mhurhangee/ep-ind-claims huggingface dataset:
A plant-abnormality-monitoring method comprising: a step of creating a unit space for calculating a Mahalanobis distance, wherein the unit space comprises an aggregate of plant data and serves as a criterion for determining an operation condition of a plant from reference data from a past monitoring target in the plant, wherein the reference data is obtained during a reference period of the plant during a normal operation of the monitoring target; a step of collecting measurement data from the monitoring target in the operation condition of the plant; a step of calculating a Mahalanobis distance of the measured data which is collected, according to the unit space which is created from an aggregate of the reference data; a step of calculating and comparing a dispersion value of the reference data in the reference period and a dispersion value of measurement data in a most recent fixed period, which is shorter than the reference period, per fixed interval for the Mahalanobis distance and a step of updating the reference data when a proportion of the dispersion value of the reference data in the reference period to the dispersion value of the measurement data in the most recent fixed period exceeds a criterion value serving as a threshold value. a step of creating a unit space for calculating a Mahalanobis distance, wherein the unit space comprises an aggregate of plant data and serves as a criterion for determining an operation condition of a plant from reference data from a past monitoring target in the plant, wherein the reference data is obtained during a reference period of the plant during a normal operation of the monitoring target; a step of collecting measurement data from the monitoring target in the operation condition of the plant; a step of calculating a Mahalanobis distance of the measured data which is collected, according to the unit space which is created from an aggregate of the reference data; a step of calculating and comparing a dispersion value of the reference data in the reference period and a dispersion value of measurement data in a most recent fixed period, which is shorter than the reference period, per fixed interval for the Mahalanobis distance and a step of updating the reference data when a proportion of the dispersion value of the reference data in the reference period to the dispersion value of the measurement data in the most recent fixed period exceeds a criterion value serving as a threshold value.
A surface-coated cutting tool in which a hard coating layer having a total layer thickness of 0.5 to 10 μm is deposited on a surface of a tool body made of tungsten carbide-based cemented carbide or titanium carbonitride-based cermet, wherein (a) the hard coating layer has an alternately laminated structure of A layers and B layers, (b) in a case where the A layer is expressed by a composition formula: (Al a Ti 1-a)N (here, a is in atomic ratio), the A layer satisfies 0.50 ≤ a < 0.75, (c) in a case where the B layer is expressed by a composition formula: (Al b Ti 1-b) N (here, b is in atomic ratio), the B layer satisfies 0.75 ≤ b ≤ 0.95, characterized in that (d) when a layer thickness per layer of the A layers is represented by x (nm) and a layer thickness per layer of the B layers is represented by y (nm), 5y ≥ x ≥ 3y and 250 (nm) ≥ x + y ≥ 100 (nm) are satisfied. (a) the hard coating layer has an alternately laminated structure of A layers and B layers, (b) in a case where the A layer is expressed by a composition formula: (Al a Ti 1-a)N (here, a is in atomic ratio), the A layer satisfies 0.50 ≤ a < 0.75, (c) in a case where the B layer is expressed by a composition formula: (Al b Ti 1-b) N (here, b is in atomic ratio), the B layer satisfies 0.75 ≤ b ≤ 0.95, characterized in that (d) when a layer thickness per layer of the A layers is represented by x (nm) and a layer thickness per layer of the B layers is represented by y (nm), 5y ≥ x ≥ 3y and 250 (nm) ≥ x + y ≥ 100 (nm) are satisfied.
An evaporator plate heat exchanger comprising a stack of injected moulded frames and heat exchange sheets, wherein the stack has two ends (7,8) and at least four sides (9,10,11,12), wherein the stack has alternating first and second spaces between the heat exchange sheets, characterized in that, the evaporator further comprises a water supply and in that the stack further comprises a first enclosed space at one side of the stack which is fluidly connected to the first spaces and not fluidly connected to the second spaces and wherein the first enclosed space is fluidly connected to the water supply. wherein the stack has alternating first and second spaces between the heat exchange sheets, characterized in that, the evaporator further comprises a water supply and in that the stack further comprises a first enclosed space at one side of the stack which is fluidly connected to the first spaces and not fluidly connected to the second spaces and wherein the first enclosed space is fluidly connected to the water supply.
A method for the diagnosis of non-alcoholic steatohepatitis (NASH) or for determining the activity, the stage, or the severity of NASH in a subject, comprising the step of measuring the blood, serum or plasma level of: (i) alpha 2 macroglobulin; (ii) glycated haemoglobin (HbA1c); (iii) N-terminal pro-peptide of collagen type III; (iv) hsa-miR-34a-5p; and (v) hsa-miR-200a-3p. (i) alpha 2 macroglobulin; (ii) glycated haemoglobin (HbA1c); (iii) N-terminal pro-peptide of collagen type III; (iv) hsa-miR-34a-5p; and (v) hsa-miR-200a-3p.
A window assembly comprising: a vacuum insulated glass unit including first and second glass substrates defining a space therebetween that is at a pressure lower than atmospheric pressure, one of the first and second glass substrates including a vacuum port extending outward therefrom, the vacuum port defining a passage in communication with the space; and a frame assembly supporting the glass unit and including a base member and a glazing member, the base member and the glazing member cooperating to define a slot in which an edge portion of the glass unit is received, one of the base member or the glazing member including a cavity receiving the vacuum port, the glazing member and the base member defining a plurality of pockets that reduce thermal conductivity through the frame assembly. a vacuum insulated glass unit including first and second glass substrates defining a space therebetween that is at a pressure lower than atmospheric pressure, one of the first and second glass substrates including a vacuum port extending outward therefrom, the vacuum port defining a passage in communication with the space; and a frame assembly supporting the glass unit and including a base member and a glazing member, the base member and the glazing member cooperating to define a slot in which an edge portion of the glass unit is received, one of the base member or the glazing member including a cavity receiving the vacuum port, the glazing member and the base member defining a plurality of pockets that reduce thermal conductivity through the frame assembly.
A liquid discharge head, comprising: an energy generating element for generating energy to be used for discharge of a liquid; a discharge port for discharging the liquid; and a passage for supplying the liquid to the discharge port, wherein the discharge port and the passage are each formed of a photosensitive resin; and the photosensitive resin comprises: an epoxy resin represented by Formula; an epoxy resin having an epoxy equivalent of 220 or less and having twice or more epoxy groups in a molecule than epoxy groups of the epoxy resin; and a photocationic polymerization initiator, wherein: the epoxy resins and constitute main components; and a weight of the epoxy resin is 40% or more and a weight of the epoxy resin is 30% or more with respect to a total weight of the epoxy resins and: where: R represents a hydrogen atom, a methyl group, an ethyl group, a propyl group, or a t-butyl group; n represents an integer of 0 or more and 4 or less; and m represents an integer of 1 or more and 3 or less. an energy generating element for generating energy to be used for discharge of a liquid; a discharge port for discharging the liquid; and a passage for supplying the liquid to the discharge port, an epoxy resin represented by Formula; an epoxy resin having an epoxy equivalent of 220 or less and having twice or more epoxy groups in a molecule than epoxy groups of the epoxy resin; and a photocationic polymerization initiator, wherein: the epoxy resins and constitute main components; and a weight of the epoxy resin is 40% or more and a weight of the epoxy resin is 30% or more with respect to a total weight of the epoxy resins and: where: R represents a hydrogen atom, a methyl group, an ethyl group, a propyl group, or a t-butyl group; n represents an integer of 0 or more and 4 or less; and m represents an integer of 1 or more and 3 or less. the epoxy resins and constitute main components; and a weight of the epoxy resin is 40% or more and a weight of the epoxy resin is 30% or more with respect to a total weight of the epoxy resins and: where: R represents a hydrogen atom, a methyl group, an ethyl group, a propyl group, or a t-butyl group; n represents an integer of 0 or more and 4 or less; and m represents an integer of 1 or more and 3 or less.
Device for obtaining respiratory information of a subject, comprising: - a motion signal computing unit for estimating motion to obtain motion vectors and computing a dense or sparse motion vector field comprising a number M of motion signals from the obtained motion vectors for a plurality of pixels and/or groups of pixels of at least a region of interest for a number N of image frames of a subject, a motion signal reflecting the estimated motion of a part of the region of interest corresponding to the pixel or group of pixels for which the motion signal is computed, - a transformation unit for computing, for some or all M motion signals, a number of source signals representing independent motions within said images by applying a transformation to the respective motion signals to obtain source signals representing independent motions within said N image frames, and - a selection unit for selecting a source signal from among said computed source signals representing respiration of said subject by examining one or more properties of said source signals for some or all of said computed source signals. - a motion signal computing unit for estimating motion to obtain motion vectors and computing a dense or sparse motion vector field comprising a number M of motion signals from the obtained motion vectors for a plurality of pixels and/or groups of pixels of at least a region of interest for a number N of image frames of a subject, a motion signal reflecting the estimated motion of a part of the region of interest corresponding to the pixel or group of pixels for which the motion signal is computed, - a transformation unit for computing, for some or all M motion signals, a number of source signals representing independent motions within said images by applying a transformation to the respective motion signals to obtain source signals representing independent motions within said N image frames, and - a selection unit for selecting a source signal from among said computed source signals representing respiration of said subject by examining one or more properties of said source signals for some or all of said computed source signals.
A method of fabricating a semiconductor sensor device comprising: Forming from silicon dioxide a seed layer above a substrate; forming at least one electrode above the seed layer; and forming a porous sensing layer on the seed layer and in electrical communication with the at least one electrode using atomic layer deposition, ALD by nucleating, at spaced apart sites on the seed layer, a sensing material, thereby forming a plurality of grain boundaries resulting in the porous sensing layer, characterized in that the forming of the seed layer further comprises a step of structuring the seed layer by a) trenching the deposited seed layer, b) ion-milling the deposited seed layer at spaced-apart nucleation sites, or c) chemically activating spaced-apart nucleation sites on the deposited seed layer. Forming from silicon dioxide a seed layer above a substrate; forming at least one electrode above the seed layer; and forming a porous sensing layer on the seed layer and in electrical communication with the at least one electrode using atomic layer deposition, ALD by nucleating, at spaced apart sites on the seed layer, a sensing material, thereby forming a plurality of grain boundaries resulting in the porous sensing layer, characterized in that the forming of the seed layer further comprises a step of structuring the seed layer by a) trenching the deposited seed layer, b) ion-milling the deposited seed layer at spaced-apart nucleation sites, or c) chemically activating spaced-apart nucleation sites on the deposited seed layer. a) trenching the deposited seed layer, b) ion-milling the deposited seed layer at spaced-apart nucleation sites, or c) chemically activating spaced-apart nucleation sites on the deposited seed layer.
Tyre building drum for assembling a green tyre, comprising members arranged circumferentially about a main axis of the drum and mounted with the ability to move in the direction radial to the axis, each member bearing supports which are: - able to form an external face of the drum, - mounted with the ability to move relative to one another on the member in a direction radial to the axis, - mounted with the ability to slide with respect to the member in a direction parallel to the axis so as to vary a dimension of the external face in the direction parallel to the axis, and - articulated with respect to one another so that when they are forming the external face they are in abutment with one another so as to remain immobile under the effect of a force applied in the direction of the axis. - able to form an external face of the drum, - mounted with the ability to move relative to one another on the member in a direction radial to the axis, - mounted with the ability to slide with respect to the member in a direction parallel to the axis so as to vary a dimension of the external face in the direction parallel to the axis, and - articulated with respect to one another so that when they are forming the external face they are in abutment with one another so as to remain immobile under the effect of a force applied in the direction of the axis.
An electronic communication device for radio communication, wherein the electronic communication device comprises a control module and a connector interface, wherein the connector interface is configured to be connected to at least one external electronic device associated with an identification chip with configuration information and/or identification information, wherein the connector interface comprises an information signal line being configured to receive the configuration information and/or identification information, wherein the connector interface is configured to forward the configuration information and/or identification information received to the control module, wherein the control module is configured to evaluate the configuration information and/or the identification information received, and wherein the control module is configured to set communication parameters of the electronic communication device automatically based on the configuration information and/or the identification information evaluated, characterized in that the electronic communication device is established as a handheld radio, wherein the control module receives the identification information and/or the configuration information from the identification chip via the information signal line. wherein the connector interface is configured to be connected to at least one external electronic device associated with an identification chip with configuration information and/or identification information, wherein the connector interface comprises an information signal line being configured to receive the configuration information and/or identification information, wherein the connector interface is configured to forward the configuration information and/or identification information received to the control module, wherein the control module is configured to evaluate the configuration information and/or the identification information received, and wherein the control module is configured to set communication parameters of the electronic communication device automatically based on the configuration information and/or the identification information evaluated, characterized in that the electronic communication device is established as a handheld radio, wherein the control module receives the identification information and/or the configuration information from the identification chip via the information signal line.
A bucket assembly, comprising: an external rotary handle having a defined ON position and OFF position associated with conduction and non-conduction; a shaft attached to the rotary handle and extending into the bucket assembly; an operator mechanism cooperably engaging the shaft, the operator mechanism comprising a gear assembly with a rack gear that linearly moves an operator slider; a circuit breaker in the bucket assembly having a lever in communication with the operator slider; and a trip assist spring that cooperates with the rack gear to move the external rotary handle to a defined orientation when the circuit breaker trips, wherein the rack gear comprises rack gear teeth, and wherein the trip assist spring is held over an outer surface of a guide rod held above the rack gear teeth. an external rotary handle having a defined ON position and OFF position associated with conduction and non-conduction; a shaft attached to the rotary handle and extending into the bucket assembly; an operator mechanism cooperably engaging the shaft, the operator mechanism comprising a gear assembly with a rack gear that linearly moves an operator slider; a circuit breaker in the bucket assembly having a lever in communication with the operator slider; and a trip assist spring that cooperates with the rack gear to move the external rotary handle to a defined orientation when the circuit breaker trips, wherein the rack gear comprises rack gear teeth, and wherein the trip assist spring is held over an outer surface of a guide rod held above the rack gear teeth.
An elevator system having a predetermined maximum laden mass (Q MAX), comprising: a car having a predetermined car mass value (M cab), a counterweight having a counterweight mass value (M CP) that is strictly less than the mass of the car plus half the maximum laden mass, said counterweight mass (M PC) is chosen equal to the mass of the car (M cab) added with a balancing load value (Q eq), said balancing load (Q eq) being equal to 32% of the predetermined maximum laden value (Q MAX); a control device comprising receiving means for receiving a current measured load value (Q mes), processing means for calculating a speed value according to the current measured load value and transmission means for transmitting a control signal so as to cause the car to move at the calculated speed, said elevator system further comprising two pulleys (5, 6), to be installed at the respective ends of the elevator shaft, a traction pulley installed at the upper end of the elevator shaft and a pulley installed at the lower end of the elevator shaft; and wherein at least one of the car and the counterweight is mounted on at least one linear element that passes via the two pulleys so as to form a closed loop with said at least one of the car and the counterweight, to allow the at least one linear element to be tensioned to the open voltage and to provide adherent contact with the pulleys; wherein the linear element comprises a belt with a flat cross-section. a car having a predetermined car mass value (M cab), a counterweight having a counterweight mass value (M CP) that is strictly less than the mass of the car plus half the maximum laden mass, said counterweight mass (M PC) is chosen equal to the mass of the car (M cab) added with a balancing load value (Q eq), said balancing load (Q eq) being equal to 32% of the predetermined maximum laden value (Q MAX); a control device comprising receiving means for receiving a current measured load value (Q mes), processing means for calculating a speed value according to the current measured load value and transmission means for transmitting a control signal so as to cause the car to move at the calculated speed, said elevator system further comprising two pulleys (5, 6), to be installed at the respective ends of the elevator shaft, a traction pulley installed at the upper end of the elevator shaft and a pulley installed at the lower end of the elevator shaft; and wherein at least one of the car and the counterweight is mounted on at least one linear element that passes via the two pulleys so as to form a closed loop with said at least one of the car and the counterweight, to allow the at least one linear element to be tensioned to the open voltage and to provide adherent contact with the pulleys; wherein the linear element comprises a belt with a flat cross-section.
A control device comprising: an acquisition unit (120, 130) that acquires a detection result of an attitude of at least any one of one or more antenna elements configured to control directions of directional beams and performing wireless communication using the directional beams; and a control unit that sets a state in which a radio signal transmitted using at least a directional beam from a base station is receivable as a reference state, and controls the wireless communication with the base station using the directional beam according to a change in the attitude from the reference state; wherein the reference state is a state in which in an initial access procedure, reception power of a synchronisation signal, SS, block in the radio signal transmitted using the directional beam from the base station is equal to or larger than a threshold; and wherein 5 in a subsequent random access procedure, spatial quasi co-location, QCL, is performed on the assumption that beam synchronization with the SS block has been taken and a beam pair link state has been maintained. an acquisition unit (120, 130) that acquires a detection result of an attitude of at least any one of one or more antenna elements configured to control directions of directional beams and performing wireless communication using the directional beams; and a control unit that sets a state in which a radio signal transmitted using at least a directional beam from a base station is receivable as a reference state, and controls the wireless communication with the base station using the directional beam according to a change in the attitude from the reference state; in an initial access procedure, reception power of a synchronisation signal, SS, block in the radio signal transmitted using the directional beam from the base station is equal to or larger than a threshold; and wherein 5 in a subsequent random access procedure, spatial quasi co-location, QCL, is performed on the assumption that beam synchronization with the SS block has been taken and a beam pair link state has been maintained.