mhurhangee/ep-ind-claims huggingface dataset:
Push-pull link bar, having: - a hollow-cylindrical centre body; - at least one fastening apparatus (7, 8) with a coupling element (9, 10) and a shank (11, 12) which is arranged thereon; - at least one connector piece (5, 6), the fastening apparatus (7, 8) being connected rotatably to the connector piece (5, 6) for changing the length of the push-pull link bar via a thread arrangement (13, 14); - at least one reducing bush (3, 4) for connecting the connector piece (5, 6) to the centre body; characterized in that the reducing bush (3, 4) has a first part region (3a, 4a) which faces the fastening apparatus (7, 8) with a first external diameter and a second part region (3b, 4b) which faces the centre body with a second external diameter which is smaller than the first external diameter; and the external diameter of the centre body being smaller than the first external diameter of the reducing bush (3, 4). - a hollow-cylindrical centre body; - at least one fastening apparatus (7, 8) with a coupling element (9, 10) and a shank (11, 12) which is arranged thereon; - at least one connector piece (5, 6), the fastening apparatus (7, 8) being connected rotatably to the connector piece (5, 6) for changing the length of the push-pull link bar via a thread arrangement (13, 14); - at least one reducing bush (3, 4) for connecting the connector piece (5, 6) to the centre body; characterized in that the reducing bush (3, 4) has a first part region (3a, 4a) which faces the fastening apparatus (7, 8) with a first external diameter and a second part region (3b, 4b) which faces the centre body with a second external diameter which is smaller than the first external diameter; and the external diameter of the centre body being smaller than the first external diameter of the reducing bush (3, 4).
A method performed by a user equipment in a wireless communication system, comprising: transmitting first uplink control information, UCI, to a gNB using a default physical uplink control channel, PUCCH, resource before a radio resource control, RRC, connection for the user equipment is established with the gNB, receiving information on a user equipment, UE, - dedicated PUCCH resource; and transmitting second UCI to the gNB using the UE-dedicated PUCCH resource after the RRC connection for the user equipment is established with the gNB, wherein a transmission using the default PUCCH resource is based on a beam used for a physical uplink shared channel, PUSCH, transmission scheduled by a random access response in a random access procedure, and wherein a transmission using the UE-dedicated PUCCH resource is based on a beam that is explicitly configured by the gNB. transmitting first uplink control information, UCI, to a gNB using a default physical uplink control channel, PUCCH, resource before a radio resource control, RRC, connection for the user equipment is established with the gNB, receiving information on a user equipment, UE, - dedicated PUCCH resource; and transmitting second UCI to the gNB using the UE-dedicated PUCCH resource after the RRC connection for the user equipment is established with the gNB, wherein a transmission using the default PUCCH resource is based on a beam used for a physical uplink shared channel, PUSCH, transmission scheduled by a random access response in a random access procedure, and wherein a transmission using the UE-dedicated PUCCH resource is based on a beam that is explicitly configured by the gNB.
A data processing device, wherein the data processing device comprises a control unit, a memory, a first non-volatile storage unit, and a second non-volatile storage unit; characterized in that: a data write speed of the first non-volatile storage unit is higher than a data write speed of the second non-volatile storage unit; and in that the control unit is configured to write first data into the memory, write the first data into the first non-volatile storage unit in a log file form, wherein the log file of the first data records the changed data of the first data, and write, into the second non-volatile storage unit, the log file of the first data written into the first non-volatile storage unit. a data write speed of the first non-volatile storage unit is higher than a data write speed of the second non-volatile storage unit; and in that the control unit is configured to write first data into the memory, write the first data into the first non-volatile storage unit in a log file form, wherein the log file of the first data records the changed data of the first data, and write, into the second non-volatile storage unit, the log file of the first data written into the first non-volatile storage unit.
A method comprising: receiving, by a portable electronic device, a first user input indicating a desired performance mode of the portable electronic device; determining a position of the portable electronic device; determining (530, 630) an ambient temperature in an environment surrounding the portable electronic device based on the determined position of the portable electronic device; determining a device temperature mitigation threshold value based on the determined position-based ambient temperature and based on the desired performance mode; determining, by the portable electronic device using sensor readings and in response to determining that a current temperature of the portable electronic device differs from a normal temperature for the determined position-based ambient temperature, an ambient temperature value; adjusting the device temperature mitigation threshold value based on the determined ambient temperature value; and adjusting, in response to determining that the temperature of the portable electronic device has exceeded the adjusted device temperature mitigation threshold value, operation of the portable electronic device. receiving, by a portable electronic device, a first user input indicating a desired performance mode of the portable electronic device; determining a position of the portable electronic device; determining (530, 630) an ambient temperature in an environment surrounding the portable electronic device based on the determined position of the portable electronic device; determining a device temperature mitigation threshold value based on the determined position-based ambient temperature and based on the desired performance mode; determining, by the portable electronic device using sensor readings and in response to determining that a current temperature of the portable electronic device differs from a normal temperature for the determined position-based ambient temperature, an ambient temperature value; adjusting the device temperature mitigation threshold value based on the determined ambient temperature value; and adjusting, in response to determining that the temperature of the portable electronic device has exceeded the adjusted device temperature mitigation threshold value, operation of the portable electronic device.
An in-cell touch screen, comprising: an opposite substrate and an array substrate disposed oppositely; wherein a touch electrode pattern is disposed on a side of the opposite substrate, which side faces the array substrate; a data line and a gate line are disposed on a side of the array substrate, which side faces the opposite substrate, the data line and the gate line intercross and are mutually insulated from each other; characterized in that a common electrode layer is disposed above a layer where the gate line and the data line are located; an orthographic projection of the common electrode layer on the array substrate covers orthographic projections of the gate line and the data line on the array substrate, wherein a feedback compensation circuit for providing a common electrode signal to the common electrode layer is further disposed on the array substrate; the feedback compensation circuit comprises: a first operational amplifier, a second operational amplifier, a first resistor, a second resistor and a filtering capacitor, wherein a positive input terminal of the first operational amplifier is connected to a common electrode signal standard voltage providing terminal, a negative input terminal thereof is connected to an end of the first resistor, an output terminal thereof is connected to a common electrode signal input terminal; the second resistor is connected in parallel between the negative input terminal and the output terminal of the first operational amplifier; a positive input terminal of the second operational amplifier is connected to a common electrode signal feedback terminal of the common electrode layer, a negative input terminal thereof is connected to an output end thereof, and the output terminal is connected to the other end of the first resistor through the filtering capacitor, wherein resistance values of the first resistor R1 and the second resistor R2 meet the following relationship: R 1 R 2 = − Vcom _ feed − Vcom _ standard Vcom _ input − Vcom _ standard where "Vcom_feedback" refers to a voltage value of a common electrode signal feedback terminal received by the positive terminal of the second operational amplifier, "Vcom_input" refers to a voltage value applied by the output terminal of the first operational amplifier to the common electrode signal input terminals, and "Vcom_standard" refers to a voltage value of the common electrode signal standard voltage providing terminal received by the positive terminal of the first operational amplifier.
A mold device for forming metal in a high-level vacuum environment comprising: a fixed mold; a movable mold adjoining an upper portion of the fixed mold to form a cavity; an ejector pin extending through the movable mold to the cavity; an exhaust unit creating a vacuum environment within the cavity by drawing air therefrom, wherein, after the exhaust unit creates the vacuum environment within the cavity, molten metal is filled into the cavity, in which the molten metal is formed into a product, and the ejector pin pushes out the formed product; and a closing plate closely placed on top of the movable mold such that the ejector pin sequentially extends through the closing plate and the movable mold, between which a blocking space is formed; wherein a packing is fitted into a packing recess formed in an entrance of a hole in a bottom surface of the closing plate through which the ejector pin extends, a cylindrical rod is erected within the blocking space, with the upper end thereof supporting and pressing the packing, and the lower end thereof being supported on the moveable mold, and the ejector pin extends through the cylindrical rod, thereby preventing atmospheric air from entering the cavity, the blocking space is formed between the movable mold and the packing to prevent heat from being transferred to the packing. a fixed mold; a movable mold adjoining an upper portion of the fixed mold to form a cavity; an ejector pin extending through the movable mold to the cavity; an exhaust unit creating a vacuum environment within the cavity by drawing air therefrom, wherein, after the exhaust unit creates the vacuum environment within the cavity, molten metal is filled into the cavity, in which the molten metal is formed into a product, and the ejector pin pushes out the formed product; and a closing plate closely placed on top of the movable mold such that the ejector pin sequentially extends through the closing plate and the movable mold, between which a blocking space is formed; wherein a packing is fitted into a packing recess formed in an entrance of a hole in a bottom surface of the closing plate through which the ejector pin extends, a cylindrical rod is erected within the blocking space, with the upper end thereof supporting and pressing the packing, and the lower end thereof being supported on the moveable mold, and the ejector pin extends through the cylindrical rod, thereby preventing atmospheric air from entering the cavity, the blocking space is formed between the movable mold and the packing to prevent heat from being transferred to the packing.
A method of controlling a road vehicle comprising a number of wheels (2, 3); a frame housing a passenger compartment provided with front airbags; and a number of suspensions suspending the frame from respective wheels (2, 3), and expandible or contractable to adjust the height of the frame with respect to the ground; the method comprising the steps of: determining a collision; and raising the frame with respect to the ground by expanding at least some of the suspensions on determining a collision; the method being characterized by comprising the further step of activating, after collision, the raising of the frame with respect to the ground using the same command used to trigger the front airbags of the passenger compartment. determining a collision; and raising the frame with respect to the ground by expanding at least some of the suspensions on determining a collision; the method being characterized by comprising the further step of activating, after collision, the raising of the frame with respect to the ground using the same command used to trigger the front airbags of the passenger compartment.
A modular stent-graft apparatus, the apparatus comprising: a graft comprising biocompatible material, the graft having a proximal and a distal graft end; a generally tubular proximal portion of the graft with a tubular lumen extending therethrough; a first branch extending from the tubular proximal portion; a second branch extending from the tubular proximal portion; first and second limb portions (18a, 18b) of the graft extending distally from a bifurcation point of the proximal portion and having distal limb ends, the first and second limb portions (18a, 18b) each having limb lumens (30a, 30b) extending therethrough, the limb lumens (30a, 30b) being in fluid communication with the tubular lumen; at least one limb extension comprising biocompatible material, the at least one limb extension having a proximal extension end and a distal extension end and an extension lumen extending therebetween, the at least one limb extension dimensioned to engage one of the first and second limb portion (18a, 18b); and at least one passageway though a sidewall of the at least one limb extension disposed between the proximal and distal extension ends; wherein the first and second branches (40, 50) each have a proximal branch end (42, 52) and a distal branch end (44, 54) and a branch lumen (45, 55) extending therebetween that is in fluid communication with the tubular lumen. a graft comprising biocompatible material, the graft having a proximal and a distal graft end; a generally tubular proximal portion of the graft with a tubular lumen extending therethrough; a first branch extending from the tubular proximal portion; a second branch extending from the tubular proximal portion; first and second limb portions (18a, 18b) of the graft extending distally from a bifurcation point of the proximal portion and having distal limb ends, the first and second limb portions (18a, 18b) each having limb lumens (30a, 30b) extending therethrough, the limb lumens (30a, 30b) being in fluid communication with the tubular lumen; at least one limb extension comprising biocompatible material, the at least one limb extension having a proximal extension end and a distal extension end and an extension lumen extending therebetween, the at least one limb extension dimensioned to engage one of the first and second limb portion (18a, 18b); and at least one passageway though a sidewall of the at least one limb extension disposed between the proximal and distal extension ends; wherein the first and second branches (40, 50) each have a proximal branch end (42, 52) and a distal branch end (44, 54) and a branch lumen (45, 55) extending therebetween that is in fluid communication with the tubular lumen.
A straddle electric vehicle comprising: an electric motor which is a driving power source for activating the vehicle; a high-voltage battery for storing electric power supplied to the electric motor; an auxiliary machine which is mounted in the vehicle and includes a control unit for controlling the high-voltage battery or the electric motor; a low-voltage battery for storing the electric power supplied to the auxiliary machine; a converter for converting a voltage of the electric power supplied from the high-voltage battery to the low-voltage battery into a voltage to be charged into the low-voltage battery; and a case for storing the high-voltage battery; wherein the low-voltage battery is placed outside the case; characterized in that the straddle electric vehicle further comprises an abnormality detector for detecting whether or not there is an abnormality in a system for supplying the electric power from the high-voltage battery to the electric motor; and in that the control unit is configured to cut-off the electric power supplied from the high-voltage battery to the electric motor or the low-voltage battery and to operate by the electric power supplied from the low-voltage battery when the abnormality detector detects the abnormality; and in that the converter is stored in the case. an electric motor which is a driving power source for activating the vehicle; a high-voltage battery for storing electric power supplied to the electric motor; an auxiliary machine which is mounted in the vehicle and includes a control unit for controlling the high-voltage battery or the electric motor; a low-voltage battery for storing the electric power supplied to the auxiliary machine; a converter for converting a voltage of the electric power supplied from the high-voltage battery to the low-voltage battery into a voltage to be charged into the low-voltage battery; and a case for storing the high-voltage battery; wherein the low-voltage battery is placed outside the case; characterized in that the straddle electric vehicle further comprises an abnormality detector for detecting whether or not there is an abnormality in a system for supplying the electric power from the high-voltage battery to the electric motor; and in that the control unit is configured to cut-off the electric power supplied from the high-voltage battery to the electric motor or the low-voltage battery and to operate by the electric power supplied from the low-voltage battery when the abnormality detector detects the abnormality; and in that the converter is stored in the case.
A process for preparing optically active compounds of the formulae I-S and/or I-R in which n is 0, 1 or 2 and m is 0, 1 or 2, comprising the following steps: (i) reacting an enantiomer mixture of the formula II in which P is a protecting group selected from tert-butyl and a benzyl group optionally substituted on the phenyl ring with an acylating agent in the presence of a hydrolase to obtain a mixture in which one enantiomer of the compound is present essentially in acylated form and the other enantiomer of compound is present essentially in the unacylated form; (ii) removing the unacylated enantiomer of compound from the mixture obtained in step (i); (iii) deprotecting the unacylated enantiomer of compound obtained in step (ii) to give the amine (I-S) or (I-R); and (iv) if desired hydrolyzing the essentially acylated enantiomer of compound obtained in step (i) to give the corresponding unacylated enantiomer of the amine and subsequently deprotecting it to give the amine (I-R) or (I-S); wherein the compound of the formula is obtained by (a) protecting a compound of the formula on the OH group to obtain compound and (b) subjecting compound to a reductive amination to obtain the compound of the formula. n is 0, 1 or 2 and m is 0, 1 or 2, (i) reacting an enantiomer mixture of the formula II in which P is a protecting group selected from tert-butyl and a benzyl group optionally substituted on the phenyl ring with an acylating agent in the presence of a hydrolase to obtain a mixture in which one enantiomer of the compound is present essentially in acylated form and the other enantiomer of compound is present essentially in the unacylated form; P is a protecting group selected from tert-butyl and a benzyl group optionally substituted on the phenyl ring (ii) removing the unacylated enantiomer of compound from the mixture obtained in step (i); (iii) deprotecting the unacylated enantiomer of compound obtained in step (ii) to give the amine (I-S) or (I-R); and (iv) if desired hydrolyzing the essentially acylated enantiomer of compound obtained in step (i) to give the corresponding unacylated enantiomer of the amine and subsequently deprotecting it to give the amine (I-R) or (I-S); (a) protecting a compound of the formula on the OH group to obtain compound and (b) subjecting compound to a reductive amination to obtain the compound of the formula.
A method for receiving and analyzing data for condition assessment within a fluid distribution system (110,410,1604), comprising: receiving pipe segment criteria for a pipe segment, the pipe segment comprising a length of a pipe between a first computing node (150A-150N, 250, 450A-C, 1602) and a second computing node (150A-150N, 250, 450A-C,1602); determining a theoretical speed of sound in the pipe segment based on the pipe segment criteria; determining a prediction of frequency content based on the pipe segment criteria and the determined theoretical speed of sound; determining a suggested frequency range based on the prediction of frequency content; measuring an actual speed of sound (422A, 422B) in the pipe segment between the first computing node (150A-150N, 250, 450A-C,1602) and the second computing node (150A-150N, 250, 450A-C,1602), utilizing the suggested frequency range; and comparing the actual speed of sound (422A, 422B) and the theoretical speed of sound to calculate a predicted pipe degradation for the pipe segment. receiving pipe segment criteria for a pipe segment, the pipe segment comprising a length of a pipe between a first computing node (150A-150N, 250, 450A-C, 1602) and a second computing node (150A-150N, 250, 450A-C,1602); determining a theoretical speed of sound in the pipe segment based on the pipe segment criteria; determining a prediction of frequency content based on the pipe segment criteria and the determined theoretical speed of sound; determining a suggested frequency range based on the prediction of frequency content; measuring an actual speed of sound (422A, 422B) in the pipe segment between the first computing node (150A-150N, 250, 450A-C,1602) and the second computing node (150A-150N, 250, 450A-C,1602), utilizing the suggested frequency range; and comparing the actual speed of sound (422A, 422B) and the theoretical speed of sound to calculate a predicted pipe degradation for the pipe segment.