mhurhangee/patent-ind-claim-en huggingface dataset:
A mixed allergen composition comprising: a nut allergen; an animal allergen; and a non-nut plant allergen; wherein the composition comprises walnut, hazelnut, shrimp, salmon, hen's egg, cow's milk, peanut, cashew, almond, and wheat allergens; and wherein each allergen is present in the composition in equal weight. a nut allergen; an animal allergen; and a non-nut plant allergen;
A refrigerator comprising: an inner casing having a first storage compartment and a second storage compartment located under the first storage compartment, an outer casing installed at a side outer than the inner casing, doors which open and close the first storage compartment and the second storage compartment, respectively, a partitioning frame allowing the first storage compartment and the second storage compartment located in the inner casing to be partitioned vertically from each other, a grille fan assembly located in the two storage compartments of the inner casing and configured to guide supply of air blown by a blower fan to each of the storage compartments, an evaporator provided between a rear wall surface of an inside of the inner casing and a rear surface of the grille fan assembly so as to perform a heat exchange of air, and a circulating air path guide located between the inner casing and the outer casing and configured to guide an internal air of the first storage compartment to the evaporator, wherein the evaporator is located behind the partitioning frame, and a first end of the circulating air path guide is connected to a side wall of the inner casing to communicate with the first storage compartment, and a second end of the circulating air path guide is connected to a rear wall of the inner casing to communicate with a space at which the evaporator is located. an inner casing having a first storage compartment and a second storage compartment located under the first storage compartment, an outer casing installed at a side outer than the inner casing, doors which open and close the first storage compartment and the second storage compartment, respectively, a partitioning frame allowing the first storage compartment and the second storage compartment located in the inner casing to be partitioned vertically from each other, a grille fan assembly located in the two storage compartments of the inner casing and configured to guide supply of air blown by a blower fan to each of the storage compartments, an evaporator provided between a rear wall surface of an inside of the inner casing and a rear surface of the grille fan assembly so as to perform a heat exchange of air, and a circulating air path guide located between the inner casing and the outer casing and configured to guide an internal air of the first storage compartment to the evaporator, wherein the evaporator is located behind the partitioning frame, and a first end of the circulating air path guide is connected to a side wall of the inner casing to communicate with the first storage compartment, and a second end of the circulating air path guide is connected to a rear wall of the inner casing to communicate with a space at which the evaporator is located.
DC power supply system for a network of loads : public and outdoor lighting, compact fluorescent bulbs, LEDs, electric heaters, electrical energy storage batteries or actuators, combing the use of electrical energy supplied either by a device producing variable energy from a renewable source, by a storage battery or by the 50hz network, characterised by the fact that the known-type decision circuits take into account the existence of external events and programming, the voltage of the batteries and that of the 50hz network to define the operating regime of the known-type transformers (10, 4 and 5) (flyback), with each source of electrical energy using a flyback transformer to supply the loads. The flyback transformer outputs are connected in parallel to the load, with the origin and composition of the electrical energy taken according to the relative value of the network of loads' voltage with regard to the voltage thresholds M and m; M being the maximum value of the voltage at the load and m being the minimum value of the voltage at the load, defined by the known-type circuit , in order to regulate the voltage of the network of loads within the operating range between M and m.
A method comprising: detecting impulse noise; classifying the detected impulse noise into one of a plurality of impulse noise classes affecting communications on a Digital Subscriber Line, DSL line; selecting a noise mitigation strategy from among a plurality of noise mitigation strategies; applying the selected noise mitigation strategy; and validating application of the noise mitigation strategy, characterised in that validating application of the noise mitigation strategy comprises comparing a corrected signal having been filtered or subjected to the selected noise mitigation strategy, or both, with an uncorrected signal. detecting impulse noise; classifying the detected impulse noise into one of a plurality of impulse noise classes affecting communications on a Digital Subscriber Line, DSL line; selecting a noise mitigation strategy from among a plurality of noise mitigation strategies; applying the selected noise mitigation strategy; and validating application of the noise mitigation strategy, characterised in that validating application of the noise mitigation strategy comprises comparing a corrected signal having been filtered or subjected to the selected noise mitigation strategy, or both, with an uncorrected signal.
A method for controlling a connection between a device , which is an Internet-of-Things- device, and a radio bearer , the method comprising at least the following steps performed by the device in the following order: a) receiving radio signals being emitted by a plurality of radio bearers , wherein each of the plurality of radio bearers emits radio signals which correspond to a certain radio channel; b) determining whether a radio bearer of the plurality of radio bearers emits radio signals according to a criterion A that a frequency range of the radio signals corresponds to a predetermined frequency range based on the received radio signals, wherein the predetermined frequency range is such that a data packet is transmitted between the radio bearer and the device within a predefined time interval T1; c) connecting the device with the radio bearer if the radio signals of the radio bearer fulfill criterion A; in the case that no radio bearer emits radio signals fulfilling criterion A, determining whether a radio bearer of the plurality of radio bearers emits radio signals fulfilling a criterion B that the radio signals have the highest signal strength among the radio signals emitted by the plurality of radio bearers , and connecting the device with the radio bearer if the radio bearer emits radio signals fulfilling the criterion B. a) receiving radio signals being emitted by a plurality of radio bearers , wherein each of the plurality of radio bearers emits radio signals which correspond to a certain radio channel; b) determining whether a radio bearer of the plurality of radio bearers emits radio signals according to a criterion A that a frequency range of the radio signals corresponds to a predetermined frequency range based on the received radio signals, wherein the predetermined frequency range is such that a data packet is transmitted between the radio bearer and the device within a predefined time interval T1; c) connecting the device with the radio bearer if the radio signals of the radio bearer fulfill criterion A; in the case that no radio bearer emits radio signals fulfilling criterion A, determining whether a radio bearer of the plurality of radio bearers emits radio signals fulfilling a criterion B that the radio signals have the highest signal strength among the radio signals emitted by the plurality of radio bearers , and connecting the device with the radio bearer if the radio bearer emits radio signals fulfilling the criterion B.
A scanning probe system comprising: a probe comprising a cantilever extending from a base to a free end , and a probe tip carried by the free end of the cantilever; a first driver with a first driver input , the first driver arranged to drive the probe in accordance with a first drive signal at the first driver input; a second driver with a second driver input , the second driver arranged to drive the probe in accordance with a second drive signal at the second driver input; a control system arranged to control the first drive signal so that the first driver drives the base of the cantilever repeatedly towards and away from a surface of a sample in a series of cycles; and a surface detector arranged to generate a surface signal for each cycle when it detects an interaction of the probe tip with the surface of the sample, wherein the control system is also arranged to modify the second drive signal in response to receipt of the surface signal from the surface detector, the modification of the second drive signal causing the second driver to control the probe tip, and the control system is arranged to control the first drive signal so that for each cycle there is an approach phase before generation of the surface signal in which the first driver moves the base of the cantilever and the probe tip towards the surface of the sample, and a retract phase after generation of the surface signal in which the first driver moves the base of the cantilever and the probe tip away the surface of the sample; wherein modification of the second drive signal causes the cantilever to deform so that an angle of the probe tip changes relative to the base of the cantilever; characterized in that the control system is arranged to control the second drive signal so that for each cycle the second drive signal remains substantially constant as the probe tip moves towards the surface of the sample until the second drive signal is modified in response to receipt of the surface signal, thereby ensuring that when the surface signal is generated the probe tip is at a predetermined angle relative to the base of the cantilever.
A lithium ion capacitor comprising an electrode laminated body stored in a casing together with a non-aqueous electrolytic solution containing a lithium ion-containing electrolyte; wherein said electrode laminated body is laminated so that (i) a negative electrode body having a negative electrode active material comprised of a carbon material, and (ii) a positive electrode body having a positive electrode active material face each other through (iii) a laminated separator where a polyolefin porous membrane and an electrically insulating porous membrane are laminated; and wherein said insulating porous membrane is in contact with said negative electrode body, characterized in that the positive electrode active material is an activated carbon, the insulating porous membrane is formed on one side of the polyolefin porous membrane , and wherein said insulating porous membrane contains inorganic fillers and a resin binder.
A method to feed two wrapping sheets in a packing machine , in particular for smoking articles; the feeding method comprises the steps of: feeding an initial wrapping sheet with a double width; dividing the initial wrapping sheet with a double width into two so as to obtain two final wrapping sheets with a single width; making a pre-weakened separation line in the initial wrapping sheet ; and dividing the initial wrapping sheet into two by applying only and solely a force, which causes a tear along the pre-weakened separation line ; wherein the separation line comprises a plurality of through incisions , which are obtained through the initial wrapping sheet , are aligned with one another, and are separate from one another; and wherein the division of the initial wrapping sheet into two involves tearing the wrapping material present between two adjacent through incisions ; the feeding method is characterized in that each through incision has a central portion with a straight shape and at least one end portion with a curved shape. feeding an initial wrapping sheet with a double width; dividing the initial wrapping sheet with a double width into two so as to obtain two final wrapping sheets with a single width; making a pre-weakened separation line in the initial wrapping sheet ; and dividing the initial wrapping sheet into two by applying only and solely a force, which causes a tear along the pre-weakened separation line ; wherein the separation line comprises a plurality of through incisions , which are obtained through the initial wrapping sheet , are aligned with one another, and are separate from one another; and wherein the division of the initial wrapping sheet into two involves tearing the wrapping material present between two adjacent through incisions ; the feeding method is characterized in that each through incision has a central portion with a straight shape and at least one end portion with a curved shape.
A propellant filling apparatus comprising a filling booth for receiving within it one or more containers for filling with a propellant, characterised in that the apparatus includes a propellant inlet to the filling booth that is capable of supplying propellant, for filing into one or more containers within the filling booth , from a propellant supply; an inert gas inlet supplying inert gas from an inert gas supply into the filling booth ; a discharge outlet from the filling booth ; an extraction fan that is capable of adjusting its fan speed to maintain the pressure of gas in the filling booth to be lower than atmospheric pressure outside the filling booth ; and an oxygen detector that is capable of detecting levels of oxygen in the filling booth and triggering circulation of inert gas in the filling booth when the level of oxygen in the filling booth attains or exceeds an oxygen threshold level that is proportional to the maximum oxygen concentration of the propellant.
A coating for an expandable portion of a catheter comprising: a hydrophobic matrix, wherein the hydrophobic matrix comprises a cholesterol and a fatty acid or a cholesterol and a phospholipid; and a dispersed phase comprising a plurality of micro-reservoirs dispersed in the hydrophobic matrix, wherein the plurality of micro-reservoirs comprises a first active agent and a biodegradable or bioerodable polymer. a hydrophobic matrix, wherein the hydrophobic matrix comprises a cholesterol and a fatty acid or a cholesterol and a phospholipid; and a dispersed phase comprising a plurality of micro-reservoirs dispersed in the hydrophobic matrix, wherein the plurality of micro-reservoirs comprises a first active agent and a biodegradable or bioerodable polymer.
Measuring device , particularly a Coriolis measuring device , for measuring the flow velocity or volume flow or density of a medium flowing through at least one measuring tube, comprising: the at least one measuring tube to conduct the medium; a transducer , which is designed to capture at least a measured variable and to output at least a first measured value representing the measured variable; at least a temperature sensor , which is designed to measure a temperature of the measuring tube, an electronic measuring/operating circuit , which is designed to operate the transducer and the temperature sensor and to provide flow or density measured values, wherein the temperature sensor has a sensor element and at least two electrically conductive supply lines to establish electric contact between the sensor element and the electronic measuring/operating circuit, wherein each supply line is connected to the sensor element in the area of a connection point of the sensor element, wherein the supply lines each have a first section (132.1) that follows on from the corresponding connection point, wherein the sensor element has a maximum circumference, wherein the first section has a distance of less than 5% of a measuring tube radius to a measuring tube wall , wherein a length of the supply line in the first section is at least 25% of the maximum circumference of the sensor element, wherein, in their first section, the supply lines are guided, at least in sections, along the maximum circumference of the sensor element, wherein, in their first section, the supply lines are in thermal contact with the measuring tube at least in sections. the at least one measuring tube to conduct the medium; a transducer , which is designed to capture at least a measured variable and to output at least a first measured value representing the measured variable; at least a temperature sensor , which is designed to measure a temperature of the measuring tube, an electronic measuring/operating circuit , which is designed to operate the transducer and the temperature sensor and to provide flow or density measured values, wherein the temperature sensor has a sensor element and at least two electrically conductive supply lines to establish electric contact between the sensor element and the electronic measuring/operating circuit, wherein each supply line is connected to the sensor element in the area of a connection point of the sensor element, wherein the supply lines each have a first section (132.1) that follows on from the corresponding connection point, wherein the sensor element has a maximum circumference, wherein the first section has a distance of less than 5% of a measuring tube radius to a measuring tube wall , wherein a length of the supply line in the first section is at least 25% of the maximum circumference of the sensor element, wherein, in their first section, the supply lines are guided, at least in sections, along the maximum circumference of the sensor element, wherein, in their first section, the supply lines are in thermal contact with the measuring tube at least in sections.
A cover device for a household appliance, having an operational front side and an operational rear side, comprising at least one light source; a transparent volume-coloured glass ceramic exhibiting a light transmittance according to DIN EN 410 based on a thickness of 4 mm in the range from 0.5 % to 70 %; wherein the light source is arranged on the operational rear side of the cover device; and wherein a first means for reducing light transmittance according to DIN EN 410 is arranged between the light source and the glass ceramic; wherein the volume-coloured glass ceramic and the first means for reducing light transmittance together exhibit a DIN EN 410 light transmittance in the range from 0.4 % to 15 %; wherein the transmission spectrum of the glass ceramic, the transmission spectrum of the first means for reducing light transmittance and the emission spectrum of the light source are matched to one another such that the following applies for the x and y colour coordinates of the light emitted by the light source in the CIE xy Y colour space after passing through the volume-coloured glass ceramic, x 1 and y 1 , and for the x and y colour coordinates of the light emitted by the light source in the CIE xy Y colour space after passing through the volume-coloured glass ceramic and the first means for reducing light transmittance, x 2 and y 2 : x 1 − x 2 2 + y 1 − y 2 2 < 0.05 . a transparent volume-coloured glass ceramic exhibiting a light transmittance according to DIN EN 410 based on a thickness of 4 mm in the range from 0.5 % to 70 %; wherein the light source is arranged on the operational rear side of the cover device; and wherein a first means for reducing light transmittance according to DIN EN 410 is arranged between the light source and the glass ceramic; wherein the volume-coloured glass ceramic and the first means for reducing light transmittance together exhibit a DIN EN 410 light transmittance in the range from 0.4 % to 15 %; wherein the transmission spectrum of the glass ceramic, the transmission spectrum of the first means for reducing light transmittance and the emission spectrum of the light source are matched to one another such that the following applies for the x and y colour coordinates of the light emitted by the light source in the CIE xy Y colour space after passing through the volume-coloured glass ceramic, x 1 and y 1 , and for the x and y colour coordinates of the light emitted by the light source in the CIE xy Y colour space after passing through the volume-coloured glass ceramic and the first means for reducing light transmittance, x 2 and y 2 : x 1 − x 2 2 + y 1 − y 2 2 < 0.05 .
A method of adjusting a slot die comprising: an applicator slot extending across a width of the slot die, the applicator slot in fluid communication with a fluid flow path through the slot die; an adjustment mechanism comprising a slot die surface; and a plurality of primary actuators spaced along the width of the slot die, wherein each primary actuator is operatively coupled to one or more secondary actuators, and each secondary actuator is operatively coupled to the adjustment mechanism to adjust a cross-sectional height of fluid flow path at its respective location to provide a local adjustment of fluid flow through the applicator slot, wherein the method comprises: determining a target slot height profile; predicting, with a controller, a set of primary actuator settings and a set of secondary actuator settings based on the target slot height profile; and separately positioning each primary and secondary actuator according to the predicted set of primary and secondary actuator settings to adjust the slot die. an applicator slot extending across a width of the slot die, the applicator slot in fluid communication with a fluid flow path through the slot die; an adjustment mechanism comprising a slot die surface; and a plurality of primary actuators spaced along the width of the slot die, wherein each primary actuator is operatively coupled to one or more secondary actuators, and each secondary actuator is operatively coupled to the adjustment mechanism to adjust a cross-sectional height of fluid flow path at its respective location to provide a local adjustment of fluid flow through the applicator slot, wherein the method comprises: determining a target slot height profile; predicting, with a controller, a set of primary actuator settings and a set of secondary actuator settings based on the target slot height profile; and separately positioning each primary and secondary actuator according to the predicted set of primary and secondary actuator settings to adjust the slot die. determining a target slot height profile; predicting, with a controller, a set of primary actuator settings and a set of secondary actuator settings based on the target slot height profile; and separately positioning each primary and secondary actuator according to the predicted set of primary and secondary actuator settings to adjust the slot die.