mhurhangee/ep-ind-claims huggingface dataset:
A refrigerator, comprising: a machine room; and a mounting structure, comprising: a compressor having a main body and a plurality of ear mounts coupled to the main body; a base on which the compressor is mounted; a plurality of posts extending from the base and configured to be inserted in the ear mounts, respectively; and a plurality of stoppers coupled on the posts for restricting the ear mounts from departing from the posts the ear mounts being disposed between the base and the stoppers in a mounted state of the compressor; wherein the plurality of ear mounts includes a first ear mount having a first hole that has an open circumferential portion for inserting the post into the first hole through the open circumferential portion, characterized in that the main body has a cylindrical shape and is mounted in a state of being laid down, the first ear mount is located at a side of the compressor facing away from an entrance of the machine room, wherein the compressor includes further at least one second ear mount having a second through hole for accommodating another one of the posts, the through hole having a closed circumferential shape. a machine room; and a mounting structure, comprising: a compressor having a main body and a plurality of ear mounts coupled to the main body; a base on which the compressor is mounted; a plurality of posts extending from the base and configured to be inserted in the ear mounts, respectively; and a plurality of stoppers coupled on the posts for restricting the ear mounts from departing from the posts the ear mounts being disposed between the base and the stoppers in a mounted state of the compressor; a compressor having a main body and a plurality of ear mounts coupled to the main body; a base on which the compressor is mounted; a plurality of posts extending from the base and configured to be inserted in the ear mounts, respectively; and a plurality of stoppers coupled on the posts for restricting the ear mounts from departing from the posts the ear mounts being disposed between the base and the stoppers in a mounted state of the compressor; wherein the plurality of ear mounts includes a first ear mount having a first hole that has an open circumferential portion for inserting the post into the first hole through the open circumferential portion, characterized in that the main body has a cylindrical shape and is mounted in a state of being laid down, the first ear mount is located at a side of the compressor facing away from an entrance of the machine room, wherein the compressor includes further at least one second ear mount having a second through hole for accommodating another one of the posts, the through hole having a closed circumferential shape.
A power conversion system comprising: a plurality of power conversion modules connected in parallel, wherein all power conversion modules of said plurality of power conversion modules are configured to receive a pulse-width modulation control signal, each power conversion module of said plurality of power conversion modules characterized in comprising: a current unbalance detection circuit configured to calculate a difference between a reference current and an output current of said power conversion module related to load unbalances; and a processing device communicatively coupled to said current unbalance detection circuit and configured to perform processing using the calculated difference; and in that all power conversion modules of said plurality of power conversion modules are configured to receive the same pulse-width modulation control signal, and in that each power conversion module is configured to selectively contribute to the reference current based on the output current of said power conversion module while said power conversion module provides the output current, wherein the reference current is an average of the output currents for power converter modules of the plurality of power converter modules that contribute to the reference current. a current unbalance detection circuit configured to calculate a difference between a reference current and an output current of said power conversion module related to load unbalances; and a processing device communicatively coupled to said current unbalance detection circuit and configured to perform processing using the calculated difference; and in that all power conversion modules of said plurality of power conversion modules are configured to receive the same pulse-width modulation control signal, and in that each power conversion module is configured to selectively contribute to the reference current based on the output current of said power conversion module while said power conversion module provides the output current, wherein the reference current is an average of the output currents for power converter modules of the plurality of power converter modules that contribute to the reference current.
A system for machine-learning enabled micro-assembly control with the aid of a digital computer, comprising: one or more processors implementing one or more machine learning algorithms, the one or more processors configured to: obtain one or more parameters of a system for positioning a micro-object, the system comprising a plurality of electrodes, each of the electrodes are programmable, the electrodes configured to induce a movement of the micro-object when the micro-object is proximate to the electrodes upon a generation of one or more electric potentials by one or more of the electrodes; model capacitance between the micro-object and each of the electrodes using the parameters; estimate a position of the micro-object with a sensor; receive a further position of the micro-object; define using the capacitance a continuous representation of a dynamic model for movement of the micro-object due to electrode potentials generated by at least some of the electrodes, wherein the dynamic model is subject to constraints expressed as expectations; apply one of the machine learning algorithms to at least a portion of the continuous representation of the dynamic model to perform a stochastic optimization of electrode potentials to be generated by at least some of the electrodes to move the micro-object from the estimated position to the further position, as to maximize a force induced on the micro-object by the at least some electrodes; and use the optimized electrode potentials to actuate at least some of the electrodes to induce the movement of the micro-object from the estimated position to the further position. obtain one or more parameters of a system for positioning a micro-object, the system comprising a plurality of electrodes, each of the electrodes are programmable, the electrodes configured to induce a movement of the micro-object when the micro-object is proximate to the electrodes upon a generation of one or more electric potentials by one or more of the electrodes; model capacitance between the micro-object and each of the electrodes using the parameters; estimate a position of the micro-object with a sensor; receive a further position of the micro-object; define using the capacitance a continuous representation of a dynamic model for movement of the micro-object due to electrode potentials generated by at least some of the electrodes, wherein the dynamic model is subject to constraints expressed as expectations; apply one of the machine learning algorithms to at least a portion of the continuous representation of the dynamic model to perform a stochastic optimization of electrode potentials to be generated by at least some of the electrodes to move the micro-object from the estimated position to the further position, as to maximize a force induced on the micro-object by the at least some electrodes; and use the optimized electrode potentials to actuate at least some of the electrodes to induce the movement of the micro-object from the estimated position to the further position.
A power tool housing assembly including a base housing segment and a cover housing segment generally symmetrical to the base housing segment, wherein each housing segment (22,24) comprises a plurality of assembly bosses defining a respective plurality of apertures accessible from an exterior of the housing assembly and wherein the base housing segment comprises at least one intermediate fastening boss defining an aperture accessible from an interior of the housing assembly; and a field case having at least one cooperating assembly fastening boss configured for attaching the field case to an interior of the base housing segment, characterized in that the field case forms at least a portion of the exterior surface of the housing assembly, wherein the field case, base housing segment, and cover housing segment cooperate to form a housing assembly that includes an end cap and a mid-handle grip integrally connected via a bridge section and having a longitudinal parting line.
A turbomachinery comprising: a radial flow impeller including at least one blade; and a casing for housing the impeller rotatably, wherein a size of a gap between a tip (34, 44) of the blade and an inner surface of the casing during a stop of the impeller is formed non-uniformly over a circumferential direction of the impeller, during the stop of the impeller being a case in which a temperature of each part of the turbomachinery is equal to a temperature around the turbomachinery, characterized in that, during the stop of the impeller, a center axis (AXc) of the casing, which is parallel to a rotational axis (AXw) of the impeller during operation of the turbomachinery, is not parallel to the rotational axis (AXw) of the impeller, during the operation of the turbomachinery being a case in which a temperature of each part of the turbomachinery is equal to a temperature reached when the turbomachinery operates normally. a radial flow impeller including at least one blade; and a casing for housing the impeller rotatably, wherein a size of a gap between a tip (34, 44) of the blade and an inner surface of the casing during a stop of the impeller is formed non-uniformly over a circumferential direction of the impeller, during the stop of the impeller being a case in which a temperature of each part of the turbomachinery is equal to a temperature around the turbomachinery, characterized in that, during the stop of the impeller, a center axis (AXc) of the casing, which is parallel to a rotational axis (AXw) of the impeller during operation of the turbomachinery, is not parallel to the rotational axis (AXw) of the impeller, during the operation of the turbomachinery being a case in which a temperature of each part of the turbomachinery is equal to a temperature reached when the turbomachinery operates normally.
Method for reducing nitrogen oxides in the exhaust gas of an entrained flow treatment system having a treatment chamber in which a material is thermally treated, the thermal energy used for this being provided at least in part by a hot-gas generator and a reducing agent being admixed with the hot gas from the hot-gas generator before the temperature of the hot gas drops to 700°C or less, preferably 850°C or less, characterized in that the reducing agent is admixed before the hot gas is introduced into the treatment chamber and is mixed with the material or a main portion of the material there.
Eccentric screw pump for delivering thick-flowing, highly viscous and/or abrasive media with a longitudinal direction, at least having a conical, helically wound rotor with at least one start, which rotor has a lead (h), has at least one eccentricity (e 1, e 2, e 3,..., e n) and has at least one cross section (d) and is rotatably arranged in a conical stator with one or more starts, - in which a plurality of at least three chambers (3, 4, 5,..., n), each with a volume (V 3, V 4, V 5,..., V n), is formed between the rotor and the stator, which chambers serve for delivering the medium, - in which the chambers (3, 4, 5,..., n) between the stator and the rotor are bound by a sealing line, and the volumes (V 3, V 4, V 5,..., V n) of each individual chamber (3, 4, 5,..., n) between the stator and the rotor are of equal size, characterized in that, in the longitudinal direction, the eccentricity (e 1, e 2, e 3,..., e n) of the rotor increases and the cross section (d) of the rotor decreases, and in that the eccentric screw pump, in the event of any signs of wear, is able to be adjusted by longitudinal displacement of the rotor in relation to the stator, so that the chamber volume can be kept identical. - in which a plurality of at least three chambers (3, 4, 5,..., n), each with a volume (V 3, V 4, V 5,..., V n), is formed between the rotor and the stator, which chambers serve for delivering the medium, - in which the chambers (3, 4, 5,..., n) between the stator and the rotor are bound by a sealing line, and the volumes (V 3, V 4, V 5,..., V n) of each individual chamber (3, 4, 5,..., n) between the stator and the rotor are of equal size,
A computer-implemented method comprising: searching a device tree of a computing device to identify any devices of interest (106, 110) coupled either to a root hub of the computing device or to an external hub coupled to said root hub; and for each identified device of interest (106, 110): identifying a path within the computing device of the device of interest (106, 110); classifying (208, 304), based on the identified path, a relative location of the device of interest (106,110); and storing(210, 306) the classification of the device of interest (106, 110) in a memory device of the computing device, wherein the stored classification of the device of interest is stored as configuration data for at least one process executed by the computing device, wherein the stored configuration data informs the at least one process in view of at least one other configuration setting, to enable or disable certain functions of the device of interest (106, 110), and wherein said certain functions allow to intercept or ignore certain datatypes input via the device of interest (106, 110). searching a device tree of a computing device to identify any devices of interest (106, 110) coupled either to a root hub of the computing device or to an external hub coupled to said root hub; and for each identified device of interest (106, 110): identifying a path within the computing device of the device of interest (106, 110); classifying (208, 304), based on the identified path, a relative location of the device of interest (106,110); and storing(210, 306) the classification of the device of interest (106, 110) in a memory device of the computing device, wherein the stored classification of the device of interest is stored as configuration data for at least one process executed by the computing device, wherein the stored configuration data informs the at least one process in view of at least one other configuration setting, to enable or disable certain functions of the device of interest (106, 110), and wherein said certain functions allow to intercept or ignore certain datatypes input via the device of interest (106, 110). identifying a path within the computing device of the device of interest (106, 110); classifying (208, 304), based on the identified path, a relative location of the device of interest (106,110); and storing(210, 306) the classification of the device of interest (106, 110) in a memory device of the computing device, wherein the stored classification of the device of interest is stored as configuration data for at least one process executed by the computing device, wherein the stored configuration data informs the at least one process in view of at least one other configuration setting, to enable or disable certain functions of the device of interest (106, 110), and wherein said certain functions allow to intercept or ignore certain datatypes input via the device of interest (106, 110).
An onshore wind turbine, comprising: a nacelle; a tower having a base end configured for support on a ground level foundation, said nacelle mounted atop said tower; a tower support system, said tower support system further comprising: an axially extending circumferential sleeve mounted around said tower at a location between said base end and said nacelle; a plurality of support legs having a first end rigidly affixed to said sleeve and an opposite foot end configured for mounting to a ground level footing; said support legs extending from said sleeve with a length and at an acute extension angle relative to a longitudinal axis of said tower so as to provide vertical and lateral support around the circumference of said tower; and characterized in that said tower is a tubular member and has a substantially constant diameter from said sleeve to said base end. a nacelle; a tower having a base end configured for support on a ground level foundation, said nacelle mounted atop said tower; a tower support system, said tower support system further comprising: an axially extending circumferential sleeve mounted around said tower at a location between said base end and said nacelle; a plurality of support legs having a first end rigidly affixed to said sleeve and an opposite foot end configured for mounting to a ground level footing; said support legs extending from said sleeve with a length and at an acute extension angle relative to a longitudinal axis of said tower so as to provide vertical and lateral support around the circumference of said tower; and characterized in that said tower is a tubular member and has a substantially constant diameter from said sleeve to said base end. an axially extending circumferential sleeve mounted around said tower at a location between said base end and said nacelle; a plurality of support legs having a first end rigidly affixed to said sleeve and an opposite foot end configured for mounting to a ground level footing; said support legs extending from said sleeve with a length and at an acute extension angle relative to a longitudinal axis of said tower so as to provide vertical and lateral support around the circumference of said tower; and characterized in that said tower is a tubular member and has a substantially constant diameter from said sleeve to said base end.
An optical coherence tomography system comprising: a diode laser for providing a beam of radiation, said diode laser having a first spectral output bandwidth when driven under constant current and temperature_conditions; a driver circuit to apply a pulse of drive current to the diode laser, said pulse having a current that varies in time causing a variation in the output wavelength of the diode laser during the pulse to produce a second_spectral output bandwidth that_is at least two times larger than the first_spectral output bandwidth and wherein the width of each pulse is between 100 microseconds and 10 milliseconds; optics to illuminate a region of a sample with the beam of radiation produced by the pulse of drive current; a detector to measure the interference of the beam returning from the sample and a reference beam; and a processor to convert the measured interference into depth information of the sample. a diode laser for providing a beam of radiation, said diode laser having a first spectral output bandwidth when driven under constant current and temperature_conditions; a driver circuit to apply a pulse of drive current to the diode laser, said pulse having a current that varies in time causing a variation in the output wavelength of the diode laser during the pulse to produce a second_spectral output bandwidth that_is at least two times larger than the first_spectral output bandwidth and wherein the width of each pulse is between 100 microseconds and 10 milliseconds; optics to illuminate a region of a sample with the beam of radiation produced by the pulse of drive current; a detector to measure the interference of the beam returning from the sample and a reference beam; and a processor to convert the measured interference into depth information of the sample.
A biodegradable resin composition comprising a PLA resin, a thermal initiator, and a cross linking monomer, which is modified through a thermally initiated crosslinking reaction, wherein the biodegradable resin composition further comprises a nonphthalate plasticizer, the nonphthalate plasticizer comprises benzoic acid derivatives, and the cross linking monomer is methacrylate monomer.
Portable power tool, in particular electrically operated portable power tool, having a drive unit which is arranged in a housing and is in drive connection with a tool, wherein the housing has two separate housing parts (3, 4), between which a primary damping element that holds the housing parts (3, 4) together is arranged, and a securing part which connects the two housing parts (3, 4) in a bridging manner and has a damping function is provided, characterized in that, in the event of the primary damping element failing and in the event of a deformation of the primary damping element that exceeds a defined amount and the associated change in relative position between the housing parts (3, 4), the damping between the housing parts (3, 4) is carried out via a secondary damping element which interacts with the securing part, wherein the securing part is connected fixedly to one housing part and loosely, via the secondary damping element, to the other housing part, such that in regular operation of the primary damping element the secondary damping element is at least approximately free of force.
A monoclonal antibody for use in a method of increasing at least one of bone formation, bone mineral density, bone mineral content, bone mass, bone quality and bone strength in a mammal and thereby treating a condition in which an increase in at least one of bone formation, bone mineral density, bone mineral content, bone mass, bone quality and bone strength is desirable, wherein the monoclonal antibody (a) binds to human sclerostin with a binding affinity of less than or equal to 1 x 10 -10 M and (b) cross-blocks the binding of antibody Ab-13 or Ab-14 to sclerostin and/or is cross-blocked from binding to sclerostin by antibody Ab-13 or Ab-14, wherein antibody Ab-13 has light chains of SEQ ID NO: 205 and heavy chains of SEQ ID NO: 209 and antibody Ab-14 has light chains of SEQ ID NO: 213 and heavy chains of SEQ ID NO: 217 or 393.
A sampling device, comprising: a gas guide chamber having a cylindrical inner wall; and an end cap configured to seal a first end of the sampling device and having a sample inlet for suction of a sample, wherein the sampling device further comprises a gas curtain guide disposed near the sample inlet at the first end of the sampling device and engaged with the gas guide chamber, the gas curtain guide being provided with a gas inflation inlet for blowing gas into the sampling device so as to generate a tornado type gas flow in interior spaces of the gas curtain guide and the gas guide chamber; characterized in that the gas curtain guide has a truncated conical shaped inner wall and the sample inlet of the sampling device is located adjacent to a smaller-diameter round end of the truncated conical shaped inner wall and far away from a larger-diameter round end of the truncated conical shaped inner wall. a gas guide chamber having a cylindrical inner wall; and an end cap configured to seal a first end of the sampling device and having a sample inlet for suction of a sample, wherein the sampling device further comprises a gas curtain guide disposed near the sample inlet at the first end of the sampling device and engaged with the gas guide chamber, the gas curtain guide being provided with a gas inflation inlet for blowing gas into the sampling device so as to generate a tornado type gas flow in interior spaces of the gas curtain guide and the gas guide chamber; characterized in that the gas curtain guide has a truncated conical shaped inner wall and the sample inlet of the sampling device is located adjacent to a smaller-diameter round end of the truncated conical shaped inner wall and far away from a larger-diameter round end of the truncated conical shaped inner wall.