mhurhangee/ep-ind-claims huggingface dataset:
A bicycle rear shock absorber, comprising: a damper tube defines a first diameter; a piston rod defines a second diameter, where said piston rod carries a piston, said piston and said piston rod capable of telescopic movement with respect to said damper tube, wherein said piston cooperates with said damper tube to at least partially define a variable volume compression chamber and at least partially define a variable volume rebound chamber; a reservoir tube that is separate and remote from said damper tube, wherein said reservoir tube defines a reservoir chamber of said shock absorber, wherein fluid is displaced to said reservoir chamber from said compression chamber during compression movement of said shock absorber, and wherein fluid returns to said compression chamber from said reservoir chamber during rebound movement of said shock absorber; wherein a ratio of said first diameter to said second diameter is between about 1.05:1 and about 2.5:1, and approximately 50% or more of compression damping during said compression movement of said shock absorber is accomplished by a compression damping circuit located in said reservoir tube, said compression damping circuit comprising a pressure-activated valve and an acceleration-activated valve, said acceleration-activated valve comprising an inertia mass slidably supported on a shaft, characterized in that a compression fluid flow of damping fluid, generated by compression movement of said piston and said piston rod relative to said damper tube, can pass through and be regulated by said pressure-activated valve without passing through said shaft. a damper tube defines a first diameter; a piston rod defines a second diameter, where said piston rod carries a piston, said piston and said piston rod capable of telescopic movement with respect to said damper tube, wherein said piston cooperates with said damper tube to at least partially define a variable volume compression chamber and at least partially define a variable volume rebound chamber; a reservoir tube that is separate and remote from said damper tube, wherein said reservoir tube defines a reservoir chamber of said shock absorber, wherein fluid is displaced to said reservoir chamber from said compression chamber during compression movement of said shock absorber, and wherein fluid returns to said compression chamber from said reservoir chamber during rebound movement of said shock absorber; wherein a ratio of said first diameter to said second diameter is between about 1.05:1 and about 2.5:1, and approximately 50% or more of compression damping during said compression movement of said shock absorber is accomplished by a compression damping circuit located in said reservoir tube, said compression damping circuit comprising a pressure-activated valve and an acceleration-activated valve, said acceleration-activated valve comprising an inertia mass slidably supported on a shaft, characterized in that a compression fluid flow of damping fluid, generated by compression movement of said piston and said piston rod relative to said damper tube, can pass through and be regulated by said pressure-activated valve without passing through said shaft.
An air gun (10, 100, 210, 400) for tuning the rise time of the primary pressure pulse from firing the air gun (10, 100, 210, 400), comprising: a housing (18, 162, 218, 362, 416) having an operating chamber (30, 130) and discharge ports (70, 270, 356, 414); a firing piston (36, 136, 358, 410) movable within the housing (18, 162, 218, 362, 416); a firing chamber (62, 352, 368, 404, 477) attached to the housing (18, 162, 218, 362, 416), wherein the average rising slope of the primary pressure pulse from firing the air gun (10, 100, 210, 400) is less than 40 Pa-m/s (0.4 bar-m/ms), characterized in that the firing chamber (62, 352, 368, 404, 477) is made to a specific length of 0.343 meters for every one millisecond (1.126 feet per millisecond) adjustment of the rise time of the primary pressure pulse, and the firing chamber (62, 352, 368, 404, 477) having a firing chamber seal (167, 174, 352, 402) adjacent an inner edge (165, 412) of the discharge ports (70, 270, 356, 414) providing zero acceleration distance. a housing (18, 162, 218, 362, 416) having an operating chamber (30, 130) and discharge ports (70, 270, 356, 414); a firing piston (36, 136, 358, 410) movable within the housing (18, 162, 218, 362, 416); a firing chamber (62, 352, 368, 404, 477) attached to the housing (18, 162, 218, 362, 416), wherein the average rising slope of the primary pressure pulse from firing the air gun (10, 100, 210, 400) is less than 40 Pa-m/s (0.4 bar-m/ms), characterized in that the firing chamber (62, 352, 368, 404, 477) is made to a specific length of 0.343 meters for every one millisecond (1.126 feet per millisecond) adjustment of the rise time of the primary pressure pulse, and the firing chamber (62, 352, 368, 404, 477) having a firing chamber seal (167, 174, 352, 402) adjacent an inner edge (165, 412) of the discharge ports (70, 270, 356, 414) providing zero acceleration distance.
A method for preparing a mixture of a powder of an electrode active compound and of a powder of an electron conducting compound, in which the following successive steps are performed: - a liquid medium is prepared, containing the powder of the electrode active compound and the powder of the electron conducting compound; - the liquid medium containing the powder of the electrode active compound and the powder of the electron conducting compound is subjected to the action of high energy ultrasonic waves produced by placing the probe of a high intensity, high energy, sonicator in the liquid medium, wherein the energy density produced by the ultrasonic waves is from 50 to 1000 W/L, preferably from 150 to 700 W/L, and still preferably from 300 to 500 W/L of the liquid medium; - the liquid medium is removed; - the mixture of the powder of the electrode active compound and of the powder of the electron conducting compound is collected. - a liquid medium is prepared, containing the powder of the electrode active compound and the powder of the electron conducting compound; - the liquid medium containing the powder of the electrode active compound and the powder of the electron conducting compound is subjected to the action of high energy ultrasonic waves produced by placing the probe of a high intensity, high energy, sonicator in the liquid medium, wherein the energy density produced by the ultrasonic waves is from 50 to 1000 W/L, preferably from 150 to 700 W/L, and still preferably from 300 to 500 W/L of the liquid medium; - the liquid medium is removed; - the mixture of the powder of the electrode active compound and of the powder of the electron conducting compound is collected.
An apparatus comprising: a goggle lens; and a mud visor comprising an upper portion configured to attach to the goggle lens, and a film covering portion configured to cover a top portion of a roll-off film conveyed across the goggle lens, characterized in that the mud visor comprises a substantially transparent sheet attached to the goggle lens using a transparent adhesive disposed on a back surface of an upper portion of the transparent sheet to cover a top portion of the goggle lens. a goggle lens; and a mud visor comprising an upper portion configured to attach to the goggle lens, and a film covering portion configured to cover a top portion of a roll-off film conveyed across the goggle lens, characterized in that the mud visor comprises a substantially transparent sheet attached to the goggle lens using a transparent adhesive disposed on a back surface of an upper portion of the transparent sheet to cover a top portion of the goggle lens.
A display device, in which pixels of a display panel are arranged in an array and to charge a data voltage during a pixel driving period, comprising: a timing controller configured to transmit a preamble signal, control data, and data of an input image to a source driver integrated circuit, IC, (SDIC), during the pixel driving period, characterized in that touch sensors are embedded in the pixel array of the display panel and arranged to be driven during a touch sensor driving period, the timing controller is configured to transmit the preamble signal to the source driver during the sensor driving period, the pixels are held at a last data voltage, which was charged during the pixel driving period, or a specific voltage during the touch sensor driving period, wherein a clock recovery circuit of the source driver IC (SDIC) continuously performs clock training for generating an internal clock in response to the preamble signal during the touch sensor driving period, and wherein an output channel of the source driver IC (SDIC) is held at the last data voltage or a specific DC voltage without outputting a new data voltage during the touch sensor driving period, wherein the timing controller does not transmit the control data and the data of the input image to the source driver IC (SDIC) during the touch sensor driving period. a timing controller configured to transmit a preamble signal, control data, and data of an input image to a source driver integrated circuit, IC, (SDIC), during the pixel driving period,
A laser processing method comprising: performing irradiation with a laser beam along a first cutting path set on a first circular arc exceeding 180 degrees from a first point to a second point on a circle indicating a round hole to be formed in a sheet metal and continuously cutting the first cutting path to form a first cutting line having a circular-arc shape on the sheet metal; forming, in the circle, a plurality of dividing lines that include dividing lines with a plurality of angular positions on the first cutting line as start points for cutting to divide an area in the circle into a plurality of scraps (Sc1-Sc7, Sc1-Sc9, Sc1-Sc22); and performing irradiation with a laser beam along a second cutting path set on a second circular arc that is uncut and extends from the second point to the first point and cutting the second cutting path to form a second cutting line having a circular-arc shape on the sheet metal so as to form a final scrap (Sc8, Sc10, Sc23, Sc24) for forming the round hole. performing irradiation with a laser beam along a first cutting path set on a first circular arc exceeding 180 degrees from a first point to a second point on a circle indicating a round hole to be formed in a sheet metal and continuously cutting the first cutting path to form a first cutting line having a circular-arc shape on the sheet metal; forming, in the circle, a plurality of dividing lines that include dividing lines with a plurality of angular positions on the first cutting line as start points for cutting to divide an area in the circle into a plurality of scraps (Sc1-Sc7, Sc1-Sc9, Sc1-Sc22); and performing irradiation with a laser beam along a second cutting path set on a second circular arc that is uncut and extends from the second point to the first point and cutting the second cutting path to form a second cutting line having a circular-arc shape on the sheet metal so as to form a final scrap (Sc8, Sc10, Sc23, Sc24) for forming the round hole.
A method of updating a radio link parameter for a radio communications system having a network controller, a base station connected with the network controller, and a user terminal, in communication with the base station, the method comprising: when the base station needs to update the radio link parameter it triggers the radio link parameter updating by sending by the base station to the network controller parameter information to initiate update of the radio link parameter through a message between the base station and the network controller, wherein the radio link parameter is a high speed downlink packet access HSDPA related parameter, for a high speed downlink shared channel HS-DSCH, wherein the parameter information includes at least one of a channel quality indicator, CQL, feedback cycle information and a CQI repetition factor information of the user terminal, and wherein the message is sent to the network controller from the base station. when the base station needs to update the radio link parameter it triggers the radio link parameter updating by sending by the base station to the network controller parameter information to initiate update of the radio link parameter through a message between the base station and the network controller, wherein the radio link parameter is a high speed downlink packet access HSDPA related parameter, for a high speed downlink shared channel HS-DSCH, wherein the parameter information includes at least one of a channel quality indicator, CQL, feedback cycle information and a CQI repetition factor information of the user terminal, and wherein the message is sent to the network controller from the base station.
A granulated material mixture suitable for regenerating a bone, comprising at least one expandable particle and at least one non-deformable particle, wherein the at least one expandable particle comprises a hydrogel as swelling agent, and wherein the hydrogel of the at least one expandable particle is enclosed by a degradable covering, in particular a casing, characterized in that the swelling agent of the at least one expandable particle comprises carboxymethylcellulose and/or the degradable shell comprises a copolymer made of polyglycolic acid and polylactic acid.
A method comprising: receiving, at a label stability analyzer service, classification data indicative of device type labels assigned to endpoints in a network by a device classification service; counting, by the label stability analyzer service, device type label changes made by the device classification service to the endpoints; computing, by the label stability analyzer service, variability metrics for the device type labels, wherein the variability metric for a device type label is based on a count of the device type label changes associated with that label; determining, by the label stability analyzer service and based on one of the variability metrics for a particular one of the device type labels exceeding a threshold value, a configuration change for the device classification service that adjusts how the device classification service applies the particular label to endpoints; and providing, by the label stability analyzer service, the configuration change to the device classification service. receiving, at a label stability analyzer service, classification data indicative of device type labels assigned to endpoints in a network by a device classification service; counting, by the label stability analyzer service, device type label changes made by the device classification service to the endpoints; computing, by the label stability analyzer service, variability metrics for the device type labels, wherein the variability metric for a device type label is based on a count of the device type label changes associated with that label; determining, by the label stability analyzer service and based on one of the variability metrics for a particular one of the device type labels exceeding a threshold value, a configuration change for the device classification service that adjusts how the device classification service applies the particular label to endpoints; and providing, by the label stability analyzer service, the configuration change to the device classification service.
An antenna device (100; 100a; 100b; 100c; 100d; 100e) comprising: a rod-shaped conductor (2; 2a) configured to be disposed perpendicularly to a grounding face part; a plurality of first linear members for supporting the rod-shaped conductor (2; 2a) by a tension structure; a first bent conductor (10; 10a) having a first linear conductor disposed so as to branch from the rod-shaped conductor (2; 2a) and disposed so as to be inclined with respect to the grounding face part, and a second linear conductor (9; 9a) disposed so as to be continuous with a distal end of the first linear conductor and disposed along a first linear member selected from among the plurality of first linear members; a first selective transmission part disposed at an end of the first linear conductor on the same side as the rod-shaped conductor (2; 2a); and a second selective transmission part disposed in the rod-shaped conductor (2; 2a), wherein the rod-shaped conductor (2; 2a) and the first bent conductor (10; 10a) constitute a first antenna element part having a first electrical length corresponding to a first operation frequency, and a second antenna element part having a second electrical length corresponding to a second operation frequency. a rod-shaped conductor (2; 2a) configured to be disposed perpendicularly to a grounding face part; a plurality of first linear members for supporting the rod-shaped conductor (2; 2a) by a tension structure; a first bent conductor (10; 10a) having a first linear conductor disposed so as to branch from the rod-shaped conductor (2; 2a) and disposed so as to be inclined with respect to the grounding face part, and a second linear conductor (9; 9a) disposed so as to be continuous with a distal end of the first linear conductor and disposed along a first linear member selected from among the plurality of first linear members; a first selective transmission part disposed at an end of the first linear conductor on the same side as the rod-shaped conductor (2; 2a); and a second selective transmission part disposed in the rod-shaped conductor (2; 2a), wherein the rod-shaped conductor (2; 2a) and the first bent conductor (10; 10a) constitute a first antenna element part having a first electrical length corresponding to a first operation frequency, and a second antenna element part having a second electrical length corresponding to a second operation frequency.
Construction element of open box-section type, more specifically for constructing roofing, walls or floors, the said construction element comprising at least one base sheet which is provided with ribs and an insulating material being arranged between the aforementioned ribs, the base sheet being applied only to one flat side of the construction element, the other flat side, the open side, being formed mainly by the insulating material, so that no structural element of the construction element is situated above the insulating material, the aforementioned insulating material being made up of at least one first layer and one second layer of a different material, characterized in that the aforementioned first layer is made from an insulating foam which is applied in liquid form to the construction element and hardened thereon, and in that the aforementioned first layer is separated from the aforementioned base sheet at least by the aforementioned second layer.
A tooling apparatus, comprising: a pair of elongated tooling dies independently rotatable about a common central axis; each tooling die having a layup surface including a web layup surface and at least one flange layup surface oriented non-parallel to the web layup surface and configured to receive at least one composite ply to form a stringer layup (150, 160) half having a web and at least one flange; and the tooling dies being rotatable into side-by-side relation causing the webs of the stringer layup halves (150, 160) to be positioned in back-to-back mating contact with one another. a pair of elongated tooling dies independently rotatable about a common central axis; each tooling die having a layup surface including a web layup surface and at least one flange layup surface oriented non-parallel to the web layup surface and configured to receive at least one composite ply to form a stringer layup (150, 160) half having a web and at least one flange; and the tooling dies being rotatable into side-by-side relation causing the webs of the stringer layup halves (150, 160) to be positioned in back-to-back mating contact with one another.
A fluorine-containing polymer prepared by polymerizing a monomer comprising: a polyfluoroalkyl group-containing (meth) acrylate, in the presence of: an isocyanate compound blocked with at least one blocking agent selected from the group consisting of a pyrazole compound and a malonate ester compound, and a functional organopolysiloxane, characterized in that the functional organopolysiloxane bonds to the fluorine-containing polymer through the functional organic group, and the blocked isocyanate compound is a compound having a blocked isocyanate group and no polymerizable unsaturated group. a polyfluoroalkyl group-containing (meth) acrylate, in the presence of: an isocyanate compound blocked with at least one blocking agent selected from the group consisting of a pyrazole compound and a malonate ester compound, and a functional organopolysiloxane,
An electric power conversion device comprising three delta-connected strings of clusters (109 to 111) and windings (105 to 107), where each cluster is comprised of one or more cascade-connected unit cells, wherein each of said unit cells is a two-terminal element that can output a predetermined voltage, and wherein said three windings are coiled around a common iron core so that magnetomotive forces are in additive polarity, thereby creating a common iron core reactor.
A computer-implemented method, comprising: receiving 3D scan data from scans of an object in a plurality of trials; post processing the scan data to generate a scanned reproduction of the object based on the scan data; determining, using the scanned reproduction of the object, objective outputs in the plurality of trials as to whether the post-processing of the scan data can return an accurate scanned reproduction of the objects in the plurality of trials; training a machine learning algorithm over the plurality of trials to improve a correspondence between the objective outputs and a calculated output of the machine learning algorithm for the scan data, the machine learning algorithm operable to predict, upon completion of a new scan of a new object and prior to post-processing new scan data produced by the new scan, whether the new scan data can return an accurate scanned reproduction of the new object; applying the machine learning algorithm to the new scan of the new object to determine whether the new scan of the new object can return the accurate scanned reproduction of the new object; and suggesting an alternative position for the new object based, at least in part, on scan environment attributes included in the new scan data, in response to determining, prior to the post-processing of the new scan data, that the new scan is unlikely to return the accurate scanned reproduction of the new object. receiving 3D scan data from scans of an object in a plurality of trials; post processing the scan data to generate a scanned reproduction of the object based on the scan data; determining, using the scanned reproduction of the object, objective outputs in the plurality of trials as to whether the post-processing of the scan data can return an accurate scanned reproduction of the objects in the plurality of trials; training a machine learning algorithm over the plurality of trials to improve a correspondence between the objective outputs and a calculated output of the machine learning algorithm for the scan data, the machine learning algorithm operable to predict, upon completion of a new scan of a new object and prior to post-processing new scan data produced by the new scan, whether the new scan data can return an accurate scanned reproduction of the new object; applying the machine learning algorithm to the new scan of the new object to determine whether the new scan of the new object can return the accurate scanned reproduction of the new object; and suggesting an alternative position for the new object based, at least in part, on scan environment attributes included in the new scan data, in response to determining, prior to the post-processing of the new scan data, that the new scan is unlikely to return the accurate scanned reproduction of the new object.