mhurhangee/ep-ind-claims huggingface dataset:
A lens design method for designing a lens to reshape an actual far-field radiation pattern of a radiation source to a preferred far-field radiation pattern, the lens comprising a host material within which is disposed at least one dispersed material, wherein the host material is a composite resin and the dispersed material is a ceramic powder, the method comprising: - determining a preferred far-field radiation pattern of the radiation source; - deriving a corresponding near-field radiation pattern from the preferred far-field radiation pattern using a mathematical expansion of the electric and magnetic fields of the preferred far-field radiation pattern; - determining an actual near-field pattern of the radiation source; - mapping an electric field and a magnetic field of the actual near-field radiation pattern to the derived near-field radiation pattern using a transfer relationship, the transfer relationship comprising material parameters which characterise the lens by varying the material parameters so as to create a refractive index gradient, and - determining the material parameters such that the density of the at least one second dispersed material varies across the lens to create the refractive index gradient, wherein the radiation source is a spiral antenna, and determining the material parameters comprises discretising the lens into a plurality of concentrically arranged regions (61 a-j), centred around the axis of the spiral antenna, the regions (61 a-j) comprising a respective permittivity and permeability to suitably manipulate the radiation generated from the spiral antenna. - determining a preferred far-field radiation pattern of the radiation source; - deriving a corresponding near-field radiation pattern from the preferred far-field radiation pattern using a mathematical expansion of the electric and magnetic fields of the preferred far-field radiation pattern; - determining an actual near-field pattern of the radiation source; - mapping an electric field and a magnetic field of the actual near-field radiation pattern to the derived near-field radiation pattern using a transfer relationship, the transfer relationship comprising material parameters which characterise the lens by varying the material parameters so as - determining the material parameters such that the density of the at least one second dispersed material varies across the lens to create the refractive index gradient,
A resonant coupling power transmission system comprising: a resonance type power transmission device having a resonance type power supply configured to supply power, and a resonance type transmission antenna configured to transmit the power supplied by said resonance type power supply; and a resonance type power reception device having a resonance type reception antenna configured to receive the power transmitted by said resonance type transmission antenna, and a reception circuit configured to supply the power received by said resonance type reception antenna to a load, characterized in that the resonant coupling power transmission system is set in such a way that, when a resonance characteristic value of said resonance type power supply is denoted by Qo, a resonance characteristic value of said resonance type transmission antenna is denoted by Qt, and a resonance characteristic value of said resonance type power reception device is denoted by Qr, 0.5Qr≤√(Qo·Qt)≤1.5Qr is satisfied. a resonance type power transmission device having a resonance type power supply configured to supply power, and a resonance type transmission antenna configured to transmit the power supplied by said resonance type power supply; and a resonance type power reception device having a resonance type reception antenna configured to receive the power transmitted by said resonance type transmission antenna, and a reception circuit configured to supply the power received by said resonance type reception antenna to a load, characterized in that the resonant coupling power transmission system is set in such a way that, when a resonance characteristic value of said resonance type power supply is denoted by Qo, a resonance characteristic value of said resonance type transmission antenna is denoted by Qt, and a resonance characteristic value of said resonance type power reception device is denoted by Qr, 0.5Qr≤√(Qo·Qt)≤1.5Qr is satisfied.
Agricultural tool for use in forming furrows, comprising a generally cylindrical support and a plurality of tires, each tire comprising a sole by way of which the tire is mounted on the support, a tread opposite the sole and intended to roll on the bottom of a respective furrow when the tool is working and two sidewalls (11, 13) that connect the tread to the sole, the sole, the tread and the sidewalls (11, 13) jointly forming a casing that is uniform on a circumference of the tire and deformable around a chamber that fluidly communicates with the outside of the tire, the sole having a seat surface and an inner surface, opposite the seat surface and extending between the sidewalls (11, 13), the tread having an inner surface directed towards the chamber and an outer surface facing away from the inner surface of the tread and directed towards the outside of the tire, the inner surface of the tread facing the inner surface of the sole, the tread of at least one of the plurality of tires has a generally domed shape, the sidewalls (11, 13) of this tire are generally inclined radially, each of the sidewalls (11, 13) has a curvature with constant sign from the tread to the sole, characterized in that the domed shape of the tread and the inclination of the sidewalls (11, 13) are such that the deformation of the casing urges the sole axially outward, a straight line passing through a crown of the tread and through a junction point between a sidewall (11, 13) and the sole crossing a lateral surface of the sole.
Cutting insert for a milling tool, which is formed for the milling of a tooth slot of a spline joint in a workpiece, the cutting insert comprising an under side, an opposite upper side, which forms a chip surface and extends parallel to an extension plane, an edge side between the upper side and the under side, a through axis, which extends through the under side and the upper side perpendicular to the extension plane, a longitudinal axis, which is perpendicular to and intersects the through axis and which extends through a rear portion of the cutting insert, and a cutting edge, which extends between the edge side and the chip surface, the cutting edge comprising a primary main cutting edge and a secondary main cutting edge, which are formed to be in engagement with the workpiece for milling flank surfaces of the tooth slot during said milling, and a front cutting edge, which is formed to be in engagement with the workpiece for milling a bottom surface of the tooth slot during said milling, the front cutting edge extending along an edge line, normal to the extension plane forming an acute clearance angle (γ) with the edge side along the cutting edge, characterized in that the cutting edge comprises a primary corner cutting edge and a secondary corner cutting edge, which are formed to be in engagement with the workpiece during said milling, the primary corner cutting edge being situated between the primary main cutting edge and the front cutting edge, the secondary corner cutting edge extending between and connecting the secondary main cutting edge and the front cutting edge, wherein the primary corner cutting edge and secondary corner cutting edge have a convex shape, and that the primary corner cutting edge and secondary corner cutting edge, in respect of the rear portion, extends forward from the front cutting edge to a position that is on the other side of an imaginary line, which forms a primary and secondary extension (L', L") of the edge line and which extends further in a tangential direction from the end of the front cutting edge to a primary and secondary point (P', P") on the primary and secondary corner cutting edge, whereby the primary and secondary corner cutting edges (18, 19) provide undercuts between the bottom surface and the flank surfaces of the tooth slot during milling. a primary main cutting edge and a secondary main cutting edge, which are formed to be in engagement with the workpiece for milling flank surfaces of the tooth slot during said milling, and a front cutting edge, which is formed to be in engagement with the workpiece for milling a bottom surface of the tooth slot during said milling, the front cutting edge extending along an edge line,
A method of transmitting to a user equipment, UE, at least first and second messages regarding multimedia point-to-multipoint services in a network, the method comprising: transmitting said first messages to the UE according to a first multicast control channel (MCCH) configuration for a first multimedia broadcast service single frequency network (MBSFN) area; and transmitting said second messages to the UE according to a second MCCH configuration for a second MBSFN area, said first messages comprising information regarding a first set of at least one service and said second messages comprising information regarding a second set of at least one service; wherein the transmission of said first messages is scheduled with a first periodicity according to the first MCCH configuration and the transmission of said-second messages is scheduled with a second periodicity according to the second MCCH configuration; said first periodicity being independent from said second periodicity; and wherein said first periodicity and said second periodicity are repetition periods in at least one modification period. transmitting said first messages to the UE according to a first multicast control channel (MCCH) configuration for a first multimedia broadcast service single frequency network (MBSFN) area; and transmitting said second messages to the UE according to a second MCCH configuration for a second MBSFN area, said first messages comprising information regarding a first set of at least one service and said second messages comprising information regarding a second set of at least one service; wherein the transmission of said first messages is scheduled with a first periodicity according to the first MCCH configuration and the transmission of said-second messages is scheduled with a second periodicity according to the second MCCH configuration; said first periodicity being independent from said second periodicity; and wherein said first periodicity and said second periodicity are repetition periods in at least one modification period.
A method for selectively producing a half-depth OCT image or a full-depth OCT image, based on a swept-source OCT interference signal, the method comprising: selecting from a first sampling rate and a second sampling rate, the second sampling rate being twice the first sampling rate; selecting from a first sweep rate and a second sweep rate the second sweep rate being half the first; operating a swept optical source at the selected sweep rate; sampling the swept-source Optical Coherence Tomography interference signal at the selected sampling rate, using a k-clock signal having a frequency range corresponding to the first sampling rate; and processing the sampled OCT interference signal to obtain an OCT image, such that the OCT image is a half-depth image in the event the first sampling rate is selected and a full-depth image in the event the second sampling rate is selected, characterized in that sampling the swept-source OCT interference signal comprises using the k-clock signal to sample the swept-source OCT interference signal in either a half-rate mode or a full-rate mode, based on whether the first sampling rate or second sampling rate is selected, wherein the half-rate mode comprises sampling the swept-source OCT interference signal on either every rising edge of the k-clock signal or every falling edge of the k-clock signal, but not both, and wherein the full-rate mode comprises sampling the swept-source OCT interference signal on every rising edge and every falling edge of the k-clock signal, to produce a sampled OCT interference signal. selecting from a first sampling rate and a second sampling rate, the second sampling rate being twice the first sampling rate; selecting from a first sweep rate and a second sweep rate the second sweep rate being half the first; operating a swept optical source at the selected sweep rate; sampling the swept-source Optical Coherence Tomography interference signal at the selected sampling rate, using a k-clock signal having a frequency range corresponding to the first sampling rate; and processing the sampled OCT interference signal to obtain an OCT image, such that the OCT image is a half-depth image in the event the first sampling rate is selected and a full-depth image in the event the second sampling rate is selected,
A label selection support system comprising: an information acquisition unit that obtains, via a network, information associated with a plurality of target biomolecules to be analyzed; an information processor that obtains, by using the information associated with the plurality of target biomolecules, in vivo expression information of the plurality of target biomolecules from a database storing in vivo expression information of target biomolecules, the information processor comprising: a data table generator configured to generate a data table for each of the target molecules from the expression information; and a support information generator configured to refer to the generated data table and generate support information associated with a fluorescent dye to be assigned to each of the target biomolecules in such a manner that, on a basis of a correlation between the generated data tables, a fluorescent dye farther in wavelength is assigned to each of two target biomolecules having a stronger correlation between the data tables; and a transmitter that transmits the generated support information via the network. an information acquisition unit that obtains, via a network, information associated with a plurality of target biomolecules to be analyzed; an information processor that obtains, by using the information associated with the plurality of target biomolecules, in vivo expression information of the plurality of target biomolecules from a database storing in vivo expression information of target biomolecules, the information processor comprising: a data table generator configured to generate a data table for each of the target molecules from the expression information; and a support information generator configured to refer to the generated data table and generate support information associated with a fluorescent dye to be assigned to each of the target biomolecules in such a manner that, on a basis of a correlation between the generated data tables, a fluorescent dye farther in wavelength is assigned to each of two target biomolecules having a stronger correlation between the data tables; and a data table generator configured to generate a data table for each of the target molecules from the expression information; and a support information generator configured to refer to the generated data table and generate support information associated with a fluorescent dye to be assigned to each of the target biomolecules in such a manner that, on a basis of a correlation between the generated data tables, a fluorescent dye farther in wavelength is assigned to each of two target biomolecules having a stronger correlation between the data tables; and a transmitter that transmits the generated support information via the network.
Use of a multilayer film with a weight of less than 20g/m 2, comprising a layer comprising a polyolefin and a layer comprising a lamellar filler, for storing malodorous waste.
A heater comprising: a base member; three or more electrodes disposed on the base member to be spaced apart from each other in a longitudinal direction of the base member; a heat generating resistor which electrically interconnects electrodes which form an electrode pair and face each other in the longitudinal direction among the electrodes; a wiring (361f, 361g) which connects the electrodes forming the electrode pair to have different polarities from each other; and a switch connected to the wiring and configured to select an electrode to which a voltage is to be applied; wherein the heater further comprises a surface protective layer configured to protect a surface of the heater which slides on an object to be heated; wherein: the heat generating resistor is disposed continuously on each of the electrodes, the electrodes being sandwiched between the heat generating resistor and the base member; the electrodes are formed in a linear shape and extend in a short direction perpendicular to the longitudinal direction, and the surface protective layer is laminated on the base member to cover at least a surface of the heat generating resistor. a base member; three or more electrodes disposed on the base member to be spaced apart from each other in a longitudinal direction of the base member; a heat generating resistor which electrically interconnects electrodes which form an electrode pair and face each other in the longitudinal direction among the electrodes; a wiring (361f, 361g) which connects the electrodes forming the electrode pair to have different polarities from each other; and a switch connected to the wiring and configured to select an electrode to which a voltage is to be applied; wherein the heater further comprises a surface protective layer configured to protect a surface of the heater which slides on an object to be heated; the heat generating resistor is disposed continuously on each of the electrodes, the electrodes being sandwiched between the heat generating resistor and the base member; the electrodes are formed in a linear shape and extend in a short direction perpendicular to the longitudinal direction, and the surface protective layer is laminated on the base member to cover at least a surface of the heat generating resistor.
An image formation apparatus communicable with an external apparatus, the image formation apparatus comprising: storage means including a first folder (404, 405) referable by the external apparatus and an externally inaccessible second folder, which is inaccessible by the external apparatus, and the storage means configured to store a print settings (501, 502) corresponding to the first folder (404, 405); detection means (302, 303) configured to detect that a file is stored in the first folder (404, 405); movement means configured to move the file detected by the detection means (302, 303) to the externally inaccessible second folder; first generation means configured to generate a print job list (701, 702, 703) based on information about the moved file and information about the first folder (404, 405) in which the file is detected by the detection means (302, 303); second generation means configured to acquire the information about the print settings (501, 502) stored in the storage means from the information about the first folder (404, 405) included in the print job list (701, 702, 703) generated by the first generation means, and generates the print job based on the acquired information about the print settings (501, 502) and the moved file; and processing means configured to execute print processing based on the generated print job. storage means including a first folder (404, 405) referable by the external apparatus and an externally inaccessible second folder, which is inaccessible by the external apparatus, and the storage means configured to store a print settings (501, 502) corresponding to the first folder (404, 405); detection means (302, 303) configured to detect that a file is stored in the first folder (404, 405); movement means configured to move the file detected by the detection means (302, 303) to the externally inaccessible second folder; first generation means configured to generate a print job list (701, 702, 703) based on information about the moved file and information about the first folder (404, 405) in which the file is detected by the detection means (302, 303); second generation means configured to acquire the information about the print settings (501, 502) stored in the storage means from the information about the first folder (404, 405) included in the print job list (701, 702, 703) generated by the first generation means, and generates the print job based on the acquired information about the print settings (501, 502) and the moved file; and processing means configured to execute print processing based on the generated print job.
A method of enabling at least one slave device to enter a discover mode, said slave device having been configured to be controllable by at least one remote controller at a previous configuration step, whereby said at least one slave device has been paired with said at least one remote controller to be controllable by said at least one remote controller, said method further comprising that - reconfiguration data has been stored by said slave device, - at least part of the reconfiguration data is made available or provided to a user and subsequently to a further remote controller that is new and is not paired to said at least one slave device, - the further remote controller wirelessly transmits at least part of said reconfiguration data by broadcasting a command signal in the form of a discover request to slave devices, - at least part of said reconfiguration data is wirelessly received by said at least one slave device, and wherein - said at least one slave device when having received said at least part of said reconfiguration data and verified correspondence with the stored reconfiguration data, enters said discover mode, and wherein by entering said discover mode - a re-configuration of said at least one slave device is enabled in dependence on further wireless communication with said further remote controller, whereby said at least one slave device is reconfigured to be controllable by the further remote controller. - reconfiguration data has been stored by said slave device, - at least part of the reconfiguration data is made available or provided to a user and subsequently to a further remote controller that is new and is not paired to said at least one slave device, - the further remote controller wirelessly transmits at least part of said reconfiguration data by broadcasting a command signal in the form of a discover request to slave devices, - at least part of said reconfiguration data is wirelessly received by said at least one slave device, and wherein - said at least one slave device when having received said at least part of said reconfiguration data and verified correspondence with the stored reconfiguration data, enters said discover mode, and wherein by entering said discover mode - a re-configuration of said at least one slave device is enabled in dependence on further wireless communication with said further remote controller, whereby said at least one slave device is reconfigured to be controllable by the further remote controller.