mhurhangee/patent-ind-claim-en huggingface dataset:
An electromechanical flywheel (800; 900C; 900D) comprising: a motor-generator including a rotor encircling a stator ; one or more stator field coils encircling an axis of rotation of the rotor; one or more stator armature coils encircling an axis that is perpendicular to the axis of rotation of the rotor; and a housing enclosing the motor-generator stator and rotor; the stator suspended by a fluid cooled stator support (811; 927) that hangs from the housing; characterized in that : the stator support is hollow and the stator support is operative to transfer heat from the stator and to heat a fluid coolant in the stator hollow; and in further comprising: a plurality of heat rods (808; 970), each heat rod having a heat absorbing section and a heat rejecting section , the heat absorbing section of each heat rod inserted in a respective stator slot (872; 976) and the heat rejecting section of each heat rod thermally coupled to the fluid cooled stator support; and plural power electronics modules that exchange electrical power with the stator, each electric power module comprising power semiconductors and a cooling plate , wherein electric power loads are distributed among the electric power modules such that a power electronics cooling load is distributed. a motor-generator including a rotor encircling a stator ; one or more stator field coils encircling an axis of rotation of the rotor; one or more stator armature coils encircling an axis that is perpendicular to the axis of rotation of the rotor; and a housing enclosing the motor-generator stator and rotor; the stator suspended by a fluid cooled stator support (811; 927) that hangs from the housing; characterized in that : the stator support is hollow and the stator support is operative to transfer heat from the stator and to heat a fluid coolant in the stator hollow; and in further comprising: a plurality of heat rods (808; 970), each heat rod having a heat absorbing section and a heat rejecting section , the heat absorbing section of each heat rod inserted in a respective stator slot (872; 976) and the heat rejecting section of each heat rod thermally coupled to the fluid cooled stator support; and plural power electronics modules that exchange electrical power with the stator, each electric power module comprising power semiconductors and a cooling plate , wherein electric power loads are distributed among the electric power modules such that a power electronics cooling load is distributed. a plurality of heat rods (808; 970), each heat rod having a heat absorbing section and a heat rejecting section , the heat absorbing section of each heat rod inserted in a respective stator slot (872; 976) and the heat rejecting section of each heat rod thermally coupled to the fluid cooled stator support; and plural power electronics modules that exchange electrical power with the stator, each electric power module comprising power semiconductors and a cooling plate , wherein electric power loads are distributed among the electric power modules such that a power electronics cooling load is distributed.
A transmission device for a winding train of a watch movement , comprising: - an input element intended to be driven only in a first direction, - an output element , - a first mechanical connection arranged such that the displacement of the input element in a first direction causes the displacement of the output element in a second direction, and - a second mechanical connection arranged such that the displacement of the input element in the first direction causes the displacement of the output element in a third direction, the third direction being opposite the second direction. - an input element intended to be driven only in a first direction, - an output element , - a first mechanical connection arranged such that the displacement of the input element in a first direction causes the displacement of the output element in a second direction, and - a second mechanical connection arranged such that the displacement of the input element in the first direction causes the displacement of the output element in a third direction, the third direction being opposite the second direction.
An orthopedic device , comprising: - first and second frame assemblies each comprising segments along a continuous length (L1, L2), respectively, defined between first and second endpoints, the first and second frame assemblies being coupled by at least one hinge , - at least one of the first and second frame assemblies including a first component made from a metal material, the first component defining first and second sides and a concave cross-section , the first side of the first component defining flanged edge portions , the concave cross-section including a concave portion extending continuously between the flanged edge portions and protruding outwardly relative to the flanged edge portions to form a three-dimensional shape, a thickness (T1) separating the first and second sides being generally uniform along the length of the first component ; and - a second component connected to the first component formed from a non-metallic material, wherein the second component extends at least along the concave portion between the flanged edge portions . - first and second frame assemblies each comprising segments along a continuous length (L1, L2), respectively, defined between first and second endpoints, the first and second frame assemblies being coupled by at least one hinge , - at least one of the first and second frame assemblies including a first component made from a metal material, the first component defining first and second sides and a concave cross-section , the first side of the first component defining flanged edge portions , the concave cross-section including a concave portion extending continuously between the flanged edge portions and protruding outwardly relative to the flanged edge portions to form a three-dimensional shape, a thickness (T1) separating the first and second sides being generally uniform along the length of the first component ; and - a second component connected to the first component formed from a non-metallic material, wherein the second component extends at least along the concave portion between the flanged edge portions .
An ultrasonic endoscope comprising: a laminated body that comprises an ultrasonic transducer array in which a plurality of ultrasonic transducers are arranged, and a backing material layer that supports the plurality of ultrasonic transducers; a cable portion that comprises a plurality of cables each of which is electrically connected to a corresponding one of the plurality of ultrasonic transducers, and a shield member that covers the plurality of cables from outside and that is made of a metal; and a first heat conductive member that is disposed on a side surface of the laminated body , wherein the first heat conductive member is extended to the shield member that is grounded to a housing and is thermally connected to the shield member; a first insulation tube that covers the cable portion; an electroconductive connection pipe that covers a part of the first insulation tube on a proximal end side of the ultrasonic endoscope; a second insulation tube that is connected to one end of the connection pipe on the proximal end side and that covers a part of the connection pipe and a part of the first insulation tube on the proximal end side of the ultrasonic endoscope; and a second heat conductive member that is disposed in contact with both of the first insulation tube and the connection pipe. a laminated body that comprises an ultrasonic transducer array in which a plurality of ultrasonic transducers are arranged, and a backing material layer that supports the plurality of ultrasonic transducers; an ultrasonic transducer array in which a plurality of ultrasonic transducers are arranged, and a backing material layer that supports the plurality of ultrasonic transducers; a cable portion that comprises a plurality of cables each of which is electrically connected to a corresponding one of the plurality of ultrasonic transducers, and a shield member that covers the plurality of cables from outside and that is made of a metal; and a plurality of cables each of which is electrically connected to a corresponding one of the plurality of ultrasonic transducers, and a shield member that covers the plurality of cables from outside and that is made of a metal; and a first heat conductive member that is disposed on a side surface of the laminated body , wherein the first heat conductive member is extended to the shield member that is grounded to a housing and is thermally connected to the shield member; a first insulation tube that covers the cable portion; an electroconductive connection pipe that covers a part of the first insulation tube on a proximal end side of the ultrasonic endoscope; a second insulation tube that is connected to one end of the connection pipe on the proximal end side and that covers a part of the connection pipe and a part of the first insulation tube on the proximal end side of the ultrasonic endoscope; and a second heat conductive member that is disposed in contact with both of the first insulation tube and the connection pipe.
A method of diagnosing faults in a monitored system, the monitored system being monitored by sensors, comprising: constructing an empirical model for a targeted component of the monitored system, wherein the empirical model is trained with an historical data source that contains example observations of the sensors; generating substantially real-time estimates based on instrumented data corresponding to the targeted component; comparing and differencing the substantially real-time estimates with instrumented readings from the sensors to provide residual values; and analyzing the residual values to detect the faults and determine a location of the faults in the monitored system; characterized by the following steps: the empirical model implements an adaptation algorithm to learn new normal variation patterns in operation of the monitored system, the adaptation algorithm comprising eliminating data from time periods just prior to known faults. constructing an empirical model for a targeted component of the monitored system, wherein the empirical model is trained with an historical data source that contains example observations of the sensors; generating substantially real-time estimates based on instrumented data corresponding to the targeted component; comparing and differencing the substantially real-time estimates with instrumented readings from the sensors to provide residual values; and analyzing the residual values to detect the faults and determine a location of the faults in the monitored system; characterized by the following steps: the empirical model implements an adaptation algorithm to learn new normal variation patterns in operation of the monitored system, the adaptation algorithm comprising eliminating data from time periods just prior to known faults.
A method for wireless communications at a first wireless device, comprising: selecting a set of wireless devices as communication candidates based at least in part on a first mode for the first wireless device, wherein the set of wireless devices comprises at least two wireless devices with an angular separation with reference to the first wireless device that is less than an angular separation threshold associated with the first mode; reporting , to a network entity, a candidate list comprising the set of wireless devices; receiving , from the network entity, a subset of the set of wireless devices based at least in part on the candidate list; and communicating with the subset of the set of wireless devices using one or more communication beams, wherein the communicating comprises communicating with the at least two wireless devices using a single communication beam of the one or more communication beams based at least in part on the angular separation being less than the angular separation threshold. selecting a set of wireless devices as communication candidates based at least in part on a first mode for the first wireless device, wherein the set of wireless devices comprises at least two wireless devices with an angular separation with reference to the first wireless device that is less than an angular separation threshold associated with the first mode; reporting , to a network entity, a candidate list comprising the set of wireless devices; receiving , from the network entity, a subset of the set of wireless devices based at least in part on the candidate list; and communicating with the subset of the set of wireless devices using one or more communication beams, wherein the communicating comprises communicating with the at least two wireless devices using a single communication beam of the one or more communication beams based at least in part on the angular separation being less than the angular separation threshold.
A method of controlling operation of a group comprising a cigarette maker, a cigarette packing machine and a buffer, wherein, with respect to a conveying direction, the cigarette maker is upstream of the buffer and the cigarette packing machine is downstream of the buffer, the group being configured such that operation of the cigarette maker and of the cigarette packing machine depends on a filling level of the buffer; the method comprising: setting at least one operating parameter of the group at a starting value, the parameter correlating an operation state of the cigarette maker or the cigarette packing machine with the filling level of the buffer; operating the group for a predetermined first cycle time based on the at least one operating parameter; determining an operating efficiency of the cigarette maker over the first cycle time; determining an operating efficiency of the cigarette packing machine over the first cycle time; determining a group comparative efficiency as the ratio between the operating efficiency of the cigarette maker and the operating efficiency of the cigarette packing machine; and at the end of the first cycle time, resetting the at least one operating parameter at an updated value depending on the group comparative efficiency. setting at least one operating parameter of the group at a starting value, the parameter correlating an operation state of the cigarette maker or the cigarette packing machine with the filling level of the buffer; operating the group for a predetermined first cycle time based on the at least one operating parameter; determining an operating efficiency of the cigarette maker over the first cycle time; determining an operating efficiency of the cigarette packing machine over the first cycle time; determining a group comparative efficiency as the ratio between the operating efficiency of the cigarette maker and the operating efficiency of the cigarette packing machine; and at the end of the first cycle time, resetting the at least one operating parameter at an updated value depending on the group comparative efficiency.
A composition, comprising an estolide having a formula (I): wherein R' comprises H, CH 3 , CH 2 CH 3 , or combinations thereof; and x, y, and z each range from 2 to 100 and the sum of x, y, and z is in a range of from 6 to 300.
A system for evaluating at least one operating condition of a heat exchanger, comprising: - at least two double temperature probes each comprising a stack of two single temperature probes thermally and electrically isolated from one another, and - a wall of a heat exchanger through which a heat transfer is intended to take place between two fluids f and f ' circulating on either side of the wall and on which a fouling is capable of being deposited, each single probe of each double probe being intended to be functionally connected to: - a power supply device for each single probe , - an electric current measuring device in each single probe , and - a device for monitoring the power supply device and the measuring device , each double probe being disposed on one of a first side and a second side of the wall of the heat exchanger, a first double probe being located at a first height h 1 of circulation of fluids f and f' and a second double probe being located at a second height h 2 of circulation of fluids f and f', the first height h 1 being different from the second height h 2 , each double probe having a known thermal resistance Rs 1 , R s2 , the wall having a known thermal resistance R p and the heat exchanger having known geometric parameters. - at least two double temperature probes each comprising a stack of two single temperature probes thermally and electrically isolated from one another, and - a wall of a heat exchanger through which a heat transfer is intended to take place between two fluids f and f ' circulating on either side of the wall and on which a fouling is capable of being deposited, - a power supply device for each single probe , - an electric current measuring device in each single probe , and - a device for monitoring the power supply device and the measuring device ,
A grain conveyor for a combine harvester comprising: a grain elevator having an inlet for receiving a flow of grain; and a transition chamber connected to the grain elevator , the transition chamber including: an inlet having a non-circular opening, and an outlet in fluid communication with the transition chamber inlet and the grain elevator inlet , characterized in that the transition chamber outlet has an asymmetric non-circular opening larger than the non-circular opening of the transition chamber inlet . a grain elevator having an inlet for receiving a flow of grain; and a transition chamber connected to the grain elevator , the transition chamber including: an inlet having a non-circular opening, and an outlet in fluid communication with the transition chamber inlet an inlet having a non-circular opening, and an outlet in fluid communication with the transition chamber inlet and the grain elevator inlet , characterized in that the transition chamber outlet has an asymmetric non-circular opening larger than the non-circular opening of the transition chamber inlet .
Wear compensation device of a label printer which prints labels by means of thermal printing, - having a thermal head which has a thermal strip with a plurality of heating resistors , - having a label feed device , which feeds the respective label to the active region of the heating resistors , and - having a control device , which activates the thermal head for printing the respective label , characterized in that the control device is configured to monitor the electric resistance (R) of one or more of the heating resistors and, if a predetermined threshold value (R 1 ) for the electric resistance (R) is exceeded, to increase the energization duration of the respective heating resistor during a printing operation. - having a thermal head which has a thermal strip with a plurality of heating resistors , - having a label feed device , which feeds the respective label to the active region of the heating resistors , and - having a control device , which activates the thermal head for printing the respective label ,
A method for link bandwidth management in a computer network, the method comprising: monitoring traffic flow on a link for a predetermined amount of time; reviewing the monitored data by measuring throughput of the link traffic flow, wherein measuring the throughput comprises: disabling at least one shaper on the link for a predetermined period at predetermined intervals; determining a highest throughput point at each predetermined interval; and estimating the total bandwidth available on the link, based on the sum of bits of the highest throughput points; and calibrating the at least one shaper based on the estimated total bandwidth. monitoring traffic flow on a link for a predetermined amount of time; reviewing the monitored data by measuring throughput of the link traffic flow, wherein measuring the throughput comprises: disabling at least one shaper on the link for a predetermined period at predetermined intervals; determining a highest throughput point at each predetermined interval; and disabling at least one shaper on the link for a predetermined period at predetermined intervals; determining a highest throughput point at each predetermined interval; and estimating the total bandwidth available on the link, based on the sum of bits of the highest throughput points; and calibrating the at least one shaper based on the estimated total bandwidth.
Applicator for applying a cosmetic, makeup or care, product (P) to the eyelashes and/or eyebrows, having a moulded applicator member having: - a core that extends along a longitudinal axis (X), - spikes that are carried by the core and are disposed all around the core in a plurality of longitudinal rows , wherein, in said applicator, at least one longitudinal row has an alternation of curved spikes that each extend along a curvilinear elongation axis (E c ) and straight spikes that each extend along a rectilinear elongation axis (E r ), the free end of the curved spikes being offset along the longitudinal axis (X) of the core with respect to the base of the spike , by way of which the latter is attached to the core , the applicator also having a guard element that is disposed at the proximal end of the core and has a plurality of arcs oriented in the direction of the distal end of the core . - a core that extends along a longitudinal axis (X), - spikes that are carried by the core and are disposed all around the core in a plurality of longitudinal rows ,
An optical transmitter , comprising: an encoding means for encoding input digital signals by one of a plurality of encoding methods and output encoded digital signals; a control means for selecting an encoding method from among encoding methods depending on optical transmission attributes to transmit the digital signals over an optical carrier wave; a mapping means for mapping the encoded digital signals to modulation symbols and outputting mapped signals; and an optical modulation means for modulating the optical carrier wave by using the mapped signals, wherein the plurality of encoding methods differ from each other in their receiving sensitivities and code rates. an encoding means for encoding input digital signals by one of a plurality of encoding methods and output encoded digital signals; a control means for selecting an encoding method from among encoding methods depending on optical transmission attributes to transmit the digital signals over an optical carrier wave; a mapping means for mapping the encoded digital signals to modulation symbols and outputting mapped signals; and an optical modulation means for modulating the optical carrier wave by using the mapped signals, wherein the plurality of encoding methods differ from each other in their receiving sensitivities and code rates.