mhurhangee/ep-ind-claims huggingface dataset:
A system for monitoring a patient experiencing an administration of at least one drug having anesthetic properties, the system comprising: a plurality of electroencephalogram sensors configured to acquire physiological data from the patient; at least one processor configured to: assemble the physiological data into sets of time-series data using local referencing, wherein local referencing uses an average of the EEGs of several neighboring EEG sensors; transform each set of locally referenced time-series data into spectrum information; determine, using the sets of time-series data assembled using local referencing, global coherence information for at least one frequency, wherein the global coherence information is indicative of coordinated brain activity at the at least one frequency; identify signatures within at least one of the spectrum information and the global coherence information indicative of at least one of a current state and a predicted future state of the patient; and generate a report using the signatures including information regarding at least one of the current state and the predicted future state of the patient induced by the drug. a plurality of electroencephalogram sensors configured to acquire physiological data from the patient; at least one processor configured to: assemble the physiological data into sets of time-series data using local referencing, wherein local referencing uses an average of the EEGs of several neighboring EEG sensors; transform each set of locally referenced time-series data into spectrum information; determine, using the sets of time-series data assembled using local referencing, global coherence information for at least one frequency, wherein the global coherence information is indicative of coordinated brain activity at the at least one frequency; identify signatures within at least one of the spectrum information and the global coherence information indicative of at least one of a current state and a predicted future state of the patient; and generate a report using the signatures including information regarding at least one of the current state and the predicted future state of the patient induced by the drug. assemble the physiological data into sets of time-series data using local referencing, wherein local referencing uses an average of the EEGs of several neighboring EEG sensors; transform each set of locally referenced time-series data into spectrum information; determine, using the sets of time-series data assembled using local referencing, global coherence information for at least one frequency, wherein the global coherence information is indicative of coordinated brain activity at the at least one frequency; identify signatures within at least one of the spectrum information and the global coherence information indicative of at least one of a current state and a predicted future state of the patient; and generate a report using the signatures including information regarding at least one of the current state and the predicted future state of the patient induced by the drug.
A method of providing a running base with improved running speed and glide characteristics over snow, ice or water, and any artificial surface that mimics these surfaces, comprising a first step in which at least one portion of the running base is sequentially treated with two or more abrasive materials having a progressively smaller particle size wherein the final abrasive material in the first step is finer than 1000 Grit.
A method for tracking movement of a head-worn display in relation to a platform, comprising: transmitting polarized electromagnetic radiation from a plurality of emitters, the emitters affixed to one of the head-worn display and the platform, the head-worn display configured to be pointed in at least one of a plurality of directions relative to the platform with six degrees of freedom (102, 104, 106, 112, 114, 116); receiving the polarized electromagnetic radiation by a plurality of polarized detectors affixed to the other of the head-worn display and the platform, the plurality of polarized detectors matching the plurality of emitters resulting in matched emitter-detector pairings, wherein each detector of the plurality of polarized detectors has a different orientation of polarizer associated therewith; measuring polarized electromagnetic radiation levels of the polarized electromagnetic radiation received by the plurality of polarized detectors; analyzing the received polarized electromagnetic radiation levels to convert the received polarized electromagnetic radiation levels into at least six degrees of freedom including at least three angular and three linear and determine a set of angles (102, 104, 106) and spatial coordinates (112, 114, 116) of the head-worn display relative to the platform; determining information to be displayed using the spatial coordinates; and displaying the information on the head-worn display. transmitting polarized electromagnetic radiation from a plurality of emitters, the emitters affixed to one of the head-worn display and the platform, the head-worn display configured to be pointed in at least one of a plurality of directions relative to the platform with six degrees of freedom (102, 104, 106, 112, 114, 116); receiving the polarized electromagnetic radiation by a plurality of polarized detectors affixed to the other of the head-worn display and the platform, the plurality of polarized detectors matching the plurality of emitters resulting in matched emitter-detector pairings, wherein each detector of the plurality of polarized detectors has a different orientation of polarizer associated therewith; measuring polarized electromagnetic radiation levels of the polarized electromagnetic radiation received by the plurality of polarized detectors; analyzing the received polarized electromagnetic radiation levels to convert the received polarized electromagnetic radiation levels into at least six degrees of freedom including at least three angular and three linear and determine a set of angles (102, 104, 106) and spatial coordinates (112, 114, 116) of the head-worn display relative to the platform; determining information to be displayed using the spatial coordinates; and displaying the information on the head-worn display.
Device for providing retaining and/or processing apparatuses for a manipulator, in particular in a production line for producing vehicle bodies, wherein the device comprises a retaining base and a base element which is mounted rotatably about an axis of rotation in relation to the retaining base, wherein at least one first and one second providing element (6', 6") are fastened to the base element, wherein the first and the second providing element (6', 6") are each provided for receiving the retaining and/or processing apparatuses, wherein the first providing element is pivotable at least about a first pivot axis which is perpendicular to the axis of rotation by means of a first pivoting apparatus, and wherein the second providing element (6") is pivotable at least about a second pivot axis which is perpendicular to the axis of rotation by means of a second pivoting apparatus (4"), wherein the first providing element is connected to the base element via two rotary joints (14', 15'), and the first providing element is pivoted both about the axis of rotation of the first rotary joint and about the axis of rotation of the second rotary joint during the transfer between a providing position and a waiting position, characterized in that the one of the rotary joints moves on a planetary orbit about the other rotary joint.
A monoclonal antibody antagonizing and inhibiting the binding of human PD-1 antigen to its ligand, characterized in that it contains the first and the second variable regions: the first variable region is an antibody light chain variable region, of which the amino acid sequences of CDR 1, CDR 2 and CDR 3 are shown in SEQ ID NO: 3, SEQ ID NO: 4 and SEQ ID NO: 5, respectively, while the second variable region is an antibody heavy chain variable region, of which the amino acid sequences of CDR 1, CDR 2 and CDR 3 are shown in SEQ ID NO: 8, SEQ ID NO:9 and SEQ ID NO: 10, respectively and wherein the said first variable region is an antibody light chain variable region, with the amino acid sequence shown in SEQ ID NO: 11, while the said second variable region is an antibody heavy chain variable region, with the amino acid sequence shown in SEQ ID NO: 12.
Method for producing packs for cigarettes, wherein a blank from packaging material is introduced into a pocket of a folding turret and herein is partially folded, and wherein a cigarette group that is wrapped in an inner wrapping is introduced as the pack content into the partially folded blank, and wherein folding of the blank is performed during onward transportation on the folding turret, and wherein the pack content has at least one dimension that is smaller than a respective dimension of the interior space of the pack, and wherein, in order to compensate for the at least one dissimilar dimension, a filler piece which by means of a separate conveyor is infed and thereafter is introduced into a pocket of the folding turret is disposed in the pack, characterized in that the blanks by means of an introduction element in an infeeding station of the folding turret are rammed into a pocket of the folding turret, and in that, once a blank has been rammed into the pocket and herein has been partially folded, the filler pieces in the infeeding station for the blanks are likewise introduced into the pocket.
A method for triggering a transmission of sensor data from a wireless device arranged to an automatic door (106a, 106b), characterized in that the method comprises: - receiving by a network node from the wireless device data processed from the sensor data, wherein the wireless device comprises at least one accelerometer, and wherein the sensor data is raw data obtained by the accelerometer of the wireless sensor device; - analyzing by the network node the received data processed from the sensor data; and - generating by the network node a control signal to the wireless device in response to a detection of a predefined event, wherein the control signal comprises at least a request to the wireless device to trigger the transmission of the sensor data. - receiving by a network node from the wireless device data processed from the sensor data, wherein the wireless device comprises at least one accelerometer, and wherein the sensor data is raw data obtained by the accelerometer of the wireless sensor device; - analyzing by the network node the received data processed from the sensor data; and - generating by the network node a control signal to the wireless device in response to a detection of a predefined event, wherein the control signal comprises at least a request to the wireless device to trigger the transmission of the sensor data.
A control method of the wastegate valve in an internal combustion engine turbocharged by a turbocharger; the control method comprises the steps of: determining a target boost pressure (P obj); dividing the operating range of the wastegate valve according to the target boost jump (ΔP obj), i.e. the difference between the target boost pressure (P obj) and the atmospheric pressure (P atm), in at least two distinct zones of operation: a first zone of operation in which the target boost jump (ΔP obj) is lower than a threshold (ΔP obj1) and a second zone (B, C) of operation in which the target boost jump (ΔP obj) is higher than the threshold (ΔP obj1); and determining a target position (WG obj) of the wastegate valve according to the target boost pressure (P obj); the control method is characterized in that it comprises the additional step of determining, when the wastegate valve is in the first zone of operation, the target position (WG obj) of the wastegate valve so as to obtain an actual boost pressure higher than the target boost pressure (P obj) and than the atmospheric pressure (P atm). determining a target boost pressure (P obj); dividing the operating range of the wastegate valve according to the target boost jump (ΔP obj), i.e. the difference between the target boost pressure (P obj) and the atmospheric pressure (P atm), in at least two distinct zones of operation: a first zone of operation in which the target boost jump (ΔP obj) is lower than a threshold (ΔP obj1) and a second zone (B, C) of operation in which the target boost jump (ΔP obj) is higher than the threshold (ΔP obj1); and determining a target position (WG obj) of the wastegate valve according to the target boost pressure (P obj); the control method is characterized in that it comprises the additional step of determining, when the wastegate valve is in the first zone of operation, the target position (WG obj) of the wastegate valve so as to obtain an actual boost pressure higher than the target boost pressure (P obj) and than the atmospheric pressure (P atm).
A hot-rolled steel sheet for electrical steel sheet production, comprising a chemical composition containing, in mass%, C: 0.02 % to 0.08 %, Si: 2.0 % to 5.0 %, Mn: 0.02 % to 1.0 %, acid-soluble Al: 0.01 % or less, and S: 0.0015 % to 0.01 %, wherein N is suppressed to less than 0.006 %, optionally at least one selected from Ni: 1.5 % or less, Cu: 1.0 % or less, Cr: 0.5 % or less, P: 0.5 % or less, Sb: 0.5 % or less, Sn: 0.5 % or less, Bi: 0.5 % or less, Mo: 1.0 % or less, Ti: 0.05 % or less, Nb: 0.1 % or less, V: 0.1 % or less, B: 0.0025 % or less, Te: 0.01 % or less, or Ta: 0.01 % or less, and the balance is Fe and inevitable impurities, and a scale layer on a surface, where the surface of the steel sheet has a lightness L∗ as defined in JIS Z 8781-4: 2013 satisfying 30 ≤ L∗ ≤ 50, and chromaticities a ∗ and b ∗ as defined in JIS Z 8781-4: 2013 within ranges of -1 ≤ a∗ ≤ 2 and -5 ≤ b∗ ≤ 3 respectively, wherein with one end portion in the longitudinal direction of a hot-rolled coil as a reference, a color difference ΔE ab ∗ as defined in JIS Z 8781-4: 2013 at a central portion and at the opposite end portion of the coil satisfies ΔE ab ∗ ≤ 8 respectively. a chemical composition containing, in mass%, C: 0.02 % to 0.08 %, Si: 2.0 % to 5.0 %, Mn: 0.02 % to 1.0 %, acid-soluble Al: 0.01 % or less, and S: 0.0015 % to 0.01 %, wherein N is suppressed to less than 0.006 %, optionally at least one selected from Ni: 1.5 % or less, Cu: 1.0 % or less, Cr: 0.5 % or less, P: 0.5 % or less, Sb: 0.5 % or less, Sn: 0.5 % or less, Bi: 0.5 % or less, Mo: 1.0 % or less, Ti: 0.05 % or less, Nb: 0.1 % or less, V: 0.1 % or less, B: 0.0025 % or less, Te: 0.01 % or less, or Ta: 0.01 % or less, and the balance is Fe and inevitable impurities, and a scale layer on a surface, where the surface of the steel sheet has a lightness L∗ as defined in JIS Z 8781-4: 2013 satisfying 30 ≤ L∗ ≤ 50, and chromaticities a ∗ and b ∗ as defined in JIS Z 8781-4: 2013 within ranges of -1 ≤ a∗ ≤ 2 and -5 ≤ b∗ ≤ 3 respectively, wherein with one end portion in the longitudinal direction of a hot-rolled coil as a reference, a color difference ΔE ab ∗ as defined in JIS Z 8781-4: 2013 at a central portion and at the opposite end portion of the coil satisfies ΔE ab ∗ ≤ 8 respectively.
A 3GPP client device for a wireless communication system, the client device being configured to perform beam/link monitoring according to a link recovery procedure if the client device is in Discontinuous reception in connected mode, C-DRX, mode operation during active time with a network access node, wherein a configured beam failure detection, BFD, timer of the link recovery procedure is a function of a periodicity of beam failure indications; characterized in that the function is based on a periodicity for radio link monitoring resources across DRX cycles and the DRX period; wherein the function is the maximum of the shortest periodicity for radio link monitoring resources across DRX cycles and the DRX period. characterized in that the function is based on a periodicity for radio link monitoring resources across DRX cycles and the DRX period; wherein the function is the maximum of the shortest periodicity for radio link monitoring resources across DRX cycles and the DRX period.
A two-component aqueous composition for coating roofing substrates comprises, in a component one that has a pH of from 7.5 to 10, (i) one or more emulsion copolymers having a glass transition temperature (Tg) as determined by differential scanning calorimetry in accordance with ASTM E-1356 of from -45°C to 0°C, (ii) one or more anionic surfactants, and, in a separate component, (iii) an aqueous acid chosen from a (poly)carboxylic acid or polymeric polyacid, wherein, component one of the two-component aqueous composition comprises less than 0.090 wt.% ammonia, based on the total weight of the component one composition, the solids weight ratio of the component one to the separate component ranges from 80:1 to 0.8:1, and the term "solids" is used to refer to any and every material in the two-component composition other than water, ammonia and volatile solvents.
A parallelism conservation mechanical device for maintaining parallelism, comprising: a first bar, a second bar, a third bar and a fourth bar, each bar having an upper surface, a bottom surface, a first side surface and a second side surface, the upper surface of the first bar forming the upper surface of the device and the bottom surface of the fourth bar forming the bottom surface of the device; wherein the first side surface in the longitudinal direction of the first bar and the first side surface in the longitudinal direction of the second bar are bridged by a first flexure, leaving a gap between the bottom surface of the first bar and the upper surface of the second bar; the second side surface in the longitudinal direction of the second bar and the second side surface in the longitudinal direction of the third bar are bridged by a second flexure, leaving a gap between the bottom surface of the second bar and the upper surface of the third bar; and the first side surface in the longitudinal direction of the third bar and the first side surface in the longitudinal direction of the fourth bar are bridged by a third flexure, leaving a gap between the bottom surface of the third bar and the upper surface of the fourth bar; characterized by the device further comprising a sensor for detecting a surface movement of the device. a first bar, a second bar, a third bar and a fourth bar, each bar having an upper surface, a bottom surface, a first side surface and a second side surface, the upper surface of the first bar forming the upper surface of the device and the bottom surface of the fourth bar forming the bottom surface of the device; wherein the first side surface in the longitudinal direction of the first bar and the first side surface in the longitudinal direction of the second bar are bridged by a first flexure, leaving a gap between the bottom surface of the first bar and the upper surface of the second bar; the second side surface in the longitudinal direction of the second bar and the second side surface in the longitudinal direction of the third bar are bridged by a second flexure, leaving a gap between the bottom surface of the second bar and the upper surface of the third bar; and the first side surface in the longitudinal direction of the third bar and the first side surface in the longitudinal direction of the fourth bar are bridged by a third flexure, leaving a gap between the bottom surface of the third bar and the upper surface of the fourth bar; characterized by the device further comprising a sensor for detecting a surface movement of the device.
A fluid valve, comprising: a fluid flow control member having a fastener and a valve plug such that a gap is provided between the fastener and the valve plug; wherein the valve plug has a first annular shoulder adjacent an end of the valve plug; a seal disposed on the first annular shoulder; wherein the fastener is disposed at the end of the valve plug to apply a load to the seal to force the seal against the first annular shoulder, wherein the fastener is a threaded fastener that is threadably coupled to the valve plug to allow the fastener to move relative to the valve plug, and wherein the fastener is movable toward the valve plug along a common longitudinal axis to reduce or close the gap between the fastener and the valve plug; a valve cage for guiding movement of the valve plug of the flow control member, wherein the cage aligns the valve plug relative to the common longitudinal axis and provides stability to the valve plug as the valve plug moves, wherein a wall of the cage surrounds the fluid flow control member and slidably engages the valve plug, and wherein the seal is disposed on the first annular shoulder of the valve plug between the wall of the cage and the valve plug; characterized in that, the fluid valve comprises a load ring between the fastener and the seal to distribute the load applied by the fastener to the seal. a fluid flow control member having a fastener and a valve plug such that a gap is provided between the fastener and the valve plug; wherein the valve plug has a first annular shoulder adjacent an end of the valve plug; a seal disposed on the first annular shoulder; wherein the fastener is disposed at the end of the valve plug to apply a load to the seal to force the seal against the first annular shoulder, wherein the fastener is a threaded fastener that is threadably coupled to the valve plug to allow the fastener to move relative to the valve plug, and wherein the fastener is movable toward the valve plug along a common longitudinal axis to reduce or close the gap between the fastener and the valve plug; a valve cage for guiding movement of the valve plug of the flow control member, wherein the cage aligns the valve plug relative to the common longitudinal axis and provides stability to the valve plug as the valve plug moves, wherein a wall of the cage surrounds the fluid flow control member and slidably engages the valve plug, and wherein the seal is disposed on the first annular shoulder of the valve plug between the wall of the cage and the valve plug; characterized in that, the fluid valve comprises a load ring between the fastener and the seal to distribute the load applied by the fastener to the seal.