mhurhangee/ep-ind-claims huggingface dataset:
Method for surveying or metrology for assigning a class of interest within measurement data, with • using a total station, a laser tracker or a terrestrial laser scanner for an acquisition of measurement data, namely one of imaging data, multi-spectral data, radar data, lidar data, and point cloud data, of a measurement object, and • a classification of the measurement data by a classification algorithm for providing an assignment of the measurement object to a first class of interest within the measurement data, based on ∘ the measurement data and ∘ a classification model comprising at least the first class of interest, characterized in that the method comprises acquiring training data and classification feedback for a training procedure, wherein the acquisition of the training data and classification feedback is acquired in parallel with each acquisition and classification of the measurement data, wherefore the assignment is processed by a feedback procedure providing feedback data based on user feedback, the feedback data comprising • verification information for the assignment of the measurement object to the first class of interest, • a definition of a new class of interest, and • a selection of the measurement data to be used for the classification, and providing the feedback data to the training procedure, the training procedure being based on a machine learning algorithm and providing update information for the classification model. • using a total station, a laser tracker or a terrestrial laser scanner for an acquisition of measurement data, namely one of imaging data, multi-spectral data, radar data, lidar data, and point cloud data, of a measurement object, and • a classification of the measurement data by a classification algorithm for providing an assignment of the measurement object to a first class of interest within the measurement data, based on ∘ the measurement data and ∘ a classification model comprising at least the first class of interest, characterized in that the method comprises acquiring training data and classification feedback for a training procedure, wherein the acquisition of the training data and classification feedback is acquired in parallel with each acquisition and classification of the measurement data, wherefore the assignment is processed by a feedback procedure providing feedback data based on user feedback, the feedback data comprising ∘ the measurement data and ∘ a classification model comprising at least the first class of interest, • verification information for the assignment of the measurement object to the first class of interest, • a definition of a new class of interest, and • a selection of the measurement data to be used for the classification, and providing the feedback data to the training procedure, the training procedure being based on a machine learning algorithm and providing update information for the classification model.
Method for customizing a sport footwear of the kind comprising an inner liner made of a substantially soft material and a substantially rigid outer shell, said method comprising at least the steps of: - manufacturing said inner liner or a portion of said inner liner from a first material; - applying one or more inserts (20a,20b) to the outer surface of said inner liner or portion thereof, the outer surface of said inner liner or portion thereof being the surface which, in use, is facing said substantially rigid outer shell, said one or more inserts being made of a second material which is different from the first material and is shapeable by machining, said one or more inserts covering only partially the outer surface of said inner liner or portion thereof; - introducing said inner liner into said outer shell; - acquiring information on the user's morphology; - machining said one or more inserts (20a,20b) on the basis of the acquired information, so as to adapt the shape and geometry of said one or more inserts to said user's morphology and to the shape and geometry of said outer shell, wherein said second material is shapeable by machining by material removal, characterized in that said one or more inserts (20a,20b) is/are machined by milling. - manufacturing said inner liner or a portion of said inner liner from a first material; - applying one or more inserts (20a,20b) to the outer surface of said inner liner or portion thereof, the outer surface of said inner liner or portion thereof being the surface which, in use, is facing said substantially rigid outer shell, said one or more inserts being made of a second material which is different from the first material and is shapeable by machining, said one or more inserts covering only partially the outer surface of said inner liner or portion thereof; - introducing said inner liner into said outer shell; - acquiring information on the user's morphology; - machining said one or more inserts (20a,20b) on the basis of the acquired information, so as to adapt the shape and geometry of said one or more inserts to said user's morphology and to the shape and geometry of said outer shell, wherein said second material is shapeable by machining by material removal, characterized in that said one or more inserts (20a,20b) is/are machined by milling.
A process for manufacturing a transfer medium, particularly for ink-jet printing, comprising the steps: (a) applying a first aqueous liquid to the front side of a base substrate to be printed, wherein the base substrate has a porosity of 0-1,000 ml/min, preferably 0-200 ml/min, more preferably 0-100 ml/min, measured according to ISO standard 5636-3, and the first aqueous liquid comprises at least one hydrophilic organic polymer or a salt thereof, and subsequent drying; and (b) optionally applying a second aqueous liquid to the reverse side of the base substrate and subsequent drying, the second liquid optionally comprising a hydrophilic polymer or a salt thereof, wherein the hydrophilic organic polymer is selected from the group consisting of polyacrylic acid, polyacrylester, polyacrylamide, a copolymer comprising at least one of an acrylic acid, acrylic acid ester, acryl amide and vinyl acetate or salts thereof, preferably polyacrylic acid or a salt thereof (polyacrylate), wherein the base substrate is selected from the group consisting of paper or metal. (a) applying a first aqueous liquid to the front side of a base substrate to be printed, wherein the base substrate has a porosity of 0-1,000 ml/min, preferably 0-200 ml/min, more preferably 0-100 ml/min, measured according to ISO standard 5636-3, and the first aqueous liquid comprises at least one hydrophilic organic polymer or a salt thereof, and subsequent drying; and (b) optionally applying a second aqueous liquid to the reverse side of the base substrate and subsequent drying, the second liquid optionally comprising a hydrophilic polymer or a salt thereof,
A vibration-proof clamp, comprising: a clamp main body provided with a holding portion by which a pipe material is adapted to be held, and having a mounting hole formed therein; a vibration-proof member mounted in the mounting hole, and having therein a fitting hole with a hole shaft aligning with the mounting hole, and a concave groove provided by notching a peripheral edge of the fitting hole; and a clip including a cylindrical neck portion inserted into the fitting hole, a fixation rib inserted through the concave groove, characterized in that the vibration-proof clamp further includes an elastic claw projected on an outer peripheral face of the neck portion and formed to be retractable inward in a radial direction, wherein after the neck portion is inserted into the fitting hole, the elastic claw retracts in the radial direction and the fixation rib passes through the concave groove, the clip is relatively rotated relative to the vibration-proof member, so that the elastic claw fits into the concave groove. a clamp main body provided with a holding portion by which a pipe material is adapted to be held, and having a mounting hole formed therein; a vibration-proof member mounted in the mounting hole, and having therein a fitting hole with a hole shaft aligning with the mounting hole, and a concave groove provided by notching a peripheral edge of the fitting hole; and a clip including a cylindrical neck portion inserted into the fitting hole, a fixation rib inserted through the concave groove, characterized in that the vibration-proof clamp further includes an elastic claw projected on an outer peripheral face of the neck portion and formed to be retractable inward in a radial direction, wherein after the neck portion is inserted into the fitting hole, the elastic claw retracts in the radial direction and the fixation rib passes through the concave groove, the clip is relatively rotated relative to the vibration-proof member, so that the elastic claw fits into the concave groove.
A device adapted to measure forces generated by an unbalance of a rotor, said device comprising: a stationary frame; a first bearing; a measuring shaft mounted rotatably about its shaft axis in the first bearing; a mounting means provided on the measuring shaft designed for attachment of the rotor, wherein the rotor is designed to be balanced in at least one compensating plane (10, 1); a second bearing having a rigid frame structure pivotally supporting the first bearing about a pivot axis which intersects the shaft axis and being supported on the stationary frame; a first force sensor placed between the first bearing and the second bearing adapted to measure forces generated by the unbalance of the rotating rotor and acting on the measuring shaft about the pivot axis; and a second force sensor placed between the second bearing and the stationary frame adapted to measure forces generated by the unbalance of the rotating rotor and acting on the measuring shaft and on the second bearing in a direction intersecting the shaft axis, wherein spring means are provided between the second bearing and the stationary frame to permit a displacement between the second bearing and the stationary frame enabling the second force sensor to perform the force measurement, characterized in that the first bearing is supported by one or more torsion springs on the second bearing to generate the pivot axis. a stationary frame; a first bearing; a measuring shaft mounted rotatably about its shaft axis in the first bearing; a mounting means provided on the measuring shaft designed for attachment of the rotor, wherein the rotor is designed to be balanced in at least one compensating plane (10, 1); a second bearing having a rigid frame structure pivotally supporting the first bearing about a pivot axis which intersects the shaft axis and being supported on the stationary frame; a first force sensor placed between the first bearing and the second bearing adapted to measure forces generated by the unbalance of the rotating rotor and acting on the measuring shaft about the pivot axis; and a second force sensor placed between the second bearing and the stationary frame adapted to measure forces generated by the unbalance of the rotating rotor and acting on the measuring shaft and on the second bearing in a direction intersecting the shaft axis, wherein spring means are provided between the second bearing and the stationary frame to permit a displacement between the second bearing and the stationary frame enabling the second force sensor to perform the force measurement, characterized in that the first bearing is supported by one or more torsion springs on the second bearing to generate the pivot axis.
A refrigerator comprising: a storage chamber (152, 153, 154, 155, 156) partitioned by a heat insulation wall and a heat insulation door, configured to store a storage object; a storage-volume estimating unit configured to estimate a storage volume in the storage chamber (152, 153, 154, 155, 156); a memory unit configured to memorize a result of estimation by the storage-volume estimating unit; and an arithmetic control unit configured to calculate a storage change volume based on a result of estimation of the storage volume up to a last time memorized in the memory unit and a result of estimation by the storage-volume estimating unit, and configured to control an output operation of an electrofunctional part, wherein the arithmetic control unit is configured to set an operation value, compare a predetermined threshold value with the storage change volume, determine that the storage volume has changed when the storage change volume exceeds the predetermined threshold value and change the output operation of the electrofunctional part, and also determine that the storage volume has not changed when the storage change volume does not exceed the predetermined threshold value and keep the operation value unchanged so that the output operation of the electrofunctional part is carried out according to the operation value, and wherein the electrofunctional part includes at least one of a cooling fan, a damper, and a compressor for changing a cooling power in the storage chamber (152, 153, 154, 155, 156). a storage chamber (152, 153, 154, 155, 156) partitioned by a heat insulation wall and a heat insulation door, configured to store a storage object; a storage-volume estimating unit configured to estimate a storage volume in the storage chamber (152, 153, 154, 155, 156); a memory unit configured to memorize a result of estimation by the storage-volume estimating unit; and an arithmetic control unit configured to calculate a storage change volume based on a result of estimation of the storage volume up to a last time memorized in the memory unit and a result of estimation by the storage-volume estimating unit, and configured to control an output operation of an electrofunctional part, wherein the arithmetic control unit is configured to set an operation value, compare a predetermined threshold value with the storage change volume, determine that the storage volume has changed when the storage change volume exceeds the predetermined threshold value and change the output operation of the electrofunctional part, and also determine that the storage volume has not changed when the storage change volume does not exceed the predetermined threshold value and keep the operation value unchanged so that the output operation of the electrofunctional part is carried out according to the operation value, and wherein the electrofunctional part includes at least one of a cooling fan, a damper, and a compressor for changing a cooling power in the storage chamber (152, 153, 154, 155, 156).
A method of automatically preparing a Musical Instrument Digital Interface, MIDI, file based on a target MIDI file and a source MIDI file, the method comprising: segmenting the source MIDI file into source segments (s); reordering at least some of the source segments, including a first source segment (si) and a second source segment (sj); concatenating the reordered source segments to obtain a new MIDI file having the same length as the target MIDI file, such that the first and second source segments (s i, s j) are consecutive in the new MIDI file; and outputting the new MIDI file; characterized in that the first and second source segments are chosen so that a transition between the two consecutive source segments (s i, s j) in the new MIDI file is musically similar to a transition between two consecutive other source segments (s i, s l+1) in the source MIDI file based on graphical distances between piano roll representations of the source segments including a graphical distance (G(s l, s i)) between a first (si) of the consecutive other source segments and the first source segment (si) of the new MIDI file and a graphical distance (G(s l+1, s j)) between a second (s l+1) of the consecutive other source segments and the second source segment (s j) of the new MIDI file. segmenting the source MIDI file into source segments (s); reordering at least some of the source segments, including a first source segment (si) and a second source segment (sj); concatenating the reordered source segments to obtain a new MIDI file having the same length as the target MIDI file, such that the first and second source segments (s i, s j) are consecutive in the new MIDI file; and outputting the new MIDI file; characterized in that the first and second source segments are chosen so that a transition between the two consecutive source segments (s i, s j) in the new MIDI file is musically similar to a transition between two consecutive other source segments (s i, s l+1) in the source MIDI file based on graphical distances between piano roll representations of the source segments including a graphical distance (G(s l, s i)) between a first (si) of the consecutive other source segments and the first source segment (si) of the new MIDI file and a graphical distance (G(s l+1, s j)) between a second (s l+1) of the consecutive other source segments and the second source segment (s j) of the new MIDI file.
A distributed computer system comprising a server apparatus having a server execution means and at least one client apparatus having a client execution means, wherein the server execution means and each client execution means comprise an execution environment operable such that the execution of a plurality of components of a computer program is carried out in a plurality of frames of execution, wherein a frame of execution comprises a unit of time or work comprising at least one component of the computer program, the plurality of frames of execution being executed sequentially such that all of the plurality of components of a current frame are executed before execution of the next frame begins and any changes of state of a component are visible to the component during its execution but not visible to other components until the next frame begins, wherein the client execution means is operable to execute the components of a computer program to be executed by the server execution environment within a browser of the client apparatus, such that the execution of the program components is duplicated by both the server execution environment and the client execution environment, wherein the server execution environment and the client execution environment are further operable to create messages during execution of a component, sending each message to a target component within the same execution environment, preventing the target components reading the messages in the current frame and enabling the target components to read the messages in the next frame of execution in a predetermined order, wherein the order is determined using a deterministic ordering method.
A nozzle guide vane or turbine blade for a gas turbine engine having at least one internal cooling chamber for passage therethrough of cooling air, the said chamber including a leading edge portion and at least one inlet portion via which cooling air may enter the chamber from a feed source (130a, 130b), wherein the vane or blade comprises a partitioning element present in the chamber inlet portion and extending to define a sub-chamber wholly or partly within the chamber which sub-chamber is bounded by the partitioning element and the leading edge portion, the sub-chamber having a sub-chamber inlet arranged to receive cooling air from the feed source (130a, 130b),, and characterised in that at least an axially outer portion of the partitioning element relative to the longitudinal axis of the cooling chamber of the vane or blade, extends into an inlet feed passage via which cooling air enters the inlet portion of the cooling chamber from the feed source, in addition to the partitioning element being located in the inlet portion itself and an end of the partition distal to the inlet feed passage and in the cooling chamber bends towards the leading edge portion at a short axial distance from the inlet feed passage, such that the partitioning element is effective in reducing the cooling air velocity in the sub-chamber versus the cooling air velocity in the remainder of the inlet portion.
A cosmetic composition for skin whitening, which comprises cosmetically acceptable substances, characterized in that it contains spray-dried powder obtained by spray drying a mixture comprising cloudberry juice and maltodextrin, and in that the composition further comprises cloudberry seed oil and/or cloudberry seed extract.
A method comprising: (a) determining an error rate of a Serializer/Deserializer (SerDes) link, wherein information passing across the SerDes link is received by a SerDes receiver; and (b) controlling (204, 205, 206) a power consumption setting of the SerDes receiver such that the error rate is substantially maintained between a lower error rate bound and an upper error rate bound, wherein when the error rate for transmission received by the SerDes receiver remains outside a range set by the lower rate bound and the upper error rate bound, the power consumption setting is adjusted to decrease power consumption, if the bit error rate is below the lower rate bound and the power consumption setting is adjusted to increase power consumption, if the bit error rate is above the upper rate bound. (a) determining an error rate of a Serializer/Deserializer (SerDes) link, wherein information passing across the SerDes link is received by a SerDes receiver; and (b) controlling (204, 205, 206) a power consumption setting of the SerDes receiver such that the error rate is substantially maintained between a lower error rate bound and an upper error rate bound,
An infusion device, comprising - an infusion needle having a tip end, and - a drive unit coupled to the infusion needle and arranged for advancing the tip end of the infusion needle to penetrate any fibrosis when the device is implanted in a patient's body, said infusion needle and drive unit being designed for implantation in a patient's body, wherein the infusion needle is disposed within a body of the device with the tip end of the infusion needle arranged for passing through an outer wall of said body, wherein a reservoir is coupled to the infusion needle, the reservoir being part of or being contained within the body of the device, wherein the infusion needle, drive unit, and any other implantable component of the infusion device, such as an energy source, a control unit, a data processing device and/or a pump, form an integral part so as to be implantable as a unitary piece, characterized in that the infusion device is completely implantable. - an infusion needle having a tip end, and - a drive unit coupled to the infusion needle and arranged for advancing the tip end of the infusion needle to penetrate any fibrosis when the device is implanted in a patient's body,
A method for ameliorating and preventing dry spots on the grass surface of a golf course comprising applying a compound of the formula: wherein when R is selected from the group consisting of H, C 1-24 alkyl, aryl, C 1-24 alkylaryl, aryl(C 1-24)alkyl, R' is independently selected from the group consisting of -C(=O)-R 1 (esters), C(=O)-NHR 1 (urethanes), or C(=O)-O-R 1 (carboxylates); when R' is selected from the group consisting of H, C 1-24 alkyl, aryl, C 1-24 alkylaryl, aryl(C 1-24)alkyl, R is independently selected from the group consisting of -C(=O)-R 1 (esters), C(=O)-NHR 1 (urethanes), or C(=O)-O-R 1 (carboxylates); R 1 is selected from the group consisting of C 1-24 alkyl, aryl, C 1-24 alkylaryl, C 1-24 arylalkyl; A is selected from the group consisting of alkylene oxides having 4-12 carbon atoms and aryl epoxides having 8-12 carbon atoms; x=18-21; y= 1-2; z=0-5. when R is selected from the group consisting of H, C 1-24 alkyl, aryl, C 1-24 alkylaryl, aryl(C 1-24)alkyl, R' is independently selected from the group consisting of -C(=O)-R 1 (esters), C(=O)-NHR 1 (urethanes), or C(=O)-O-R 1 (carboxylates); when R' is selected from the group consisting of H, C 1-24 alkyl, aryl, C 1-24 alkylaryl, aryl(C 1-24)alkyl, R is independently selected from the group consisting of -C(=O)-R 1 (esters), C(=O)-NHR 1 (urethanes), or C(=O)-O-R 1 (carboxylates); R 1 is selected from the group consisting of C 1-24 alkyl, aryl, C 1-24 alkylaryl, C 1-24 arylalkyl; A is selected from the group consisting of alkylene oxides having 4-12 carbon atoms and aryl epoxides having 8-12 carbon atoms; x=18-21; y= 1-2; z=0-5.