mhurhangee/ep-ind-claims huggingface dataset:
A method for detecting uneven wear on a tire from an acceleration waveform detected by an acceleration sensor, the method comprising: (a) extracting an acceleration waveform in either one or both of a pre-leading-end region in a time region before a leading-end point (P f) and a post-trailing-end region in a time region after a trailing-end point (P k) from output signals of the acceleration sensor disposed on an inner surface of a tire tread; (b) calculating a frequency band value, which is a magnitude of acceleration in a specific frequency band, from the extracted acceleration waveform; and (c) detecting an uneven wear in an edge of a tire shoulder from a magnitude of the calculated frequency band value. (a) extracting an acceleration waveform in either one or both of a pre-leading-end region in a time region before a leading-end point (P f) and a post-trailing-end region in a time region after a trailing-end point (P k) from output signals of the acceleration sensor disposed on an inner surface of a tire tread; (b) calculating a frequency band value, which is a magnitude of acceleration in a specific frequency band, from the extracted acceleration waveform; and (c) detecting an uneven wear in an edge of a tire shoulder from a magnitude of the calculated frequency band value.
A synchronizing device for a manual transmission, comprising a sliding sleeve (112 - 512) which includes an internal toothing with a plurality of sliding sleeve teeth (118 - 518) having an end face (136 - 536) that extends substantially flat and perpendicular to the axial direction, and a clutch body of a speed change gear, which has an external toothing with a plurality of clutch body teeth (120 - 520) into which the internal toothing of the sliding sleeve (112 - 512) can engage, and a synchronizing unit having a synchronizer ring (122 - 522) which includes an external toothing with synchronizer ring teeth (124 - 524), the synchronizing unit being adapted to block an axial movement of the sliding sleeve (112 - 512), wherein the clutch body teeth (120 - 520) are formed without a meshing bevel at their axial tooth end (130 - 530) close to the sliding sleeve teeth (118 - 518), characterized in that each of the sliding sleeve teeth (118 - 518) includes an end face (136 - 536) which extends substantially flat and perpendicular to the axial direction, and in that at the tooth end (128 - 528) on one side, at least some of the sliding sleeve teeth (118 - 518) have a beveled blocking surface (138 - 538) which proceeds from the end face (136 - 536), and in that the arrangement of the synchronizer ring teeth (124 - 524) is adjusted to the arrangement of the blocking surfaces (138 - 538).
Photocatalytic composition for the abatement of atmospheric pollutants, wherein the photocatalytic composition is in the form of an aqueous dispersion and comprises a photocatalyst present in the photocatalytic composition in a concentration in a range of from a lower limit of 0.3%, more specifically 0.5%, even more specifically 0.8% by weight to an upper limit of less than 5%, preferably less than 1.5%, more preferably less than 1% by weight, relative to the weight of the photocatalytic composition, an organic resin present in the photocatalytic composition in a concentration in a range of from a lower limit of 0.5%, more specifically 1% by weight to an upper limit of less than 10% by weight, preferably less than 7.5% by weight, more preferably less than 5% by weight, relative to the weight of the photocatalytic composition, water and optionally further additives, and wherein the photocatalyst is selected from the group consisting of TiO 2, doped TiO 2 such as InNbO 4 -doped TiO 2, ZrO 2, Ta 2 O s, Cu 2 O, BiO and any combination thereof, preferably the photocatalyst is TiO 2, and the organic resin is selected from the group consisting of acrylic, styrene-acrylic, methacrylic, polysiloxane, vinyl, EVA, styrene-butadiene-styrene resins and any combination thereof, preferably the organic resin is an acrylic, styrene-acrylic or vinyl resin.
A window assembly comprising a window frame arranged to be fixed to a building surface, a window sash comprising a window pane, said window sash being mounted in said window frame by means of a pivotal joint enabling that said window sash may pivot in relation to said window frame, window locking means arranged at a top side of said window assembly to lock said window sash in relation to said window frame in a closed position, and a locking handle arranged on said window sash to operate said locking means, characterized in that said locking handle is provided with light emitting means arranged to illuminate at least a part of said window assembly.
A walking control apparatus of a robot comprising: joint portions (210, 220, 230) provided in each of a plurality of legs (110L, 110R) of the robot; a state database to store state data of each of the legs and state data of the joint portions (210, 220, 230) corresponding to the state of each of the legs, when the robot walks, the state data of the legs and the joint portions (210, 220, 230) being based on Finite State Machine; a position instruction unit configured to generate desired positions corresponding to the state data of the joint portions (210, 220, 230); an inclination sensing unit configured to sense an inclination of an upper body (102, 104, 106R, 106L) of the robot; a compensator configured to calculate compensation angles (θpc, θrc) for the joint portions (210, 220, 230) using the sensed inclination of the upper body; a torque calculator configured to determine according to the magnitude of the inclination of the upper body whether the compensation angles (θpc, θrc) are to be applied, to calculate torques using the desired positions and the calculated compensation angles (θpc, θrc) when it is determined that the compensation angles (θpc, θrc) are applied; and a servo controller configured to output the torques to the joint portions (210, 220, 230) to control the walking of the robot. joint portions (210, 220, 230) provided in each of a plurality of legs (110L, 110R) of the robot; a state database to store state data of each of the legs and state data of the joint portions (210, 220, 230) corresponding to the state of each of the legs, when the robot walks, the state data of the legs and the joint portions (210, 220, 230) being based on Finite State Machine; a position instruction unit configured to generate desired positions corresponding to the state data of the joint portions (210, 220, 230); an inclination sensing unit configured to sense an inclination of an upper body (102, 104, 106R, 106L) of the robot; a compensator configured to calculate compensation angles (θpc, θrc) for the joint portions (210, 220, 230) using the sensed inclination of the upper body; a torque calculator configured to determine according to the magnitude of the inclination of the upper body whether the compensation angles (θpc, θrc) are to be applied, to calculate torques using the desired positions and the calculated compensation angles (θpc, θrc) when it is determined that the compensation angles (θpc, θrc) are applied; and a servo controller configured to output the torques to the joint portions (210, 220, 230) to control the walking of the robot.
A multi-part medical tool for intracorporeal injection of a fluid, in particular for positioning a liquid and/or viscous collagen in a human joint, in particular in a hip joint or in a shoulder joint, with at least one hollow cannula, with at least one flexible tube element arrangeable in the hollow cannula, with at least one housing part and with at least one adjusting element, wherein the hollow cannula and the tube element each have a proximal end (2a, 3a) and a distal end (2b, 3b), wherein the hollow cannula - in the arranged state of the tube element - at least partially envelops the tube element on a sheath length and the proximal end of the tube element forms an at least partially curved course outside the sheath length, wherein the hollow cannula is displaceably and/or movably arranged relative to the tube element, wherein the adjusting element is functionally effective connectable and/or connected to the hollow cannula, and wherein the hollow cannula is movable and/or displaceable relative to the tube element by actuation of the adjusting element and the effective sheath length is settable, characterised in that the adjusting element is mounted rotatably about the axis of rotation of the hollow cannula in the area of the housing part and braces itself axially on the proximal end face of the housing part, so that an axial feed or reverse feed of the hollow cannula can be generated by rotating the adjusting element via a thread, to change the effective sheath length of the hollow cannula and to adjust the curvature and/or length of the exposed proximal end (2a, 3a) of the tube element with the aid of the adjusting element.
A power conditioning system for supplying power to a load, comprising: a fuel cell connected to the load; a battery connected to the load in parallel to the fuel cell, the battery serving as a power supply source different from the fuel cell; a battery converter connected between the battery and the load, the battery converter converting an output voltage of the battery at a predetermined required voltage ratio; an internal state estimation unit (11, 13) configured to estimate a wet state of the fuel cell on the basis of predetermined physical quantities including at least the output current and output voltage of the fuel cell characterized by a fuel cell converter connected between the fuel cell and the load, the fuel cell converter converting an output voltage of the fuel cell at a predetermined required voltage ratio; a current bypass path configured to couple the fuel cell and the load while bypassing the fuel cell converter; and an alternating-current voltage application unit configured to apply an alternating-current voltage signal to an output side of the fuel cell converter, thereby applying the alternating-current voltage signal to the fuel cell via the current bypass path, wherein the internal state estimation unit (11, 13) is configured to estimate the wet state of the fuel cell when the alternating-current voltage signal was applied by the alternating-current voltage application unit. a fuel cell connected to the load; a battery connected to the load in parallel to the fuel cell, the battery serving as a power supply source different from the fuel cell; a battery converter connected between the battery and the load, the battery converter converting an output voltage of the battery at a predetermined required voltage ratio; an internal state estimation unit (11, 13) configured to estimate a wet state of the fuel cell on the basis of predetermined physical quantities including at least the output current and output voltage of the fuel cell characterized by a fuel cell converter connected between the fuel cell and the load, the fuel cell converter converting an output voltage of the fuel cell at a predetermined required voltage ratio; a current bypass path configured to couple the fuel cell and the load while bypassing the fuel cell converter; and an alternating-current voltage application unit configured to apply an alternating-current voltage signal to an output side of the fuel cell converter, thereby applying the alternating-current voltage signal to the fuel cell via the current bypass path, wherein the internal state estimation unit (11, 13) is configured to estimate the wet state of the fuel cell when the alternating-current voltage signal was applied by the alternating-current voltage application unit.
A geomagnetic application device applying earth magnetism using a value of the earth magnetism determined by measurement, the device comprising: a triaxial magnetic sensor orthogonally arranged to detect triaxial components of a geomagnetic vector which vary with movement of the geomagnetic application device or with postural change of the geomagnetic application device, as orthogonal triaxial component data; a measurement point acquiring means for acquiring a predetermined number of geomagnetic vectors using the triaxial magnetic sensor and storing acquired data in a measurement point storage unit; a calibration means (5, 6) for calibrating offset of the triaxial magnetic sensor; and an azimuth calculation means for calculating an azimuth which the geomagnetic application device faces, correcting the geomagnetic vectors based on a calibrated offset value obtained by the calibration means, wherein the calibration means is provided with an offset calculation measurement point selection means for selecting at least six measurement points of the geomagnetic vectors from among a data set stored in the measurement point storage unit by the measurement point acquiring means and storing the selected measurement points in an offset calculation measurement point storage unit, and an offset value calculation means for obtaining coordinates of a center point of an ellipsoidal sphere by solving an equation of an ellipsoidal sphere body based on the at least six measurement points stored in the offset calculation measurement point storage unit and for storing the obtained coordinates in a calibrated offset value storage unit, characterized in that the offset calculation measurement point selection means is configured to select the measurement points from among the data set stored in the measurement point storage unit so as to include at least six points, the component values of which are maximum or minimum in each of the three orthogonal axes, and that the offset value calculation means calculates parameters which define the ellipsoidal sphere as an azimuth sphere, based on the data of the selected measurement points. a triaxial magnetic sensor orthogonally arranged to detect triaxial components of a geomagnetic vector which vary with movement of the geomagnetic application device or with postural change of the geomagnetic application device, as orthogonal triaxial component data; a measurement point acquiring means for acquiring a predetermined number of geomagnetic vectors using the triaxial magnetic sensor and storing acquired data in a measurement point storage unit; a calibration means (5, 6) for calibrating offset of the triaxial magnetic sensor; and an azimuth calculation means for calculating an azimuth which the geomagnetic application device faces, correcting the geomagnetic vectors based on a calibrated offset value obtained by the calibration means, wherein
A process of manufacturing a bielastic fabric comprising biopolyamide yarn and elastane yarn, said fabric having a basis weight of 100-250 g/sqm, 40-200% of elasticity in the weft and 30-200% of elasticity in the warp, the process comprising the steps of: a) knitting biopolyamide yarn and elastane yarn to obtain a fabric, and b) heat-setting said fabric in warm air at a temperature not higher than 160°C over a time period not higher than 100 seconds. a) knitting biopolyamide yarn and elastane yarn to obtain a fabric, and b) heat-setting said fabric in warm air at a temperature not higher than 160°C over a time period not higher than 100 seconds.
A test sensor ejection mechanism for ejecting a test sensor from a test sensor cartridge, the ejection mechanism comprising: a stationary gear rack affixed to a surface; a moveable gear rack situated generally parallel to the stationary gear rack, the moveable gear rack being adapted to engage the test sensor; and a gear positioned between and contacting the stationary gear rack and the moveable gear rack, wherein lateral movement of the gear in a first direction generates rotational movement by the gear, both the lateral and rotational movement moving the moveable gear rack laterally in the first direction, the lateral movement of the moveable gear rack in the first direction ejecting the test sensor from the test sensor cartridge. a stationary gear rack affixed to a surface; a moveable gear rack situated generally parallel to the stationary gear rack, the moveable gear rack being adapted to engage the test sensor; and a gear positioned between and contacting the stationary gear rack and the moveable gear rack, wherein lateral movement of the gear in a first direction generates rotational movement by the gear, both the lateral and rotational movement moving the moveable gear rack laterally in the first direction, the lateral movement of the moveable gear rack in the first direction ejecting the test sensor from the test sensor cartridge.
A punching machine which comprises: - A base which has a work table which defines an horizontal resting surface on which an item to be punched is designed to be placed for obtaining punched items; - An operating head that is arranged upon said work table and equipped with punching means to punch said item; said work table comprising at least one opening having a perimeter inside which a movable section of said work table is fitted which defines a supplementary movable surface of said resting surface and which can be moved by moving means (11, 12) between a punching position and a downloading position of said punched items, characterized in that said movable section has moving means (11, 12) in a configuration co-planar with said work table. - A base which has a work table which defines an horizontal resting surface on which an item to be punched is designed to be placed for obtaining punched items; - An operating head that is arranged upon said work table and equipped with punching means to punch said item;
An injection device of fluid product comprising a syringe body and a needle fixed in an axial end projection of the syringe body, said axial end projection being defined between an axial end surface of the syringe body and a radial projection, said injection device comprising a needle protection device, said protection device being, in a storage position, fixed on said injection device, said protection device being removable from said injection device, said protection device comprising an inner body made of substantially supple or deformable material and an outer body made of substantially rigid material, said inner body, in a storage position, sealingly closing the distribution orifice of said needle and sealingly cooperating with said injection device, and said outer body in a storage position, cooperating with said injection device to fix said protection device on said injection device, characterized in that said outer body comprises a fixing part fixed, by snap-fastening, to said radial projection of said axial end projection, and a protection part fixed to said inner body, said protection part being connected to said fixing part by at least one breakable material bridge, said at least one breakable material bridge being broken to remove said protection part and said inner body from said injection device.
A filter cartridge, characterized by comprising: a filter media defining an interior space, and having a first end and a second end; a first end plate connected to the first end; a second end plate connected to the second end, a center tube connected to the second end plate, a pin being connected to the center tube and extending away from second end plate into the interior space, the pin defining a flow passage therethrough that communicates the interior space with an outside of the filter cartridge, characterized in that_the center tube comprises an inner short wall defining a cavity closed at the top by an horizontal plate, wherein a generally horizontal end wall is formed at the lower end of the short wall or an annular wall extending downward from an upper end of the center tube, the cavity being structured to receive air, wherein the pin projects downward from the center of the end wall and is configured to extend downward into at least one opening of a valve assembly, allowing air in the cavity to pass through the flow passage defined in the pin to the outside of the filter cartridge. a filter media defining an interior space, and having a first end and a second end; a first end plate connected to the first end; a second end plate connected to the second end, a center tube connected to the second end plate, a pin being connected to the center tube and extending away from second end plate into the interior space, the pin defining a flow passage therethrough that communicates the interior space with an outside of the filter cartridge, characterized in that_the center tube comprises an inner short wall defining a cavity closed at the top by an horizontal plate, wherein a generally horizontal end wall is formed at the lower end of the short wall or an annular wall extending downward from an upper end of the center tube, the cavity being structured to receive air, wherein the pin projects downward from the center of the end wall and is configured to extend downward into at least one opening of a valve assembly, allowing air in the cavity to pass through the flow passage defined in the pin to the outside of the filter cartridge.
An automatic station for picking up articles comprising: - a movement system which comprises a conveyor defining a movement surface, the movement system being configured to cause, by translation of the conveyor, at least one translation of a plurality of articles operatively supported by the conveyor, along a first region and subsequently along a second region of the movement surface situated, in accordance with this translation, downstream of the first region; - a pick-up unit comprising one or more robot units (31, 32, 33) and configured to pick up, from the first region and from the second region, the articles operatively supported by the conveyor; - a stop unit configured to cause the stopping in the second region of at least one article of the articles operatively supported by the conveyor; - a control system which comprises a positioning sensor unit, the positioning sensor unit being configured to perform at least one measurement of the positioning relative to the conveyor of the articles operatively supported by the conveyor; wherein the control system is configured for: - controlling the pick-up unit, as a function at least of the measurement, so that the pick-up unit picks up from the first region at least a part of the articles operatively supported by the conveyor; - performing at least one derivation of the presence of the at least one article in the second region; - controlling the stop unit, as a function at least of the derivation of the presence, so that the stop unit causes the stopping; - controlling the pick-up unit so that the pick-up unit picks up the at least one article from the second region. - a movement system which comprises a conveyor defining a movement surface, the movement system being configured to cause, by translation of the conveyor, at least one translation of a plurality of articles operatively supported by the conveyor, along a first region and subsequently along a second region of the movement surface situated, in accordance with this translation, downstream of the first region; - a pick-up unit comprising one or more robot units (31, 32, 33) and configured to pick up, from the first region and from the second region, the articles operatively supported by the conveyor; - a stop unit configured to cause the stopping in the second region of at least one article of the articles operatively supported by the conveyor; - a control system which comprises a positioning sensor unit, the positioning sensor unit being configured to perform at least one measurement of the positioning relative to the conveyor of the articles operatively supported by the conveyor; - controlling the pick-up unit, as a function at least of the measurement, so that the pick-up unit picks up from the first region at least a part of the articles operatively supported by the conveyor; - performing at least one derivation of the presence of the at least one article in the second region; - controlling the stop unit, as a function at least of the derivation of the presence, so that the stop unit causes the stopping; - controlling the pick-up unit so that the pick-up unit picks up the at least one article from the second region.