mhurhangee/ep-ind-claims huggingface dataset:
An oven comprising: an oven cavity with a closable opening for receiving food to be cooked or baked, an evaporation cavity arranged in a bottom wall of the oven cavity as an embossment having a volume formed in the bottom wall of the oven cavity, a bottom heating element comprising a primary heater loop and an evaporation heating element comprising a secondary heater loop arranged for heating the evaporation cavity, wherein the primary heater loop is arranged underneath the oven cavity in an area that at least partially surrounds the area underneath the evaporation cavity, and wherein the primary heater loop at least partially surrounds the evaporation heating element, characterised by a controller configured to selectively operate only the primary heater loop, or concurrently operate the primary heater loop and the evaporation heating element by switching the primary heater loop and the evaporation heating element into a series electrical connection, wherein the power output of the primary loop is in a ratio of 1/2 to 1/10 of the power output of the same primary loop when only the primary heater loop is operated. an oven cavity with a closable opening for receiving food to be cooked or baked, an evaporation cavity arranged in a bottom wall of the oven cavity as an embossment having a volume formed in the bottom wall of the oven cavity, a bottom heating element comprising a primary heater loop and an evaporation heating element comprising a secondary heater loop arranged for heating the evaporation cavity, wherein the primary heater loop is arranged underneath the oven cavity in an area that at least partially surrounds the area underneath the evaporation cavity, and wherein the primary heater loop at least partially surrounds the evaporation heating element, characterised by a controller configured to selectively operate only the primary heater loop, or concurrently operate the primary heater loop and the evaporation heating element by switching the primary heater loop and the evaporation heating element into a series electrical connection, wherein the power output of the primary loop is in a ratio of 1/2 to 1/10 of the power output of the same primary loop when only the primary heater loop is operated.
A mobile device for activating at least one switching element arranged inside of a housing (11, 12), with a pushbutton unit, which has at least one contact means, wherein the contact means is aligned toward the interior of the housing so as to activate the switching element, and a receptacle that is arranged on the housing, and has the pushbutton unit fastened to it, characterized in that the receptacle has a force transmission area arranged between the pushbutton unit and the switching element in such a way as to protect the interior of the housing against the exterior area, wherein the pushbutton unit is formed at least by a flexible and/or elastic pushbutton element and a carrier, which is at least partially enveloped by the flexible pushbutton element, wherein the carrier has at least one trough in which a respective aperture is provided, wherein at least one partial area of the trough has a stop function for the pushbutton element.
A protective circuit for a current transformer for preventing a secondary voltage (Us) on a secondary circuit (10.1) of the current transformer from exceeding a secondary voltage threshold, comprising: - a protective circuit input (12.1) which can be coupled to the secondary circuit (10.1) of the current transformer such that the secondary voltage (Us) is applied to the protective circuit input (12.1); - a control unit connected to the protective circuit input (12.1); and - a switch unit connected to the protective circuit input (12.1) and operatively connected to the control unit; wherein - the control unit comprises a comparator unit (16.2) and is adapted to provide a control signal to the switch unit in response to the secondary voltage (Us) exceeding the secondary voltage threshold, if an input voltage of the comparator unit (16.2) exceeds a threshold; - the control unit furthermore comprises a rectifier (16.1) connected to the protective circuit input (12.1), for providing a direct current voltage (Ug) which is a function of an amplitude of the secondary voltage (Us), as an input voltage for the comparator unit (16.2); - the switch unit is implemented as a semiconductor circuit which comprises two MOSFETs (T1, T2) arranged anti-serially in a back-to-back circuit, which are connected to one another at a central connection; - the rectifier (16.1) comprises four bridge legs, with two bridge legs providing the direct current voltage (Ug) and two bridge legs being connected to the central connection of the switch unit; and - the switch unit is adapted to short-circuit the protective circuit input (12.1) in response to the control signal supplied from the control unit. - a protective circuit input (12.1) which can be coupled to the secondary circuit (10.1) of the current transformer such that the secondary voltage (Us) is applied to the protective circuit input (12.1); - a control unit connected to the protective circuit input (12.1); and - a switch unit connected to the protective circuit input (12.1) and operatively connected to the control unit; - the control unit comprises a comparator unit (16.2) and is adapted to provide a control signal to the switch unit in response to the secondary voltage (Us) exceeding the secondary voltage threshold, if an input voltage of the comparator unit (16.2) exceeds a threshold; - the control unit furthermore comprises a rectifier (16.1) connected to the protective circuit input (12.1), for providing a direct current voltage (Ug) which is a function of an amplitude of the secondary voltage (Us), as an input voltage for the comparator unit (16.2); - the switch unit is implemented as a semiconductor circuit which comprises two MOSFETs (T1, T2) arranged anti-serially in a back-to-back circuit, which are connected to one another at a central connection; - the rectifier (16.1) comprises four bridge legs, with two bridge legs providing the direct current voltage (Ug) and two bridge legs being connected to the central connection of the switch unit; and - the switch unit is adapted to short-circuit the protective circuit input (12.1) in response to the control signal supplied from the control unit.
Flow cell having a pipe section which extends along a longitudinal axis and at the ends of which an inlet opening and an opposite outlet opening are arranged, having a first electrode which is arranged coaxially at least in sections in the pipe section which first electrode is coaxially surrounded by a spaced-apart second electrode, wherein the pipe section is formed by a first pipe section and a second pipe section and a circumferentially closed second electrode arranged between the first and second pipe sections (3, 4), wherein a first and a second radial carrier (6, 7) are arranged adjacent to the ends of the first tube section and the second tube section opposite the second electrode, and the first electrode is fixed to the first and second radial carriers (6, 7), at least one of which is electrically conductively connected to the first electrode, and the first and second radial carriers (6, 7) are braced towards each other by means of the first electrode. wherein a first and a second radial carrier (6, 7) are arranged adjacent to the ends of the first tube section and the second tube section opposite the second electrode, and the first electrode is fixed to the first and second radial carriers (6, 7), at least one of which is electrically conductively connected to the first electrode, and the first and second radial carriers (6, 7) are braced towards each other by means of the first electrode.
A video stream redirecting method for the UIWebView widget of the operating system of an electronic apparatus, comprising: constructing, by a function construction module, a new initialization function, hookInitWithURL, of a video URL, wherein new URL parameters and a returned value of the new initialization function of the video URL are the same as original URL parameters and a returned value of an original initialization function, InitWithURL, of the video URL, and the new URL parameters and the original URL parameters both comprise accessing mode, host name and path; and hijacking, by a stream redirecting module, the original initialization function, such that when the operating system calls the original initialization function to request a corresponding video, the new initialization function of the video URL is executed, changing a target address in the video URL to an address of a designated proxy server, to redirect the video stream request of the corresponding video to the designated proxy server and obtaining, by the electronic apparatus, the corresponding video from the designated proxy server. constructing, by a function construction module, a new initialization function, hookInitWithURL, of a video URL, wherein new URL parameters and a returned value of the new initialization function of the video URL are the same as original URL parameters and a returned value of an original initialization function, InitWithURL, of the video URL, and the new URL parameters and the original URL parameters both comprise accessing mode, host name and path; and hijacking, by a stream redirecting module, the original initialization function, such that when the operating system calls the original initialization function to request a corresponding video, the new initialization function of the video URL is executed, changing a target address in the video URL to an address of a designated proxy server, to redirect the video stream request of the corresponding video to the designated proxy server and obtaining, by the electronic apparatus, the corresponding video from the designated proxy server.
An automated floor cleaner, comprising: a cleaner body; a movement means (7, 19) connected to the cleaner body and configured so that in use the floor cleaner can move across a surface; a sensing means configured to sense the position of the floor cleaner within a location and to transmit data relating to the position to a memory module configured to map and record the position of the floor cleaner during use; characterised in that the floor cleaner further comprises an endless belt, connected to and extending from the cleaner body so that in use a section of the surface area of the belt is in contact with the floor to in use clean the floor surface; a motor, connected to the belt to drive the belt independently of movement of the floor cleaner across the floor. a cleaner body; a movement means (7, 19) connected to the cleaner body and configured so that in use the floor cleaner can move across a surface; a sensing means configured to sense the position of the floor cleaner within a location and to transmit data relating to the position to a memory module configured to map and record the position of the floor cleaner during use; characterised in that the floor cleaner further comprises an endless belt, connected to and extending from the cleaner body so that in use a section of the surface area of the belt is in contact with the floor to in use clean the floor surface; a motor, connected to the belt to drive the belt independently of movement of the floor cleaner across the floor.
Method of producing a lid of paper for containers, particularly lids for packaging containers, wherein the packaging containers can be cups, tubs or the like, wherein the lid is constructed as a sit-on lid, a snap-fit lid or an insert lid with an encircling, preferably downwardly directed, edge, wherein a flatly disposed blank is deep-drawn, i.e. drawn into a mould in classic manner by sub-atmospheric pressure, or reshaping is undertaken by excess pressure or stamping and thus initially a bead is formed or that a channel is formed in a flatly disposed blank in the region of the bead to be formed and the bead is thus formed, characterised in that radii are provided in the region of the transition between lid surface and bead and stampings for stabilising the transition are formed.
An aerosol delivery device (400, 500, 600, 700, 1000, 1100), comprising: a control body (402, 502, 602, 702, 1002, 1102); a cartridge (404, 504, 604, 704, 1004, 1104) comprising a reservoir (426, 530, 632, 730, 1028, 1122) at least partially filled with an aerosol precursor composition (444, 544, 642, 744, 1042, 1134), the cartridge (404, 504, 604, 704, 1004, 1104) being configured to receive an airflow from the control body (402, 502, 602, 702, 1002, 1102); a positive displacement apparatus configured to dispense the aerosol precursor composition (444, 544, 642, 744, 1042, 1134) from the reservoir (426, 530, 632, 730, 1028, 1122); and an atomizer (428, 531, 626, 733, 1014, 1118) comprising a heating element (452, 532, 627, 734, 1046, 1119) configured to heat the aerosol precursor composition (444, 544, 642, 744, 1042, 1134) received from the reservoir (426, 530, 632, 730, 1028, 1122) to add a vapor to the airflow and form an aerosol. a control body (402, 502, 602, 702, 1002, 1102); a cartridge (404, 504, 604, 704, 1004, 1104) comprising a reservoir (426, 530, 632, 730, 1028, 1122) at least partially filled with an aerosol precursor composition (444, 544, 642, 744, 1042, 1134), the cartridge (404, 504, 604, 704, 1004, 1104) being configured to receive an airflow from the control body (402, 502, 602, 702, 1002, 1102); a positive displacement apparatus configured to dispense the aerosol precursor composition (444, 544, 642, 744, 1042, 1134) from the reservoir (426, 530, 632, 730, 1028, 1122); and an atomizer (428, 531, 626, 733, 1014, 1118) comprising a heating element (452, 532, 627, 734, 1046, 1119) configured to heat the aerosol precursor composition (444, 544, 642, 744, 1042, 1134) received from the reservoir (426, 530, 632, 730, 1028, 1122) to add a vapor to the airflow and form an aerosol.
An integrated biosignal analysis system performing determination of arrhythmia based on electrocardiographic information, the biosignal analysis system comprising: an input unit configured to receive input of the electrocardiographic information; a data conversion unit configured to perform time-frequency conversion on the electrocardiographic information to generate data for determination; a data restoration unit configured to restore the data for determination using a learned model including an auto-encoder to generate restored data; a difference calculation unit configured to calculate a difference amount between the restored data and the data for determination; and a determination unit configured to determine whether the data for determination is either of normal waveform data and arrhythmic waveform data based on the difference amount. an input unit configured to receive input of the electrocardiographic information; a data conversion unit configured to perform time-frequency conversion on the electrocardiographic information to generate data for determination; a data restoration unit configured to restore the data for determination using a learned model including an auto-encoder to generate restored data; a difference calculation unit configured to calculate a difference amount between the restored data and the data for determination; and a determination unit configured to determine whether the data for determination is either of normal waveform data and arrhythmic waveform data based on the difference amount.
A home automation system, comprising: a home security system including one or more sensor nodes (104, 108, 110) capable of detecting motion within a home; and a service robot system including at least one robot that autonomously moves within the home to perform one or more functions, characterized in that the home security system and the service robot system are mutually configured such that there will not be a motion alarm set off by the robot when the robot moves within a range of the one or more sensor nodes (104, 108, 110), wherein the robot is configured to output a signal when moving to alert the home security system of its presence so that there will not be a motion alarm set off for as long as the signal is detected by the one or more sensor nodes (104, 108, 110), wherein the signal is one or more of an optical notifying signal, an audible notifying signal, an infrared notifying signal, an infrasonic notifying signal, and a wirelessly transmitted data notification signal. a home security system including one or more sensor nodes (104, 108, 110) capable of detecting motion within a home; and a service robot system including at least one robot that autonomously moves within the home to perform one or more functions, characterized in that the home security system and the service robot system are mutually configured such that there will not be a motion alarm set off by the robot when the robot moves within a range of the one or more sensor nodes (104, 108, 110), wherein the robot is configured to output a signal when moving to alert the home security system of its presence so that there will not be a motion alarm set off for as long as the signal is detected by the one or more sensor nodes (104, 108, 110), wherein the signal is one or more of an optical notifying signal, an audible notifying signal, an infrared notifying signal, an infrasonic notifying signal, and a wirelessly transmitted data notification signal.
Mulching apparatus for working crop stubble in a field, wherein: the mulching apparatus comprises a mounting which is connected to a shaft and can be set in rotation by the shaft, and two or more tools for working the crop stubble, which are attached to the mounting so as to be symmetrical to the shaft; and the tools are mounted by pendulum mounts so as to oscillate freely on the mounting, having pendulum axes that run parallel to the rotation axis of the shaft, have a fastening region which is coupled to a mounting so as to oscillate about a rotation axis and through which, at half its height measured along the rotation axis, runs an imaginary symmetry plane which is oriented orthogonally to the rotation axis, and comprise a working element which is shaped to be asymmetrical in relation to the plane of symmetry and has a blunt face which during operation extends in the rotating direction and is configured to shred the crop stubble in a field, characterized in that the tool is shaped in such a manner that its centre of gravity is in the plane of symmetry. the mulching apparatus comprises a mounting which is connected to a shaft and can be set in rotation by the shaft, and two or more tools for working the crop stubble, which are attached to the mounting so as to be symmetrical to the shaft; and the tools are mounted by pendulum mounts so as to oscillate freely on the mounting, having pendulum axes that run parallel to the rotation axis of the shaft, have a fastening region which is coupled to a mounting so as to oscillate about a rotation axis and through which, at half its height measured along the rotation axis, runs an imaginary symmetry plane which is oriented orthogonally to the rotation axis, and comprise a working element which is shaped to be asymmetrical in relation to the plane of symmetry and has a blunt face which during operation extends in the rotating direction and is configured to shred the crop stubble in a field, characterized in that the tool is shaped in such a manner that its centre of gravity is in the plane of symmetry.
Feeder having a chassis, at least one storage container for receiving road-building material or the like, and at least one belt conveyor, having a conveyor belt, rendered endless, for feeding road-building material or the like from the storage container to a road paver or the like, characterized in that, in order to render the conveyor belt endless, two ends (22, 23) thereof are able to be coupled together by at least one connecting means, wherein the at least one connecting means connects the two ends (22, 23) of the conveyor belt releasably together, and the at least one connecting means is in the form of separate, different connecting elements, namely eyes and hooks (31, 35), which correspond such that they are able to be coupled together, and the connecting elements of the at least one connecting means terminate flush, or at least virtually flush, with the two surfaces (29, 30) of the conveyor belt.
A controller which, in operation, controls a process of a terminal apparatus used in a wireless communication system characterized in that a base station apparatus and the terminal apparatus are communicable with each other using multiple frequencies at the same time, the process comprising: detecting occurrence of an event for transmitting a measurement report of a first radio condition of a cell at a first frequency set for the base station apparatus, to the base station communicating with the terminal apparatus; and creating the measurement report including information indicating the first radio condition of the cell at the first frequency and a second radio condition of another cell at a second frequency different from the first frequency, on the basis of occurrence of the event, wherein the first and the second frequency are frequencies used by the terminal at the same time for communicating with the base station. detecting occurrence of an event for transmitting a measurement report of a first radio condition of a cell at a first frequency set for the base station apparatus, to the base station communicating with the terminal apparatus; and creating the measurement report including information indicating the first radio condition of the cell at the first frequency and a second radio condition of another cell at a second frequency different from the first frequency, on the basis of occurrence of the event, wherein the first and the second frequency are frequencies used by the terminal at the same time for communicating with the base station.
A radar filling level measuring device for non-contact measurement of a filling level of a filling matter in a vessel, comprising: an electronics unit for generating transmitting signals and for processing receiving signals reflected from a filling matter surface of the filling matter, an antenna unit (6a; 6b) connected to the electronics unit and adapted to radiate the transmission signals generated by the electronics unit in the direction of the filling matter and to receive the receiving signals reflected from the filling matter surface and to pass them on to the electronics unit, and a housing (2, 3) having a cavity tight with respect to the ambient atmosphere surrounding the filling level measuring device, in which cavity the electronics unit and the antenna unit (6a; 6b) are accommodated; wherein the housing (2, 3) has an attachment means on the side opposite from the radiation direction, for mounting the radar filling level measuring device to an inside of the vessel; and wherein the housing has a screw thread on the outside of the housing (2,3) adapted for being screwed into a vessel opening having an internal thread for mounting the radar filling level measuring device. an electronics unit for generating transmitting signals and for processing receiving signals reflected from a filling matter surface of the filling matter, an antenna unit (6a; 6b) connected to the electronics unit and adapted to radiate the transmission signals generated by the electronics unit in the direction of the filling matter and to receive the receiving signals reflected from the filling matter surface and to pass them on to the electronics unit, and a housing (2, 3) having a cavity tight with respect to the ambient atmosphere surrounding the filling level measuring device, in which cavity the electronics unit and the antenna unit (6a; 6b) are accommodated; wherein the housing (2, 3) has an attachment means on the side opposite from the radiation direction, for mounting the radar filling level measuring device to an inside of the vessel; and wherein the housing has a screw thread on the outside of the housing (2,3) adapted for being screwed into a vessel opening having an internal thread for mounting the radar filling level measuring device.