mhurhangee/patent-ind-claim-en huggingface dataset:
A method of characterizing creped sheet structure comprising: providing an imaging system comprising one or more imaging or photographic sensors or devices; generating one or more signals defining one or more images of a region of the creped sheet structure, wherein said creped sheet structure is in motion; and, evaluating the generated image taken of the creped sheet structure with a two-dimensional spectral analysis tool which is configured to characterize the frequency and magnitude or scale of information contained in the generated image and which uses one or more metrics to determine crepe ridge characteristics, crepe trough characteristics, characterization of the imposed three dimensional structure, sheet bulk, sheet internal disruptions, and/or free fiber ends. providing an imaging system comprising one or more imaging or photographic sensors or devices; generating one or more signals defining one or more images of a region of the creped sheet structure, wherein said creped sheet structure is in motion; and, evaluating the generated image taken of the creped sheet structure with a two-dimensional spectral analysis tool which is configured to characterize the frequency and magnitude or scale of information contained in the generated image and which uses one or more metrics to determine crepe ridge characteristics, crepe trough characteristics, characterization of the imposed three dimensional structure, sheet bulk, sheet internal disruptions, and/or free fiber ends.
A method of mounting lining elements to a structure exposed to wear by means of an interface engagement fastening arrangement, said method comprising the steps of attaching at least one strip or sheet provided with a first part of the interface engagement fastening arrangement to a mounting surface of the structure , wherein the first part is exposed; providing lining elements having a second part of the interface engagement fastening arrangement; and attaching said second part of the lining elements to said exposed first part of the interface engagement fastening arrangement attached to the mounting surface of the structure ; wherein the first and second parts of said interface engagement fastening arrangement are engaged by means of corresponding hook-like projections and matching loops of a hook and loop fastener provided on said first and second parts , respectively; whereby said lining element mounting is obtained; and wherein the hook-like projections of the hook and loop fastener comprise: (i) a number of mushroom shaped protrusions each having a hat portion configured to be received in a matching loop of the hook and loop fastener, wherein the hat portion of the mushroom shaped protrusion and the matching loop are engaged when the hat portion is penetrated through the loop ; or (ii) a number of T-hooks each having a T-shaped portion configured to be received in a matching loop of the hook and loop fastener, wherein the T-shaped portion of the T-hook and the matching loop are engaged when the T-shaped portion is penetrated through the loop . (i) a number of mushroom shaped protrusions each having a hat portion configured to be received in a matching loop of the hook and loop fastener, wherein the hat portion of the mushroom shaped protrusion and the matching loop are engaged when the hat portion is penetrated through the loop ; or (ii) a number of T-hooks each having a T-shaped portion configured to be received in a matching loop of the hook and loop fastener, wherein the T-shaped portion of the T-hook and the matching loop are engaged when the T-shaped portion is penetrated through the loop .
An actuator coupling component, comprising: - a hollow shaft , having one end in use being driven by the actuator and another end connected to a valve adapter , the hollow shaft being capable of controlling, under a driving action of the actuator , an action of the valve adapter ; - an openwork support , in use being supported between the valve adapter and the actuator ; - a heat barrier pad , having a set thickness and having a through-hole for the hollow shaft to pass through, the heat barrier pad in use being located between the valve adapter and the openwork support ; - the hollow shaft passing through the openwork support and the heat barrier pad before being connected to the valve adapter ; - the openwork support has a first mating end face , a second mating end face , and a connecting frame which connects the first mating end face with the second mating end face ; wherein the first mating end face is fitted to the heat barrier pad ; the second mating end face is fitted to the actuator ; and holes for the hollow shaft to pass through are provided on the first mating end face and the second mating end face respectively; characterized in that that side of the first mating end face which is in contact with the heat barrier pad is provided with multiple first bosses ; that side of the second mating end face which in use is in contact with the actuator is provided with multiple second bosses . - a hollow shaft , having one end in use being driven by the actuator and another end connected to a valve adapter , the hollow shaft being capable of controlling, under a driving action of the actuator , an action of the valve adapter ; - an openwork support , in use being supported between the valve adapter and the actuator ; - a heat barrier pad , having a set thickness and having a through-hole for the hollow shaft to pass through, the heat barrier pad in use being located between the valve adapter and the openwork support ; - the hollow shaft passing through the openwork support and the heat barrier pad before being connected to the valve adapter ; - the openwork support has a first mating end face , a second mating end face , and a connecting frame which connects the first mating end face with the second mating end face ; wherein the first mating end face is fitted to the heat barrier pad ; the second mating end face is fitted to the actuator ; and holes for the hollow shaft to pass through are provided on the first mating end face and the second mating end face respectively; characterized in that that side of the first mating end face which is in contact with the heat barrier pad is provided with multiple first bosses ; that side of the second mating end face which in use is in contact with the actuator is provided with multiple second bosses .
Process for making a particulate (oxy)hydroxide of TM wherein TM represents metals and TM comprises at least 75 mol-% nickel and wherein said process comprises the steps of: (a) providing an aqueous solution (α) containing a water-soluble salt of nickel and of one metal selected from cobalt and manganese, and further in the range of from 0.05 to 3.0 mol-% of a compound of at least one metal selected from Ti, Zr, Mg and Nb, and in the range of from 0.05 to 2.0 mol-%, referring to TM, of an α- or β-hydroxy carboxylic acid or ascorbic acid or of an amino acid selected from glycine, alanine and serine, or their alkali metal salts, and an aqueous solution (β) containing an alkali metal hydroxide and, optionally, an aqueous solution (γ) containing ammonia, (b) combining a solution (α) and a solution (β) and, if applicable, a solution (γ) at a pH value in the range of from 11.0 to 13.0 in a stirred tank reactor, thereby creating solid particles of a hydroxide containing nickel, said solid particles being slurried. (a) providing an aqueous solution (α) containing a water-soluble salt of nickel and of one metal selected from cobalt and manganese, and further in the range of from 0.05 to 3.0 mol-% of a compound of at least one metal selected from Ti, Zr, Mg and Nb, and in the range of from 0.05 to 2.0 mol-%, referring to TM, of an α- or β-hydroxy carboxylic acid or ascorbic acid or of an amino acid selected from glycine, alanine and serine, or their alkali metal salts, and an aqueous solution (β) containing an alkali metal hydroxide and, optionally, an aqueous solution (γ) containing ammonia, (b) combining a solution (α) and a solution (β) and, if applicable, a solution (γ) at a pH value in the range of from 11.0 to 13.0 in a stirred tank reactor, thereby creating solid particles of a hydroxide containing nickel, said solid particles being slurried.
A system comprising an optical parametric oscillator (OPO) device comprising: an optical resonator ; a first nonlinear optical element (OPO1) configured to receive a first pump beam (P1) and to produce, via optical parametric oscillation of the first pump beam, a first output (S1) having a signal wave frequency and a second output (I1) having an idler wave frequency, wherein the idler frequency is lower than the signal wave frequency; and a second nonlinear optical element (OPO2) configured to receive a second pump beam (P2), wherein the second pump beam has a higher frequency than the first pump beam, and to produce, via optical parametric oscillation of the second pump beam, a third output (S2) having a third frequency and a fourth output having a fourth frequency, wherein the fourth frequency is lower than the third frequency, wherein the signal wave frequency is identical to the fourth frequency to a degree that results in a single longitudinal mode appearance, wherein the first nonlinear optical element and the second nonlinear optical element are inside the optical resonator, and wherein the OPO device is configured to resonate at the signal wave frequency and the fourth frequency. an optical resonator ; a first nonlinear optical element (OPO1) configured to receive a first pump beam (P1) and to produce, via optical parametric oscillation of the first pump beam, a first output (S1) having a signal wave frequency and a second output (I1) having an idler wave frequency, wherein the idler frequency is lower than the signal wave frequency; and a second nonlinear optical element (OPO2) configured to receive a second pump beam (P2), wherein the second pump beam has a higher frequency than the first pump beam, and to produce, via optical parametric oscillation of the second pump beam, a third output (S2) having a third frequency and a fourth output having a fourth frequency, wherein the fourth frequency is lower than the third frequency, wherein the signal wave frequency is identical to the fourth frequency to a degree that results in a single longitudinal mode appearance, wherein the first nonlinear optical element and the second nonlinear optical element are inside the optical resonator, and wherein the OPO device is configured to resonate at the signal wave frequency and the fourth frequency.
An apparatus for coupling with a respiratory therapy device that generates a flow of breathable gas and a patient interface that delivers the flow of breathable gas to a patient, the apparatus comprising: a delivery conduit having a gas passage configured to conduct the generated flow of breathable gas from the respiratory therapy device to the patient interface , the delivery conduit having a respiratory therapy device coupler end and a patient interface coupler end, the delivery conduit having a length extending from the respiratory therapy device coupler end to the patient interface coupler end, and a wireless transceiver mounted on the delivery conduit at a point along the length of the delivery conduit closer to the patient interface coupler end than to the respiratory therapy device coupler end, characterized in that the wireless transceiver is configured to receive data stored on an accessory connected to the respiratory therapy device and send the data to a controller . a delivery conduit having a gas passage configured to conduct the generated flow of breathable gas from the respiratory therapy device to the patient interface , the delivery conduit having a respiratory therapy device coupler end and a patient interface coupler end, the delivery conduit having a length extending from the respiratory therapy device coupler end to the patient interface coupler end, and a wireless transceiver mounted on the delivery conduit at a point along the length of the delivery conduit closer to the patient interface coupler end than to the respiratory therapy device coupler end, characterized in that the wireless transceiver is configured to receive data stored on an accessory connected to the respiratory therapy device and send the data to a controller .
A tube-in-tube unified shell element heat exchanger comprising: an outer tube structure comprising a tube wall defining a first end opposite a second end; the outer tube structure comprises an interior surface and an exterior surface opposite the interior surface ; the outer tube structure comprises an end cap connected to the second end of the tube wall ; the outer tube structure comprises a top section proximate the first end; the top section includes a flange and a flow outlet ; the tube wall of the outer tube structure connects with the top section proximate the flange to form an integral outer tube structure; an inner tube structure including a tubular shaped inner body defining an internal flow area, the inner tube structure including surface features formed on the exterior of the inner tube structure ; inner tube structure includes an outlet port opposite the inlet port ; and a gap formed between the outer tube structure and the inner tube structure , the gap fluidly coupled between the inlet port and the flow outlet , the heat exchanger being characterized in that the interior surface includes an augmentation structure , in that the inner tube structure includes a top ring connected to the exterior proximate an inlet port of the inner tube structure , and in that the top ring of the inner tube structure is connected with the top section of the outer tube structure . an outer tube structure comprising a tube wall defining a first end opposite a second end; the outer tube structure comprises an interior surface and an exterior surface opposite the interior surface ; the outer tube structure comprises an end cap connected to the second end of the tube wall ; the outer tube structure comprises a top section proximate the first end; the top section includes a flange and a flow outlet ; the tube wall of the outer tube structure connects with the top section proximate the flange to form an integral outer tube structure; an inner tube structure including a tubular shaped inner body defining an internal flow area, the inner tube structure including surface features formed on the exterior of the inner tube structure ; inner tube structure includes an outlet port opposite the inlet port ; and a gap formed between the outer tube structure and the inner tube structure , the gap fluidly coupled between the inlet port and the flow outlet , the heat exchanger being characterized in that the interior surface includes an augmentation structure , in that the inner tube structure includes a top ring connected to the exterior proximate an inlet port of the inner tube structure , and in that the top ring of the inner tube structure is connected with the top section of the outer tube structure .
Method for the operation of a humidification module , wherein the humidification module comprises a container , which has a water inlet and a steam outlet , a heating device , which is arranged in the inner chamber of the container , and a temperature sensor and a control circuit for the control or regulation of a water supply through the water inlet and/or for the control or regulation of a heat output of the heating device , characterized in that the container is filled with water to the maximum extent at which a steam volume remains which contains water vapor produced by heating with the heating device , in that part of the heating device extends out of the water and extends into the steam volume such that the water vapor can be superheated, and in that the temperature sensor is arranged such that it directly or indirectly measures the temperature of the water vapor, wherein the measured temperature is used by the control circuit as a regulation parameter. wherein the humidification module comprises a container , which has a water inlet and a steam outlet , a heating device , which is arranged in the inner chamber of the container , and a temperature sensor and a control circuit for the control or regulation of a water supply through the water inlet and/or for the control or regulation of a heat output of the heating device , characterized in that the container is filled with water to the maximum extent at which a steam volume remains which contains water vapor produced by heating with the heating device , in that part of the heating device extends out of the water and extends into the steam volume such that the water vapor can be superheated, and in that the temperature sensor is arranged such that it directly or indirectly measures the temperature of the water vapor, wherein the measured temperature is used by the control circuit as a regulation parameter.
Water rescue system comprising a first tubular element connectable to crafts comprising a housing for a first inflatable boat and a second tubular element comprising a housing for a second inflatable boat , each tubular element being provided with connection means for the connection to a craft used during rescue operations, Characterized in that each of the connection means comprises a first curved portion having a radius curvature which is variable depending on the type of boat it has to be fixed and a L-shaped second portion provided with holes for connection to the craft by means of connection means to be inserted in reinforcement plates and to be blocked by a nut and a washer .
A device for printing on hollow bodies , having a segmented wheel and a device for sequentially feeding the hollow bodies to the periphery of the segmented wheel , wherein said device comprises at least a conveyor wheel and a mandrel wheel , wherein in the transport direction of the hollow bodies , first the conveyor wheel , then the mandrel wheel and thereafter the segmented wheel are arranged, wherein a plurality of driver elements is arranged on the periphery of the conveyor wheel , and a plurality of holding devices is arranged on the periphery of the mandrel wheel , each holding device being provided for receiving a hollow body , which is to be printed in cooperation with the segmented wheel , wherein the conveyor wheel has a suction apparatus for suctioning each hollow body to be supplied to the segmented wheel , wherein the suction apparatus has a suction pump , wherein the suction pump is switched on or off by a central control unit in dependence on the angular position (A; B) of the conveyor wheel and, when switched on, produces a negative pressure, wherein a hollow body which is to be conveyed to the mandrel wheel by the conveyor wheel and which is arranged on one of the driver elements of the conveyor wheel is held on the particular driver element of the conveyor wheel by the negative pressure in an angular range (ω) of the rotating conveyor wheel , characterized in that the drive of the conveyor wheel is configured as a position controlled motorized direct drive, wherein the angular range (ω) within which a hollow body to be conveyed by the conveyor wheel to the mandrel wheel is held on a driver element arranged on the circumference of the conveyor wheel , and/or an angular position, at which a hollow body to be conveyed by the conveyor wheel to the mandrel wheel is transferred by the conveyor wheel to the mandrel wheel is adjusted or at least can be adjusted in increments of 0.01 mm or less.
A method comprising: receiving , at a device in a network , an indication of an anomalous traffic flow detected by a machine learning node in the network ; determining , by the device , an action policy for the anomalous traffic flow , based on an anomaly type or severity associated with the anomalous traffic flow ; determining , by the device , a quarantine policy for the anomalous traffic flow , based on the anomaly type or severity associated with the anomalous traffic flow ; and providing , by the device , the action and quarantine policies to the node ; receiving, by the device , packets and associated metadata of the anomalous traffic flow from the node , wherein the metadata is indicative of at least one of: the anomaly type, the severity, a packet capture duration, or an indication as to whether the packets were captured proactively by the node ; indexing and storing, by the device , the received packets and associated metadata of the anomalous traffic flow ; receiving, at the device , a query request from a user device for selected data from the indexed packets and metadata of the anomalous traffic flow ; and providing, by the device , the selected data of the anomalous traffic flow to the user device for further analysis. receiving , at a device in a network , an indication of an anomalous traffic flow detected by a machine learning node in the network ; determining , by the device , an action policy for the anomalous traffic flow , based on an anomaly type or severity associated with the anomalous traffic flow ; determining , by the device , a quarantine policy for the anomalous traffic flow , based on the anomaly type or severity associated with the anomalous traffic flow ; and providing , by the device , the action and quarantine policies to the node ; receiving, by the device , packets and associated metadata of the anomalous traffic flow from the node , wherein the metadata is indicative of at least one of: the anomaly type, the severity, a packet capture duration, or an indication as to whether the packets were captured proactively by the node ; indexing and storing, by the device , the received packets and associated metadata of the anomalous traffic flow ; receiving, at the device , a query request from a user device for selected data from the indexed packets and metadata of the anomalous traffic flow ; and providing, by the device , the selected data of the anomalous traffic flow to the user device for further analysis.