mhurhangee/ep-ind-claims huggingface dataset:
A device for ultrasonic-accelerated hematoma lysis or thrombolysis of intracerebral or intraventricular hemorrhages or hematomas, comprising an endosonographic probe, a stiletto, and a body which accommodates different compartments or lumens that are arranged in proximity to each other, wherein in longitudinal extension at least upper part proximal sections of the compartments or lumens are isolated by walls, consisting of - a flushing catheter for flushing fluid and/or pharmaceutically active substances into the intracerebral or intraventricular hemorrhages or hematomas, whereby a first compartment or lumen of the body is part of the flushing catheter, - a drainage catheter for draining fluid from the intracerebral or intraventricular hemorrhages or hematomas, whereby a second compartment or lumen of the body is part of the drainage catheter, - an ultrasonic probe duct, and - a pressure sensor duct that integrates a pressure sensor, whereby - the ultrasonic probe duct integrates either the endosonographic probe or the stiletto that are interchangeably guided within the ultrasonic probe duct, - the upper part proximal portion (1.1) of the flushing catheter and/or upper part proximal portion (2.1) of the drainage catheter laterally projects from the body in bended form, characterized in that - in the lower distal parts (1.2, 2.2) of the body, the drainage catheter and the flushing catheter are permeably connected to each other by one or more penetrations, - the pressure sensor is part of a pole having a diameter which allows guidance in the pressure sensor duct, wherein the pressure sensor is arranged at a cone end of the pole. - a flushing catheter for flushing fluid and/or pharmaceutically active substances into the intracerebral or intraventricular hemorrhages or hematomas, whereby a first compartment or lumen of the body is part of the flushing catheter, - a drainage catheter for draining fluid from the intracerebral or intraventricular hemorrhages or hematomas, whereby a second compartment or lumen of the body is part of the drainage catheter, - an ultrasonic probe duct, and - a pressure sensor duct that integrates a pressure sensor, whereby - the ultrasonic probe duct integrates either the endosonographic probe or the stiletto that are interchangeably guided within the ultrasonic probe duct, - the upper part proximal portion (1.1) of the flushing catheter and/or upper part proximal portion (2.1) of the drainage catheter laterally projects from the body in bended form, - in the lower distal parts (1.2, 2.2) of the body, the drainage catheter and the flushing catheter are permeably connected to each other by one or more penetrations, - the pressure sensor is part of a pole having a diameter which allows guidance in the pressure sensor duct, wherein the pressure sensor is arranged at a cone end of the pole.
A computer-implemented method comprising: receiving, at a master electronic device, a connection-indicative signal from an electronic accessory of the master electronic device that includes a connection attribute that is indicative of a presence or a characteristic of a connection between the electronic accessory and at least one other electronic accessory of the master electronic device; determining, at the master electronic device, a location of the master electronic device; storing, in a data structure at the master electronic device, the location in association with the connection attribute and an identifier of the at least one other electronic accessory; detecting, at the master electronic device, that a locate-accessory condition is satisfied; in response to the detecting, estimating, at the master electronic device, a location of the at least one other electronic accessory based on the connection attribute in the connection-indicative signal and the location of the master electronic device in association with the connection attribute, wherein estimating the location of the at least one other electronic accessory includes retrieving the location from the data structure; and presenting a presentation that includes location information that corresponds to the estimated location. receiving, at a master electronic device, a connection-indicative signal from an electronic accessory of the master electronic device that includes a connection attribute that is indicative of a presence or a characteristic of a connection between the electronic accessory and at least one other electronic accessory of the master electronic device; determining, at the master electronic device, a location of the master electronic device; storing, in a data structure at the master electronic device, the location in association with the connection attribute and an identifier of the at least one other electronic accessory; detecting, at the master electronic device, that a locate-accessory condition is satisfied; in response to the detecting, estimating, at the master electronic device, a location of the at least one other electronic accessory based on the connection attribute in the connection-indicative signal and the location of the master electronic device in association with the connection attribute, wherein estimating the location of the at least one other electronic accessory includes retrieving the location from the data structure; and presenting a presentation that includes location information that corresponds to the estimated location.
Heating compartment for supplying heat, wherein the heating compartment comprises a combustion chamber (103, 107) for generating the heat by combustion of a fuel, and a measuring sensor (131, 133, 135, 137, 139) is arranged in the heating compartment and/or at the combustion chamber for detecting a measurement variable, wherein an autonomous power supply is associated with the measuring sensor so that the measuring sensor is freely operable by an external cable-based power supply, characterised in that the measuring sensor and/or the associated autonomous power supply is or are clamped in a material of the heating compartment and/or the combustion chamber by means of a piezo element.
A method of controlling an ice producing machine that has a compressor, an evaporator, an auger that removes ice from the evaporator and a gear motor that drives the auger, the method characterized by (a) checking a gear motor current; (b) determining if a parameter proportional to the gear motor current exceeds a predetermined threshold; (c) if the parameter exceeds the predetermined threshold, turning the gear motor and the compressor off; (d) if the parameter is below the predetermined threshold, performing normal ice making operations; (e) subsequent to step (c) incrementing a strike count; (f) timing out a short wait interval; and (g) repeatedly turning the gear motor on and checking the gear motor current,, determining if the parameter proportional to the motor current exceeds the predetermined threshold,, turning the gear motor off if the parameter exceeds the predetermined threshold,, incrementing the strike count, and timing out the short wait interval until either step (d) is performed or the strike count equals a predetermined number without step (d) being performed. (a) checking a gear motor current; (b) determining if a parameter proportional to the gear motor current exceeds a predetermined threshold; (c) if the parameter exceeds the predetermined threshold, turning the gear motor and the compressor off; (d) if the parameter is below the predetermined threshold, performing normal ice making operations; (e) subsequent to step (c) incrementing a strike count; (f) timing out a short wait interval; and (g) repeatedly turning the gear motor on and checking the gear motor current,, determining if the parameter proportional to the motor current exceeds the predetermined threshold,, turning the gear motor off if the parameter exceeds the predetermined threshold,, incrementing the strike count, and timing out the short wait interval until either step (d) is performed or the strike count equals a predetermined number without step (d) being performed.
A driving assistance device configured to make an intervention in a predetermined driver's driving operation of a vehicle, the driving assistance device comprising: a range setter configured to set a predetermined range that is a range with regard to a behavior of the vehicle; and an operation intervention executor; characterized by an acceptable control input range calculator configured to obtain driving action characteristic information indicating a driving action characteristic of a driver of the vehicle in a certain driving environment and to calculate an acceptable control input range that is a range of the driver's driving operation accepted at a present time, in order to cause the behavior of the vehicle estimated using the obtained driving action characteristic information to be kept in the predetermined range over a predetermined estimation interval; and a determiner configured to determine whether the driver's driving operation at the present time is within the acceptable control input range; and in that said operation intervention executor is configured to make the intervention when it is determined that the driver's driving operation at the present time is out of the acceptable control input range. a range setter configured to set a predetermined range that is a range with regard to a behavior of the vehicle; and an operation intervention executor; characterized by an acceptable control input range calculator configured to obtain driving action characteristic information indicating a driving action characteristic of a driver of the vehicle in a certain driving environment and to calculate an acceptable control input range that is a range of the driver's driving operation accepted at a present time, in order to cause the behavior of the vehicle estimated using the obtained driving action characteristic information to be kept in the predetermined range over a predetermined estimation interval; and a determiner configured to determine whether the driver's driving operation at the present time is within the acceptable control input range; and in that said operation intervention executor is configured to make the intervention when it is determined that the driver's driving operation at the present time is out of the acceptable control input range.
Busbar comprising: at least one rigid conductor bar, an outer support casing enclosing said at least one conductor bar, a magnetic shielding structure arranged between said at least one conductor bar and the outer casing, said magnetic shielding structure comprising a first shielding element and a second shielding element, each of which is formed by at least one U-shaped folded strip comprising two fins (7b, 7c, 8b, 8c) and a base (7a, 8a), wherein said shielding elements (7, 8) consist of ferromagnetic material and enclose - on opposite sides - said at least one conductor bar, characterised in that each fin (7b, 7c) of the first shielding element is totally superimposed on the homologous fin (8b, 8c) of the second shielding element. at least one rigid conductor bar, an outer support casing enclosing said at least one conductor bar, a magnetic shielding structure arranged between said at least one conductor bar and the outer casing, said magnetic shielding structure comprising a first shielding element and a second shielding element, each of which is formed by at least one U-shaped folded strip comprising two fins (7b, 7c, 8b, 8c) and a base (7a, 8a), wherein said shielding elements (7, 8) consist of ferromagnetic material and enclose - on opposite sides - said at least one conductor bar, characterised in that each fin (7b, 7c) of the first shielding element is totally superimposed on the homologous fin (8b, 8c) of the second shielding element.
Method for conditioning of drilling fluid, wherein the method comprise supplying drilling fluid at high pressure to opposite placed inline directed high pressure nozzles arranged in fluid communication with a sealed spacing for shearing the supplied drilling fluid followed by additionally mixing by high velocity streams colliding, and discharging the conditioned drilling fluid through an outlet of the sealed spacing, characterized in that the method comprising measuring one or more of: pressure difference, temperature, flow, quality and/or content of the conditioned drilling fluid and controlling opening of the high pressure nozzles based on the measured pressure difference, temperature, flow, quality and/or content of the conditioned drilling fluid.
A method of routing calls in a communications network, the method comprising: obtaining data representing a plurality of calls previously made from a set of one or more numbers; generating a call frequency time series for the set of numbers from the data by determining a respective number of calls made from the set of numbers during each of a plurality of time intervals; classifying the plurality of calls based, at least in part, on one or more features of the call frequency time series, wherein the one or more features are derived from one or more characteristic variations in call frequency over time and the classification indicates whether the plurality of calls from the set of numbers includes automated calls; routing further calls from the set of numbers in accordance with the classification of the plurality of calls; characterised in that: wherein the one or more features comprise one, or both, of: transitions from quiet periods to busy periods; and transitions from busy periods to quiet periods, wherein an average number of calls during time intervals within a quiet period is lower than an average number of calls during time intervals within a busy period, and wherein the classification is based, at least in part, on the durations of the transitions. obtaining data representing a plurality of calls previously made from a set of one or more numbers; generating a call frequency time series for the set of numbers from the data by determining a respective number of calls made from the set of numbers during each of a plurality of time intervals; classifying the plurality of calls based, at least in part, on one or more features of the call frequency time series, wherein the one or more features are derived from one or more characteristic variations in call frequency over time and the classification indicates whether the plurality of calls from the set of numbers includes automated calls; routing further calls from the set of numbers in accordance with the classification of the plurality of calls; characterised in that: wherein the one or more features comprise one, or both, of: transitions from quiet periods to busy periods; and transitions from busy periods to quiet periods, wherein an average number of calls during time intervals within a quiet period is lower than an average number of calls during time intervals within a busy period, and wherein the classification is based, at least in part, on the durations of the transitions. transitions from quiet periods to busy periods; and transitions from busy periods to quiet periods, wherein an average number of calls during time intervals within a quiet period is lower than an average number of calls during time intervals within a busy period, and wherein the classification is based, at least in part, on the durations of the transitions.
Method for sampling a metal strip (1, 14) which is hotrolled in a hot-rolling train using a hot-rolling process and which is coiled up to form a coil (9, 16) using a winding process, which method is characterized in that the sample is taken from an end region of the hot-rolled metal strip (1, 14) after the hot-rolling process has been concluded and before the initially occurring winding process of the completely hot-rolled metal strip in the hot-rolling train has been concluded, and after the end of the hot-rolled metal strip has left the pass line of the hot-rolling train.
A method of increasing the abiotic environmental stress tolerance of a plant, reducing abiotic stress damage to a plant, or improving the quality and/or yield and/or vigor of a plant crop comprising the application of an agrochemical composition comprising 1-methylcyclopropene encapsulated in an α-cylcodextrin molecular encapsulating agent in the plant irrigation water to the crop at a rate of 0.1 to 50g per hectare and wherein the concentration of the encapsulated 1-methylcyclopropene in the irrigation water is 50 to 500ppm.
Separating component for separating a room from a room environment comprising sensors, actuators and a signal processing unit, for influencing sound transmission, characterized in that the separating component has the following component parts: sensors for detecting the speech signal coming from the room; actuators for generating a masking sound that is dependent on amplitude, time and frequency of the speech signal; a signal processing unit, which can process the signals detected by the sensors in such a way that the actuators can generate such a masking sound that an incomprehensible superimposed sound arises as a result of the superimposition of the masking sound with the speech signal in the room environment, without the superimposed sound having to have a significantly higher loudness than the speech signal, wherein the sensors and the actuators are spaced apart, with the result that the speech signal has a certain propagation time until superimposition with the masking sound occurs, wherein the signal processing unit is configured to delay the masking sound temporally relative to the speech signal in order to take account of propagation times of the speech signal in the separating component. sensors for detecting the speech signal coming from the room; actuators for generating a masking sound that is dependent on amplitude, time and frequency of the speech signal; a signal processing unit, which can process the signals detected by the sensors in such a way that the actuators can generate such a masking sound that an incomprehensible superimposed sound arises as a result of the superimposition of the masking sound with the speech signal in the room environment, without the superimposed sound having to have a significantly higher loudness than the speech signal, wherein the sensors and the actuators are spaced apart, with the result that the speech signal has a certain propagation time until superimposition with the masking sound occurs, wherein the signal processing unit is configured to delay the masking sound temporally relative to the speech signal in order to take account of propagation times of the speech signal in the separating component.
A module flow, having a base and a lateral wall, for a device for filtering crude fluid by means of at least one membrane filter unit, having at least one compressed air region with at least one compressed air inlet and at least one crude water region with at least one crude water inlet, wherein the crude water region and the compressed air region are separated from each other by means of a partition wall, wherein the partition wall extending respectively to the adjoining lateral wall is formed at least in sections as an aerator with at least one bubble openings, so that compressed air supplied from the compressed air region bubbles through the partition wall into the crude water region, characterized in that the module flow comprises a pot-shaped housing with the base and the lateral wall, wherein the partition wall is arranged spaced apart from the base in the housing, wherein the base and the partition wall extend over the entire cross-section of the interior of the housing surrounded by the lateral wall, wherein the compressed air inlet is formed as a through opening through the lateral wall in a region between the base and the partition wall and wherein the compressed air hence reaches only into the compressed air region and, for transmission to the membrane filter unit, must pass the partition wall, more precisely its bubble openings. at least one compressed air region with at least one compressed air inlet and at least one crude water region with at least one crude water inlet, wherein the crude water region and the compressed air region are separated from each other by means of a partition wall, wherein the partition wall extending respectively to the adjoining lateral wall is formed at least in sections as an aerator with at least one bubble openings, so that compressed air supplied from the compressed air region bubbles through the partition wall into the crude water region, characterized in that the module flow comprises a pot-shaped housing with the base and the lateral wall, wherein the partition wall is arranged spaced apart from the base in the housing, wherein the base and the partition wall extend over the entire cross-section of the interior of the housing surrounded by the lateral wall, wherein the compressed air inlet is formed as a through opening through the lateral wall in a region between the base and the partition wall and wherein the compressed air hence reaches only into the compressed air region and, for transmission to the membrane filter unit, must pass the partition wall, more precisely its bubble openings.
An annular combustion chamber for a gas turbine engine comprising an external wall, an internal wall, a wall connecting these two walls and constituting a chamber end wall, the chamber end wall being provided with openings for fuel injection systems, heat shielding deflectors (10,10') being fixed to the wall, the deflectors (10, 10') comprising a flat wall portion (10a, 10'a) with an opening per deflector centred on an opening of a fuel injection system, the openings being bordered by collars (10b1, 10'b1) through which the deflectors (10, 10') are secured to the chamber end wall, the deflectors (10, 10') bearing against the edges of said opening by means of a shoulder (10b1e, 10'b1e) and immobilised with respect to the chamber end wall by means of clips forming with the shoulders (10b1e, 10'b1e) a clamp for the chamber end wall, the deflectors (10, 10') comprising two longitudinal edges (10c, 10d; 10'c, 10'd) and two transverse edges (10e, 10f; 10'e, 10'f), characterised in that at least along one of the longitudinal edges, a deflector comprises a tongue (10d1), extending from the rear face of said deflector and forming a joint cover, creating a housing (10d10) along said edge for the edge (10'c) of the adjacent deflector so as to seal the junction between the two adjacent edges of the two deflectors, said tongue (10d1) being spaced from the chamber end wall so as to create a space supplied with cooling air via orifices in the chamber end wall.
A method for tempering preforms in a blow moulding machine, in which at least one heater box provided with reflective walls is arranged along a transport path for the preforms, said heater box forming a heating duct through which the preforms are guided, wherein the heater box has heating means for heating the preforms in the heating duct as well as at least one cooling device having a blower and intended to cool the reflective walls of the heating duct, wherein the walls are cooled by means of an amount of air flowing along the walls outside the heating duct, wherein the heating output of the heating means of the heating duct is configured to be adjustable, characterised in that - a control device is provided which is control-specifically configured to control or regulate the cooling output delivered by the cooling device, more specifically the amount of air delivered, as a function of the respective heating output of the heating means of the heating duct, more specifically as a function of a measurement of the heating output. - a control device is provided which is control-specifically configured to control or regulate the cooling output delivered by the cooling device, more specifically the amount of air delivered, as a function of the respective heating output of the heating means of the heating duct, more specifically as a function of a measurement of the heating output.