mhurhangee/ep-ind-claims huggingface dataset:
An electric motor comprising a rotor, a stator, a cooling device and a frame, the frame defining an inner space for receiving the rotor, the stator and the cooling device, the frame comprising at least one cooling orifice (50, 52) connecting the inner space to an outer space of the frame, the rotor comprising two opposite ends (32A, 32B) along a rotation axis of the rotor, the cooling device comprising at least one cooling element (60, 62) positioned at one of the ends (32A, 32B) of the rotor, each cooling element (60, 62) comprising a fastening wall (64, 66) to the rotor, secured in rotation with the rotor, and a cooling wall (74, 76) extending, along the rotation axis of the rotor, from the fastening wall (64, 66) to a free end (70, 72) of the cooling element (60, 62), the cooling wall (74, 76) defining an inner volume that it surrounds and comprising an inner face (74A, 76A) across from the or one of the cooling orifices (50, 52) and able to be in contact with a flow of air passing through the cooling orifice (50, 52) and an outer face (74B, 76B) across from the stator, opposite the inner face (74A, 76A), the inner face and the outer face extending from the fastening wall (64, 66) to the free end (70, 72), the inner face (74A, 76A) and the outer face (74B, 76B) are globally smooth and free of protruding elements, characterized in that each cooling orifice (50, 52) emerges in the inner space near the inner face (74A, 76A) of the or one of the cooling walls (74, 76), at a distance measured along a central axis of said cooling orifice (50, 52) smaller than 5 mm.
An agricultural round baler having a crop inlet opening, a bale forming chamber defined in a space between opposing frame-supported side walls and configured to form crop material incoming through said crop inlet opening into a generally spirally wound, cylindrically shaped bale of increasing diameter, and a bale compaction sensing mechanism comprising: an elongate, slot-like aperture having an upstream end and a downstream end separated by a pair of spaced-apart side ends, the aperture being disposed in at least one of the side walls; and a measuring member pivotally connected to the side wall adjacent to said upstream end and moveable between generally opposing extended and retracted positions, said measuring member being characterised in having a contact edge extending distally away from said pivotal connection and partially projecting inwardly through said aperture into the bale forming chamber, the contact edge contacting the crop material as the bale forms in the bale forming chamber when in said extended position, and a blocking edge extending outwardly from the distal end of said contact edge and at least partially extending into said aperture to prevent entrapment of crop material between said contact edge and the side wall. an elongate, slot-like aperture having an upstream end and a downstream end separated by a pair of spaced-apart side ends, the aperture being disposed in at least one of the side walls; and a measuring member pivotally connected to the side wall adjacent to said upstream end and moveable between generally opposing extended and retracted positions, said measuring member being characterised in having a contact edge extending distally away from said pivotal connection and partially projecting inwardly through said aperture into the bale forming chamber, the contact edge contacting the crop material as the bale forms in the bale forming chamber when in said extended position, and a blocking edge extending outwardly from the distal end of said contact edge and at least partially extending into said aperture to prevent entrapment of crop material between said contact edge and the side wall.
A method of analyzing a spectroscopic component, the method comprising: projecting light onto a specimen; detecting an optical spectrum from the specimen, wherein the optical spectrum is output as an output spectrum signal in the form of an electrical signal having a voltage variation with respect to time; generating a region of interest, ROI, vector by temporally dividing the output spectrum signal into a plurality of time intervals by constructing a weighting vector with reference to the divided time interval, and by multiplying the weighting vector with the output spectrum signal; generating a resolution vector expressed by r ( n) = F [ R,v ( n)] = H •v ( n) + G; where v(n) is the ROI vector and r(n) is the resolution vector, using a gain and offset vector R expressed by R = H 0 G 0 H 1 G 1...... H k G k, where H is the gain and G is the offset for each of the plurality of spectra 0,1... k by applying the respective gain and offset to each of the plurality of spectra corresponding to the plurality of time intervals; quantizing the resolution vector to obtain a digital signal; and applying a synthesis vector to the quantized spectra to restore each quantized spectrum to an original form of a corresponding original spectrum. projecting light onto a specimen; detecting an optical spectrum from the specimen, wherein the optical spectrum is output as an output spectrum signal in the form of an electrical signal having a voltage variation with respect to time; generating a region of interest, ROI, vector by temporally dividing the output spectrum signal into a plurality of time intervals by constructing a weighting vector with reference to the divided time interval, and by multiplying the weighting vector with the output spectrum signal; generating a resolution vector expressed by r ( n) = F [ R,v ( n)] = H •v ( n) + G; where v(n) is the ROI vector and r(n) is the resolution vector, using a gain and offset vector R expressed by R = H 0 G 0 H 1 G 1...... H k G k, where H is the gain and G is the offset for each of the plurality of spectra 0,1... k by applying the respective gain and offset to each of the plurality of spectra corresponding to the plurality of time intervals; quantizing the resolution vector to obtain a digital signal; and applying a synthesis vector to the quantized spectra to restore each quantized spectrum to an original form of a corresponding original spectrum.
A method of operating a base station, BS, of a radio access network, RAN, the method comprising: transmitting (1827, 1727, 1747) a Medium Access Control, MAC, message from the base station of the RAN to a wireless terminal, UE, wherein the MAC message includes a Control Element, CE, defining an assignment of resources for dedicated scheduling requests, D-SRs, available for the wireless terminal, UE, to transmit dedicated scheduling requests to the base station, wherein the CE includes a code frequency domain index field with a code frequency domain index identifying one of a plurality of code frequency domain resources available for the wireless terminal to transmit dedicated scheduling requests and a first time domain index field with a first time domain index identifying one of a first plurality of time domain resources available for the wireless terminal to transmit dedicated scheduling requests; and after transmitting the MAC message, transmitting a Radio Resource Control, RRC, message from the base station of the RAN to the wireless terminal, UE, wherein the RRC message includes a second time domain index field larger than the first time domain index field with a second time domain index identifying one of a second plurality of time domain resources available for the wireless terminal to transmit dedicated scheduling requests, and wherein the first plurality of time domain resources is different than the second plurality of time domain resources. transmitting (1827, 1727, 1747) a Medium Access Control, MAC, message from the base station of the RAN to a wireless terminal, UE, wherein the MAC message includes a Control Element, CE, defining an assignment of resources for dedicated scheduling requests, D-SRs, available for the wireless terminal, UE, to transmit dedicated scheduling requests to the base station, wherein the CE includes a code frequency domain index field with a code frequency domain index identifying one of a plurality of code frequency domain resources available for the wireless terminal to transmit dedicated scheduling requests and a first time domain index field with a first time domain index identifying one of a first plurality of time domain resources available for the wireless terminal to transmit dedicated scheduling requests; and after transmitting the MAC message, transmitting a Radio Resource Control, RRC, message from the base station of the RAN to the wireless terminal, UE, wherein the RRC message includes a second time domain index field larger than the first time domain index field with a second time domain index identifying one of a second plurality of time domain resources available for the wireless terminal to transmit dedicated scheduling requests, and wherein the first plurality of time domain resources is different than the second plurality of time domain resources.
A fire door assembly comprising a frame and hinged thereto a door wherein an intumescent material is provided in the frame and characterized in that the cavity/cavities remaining in the frame is/are filled with a foamed filler material.
A method of calibrating and linearization of a position sensor, comprising: Reading Spatial Angle data from a position sensor at a set of positions of a target swept over receive coils (104, 314) in the position sensor; calculating calibration parameters from the Spatial Angle data by matching an electrical measured position with a mechanical reference position; determining an initial position value from the Spatial Angle data and the calibration parameters; determining linearization parameters from the initial position value by linearization of the measured position; and writing the calibration parameters and the linearization parameters into the position sensor. Reading Spatial Angle data from a position sensor at a set of positions of a target swept over receive coils (104, 314) in the position sensor; calculating calibration parameters from the Spatial Angle data by matching an electrical measured position with a mechanical reference position; determining an initial position value from the Spatial Angle data and the calibration parameters; determining linearization parameters from the initial position value by linearization of the measured position; and writing the calibration parameters and the linearization parameters into the position sensor.
A flap drive system for a flap mounted movably to a furniture carcass, the flap drive system is arrangeable at a side wall of the furniture carcass, comprising - a mechanical actuating unit having an actuating arm which can be connected to the flap and a force storage means acting on the actuating arm, - an electric drive fixed to the mechanical actuating unit for driving the flap, the electric drive having at least one electric motor, and - a transmission stage which permits a transmission of force from the electric drive to the mechanical actuating unit, wherein the transmission stage is in the form of a self-contained component having a housing which is independent of the mechanical actuating unit and the electric drive, wherein the mechanical actuating unit comprises a side surface to be attached to a side wall of the furniture carcass and a side surface opposite to the side surface where the mechanical actuating unit is plate-shaped and where a first plate-shaped housing portion of the transmission stage is arrangeable, characterized in that the transmission stage comprises a second housing portion arranged opposite to a first housing portion and being configured as a flat plate, where a side surface of the electric drive being configured as a flat plate is arrangeable, wherein the mechanic actuation unit, the transmission stage and the electric drive can respectively be connected together in such a way that their side surfaces (32, 6, 5, 21) lie against each other. - a mechanical actuating unit having an actuating arm which can be connected to the flap and a force storage means acting on the actuating arm, - an electric drive fixed to the mechanical actuating unit for driving the flap, the electric drive having at least one electric motor, and - a transmission stage which permits a transmission of force from the electric drive to the mechanical actuating unit,
An arrangement embodied as a light-emitting device, comprising a fiber-optic waveguide and a detection device, wherein - the fiber-optic waveguide comprises a core region and a cladding region surrounding the core region, wherein the core region has a higher refractive index than the cladding region, and - wherein the detection device can detect damage to the fiber-optic waveguide - wherein the fiber-optic waveguide has a first end and a second end, wherein a converter material is present at the second end, which converter material converts radiation having a first wavelength that is transported through the fiber-optic waveguide into light having a second wavelength, and a first detector as part of the detection device is present at the first end, which detector detects the light having the second wavelength, - a radiation source is present at the first end of the fiber-optic waveguide, which radiation source emits radiation having a first wavelength, - part of the light having the second wavelength is transported by optical feedback through the fiber-optic waveguide, characterized in that - the detection device is part of a circuit arrangement that supplies a power supply of the radiation source with current and which is configured to interrupt an electric circuit in the absence of detection of the converted light, - and wherein the light-emitting devices emits light which is a mixture of radiation having the first wavelength and converted light having the second wavelength or which is converted light having the second wavelength. - the fiber-optic waveguide comprises a core region and a cladding region surrounding the core region, wherein the core region has a higher refractive index than the cladding region, and - wherein the detection device can detect damage to the fiber-optic waveguide - wherein the fiber-optic waveguide has a first end and a second end, wherein a converter material is present at the second end, which converter material converts radiation having a first wavelength that is transported through the fiber-optic waveguide into light having a second wavelength, and a first detector as part of the detection device is present at the first end, which detector detects the light having the second wavelength, - a radiation source is present at the first end of the fiber-optic waveguide, which radiation source emits radiation having a first wavelength, - part of the light having the second wavelength is transported by optical feedback through the fiber-optic waveguide, characterized in that - the detection device is part of a circuit arrangement that supplies a power supply of the radiation source with current and which is configured to interrupt an electric circuit in the absence of detection of the converted light, - and wherein the light-emitting devices emits light which is a mixture of radiation having the first wavelength and converted light having the second wavelength or which is converted light having the second wavelength.
A therapeutically effective amount of anti-third party cells having a central memory T-lymphocyte (Tcm) phenotype for use in treating a subject in need of transplantation of cells, wherein the treating comprises: (a) administering to the subject a therapeutically effective amount of cells in suspension, wherein said cells in suspension comprise mesenchymal stem cells, endothelial progenitor cells, epithelial progenitor cells or hematopoietic cells which are not stem cells; and (b) administering to said subject a therapeutically effective amount of anti-third party cells having a central memory T-lymphocyte (Tcm) phenotype, said anti-third party cells being tolerance-inducing cells and capable of homing to the lymph nodes following transplantation, wherein said anti-third party cells having said Tcm phenotype comprise a CD3 +, CD8 +, CD62L +, CD45RA -, CD45RO + signature, and wherein at least 50 % of the anti-third party cells have said signature, thereby treating the disease. (a) administering to the subject a therapeutically effective amount of cells in suspension, wherein said cells in suspension comprise mesenchymal stem cells, endothelial progenitor cells, epithelial progenitor cells or hematopoietic cells which are not stem cells; and (b) administering to said subject a therapeutically effective amount of anti-third party cells having a central memory T-lymphocyte (Tcm) phenotype, said anti-third party cells being tolerance-inducing cells and capable of homing to the lymph nodes following transplantation, wherein said anti-third party cells having said Tcm phenotype comprise a CD3 +, CD8 +, CD62L +, CD45RA -, CD45RO + signature, and wherein at least 50 % of the anti-third party cells have said signature,
An apparatus (100;180) comprising: a transmitter to send a first plurality of flits to a second device (103;230) coupled to the apparatus (100;180) via a link; and a control circuit coupled to the transmitter to change a configuration of the link, characterized in that said change is from a flit-based encoding to a packet-based encoding in response to at least one error during communication of the first plurality of flits to the second device (103;230), wherein in response to the configuration change, the transmitter is to send a first plurality of data link layer packets to the second device via the link, wherein the transmitter is to send the first plurality of flits at a first link speed and send the first plurality of data link layer packets at a second link speed, the first link speed greater than the second link speed; the apparatus further characterized in comprising: a receiver, wherein the receiver is to receive at least one data link layer packet from the second device (103;230), the at least one data link layer packet to identify a last flit of the first plurality of flits that the second device (103;230) correctly received. a transmitter to send a first plurality of flits to a second device (103;230) coupled to the apparatus (100;180) via a link; and a control circuit coupled to the transmitter to change a configuration of the link, characterized in that said change is from a flit-based encoding to a packet-based encoding in response to at least one error during communication of the first plurality of flits to the second device (103;230), wherein in response to the configuration change, the transmitter is to send a first plurality of data link layer packets to the second device via the link, wherein the transmitter is to send the first plurality of flits at a first link speed and send the first plurality of data link layer packets at a second link speed, the first link speed greater than the second link speed; the apparatus further characterized in comprising: a receiver, wherein the receiver is to receive at least one data link layer packet from the second device (103;230), the at least one data link layer packet to identify a last flit of the first plurality of flits that the second device (103;230) correctly received.
A grain-oriented electrical steel sheet comprising: a film mainly composed of forsterite in an amount of 0.2 g/m 2 or more per surface in terms of Mg coating amount on the front and back surfaces of the steel sheet; and, on the front surface of the steel sheet, a plurality of grooves linearly extending in a direction transverse to a rolling direction at an angle of 45° or less with respect to a direction orthogonal to the rolling direction and arranged at intervals in the rolling direction, wherein the plurality of grooves have an average depth of 6 % or more of a thickness of the steel sheet and are spaced a distance of 1 mm to 15 mm from respective adjacent grooves, the steel sheet has a specific magnetic permeability μr 15/50 of 35000 or more when subjected to alternating current magnetization at a frequency of 50 Hz and a maximum magnetic flux density of 1.5 T, evaluated by the Epstein test method, and the steel sheet includes film parts isolated from the forsterite body having a presence frequency of 0.3/μm or less, measured by a scanning electron microscope, the film parts isolated from the forsterite body being separated from a continuous part of the film in an interface between the steel sheet and the film in a cross section orthogonal to the rolling direction of the steel sheet. the plurality of grooves have an average depth of 6 % or more of a thickness of the steel sheet and are spaced a distance of 1 mm to 15 mm from respective adjacent grooves, the steel sheet has a specific magnetic permeability μr 15/50 of 35000 or more when subjected to alternating current magnetization at a frequency of 50 Hz and a maximum magnetic flux density of 1.5 T, evaluated by the Epstein test method, and the steel sheet includes film parts isolated from the forsterite body having a presence frequency of 0.3/μm or less, measured by a scanning electron microscope, the film parts isolated from the forsterite body being separated from a continuous part of the film in an interface between the steel sheet and the film in a cross section orthogonal to the rolling direction of the steel sheet.
An information transmission method, applied to a network device, comprising: transmitting, within a target time window, a target synchronization signal/physical broadcast channel, SS/PBCH, block; wherein the target synchronization signal/physical broadcast channel, SS/PBCH, block refers to at least one synchronization signal/physical broadcast channel block required by a terminal for network synchronization and/or time-frequency tracking, a time length of the target time window is smaller than a time length of a target transmission cycle, the target transmission cycle is a transmission cycle of a synchronization signal/physical broadcast channel, SS/PBCH, block, and an ending moment of the target time window is before a moment of a paging occasion or an ending moment of the target time window is the same as a moment of a paging occasion. transmitting, within a target time window, a target synchronization signal/physical broadcast channel, SS/PBCH, block; wherein the target synchronization signal/physical broadcast channel, SS/PBCH, block refers to at least one synchronization signal/physical broadcast channel block required by a terminal for network synchronization and/or time-frequency tracking, a time length of the target time window is smaller than a time length of a target transmission cycle, the target transmission cycle is a transmission cycle of a synchronization signal/physical broadcast channel, SS/PBCH, block, and an ending moment of the target time window is before a moment of a paging occasion or an ending moment of the target time window is the same as a moment of a paging occasion.