mhurhangee/ep-ind-claims huggingface dataset:
Method for detecting obstacles in the path of a vehicle by means of an ultrasonic sensor in an environment detection system of a motor vehicle, wherein the ultrasonic sensor is arranged on the vehicle at a predefined height with respect to the ground of the path and, after an ultrasonic signal has been emitted, the amplitudes of the echo signal received by the ultrasonic sensor are captured over the propagation time (t) and are evaluated as the reception signal of the ultrasonic sensor for the purpose of detecting the obstacle (5, 8), wherein the amplitudes of the reception signal are monitored over time (t) and the detection of an obstacle (5, 8) in the path is indicated in the event of a significant decrease (Δa) in the amplitude within a predefined time window, characterized in that, in order to monitor the amplitude, the amplitudes of the reception signal which are successive over time (t) are summed and a significant decrease (ΔA) in the amplitude is detected from the profile of the curve of the sum signal over time (t) and a statement relating to an obstacle (5, 8) in the path is made such that the gradient (m) of the curve of the sum signal is monitored over time (t) and the detection of an obstacle (5, 8) in the path is initiated in the event of a significant decrease in the gradient (m) within a predefined time window (ΔT).
A reconstituted formulation comprising an anthracycline compound, and a reconstitution liquid, wherein the anthracycline compound is DOXO-EMCH, wherein said reconstituted formulation is prepared by reconstituting a lyophilized composition of the anthracycline compound in a reconstitution liquid comprising ethanol and water.
An ink-jet print head comprising a polymeric material layer defining ink passage ways formed on a substrate, the polymeric material layer being formed by curing a curable resin composition comprising a cyclic aromatic difunctional epoxy resin (a) obtained by condensation of bisphenol A and epichlorohydrine having a weight per epoxide of ≥ 400 g/eq., a cyclic aliphatic difunctional epoxy resin (b) of the formula: wherein R is a carboxyalkylene group of the formula -(CH 2) p -COO-or -(CH 2) q -COO-(CH 2) r -OOC-(CH 2) s -, wherein p, q, r and s each independently is an integer of 1 to 9, a polymerization initiator. a cyclic aromatic difunctional epoxy resin (a) obtained by condensation of bisphenol A and epichlorohydrine having a weight per epoxide of ≥ 400 g/eq., a cyclic aliphatic difunctional epoxy resin (b) of the formula: wherein R is a carboxyalkylene group of the formula -(CH 2) p -COO-or -(CH 2) q -COO-(CH 2) r -OOC-(CH 2) s -, wherein p, q, r and s each independently is an integer of 1 to 9, a polymerization initiator.
A pre-filter apparatus comprising: a replaceable filter element; a housing with a fluid flow inflow port and a fluid flow outflow port, the housing defining, in part, an interior region; and a cover carried by the housing that closes the interior region; and a blocking biased member carried in the interior region by the cover and movable relative to the housing, wherein the blocking biased member includes a first elongated section having a first end region and a second elongated section having a second end region, wherein the first elongated section and the second elongated section are joined by a center section configured to engage a biasing element to provide a blocking force such that the first end region and the second end region block fluid flow into and out of the housing through both the fluid flow inflow port and the fluid flow outflow port, wherein the blocking biased member is configured so that the blocking force is applied to move the blocking biased member laterally relative to a selected line between the fluid flow inflow port and the fluid flow outflow port, and wherein, in a presence of the replaceable filter element in the interior region of the housing, between the housing and the cover, the blocking biased member is in a fluid flow position. a replaceable filter element; a housing with a fluid flow inflow port and a fluid flow outflow port, the housing defining, in part, an interior region; and a cover carried by the housing that closes the interior region; and a blocking biased member carried in the interior region by the cover and movable relative to the housing, wherein the blocking biased member includes a first elongated section having a first end region and a second elongated section having a second end region, wherein the first elongated section and the second elongated section are joined by a center section configured to engage a biasing element to provide a blocking force such that the first end region and the second end region block fluid flow into and out of the housing through both the fluid flow inflow port and the fluid flow outflow port, wherein the blocking biased member is configured so that the blocking force is applied to move the blocking biased member laterally relative to a selected line between the fluid flow inflow port and the fluid flow outflow port, and wherein, in a presence of the replaceable filter element in the interior region of the housing, between the housing and the cover, the blocking biased member is in a fluid flow position.
A torsional vibration resonance frequency measuring method for assessing the stability of dental implants, characterized in comprising the following steps: step 1: installing an amplitude transformer installing an amplitude transformer having a double-winged, horizontal, symmetrical and vertical structure for measuring resonance frequencies onto a dental implant, wherein the amplitude transformer is tightly fastented on the dental implant by a central bolt with a torque force of 3 to 10 N • cm, thus the amplitude transformer and the dental implant being closely connected and forming a dental implant-amplitude transformer system; step 2: energizing a torsional vibration mode in the dental implant-amplitude transformer system, energizing either unilateral side or bilateral sides of bilateral horizontal wings of the amplitude transformer by a contact or non-contact method, and energizing the dental implant in a tangential direction to make torsional vibration as a main vibration mode of the dental implant-amplitude transformer system; step 3: gathering resonance signals recording vibration frequencies and amplitudes of the amplitude transformer by an electromagnetic signal receiver; and step 4: analyzing the resonance frequency gathering and processing data using computer, plotting an amplitude-frequency curve diagram, and calculating the torsional resonance frequency according to the torsional vibraton mode, which is the main vibration peak. step 1: installing an amplitude transformer installing an amplitude transformer having a double-winged, horizontal, symmetrical and vertical structure for measuring resonance frequencies onto a dental implant, wherein the amplitude transformer is tightly fastented on the dental implant by a central bolt with a torque force of 3 to 10 N • cm, thus the amplitude transformer and the dental implant being closely connected and forming a dental implant-amplitude transformer system; step 2: energizing a torsional vibration mode in the dental implant-amplitude transformer system, energizing either unilateral side or bilateral sides of bilateral horizontal wings of the amplitude transformer by a contact or non-contact method, and energizing the dental implant in a tangential direction to make torsional vibration as a main vibration mode of the dental implant-amplitude transformer system; step 3: gathering resonance signals recording vibration frequencies and amplitudes of the amplitude transformer by an electromagnetic signal receiver; and step 4: analyzing the resonance frequency gathering and processing data using computer, plotting an amplitude-frequency curve diagram, and calculating the torsional resonance frequency according to the torsional vibraton mode, which is the main vibration peak.
An opto-electronic module comprising - a detecting channel comprising a detecting member for detecting light; - an emission channel comprising an emission member for emitting light generally detectable by said detecting member; wherein said detecting channel and said emission channel respectively comprising: at least one passive optical component (L2, L3) comprising two lens elements (52, 52', 53, 53') each having an optical axis, wherein said two lens elements (52, 52', 53, 53') are arranged such that said two optical axes do not coincide; characterized in that: at least one of the two lens elements (52, 52', 53, 53') is a non rotationally symmetric lens and in that the optical axis of one of the two lens elements (52, 52', 53, 53') coincides with an optical axis of the respective detecting member or emission member. - a detecting channel comprising a detecting member for detecting light; - an emission channel comprising an emission member for emitting light generally detectable by said detecting member; wherein said detecting channel and said emission channel respectively comprising: at least one passive optical component (L2, L3) comprising two lens elements (52, 52', 53, 53') each having an optical axis, wherein said two lens elements (52, 52', 53, 53') are arranged such that said two optical axes do not coincide; characterized in that: at least one of the two lens elements (52, 52', 53, 53') is a non rotationally symmetric lens and in that the optical axis of one of the two lens elements (52, 52', 53, 53') coincides with an optical axis of the respective detecting member or emission member. at least one of the two lens elements (52, 52', 53, 53') is a non rotationally symmetric lens and in that the optical axis of one of the two lens elements (52, 52', 53, 53') coincides with an optical axis of the respective detecting member or emission member.
A measurement unit for measuring a bio-impedance of a body, the measurement unit comprising a current generator circuit, a readout circuit, and a baseline cancellation current circuit, wherein the current generator circuit is configured to amplify a reference current to form a measurement current to be driven through a body tissue of the body, such that a measurement voltage is generated, the measurement voltage depending on the measurement current and the bio-impedance of the body; wherein the readout circuit comprises an Instrumentation Amplifier which has a transconductance stage and a transimpedance stage, wherein the IA is configured to: produce a first current in the transconductance stage, the first current being proportional to the measurement voltage, receive a second current from the baseline cancellation current circuit, produce an output voltage in the transimpedance stage, the output voltage being proportional to a difference between the first current and the second current and representative of the measured bio-impedance; wherein the baseline cancellation current circuit is configured to amplify the reference current by a factor to form the second current and deliver it to the IA, wherein the factor is such that that the absolute value of the difference between the first and the second current is below a threshold during the measurement of the bio-impedance, such that a baseline of the first current is cancelled by the second current. produce a first current in the transconductance stage, the first current being proportional to the measurement voltage, receive a second current from the baseline cancellation current circuit, produce an output voltage in the transimpedance stage, the output voltage being proportional to a difference between the first current and the second current and representative of the measured bio-impedance; wherein the baseline cancellation current circuit is configured to amplify the reference current by a factor to form the second current and deliver it to the IA, wherein the factor is such that that the absolute value of the difference between the first and the second current is below a threshold during the measurement of the bio-impedance, such that a baseline of the first current is cancelled by the second current.
A system to find local activation times of intracardiac electrogram (IEGM) signals, comprising a remote server including processing circuitry configured to: receive, from electrophysiological laboratory sub-systems, first IEGM signals and corresponding local activation time annotations of the first IEGM signals manually annotated by respective annotation personnel; compute weights for annotations performed by respective ones of the annotation personnel responsively to a local activation time annotation experience level of the respective ones of the annotation personnel; train an artificial neural network to find local activation times of IEGM signals responsively to the first IEGM signals and the corresponding local activation time annotations weighted according to respective ones of the computed weights of the respective ones of the annotation personnel who annotated respective ones of the local activation time annotations; receive a second IEGM signal; and apply the trained artificial neural network to the received second IEGM signal to provide an indication of a local activation time of the received second IEGM signal. receive, from electrophysiological laboratory sub-systems, first IEGM signals and corresponding local activation time annotations of the first IEGM signals manually annotated by respective annotation personnel; compute weights for annotations performed by respective ones of the annotation personnel responsively to a local activation time annotation experience level of the respective ones of the annotation personnel; train an artificial neural network to find local activation times of IEGM signals responsively to the first IEGM signals and the corresponding local activation time annotations weighted according to respective ones of the computed weights of the respective ones of the annotation personnel who annotated respective ones of the local activation time annotations; receive a second IEGM signal; and apply the trained artificial neural network to the received second IEGM signal to provide an indication of a local activation time of the received second IEGM signal.
An apparatus for decoding a hierarchical audio bitstream, comprising - demultiplexer for demultiplexing the hierarchical audio bitstream, wherein at least a 1 st layer bitstream comprising an embedded surround sound bitstream in channel-based coding and a 2 nd layer bitstream in HOA format are obtained, and wherein the 2 nd layer bitstream comprises first and second side information and encoded residual signals, - surround sound decoder for decoding the embedded surround sound bitstream to obtain a decoded surround sound bitstream, and - hierarchical HOA decoder for decoding the 2 nd layer bitstream, wherein the hierarchical HOA decoder comprises - a conditional HOA decoder for extracting first side information, second side information and decoded residual signals from the 2 nd layer HOA bitstream, - a prediction unit for predicting sound components using the decoded surround sound bitstream and the first side information, the first side information comprising prediction block parameters, the predicted sound components being intermediate monaural audio signals resulting from a sound field analysis that identifies and extracts dominant sound sources, - a superposition unit for superposing the predicted sound components with the decoded residual signals to obtain reconstructed sound components, and - a HOA content recomposition unit for recomposing the reconstructed sound components and the second side information to HOA format, wherein reconstructed HOA content is obtained, wherein said predicting unit is configured to use frequency-dependent adaptive predicting, wherein frame-wise matrix operations with different matrices for different frequency bands are used. - demultiplexer for demultiplexing the hierarchical audio bitstream, wherein at least a 1 st layer bitstream comprising an embedded surround sound bitstream in channel-based coding and a 2 nd layer bitstream in HOA format are obtained, and wherein the 2 nd layer bitstream comprises first and second side information and encoded residual signals, - surround sound decoder for decoding the embedded surround sound bitstream to obtain a decoded surround sound bitstream, and - hierarchical HOA decoder for decoding the 2 nd layer bitstream, wherein the hierarchical HOA decoder comprises - a conditional HOA decoder for extracting first side information, second side information and decoded residual signals from the 2 nd layer HOA bitstream, - a prediction unit for predicting sound components using the decoded surround sound bitstream and the first side information, the first side information comprising prediction block parameters, the predicted sound components being intermediate monaural audio signals resulting from a sound field analysis that identifies and extracts dominant sound sources, - a superposition unit for superposing the predicted sound components with the decoded residual signals to obtain reconstructed sound components, and - a HOA content recomposition unit for recomposing the reconstructed sound components and the second side information to HOA format, wherein reconstructed HOA content is obtained,
A compound represented by the following formula: wherein X 1 represents a hydrogen atom or a halogen atom, X 2 represents a fluorine atom or a nitrile group, and X 3 represents a radioactive halogen atom, or a salt thereof. wherein X 1 represents a hydrogen atom or a halogen atom, X 2 represents a fluorine atom or a nitrile group, and X 3 represents a radioactive halogen atom, or a salt thereof.
An influenza vaccine composition comprising: (a) a therapeutically effective amount of an influenza virus-like particle comprising: (i) influenza M1, influenza M2, influenza hemagglutinin, and influenza neuraminidase proteins; and (b) adjuvants comprising: a recombinant capsid VP3 protein of foot-and-mouth disease virus; and alum. (a) a therapeutically effective amount of an influenza virus-like particle comprising: (i) influenza M1, influenza M2, influenza hemagglutinin, and influenza neuraminidase proteins; and (i) influenza M1, influenza M2, influenza hemagglutinin, and influenza neuraminidase proteins; and (b) adjuvants comprising: a recombinant capsid VP3 protein of foot-and-mouth disease virus; and alum. a recombinant capsid VP3 protein of foot-and-mouth disease virus; and alum.
A process for producing an esterified cellulose ether wherein a moist cellulose ether having a water content of at least 10 percent, based on the weight of the moist cellulose ether, is reacted with an aliphatic monocarboxylic acid anhydride, a dicarboxylic acid anhydride or a combination thereof.
Terahertz measuring apparatus for measuring a test object by means of a run-time measurement while determining at least one distance (d1, d2, d3, d4), said terahertz measuring apparatus comprising: a terahertz transmitter and receiver unit designed for emitting terahertz radiation and detecting the terahertz radiation reflected from said test object, an evaluation unit for determining a run-time (Δt) of the terahertz radiation and at least one distance (d1, d2, d3, d4) of said test object from the determined run-time (Δt), characterised in that several passive terahertz receiver devices arranged around a measuring region for said test object are provided, the optical axes (C-4) of which are each arranged shifted or angled in relation to the optical axis (C-3) of said terahertz transmitter and receiver unit, so that at least one of said passive terahertz receiver devices detects a second terahertz radiation emitted from said terahertz transmitter and receiver unit and reflected on said test object, a data connection is provided designed for synchronising said terahertz transmitter and receiver unit and the passive terahertz receiver units by means of a synchronising signal, said evaluation unit or said at least one terahertz receiver unit being designed for determining a second run-time (Δt3, Δt4) and a second distance from said second reflected terahertz radiation and said synchronising signal. a terahertz transmitter and receiver unit designed for emitting terahertz radiation and detecting the terahertz radiation reflected from said test object, an evaluation unit for determining a run-time (Δt) of the terahertz radiation and at least one distance (d1, d2, d3, d4) of said test object from the determined run-time (Δt), characterised in that several passive terahertz receiver devices arranged around a measuring region for said test object are provided, the optical axes (C-4) of which are each arranged shifted or angled in relation to the optical axis (C-3) of said terahertz transmitter and receiver unit, so that at least one of said passive terahertz receiver devices detects a second terahertz radiation emitted from said terahertz transmitter and receiver unit and reflected on said test object, a data connection is provided designed for synchronising said terahertz transmitter and receiver unit and the passive terahertz receiver units by means of a synchronising signal, said evaluation unit or said at least one terahertz receiver unit being designed for determining a second run-time (Δt3, Δt4) and a second distance from said second reflected terahertz radiation and said synchronising signal.
A base station device that is configured to communicate with a plurality of mobile station devices, comprising a controller configured to configure, within a downlink system frequency band, a plurality of regions of resources inwhich at least a control channel signal and a reference signal used to demodulate the control channel signal are allocated, a precoding processor (227, 229, 231) configured to perform the same precoding process on the control channel signal and the reference signal, the precoding process being performed independently for each of the regions, and a transmit processor configured to use resources in the regions to transmit the control channel signal and the reference signal subjected to the precoding process, wherein at least a region which is included in the plurality of regions is configured for each device communicating with said mobile station devices and that is different from the base station device and is configured to perform cooperative multipoint communication together with the base station device.
A quick-action coupling with an annular disk with a spraying device mounted thereon, on the circumference of which adjusting slides with support surfaces and oval tapered rollers are arranged, in order to mount the quick-action coupling and to retract it into a tube, and with a screw drive (9, 10, 11) in order to ensure the function of the quick-action coupling, characterized in that the spray device is designed in the form of hollow double rods distributed uniformly on the circular circumference of the annular disk and aligned radially, wherein each pair of double rods forms a isosceles triangle with an angle opened at the tip and drive spindle at the base, and that the ends of the diverging double rods are movably mutually connected with the base.
A polypeptide having cellobiohydrolase I activity, selected from the group consisting of: (a) a polypeptide comprising an amino acid sequence which has at least 95% identity with amino acids 1 to 529 of SEQ ID NO:4, (b) a polypeptide comprising an amino acid sequence which has at least 95% identity with the polypeptide encoded by nucleotides 1 to 1587 of SEQ ID NO:3, (a) a polypeptide comprising an amino acid sequence which has at least 95% identity with amino acids 1 to 529 of SEQ ID NO:4, (b) a polypeptide comprising an amino acid sequence which has at least 95% identity with the polypeptide encoded by nucleotides 1 to 1587 of SEQ ID NO:3,