mhurhangee/ep-ind-claims huggingface dataset:
Cooking appliance having a cooking chamber in an interior of a pan, which has a front wall, two side walls (13, 14) and a rear wall, having a closable cover, having a drain from the pan, and having a cleaning arrangement for feeding cleaning fluid into the pan, wherein the cleaning arrangement has a high-pressure device for introducing the cleaning fluid into the pan under high pressure, wherein the cleaning arrangement is guided into the cooking chamber in the interior of the pan through a wall, formed from one of the walls (12, 13, 14, 15), or through the cover or a floor of the pan, and the cleaning arrangement has a rotatable head with one or more nozzle openings for the cleaning fluid, characterized by the provision of a motor for driving the rotatable head, which motor is preferably arranged in the wall and transmits the drive power, by means of a transmission chain, into the lance, which drives the head.
Electric motor comprising a housing, in which at least one electronic circuit board is disposed, wherein - from the first end face of the housing, the axially extending drive shaft projects and - there are attached on the housing - an electrical power plug connection for supplying the electric motor and the electronic circuit board with electrical energy and - at least one electrical data plug connection as setpoint value input plug of the electronic circuit board and, as output plug for reading actual values and stored data and for exchanging other data, characterised in that the electrical power plug connection and at least one electrical data plug connection are mounted on the second end face of the housing, which lies opposite the first end face, onto the power plug connection and onto the data plug connection, there is plugged a distribution box, - of which the dimensions in the radial direction are smaller than the cross-section of the housing and - which, in addition to the plug connections (3, 4) between the electric motor, electronic circuit board and distribution box, also has at least four openings for the installation of further plug connections (3, 4), of which at least two face in the axial direction of the housing and at least two are radially oriented, and - within the distribution box, electrical connections are produced between the plug connections (3, 4). - from the first end face of the housing, the axially extending drive shaft projects and - there are attached on the housing - an electrical power plug connection for supplying the electric motor and the electronic circuit board with electrical energy and - at least one electrical data plug connection as setpoint value input plug of the electronic circuit board and, as output plug for reading actual values and stored data and for exchanging other data, - of which the dimensions in the radial direction are smaller than the cross-section of the housing and - which, in addition to the plug connections (3, 4) between the electric motor, electronic circuit board and distribution box, also has at least four openings for the installation of further plug connections (3, 4), of which at least two face in the axial direction of the housing and at least two are radially oriented, and - within the distribution box, electrical connections are produced between the plug connections (3, 4).
Arrangement for optical coupling a light wave guide with an optical unit of an optical module, wherein the arrangement comprises an optical module with an optical unit and a reference geometry (2, 15) for mechanical coupling of a coupling element, wherein the coupling element serves for accommodation and/or coupling of a light wave guide to be coupled to the optical unit, and wherein the optical unit comprises an optical axis, along which light from the optical unit is transmitted or received, the reference geometry (2, 15) defines exactly one first axis of symmetry (20, 150), the optical axis of the optical unit and the axis of symmetry (20, 150) of the reference geometry (2, 15) comprise an offset with respect to each other, and further a coupling element is provided, wherein the coupling element comprises a hole delimited by an inner surface, wherein the inner surface of the coupling element defines a second axis of symmetry, at the side of the coupling element facing the optical unit a beam forming element with an optical axis is integrated in the coupling element, and the optical axis of the beam forming element coincides with the second axis of symmetry, the coupling element is arranged with respect to the optical module such that the second axis of symmetry coincides with the optical axis of the optical unit, and thereby the first axis of symmetry (20, 150) and the second axis of symmetry are parallel to each other, characterized in that the first axis of symmetry (20, 150) and the second axis of symmetry comprise an offset with respect to each other, which is with regard to a direction and an amount substantially equal to the offset between the optical axis of the optical unit and the first axis of symmetry (20, 150) of the reference geometry (2, 15), and the reference geometry (2, 15) is arranged immovable relative to the optical unit.
At least one machine readable storage medium comprising a set of instructions which, when executed by a processor, cause a first mobile device to: store a policy including a multi-factor condition that is to include a number uniquely configured for a user stating how many devices (16, 18) are to be required to allow a function of a vehicle to be accessible to the user; receive a request from a security module of a vehicle; and transmit the policy to the security module in response to the request. store a policy including a multi-factor condition that is to include a number uniquely configured for a user stating how many devices (16, 18) are to be required to allow a function of a vehicle to be accessible to the user; receive a request from a security module of a vehicle; and transmit the policy to the security module in response to the request.
A three-dimensional culture method of cells, comprising the steps of: - positioning a plurality of fibers (21, 30, 31, 130) in a flow path spatial part, in which a space surrounded by an inner wall surface from a supply port to a discharge port of a culture solution (6, 106) is used as a flow path, so that a longitudinal direction of each of the fibers (21, 30, 31, 130) is along a direction of the flow path while a predetermined interval is mutually maintained between the fibers (21, 30, 31, 130); - placing a plurality of cell clusters in the flow path upon causing the cell clusters to run with a liquid flow of the culture solution (6, 106) supplied in the flow path from the supply port, and - culturing each of the cell clusters, wherein: - a flow rate of the culture solution (6, 106) is controlled, and - a number of the cell clusters to be placed in the flow path and a placement timing thereof are adjusted in accordance with a control state of the culture solution (6, 106), characterized in that - said culturing of each of the cell clusters is performed by stacking the cell clusters on an outer surface of each of the fibers (21, 30, 31, 130) - a flat plate is provided in a downstream section of the flow path spatial part for serving as a growth origin. - positioning a plurality of fibers (21, 30, 31, 130) in a flow path spatial part, in which a space surrounded by an inner wall surface from a supply port to a discharge port of a culture solution (6, 106) is used as a flow path, so that a longitudinal direction of each of the fibers (21, 30, 31, 130) is along a direction of the flow path while a predetermined interval is mutually maintained between the fibers (21, 30, 31, 130); - placing a plurality of cell clusters in the flow path upon causing the cell clusters to run with a liquid flow of the culture solution (6, 106) supplied in the flow path from the supply port, and - culturing each of the cell clusters, - a flow rate of the culture solution (6, 106) is controlled, and - a number of the cell clusters to be placed in the flow path and a placement timing thereof are adjusted in accordance with a control state of the culture solution (6, 106), - said culturing of each of the cell clusters is performed by stacking the cell clusters on an outer surface of each of the fibers (21, 30, 31, 130) - a flat plate is provided in a downstream section of the flow path spatial part for serving as a growth origin.
An isolated polypeptide having endopeptidase activity, selected from the group consisting of: (a) a polypeptide having at least 70% sequence identity to the mature polypeptide of SEQ ID NO: 2; (b) a polypeptide encoded by a polynucleotide having at least 70% sequence identity to the mature polypeptide coding sequence of SEQ ID NO: 1; and (c) a fragment of a polypeptide of (a) or (b) that has endopeptidase activity. (a) a polypeptide having at least 70% sequence identity to the mature polypeptide of SEQ ID NO: 2; (b) a polypeptide encoded by a polynucleotide having at least 70% sequence identity to the mature polypeptide coding sequence of SEQ ID NO: 1; and (c) a fragment of a polypeptide of (a) or (b) that has endopeptidase activity.
A method for modelling the acoustic signature produced by an aircraft of interest flying at a particular supersonic Mach number/altitude operating point of interest, the method comprising: operating a sub-scale aircraft that is a sub-scale version of the aircraft of interest at a supersonic Mach number and at an altitude that are respectively different from the Mach number and the altitude associated with the operating point of interest, the Mach number and the altitude at which said sub-scale aircraft is operated being selected such that a first sonic boom signature parameter associated with operating the sub-scale aircraft and a second sonic boom signature parameter associated with operating the sub-scale aircraft are the same as corresponding first and second sonic boom signature parameters associated with operating the aircraft of interest at the operating point of interest. operating a sub-scale aircraft that is a sub-scale version of the aircraft of interest at a supersonic Mach number and at an altitude that are respectively different from the Mach number and the altitude associated with the operating point of interest, the Mach number and the altitude at which said sub-scale aircraft is operated being selected such that a first sonic boom signature parameter associated with operating the sub-scale aircraft and a second sonic boom signature parameter associated with operating the sub-scale aircraft are the same as corresponding first and second sonic boom signature parameters associated with operating the aircraft of interest at the operating point of interest.
Method for the heat recovery from a tunnel recooling apparatus, comprising one or several cooling cells (20.1 - 20.3) for cooling products in containers by means of a cooling agent circulating in a coolant circuit, comprising a heat exchanger; including the steps of: (i) controlling, using a control unit, the circulating quantity of the coolant; and (ii) controlling using the control unit, the temperature of the coolant; wherein both the circulating quantity and the temperature of the coolant are measured and controlled on the basis of comparisons with predefined parameters, so that the thermal yield of the heat exchanger is optimized; wherein coolant which reaches the heat exchanger there exchanges heat with a medium of the heat exchanger. (i) controlling, using a control unit, the circulating quantity of the coolant; and (ii) controlling using the control unit, the temperature of the coolant; wherein both the circulating quantity and the temperature of the coolant are measured and controlled on the basis of comparisons with predefined parameters, so that the thermal yield of the heat exchanger is optimized; wherein coolant which reaches the heat exchanger there exchanges heat with a medium of the heat exchanger.
A power transmitter for transferring power to a power receiver using a wireless inductive power signal, the power transmitter comprising: an inductor for providing the power signal; a power signal generator for driving the inductor to provide the power signal; a receiver for receiving data messages from the power receiver, the data messages being communicated by load modulation of the power signal; a power loop controller arranged to control a power of the power signal in response to power control error messages received from the power receiver; a query message processor for detecting that a query message has been received from the power receiver; and a modification processor for modifying during a power transfer phase a response of the power loop controller to power control error messages in response to the query message. an inductor for providing the power signal; a power signal generator for driving the inductor to provide the power signal; a receiver for receiving data messages from the power receiver, the data messages being communicated by load modulation of the power signal; a power loop controller arranged to control a power of the power signal in response to power control error messages received from the power receiver; a query message processor for detecting that a query message has been received from the power receiver; and a modification processor for modifying during a power transfer phase a response of the power loop controller to power control error messages in response to the query message.
A method comprising: determining an initial orientation of an electric meter (130, 210, 310, 410, 510, 610, 620, 630) based on initial acceleration measurements from an accelerometer positioned in the electric meter (130, 210, 310, 410, 510, 610, 620, 630); continuously monitoring subsequent acceleration measurements from the accelerometer; determining subsequent orientations of the electric meter (130, 210, 310, 410, 510, 610, 620, 630) based on the subsequent acceleration measurements obtained within a specified period of time; determining differences between the initial orientation and the subsequent orientations based on the initial acceleration measurements and the subsequent acceleration measurements obtained within the specified period of time; comparing the differences to threshold values; determining that the differences exceed the threshold values; based on the differences exceeding the threshold values generating a notification of a change in orientation of the electric meter (130, 210, 310, 410, 510, 610, 620, 630) to a head-end system. determining an initial orientation of an electric meter (130, 210, 310, 410, 510, 610, 620, 630) based on initial acceleration measurements from an accelerometer positioned in the electric meter (130, 210, 310, 410, 510, 610, 620, 630); continuously monitoring subsequent acceleration measurements from the accelerometer; determining subsequent orientations of the electric meter (130, 210, 310, 410, 510, 610, 620, 630) based on the subsequent acceleration measurements obtained within a specified period of time; determining differences between the initial orientation and the subsequent orientations based on the initial acceleration measurements and the subsequent acceleration measurements obtained within the specified period of time; comparing the differences to threshold values; determining that the differences exceed the threshold values; based on the differences exceeding the threshold values generating a notification of a change in orientation of the electric meter (130, 210, 310, 410, 510, 610, 620, 630) to a head-end system.
A paper sheet handling apparatus comprising: an image sensor unit which includes an image capturing element that captures a paper sheet so as to discriminate the paper sheet; a controller that controls the image sensor unit; and a first attachment part that includes: a connection terminal that connects the image sensor unit and the controller with each other, the first attachment part, to which the image sensor unit is attached to be detachable, being arranged in a conveyance path for conveying the paper sheet, wherein the image sensor unit includes: a plurality of image capturing elements; a storage element that stores correction information for correcting outputs of the plurality of image capturing elements; and a circuit board on which the plurality of image capturing elements and the storage element are arranged; and the correcting includes correcting an output of the image sensor unit based on the correction information stored in the storage element of the image sensor unit. an image sensor unit which includes an image capturing element that captures a paper sheet so as to discriminate the paper sheet; a controller that controls the image sensor unit; and a first attachment part that includes: a connection terminal that connects the image sensor unit and the controller with each other, the first attachment part, to which the image sensor unit is attached to be detachable, being arranged in a conveyance path for conveying the paper sheet, wherein a connection terminal that connects the image sensor unit and the controller with each other, the first attachment part, to which the image sensor unit is attached to be detachable, being arranged in a conveyance path for conveying the paper sheet, wherein the image sensor unit includes: a plurality of image capturing elements; a storage element that stores correction information for correcting outputs of the plurality of image capturing elements; and a circuit board on which the plurality of image capturing elements and the storage element are arranged; and a plurality of image capturing elements; a storage element that stores correction information for correcting outputs of the plurality of image capturing elements; and a circuit board on which the plurality of image capturing elements and the storage element are arranged; and the correcting includes correcting an output of the image sensor unit based on the correction information stored in the storage element of the image sensor unit.
A security system for a computer network, the network having a plurality of devices connected thereto, at least some of the devices having security-related functions, the security system comprising: (a) a security subsystem associated with at least some of the devices in the network, said security subsystem being adapted to test the integrity of the security-related functions, said security subsystem being configured to detect attacks on said network; (b) a master system being adapted to monitor the integrity of the security subsystem, register information pertaining to the attacks detected by said security subsystem and receive and store results of the integrity testing of the devices having security-related functions; and (c) a first secure link connected between the security subsystem and the master system, the master system being adapted to monitor the integrity of the security subsystem and to receive the results of the integrity testing of the devices having security-related functions through the first secure link, wherein one of the master system and the security subsystem is further adapted to monitor whether a device having security-related functions responds to the security subsystem in response to the integrity testing, and wherein one of the security subsystem and the master system is adapted to take security countermeasures when no response is detected.
Housing made of at least one first housing part and at least one second housing part, wherein the first housing part has an installation opening for the installation of electronic components and the second housing part is located at a closure element in the installation opening of the first housing part, wherein the second housing part lying in the installation opening of the first housing part is releasably connected to the first housing part, characterised in that an internal groove extending in the longitudinal direction of the inner edge along at least one edge section is formed in an inner edge of the first housing part, in that an external groove extending in the longitudinal direction of the outer edge along an edge section of the second housing part is formed in an outer edge of the second housing part, in that in the installed position of the second housing part, the external groove of the second housing part is located opposite the internal groove of the first housing part in such a way as a closure element in the installation opening of the first housing part that the internal groove and the external groove jointly bound a lock channel and a lock element is inserted into the lock channel for mechanically joining the first housing part to the second housing part, which lock element lies in the internal groove with a first subsection and in the external groove with a second subsection, whereby a positive connection is established between the first housing part and the second housing part.
An extended-drain field effect transistor, FET, (101, 102, 103), comprising: a gate electrode disposed over a channel region of a semiconductor body with a gate dielectric disposed there between; a source contact metal coupled with a source region of the semiconductor body disposed on a first side of the channel region; a drain contact metal coupled with a drain region of the semiconductor body disposed on a second side of the channel region; a field plate electrode and a field plate dielectric disposed between the field plate electrode and an extended-drain region between the channel region and drain region, and disposed in closer proximity to the gate electrode than to the drain contact metal, a dummy gate electrode electrically isolated from the gate electrode and having the same lateral length as the gate electrode to within 10 %, the dummy gate electrode disposed over the extended-drain region, and between the gate electrode and the drain contact, wherein the field plate electrode is disposed between and in direct contact with both the gate electrode and the dummy gate electrode; characterized in that the field plate electrode is disposed over the extended-drain region between the channel region and drain region, and that the field plate dielectric has a greater equivalent oxide thickness than the gate dielectric. a gate electrode disposed over a channel region of a semiconductor body with a gate dielectric disposed there between; a source contact metal coupled with a source region of the semiconductor body disposed on a first side of the channel region; a drain contact metal coupled with a drain region of the semiconductor body disposed on a second side of the channel region; a field plate electrode and a field plate dielectric disposed between the field plate electrode and an extended-drain region between the channel region and drain region, and disposed in closer proximity to the gate electrode than to the drain contact metal, a dummy gate electrode electrically isolated from the gate electrode and having the same lateral length as the gate electrode to within 10 %, the dummy gate electrode disposed over the extended-drain region, and between the gate electrode and the drain contact, wherein the field plate electrode is disposed between and in direct contact with both the gate electrode and the dummy gate electrode; characterized in that the field plate electrode is disposed over the extended-drain region between the channel region and drain region, and that the field plate dielectric has a greater equivalent oxide thickness than the gate dielectric.
A file (100,150,200,250,300,350,400,500,600,700,800) for root canal treatment having a shank (105,155,305,405,505,605,705,805) having a circular cross sectional area, the shank including a lateral surface which contains a plurality of striated grooves (110, 160, 210, 260, 310, 360, 410, 510, 610, 710) with cutting edges which are separated by smooth areas (111, 161, 211, 261, 311, 361, 411, 611, 811) or roughened areas (511, 711), and the shank (1005,1105,1205) including a series of cylindro-conical sections (1010,1011,1012, 1110, 1111,1210,1211,1212) that are inter-spaced with a series of spiral sections (1015,1016, 1115,1116,1117,1215,1216), each cylindro-conical section (1010,1011,1012) respectively including the lateral surface.