mhurhangee/patent-ind-claim-en huggingface dataset:
A system for determining a residue yield of the plant materials ingested by a harvesting implement of an agricultural harvester , the system comprising a plant yield sensor configured to detect a parameter associated with a weight of the harvested plant materials being ingested by the harvesting implement , the system further comprising a crop yield sensor configured to detect a parameter associated with a weight of a quantity of crop materials removed from the quantity of harvested plant materials by a plant processing system of the agricultural harvester , the system further comprising a controller communicatively coupled to the plant and the crop yield sensors , the controller being configured to: determine the weight of the quantity of plant materials being ingested by the harvesting implement based on measurement signals received from the plant yield sensor ; determine the weight of the quantity of crop materials removed from the quantity of harvested plant materials based on measurement signals received from the crop yield sensor ; and determine a residue yield value by comparing the determined weight of the quantity of plant materials and the determined weight of the quantity of crop materials characterized in that the tw plant yield sensor is provided in operative association with at least one of the harvesting implement or a feeder of the agricultural harvester . determine the weight of the quantity of plant materials being ingested by the harvesting implement based on measurement signals received from the plant yield sensor ; determine the weight of the quantity of crop materials removed from the quantity of harvested plant materials based on measurement signals received from the crop yield sensor ; and determine a residue yield value by comparing the determined weight of the quantity of plant materials and the determined weight of the quantity of crop materials characterized in that the tw plant yield sensor is provided in operative association with at least one of the harvesting implement or a feeder of the agricultural harvester .
Motor vehicle, comprising at least one display device , wherein the display device comprises a projector and a translucent or transparent projection area , onto the rear side of which the projector projects the information display which can be seen from the front side, wherein the size of the projection area is variable, characterised in that that - the distance of the projection area to the projector is variable and the projection area is flexible and can be partially wound and unwound on one or two rollers or rolls, or - the projection area is installed in a fixed position and one or more covering elements are provided which cover it in sections on the rear side and can be moved to change the degree of coverage. - the distance of the projection area to the projector is variable and the projection area is flexible and can be partially wound and unwound on one or two rollers or rolls, or - the projection area is installed in a fixed position and one or more covering elements are provided which cover it in sections on the rear side and can be moved to change the degree of coverage.
A method comprising: receiving data indicative of a location comprising identifying a map tile viewed on a device; and selecting the data indicative of the location based on the map tile; receiving a search term; identifying a first geographical coordinate and a second geographical coordinate corresponding to the location; combining, using a processor, the first geographical coordinate and the second geographical coordinate into a single dimensional location value; combining , using the processor, the single dimensional location value and the search term into an interwoven bit vector; querying a geographic database having an index of interwoven bit vectors with the interwoven bit vector ; and receiving search results limited spatially by a geographic area based on the location and limited textually by the search term. receiving data indicative of a location comprising identifying a map tile viewed on a device; and selecting the data indicative of the location based on the map tile; receiving a search term; identifying a first geographical coordinate and a second geographical coordinate corresponding to the location; combining, using a processor, the first geographical coordinate and the second geographical coordinate into a single dimensional location value; combining , using the processor, the single dimensional location value and the search term into an interwoven bit vector; querying a geographic database having an index of interwoven bit vectors with the interwoven bit vector ; and receiving search results limited spatially by a geographic area based on the location and limited textually by the search term.
A portable device for estimating at least one parameter characteristic of a polymer material, characterized in that the device comprises: at least one infrared source , the at least one infrared source being at least one infrared light-emitting diode or at least one laser source, at least one infrared detector , characterized in that it is provided as infrared source at least two infrared sources , which are capable of emitting towards the polymer material respectively at least two different spectral lines (R1, R2, R3, R4, R5, R6), representing each a maximum emission energy, selected in respectively at least two different of the wavelengths 10 μm, 9.5 μm, 7.2 μm, 6 μm, 3.5 μm, 2.7 μm or in respectively at least two different of the wave numbers 1000 cm -1 , 1050 cm -1 , 1350 cm -1 , 1700 cm -1 , 2900 cm -1 , 3700 cm -1 , the at least one infrared detector is capable of receiving the at least two spectral lines (R1, R2, R3, R4, R5, R6), which are reflected by the polymer material (M) in response to the at least two spectral lines (R1, R2, R3, R4, R5, R6), having been emitted by the at least two infrared sources , the device comprising a determination unit for determining the parameter characteristic of the polymer material (M) as a function of the energy present in the at least two spectral lines (R1, R2, R3, R4, R5, R6), having been reflected by the polymer material (M) and having been received by the infrared detector in response to the at least two spectral lines (R1, R2, R3, R4, R5, R6) having been emitted by the at least two infrared sources . at least one infrared source , the at least one infrared source being at least one infrared light-emitting diode or at least one laser source, at least one infrared detector , characterized in that it is provided as infrared source at least two infrared sources , which are capable of emitting towards the polymer material respectively at least two different spectral lines (R1, R2, R3, R4, R5, R6), representing each a maximum emission energy, selected in respectively at least two different of the wavelengths 10 μm, 9.5 μm, 7.2 μm, 6 μm, 3.5 μm, 2.7 μm or in respectively at least two different of the wave numbers 1000 cm -1 , 1050 cm -1 , 1350 cm -1 , 1700 cm -1 , 2900 cm -1 , 3700 cm -1 , the at least one infrared detector is capable of receiving the at least two spectral lines (R1, R2, R3, R4, R5, R6), which are reflected by the polymer material (M) in response to the at least two spectral lines (R1, R2, R3, R4, R5, R6), having been emitted by the at least two infrared sources , the device comprising a determination unit for determining the parameter characteristic of the polymer material (M) as a function of the energy present in the at least two spectral lines (R1, R2, R3, R4, R5, R6), having been reflected by the polymer material (M) and having been received by the infrared detector in response to the at least two spectral lines (R1, R2, R3, R4, R5, R6) having been emitted by the at least two infrared sources .
A computer-implemented method for training multi-party secure logistic regression models, the computer-implemented method comprising: dividing sample training data for a secure logistic regression model, SLRM, into a plurality of shares using secret sharing, SS, wherein the sample training data is originating from a plurality of secure computation nodes , SCNs, configured to both produce and consume training data, wherein each share is provided by a respective SCN of the plurality of SCNs; iteratively updating , by the plurality of SCNs, parameters associated with the SLRM in a multi-party collaboration using each share of the sample training data, comprising encrypting the shares provided by each SCN by using random numbers and exchanging the encrypted shares between the SCNs, wherein each SCN uses the received encrypted shares as inputs to the SLRM to iteratively update the parameters associated with the SLRM, wherein the iterative updating continues until a predetermined condition is satisfied; and after the predetermined condition is satisfied, outputting a training result configured for use by each SCN of the plurality of SCNs. dividing sample training data for a secure logistic regression model, SLRM, into a plurality of shares using secret sharing, SS, wherein the sample training data is originating from a plurality of secure computation nodes , SCNs, configured to both produce and consume training data, wherein each share is provided by a respective SCN of the plurality of SCNs; iteratively updating , by the plurality of SCNs, parameters associated with the SLRM in a multi-party collaboration using each share of the sample training data, comprising encrypting the shares provided by each SCN by using random numbers and exchanging the encrypted shares between the SCNs, wherein each SCN uses the received encrypted shares as inputs to the SLRM to iteratively update the parameters associated with the SLRM, wherein the iterative updating continues until a predetermined condition is satisfied; and after the predetermined condition is satisfied, outputting a training result configured for use by each SCN of the plurality of SCNs.
A method for calibrating a wagon weighbridge by means of a track maintenance machine which can be moved on a track and comprises work units for treating the track and/or a ballast bed , with at least one work unit having at least one force introduction point which can be lowered and lifted by a drive , with the drive and thus the movement of the force introduction point being force-controlled or displacement-controlled by means of a set-up control and regulation system , with the track maintenance machine being positioned on the track prior to the start of a calibration process in such a way that the at least one force introduction point assumes a vertical position above the area of the wagon weighbridge to be calibrated, with a measuring unit being attached to at least the one force introduction point , with the measuring unit being coupled with the wagon weighbridge at a track section/support point associated with the wagon weighbridge , with at least the one force introduction point being lowered at the start of the calibration process and a defined force being applied to the wagon weighbridge by this lowering.
An optoelectronic sensor for detecting shiny objects that has a light transmitter having at least one light source for generating a transmission light beam, a light receiver having a receiver row arrangement (20a-d) of light reception elements, and an evaluation unit to recognize shiny objects based on a reception signal of the light receiver , wherein the light transmitter has a plurality of light sources arranged to form at least one transmitter row (12a-b), and wherein the evaluation unit is configured to recognize and evaluate a full width at half maximum of the intensity profile over the row arrangement in the reception signals of the light reception elements, wherein the light reception elements form two receiver row arrangements (20a-d), wherein the evaluation unit is configured to determine an angular position of a detected object from a position of at least two intensity maxima within the receiver row arrangement (20a-d), characterized in that the light transmitter comprises light sources arranged to form two transmitter rows (12a-b), with the receiver row arrangements being arranged at both sides of the light transmitter , with the transmitter rows (12a-b) and the receiver rows (20a-b) being symmetrically arranged with respect to a horizontal center axis, with the receiver row arrangements (20a-d) being arranged perpendicular to the transmitter rows (12a-b) and the transmitter rows (12a-b) being in parallel with one another, with, in a perpendicularly oriented surface of the scanned object , the upper transmitter row being imaged onto the lower receiver row and, vice versa, the lower transmitter row being imaged onto the upper receiver row . wherein the light transmitter has a plurality of light sources arranged to form at least one transmitter row (12a-b), and wherein the evaluation unit is configured to recognize and evaluate a full width at half maximum of the intensity profile over the row arrangement in the reception signals of the light reception elements, wherein the light reception elements form two receiver row arrangements (20a-d), wherein the evaluation unit is configured to determine an angular position of a detected object from a position of at least two intensity maxima within the receiver row arrangement (20a-d), characterized in that the light transmitter comprises light sources arranged to form two transmitter rows (12a-b), with the receiver row arrangements being arranged at both sides of the light transmitter , with the transmitter rows (12a-b) and the receiver rows (20a-b) being symmetrically arranged with respect to a horizontal center axis, with the receiver row arrangements (20a-d) being arranged perpendicular to the transmitter rows (12a-b) and the transmitter rows (12a-b) being in parallel with one another, with, in a perpendicularly oriented surface of the scanned object , the upper transmitter row being imaged onto the lower receiver row and, vice versa, the lower transmitter row being imaged onto the upper receiver row .
A computer-implemented method of assisting masking a part , the method comprising, prior to working on the part, the steps of: · using a numerical model of the part to define at least one virtual surface for masking by extracting from the model a geometrical surface of the part that is to be masked, and by duplicating said geometrical surface; and · assigning instructions about masking to the virtual surface for masking as defined in this way; then · when an operator is working on a part matching the numerical model, taking at least one image of the part and enabling the operator to view the image of the part with the virtual surface for masking superposed thereon while also displaying the associated instructions; and · after the part matching the numerical model has been masked, taking an image of the masked part and a computer-implemented step to compare on the image the real masked surface with the virtual surface for masking and to determine whether the masking is compliant. · using a numerical model of the part to define at least one virtual surface for masking by extracting from the model a geometrical surface of the part that is to be masked, and by duplicating said geometrical surface; and · assigning instructions about masking to the virtual surface for masking as defined in this way; then · when an operator is working on a part matching the numerical model, taking at least one image of the part and enabling the operator to view the image of the part with the virtual surface for masking superposed thereon while also displaying the associated instructions; and · after the part matching the numerical model has been masked, taking an image of the masked part and a computer-implemented step to compare on the image the real masked surface with the virtual surface for masking and to determine whether the masking is compliant.
A method for forming a hole in a ceramic matrix composite component, the method comprising: providing a first tool component with a first hole ; providing a fiber preform of the ceramic matrix composite component on the first tool component ; positioning a second tool component on the fiber preform , such that the fiber preform is disposed between the first and second tool components , wherein the second tool component has a second hole coaxial with the first hole ; inserting a rod into the first and second holes and through the fiber preform ; and performing a densification step of the fiber preform in the first and second tool components , wherein the fiber preform is densified with a ceramic matrix, characterised in that the method further comprises inserting a guide tube into the first and second holes and through the fiber preform . providing a first tool component with a first hole ; providing a fiber preform of the ceramic matrix composite component on the first tool component ; positioning a second tool component on the fiber preform , such that the fiber preform is disposed between the first and second tool components , wherein the second tool component has a second hole coaxial with the first hole ; inserting a rod into the first and second holes and through the fiber preform ; and performing a densification step of the fiber preform in the first and second tool components , wherein the fiber preform is densified with a ceramic matrix, characterised in that the method further comprises inserting a guide tube into the first and second holes and through the fiber preform .
A control method of a wireless power receiver for receiving charging power from a wireless power transmitter, the method comprising: transmitting setting information to the wireless power transmitter (S1501); generating a load variation based on a pattern included in the setting information within a predetermined time (S1505); receiving a message including a bit field indicating a cross-connection from the wireless power transmitter (S1513); and terminating a connection to the wireless power transmitter based on the message (S1515). transmitting setting information to the wireless power transmitter (S1501); generating a load variation based on a pattern included in the setting information within a predetermined time (S1505); receiving a message including a bit field indicating a cross-connection from the wireless power transmitter (S1513); and terminating a connection to the wireless power transmitter based on the message (S1515).
A method comprising: generating a neighborhood around a point; determining whether there is at least one time domain duplexing, TDD, radio of at least one TDD system in the neighborhood, where the at least one TDD radio is either authorized, or is requesting authorization, to transmit in shared frequency spectrum; if at least one TDD radio is determined to be in the neighborhood, then determining a largest interference contribution, in the shared frequency spectrum at the point, of a TDD radio of each TDD system comprising a TDD radio in the neighborhood, wherein each TDD system comprises TDD radios, and wherein the largest interference contribution is from one of the TDD radios; and wherein each largest interference contribution is used as an aggregate interference of a corresponding TDD system in the shared frequency spectrum at the point. generating a neighborhood around a point; determining whether there is at least one time domain duplexing, TDD, radio of at least one TDD system in the neighborhood, where the at least one TDD radio is either authorized, or is requesting authorization, to transmit in shared frequency spectrum; if at least one TDD radio is determined to be in the neighborhood, then determining a largest interference contribution, in the shared frequency spectrum at the point, of a TDD radio of each TDD system comprising a TDD radio in the neighborhood, wherein each TDD system comprises TDD radios, and wherein the largest interference contribution is from one of the TDD radios; and wherein each largest interference contribution is used as an aggregate interference of a corresponding TDD system in the shared frequency spectrum at the point.
Brushless DC motor of an electric machining device , having a stator , a rotor , a fan and a flywheel , wherein the rotor , the fan and the flywheel are arranged for conjoint rotation on a motor shaft of the brushless DC motor , and wherein the flywheel is enclosed at least partially by the fan axially along the motor shaft , wherein the flywheel has, at one axial end , a groove extending around its radially outer periphery , in which a radially inwardly protruding collar of the fan engages.
A glass sheet composite comprising a diaphragm that is vibrated by a vibrator, and a support member that is attached along an edge portion of the diaphragm to support the diaphragm, wherein: the diaphragm comprises at least one glass sheet, and is supported on the support member through a support structure constituted by fixing parts and vibration-permitting parts, wherein the fixing parts fix the edge portion of the diaphragm to the support member, and the vibration-permitting parts permit vibration of the diaphragm, all the peripheral portion of the diaphragm is not attached to the support member through the fixing parts, but is attached to the support member through the support structure constituted by the fixing parts and the vibration-permitting parts, wherein the fixing parts are disposed intermittently with the vibration-permitting parts along the edge portion of the diaphragm, and the vibration-permitting parts are soft backers or soft gaskets that are disposed between the edge portion of the diaphragm and the support member, or spaces filled with a soft filler formed between the edge portion of the diaphragm and the support member. the diaphragm comprises at least one glass sheet, and is supported on the support member through a support structure constituted by fixing parts and vibration-permitting parts, wherein the fixing parts fix the edge portion of the diaphragm to the support member, and the vibration-permitting parts permit vibration of the diaphragm, all the peripheral portion of the diaphragm is not attached to the support member through the fixing parts, but is attached to the support member through the support structure constituted by the fixing parts and the vibration-permitting parts, wherein the fixing parts are disposed intermittently with the vibration-permitting parts along the edge portion of the diaphragm, and the vibration-permitting parts are soft backers or soft gaskets that are disposed between the edge portion of the diaphragm and the support member, or spaces filled with a soft filler formed between the edge portion of the diaphragm and the support member.