mhurhangee/ep-ind-claims huggingface dataset:
Use of a composition comprising (i) from 2 wt% to 85 wt%, of a malodour receptor antagonist system comprising at least three ingredients selected from the group of Table 1; (ii) from 15 wt% to 98 wt% of a functional perfume accord comprising at least 2 perfuming ingredient(s) provided that any ingredient listed in Table 1 is excluded, the accord having a tonality selected from floral, citrus and jasmine. (iii) optionally a non-functional perfume accord; to decrease, limit or eliminate the perception of fecal malodour. (i) from 2 wt% to 85 wt%, of a malodour receptor antagonist system comprising at least three ingredients selected from the group of Table 1; (ii) from 15 wt% to 98 wt% of a functional perfume accord comprising at least 2 perfuming ingredient(s) provided that any ingredient listed in Table 1 is excluded, the accord having a tonality selected from floral, citrus and jasmine. (iii) optionally a non-functional perfume accord; to decrease, limit or eliminate the perception of fecal malodour.
Sprinkler with a nozzle arrangement which is rotatable relative to a housing about a substantially vertical axis of rotation, and with a mechanical control device for adjusting the nozzle arrangement in a variable manner in accordance with the angle of rotation, wherein the control device contains a dimensionally variable radial cam revolving around the axis of rotation, and a control element revolving on the radial cam during the rotation of the nozzle arrangement, and the control element interacts with the nozzle arrangement for changing the movement width, in that the radial cam is formed by a plurality of segments which follow one another in the circumferential direction around the axis of rotation and are connected to one another in an articulated manner at joint regions, characterized in that the segments are supported against the housing in a variably adjustable position by means of adjusting means in the joint regions and, between adjacent joints, are designed to be dimensionally stable in a self-supporting manner without a support, wherein the radial cam is mounted in a radially displaceable manner with respect to the axis of rotation on the adjusting means.
Air-breathing fuel cell for the oxidation of ions with air or oxygen, having an anode half cell and a cathode half cell, a first ion-conducting membrane and a second ion-conducting membrane being introduced between the half cells (A, E), and the second ion-conducting membrane being coated at least in regions on the side orientated towards the cathode half cell with a catalyst for the reduction of oxygen, characterised in that an oxidation zone for the oxidation of ions with negative standard electrode potential is provided between the ion-conducting membranes (B, D).
A printed wiring board comprising: a connection part that is to be connected to a projecting portion of an external member by soldering, wherein the connection part comprises: a first hole in which the projecting portion is inserted; a main land to which the projecting portion is soldered; a metallic pattern that is drawn from the main land; and a sub-land that is connected to the main land through the metallic pattern, wherein the main land is constructed with a metallic film configured to cover a peripheral region of the first hole not in a back face but only in a front face of the printed wiring board comprising the front face and the back face, the front face to which the soldering is performed and the back face on a side opposite to the front face, and the metallic film is not formed on a sidewall forming the first hole, and wherein the sub-land is constructed with a metallic film configured to cover a sidewall formed by a second hole piercing the printed wiring board and a peripheral region of the second hole in both the front face and the back face of the printed wiring board, wherein the sub-land is not electrically connected to a wiring pattern formed on the back face, and the sub-land is electrically independent of the wiring pattern, wherein the wiring pattern is a circuit and the metallic pattern does not extend onto the sidewall forming the first hole nor onto the back face to connect the main land in the front face and the sub-land in the back face. a connection part that is to be connected to a projecting portion of an external member by soldering, wherein the connection part comprises: a first hole in which the projecting portion is inserted; a main land to which the projecting portion is soldered; a metallic pattern that is drawn from the main land; and a sub-land that is connected to the main land through the metallic pattern, a first hole in which the projecting portion is inserted; a main land to which the projecting portion is soldered; a metallic pattern that is drawn from the main land; and a sub-land that is connected to the main land through the metallic pattern, wherein the main land is constructed with a metallic film configured to cover a peripheral region of the first hole not in a back face but only in a front face of the printed wiring board comprising the front face and the back face, the front face to which the soldering is performed and the back face on a side opposite to the front face, and the metallic film is not formed on a sidewall forming the first hole, and wherein the sub-land is constructed with a metallic film configured to cover a sidewall formed by a second hole piercing the printed wiring board and a peripheral region of the second hole in both the front face and the back face of the printed wiring board, wherein the sub-land is not electrically connected to a wiring pattern formed on the back face, and the sub-land is electrically independent of the wiring pattern, wherein the wiring pattern is a circuit and the metallic pattern does not extend onto the sidewall forming the first hole nor onto the back face to connect the main land in the front face and the sub-land in the back face.
An engine vibration monitoring and control system, comprising: an aircraft autopilot; and a flight management system, FMS, in operable communication with the aircraft autopilot and configured to determine when the aircraft autopilot is engaged and disengaged, the FMS adapted to receive vibration data from an engine vibration data source and configured, upon determining that the aircraft autopilot is engaged, to: process the vibration data to determine when engine vibrations exceed one or more first thresholds; and when the engine vibrations exceed the one or more first thresholds, supply commands to the autopilot that cause the autopilot to take corrective actions to reduce the engine vibrations below the one or more first thresholds. an aircraft autopilot; and a flight management system, FMS, in operable communication with the aircraft autopilot and configured to determine when the aircraft autopilot is engaged and disengaged, the FMS adapted to receive vibration data from an engine vibration data source and configured, upon determining that the aircraft autopilot is engaged, to: process the vibration data to determine when engine vibrations exceed one or more first thresholds; and when the engine vibrations exceed the one or more first thresholds, supply commands to the autopilot that cause the autopilot to take corrective actions to reduce the engine vibrations below the one or more first thresholds. process the vibration data to determine when engine vibrations exceed one or more first thresholds; and when the engine vibrations exceed the one or more first thresholds, supply commands to the autopilot that cause the autopilot to take corrective actions to reduce the engine vibrations below the one or more first thresholds.
A method of controlling a reactive magnetron sputtering process, wherein said magnetron sputtering process uses a reactive gas or reactive gases, by regulating the process overall pressure by means of the flow of the reactive gas or the reactive gases, respectively, characterized in that oscillations of the flow of the reactive gas or the reactive gases, respectively are determined and used as feedback to determine the process overall pressure.
A wearable apparatus (10, 20) comprising: a body attachment portion (1, 11) configured to attach to a wearer's body part; an ear device (4, 14); an ear device connection member (5, 15), connecting the ear device (4, 14) to the body attachment portion (1, 11); and the apparatus (10, 20) further comprising an ear device storage element (7, 17), configured to store and retain the ear device (4, 14) with the apparatus (10, 20), when not in use; characterised in that the ear device connection member (5, 15) is attached to the body attachment portion (1, 11) at an anchor point (6, 16), the anchor point (6, 16) being located distal to the ear device storage element (7, 17), and in that the apparatus (10, 20) is configured, in at least one configuration, as a lanyard. a body attachment portion (1, 11) configured to attach to a wearer's body part; an ear device (4, 14); an ear device connection member (5, 15), connecting the ear device (4, 14) to the body attachment portion (1, 11); and the apparatus (10, 20) further comprising an ear device storage element (7, 17), configured to store and retain the ear device (4, 14) with the apparatus (10, 20), when not in use; characterised in that the ear device connection member (5, 15) is attached to the body attachment portion (1, 11) at an anchor point (6, 16), the anchor point (6, 16) being located distal to the ear device storage element (7, 17), and in that the apparatus (10, 20) is configured, in at least one configuration, as a lanyard.
A communications device for accessing, by means of a first network, data resources hosted on a second network, the communications device having processing means for executing an installed operating system, the operating system incorporating: means for communicating with a defined policy server on the second network to receive, by secure means, a policy file therefrom defining a configuration to be implemented by and within the operating system of the communications device; and means for controlling the implementation, by one or more respective modules of the operating system, of a configuration defined in a received policy file. means for communicating with a defined policy server on the second network to receive, by secure means, a policy file therefrom defining a configuration to be implemented by and within the operating system of the communications device; and means for controlling the implementation, by one or more respective modules of the operating system, of a configuration defined in a received policy file.
A stackable drinking cup holder comprising: a rigid elongate handle having a side wall and an open top, the open top shaped and dimensioned to receive a lower end of a complementary handle of a stackable drinking cup holder of the like to permit stacking of two or more cup holder handles of the like and the side wall of the elongate rigid elongate handle having a plurality of horizontal serrations that provide gliding clearance between a handle inner surface and a handle outer surface of a drinking cup holder of the like during insertion and separation of the handles in use; and a lip projecting laterally from the open top and extending transversely outwards from the open top to define a generally circular rim wherein a drinking cup may be held such that the two or more drinking cup holder handles are angularly variably stackable about an axis defined by the two or more drinking cup holder handles. a rigid elongate handle having a side wall and an open top, the open top shaped and dimensioned to receive a lower end of a complementary handle of a stackable drinking cup holder of the like to permit stacking of two or more cup holder handles of the like and the side wall of the elongate rigid elongate handle having a plurality of horizontal serrations that provide gliding clearance between a handle inner surface and a handle outer surface of a drinking cup holder of the like during insertion and separation of the handles in use; and a lip projecting laterally from the open top and extending transversely outwards from the open top to define a generally circular rim wherein a drinking cup may be held such that the two or more drinking cup holder handles are angularly variably stackable about an axis defined by the two or more drinking cup holder handles.
A method of producing an immortalized human B-cell secreting an antibody specific for a predetermined antigen comprising: (a) obtaining a population of IgM-positive human B-cells; (b) contacting said population with: (i) concentrated Epstein-Barr virus, by centrifugation, to immortalize said human B-cells, wherein about 90-99% of said population is immortalized by EBV infection, and (ii) a cytokine/growth factor/signaling agent cocktail to induce IgM-to-IgG immunoglobulin isotype class-switching, wherein the cytokine/growth factor/signaling agent cocktail comprises at least CD40L and/or anti-IgM F(ab')2; (c) culturing cells under conditions supporting said immortalization and immunoglobulin isotype class-switching; and (d) selecting an immortalized human B-cell expressing an antibody for a predetermined antigen. (a) obtaining a population of IgM-positive human B-cells; (b) contacting said population with: (i) concentrated Epstein-Barr virus, by centrifugation, to immortalize said human B-cells, wherein about 90-99% of said population is immortalized by EBV infection, and (ii) a cytokine/growth factor/signaling agent cocktail to induce IgM-to-IgG immunoglobulin isotype class-switching, wherein the cytokine/growth factor/signaling agent cocktail comprises at least CD40L and/or anti-IgM F(ab')2; (i) concentrated Epstein-Barr virus, by centrifugation, to immortalize said human B-cells, wherein about 90-99% of said population is immortalized by EBV infection, and (ii) a cytokine/growth factor/signaling agent cocktail to induce IgM-to-IgG immunoglobulin isotype class-switching, wherein the cytokine/growth factor/signaling agent cocktail comprises at least CD40L and/or anti-IgM F(ab')2; (c) culturing cells under conditions supporting said immortalization and immunoglobulin isotype class-switching; and (d) selecting an immortalized human B-cell expressing an antibody for a predetermined antigen.
Control assembly of an automation system, having at least two row modules which are arranged one after the other in a row and have an actual order, comprising a control and/or communication module and/or an I/O module (10, 20, 30, 40), and a test module, wherein the modules are connected to one another via signals and wherein the at least two row modules are each equipped with an indicator element (15, 25. 35, 45) which can assume two distinguishable states, wherein the test module has stored a target order for the row modules arranged in row, characterized in that the test module is designed to send a test signal to each of the row modules one after the other in accordance with the target order, wherein each of the indicator elements is adapted to change its state in response to a test signal received by its hardware module and when the target and the actual order of the row modules match, the state changes of the indicator elements cause a running light effect. an I/O module (10, 20, 30, 40), and a test module, wherein the modules are connected to one another via signals and wherein the at least two row modules are each equipped with an indicator element (15, 25. 35, 45) which can assume two distinguishable states, wherein the test module has stored a target order for the row modules arranged in row, characterized in that the test module is designed to send a test signal to each of the row modules one after the other in accordance with the target order, wherein each of the indicator elements is adapted to change its state in response to a test signal received by its hardware module and when the target and the actual order of the row modules match, the state changes of the indicator elements cause a running light effect.
A hybrid modular microwave heating system with separable cavities used to heat an object, comprising: a conductive heating unit for providing a contact heat source; a microwave heating unit for generating microwaves; a sealed container for accommodating said heat-receiving object; a conductive heating semi-cavity comprising a conductive heating semi-cavity body including a conductive heating semi-cavity inner wall; a receiving space formed by said conduction heating semi-cavity inner wall for placing said sealed container and a conductive heating semi-cavity lid made of a microwave-transparent material for sealing said receiving space, wherein said conductive heating semi-cavity inner wall and said conductive heating semi-cavity lid press against said sealed container, and said conductive heating semi-cavity body with the side that is across from said conductive heating semi-cavity lid being in contact with said contact heat source; and a microwave heating semi-cavity comprising a wave guiding channel, a microwave heating semi-cavity sleeve and a microwave heating semi-cavity body; wherein said microwave heating semi-cavity and said conductive heating semi-cavity can be coupled to form a microwave resonant cavity, with microwaves generated by said microwave heating unit propagated via said wave guiding channel into said microwave resonant cavity to effect on said heat-receiving object. a conductive heating unit for providing a contact heat source; a microwave heating unit for generating microwaves; a sealed container for accommodating said heat-receiving object; a conductive heating semi-cavity comprising a conductive heating semi-cavity body including a conductive heating semi-cavity inner wall; a receiving space formed by said conduction heating semi-cavity inner wall for placing said sealed container and a conductive heating semi-cavity lid made of a microwave-transparent material for sealing said receiving space, wherein said conductive heating semi-cavity inner wall and said conductive heating semi-cavity lid press against said sealed container, and said conductive heating semi-cavity body with the side that is across from said conductive heating semi-cavity lid being in contact with said contact heat source; and a microwave heating semi-cavity comprising a wave guiding channel, a microwave heating semi-cavity sleeve and a microwave heating semi-cavity body;
An apparatus for laser-assisted cutting, shaping, and machining of bone, comprising: (a) a laser source for delivering a laser beam to a bone target; (b) a dynamic focusing unit for delivering the laser beam to a visualized target site; and (c) a real time controller - RTC - for simultaneous processing of visualized target site data, controlling the laser source and controlling the dynamic focusing unit, wherein the RTC is configured to correct laser source output and assign a laser beam track to prevent heat affected zones in the bone target and to cut/shape/machine a target bone region to have a predicted morphology, wherein the predicted morphology is defined by predicting isotherms corresponding to interfaces between a solid substrate / melting zone and a melting zone / vaporized region using a Multiphysics computational model, and wherein the laser track is assigned a heat flux boundary with a moving laser beam defined by the equation: − k ∂ T ∂ x + ∂ T ∂ y + ∂ T ∂ z = P X + h T − T 0 + εσ T 4 − T 0 4 wherein k is thermal conductivity, h is heat transfer coefficient, ε is emissivity, σ is Stefan-Boltzman constant, T is temperature, T 0 is ambient temperature, x is an X-coordinate in a three dimensional space, y is a Y-coordinate in a three dimensional space, z is a Z-coordinate in a three dimensional space, and P X is an input laser power intensity distribution. (a) a laser source for delivering a laser beam to a bone target; (b) a dynamic focusing unit for delivering the laser beam to a visualized target site; and (c) a real time controller - RTC - for simultaneous processing of visualized target site data, controlling the laser source and controlling the dynamic focusing unit, wherein the RTC is configured to correct laser source output and assign a laser beam track to prevent heat affected zones in the bone target and to cut/shape/machine a target bone region to have a predicted morphology, wherein the predicted morphology is defined by predicting isotherms corresponding to interfaces between a solid substrate / melting zone and a melting zone / vaporized region using a Multiphysics computational model, and wherein the laser track is assigned a heat flux boundary with a moving laser beam defined by the equation: − k ∂ T ∂ x + ∂ T ∂ y + ∂ T ∂ z = P X + h T − T 0 + εσ T 4 − T 0 4 wherein k is thermal conductivity, h is heat transfer coefficient, ε is emissivity, σ is Stefan-Boltzman constant, T is temperature, T 0 is ambient temperature, x is an X-coordinate in a three dimensional space, y is a Y-coordinate in a three dimensional space, z is a Z-coordinate in a three dimensional space, and P X is an input laser power intensity distribution.
A display apparatus comprising: a substrate comprising a first area, a second area, and a bending area located between the first area and the second area, the bending area configured to be bent about a first bending axis extending in a first direction; an inorganic insulating layer (110, 120, 130) arranged over the substrate, the inorganic insulating layer extending from the first area to the second area and passing over the bending area; a first conductive layer extending from the first area to the second area passing over the bending area, and arranged over the inorganic insulating layer; and an organic material layer arranged between the inorganic insulating layer and the first conductive layer and comprising a central portion and a peripheral portion, wherein the central portion overlaps with the bending area, the peripheral portion extends from the central portion and does not overlap with the bending area, and an average of a thickness (t 1) of the central portion is greater than a further average of a thickness (t 2) of the peripheral portion, characterized in that the organic material layer has an uneven surface at least in an upper surface of the central portion of the organic material layer such that a wavy structure is formed in the upper surface of the central portion of the organic material layer, the upper surface being the surface furthest away from the substrate. a substrate comprising a first area, a second area, and a bending area located between the first area and the second area, the bending area configured to be bent about a first bending axis extending in a first direction; an inorganic insulating layer (110, 120, 130) arranged over the substrate, the inorganic insulating layer extending from the first area to the second area and passing over the bending area; a first conductive layer extending from the first area to the second area passing over the bending area, and arranged over the inorganic insulating layer; and an organic material layer arranged between the inorganic insulating layer and the first conductive layer and comprising a central portion and a peripheral portion, wherein the central portion overlaps with the bending area, the peripheral portion extends from the central portion and does not overlap with the bending area, and an average of a thickness (t 1) of the central portion is greater than a further average of a thickness (t 2) of the peripheral portion, characterized in that the organic material layer has an uneven surface at least in an upper surface of the central portion of the organic material layer such that a wavy structure is formed in the upper surface of the central portion of the organic material layer, the upper surface being the surface furthest away from the substrate.