mhurhangee/ep-ind-claims huggingface dataset:
A method for processing a user request in an electronic device, the method comprising: receiving the user request including natural language; analyzing the user request to detect a user intent and time 2. information extracted from the user request; determining one or more applications matching the user intent associated with the user request; determining a post event time period which is a time period before a time point extracted from the time 2. information, said post event time period indicating a time-of-response for processing the user request; and launching at least one among the one or more applications 2. linked with the user intent, during the post event time period, for processing the user request by executing the at least one or more applications. receiving the user request including natural language; analyzing the user request to detect a user intent and time 2. information extracted from the user request; determining one or more applications matching the user intent associated with the user request; determining a post event time period which is a time period before a time point extracted from the time 2. information, said post event time period indicating a time-of-response for processing the user request; and launching at least one among the one or more applications 2. linked with the user intent, during the post event time period, for processing the user request by executing the at least one or more applications.
A composition, particularly suitable and intended for enclosing or sealing hazardous substances, in particular toxic and/or radioactive hazardous substances, or particularly suitable and intended for use in construction technology, preferably for reinforced concrete or concrete construction components such as basement walls and foundations containing a) a fluid concrete mixture or mortar mixture, which has not yet hardened, and b) at least one cold-viscous bitumen, c) wherein the cold-viscous bitumen is of low viscosity or fluid at a processing temperature from a temperature range of 5 °C to 70 °C, d) wherein the concrete mixture or the mortar mixture hardens at this processing temperature, e) wherein the cold-viscous bitumen is a vegetable oil-modified bitumen and contains vegetable oil(s), f) wherein the fraction of vegetable oil in the vegetable oil-modified bitumen is adjusted between 10 m% and 80 m%, and g) wherein the fraction of cold-viscous bitumen in the composition is chosen between 0.7 m% and 40 m%. a) a fluid concrete mixture or mortar mixture, which has not yet hardened, and b) at least one cold-viscous bitumen, c) wherein the cold-viscous bitumen is of low viscosity or fluid at a processing temperature from a temperature range of 5 °C to 70 °C, d) wherein the concrete mixture or the mortar mixture hardens at this processing temperature, e) wherein the cold-viscous bitumen is a vegetable oil-modified bitumen and contains vegetable oil(s), f) wherein the fraction of vegetable oil in the vegetable oil-modified bitumen is adjusted between 10 m% and 80 m%, and g) wherein the fraction of cold-viscous bitumen in the composition is chosen between 0.7 m% and 40 m%.
An artificial valve prosthesis for implantation in a vessel having a vessel wall, the artificial valve prosthesis comprising: a support structure comprising: a proximal section comprising a first radially expandable anchoring portion that includes first and second commissures; a distal section comprising a second radially expandable anchoring portion; the proximal and distal sections spaced apart from one another to define an intermediate section, the intermediate section comprising a substantially open section of the support structure; a first strut joining the proximal and distal sections, the first strut extending from the first commissure; and a second strut joining the proximal and distal sections, the second strut extending from the second commissure; a valve structure comprising two leaflets situated in the intermediate section, the leaflets attached to the proximal section at two commissural points (27, 28) located at the proximal ends of the first and second struts of the support structure, and wherein the leaflets are attached about their distal ends to the distal section and the valve structure is configured to restrict fluid flow therethrough. a support structure comprising: a proximal section comprising a first radially expandable anchoring portion that includes first and second commissures; a distal section comprising a second radially expandable anchoring portion; the proximal and distal sections spaced apart from one another to define an intermediate section, the intermediate section comprising a substantially open section of the support structure; a first strut joining the proximal and distal sections, the first strut extending from the first commissure; and a second strut joining the proximal and distal sections, the second strut extending from the second commissure; a proximal section comprising a first radially expandable anchoring portion that includes first and second commissures; a distal section comprising a second radially expandable anchoring portion; the proximal and distal sections spaced apart from one another to define an intermediate section, the intermediate section comprising a substantially open section of the support structure; a first strut joining the proximal and distal sections, the first strut extending from the first commissure; and a second strut joining the proximal and distal sections, the second strut extending from the second commissure; a valve structure comprising two leaflets situated in the intermediate section, the leaflets attached to the proximal section at two commissural points (27, 28) located at the proximal ends of the first and second struts of the support structure, and wherein the leaflets are attached about their distal ends to the distal section and the valve structure is configured to restrict fluid flow therethrough.
A wind turbine blade having a blade de-icing system, the wind turbine blade comprising a root end and a tip end, a leading edge and a trailing edge, a suction side and a pressure side, and an internal leading edge cavity between the leading edge and a back surface formed by at least one internal shear web or spar side of a spar extending between the suction side and the pressure side, the blade de-icing system comprises: a first channel longitudinally extending from a first position to a second position, wherein the second position is between the tip end 15 and the first position; and a heating channel longitudinally extending from the second position to the first position along the leading edge of the wind turbine blade, the heating channel and the first channel being in fluid connection; wherein the blade de-icing system is arranged to provide a flow of heated fluid through the first channel and the heating channel, the flow of heated fluid through the heating channel having a main flow direction along a longitudinal direction of the wind turbine blade; characterized in that the blade de-icing system is configured to affect the flow of heated fluid through the heating channel resulting in a rotational flow of the heated fluid about the main flow direction, and wherein the rotational flow is rotating from the suction side to the pressure side at the leading edge or rotating from the pressure side to the suction side at the leading edge. a first channel longitudinally extending from a first position to a second position, wherein the second position is between the tip end 15 and the first position; and a heating channel longitudinally extending from the second position to the first position along the leading edge of the wind turbine blade, the heating channel and the first channel being in fluid connection; wherein the blade de-icing system is arranged to provide a flow of heated fluid through the first channel and the heating channel, the flow of heated fluid through the heating channel having a main flow direction along a longitudinal direction of the wind turbine blade; characterized in that the blade de-icing system is configured to affect the flow of heated fluid through the heating channel resulting in a rotational flow of the heated fluid about the main flow direction, and wherein the rotational flow is rotating from the suction side to the pressure side at the leading edge or rotating from the pressure side to the suction side at the leading edge.
A method to control an infusion pump responsive to a controller that receives data from at least one glucose sensor, the method comprising automatically performing the following steps using the controller: computing insulin time-action model parameters, a, b and c, by applying a machine-learning process to the received data of the physiological variables; the parameter a being a function of the last dose of insulin, carbohydrate and fat content of a meal, a patient's nominal Insulin Sensitivity Factor; the parameter b being a function of the carbohydrate and fat content of meals; the parameter c being a constant that depends on the type of insulin; receiving from the glucose sensor respective glucose level measurements for each time interval of a series of discrete time intervals; calculating an insulin delivery amount for a selected one of the time intervals by: predicting a trend of the glucose level from estimates of a metabolic state of the subject using a plurality of the respective glucose level measurements and glucose infusion rate, GIR, calculated based on an insulin time-action model of the form: GIR t = a t − 1 e − b log t − c 2; and using a model predictive controller, determining the insulin delivery amount to provide a desired future glucose level in response to the predicted trend; and commanding the infusion pump to deliver the calculated insulin delivery amount. computing insulin time-action model parameters, a, b and c, by applying a machine-learning process to the received data of the physiological variables; the parameter a being a function of the last dose of insulin, carbohydrate and fat content of a meal, a patient's nominal Insulin Sensitivity Factor; the parameter b being a function of the carbohydrate and fat content of meals; the parameter c being a constant that depends on the type of insulin; receiving from the glucose sensor respective glucose level measurements for each time interval of a series of discrete time intervals; calculating an insulin delivery amount for a selected one of the time intervals by: predicting a trend of the glucose level from estimates of a metabolic state of the subject using a plurality of the respective glucose level measurements and glucose infusion rate, GIR, calculated based on an insulin time-action model of the form: GIR t = a t − 1 e − b log t − c 2; and using a model predictive controller, determining the insulin delivery amount to provide a desired future glucose level in response to the predicted trend; and predicting a trend of the glucose level from estimates of a metabolic state of the subject using a plurality of the respective glucose level measurements and glucose infusion rate, GIR, calculated based on an insulin time-action model of the form: GIR t = a t − 1 e − b log t − c 2; and using a model predictive controller, determining the insulin delivery amount to provide a desired future glucose level in response to the predicted trend; and commanding the infusion pump to deliver the calculated insulin delivery amount.
A method for real-time calibration of a glucose sensor for measuring the level of glucose in a body of a user, said glucose sensor including physical sensor electronics, a microcontroller, and a working electrode, the method comprising: (a) performing by said microcontroller, an electrochemical impedance spectroscopy procedure to obtain imaginary impedance values for said electrode; (b) calculating, by said microcontroller, a reference range associated with said values of imaginary impedance; (c) comparing by said microcontroller, the current value of imaginary impedance to the reference range; and (d) based on said comparison, determining, by said microcontroller, a time interval until the next calibration; characterised in that the reference range is a function of the difference between the current imaginary impedance value and prior imaginary impedance values, the reference range being calculated according to the relation range = 3 × median x i − x j wherein j represents the current imaginary impedance value, and i represents the most recent 2 hours of imaginary impedance values. (a) performing by said microcontroller, an electrochemical impedance spectroscopy procedure to obtain imaginary impedance values for said electrode; (b) calculating, by said microcontroller, a reference range associated with said values of imaginary impedance; (c) comparing by said microcontroller, the current value of imaginary impedance to the reference range; and (d) based on said comparison, determining, by said
Method for cultivating edible fungi, such as mushrooms, on a commercial site, in which cultivation takes place in accordance with a cultivation cycle which successively comprises one or more preparatory phases and one or more harvesting phases, and in which the site comprises at least a set of cultivation cells, in which this set comprises a first cultivation cell and a second cultivation cell and the cultivation cycle is distributed over these at least two cultivation cells (1, 2) by moving the cultivation from the first cultivation cell, in which at least one preparatory phase takes place, to the second cultivation cell, in which at least one harvesting phase takes place in the second cultivation cell, characterized in that the set of cultivation cells comprises at least a third cultivation cell and the cultivation cycle comprises at least two harvesting phases, in that the cultivation cycle is distributed over said at least 3 cultivation cells (1, 2, 3) of the set of cultivation cells by moving the cultivation from the second cultivation cell to the third cultivation cell, and in that at least one harvesting phase takes place in the third cultivation cell.
A multiport zero insertion force, ZIF, connector arranged to connect to test and measurement devices, comprising: a multiport connector housing defining an opening and an interior space suitable for receiving a mating member, the mating member comprising a flex circuit having a plurality of electrical paths between a first plurality of connection points at one end suitable for connecting to a device under test and a second plurality of connection points at the other end; a plurality of springs made by the LIGA process positioned within the interior space and configured to apply pressure to the mating member while in a first position, wherein the first position is a closed position in which at least one of the plurality of springs made by the LIGA process establishes and maintains an electrical connection with one of the second plurality of connection points; and a locking component configured to cause the plurality of springs made by the LIGA process to move to a second position responsive to a user pressing the locking component, wherein the second position is an open position in which the plurality of springs made by the LIGA process do not apply pressure to the mating member while in the second position. a multiport connector housing defining an opening and an interior space suitable for receiving a mating member, the mating member comprising a flex circuit having a plurality of electrical paths between a first plurality of connection points at one end suitable for connecting to a device under test and a second plurality of connection points at the other end; a plurality of springs made by the LIGA process positioned within the interior space and configured to apply pressure to the mating member while in a first position, wherein the first position is a closed position in which at least one of the plurality of springs made by the LIGA process establishes and maintains an electrical connection with one of the second plurality of connection points; and a locking component configured to cause the plurality of springs made by the LIGA process to move to a second position responsive to a user pressing the locking component, wherein the second position is an open position in which the plurality of springs made by the LIGA process do not apply pressure to the mating member while in the second position.
A method for initializing and securing bidirectional communication of at least one first device belonging to a first network with a home-automation hub or, via the said home-automation hub, with at least a second device belonging to a second network, the said second network being a home-automation network, the said home-automation hub being connected, on the one hand, to the said first network and, on the other hand, to the said second network, the method including: - a step for automatic detection (b) of the said at least one first device, this step being carried out from the said home-automation hub; - an automatic verification step (c) for determining whether the said first device is emitting, over the said first network, a public encryption key with which a private encryption key is associated, this step being carried out from the said home-automation hub; the method characterized in that it includes: - a discovery step (a) by the said home-automation hub of the said at least one first device of the said first network, this step being carried out with the aid of a control means of the said home-automation hub, the said home-automation hub being configured for, initially, ignoring the communications originating from and/or destined for the said at least first device of the said first network. - a step for automatic detection (b) of the said at least one first device, this step being carried out from the said home-automation hub; - an automatic verification step (c) for determining whether the said first device is emitting, over the said first network, a public encryption key with which a private encryption key is associated, this step being carried out from the said home-automation hub; - a discovery step (a) by the said home-automation hub of the said at least one first device of the said first network, this step being carried out with the aid of a control means of the said home-automation hub, the said home-automation hub being configured for, initially, ignoring the communications originating from and/or destined for the said at least first device of the said first network.
A method for checking the authenticity of bank notes which are equipped with substances excitable to emit luminescence radiation as an authenticity feature, comprising the steps of: - exciting the emission by means of excitation radiation from the restricted wavelength range from 600 to 640 nm or 520 to 550 nm, and - detecting the emitted luminescence radiation at least also in the wavelength range from 640 to 700 nm, characterized in that in the step of detecting the luminescence radiation, fractions of the excitation radiation are blocked by means of a long-pass filter which preferably has a transmission of at most 10% at a wavelength under 610 nm, and a transmission of at least 50% at a wavelength over 630 nm, and that the emission is effected alternately in the excitation ranges from 600 to 640 nm and 520 to 550 nm, and the luminescence radiation is detected from 640 to 700 nm. - exciting the emission by means of excitation radiation from the restricted wavelength range from 600 to 640 nm or 520 to 550 nm, and - detecting the emitted luminescence radiation at least also in the wavelength range from 640 to 700 nm, characterized in that in the step of detecting the luminescence radiation, fractions of the excitation radiation are blocked by means of a long-pass filter which preferably has a transmission of at most 10% at a wavelength under 610 nm, and a transmission of at least 50% at a wavelength over 630 nm, and that the emission is effected alternately in the excitation ranges from 600 to 640 nm and 520 to 550 nm, and the luminescence radiation is detected from 640 to 700 nm.
Helmet including a first element, a second element and a movement device for moving the first element with respect to the second element between an open condition and a closed condition, wherein said movement device includes a pivot element for pivoting the first element with respect to the second element about an axis of rotation, and a seat of rotation for the pivot element, the pivot element being located at least partially in the seat, wherein said pivot element includes an eccentric portion or cam, and said seat includes a first seat region adapted to receive said eccentric portion in a first position of the pivot element, and a second seat region adapted to receive said eccentric portion in a second position of the pivot element, wherein the first seat region is in a position angularly offset around the axis of rotation and linearly translated relative to the second seat region, such that the second position of the pivot element is angularly offset around the axis of rotation and linearly translated with respect to the first position of the pivot element, and vice versa, the first position of the pivot element corresponding to the open condition of the first element and the second position of the pivot element corresponding to the closed condition of the first element, characterised in that the first element in the open condition is rotated and translated with respect to the first element in the closed condition, so as to compensate for the angular and linear offsetting of the first seat region with respect to the second seat region, the movement of the first element between the open condition and the closed condition, and vice versa, being a rotary/translational movement that corresponds to a rotary/translational movement of the pivot element between the first position and the second position, and vice versa.