mhurhangee/patent-ind-claim-en huggingface dataset:
A vehicle-mounted control device for controlling the operation of a vehicle-mounted device, comprising: a semiconductor circuit configured to output an output value used for the control; a reference signal generation unit configured to generate a reference signal as an input value to the semiconductor circuit ; a comparison unit configured to determine a difference between a first output value output from the semiconductor circuit upon input of the reference signal to the semiconductor circuit by the reference signal generation unit before shipment of the vehicle-mounted control device, and a second output value output from the semiconductor circuit upon input of the reference signal to the semiconductor circuit by the reference signal generation unit at a time point after activation of the vehicle-mounted control device after a time point at which the semiconductor circuit outputs the first output value , and a correction unit configured to correct an output value from the semiconductor circuit at a time point after activation of the vehicle-mounted control device on the basis of the difference determined by the comparison unit . a semiconductor circuit configured to output an output value used for the control; a reference signal generation unit configured to generate a reference signal as an input value to the semiconductor circuit ; a comparison unit configured to determine a difference between a first output value output from the semiconductor circuit upon input of the reference signal to the semiconductor circuit by the reference signal generation unit before shipment of the vehicle-mounted control device, and a second output value output from the semiconductor circuit upon input of the reference signal to the semiconductor circuit by the reference signal generation unit at a time point after activation of the vehicle-mounted control device after a time point at which the semiconductor circuit outputs the first output value , and a correction unit configured to correct an output value from the semiconductor circuit at a time point after activation of the vehicle-mounted control device on the basis of the difference determined by the comparison unit .
A bicycle seatpost, in particular for racing bicycles, comprising a support element having a connecting member for connection to a bicycle saddle, a holding member for fixing inside a seat tube of a bicycle frame, and a bending member arranged between the connecting member and the holding member , a damping element connected to the support element , characterized by a shaped element being shell-shaped and having a U-shaped cross-section, which at least partially encloses the damping element . a support element having a connecting member for connection to a bicycle saddle, a holding member for fixing inside a seat tube of a bicycle frame, and a bending member arranged between the connecting member and the holding member , a damping element connected to the support element , characterized by a shaped element being shell-shaped and having a U-shaped cross-section, which at least partially encloses the damping element .
A method of Timing Advance, TA, handling for sidelink ,SL,-assisted positioning of a first User Equipment, UE, the method comprising: determining the first UE is configured to transmit an SL Positioning Reference Signal, SL-PRS, to a second UE to perform the SL-assisted positioning; determining a length of time for a guard period based on a configuration of the first UE for transmitting the SL-PRS, wherein the guard period comprises a period of time during which the SL-PRS is transmitted by the first UE; and sending, to a serving Transmission Reception Point, TRP, of the first UE, a message indicating the guard period and comprising a TA-related request, wherein the TA-related request includes: a request to postpone applying a TA command received by the first UE until after the guard period, or a request for the serving TRP not to send a TA command to the first UE during the guard period. determining the first UE is configured to transmit an SL Positioning Reference Signal, SL-PRS, to a second UE to perform the SL-assisted positioning; determining a length of time for a guard period based on a configuration of the first UE for transmitting the SL-PRS, wherein the guard period comprises a period of time during which the SL-PRS is transmitted by the first UE; and sending, to a serving Transmission Reception Point, TRP, of the first UE, a message indicating the guard period and comprising a TA-related request, wherein the TA-related request includes: a request to postpone applying a TA command received by the first UE until after the guard period, or a request for the serving TRP not to send a TA command to the first UE during the guard period. a request to postpone applying a TA command received by the first UE until after the guard period, or a request for the serving TRP not to send a TA command to the first UE during the guard period.
A telescopic guide for a drawer of a piece of furniture comprising: • a base support which can be fixed to the side of said piece of furniture, said base support comprising a pair of base rails which include an upper base rail and a lower base rail , • a floating support comprising a pair of floating rails which include an upper floating rail and a lower floating rail , • at least three grooved rollers which are interposed between said pair of base rails and said pair of floating rails , said grooved rollers having respective horizontal rolling axes (H) which are perpendicular to a sliding direction (X) of said telescopic guide , each of said base rails and of said floating rails comprising a sliding surface which extends in parallel with said sliding direction (X), each of said grooved rollers comprising a peripheral groove which is configured to match to a respective sliding surface and in contact therewith so as to limit lateral play between said peripheral groove and said respective sliding surface . • a base support which can be fixed to the side of said piece of furniture, said base support comprising a pair of base rails which include an upper base rail and a lower base rail , • a floating support comprising a pair of floating rails which include an upper floating rail and a lower floating rail , • at least three grooved rollers which are interposed between said pair of base rails and said pair of floating rails , said grooved rollers having respective horizontal rolling axes (H) which are perpendicular to a sliding direction (X) of said telescopic guide , each of said base rails and of said floating rails comprising a sliding surface which extends in parallel with said sliding direction (X), each of said grooved rollers comprising a peripheral groove which is configured to match to a respective sliding surface and in contact therewith so as to limit lateral play between said peripheral groove and said respective sliding surface .
A composition for use in a method of treating Crohn's disease and ulcerative colitis or for use in a method of treating diarrhea and constipation, wherein the composition is administered orally, wherein the composition comprises live bacteria, and wherein the live bacteria belong to a strain selected from the group consisting of Lactobacillus paracasei LMG P-21380, Lactobacillus plantarum LMG P-21021, Bifidobacterium lactis LMG P-21384, and Bifidobacterium breve DSM 16604, as inducer of Interleukin-10.
A process for the assembly of an epicyclic or planetary gear train from at least one pivot and a planet gear carrier comprising one or more bores , each of the bores being intended to receive a pivot , the process comprising the following steps: a) measuring the position of a real axis of rotation of each of said at least one pivot and the position of a real axis of rotation of each of said one or more bores of the carrier ; b) dividing each of said pivots into n angular sectors i l ... i q ... i n extending about a theoretical axis of rotation of said pivot and dividing each of said bores of the carrier into k angular sectors j 1 ...j l ...j k extending about the theoretical axis of said bore ; c) for each pivot , defining a vector V oriented from the theoretical axis to the real axis , and identifying the angular sector i q including vector - V ; d) for each bore , defining a vector U oriented from the theoretical axis to the real axis , and identifying the angular sector j l including vector U ; e) for each bore of the carrier , mounting a pivot such that for each assembly the identified angular sectors j l and i q are superimposed. a) measuring the position of a real axis of rotation of each of said at least one pivot and the position of a real axis of rotation of each of said one or more bores of the carrier ; b) dividing each of said pivots into n angular sectors i l ... i q ... i n extending about a theoretical axis of rotation of said pivot and dividing each of said bores of the carrier into k angular sectors j 1 ...j l ...j k extending about the theoretical axis of said bore ; c) for each pivot , defining a vector V oriented from the theoretical axis to the real axis , and identifying the angular sector i q including vector - V ; d) for each bore , defining a vector U oriented from the theoretical axis to the real axis , and identifying the angular sector j l including vector U ; e) for each bore of the carrier , mounting a pivot such that for each assembly the identified angular sectors j l and i q are superimposed.
A flushing system for a catheter , comprising a supply line having a pump portion, a discharge line having a pump portion, and a pump , characterized in that the diameter d2 of the pump portion of the discharge line is smaller than the diameter d1 of the pump portion of the supply line , the pump cooperates with the pump portion of the supply line in order to supply flushing fluid to the catheter , the pump cooperates with the pump portion of the discharge line in order to discharge flushing fluid from the catheter , a support element to which the supply line and the discharge line are fastened being provided, the support element extending along a main plane of extension, the supply line and the discharge line extending through the support element in this main plane of extension, the support element having an opening , and the pump portions of the supply line and discharge line extending along the opening , the pump being designed as a linear peristaltic pump, the pump comprising a camshaft having a number of cams, each cam being motion-coupled to one finger in each case, each finger cooperating with the supply line and discharge line in order to convey fluid, and the fingers sequentially compressing the supply line and discharge line in order to generate a fluid flow. characterized in that the diameter d2 of the pump portion of the discharge line is smaller than the diameter d1 of the pump portion of the supply line , the pump cooperates with the pump portion of the supply line in order to supply flushing fluid to the catheter , the pump cooperates with the pump portion of the discharge line in order to discharge flushing fluid from the catheter , a support element to which the supply line and the discharge line are fastened being provided, the support element extending along a main plane of extension, the supply line and the discharge line extending through the support element in this main plane of extension, the support element having an opening , and the pump portions of the supply line and discharge line extending along the opening , the pump being designed as a linear peristaltic pump, the pump comprising a camshaft having a number of cams, each cam being motion-coupled to one finger in each case, each finger cooperating with the supply line and discharge line in order to convey fluid, and the fingers sequentially compressing the supply line and discharge line in order to generate a fluid flow.
A method of delivering a fluid composition from a thermally-activated microfluidic ejection element, the thermally-activated microfluidic ejection element comprising a plurality of nozzles , a thermal actuator associated with each nozzle and a plurality of memory cells, the method comprising: connecting the thermally-activated microfluidic element to a power source; delivering a first electrical pulse to a first input that selects a thermal actuator from a pre-determined sequence, wherein the first input is in electrical communication with a ripple counter and an address decoder, and wherein the pre-determined sequence is defined by the physical layout of the thermally-activated microfluidic element; supplying a second electrical pulse of a well-defined width to a second input to activate the selected thermal actuator; and ejecting a fluid composition from the nozzle associated with the selected thermal actuator; and reading a memory bit from a sequence of memory bits, wherein the value of the memory bit is presented on an output pin; and writing a memory bit currently selected from a sequence of memory bits, and wherein only two types of signals in an alternating sequence are used and wherein the first electrical pulse is applied to a first signal and the second electrical pulse is applied to a second signal and wherein said first and second signal are used in an alternating sequence. connecting the thermally-activated microfluidic element to a power source; delivering a first electrical pulse to a first input that selects a thermal actuator from a pre-determined sequence, wherein the first input is in electrical communication with a ripple counter and an address decoder, and wherein the pre-determined sequence is defined by the physical layout of the thermally-activated microfluidic element; supplying a second electrical pulse of a well-defined width to a second input to activate the selected thermal actuator; and ejecting a fluid composition from the nozzle associated with the selected thermal actuator; and reading a memory bit from a sequence of memory bits, wherein the value of the memory bit is presented on an output pin; and writing a memory bit currently selected from a sequence of memory bits, and wherein only two types of signals in an alternating sequence are used and wherein the first electrical pulse is applied to a first signal and the second electrical pulse is applied to a second signal and wherein said first and second signal are used in an alternating sequence.
A cooling fan with a fan wheel , an input shaft and a control unit for setting a rotational speed of the fan wheel in a range of rotational speeds of between zero and an input rotational speed of the input shaft , wherein the control unit is configured to permit a rotational speed of the fan wheel at an upper threshold (D') and a lower threshold of the rotational speed range for each input rotational speed and, however, only to permit a median range (M) of rotational speeds of the fan wheel when the input rotational speed is below a threshold rotational speed (n Thr ), wherein a clutch has a drive side connected to the input shaft and an output side connected to the fan wheel and which can be controlled by the control unit in order to either take up an open position corresponding to the lower threshold of the rotational speed range, a closed position corresponding to the upper threshold (D') of the rotational speed range, or an intermediate position which differ in the power transmitted to the output side for a given rotational speed of the drive side, wherein the clutch is a viscous clutch, characterized in that the control unit is configured such that, in the case in which the input rotational speed lies above the threshold rotational speed (n Thr ), to prevent a shift of the fan wheel from an operation at a rotational speed above the median range (M) to an operation at a rotational speed below the median range (M), wherein the control unit is configured to permit the open position and the closed position at each rotational speed, but only to permit a median range of positions when the input rotational speed lies below the threshold rotational speed (n Thr ), and to prevent the shift into the rotational speed range below the median range (M), in that it prevents a shift of the clutch from a position which is more closed than the positions of the median range, into a position which is more open than the positions of the median range.
Device (2; 102; 202) for regulating the pressure of a compressed gas, comprising: - a body (4; 104; 204) with a gas inlet (6; 106; 206), a gas outlet (8; 108; 208) and a gas passage (10; 110; 210) fluidly interconnecting said inlet and outlet; - a mobile element (26; 126; 226) biased by a main spring (28; 128; 228) and carrying a shutter (30; 130; 230) cooperating with a seat (16.2; 116; 216) in the gas passage (10; 110; 210), said shutter and said seat forming a regulating valve, said mobile element (26; 126; 226) delimiting with the body (4; 104 204) a regulating chamber (40; 140; 240) downstream of said regulating valve and being configured to regulate the gas pressure in said chamber by varying a flow section in said valve dependent on said pressure; - a shut-off valve (12; 112; 212) with a shutter (14; 114; 214) and a seat (16.1; 116; 216) in the gas passage (10; 110; 210) upstream of the regulating valve; - an actuation assembly (46, 48, 50, 52; 146, 148, 150; 246, 248, 250) of the shut-off valve (12; 112; 212); characterized in that the shutter (14; 114; 214) of the shut-off valve (12; 112; 212) comprises a stem (14.3) extending through the mobile element (26; 126; 226) and the shutter (30; 130; 230) of said element, for cooperating with the actuation assembly (46, 48, 50, 52; 146, 148, 150; 246, 248, 250). - a body (4; 104; 204) with a gas inlet (6; 106; 206), a gas outlet (8; 108; 208) and a gas passage (10; 110; 210) fluidly interconnecting said inlet and outlet; - a mobile element (26; 126; 226) biased by a main spring (28; 128; 228) and carrying a shutter (30; 130; 230) cooperating with a seat (16.2; 116; 216) in the gas passage (10; 110; 210), said shutter and said seat forming a regulating valve, said mobile element (26; 126; 226) delimiting with the body (4; 104 204) a regulating chamber (40; 140; 240) downstream of said regulating valve and being configured to regulate the gas pressure in said chamber by varying a flow section in said valve dependent on said pressure; - a shut-off valve (12; 112; 212) with a shutter (14; 114; 214) and a seat (16.1; 116; 216) in the gas passage (10; 110; 210) upstream of the regulating valve; - an actuation assembly (46, 48, 50, 52; 146, 148, 150; 246, 248, 250) of the shut-off valve (12; 112; 212);
A downlink channel receiving method, comprising: receiving , by a terminal device, first downlink authorization information and second downlink authorization information that are sent by a network device, wherein the first downlink authorization information is used to indicate that the terminal device receives a first physical downlink shared channel, PDSCH, in a first time unit, the second downlink authorization information is used to indicate that the terminal device receives a second PDSCH in a second time unit, and at least one symbol of the first time unit and at least one symbol of the second time unit overlap in a time domain; the method further comprising: decoding, by the terminal device, according to a radio network temporary identifier, RNTI, used to scramble the first downlink authorization information and the second downlink authorization information, the first PDSCH and the second PDSCH, wherein the first downlink authorization information is downlink authorization information scrambled with a system information-radio network temporary identifier, SI-RNTI, and the second downlink authorization information is downlink authorization information scrambled with a random access-radio network temporary identifier, RA-RNTI, or a temporary cell-radio network temporary identifier, TC-RNTI; and wherein the terminal device is a terminal device in an idle state. receiving , by a terminal device, first downlink authorization information and second downlink authorization information that are sent by a network device, wherein the first downlink authorization information is used to indicate that the terminal device receives a first physical downlink shared channel, PDSCH, in a first time unit, the second downlink authorization information is used to indicate that the terminal device receives a second PDSCH in a second time unit, and at least one symbol of the first time unit and at least one symbol of the second time unit overlap in a time domain; the method further comprising: decoding, by the terminal device, according to a radio network temporary identifier, RNTI, used to scramble the first downlink authorization information and the second downlink authorization information, the first PDSCH and the second PDSCH, wherein the first downlink authorization information is downlink authorization information scrambled with a system information-radio network temporary identifier, SI-RNTI, and the second downlink authorization information is downlink authorization information scrambled with a random access-radio network temporary identifier, RA-RNTI, or a temporary cell-radio network temporary identifier, TC-RNTI; and wherein the terminal device is a terminal device in an idle state.
A terminal-formed wire , comprising: a covered wire obtained by covering an outer circumference of a core wire part including a plurality of element wires with a covering part ; and a terminal part provided at a terminal of the covered wire and terminal-formed with the core wire part exposed from the covering part and with the core wire part having a connection hole , wherein, at the terminal part , the plurality of element wires of the core wire part is divided into two; characterized in that leading ends of the divided plurality of the element wires are folded back toward a root part in different directions from each other to cross each other to form the connection hole , wherein the root part is the core wire part side adjacent to the covering part , and wherein the plurality of element wires is bonded with each other and solidified all over the element wires . a covered wire obtained by covering an outer circumference of a core wire part including a plurality of element wires with a covering part ; and a terminal part provided at a terminal of the covered wire and terminal-formed with the core wire part exposed from the covering part and with the core wire part having a connection hole , wherein, at the terminal part , the plurality of element wires of the core wire part is divided into two; characterized in that leading ends of the divided plurality of the element wires are folded back toward a root part in different directions from each other to cross each other to form the connection hole , wherein the root part is the core wire part side adjacent to the covering part , and wherein the plurality of element wires is bonded with each other and solidified all over the element wires .