mhurhangee/ep-ind-claims huggingface dataset:
An inductive heating cooker, comprising: a main body (100, 101); and a power-receiver device (200, 201, 202, 203), the main body (100, 101) including a top plate on which a heating target is placed, a heating coil provided under the top plate and configured to inductively heat the heating target, a drive circuit configured to supply electric power to the heating coil, a power transmission coil configured to transmit the electric power by magnetic resonance, and a power transmission circuit configured to supply the electric power to the power transmission coil, the power-receiver device (200, 201, 202, 203) including a power reception coil configured to receive the electric power from the power transmission coil by the magnetic resonance, and a load circuit (40, 41, 43, 90, 90b, 91, 92) configured to operate by the electric power received by the power reception coil, the power transmission coil being provided to surround the heating coil in a plan view, characterized in that the power transmission coil is provided under the top plate and along an edge of the top plate. a main body (100, 101); and a power-receiver device (200, 201, 202, 203), the main body (100, 101) including a top plate on which a heating target is placed, a heating coil provided under the top plate and configured to inductively heat the heating target, a drive circuit configured to supply electric power to the heating coil, a power transmission coil configured to transmit the electric power by magnetic resonance, and a power transmission circuit configured to supply the electric power to the power transmission coil, the power-receiver device (200, 201, 202, 203) including a power reception coil configured to receive the electric power from the power transmission coil by the magnetic resonance, and a load circuit (40, 41, 43, 90, 90b, 91, 92) configured to operate by the electric power received by the power reception coil, the power transmission coil being provided to surround the heating coil in a plan view, characterized in that the power transmission coil is provided under the top plate and along an edge of the top plate.
A compactor device for waste collection, comprising: a containment structure having an introducing mouth above; a loading tank arranged to close the introducing mouth and movable between a receiving position in which it exhibits a concavity facing externally to the containment structure to receive at least one waste, and a closure position in which said concavity faces internally to the containment structure; a transfer chute having an upper portion arranged to receive the waste from the loading tank and a lower portion disposed above a fall compartment; a presser movable towards the lower portion of the transfer chute; an actuation lever protruding externally to the containment structure; a control mechanism mechanically connected to the actuation lever to determine, upon translation of the actuation lever from a release position to an actuating position, a movement of the loading tank from the closure position to the receiving position to allow introduction of said waste into the loading tank, and a movement of the presser toward the transfer chute so as to cause a crushing of the waste previously transferred from the loading tank to the transfer chute, characterized in that the lower portion of said transfer chute comprises a partition that is movable with respect to the upper portion between a first position in which it cooperates with the presser for compressing the waste, and a second position in which it is placed away from the presser to release fall of the waste into the fall compartment. a containment structure having an introducing mouth above; a loading tank arranged to close the introducing mouth and movable between a receiving position in which it exhibits a concavity facing externally to the containment structure to receive at least one waste, and a closure position in which said concavity faces internally to the containment structure; a transfer chute having an upper portion arranged to receive the waste from the loading tank and a lower portion disposed above a fall compartment; a presser movable towards the lower portion of the transfer chute; an actuation lever protruding externally to the containment structure; a control mechanism mechanically connected to the actuation lever to determine, upon translation of the actuation lever from a release position to an actuating position, a movement of the loading tank from the closure position to the receiving position to allow introduction of said waste into the loading tank, and a movement of the presser toward the transfer chute so as to cause a crushing of the waste previously transferred from the loading tank to the transfer chute, characterized in that the lower portion of said transfer chute comprises a partition that is movable with respect to the upper portion between a first position in which it cooperates with the presser for compressing the waste, and a second position in which it is placed away from the presser to release fall of the waste into the fall compartment.
A system to allow a user of a client device to access a plurality of placeshifting devices (104A-C) via a network, wherein each of the plurality of placeshifting devices (104A-C) is a remotely-located user-operated device operated by another operator, the system comprising: a processor coupled with the network via an interface, wherein the processor is configured to maintain a list of available placeshifting devices (104A-C) that are available to share associated content (131A-C) via the network, to identify an available placeshifting device operated by another operator (104A-C) having access to content (131A-C) selected by the user of the client device, and that is otherwise idle and; to establish a placeshifting connection over the network in which the client device controls the identified available placeshifting device (104A-C) to thereby obtain the content (131A-C) selected by the user; and wherein the identified available placeshifting device (104A-C) is not available for use by an operator of the identified available placeshifting device while the placeshifting connection is active. a processor coupled with the network via an interface, wherein the processor is configured to maintain a list of available placeshifting devices (104A-C) that are available to share associated content (131A-C) via the network, to identify an available placeshifting device operated by another operator (104A-C) having access to content (131A-C) selected by the user of the client device, and that is otherwise idle and; to establish a placeshifting connection over the network in which the client device controls the identified available placeshifting device (104A-C) to thereby obtain the content (131A-C) selected by the user; and wherein the identified available placeshifting device (104A-C) is not available for use by an operator of the identified available placeshifting device while the placeshifting connection is active.
A cooling device for cooling a laser diode, comprising - a base body with an outer side and at least one integrated cooling channel, in particular a microcooling channel, - a bonding surface on the outer side of the base body for connecting the electrical components to the base body and - a first stabilizing layer, wherein the first stabilizing layer and the bonding surface are arranged on top of one another along a primary direction, and wherein the first stabilizing layer is offset from the bonding surface by a distance along a direction parallel to the primary direction into an interior of the base body. - a base body with an outer side and at least one integrated cooling channel, in particular a microcooling channel, - a bonding surface on the outer side of the base body for connecting the electrical components to the base body and - a first stabilizing layer, wherein the first stabilizing layer and the bonding surface are arranged on top of one another along a primary direction, and wherein the first stabilizing layer is offset from the bonding surface by a distance along a direction parallel to the primary direction into an interior of the base body.
Battery having a housing, in which at least one battery cell and a device for the drying of air located in the housing inner space are arranged, characterized in that the battery has a molded body made from a porous, moisture-absorbing material, which molded body is mounted in such a way that it extends both into the housing inner space and into the space outside the housing and connects these to one another in a moisture-conducting manner, that part of the molded body which is located in the housing inner space being connected to the device for drying the air located in the housing inner space, in such a way that collected water can be transferred from the device for air drying to the molded body.
An electronically controlled throttle device comprising: a pair of throttle bodies (2, 3) that are disposed adjacent to each other and in each of which an intake passage corresponding to each cylinder of an engine is defined; spigots that are respectively formed in engine-side end parts of the intake passages of the throttle bodies, axis lines of which are formed to have eccentricity in a direction away from each other with axis lines of the intake passages being as references, and to each of which one end of a joint member extending from the corresponding cylinder of the engine is fitted; a throttle shaft rotatably supported in the throttle bodies and supporting throttle valves respectively disposed in the intake passages; and a gear unit that is disposed between the throttle bodies to be connected to the throttle shaft, drives and rotates the throttle shaft with driving force from a motor via a built-in gear train to be capable of synchronously opening and closing the throttle valves, and a part of which is positioned between the spigots of the throttle bodies. a pair of throttle bodies (2, 3) that are disposed adjacent to each other and in each of which an intake passage corresponding to each cylinder of an engine is defined; spigots that are respectively formed in engine-side end parts of the intake passages of the throttle bodies, axis lines of which are formed to have eccentricity in a direction away from each other with axis lines of the intake passages being as references, and to each of which one end of a joint member extending from the corresponding cylinder of the engine is fitted; a throttle shaft rotatably supported in the throttle bodies and supporting throttle valves respectively disposed in the intake passages; and a gear unit that is disposed between the throttle bodies to be connected to the throttle shaft, drives and rotates the throttle shaft with driving force from a motor via a built-in gear train to be capable of synchronously opening and closing the throttle valves, and a part of which is positioned between the spigots of the throttle bodies.
A method for collecting mill scale from a hot rolling mill, the hot rolling mill comprising: a reheat furnace for reheating a steel slab; at least one stand (12, 14, 16, 18) for processing the steel slab downstream of the reheat furnace; a flume (30, 32, 34, 36) connected to the at least one stand (12, 14, 16, 18) transporting mill scale particles and wastewater, wherein the wastewater is turbulent in the flume (30, 32, 34, 36); and a separator (40, 42) in the flume (30, 32, 34, 36) for separating mill scale particles from the wastewater, the separator (40, 42) being a grit separator; the hot rolling mill further comprising a pit (22, 24, 26, 28) downstream of the flume (30, 32, 34, 36), the separator being located upstream of the pit, the method comprising the steps of: transporting mill scale particles in wastewater; retrieving the wastewater from the flume (30, 32, 34, 36) of the hot rolling mill; and separating the mill scale particles from the wastewater using the separator (40, 42) in the flume (30, 32, 34, 36). a reheat furnace for reheating a steel slab; at least one stand (12, 14, 16, 18) for processing the steel slab downstream of the reheat furnace; a flume (30, 32, 34, 36) connected to the at least one stand (12, 14, 16, 18) transporting mill scale particles and wastewater, wherein the wastewater is turbulent in the flume (30, 32, 34, 36); and a separator (40, 42) in the flume (30, 32, 34, 36) for separating mill scale particles from the wastewater, the separator (40, 42) being a grit separator; the hot rolling mill further comprising a pit (22, 24, 26, 28) downstream of the flume (30, 32, 34, 36), the separator being located upstream of the pit, transporting mill scale particles in wastewater; retrieving the wastewater from the flume (30, 32, 34, 36) of the hot rolling mill; and separating the mill scale particles from the wastewater using the separator (40, 42) in the flume (30, 32, 34, 36).
A method for monitoring beta cell death, comprising: extracting and purifying DNA from a body fluid of an animal; treating the extracted purified DNA with bisulfite to convert demethylated cytosine to uracil while sparing the methylated cytosines; amplifying the bisulfite-treated DNA using polymerase chain reaction; purifying the amplified bisulfite-treated DNA; characterized in that the method further comprises performing a methylation sensitive probe hybridization reaction on the purified bisulfite-treated DNA using at least two different methylation specific probes comprising (a) a probe for detection of methylated insulin DNA of non- β cell origin selected from the group consisting of at least one of ACCTCCCGACGAATCT SEQ ID NO: 003 and TACCTCTCGTCGAATCT SEQ ID NO: 004; and (b) a probe for detection of demethylated insulin DNA of β cell origin selected from the group consisting of at least one of: ACCTCCCAACAAATCT SEQ ID NO: 005 and TACCTCCCATCAAATCT SEQ ID NO: 006; and computing a quantitative relationship between methylated insulin DNA and demethylated insulin DNA. extracting and purifying DNA from a body fluid of an animal; treating the extracted purified DNA with bisulfite to convert demethylated cytosine to uracil while sparing the methylated cytosines; amplifying the bisulfite-treated DNA using polymerase chain reaction; purifying the amplified bisulfite-treated DNA; characterized in that the method further comprises performing a methylation sensitive probe hybridization reaction on the purified bisulfite-treated DNA using at least two different methylation specific probes comprising (a) a probe for detection of methylated insulin DNA of non- β cell origin selected from the group consisting of at least one of ACCTCCCGACGAATCT SEQ ID NO: 003 and TACCTCTCGTCGAATCT SEQ ID NO: 004; and (b) a probe for detection of demethylated insulin DNA of β cell origin selected from the group consisting of at least one of: ACCTCCCAACAAATCT SEQ ID NO: 005 and TACCTCCCATCAAATCT SEQ ID NO: 006; and computing a quantitative relationship between methylated insulin DNA and demethylated insulin DNA. (a) a probe for detection of methylated insulin DNA of non- β cell origin selected from the group consisting of at least one of ACCTCCCGACGAATCT SEQ ID NO: 003 and TACCTCTCGTCGAATCT SEQ ID NO: 004; and ACCTCCCGACGAATCT SEQ ID NO: 003 and TACCTCTCGTCGAATCT SEQ ID NO: 004; and (b) a probe for detection of demethylated insulin DNA of β cell origin selected from the group consisting of at least one of: ACCTCCCAACAAATCT SEQ ID NO: 005 and TACCTCCCATCAAATCT SEQ ID NO: 006; and ACCTCCCAACAAATCT SEQ ID NO: 005 and TACCTCCCATCAAATCT SEQ ID NO: 006; and
Device for the preparation of heated milk or milk foam in a fully automatic coffee machine, wherein said device comprises a dispensing facility (3; 3') for the milk or the milk foam and can be fluidically connected to a milk container via a milk line (7; 10), characterised by at least one supply line for vapour, and at least one return line parallel thereto in the milk line and by a facility at the end thereof facing away from the coffee machine for suction of milk by vapour by utilising the Venturi effect.
A pharmaceutical composition containing a thiamine derivative represented by chemical formula 1 below or a pharmaceutically acceptable salt thereof for use in 5 preventing or treating vascular calcification or valve calcification: wherein, R 1 is selected from the group consisting of and and R 2 is selected from the group consisting of, and R 1 is selected from the group consisting of and and R 2 is selected from the group consisting of, and
A method for wireless communications, comprising: receiving user equipment measurement reports, wherein each measurement report includes a signal strength of a serving cell, Ms, and a signal strength of a neighboring cell, Mn; generating performance measurements based on the UE measurement reports, wherein the performance measurements indicate handover failures relating to handovers between cells that occur too early, and handovers that occur too late, where early and late is defined by analyzing values of Ms and Mn in the measurement reports and comparing to thresholds; and dynamically adjusting at least a time-to-trigger parameter from a set of handover parameters, to mitigate handover failures relating to handovers between cells that occur too early and handovers between cells that occur too late. receiving user equipment measurement reports, wherein each measurement report includes a signal strength of a serving cell, Ms, and a signal strength of a neighboring cell, Mn; generating performance measurements based on the UE measurement reports, wherein the performance measurements indicate handover failures relating to handovers between cells that occur too early, and handovers that occur too late, where early and late is defined by analyzing values of Ms and Mn in the measurement reports and comparing to thresholds; and dynamically adjusting at least a time-to-trigger parameter from a set of handover parameters, to mitigate handover failures relating to handovers between cells that occur too early and handovers between cells that occur too late.
A data processing method performed by an electric apparatus comprising an audio coder or an audio decoder used to implement a time-domain to frequency-domain type 4-Discrete Cosine Transform, DCT-IV, the method comprising: • twiddling input data, so as to obtain twiddled data; • pre-rotating the twiddled data by using a symmetric rotate factor, wherein the rotate factor is a ⋅ W 4 L 2 p + 1, wherein a is a constant, p = 0,..., 2 L − 1, and W 4 L 2 p + 1 = cos 2 π 2 p + 1 4 L − j sin 2 π 2 p + 1 4 L; • performing a Fast Fourier Transform, FFT, of L /2 points on the pre-rotated data, wherein L is the length of the input data; • post-rotating the data that has undergone the FFT transform by using a symmetric rotate factor, wherein the rotate factor is b ⋅ W 4 L 2 q + 1, wherein b is a constant, q = 0,..., L 2 − 1, and W 4 L 2 q + 1 = cos 2 π 2 q + 1 4 L − j sin 2 π 2 q + 1 4 L; • obtaining output data; wherein the method further comprises: • performing fixed rotate compensation once or more times by using one or more fixed rotate compensation factors, respectively, the said one or the product of said more fixed compensation factors is W 8 L − 3 or an approximate value thereof, wherein at least one of the one or more fixed rotate compensation factors of the one or more time fixed rotate compensation is a Taylor series expansion. • twiddling input data, so as to obtain twiddled data; • pre-rotating the twiddled data by using a symmetric rotate factor, wherein the rotate factor is a ⋅ W 4 L 2 p + 1, wherein a is a constant, p = 0,..., 2 L − 1, and W 4 L 2 p + 1 = cos 2 π 2 p + 1 4 L − j sin 2 π 2 p + 1 4 L; • performing a Fast Fourier Transform, FFT, of L /2 points on the pre-rotated data, wherein L is the length of the input data; • post-rotating the data that has undergone the FFT transform by using a symmetric rotate factor, wherein the rotate factor is b ⋅ W 4 L 2 q + 1, wherein b is a constant, q = 0,..., L 2 − 1, and W 4 L 2 q + 1 = cos 2 π 2 q + 1 4 L − j sin 2 π 2 q + 1 4 L; • obtaining output data; • performing fixed rotate compensation once or more times by using one or more fixed rotate compensation factors, respectively, the said one or the product of said more fixed compensation factors is W 8 L − 3 or an approximate value thereof,
A magnetometer system comprising: a sensor cell comprising alkali metal vapor; a laser system (252,254) configured to provide an optical pump beam through the sensor cell in a pulsed manner based on a timing signal to facilitate precession of the alkali metal vapor in response to an external magnetic field and to provide an optical probe beam through the sensor cell in a pulsed manner based on the timing signal, the optical pump beam is circularly-polarized, the optical probe beam is linearly-polarized; and a detection system (268, 286, 270) configured to detect the precession of the alkali metal vapor in response to a detection beam corresponding to the optical probe beam exiting the sensor cell, to calculate an amplitude and direction of the external magnetic field based on the detected precession of the alkali metal vapor, and to generate the timing signal based on the detected precession of the alkali metal vapor. a sensor cell comprising alkali metal vapor; a laser system (252,254) configured to provide an optical pump beam through the sensor cell in a pulsed manner based on a timing signal to facilitate precession of the alkali metal vapor in response to an external magnetic field and to provide an optical probe beam through the sensor cell in a pulsed manner based on the timing signal, the optical pump beam is circularly-polarized, the optical probe beam is linearly-polarized; and a detection system (268, 286, 270) configured to detect the precession of the alkali metal vapor in response to a detection beam corresponding to the optical probe beam exiting the sensor cell, to calculate an amplitude and direction of the external magnetic field based on the detected precession of the alkali metal vapor, and to generate the timing signal based on the detected precession of the alkali metal vapor.
An electric motor comprising: a stator assembly; a rotor assembly comprising a permanent magnet; and a support body for the stator assembly, wherein the support body is substantially cylindrical in form; the stator assembly comprising a plurality of stator elements, and the rotor assembly comprising a shaft to which is mounted at least a first and a second bearing (31, 32) mounted either side of the permanent magnet, wherein the support body comprises an elongate central part, and first and second bearing seats (22, 23) positioned axially at opposite ends of the elongated central part to each other, and wherein the elongate central part defines a plurality of openings each configured to receive one of the plurality of stator elements, each of the plurality of openings comprises a slot in a side wall of the support body which extend axially along the elongate central part from the first bearing seat to the second bearing seat, wherein an outer diameter of at least one of the bearing seats (22,23) of the support body provides a mounting point for a further component of the electric motor, and the further component is one of a shroud for an impeller, and a winding termination block. a stator assembly; a rotor assembly comprising a permanent magnet; and a support body for the stator assembly, wherein the support body is substantially cylindrical in form;