mhurhangee/ep-ind-claims huggingface dataset:
A stator (100, 200, 300) for an outer rotor electrical machine, the stator comprising: - a core structure (101, 201, 301) comprising ferromagnetic material and comprising a yoke (102, 202, 302) and stator teeth connected to the yoke, - windings (103, 203, 303) at least partially located in stator slots between the stator teeth, and - a cooling element (104, 204, 304) located in a cavity constituted by the yoke and being in a heat conductive relation with the yoke, a first surface of the cooling element having a mechanical contact with a second surface of the cavity so as to provide the heat conductive relation, wherein the cooling element (104, 204, 304) comprises: - a first section (105, 205, 305) comprising the first surface and made of first material having a first thermal expansion coefficient, and - a second section (106, 206, 306) radially surrounded by the first section so that the second section has a mechanical contact with the first section, the second section being made of second material having a second thermal expansion coefficient smaller than the first thermal expansion coefficient so as to act against loosening of the mechanical contact between the first and second surfaces, characterized in that the second section has pretension tending to radially expand the first section. - a core structure (101, 201, 301) comprising ferromagnetic material and comprising a yoke (102, 202, 302) and stator teeth connected to the yoke, - windings (103, 203, 303) at least partially located in stator slots between the stator teeth, and - a cooling element (104, 204, 304) located in a cavity constituted by the yoke and being in a heat conductive relation with the yoke, a first surface of the cooling element having a mechanical contact with a second surface of the cavity so as to provide the heat conductive relation, - a first section (105, 205, 305) comprising the first surface and made of first material having a first thermal expansion coefficient, and - a second section (106, 206, 306) radially surrounded by the first section so that the second section has a mechanical contact with the first section, the second section being made of second material having a second thermal expansion coefficient smaller than the first thermal expansion coefficient so as to act against loosening of the mechanical contact between the first and second surfaces,
An electronic device for rendering a high dynamic range, HDR, image comprising: a receiver configured to receive a compressed bitstream and metadata, the metadata comprising a plurality of blend factors for combining standard dynamic range, SDR, images depending on view directions; at least one processor configured to: obtain a first SDR image and a second SDR image by decoding the compressed bitstream; identify viewpoint information based on an orientation of the electronic device; identify a blend factor corresponding to the identified viewpoint information among the plurality of blend factors; obtain an HDR image by combining the first SDR image and the second SDR image based on the identified blend factor; and render a portion of the obtained HDR image based on the metadata and the viewpoint information; and a display configured to display the portion of the HDR image. a receiver configured to receive a compressed bitstream and metadata, the metadata comprising a plurality of blend factors for combining standard dynamic range, SDR, images depending on view directions; at least one processor configured to: obtain a first SDR image and a second SDR image by decoding the compressed bitstream; identify viewpoint information based on an orientation of the electronic device; identify a blend factor corresponding to the identified viewpoint information among the plurality of blend factors; obtain an HDR image by combining the first SDR image and the second SDR image based on the identified blend factor; and render a portion of the obtained HDR image based on the metadata and the viewpoint information; and obtain a first SDR image and a second SDR image by decoding the compressed bitstream; identify viewpoint information based on an orientation of the electronic device; identify a blend factor corresponding to the identified viewpoint information among the plurality of blend factors; obtain an HDR image by combining the first SDR image and the second SDR image based on the identified blend factor; and render a portion of the obtained HDR image based on the metadata and the viewpoint information; and a display configured to display the portion of the HDR image.
Portable motorized transportation means, comprising: • a backpack, handbag or bag, containing in the upper part a telescopic handle affixed to two handles and, and in the lower part a front axle assembly with a free axle, and a free wheel; • a horizontal frame, on the upper part of the front axle assembly with a vertical frame welded to said frame at 90° and a lock, • a retractable/ foldable board, said retractable/foldable board includes guide pins (9, 10) that are inserted into side internal ducts of upright portions of vertical frame, characterized in that: a drive shaft with a free wheel and a pulled wheel by a chain or belt is attached to an electric motor arranged on the base of the retractable/foldable board, said electric motor fed, for example, by two batteries (18,19) preferably of 12 V, controlled by a receiver board fed by a 9 V battery; are inserted into side internal ducts of upright portions of vertical frame; a pin with a spring that serves to keep the retractable / foldable board locked while closed in the frame; and the receiver board includes additional processing and logic functions for allowing activation of the portable motorized transportation means controls and devices, and for allowing transmission of data concerning speed, battery charge level, route, GPS and/or time, by using wireless technology. • a backpack, handbag or bag, containing in the upper part a telescopic handle affixed to two handles and, and in the lower part a front axle assembly with a free axle, and a free wheel; • a horizontal frame, on the upper part of the front axle assembly with a vertical frame welded to said frame at 90° and a lock, • a retractable/ foldable board, a drive shaft with a free wheel and a pulled wheel by a chain or belt is attached to an electric motor arranged on the base of the retractable/foldable board, said electric motor fed, for example, by two batteries (18,19) preferably of 12 V, controlled by a receiver board fed by a 9 V battery; are inserted into side internal ducts of upright portions of vertical frame; a pin with a spring that serves to keep the retractable / foldable board locked while closed in the frame; and the receiver board includes additional processing and logic functions for allowing activation of the portable motorized transportation means controls and devices, and for allowing transmission of data concerning speed, battery charge level, route, GPS and/or time, by using wireless technology.
An output control device configured to control output torque of a running drive source mounted on a vehicle, characterized by comprising: an allowable output calculator which calculates, based on operation of an accelerator of the vehicle, an allowable output torque that the running drive source is allowed to generate in response to a driver's request; an estimated output calculator which calculates, based on an operating condition of the vehicle, an estimated output torque that is estimated to be actually output by the running drive source; an output difference index calculator which calculates an output difference index correlated with a difference between the allowable output torque and the estimated output torque; an anomaly discriminator comprising a plurality of measuring units which measure, for a plurality of predetermined threshold values of an excess acceleration, amounts of time for which the output difference index remains greater than or equal to the respective threshold values, and the anomaly discriminator determines whether or not the amounts of time measured by the measuring units are greater than or equal to respective discrimination times predetermined in association with the respective threshold values and judges that the output control device is anomalous if at least one of the amounts of time measured by the measuring units is determined to be greater than or equal to its associated discrimination time, wherein the discrimination times are predetermined such that the discrimination time for greater threshold values is shorter. an allowable output calculator which calculates, based on operation of an accelerator of the vehicle, an allowable output torque that the running drive source is allowed to generate in response to a driver's request; an estimated output calculator which calculates, based on an operating condition of the vehicle, an estimated output torque that is estimated to be actually output by the running drive source; an output difference index calculator which calculates an output difference index correlated with a difference between the allowable output torque and the estimated output torque; an anomaly discriminator comprising a plurality of measuring units which measure, for a plurality of predetermined threshold values of an excess acceleration, amounts of time for which the output difference index remains greater than or equal to the respective threshold values, and the anomaly discriminator determines whether or not the amounts of time measured by the measuring units are greater than or equal to respective discrimination times predetermined in association with the respective threshold values and judges that the output control device is anomalous if at least one of the amounts of time measured by the measuring units is determined to be greater than or equal to its associated discrimination time, wherein the discrimination times are predetermined such that the discrimination time for greater threshold values is shorter.
A system, comprising: a patient information receiver circuit configured to receive patient information including one or more physiologic signals obtained from a patient; a physiologic data analyzer circuit configured to detect, from each of the one or more received physiologic signals, a respective physiologic feature indicative of patient physical or physiologic status; and a differential diagnosis circuit configured to provide a differential diagnosis between worsening heart failure and one or more candidate conditions, the differential diagnosis circuit configured to: generate one or more signal metrics using the one or more physiologic features, the one or more signal metrics indicative or correlative of a change in the patient physical or physiologic status; receive one or more candidate conditions associated with the change in patient physical or physiologic status; and determine, for worsening HF and the one or more candidate conditions, a respective diagnostic score using the one or more signal metrics, the diagnostic score indicative of the likelihood of the change in the patient's physical or physiologic status being caused by worsening HF or the corresponding one or more candidate conditions. a patient information receiver circuit configured to receive patient information including one or more physiologic signals obtained from a patient; a physiologic data analyzer circuit configured to detect, from each of the one or more received physiologic signals, a respective physiologic feature indicative of patient physical or physiologic status; and a differential diagnosis circuit configured to provide a differential diagnosis between worsening heart failure and one or more candidate conditions, the differential diagnosis circuit configured to: generate one or more signal metrics using the one or more physiologic features, the one or more signal metrics indicative or correlative of a change in the patient physical or physiologic status; receive one or more candidate conditions associated with the change in patient physical or physiologic status; and determine, for worsening HF and the one or more candidate conditions, a respective diagnostic score using the one or more signal metrics, the diagnostic score indicative of the likelihood of the change in the patient's physical or physiologic status being caused by worsening HF or the corresponding one or more candidate conditions. generate one or more signal metrics using the one or more physiologic features, the one or more signal metrics indicative or correlative of a change in the patient physical or physiologic status; receive one or more candidate conditions associated with the change in patient physical or physiologic status; and determine, for worsening HF and the one or more candidate conditions, a respective diagnostic score using the one or more signal metrics, the diagnostic score indicative of the likelihood of the change in the patient's physical or physiologic status being caused by worsening HF or the corresponding one or more candidate conditions.
A method of determining rate and phase of fluid produced from or injected into a hydrocarbon well, the method comprising the steps of: obtaining temperature and pressure measurements from sensors (PT; WPT; WTT) at the well, wherein one or more of the measurements correspond to a first point in time; operating (52; 54) a computer (8; 8b) to apply the temperature and pressure measurements to at least one predictive well model, to calculate fluid rate and phase composition values from those measurements; storing the fluid rate and phase composition values and an associated time indicator corresponding to the first point in time, in a memory; repeating the obtaining step for at least one of the temperature and pressure measurements corresponding to a second point in time; and then repeating the operating step to calculate fluid rate and phase composition values corresponding to the second point in time; characterized by the method further comprising: for the first point in time, evaluating a function, rather than a constant, of a model parameter with respect to time, cumulative production from the well, or a combination thereof, to calculate a value for the model parameter; and further characterized by: said operating step applying further to the temperature and pressure measurements also the calculated model parameter to the at least one predictive well model to calculate the fluid rate and phase composition values; and by said repeating step also repeating the evaluating step for the second point in time. obtaining temperature and pressure measurements from sensors (PT; WPT; WTT) at the well, wherein one or more of the measurements correspond to a first point in time; operating (52; 54) a computer (8; 8b) to apply the temperature and pressure measurements to at least one predictive well model, to calculate fluid rate and phase composition values from those measurements; storing the fluid rate and phase composition values and an associated time indicator corresponding to the first point in time, in a memory; repeating the obtaining step for at least one of the temperature and pressure measurements corresponding to a second point in time; and then repeating the operating step to calculate fluid rate and phase composition values corresponding to the second point in time; for the first point in time, evaluating a function, rather than a constant, of a model parameter with respect to time, cumulative production from the well, or a combination thereof, to calculate a value for the model parameter; said operating step applying further to the temperature and pressure measurements also the calculated model parameter to the at least one predictive well model to calculate the fluid rate and phase composition values; and by said repeating step also repeating the evaluating step for the second point in time.
A method comprising: identifying, at an electromagnetic, EM, position tracking system, a first metric, the first metric being correlated to jitter in a relative pose between a transmitter and a receiver of the EM position tracking system; setting a power mode (508, 512) of at least one of the transmitter and the receiver based on the first metric; and in response to setting the power mode based on the first metric, discarding one or more samples generated from received EM data, characterized in that discarding the one or more samples comprises: identifying a time window relative to a time when a request to change the power mode is received; and discarding samples for a threshold amount of time during the time window. identifying, at an electromagnetic, EM, position tracking system, a first metric, the first metric being correlated to jitter in a relative pose between a transmitter and a receiver of the EM position tracking system; setting a power mode (508, 512) of at least one of the transmitter and the receiver based on the first metric; and in response to setting the power mode based on the first metric, discarding one or more samples generated from received EM data, characterized in that discarding the one or more samples comprises: identifying a time window relative to a time when a request to change the power mode is received; and discarding samples for a threshold amount of time during the time window. identifying a time window relative to a time when a request to change the power mode is received; and discarding samples for a threshold amount of time during the time window.
An OFDM transmission apparatus, comprising: a modulation section adapted to perform modulation processing on data to be transmitted; an OFDM signal former comprising a mapping control section and a IFFT section, wherein the mapping control section is adapted to control the IFFT section, so that the OFDM signal former allocates specific data in the modulated data to be transmitted to a plurality of subcarriers, the plurality of subcarriers being discontinuous and uniformly separated from each other in a frequency domain by a first interval, and form an OFDM signal, wherein the specific data is a part of all data to be transmitted and the specific data includes retransmission information; and a transmitter adapted to transmit the OFDM signal formed in the OFDM signal former. a modulation section adapted to perform modulation processing on data to be transmitted; an OFDM signal former comprising a mapping control section and a IFFT section, wherein the mapping control section is adapted to control the IFFT section, so that the OFDM signal former allocates specific data in the modulated data to be transmitted to a plurality of subcarriers, the plurality of subcarriers being discontinuous and uniformly separated from each other in a frequency domain by a first interval, and form an OFDM signal, wherein the specific data is a part of all data to be transmitted and the specific data includes retransmission information; and a transmitter adapted to transmit the OFDM signal formed in the OFDM signal former.
A system for a host vehicle, comprising: an obstacle detector configured to detect an obstacle ahead of the host vehicle; an inter-vehicle distance detector configured to detect an inter-vehicle distance between the host vehicle and the obstacle; a confidence factor computing device configured to compute a confidence factor for treating the obstacle as a preceding vehicle ahead of the host vehicle based on a state of the obstacle detected by the obstacle detector; and a reaction force controller configured to apply a reaction force on the accelerator pedal of the host vehicle based on said confidence factor computed by said confidence factor computing device and said inter-vehicle distance detected by the inter-vehicle distance detector, characterized in that said confidence factor computing device is configured to change the computation used by said confidence factor computing device to compute the confidence factor based on at least one of a relative-position relationship between said host vehicle and said obstracle; and the depression of the accelerator pedal. an obstacle detector configured to detect an obstacle ahead of the host vehicle; an inter-vehicle distance detector configured to detect an inter-vehicle distance between the host vehicle and the obstacle; a confidence factor computing device configured to compute a confidence factor for treating the obstacle as a preceding vehicle ahead of the host vehicle based on a state of the obstacle detected by the obstacle detector; and a reaction force controller configured to apply a reaction force on the accelerator pedal of the host vehicle based on said confidence factor computed by said confidence factor computing device and said inter-vehicle distance detected by the inter-vehicle distance detector, characterized in that said confidence factor computing device is configured to change the computation used by said confidence factor computing device to compute the confidence factor based on at least one of a relative-position relationship between said host vehicle and said obstracle; and the depression of the accelerator pedal. a relative-position relationship between said host vehicle and said obstracle; and the depression of the accelerator pedal.
Device for detecting electromagnetic radiation, comprising: - a substrate comprising a readout circuit; - a matrix of thermal detectors intended to absorb the electromagnetic radiation to be detected, disposed on the substrate, each thermal detector comprising: ∘ an absorbent membrane suspended above the substrate by anchoring pillars disposed on and in contact with the substrate, and by holding arms, the anchoring pillars and the holding arms ensuring an electrical connection of the absorbent membrane to the readout circuit, and ∘ a reflective layer disposed on the substrate facing the absorbent membrane; - at least one vertical wall, disposed on and in contact with the substrate and extending longitudinally between two adjacent thermal detectors, the vertical wall extending longitudinally along an axis passing through two neighboring anchoring pillars, characterized in that the vertical wall is produced in a material that is opaque to the electromagnetic radiation to be detected and is produced in a single piece with at least one anchoring pillar. - a substrate comprising a readout circuit; - a matrix of thermal detectors intended to absorb the electromagnetic radiation to be detected, disposed on the substrate, each thermal detector comprising: ∘ an absorbent membrane suspended above the substrate by anchoring pillars disposed on and in contact with the substrate, and by holding arms, the anchoring pillars and the holding arms ensuring an electrical connection of the absorbent membrane to the readout circuit, and ∘ a reflective layer disposed on the substrate facing the absorbent membrane; ∘ an absorbent membrane suspended above the substrate by anchoring pillars disposed on and in contact with the substrate, and by holding arms, the anchoring pillars and the holding arms ensuring an electrical connection of the absorbent membrane to the readout circuit, and ∘ a reflective layer disposed on the substrate facing the absorbent membrane; - at least one vertical wall, disposed on and in contact with the substrate and extending longitudinally between two adjacent thermal detectors, the vertical wall extending longitudinally along an axis passing through two neighboring anchoring pillars, characterized in that the vertical wall is produced in a material that is opaque to the electromagnetic radiation to be detected and is produced in a single piece with at least one anchoring pillar.