mhurhangee/ep-ind-claims huggingface dataset:
A fluid carrying element for use as a dielectric isolator and especially adapted for interconnecting facing ends of a fluid carrying member disposed concentrically within an outer shroud, the fluid carrying element comprising: (a) an isolator integrally formed from: (i) an inner tubular element interconnecting the facing ends of the fluid carrying member; (ii) an outer annular portion interconnecting facing ends of the outer shroud; and (iii) a circumferential web interconnecting the inner tubular element to the outer annular portion, said circumferential web including a plurality of openings extending therethrough; and (b) a pair of couplings (520, 536, 600) for securing opposing ends of the outer annular portion to the facing ends of the outer shroud; and wherein the fluid carrying element is constructed of a composition including a thermoplastic organic polymer; wherein the the inner tubular element is constructed of a composition including from 50 wt% to 98 wt% of PEEK and from 0.05 wt% to 2.0 wt% of carbon nanotubes, wherein the fluid carrying element composition exhibits a bulk volume resistivity from about 10 3 Ω-cm to 10 10 Ω-cm at an applied potential of 5000 volts DC. (a) an isolator integrally formed from: (i) an inner tubular element interconnecting the facing ends of the fluid carrying member; (ii) an outer annular portion interconnecting facing ends of the outer shroud; and (iii) a circumferential web interconnecting the inner tubular element to the outer annular portion, said circumferential web including a plurality of openings extending therethrough; and (i) an inner tubular element interconnecting the facing ends of the fluid carrying member; (ii) an outer annular portion interconnecting facing ends of the outer shroud; and (iii) a circumferential web interconnecting the inner tubular element to the outer annular portion, said circumferential web including a plurality of openings extending therethrough; and (b) a pair of couplings (520, 536, 600) for securing opposing ends of the outer annular portion to the facing ends of the outer shroud; and
Cooking appliance with a steam treatment insert inserted into the cooking compartment thereof, wherein the steam treatment insert has a lower part and a cover to cover the lower part in a steam-tight manner, a heater, an electrical connector connected to the heater and an open liquid container, wherein - the cooking appliance has an energy supply facility for supplying the steam treatment insert with an electrical signal, - the heater is a liquid container heater for evaporating liquid located in the liquid container, and - the steam treatment insert is free from steam supply systems. - the cooking appliance has an energy supply facility for supplying the steam treatment insert with an electrical signal, - the heater is a liquid container heater for evaporating liquid located in the liquid container, and - the steam treatment insert is free from steam supply systems.
A method of uplink synchronization in a cellular OFDMA system, the method comprises: mapping a ranging code sequence onto a basic unit of a unified synchronous ranging channel by a mobile station, said unified synchronous ranging channel comprises the basic unit and one time-domain repetition of the basic unit, said basic unit comprises a first number of 72 subcarriers along frequency domain and a second number of 3 OFDM symbols along time domain, repeating the basic unit to obtain the time-domain repetition; wherein all OFDM symbols comprised in the unified synchronous ranging channel have a same ranging cyclic prefix, RCP, length, and wherein the RCP length is the same as a cyclic prefix, CP, length of a data channel; and transmitting the ranging code sequence using the unified synchronous ranging channel to a femto base station, wherein the unified synchronous ranging channel is used for initial ranging, handover ranging and periodic ranging. mapping a ranging code sequence onto a basic unit of a unified synchronous ranging channel by a mobile station, said unified synchronous ranging channel comprises the basic unit and one time-domain repetition of the basic unit, said basic unit comprises a first number of 72 subcarriers along frequency domain and a second number of 3 OFDM symbols along time domain, repeating the basic unit to obtain the time-domain repetition; wherein all OFDM symbols comprised in the unified synchronous ranging channel have a same ranging cyclic prefix, RCP, length, and wherein the RCP length is the same as a cyclic prefix, CP, length of a data channel; and transmitting the ranging code sequence using the unified synchronous ranging channel to a femto base station, wherein the unified synchronous ranging channel is used for initial ranging, handover ranging and periodic ranging.
Use of different strategies for the regeneration of one or more nitrogen oxide storage catalysts to reduce the N 2 O formation during regeneration, wherein the nitrogen oxide storage catalyst is used in the exhaust gas system of a lean-operated combustion engine, characterized in that the different strategies are specifically selected based on the temperature of the exhaust gas such that, below a limit temperature that is within a temperature range of 275 °C - 290 °C, regeneration occurs with a shorter but richer pulse of reducing agent / fuel than it does at temperatures above this temperature range.
A sensor-equipped wearable article comprising a urination sensor that detects urination and that is attached to an outside surface of one sheet among a plurality of sheets constituting the wearable article, wherein: the urination sensor includes a printing substrate formed of a resin film, and a plurality of planar printed electrodes that constitute a sensor element and that are made by an electroconductive ink applied to a surface of the printing substrate; the urination sensor is provided with a section where the printing substrate is not present, the section being provided between the plurality of planar printed electrodes; the urination sensor, including the section where the printing substrate is not present, is covered by a cover sheet in which an adhesive is applied to a nonwoven fabric; the printing substrate is bonded to the one sheet by the adhesive applied to the cover sheet in a manner that the printed electrodes face the surface of the one sheet; the one sheet is an electrically insulating, sparingly liquid-permeable substrate; the printing substrate is an electrically insulating substrate; the plurality of planar printed electrodes are covered by the one sheet and the printing substrate; and characterised in that, non-application sections are present on the surface of the cover sheet to which the adhesive is applied, and the section where the printing substrate is not present forms an air-passage opening which retains an air-passage function with the non-application sections. the urination sensor includes a printing substrate formed of a resin film, and a plurality of planar printed electrodes that constitute a sensor element and that are made by an electroconductive ink applied to a surface of the printing substrate; a printing substrate formed of a resin film, and a plurality of planar printed electrodes that constitute a sensor element and that are made by an electroconductive ink applied to a surface of the printing substrate; the urination sensor is provided with a section where the printing substrate is not present, the section being provided between the plurality of planar printed electrodes; the urination sensor, including the section where the printing substrate is not present, is covered by a cover sheet in which an adhesive is applied to a nonwoven fabric; the printing substrate is bonded to the one sheet by the adhesive applied to the cover sheet in a manner that the printed electrodes face the surface of the one sheet; the one sheet is an electrically insulating, sparingly liquid-permeable substrate; the printing substrate is an electrically insulating substrate; the plurality of planar printed electrodes are covered by the one sheet and the printing substrate; and characterised in that, non-application sections are present on the surface of the cover sheet to which the adhesive is applied, and the section where the printing substrate is not present forms an air-passage opening which retains an air-passage function with the non-application sections.
Method (200, 300) for controlling a dishwasher, wherein the method comprises the following steps: - capturing a user preference for a cleaning cycle of the dishwasher; - reading, over a plurality of cleaning cycles, a first and a second parameter associated with a cleaning cycle of the dishwasher and having an effect on a predetermined sub-aspect of the cleaning cycle; - outputting a prompt to input an indication of user satisfaction with a predetermined sub-aspect of the cleaning cycle; - capturing a user input that indicates the satisfaction thereof with the cleaning cycle with regard to the sub-aspect; - determining (325, 325, 330) an optimisation of one of the parameters with regard to the sub-aspect on the basis of the user input and the user preference; characterised in that - a number of cleaning cycles are carried out and one of the parameters is changed successively over the cleaning cycles until a user input indicates sufficient optimisation of the sub-aspect, and - a cost figure is associated with each parameter and a change in the parameter with the higher cost figure is only determined when a change in the other parameter is not sufficient for an adequate optimisation. - capturing a user preference for a cleaning cycle of the dishwasher; - reading, over a plurality of cleaning cycles, a first and a second parameter associated with a cleaning cycle of the dishwasher and having an effect on a predetermined sub-aspect of the cleaning cycle; - outputting a prompt to input an indication of user satisfaction with a predetermined sub-aspect of the cleaning cycle; - capturing a user input that indicates the satisfaction thereof with the cleaning cycle with regard to the sub-aspect; - determining (325, 325, 330) an optimisation of one of the parameters with regard to the sub-aspect on the basis of the user input and the user preference; - a number of cleaning cycles are carried out and one of the parameters is changed successively over the cleaning cycles until a user input indicates sufficient optimisation of the sub-aspect, and - a cost figure is associated with each parameter and a change in the parameter with the higher cost figure is only determined when a change in the other parameter is not sufficient for an adequate optimisation.
An operating device configured to switch an output direction in accordance with a rotation direction of a cam disc and generate an output value corresponding to a rotation angle of the cam disc, the operating device comprising: an engaging member configured to contact an outer surface of the cam disc; and an electromagnetic adsorption mechanism configured to, when a current is supplied to an excitation unit, cause an adsorbing body to be adsorbed by the excitation unit and press the engaging member toward the outer surface of the cam disc, characterised in that: two steps (31, 32) are formed on the outer surface of the cam disc by a middle region of the outer surface of the cam disc projecting outwardly so as to be respectively located on both sides of the middle region, wherein the middle region is flat, and each of the steps being configured to, when the cam disc is rotated, engage with the engaging member, pressed by the electromagnetic adsorption mechanism, to detent the cam disc; and the two steps are configured such that by returning the cam disc, the adsorbing body is separated from the excitation unit against pressing of the electromagnetic adsorption mechanism. an engaging member configured to contact an outer surface of the cam disc; and an electromagnetic adsorption mechanism configured to, when a current is supplied to an excitation unit, cause an adsorbing body to be adsorbed by the excitation unit and press the engaging member toward the outer surface of the cam disc, characterised in that: two steps (31, 32) are formed on the outer surface of the cam disc by a middle region of the outer surface of the cam disc projecting outwardly so as to be respectively located on both sides of the middle region, wherein the middle region is flat, and each of the steps being configured to, when the cam disc is rotated, engage with the engaging member, pressed by the electromagnetic adsorption mechanism, to detent the cam disc; and the two steps are configured such that by returning the cam disc, the adsorbing body is separated from the excitation unit against pressing of the electromagnetic adsorption mechanism. two steps (31, 32) are formed on the outer surface of the cam disc by a middle region of the outer surface of the cam disc projecting outwardly so as to be respectively located on both sides of the middle region, wherein the middle region is flat, and each of the steps being configured to, when the cam disc is rotated, engage with the engaging member, pressed by the electromagnetic adsorption mechanism, to detent the cam disc; and the two steps are configured such that by returning the cam disc, the adsorbing body is separated from the excitation unit against pressing of the electromagnetic adsorption mechanism.
A circuit for generating periodic control signals, in particular for a microscope, the circuit being embodied to generate and to output at least two mutually phase-shifted control signals, the circuit comprising multiple generator circuits, a separate generator circuit being embodied for generating each of the control signals (PULSE_OUT) outputted by the circuit, each generator circuit comprising a phase value memory for storing a phase value, the phase value defining a phase shift, each generator circuit comprising an activation input, the generator circuit starting, upon application of an activation level at the activation input, the generation of a control signal (PULSE_OUT) that is shifted by the phase shift defined by the phase value, the generator circuits being collectively clocked by a clock signal, the outputted control signals (PULSE_OUT) being periodic pulse sequences, and each generator circuit comprising a counter whose counter status changes at an edge of the clock signal, wherein the activation inputs of the generator circuits are collectively connected to an activation circuit for simultaneous output of an activation level to the generator circuits; the counter of each generator circuit outputs a pulse when a predefinable counter status is reached; and upon application of an activation level at the activation input, the phase value is loaded from the phase value memory into the counter.
Cleaning composition containing at least one chelating agent selected from alkali metal salts of methyl glycine diacetic acid (MGDA) and of glutamic acid diacetic acid (GLDA) and of citric acid, glycine or alanine or an alkali metal or ammonium salt of at least one of the foregoing, in a weight ratio of: of from 10:1 to 1:10. at least one chelating agent selected from alkali metal salts of methyl glycine diacetic acid (MGDA) and of glutamic acid diacetic acid (GLDA) and of citric acid, glycine or alanine or an alkali metal or ammonium salt of at least one of the foregoing,
An operating unit for a profiling line, arranged to receive at the inlet a profiled element that has a cross section defined by a lower side, two sides (S1, S2) and two upper sides (T1, T2) sloped upward so as to be converging towards each other, the operating unit comprising: two shaped rollers, each one including a conical portion and an end portion, concentric respect to a rotating axis; wherein the conical portion is equipped with a vertex section in which the diameter of the roller is minimal, wherein the end portion is connected to the conical portion at the vertex section, and wherein the end portion has greater diameter than the vertex section that defines a shoulder from the surface of the first conical portion; characterized in that: the two shaped rollers are positioned with the rotating axes thereof aligned and with the end portions facing each other, and are positioned in such a way that the upper sides (T1, T2) of the profiled element are in contact with the conical portion; the end portions are arranged to come into contact with the end edges of the upper sides (T1, T2). two shaped rollers, each one including a conical portion and an end portion, concentric respect to a rotating axis; wherein the conical portion is equipped with a vertex section in which the diameter of the roller is minimal, wherein the end portion is connected to the conical portion at the vertex section, and wherein the end portion has greater diameter than the vertex section that defines a shoulder from the surface of the first conical portion; characterized in that: the two shaped rollers are positioned with the rotating axes thereof aligned and with the end portions facing each other, and are positioned in such a way that the upper sides (T1, T2) of the profiled element are in contact with the conical portion; the end portions are arranged to come into contact with the end edges of the upper sides (T1, T2). the two shaped rollers are positioned with the rotating axes thereof aligned and with the end portions facing each other, and are positioned in such a way that the upper sides (T1, T2) of the profiled element are in contact with the conical portion; the end portions are arranged to come into contact with the end edges of the upper sides (T1, T2).
Control ring arrangement for use in an apparatus for filling containers with liquid filling contents, with a rotor which is drivable circumferentially about a vertical machine axis, with a plurality of filling elements arranged in a distributed manner along the circumference of the rotor for filling the containers with the liquid contents, and with a stationary control ring arrangement which concentrically encloses the vertical machine axis and the rotor, wherein the control ring arrangement comprises a plurality of columnar supporting and carrying units (5.1-5.6) arranged in a distributed manner about the rotor circumference of the apparatus for filling containers with a liquid filling product, and a circumferential open control ring borne by the said units, with two free control ring ends (6.1, 6.2) which are opposite each other, characterised in that the control ring is configured to guide a liquid medium.
A bypass flow guide vane stage of a turbofan, comprising - a plurality of obstacles (4, 5, 6a, 6b) including at least one blade and at least one arm (5, 6a, 6b), - a platform from which the obstacles (4, 5, 6a, 6b) extend, characterized in that one arm (5, 6a, 6b) being a pylon (6a, 6b) is defined by a skeleton angle having, at the trailing edge, a trailing value comprised between 5° and 13° with respect to the longitudinal axis of the turbine engine, said skeleton angle at the trailing edge being oriented so as to bring the suction side of the pylon (6a, 6b) closer to the longitudinal axis of the turbine engine. - a plurality of obstacles (4, 5, 6a, 6b) including at least one blade and at least one arm (5, 6a, 6b), - a platform from which the obstacles (4, 5, 6a, 6b) extend,
A refrigeration unit (320, 420, 520, 620, 720) for a vehicle comprising: a condenser configured to be positioned outside of the vehicle; and an evaporator in thermal communication with the condenser and configured to be positioned inside of a cargo space of the vehicle, the evaporator having a fan (330, 430, 530, 564, 630); characterized by a movable directional element (352, 452, 552, 652) housed within the evaporator and deployable from a first position to a second position, wherein in the first position, the movable directional element (352, 452, 552, 652) is stowed within the evaporator and in the second position the movable directional element (352, 452, 552, 652) provides directional airflow control to air being blown by the fan (330, 430, 530, 564, 630) of the evaporator. a condenser configured to be positioned outside of the vehicle; and an evaporator in thermal communication with the condenser and configured to be positioned inside of a cargo space of the vehicle, the evaporator having a fan (330, 430, 530, 564, 630); characterized by a movable directional element (352, 452, 552, 652) housed within the evaporator and deployable from a first position to a second position, wherein in the first position, the movable directional element (352, 452, 552, 652) is stowed within the evaporator and in the second position the movable directional element (352, 452, 552, 652) provides directional airflow control to air being blown by the fan (330, 430, 530, 564, 630) of the evaporator.
A flexible container for helicopter transport of goods, said container comprising: - a body, consisting of at least one canvas double wall, comprising a bottom and two side faces stemming from material of said bottom and including two side edges (2B-1) and an upper edge (2B-2), the bottom including an inner face (2A-1) and an outer face (2A-2) on which the container is to rest once it is filled, - two side panels, each consisting of at least one canvas double wall, comprising two side edges, an upper edge and a lower edge, each side panel being sewn by its side edges to the side edges (2B-1) of the side faces of the body and by its lower edge to the bottom of the body, - two structural reinforcement straps, each sewn at the same time to the outer face (2A-2) of the bottom of the body, to the side edges (2B-1) of the side faces of the body and to the side edges of the side panels, and each comprising two ends from which a loop extends, the working length of each strap being higher than half the diagonal of the bottom of the container such that the four loops can be simultaneously connected to a single hoist hook of a helicopter so as to heliport the container. - a body, consisting of at least one canvas double wall, comprising a bottom and two side faces stemming from material of said bottom and including two side edges (2B-1) and an upper edge (2B-2), the bottom including an inner face (2A-1) and an outer face (2A-2) on which the container is to rest once it is filled, - two side panels, each consisting of at least one canvas double wall, comprising two side edges, an upper edge and a lower edge, each side panel being sewn by its side edges to the side edges (2B-1) of the side faces of the body and by its lower edge to the bottom of the body, - two structural reinforcement straps, each sewn at the same time to the outer face (2A-2) of the bottom of the body, to the side edges (2B-1) of the side faces of the body and to the side edges of the side panels, and each comprising two ends from which a loop extends, the working length of each strap being higher than half the diagonal of the bottom of the container such that the four loops can be simultaneously connected to a single hoist hook of a helicopter so as to heliport the container.
A system for controlling a volume of a drape, comprising: a drape configured to at least partially cover an articulated member; and a controller configured to cause a volume enclosed by the drape to change in connection with movement of the articulated member, and at least one sensor configured to monitor pressure within the volume enclosed by the drape, wherein the drape increasingly conforms to the articulated member as the volume enclosed by the drape is decreased, and wherein the controller is configured to detect a collision between the drape and an external object based on an input from the at least one sensor. a drape configured to at least partially cover an articulated member; and a controller configured to cause a volume enclosed by the drape to change in connection with movement of the articulated member, and at least one sensor configured to monitor pressure within the volume enclosed by the drape, wherein the drape increasingly conforms to the articulated member as the volume enclosed by the drape is decreased, and wherein the controller is configured to detect a collision between the drape and an external object based on an input from the at least one sensor.