or -C(O)-OR 2' , wherein R 2' is hydrogen, alkyl, aryl, fluorosubstituted alkyl, fluorosubstituted aryl; X 1 and X 2 are independently hydrogen, fluorine, or alkyl; and m and n are independently 1, 2, 3, 4, 5, 6, 7, 8, 9 or 10.
A method of controlling and removing biofilm on a surface in contact with an aqueous system comprising the step of adding a biofilm-disrupting agent and a biocide to the aqueous system, wherein the biofilm-disrupting agent is polyethyleneimine (PEI) and the biocide is selected from monochloramine, dichloramine, or combinations thereof, wherein the concentration of PEI is from 1 mg/L to 200 mg/L based on the volume of water being treated; wherein the dosage of biocide is between 1 mg/L and 15 mg/L as Cl 2 based on mg of biocide per liter of water being treated; and wherein the weight ratio of biocide to PEI is from 1:1 to 1:80.
A method, implemented by a wireless transmit/receive unit, WTRU, configured to manage a plurality of downlink, DL, bandwidth parts, BWPs, including an initial/default DL BWP, the method comprising: receiving information related to a first channel occupancy time, COT; selecting one or more active DL BWPs for the WTRU among the plurality of DL BWPs for the first COT based on the received information; receiving information indicating an inactivity timer applicable for the one or more active DL BWPs; starting the inactivity timer when the first COT begins; receiving first downlink control information, DCI, on the one or more active DL BWPs during the first COT; pausing the inactivity timer when the first COT ends; starting the inactivity timer when a second COT begins; deactivating the one or more active DL BWPs and activating the default BWP based on the inactivity timer expiring during the second COT; and after activating the default BWP, receiving second DCI on the default BWP during a third COT, wherein the second COT is later than the first COT, and the third COT is later than the second COT. receiving information related to a first channel occupancy time, COT; selecting one or more active DL BWPs for the WTRU among the plurality of DL BWPs for the first COT based on the received information; receiving information indicating an inactivity timer applicable for the one or more active DL BWPs; starting the inactivity timer when the first COT begins; receiving first downlink control information, DCI, on the one or more active DL BWPs during the first COT; pausing the inactivity timer when the first COT ends; starting the inactivity timer when a second COT begins; deactivating the one or more active DL BWPs and activating the default BWP based on the inactivity timer expiring during the second COT; and after activating the default BWP, receiving second DCI on the default BWP during a third COT, wherein the second COT is later than the first COT, and the third COT is later than the second COT.
A wearing-type movement assistance device comprising: a frame to be worn on an upper limb of a wearer; a drive unit provided in each of joints of the frame; a biomedical signal detection unit that is configured to detect a biological potential signal of the wearer; a joint angle detection unit that is configured to detect an angle of each joint; a control unit that is configured to control the drive unit based on the biological potential signal and the angle of each joint, wherein the frame includes a vertical frame that extends in a vertical direction, a shoulder frame that is laterally provided in a shoulder width direction from an upper end of the vertical frame , a first arm frame having one end coupled to an end of the shoulder frame via a shoulder joint unit, and a second arm frame having one end coupled to the other end of the first arm frame via an intermediate joint unit and the other end connected to an elbow joint unit, and the shoulder joint unit, the intermediate joint unit, and the elbow joint unit being provided with the drive unit, wherein the shoulder joint unit has a horizontal joint and a sagittal plane joint, the sagittal plane joint is provided with the drive unit, and the horizontal joint is a passive joint, wherein the intermediate joint unit has a horizontal joint and a sagittal plane joint, the sagittal plane joint is provided with the drive unit, and the horizontal joint is a passive joint, wherein the elbow joint unit has a sagittal plane joint, and the sagittal plane joint is provided with the drive unit. a frame to be worn on an upper limb of a wearer; a drive unit provided in each of joints of the frame; a biomedical signal detection unit that is configured to detect a biological potential signal of the wearer; a joint angle detection unit that is configured to detect an angle of each joint; a control unit that is configured to control the drive unit based on the biological potential signal and the angle of each joint, wherein the frame includes a vertical frame that extends in a vertical direction, a shoulder frame that is laterally provided in a shoulder width direction from an upper end of the vertical frame , a first arm frame having one end coupled to an end of the shoulder frame via a shoulder joint unit, and a second arm frame having one end coupled to the other end of the first arm frame via an intermediate joint unit and the other end connected to an elbow joint unit, and the shoulder joint unit, the intermediate joint unit, and the elbow joint unit being provided with the drive unit, wherein the shoulder joint unit has a horizontal joint and a sagittal plane joint, the sagittal plane joint is provided with the drive unit, and the horizontal joint is a passive joint, wherein the intermediate joint unit has a horizontal joint and a sagittal plane joint, the sagittal plane joint is provided with the drive unit, and the horizontal joint is a passive joint, wherein the elbow joint unit has a sagittal plane joint, and the sagittal plane joint is provided with the drive unit.
A vane assembly , comprising: a vane ; an outer shroud segment disposed at a radially outer end of the vane ; an inner shroud defining an aperture , wherein a radially inner end of the vane is disposed within the aperture ; and characterised by : a flexible material disposed within the aperture and between the vane and the inner shroud ; and by the vane comprising a composite material, wherein the outer shroud segment comprises the same composite material as the vane . a vane ; an outer shroud segment disposed at a radially outer end of the vane ; an inner shroud defining an aperture , wherein a radially inner end of the vane is disposed within the aperture ; and characterised by : a flexible material disposed within the aperture and between the vane and the inner shroud ; and by the vane comprising a composite material, wherein the outer shroud segment comprises the same composite material as the vane . a flexible material disposed within the aperture and between the vane and the inner shroud ; and by the vane comprising a composite material, wherein the outer shroud segment comprises the same composite material as the vane .
A braking system , comprising at least one inductor ; and an electrically conductive disc disposed proximate to the at least one inductor , characterized by a converter ; a capacitor coupled to an output of the converter ; a bridge coupled in parallel to the capacitor ; the inductor coupled to the bridge ; and a switching unit controller configured to command the converter to convert a level of voltage supplied therefrom from a first voltage level to a second voltage level and thereby increase energy stored in the capacitor , and, upon receiving a brake command, commanding the bridge to ramp-up electrical current in the at least one inductor so as to induce an electromagnetic force on the electrically conductive disc .