mhurhangee/ep-ind-claims huggingface dataset:
A method performed by an assisted-GNSS server configured to receive data collected by a global monitoring network, and assemble and provide assisted-GNSS data, the method comprising: obtaining a message, which includes at least one verification code, from an entity indicating to be a satellite navigation system receiver of a mobile device, the at least one verification code comprising at least one message authentication code for a given time instant or at least one secondary code derived from the at least one message authentication code for a given time instant, wherein message authentication codes are defined to authenticate navigation data for Galileo for a respective time instant, wherein the assisted-GNSS server is external to the mobile device comprising the satellite navigation system receiver and is configured to provide assisted-GNSS data to a plurality of satellite navigation system receivers; comparing the at least one obtained verification code with at least one available verification code known to be valid for the given time instant, wherein the entity is considered to be an authentic satellite navigation system receiver of a mobile device only, in case the at least one obtained verification code matches the at least one available verification code; and enabling selected further actions only, if the entity is considered an authentic satellite navigation system receiver of a mobile device, wherein the further actions comprise providing assisted-GNSS data to the satellite navigation system receiver. obtaining a message, which includes at least one verification code, from an entity indicating to be a satellite navigation system receiver of a mobile device, the at least one verification code comprising at least one message authentication code for a given time instant or at least one secondary code derived from the at least one message authentication code for a given time instant, wherein message authentication codes are defined to authenticate navigation data for Galileo for a respective time instant, wherein the assisted-GNSS server is external to the mobile device comprising the satellite navigation system receiver and is configured to provide assisted-GNSS data to a plurality of satellite navigation system receivers; comparing the at least one obtained verification code with at least one available verification code known to be valid for the given time instant, wherein the entity is considered to be an authentic satellite navigation system receiver of a mobile device only, in case the at least one obtained verification code matches the at least one available verification code; and enabling selected further actions only, if the entity is considered an authentic satellite navigation system receiver of a mobile device, wherein the further actions comprise providing assisted-GNSS data to the satellite navigation system receiver.
A flat, box-shaped solar tray-collector with a translucent cover at a first main side, a bottom, which predominantly extends parallel to said cover at a second main side and a circumferentially extending wall, connecting the cover with said bottom, which wall has a concavity at a transition region to said bottom, characterized in that at least one adapter is arranged at the wall or at the bottom or at the wall and at the bottom, which can be force-fitted with a linear rail, which serves as a mounting rail for the solar collector and which has a substantially planar surface, while there are means at said adapter to achieve a force fitted fixation of said adapter to said solar-collector, wherein a) the adapter features a first section with a free outer surface with a curvature, wherein b) the shape and orientation of said curvature is such that in a mounted position the free outer surface of the first section houses the concavity of the wall of the tray in a form-fit manner, and c) a second section with a free, predominantly planar outer surface, wherein d) the orientation of this planar outer surface is predominantly parallel to the bottom of the solar collector when the adapter takes its mounted position, a) the adapter features a first section with a free outer surface with a curvature, wherein b) the shape and orientation of said curvature is such that in a mounted position the free outer surface of the first section houses the concavity of the wall of the tray in a form-fit manner, and c) a second section with a free, predominantly planar outer surface, wherein d) the orientation of this planar outer surface is predominantly parallel to the bottom of the solar collector when the adapter takes its mounted position,
A method of resistance spot welding to join materials to be welded by squeezing the materials between a pair of electrodes and passing current while applying pressure, the materials being a plurality of overlapping metal sheets, the method comprising: dividing a current pattern into two or more steps for welding; before actual welding, performing test welding to store, for each step as a target value, a time variation of an instantaneous amount of heat generated per unit volume and a cumulative amount of heat generated per unit volume that are calculated from an electrical property between electrodes when forming an appropriate nugget by passing current with constant current control; and subsequently, as actual welding, starting welding using, as a standard, a time variation curve of the instantaneous amount of heat generated per unit volume obtained by the test welding, characterized by performing adaptive control welding to control a welding current with the cumulative amount of heat generated that is determined for each step in advance in the test welding as a target value in order to compensate for a difference during a remaining welding time in the step, wherein adaptive control is performed when a time variation amount of an instantaneous amount of heat generated per unit volume deviates during any step from the time variation curve by the difference. dividing a current pattern into two or more steps for welding; before actual welding, performing test welding to store, for each step as a target value, a time variation of an instantaneous amount of heat generated per unit volume and a cumulative amount of heat generated per unit volume that are calculated from an electrical property between electrodes when forming an appropriate nugget by passing current with constant current control; and subsequently, as actual welding, starting welding using, as a standard, a time variation curve of the instantaneous amount of heat generated per unit volume obtained by the test welding, characterized by performing adaptive control welding to control a welding current with the cumulative amount of heat generated that is determined for each step in advance in the test welding as a target value in order to compensate for a difference during a remaining welding time in the step, wherein adaptive control is performed when a time variation amount of an instantaneous amount of heat generated per unit volume deviates during any step from the time variation curve by the difference.
A noise cancellation headphone, comprising - a speaker having a frontside configured to face a user's ear and being opposite to a backside of the speaker; - a front plate for carrying the speaker; - a microphone arranged on or in the front plate, the microphone being usable as a feedback microphone for active noise cancellation; - a front vent opening arranged within the front plate and in close proximity to the microphone; and - a baffle arranged over the front vent opening and at least partially covering the speaker on the frontside; - wherein a shape of the baffle at least partially is framed by an arc of an ellipse; and - wherein a center of the ellipse is arranged over or basically over the front vent opening and the microphone. - a speaker having a frontside configured to face a user's ear and being opposite to a backside of the speaker; - a front plate for carrying the speaker; - a microphone arranged on or in the front plate, the microphone being usable as a feedback microphone for active noise cancellation; - a front vent opening arranged within the front plate and in close proximity to the microphone; and - a baffle arranged over the front vent opening and at least partially covering the speaker on the frontside; - wherein a shape of the baffle at least partially is framed by an arc of an ellipse; and - wherein a center of the ellipse is arranged over or basically over the front vent opening and the microphone.
A method for imaging of at least one target in a sample comprising: a. providing at least one target-recognizing antibody bound to a docking strand oligonucleotide; b. providing a first blocker strand that hybridizes to the docking strand over a first region, but not over its full length or the full length of the docking strand; c. providing an imager strand oligonucleotide that hybridizes to the docking strand oligonucleotide, wherein the imager strand is labeled with a detectable label; d. allowing the imager strand to hybridize to the docking strand, displacing the first blocker strand; e. determining whether the target-recognizing antibody has bound to the target; f. optionally imaging the at least one target; g. optionally removing the imager strand from the docking strand by employing a bouncer strand to displace the imager strand; h. optionally repeating steps a-g. a. providing at least one target-recognizing antibody bound to a docking strand oligonucleotide; b. providing a first blocker strand that hybridizes to the docking strand over a first region, but not over its full length or the full length of the docking strand; c. providing an imager strand oligonucleotide that hybridizes to the docking strand oligonucleotide, wherein the imager strand is labeled with a detectable label; d. allowing the imager strand to hybridize to the docking strand, displacing the first blocker strand; e. determining whether the target-recognizing antibody has bound to the target; f. optionally imaging the at least one target; g. optionally removing the imager strand from the docking strand by employing a bouncer strand to displace the imager strand; h. optionally repeating steps a-g.
A method of enhancing a guidance system of a vehicle having a global navigation satellite system (GNSS) receiver, the method comprising: obtaining latitude, longitude, and attitude data for a plurality of positions of the GNSS receiver in an area of land; calculating an inertial correction factor for each of the plurality of positions based on the attitude data for each of the plurality of positions; and adjusting the obtained latitude and longitude based on the corresponding calculated inertial correction factor to determine coordinates of a ground position for each of the plurality of positions; characterized by storing the latitude, longitude, and attitude data for the plurality of positions in the area of land in a memory component, and accessing the latitude, longitude, and attitude data from the memory component upon subsequent visits to any of the plurality of positions such that the guidance system may look-up the stored attitude for one of the plurality of positions without recalculating or measuring the attitude. obtaining latitude, longitude, and attitude data for a plurality of positions of the GNSS receiver in an area of land; calculating an inertial correction factor for each of the plurality of positions based on the attitude data for each of the plurality of positions; and adjusting the obtained latitude and longitude based on the corresponding calculated inertial correction factor to determine coordinates of a ground position for each of the plurality of positions; characterized by storing the latitude, longitude, and attitude data for the plurality of positions in the area of land in a memory component, and accessing the latitude, longitude, and attitude data from the memory component upon subsequent visits to any of the plurality of positions such that the guidance system may look-up the stored attitude for one of the plurality of positions without recalculating or measuring the attitude.
An industrial hydraulic power take-off "PTO", comprising: a housing mounted between a prime mover and a piece of driven equipment, the housing including, a hydraulic section having a clutch housing with multiple passages directing oil through the PTO; a tower housing having multiple passages directing oil through the tower housing, characterized in that the tower housing is configured to connect to the clutch housing in multiple angularly indexed positions with respect to the clutch housing; and a multi-position adapter is arranged between the tower and clutch housings (70, 50), the multi-position adapter having spaced apart openings that align with various passages of the hydraulic and tower housings, wherein selecting an angularly indexed position of the multi-position adapter defines corresponding oil flow paths between respective ones of the passages of the hydraulic and tower housing and blocks flow through the remainder of the passages of the hydraulic and tower housings. a hydraulic section having a clutch housing with multiple passages directing oil through the PTO; a tower housing having multiple passages directing oil through the tower housing, characterized in that the tower housing is configured to connect to the clutch housing in multiple angularly indexed positions with respect to the clutch housing; and a multi-position adapter is arranged between the tower and clutch housings (70, 50), the multi-position adapter having spaced apart openings that align with various passages of the hydraulic and tower housings, wherein selecting an angularly indexed position of the multi-position adapter defines corresponding oil flow paths between respective ones of the passages of the hydraulic and tower housing and blocks flow through the remainder of the passages of the hydraulic and tower housings.
An integrated circuit comprising: a plurality of on-chip-instrument-modules (102, 202, 402, 402b, 602, 602b); a test-controller-module (104, 204) configured to communicate data with the plurality of on-chip-instrument-modules; and a functional-module (106, 206) configured to communicate data with the plurality of on-chip-instrument-modules; the integrated circuit being characterised by further comprising: an on-chip-instrument-controller (108, 208, 308, 408, 508, 608) configured to: for each of the plurality of on-chip-instrument-modules, store an access-indicator; and based on a value of the access-indicatorfor each on-chip-instrument-module, enable the on-chip-instrument-module to communicate, via the on-chip-instrument-controller (108, 208, 308, 408, 508, 608), with either: the test-controller-module (104, 204); or the functional-module (106, 206). a plurality of on-chip-instrument-modules (102, 202, 402, 402b, 602, 602b); a test-controller-module (104, 204) configured to communicate data with the plurality of on-chip-instrument-modules; and a functional-module (106, 206) configured to communicate data with the plurality of on-chip-instrument-modules; the integrated circuit being characterised by further comprising: an on-chip-instrument-controller (108, 208, 308, 408, 508, 608) configured to: for each of the plurality of on-chip-instrument-modules, store an access-indicator; and based on a value of the access-indicatorfor each on-chip-instrument-module, enable the on-chip-instrument-module to communicate, via the on-chip-instrument-controller (108, 208, 308, 408, 508, 608), with either: the test-controller-module (104, 204); or the functional-module (106, 206). for each of the plurality of on-chip-instrument-modules, store an access-indicator; and based on a value of the access-indicatorfor each on-chip-instrument-module, enable the on-chip-instrument-module to communicate, via the on-chip-instrument-controller (108, 208, 308, 408, 508, 608), with either: the test-controller-module (104, 204); or the functional-module (106, 206). the test-controller-module (104, 204); or the functional-module (106, 206).
A method for predicting the clinical outcome of a subject suffering from glioblastoma multiforme that comprises: a) determining the expression level or the polysomy/amplification level of the EGFR gene and the loss of heterozygosity level of the PTEN gene in a sample from the same subject, and b) comparing said expression level or the polysomy/amplification level of the EGFR gene and the LOH level of the PTEN gene with standard reference values, wherein the LOH level of the PTEN gene is measured by PCR, by a hybridization-based assay, by sequencing technology, or by a SNP analysis; and wherein a high LOH level of the PTEN gene with respect to said standard reference value and a high expression level and/or high level of polysomy/amplification of the EGFR gene with respect to said standard reference values are indicative of a good clinical outcome of the subject. a) determining the expression level or the polysomy/amplification level of the EGFR gene and the loss of heterozygosity level of the PTEN gene in a sample from the same subject, and b) comparing said expression level or the polysomy/amplification level of the EGFR gene and the LOH level of the PTEN gene with standard reference values,
A waveguide device, comprising: a first diffractive element configured to serve as a light guiding element of light-input and having a first grating (121a1) configured to diffract light of a wavelength to forward propagate as a first diffraction light with a first diffraction angle (θ1); a second diffractive element having a second grating (121b1) configured to diffract a rest part (L1') of the light of the wavelength that is not diffracted by the first diffractive element to forward propagate as a second diffraction light with a second diffraction angle (θ2) that is different from the first diffraction angle (θ1); a third diffractive element configured to serve as a light guiding element of light-output and having a third grating (121c1) and a fourth grating (121c2), the third grating (121c1) being configured to diffract the first diffraction light to propagate with the first diffraction angle (θ1), and the fourth grating (121c2) being configured to diffract the second diffraction light to propagate with the second diffraction angle (θ2); and a waveguide element configured to guide the first diffraction light propagated from the first diffractive element and the second diffraction light propagated from the second diffractive element to the third diffractive element; wherein one of the first diffractive element and the second diffractive element is a transmissive diffractive element, and another of the first diffractive element and the second diffractive element is a reflective diffractive element; and wherein the second diffraction light will not enter the first diffractive element. a first diffractive element configured to serve as a light guiding element of light-input and having a first grating (121a1) configured to diffract light of a wavelength to forward propagate as a first diffraction light with a first diffraction angle (θ1); a second diffractive element having a second grating (121b1) configured to diffract a rest part (L1') of the light of the wavelength that is not diffracted by the first diffractive element to forward propagate as a second diffraction light with a second diffraction angle (θ2) that is different from the first diffraction angle (θ1); a third diffractive element configured to serve as a light guiding element of light-output and having a third grating (121c1) and a fourth grating (121c2), the third grating (121c1) being configured to diffract the first diffraction light to propagate with the first diffraction angle (θ1), and the fourth grating (121c2) being configured to diffract the second diffraction light to propagate with the second diffraction angle (θ2); and a waveguide element configured to guide the first diffraction light propagated from the first diffractive element and the second diffraction light propagated from the second diffractive element to the third diffractive element; wherein one of the first diffractive element and the second diffractive element is a transmissive diffractive element, and another of the first diffractive element and the second diffractive element is a reflective diffractive element; and wherein the second diffraction light will not enter the first diffractive element.
Motor vehicle provided with right and left external handles respectively equipping a right lateral door and a left lateral door of the vehicle, the handles (3D, 3G) each being equipped with an actuating module (4, 4D, 4G) comprising a housing housing an electric actuator (5, 5D, 5G) and an electric circuit assigned to at least supplying the actuator (5, 5D, 5G) with electric flux, the electric circuit comprising at least conductors 1) and an electronic control board, the housing being provided with a first connector (7, 7D, 7G) comprising first electrical pads at least assigned to the individual distribution of the electrical flows to the electrical circuit and comprising mechanical junction means (18a, 19a) capable of providing a fixing of the first connector (7, 7D, 7G) with a second connector (14, 14D, 14G) for their electrical connection to one another, characterized in that the actuation modules (4, 4D, G) fitted respectively to the right and left handles are identical symmetrically with respect to a longitudinal axis and are arranged on the right and left lateral openings respectively symmetrically with respect to a longitudinal axis of extension of the vehicle between the front and the rear.
Method for authenticating a product and for registering a random security feature of the product in a database on the basis of a reproducible identification feature of the product, wherein the random security feature is linked to the identification feature for registration purposes, the method comprising the steps of performing a preliminary authenticity check of the product, for which the identification feature of the product is determined and the database is searched for an entry comprising the identification feature, and, if the determined identification feature is not linked to a random security feature, registering the random security feature after the preliminary authenticity check if the preliminary authenticity check is positive, wherein a positive preliminary authenticity check presupposes that an entry comprising the identification feature has been found in the database, and, if the determined identification feature has been found and is already linked to a random security feature, carrying out a final authenticity check of the product, wherein the determined random security feature is compared with the registered security feature to establish authenticity.