mhurhangee/ep-ind-claims huggingface dataset:
Method for laterally guiding a motor vehicle, in particular for assisting a motor vehicle with avoidance, in order to avoid a collision or mitigate an unavoidable collision, wherein obstacles (3, 7, 8, 9) are detected and information relating to the position of said obstacles with respect to the motor vehicle and relating to at least one further property is determined by means of an object detection sensor, the obstacles (3, 7, 8, 9) are classified as "can be driven over" or "cannot be driven over" with regard to their property, a trajectory describing a collision-free driving corridor beyond the detected obstacles (3, 7, 8, 9) is determined for the motor vehicle, and steering signals are determined according to the trajectory and are output to a lateral controller for assisting with the avoidance or for the automatic avoidance of the motor vehicle, wherein the classification "can be driven over" or "cannot be driven over" is carried out on the basis of the height of the obstacle (3, 7, 8, 9) determined using the object detection sensor, characterized in that, if it is not possible to determine a trajectory with a collision-free driving corridor, obstacles (3, 7, 8, 9) with a height below a predetermined limit value are hidden.
A method for performing a connection between a calling and a called intelligent user in an intelligent network, the method comprising: judging, by a Service Switching Point, SSP, whether traffic between the SSP and a Service Control Point, SCP, is abnormal due to congestion between the SSP and the SCP; if the traffic is normal, performing, by the SSP, an intelligent call connection between the calling and a called intelligent user; if the traffic is abnormal, acquiring, by the SSP, a priority level of the calling intelligent user and the reason for the current abnormality, and then judging, by the SSP, whether to continue the call connection, if yes, turning off, by the SSP, intelligent triggers located in the SSP and related to the call, performing an ordinary call connection between the calling and the called intelligent user, adding, by the SSP, a charging identity into a Call Detail Record, CDR, generated at the SSP when the call is finished, wherein the charging identity indicates that the call of the intelligent user is normal but the SCP to which the intelligent user belongs has not charged the user and sending, by the SSP, the CDR to a charging center, otherwise, terminating the process, wherein the method further comprises: setting in advance, in the SSP, relations among priority levels of intelligent user, reasons for abnormality and whether to perform an ordinary call connection; and wherein the judging whether to continue the call connection is based on the relations set in advance in the SSP. judging, by a Service Switching Point, SSP, whether traffic between the SSP and a Service Control Point, SCP, is abnormal due to congestion between the SSP and the SCP; if the traffic is normal, performing, by the SSP, an intelligent call connection between the calling and a called intelligent user; if the traffic is abnormal, acquiring, by the SSP, a priority level of the calling intelligent user and the reason for the current abnormality, and then judging, by the SSP, whether to continue the call connection, if yes, turning off, by the SSP, intelligent triggers located in the SSP and related to the call, performing an ordinary call connection between the calling and the called intelligent user, adding, by the SSP, a charging identity into a Call Detail Record, CDR, generated at the SSP when the call is finished, wherein the charging identity indicates that the call of the intelligent user is normal but the SCP to which the intelligent user belongs has not charged the user and sending, by the SSP, the CDR to a charging center, otherwise, terminating the process, wherein the method further comprises: setting in advance, in the SSP, relations among priority levels of intelligent user, reasons for abnormality and whether to perform an ordinary call connection; and wherein the judging whether to continue the call connection is based on the relations set in advance in the SSP.
A method for detection of topology changes in electrical networks, the electrical network comprising a plurality of communication paths, a plurality of switches on the communication paths, a plurality of power measurement devices, and a plurality of frequency analysis devices, the method comprising the steps of: installing a plurality of couplers in said electrical network, wherein said couplers are installed such that at least one switch is present on a communication path between two successive couplers, and wherein said two successive couplers are a transmitting coupler and a receiving coupler, transmitting a signal generated via said transmitting coupler on said communication path between two successive couplers and the signal having a frequency at which a change in the power spectral density identifies a state of said switch; measuring a received power at said receiving coupler via one of said power measurement devices; processing said measured power signal received at said receiving coupler via one of said plurality of frequency analysis devices, deriving information regarding the state of said switch present on said communication path between two successive couplers, wherein the state of the switch in the communication path is detected by measuring the received power at frequencies below the frequency of the transmitted signal, and updating a network topology model for network control based on the derived information regarding the state of the switch. installing a plurality of couplers in said electrical network, wherein said couplers are installed such that at least one switch is present on a communication path between two successive couplers, and wherein said two successive couplers are a transmitting coupler and a receiving coupler, transmitting a signal generated via said transmitting coupler on said communication path between two successive couplers and the signal having a frequency at which a change in the power spectral density identifies a state of said switch; measuring a received power at said receiving coupler via one of said power measurement devices; processing said measured power signal received at said receiving coupler via one of said plurality of frequency analysis devices, deriving information regarding the state of said switch present on said communication path between two successive couplers, wherein the state of the switch in the communication path is detected by measuring the received power at frequencies below the frequency of the transmitted signal, and updating a network topology model for network control based on the derived information regarding the state of the switch.
An error correction coding apparatus to perform error correction coding using, as an error correction code sequence, a frame comprising n symbols, wherein each symbol comprises m bits, wherein m is the number of bits of a multilevel modulation symbol, and using an information bit sequence, wherein m bits of the information bit sequence are input to the error correction coding apparatus in parallel in accordance with the number of bits m of the multilevel modulation symbol, where m and n are positive integers, the apparatus comprising: an error correction coding circuit to perform systematic error correction coding and to generate p error correction coded parity bits using, as information bits, m x n input bits including p known bits, wherein the known bits are assigned to a first bit region in the error correction code sequence; and a first selector to replace the known bits of the error correction code sequence with the parity bits, wherein the first selector replaces the known bits of a second error correction code sequence with the parity bits of a first error correction code sequence generated by the error correction coding circuit, the second error correction code sequence being generated by the error correction coding circuit subsequent to the first error correction code sequence. an error correction coding circuit to perform systematic error correction coding and to generate p error correction coded parity bits using, as information bits, m x n input bits including p known bits, wherein the known bits are assigned to a first bit region in the error correction code sequence; and a first selector to replace the known bits of the error correction code sequence with the parity bits, wherein the first selector replaces the known bits of a second error correction code sequence with the parity bits of a first error correction code sequence generated by the error correction coding circuit, the second error correction code sequence being generated by the error correction coding circuit subsequent to the first error correction code sequence.
A method for correcting offset drift of a sensor used in cyclic sensing, the method comprising: determining an offset voltage drift in the sensor as a difference (ΔV) between a target voltage (V DOCtarget) and an output voltage (V tm.i) measured at time between sensing cycles of the sensor (t m,i); characterised by determining a number of steps (nr. steps) needed to attain the target voltage (V DOCtarget) with a parameter (V DOCstep) using nr.steps = |ΔV / V DOCstep |; and determining a duration of a single step (dt final) using dt final = a duration between the sensing cycles (t i - t i-1) / (nr.steps); adjusting the output voltage by the number of steps (nr.steps) to agree with the target voltage (V DOCtarget) value. determining an offset voltage drift in the sensor as a difference (ΔV) between a target voltage (V DOCtarget) and an output voltage (V tm.i) measured at time between sensing cycles of the sensor (t m,i); characterised by determining a number of steps (nr. steps) needed to attain the target voltage (V DOCtarget) with a parameter (V DOCstep) using nr.steps = |ΔV / V DOCstep |; and determining a duration of a single step (dt final) using dt final = a duration between the sensing cycles (t i - t i-1) / (nr.steps); adjusting the output voltage by the number of steps (nr.steps) to agree with the target voltage (V DOCtarget) value.
A latching mechanism, comprising: a latch element adapted to secure an input/output module to a terminal base, the latch element having a pair of lateral latching extensions to interface with the terminal base and to secure the input/output module to the terminal base, the latch element being a single piece comprising the pair of lateral latching extensions and an actuation bar extending between the latching extensions; a release lever configured to actuate the latch element to release the input/output module from the terminal base, the release lever being mounted on the input/output module, wherein a bar interface for said actuation bar is located in the input/output module and provides an interface between said latch element and said release lever, and characterized in that said latching mechanism further comprises a pair of counterbalanced integral spring elements in the input/output module that urge the latch element to a biased latched position, wherein the pair of counterbalanced integral spring elements is part of a housing of the input/output module; and in that said release lever is adapted to interact with said bar interface to displace the latch element. a latch element adapted to secure an input/output module to a terminal base, the latch element having a pair of lateral latching extensions to interface with the terminal base and to secure the input/output module to the terminal base, the latch element being a single piece comprising the pair of lateral latching extensions and an actuation bar extending between the latching extensions; a release lever configured to actuate the latch element to release the input/output module from the terminal base, the release lever being mounted on the input/output module, wherein a bar interface for said actuation bar is located in the input/output module and provides an interface between said latch element and said release lever, and characterized in that
A thermistor fixing structure (1000, 2000, 3000, 4000), comprising: a temperature sensitive cylinder having openings at both ends thereof; a thermistor inserted into the temperature sensitive cylinder; and a fixture comprising a pressing section for pressing the thermistor against an inner surface of the temperature sensitive cylinder, a distal end of the pressing section being brought into abutment against a side surface of the thermistor inserted into the temperature sensitive cylinder, an angle formed between the pressing section and the side surface of the thermistor on a cylinder insertion end side of the temperature sensitive cylinder being an acute angle; the fixture further comprising: a longitudinal section (10, 310); a bending section (20, 320) formed continuously with one side of the longitudinal section in a longitudinal direction thereof; and characterized by further comprising: a folding section (30, 330) formed continuously with another side of the longitudinal section (10, 310) in the longitudinal direction so as to extend toward the bending section (20, 320), wherein the pressing section (40, 340) is formed continuously with a distal end of the folding section (30, 330) so as to be inclined gradually away from the longitudinal section (10, 310). a temperature sensitive cylinder having openings at both ends thereof; a thermistor inserted into the temperature sensitive cylinder; and a fixture comprising a pressing section for pressing the thermistor against an inner surface of the temperature sensitive cylinder, a distal end of the pressing section being brought into abutment against a side surface of the thermistor inserted into the temperature sensitive cylinder, an angle formed between the pressing section and the side surface of the thermistor on a cylinder insertion end side of the temperature sensitive cylinder being an acute angle; the fixture further comprising: a longitudinal section (10, 310); a bending section (20, 320) formed continuously with one side of the longitudinal section in a longitudinal direction thereof; and characterized by further comprising: a folding section (30, 330) formed continuously with another side of the longitudinal section (10, 310) in the longitudinal direction so as to extend toward the bending section (20, 320), a longitudinal section (10, 310); a bending section (20, 320) formed continuously with one side of the longitudinal section in a longitudinal direction thereof; and characterized by further comprising: a folding section (30, 330) formed continuously with another side of the longitudinal section (10, 310) in the longitudinal direction so as to extend toward the bending section (20, 320), a folding section (30, 330) formed continuously with another side of the longitudinal section (10, 310) in the longitudinal direction so as to extend toward the bending section (20, 320), wherein the pressing section (40, 340) is formed continuously with a distal end of the folding section (30, 330) so as to be inclined gradually away from the longitudinal section (10, 310).
Isolated nucleic acid molecule comprising (a) a nucleotide sequence having the sequence of SEQ ID NOs: 135, 136 and/or 97 or a precursor of SEQ ID NOs: 135, 136, and/or 97 having the sequence AUGACUGAUUUCUUUUGGUGUUCAGAGUCAAUAUAAUUUUC UAGCACCAUCUGAAAUCGGUUAU and AGGAAGCUGGUUUCAUAUGGUGGUUUAGAUUUAAAUAGUGA UUGUCUAGCACCAUUUGAAAUCAGUGUUCU, respectively, and/or (b) a nucleotide sequence which is the complement of (a), and/or (c) a nucleotide sequence comprising an miRNA or miRNA precursor which has an identity of at least 80% to the sequence of (a) or (b), wherein the identity is determined as I = n:L, wherein I is the identity in percent, n is the number of identical nucleotides between a given sequence and a comparative sequence having the sequence of SEQ ID NOs: 135, 136 and/or 97 or a precursor thereof having the sequence AUGACUGAUUUCUUUUGGUGUUCAGAGUCAAUAUAAUUUUC UAGCACCAUCUGAAAUCGGUUAU and AGGAAGCUGGUUUCAUAUGGUGGUUUAGAUUUAAAUAGUGA UUGUCUAGCACCAUUUGAAAUCAGUGUUCU, respectively, or a complement of SEQ ID NOs: 135, 136 and/or 97 or said precursor, and L is the length of the comparative sequence, wherein said isolated nucleic acid comprising (a), (b) or (c) has a length of 18-80 nucleotides. (a) a nucleotide sequence having the sequence of SEQ ID NOs: 135, 136 and/or 97 or a precursor of SEQ ID NOs: 135, 136, and/or 97 having the sequence AUGACUGAUUUCUUUUGGUGUUCAGAGUCAAUAUAAUUUUC UAGCACCAUCUGAAAUCGGUUAU and AGGAAGCUGGUUUCAUAUGGUGGUUUAGAUUUAAAUAGUGA UUGUCUAGCACCAUUUGAAAUCAGUGUUCU, respectively, and/or (b) a nucleotide sequence which is the complement of (a), and/or (c) a nucleotide sequence comprising an miRNA or miRNA precursor which has an identity of at least 80% to the sequence of (a) or (b), wherein the identity is determined as I = n:L, wherein I is the identity in percent, n is the number of identical nucleotides between a given sequence and a comparative sequence having the sequence of SEQ ID NOs: 135, 136 and/or 97 or a precursor thereof having the sequence AUGACUGAUUUCUUUUGGUGUUCAGAGUCAAUAUAAUUUUC UAGCACCAUCUGAAAUCGGUUAU and AGGAAGCUGGUUUCAUAUGGUGGUUUAGAUUUAAAUAGUGA UUGUCUAGCACCAUUUGAAAUCAGUGUUCU, respectively, or a complement of SEQ ID NOs: 135, 136 and/or 97 or said precursor, and L is the length of the comparative sequence, wherein I is the identity in percent, n is the number of identical nucleotides between a given sequence and a comparative sequence having the sequence of SEQ ID NOs: 135, 136 and/or 97 or a precursor thereof having the sequence AUGACUGAUUUCUUUUGGUGUUCAGAGUCAAUAUAAUUUUC UAGCACCAUCUGAAAUCGGUUAU and AGGAAGCUGGUUUCAUAUGGUGGUUUAGAUUUAAAUAGUGA UUGUCUAGCACCAUUUGAAAUCAGUGUUCU, respectively, or a complement of SEQ ID NOs: 135, 136 and/or 97 or said precursor, and L is the length of the comparative sequence,
A vacuum cleaning appliance comprising: separating apparatus for separating dirt from a dirt-bearing fluid flow, a main body comprising a fluid inlet for receiving a fluid flow from the separating apparatus, a plurality of rolling elements (24, 26) rotatable relative to the main body and which define with the main body a substantially spherical floor engaging rolling assembly, means for drawing the fluid flow into the rolling assembly, and a support, separate from the fluid inlet, connected to the main body for supporting the separating apparatus; characterised in that the separating apparatus is cyclonic and the vacuum cleaning appliance further comprises, a duct for conveying the dirt-bearing fluid flow to the separating apparatus wherein the duct extends beneath the support, and a chassis connected to and preferably integral with the main body, wherein at least part of the duct is pivotably connected to the chassis. separating apparatus for separating dirt from a dirt-bearing fluid flow, a main body comprising a fluid inlet for receiving a fluid flow from the separating apparatus, a plurality of rolling elements (24, 26) rotatable relative to the main body and which define with the main body a substantially spherical floor engaging rolling assembly, means for drawing the fluid flow into the rolling assembly, and a support, separate from the fluid inlet, connected to the main body for supporting the separating apparatus; characterised in that the separating apparatus is cyclonic and the vacuum cleaning appliance further comprises, a duct for conveying the dirt-bearing fluid flow to the separating apparatus wherein the duct extends beneath the support, and a chassis connected to and preferably integral with the main body, wherein at least part of the duct is pivotably connected to the chassis.
A method for producing a foam glass, the method comprising: (i) crushing a glass containing antimony to produce a glass powder; (ii) mixing the glass powder with at least one foaming agent selected from SiC, CaCO 3 and a seashell, and an inhibitor containing a combination of Fe 2 O 3 with CaSO 4 or an inhibitor containing Al 2 (SO 4) 3 to obtain a mixture; and (iii) heating the mixture to 700 to 1,100°C, followed by melting and foaming. (i) crushing a glass containing antimony to produce a glass powder; (ii) mixing the glass powder with at least one foaming agent selected from SiC, CaCO 3 and a seashell, and an inhibitor containing a combination of Fe 2 O 3 with CaSO 4 or an inhibitor containing Al 2 (SO 4) 3 to obtain a mixture; and (iii) heating the mixture to 700 to 1,100°C, followed by melting and foaming.
A kit of parts for use in the diagnosis and treatment of biofilm in wounds comprising: a composition comprising a surfactant, a metal chelating agent and a photo-catalyst which preferentially stains biofilms, wherein the photo-catalyst comprises Rose Bengal and wherein the metal chelating agent comprises EDTA; and a light source capable of activating the photo-catalyst to fluoresce so that the biofilm is disclosed and capable of generating light-dependent toxicity that kills bacteria and breaks down the biofilm structure; wherein the light source can operate in two modes, a first mode in which the source produces light wavelengths in the region 300nm to 10nm below the Abs max of the photo-catalyst to enable the biofilm to be diagnosed and a second mode in which the source produces light wavelengths in the region of a band 75nm above and 75nm below the Abs max of the photo-catalyst to enable the biofilm to be treated. a composition comprising a surfactant, a metal chelating agent and a photo-catalyst which preferentially stains biofilms, wherein the photo-catalyst comprises Rose Bengal and wherein the metal chelating agent comprises EDTA; and a light source capable of activating the photo-catalyst to fluoresce so that the biofilm is disclosed and capable of generating light-dependent toxicity that kills bacteria and breaks down the biofilm structure; wherein the light source can operate in two modes, a first mode in which the source produces light wavelengths in the region 300nm to 10nm below the Abs max of the photo-catalyst to enable the biofilm to be diagnosed and a second mode in which the source produces light wavelengths in the region of a band 75nm above and 75nm below the Abs max of the photo-catalyst to enable the biofilm to be treated.