mhurhangee/ep-ind-claims huggingface dataset:
A wear assembly comprising a support structure, for fixing to excavating equipment, a wear member consisting of a tooth point mounted on the support structure, the wear member comprising a front working portion, a rearward formation for receiving the support structure, and an opening with a rotatable lock received in the opening to releasably secure the wear member on the support structure; wherein the lock includes a wedge, characterized by the wedge being rotatable and formed with a first thread formation on its exterior surface, the first thread formation threadedly coupling the wedge to a second thread formation in the opening such that rotation of the wedge moves the wedge into the opening to tighten the lock in the opening; wherein the second thread formation is a helical ridge formed on a body housed in a cavity in the opening, the body being biased into engagement with the first threaded formation on the wedge by a resilient member in the cavity. excavating equipment, a wear member consisting of a tooth point mounted on the support structure, the wear member comprising a front working portion, a rearward formation for receiving the support structure, and an opening with a rotatable lock received in the opening to releasably secure the wear member on the support structure; wherein the lock includes a wedge, characterized by the wedge being rotatable and formed with a first thread formation on its exterior surface, the first thread formation threadedly coupling the wedge to a second thread formation in the opening such that rotation of the wedge moves the wedge into the opening to tighten the lock in the opening; wherein the second thread formation is a helical ridge formed on a body housed in a cavity in the opening, the body being biased into engagement with the first threaded formation on the wedge by a resilient member in the cavity.
Arrangement for treating diesel engine exhaust gases containing nitrogen oxides (NO x) and hydrocarbons, wherein an SCR system comprising an SCR catalyst and an injection device for reducing agents is arranged upstream of an oxidation catalyst and a particulate filter, wherein the SCR catalyst contains a zeolite exchanged with copper (Cu) and/or iron (Fe) and the zeolite is provided such that the hydrocarbons contained in the exhaust gas are kept away by the molecular sieving effect of the zeolite from the active centers in the catalyst at which the reactions take place, wherein the zeolite has a largest lower channel width of 2.6 Å - 4.2 Å.
A method performed by an Admission Control Node for enabling a measurement between a first and a second device in a communication network, the method comprising: - receiving, from the first device, a request for performing the measurement between the first and the second device, - determining segments comprised in a path between the first and the second device, - determining a current measurement situation for the segments, - deciding to allow or reject the request for performing the measurement based on the current measurement situation for the segments, and - informing the first device about the decision of allowing or rejecting the request for performing the measurement. - receiving, from the first device, a request for performing the measurement between the first and the second device, - determining segments comprised in a path between the first and the second device, - determining a current measurement situation for the segments, - deciding to allow or reject the request for performing the measurement based on the current measurement situation for the segments, and - informing the first device about the decision of allowing or rejecting the request for performing the measurement.
A communication method, performed by a communication device, the method comprising: determining a first time-frequency resource, wherein the first time-frequency resource is a physical downlink control channel, PDCCH, candidate in a plurality of PDCCH candidates, wherein the first time-frequency resource comprises a second time-frequency resource used to carry a beamformed control channel and a third time-frequency resource used to carry a reference signal of the beamformed control channel, wherein the first time-frequency resource consists of aplurality of source element, RE sets, each RE set of the plurality of RE sets comprises a same fixed quantity of REs, each RE set of the plurality of RE sets comprises a plurality of RE groups, REGs, each of the plurality of REGs consists of same quantity of REs, and wherein the third time-frequency resource is located at a preset location in each of the plurality of REGs, the preset location in each of the plurality of REGs is the same, and at least one resource in the first time-frequency resource other than the third time-frequency resource is the second time-frequency resource; and demodulating the beamformed control channel according to the reference signal, wherein the beamformed control channel is received in the second time-frequency resource and the reference signal is received in the third time frequency resource determining a first time-frequency resource, wherein the first time-frequency resource is a physical downlink control channel, PDCCH, candidate in a plurality of PDCCH candidates, wherein the first time-frequency resource comprises a second time-frequency resource used to carry a beamformed control channel and a third time-frequency resource used to carry a reference signal of the beamformed control channel, wherein the first time-frequency resource consists of aplurality of source element, RE sets, each RE set of the plurality of RE sets comprises a same fixed quantity of REs, each RE set of the plurality of RE sets comprises a plurality of RE groups, REGs, each of the plurality of REGs consists of same quantity of REs, and wherein the third time-frequency resource is located at a preset location in each of the plurality of REGs, the preset location in each of the plurality of REGs is the same, and at least one resource in the first time-frequency resource other than the third time-frequency resource is the second time-frequency resource; and demodulating the beamformed control channel according to the reference signal, wherein the beamformed control channel is received in the second time-frequency resource and the reference signal is received in the third time frequency resource
Single-portion pack for producing a beverage from a beverage concentrate, comprising a closable concentrate container for holding the beverage concentrate, wherein the single-portion pack has an extraction and mixing device comprising: an extraction means (4a, 4b) for extracting the beverage concentrate from the concentrate container, a mixing chamber for preparing the beverage from the beverage concentrate extracted from the concentrate container and a mixing liquid able to be supplied, an inlet for the mixing liquid into the mixing chamber, and an outlet for the beverage from the mixing chamber, wherein the extraction means comprises at least one piercing part for piercing the concentrate container, characterized in that the at least one piercing part is arranged in the mixing chamber.
A Light Emitting Diode, LED, based lighting device arranged for connection to an Alternating Current, AC, mains supply, comprising: - a zero-crossing detection module arranged for detecting a zero-crossing in an AC voltage supplied by said AC mains supply; - a detection pulse module arranged for providing a detection pulse based on said detected zero-crossing; - a human body detection module arranged for determining a current drawn from said AC mains supply during said provided detection pulse; and - a current limiter arranged for ensuring a constant current drawn from said AC mains supply during said provided detection pulse, wherein said detection pulse module is arranged for providing said detection pulse after said detected zero-crossing, wherein said detection pulse module is arranged for providing a calibration pulse, wherein an end of said calibration pulse and a start of said detection pulse both correspond to said detected zero-crossing, wherein said human body detection module is further arranged for determining a calibration current drawn from said AC mains supply during said provided calibration pulse, and wherein said current limiter is further arranged for ensuring no current or a current lower than the current being drawn during the detection pulse is drawn from said AC mains supply during said provided calibration pulse, wherein the human body detection module is arranged for determining presence of a human body based on a ratio between said determined current and said calibration current. - a zero-crossing detection module arranged for detecting a zero-crossing in an AC voltage supplied by said AC mains supply; - a detection pulse module arranged for providing a detection pulse based on said detected zero-crossing; - a human body detection module arranged for determining a current drawn from said AC mains supply during said provided detection pulse; and - a current limiter arranged for ensuring a constant current drawn from said AC mains supply during said provided detection pulse, wherein said detection pulse module is arranged for providing said detection pulse after said detected zero-crossing, wherein said detection pulse module is arranged for providing a calibration pulse, wherein an end of said calibration pulse and a start of said detection pulse both correspond to said detected zero-crossing, wherein said human body detection module is further arranged for determining a calibration current drawn from said AC mains supply during said provided calibration pulse, and wherein said current limiter is further arranged for ensuring no current or a current lower than the current being drawn during the detection pulse is drawn from said AC mains supply during said provided calibration pulse, wherein the human body detection module is arranged for determining presence of a human body based on a ratio between said determined current and said calibration current.
A method for manufacturing a solid aluminum electrolytic capacitor, comprising: cutting an anode aluminum foil to a width; welding the cut anode aluminum foil to a stainless steel strip, and coating an insulating adhesive to partition an anode zone from a cathode zone; forming the cut anode aluminum foil; preparing a first conductive polymer layer on the formed anode aluminum foil by chemical polymerization, wherein the chemical polymerization comprises: impregnating the anode aluminum foil in a reducing solution for 0.3-3 min and drying the anode aluminum foil; impregnating the anode aluminum foil in an oxidizing solution for 0.3-3 min and drying the anode aluminum foil; and repeating the above steps 1-5 times; preparing a second conductive polymer layer by impregnation in a dispersion of small-size particles; preparing a third conductive polymer layer by impregnation in a dispersion of particles larger than those for the preparation of the second conductive layer; preparing a fourth conductive polymer layer by electrochemical polymerization; preparing a carbon paste layer and a silver paste layer on the anode aluminum foil; and subjecting the resulting product to stacking, packaging, aging and sorting. cutting an anode aluminum foil to a width; welding the cut anode aluminum foil to a stainless steel strip, and coating an insulating adhesive to partition an anode zone from a cathode zone; forming the cut anode aluminum foil; preparing a first conductive polymer layer on the formed anode aluminum foil by chemical polymerization, wherein the chemical polymerization comprises: impregnating the anode aluminum foil in a reducing solution for 0.3-3 min and drying the anode aluminum foil; impregnating the anode aluminum foil in an oxidizing solution for 0.3-3 min and drying the anode aluminum foil; and repeating the above steps 1-5 times; preparing a second conductive polymer layer by impregnation in a dispersion of small-size particles; preparing a third conductive polymer layer by impregnation in a dispersion of particles larger than those for the preparation of the second conductive layer; preparing a fourth conductive polymer layer by electrochemical polymerization; preparing a carbon paste layer and a silver paste layer on the anode aluminum foil; and subjecting the resulting product to stacking, packaging, aging and sorting. impregnating the anode aluminum foil in a reducing solution for 0.3-3 min and drying the anode aluminum foil; impregnating the anode aluminum foil in an oxidizing solution for 0.3-3 min and drying the anode aluminum foil; and repeating the above steps 1-5 times; preparing a second conductive polymer layer by impregnation in a dispersion of small-size particles; preparing a third conductive polymer layer by impregnation in a dispersion of particles larger than those for the preparation of the second conductive layer; preparing a fourth conductive polymer layer by electrochemical polymerization; preparing a carbon paste layer and a silver paste layer on the anode aluminum foil; and subjecting the resulting product to stacking, packaging, aging and sorting.
Absorbent element for spilled petroleum or its derivatives comprising an oil-absorbent, hydrophobic and oleophilic material, essentially based on polyurethane foam, wherein the polyurethane is a polymer of one or more poly-isocyanates, including a polyisocyanate pre-polymer in which part of any diphenylmethanediisocyanate present is blocked by styrene monomers, acrylics, acrylonitrile or their copolymers, and one or more poly-ols or one or more compounds containing reactive hydrogens, the absorbent element having a specific weight in the range of 15-30 g/l and delimiting open cells and closed cells, the latter being in a percentage equal to or lower than 10% of the total cells; said absorbent element being characterized in that adsorbed at the surface of the open cells, said material comprises poly-pyrrole, graphene, calcium carbonate or mixtures thereof in order to improve the oleophilia of said material.
A motor vehicle (2, 200) with a mirror system comprising a single external viewing mirror (1, 21, 31, 61, 62, 261, 262, 283) associated, in use, with a plurality of image mirrors (6, 6, 77, 41) through a respective optical path to the viewing mirror to be seen in use by a driver to form a composite image in the viewing mirror comprising image parts from each image mirror and the viewing mirror, each image part being different and defined by an individual external reflection path to the viewing mirror then along the external optical path to be seen by the driver in use, the viewing mirror is integrated within the upper part of an 'A' pillar or door (103, 104, 203) of the vehicle, at least one image mirror provides part of Its reflection in the optical path substantially aligned directly across a rear of the vehicle and at least one external optical path includes reflection between at least two image mirrors before the viewing mirror wherein at least the viewing mirror is an integral part of the vehicle A pillar or door, the mirror system longer, in an upright direction, in comparison with its width, with several zones provided all about a driver's eye level, stacked on top of one another.
An immunogenic composition or a combination vaccine or a combination comprising a) at least one porcine parvovirus antigen, wherein the at least one PPV antigen is one or more PPV subunit(s) and the at least one PPV subunit(s) is PPV viral protein 2, wherein the PPV VP2 consists of an amino acid sequence having at least 99%, preferably 100% sequence identity with the amino acid sequence of SEQ ID NO:2, wherein preferably the PPV VP2 is the only PPV antigen, and b) at least one porcine reproductive and respiratory syndrome (PRRS) virus antigen, wherein the at least one PRRS virus antigen is a live attenuated/modified live PRRS virus selected from the group consisting of live attenuated/modified live PRRS virus type 1 genotype, live attenuated/modified live PRRS virus type 2 genotype, live attenuated/modified live PRRS virus strain 94881 and PRRS virus strain ATCC deposit VR-2332. a) at least one porcine parvovirus antigen, wherein the at least one PPV antigen is one or more PPV subunit(s) and the at least one PPV subunit(s) is PPV viral protein 2, wherein the PPV VP2 consists of an amino acid sequence having at least 99%, preferably 100% sequence identity with the amino acid sequence of SEQ ID NO:2, wherein preferably the PPV VP2 is the only PPV antigen, and b) at least one porcine reproductive and respiratory syndrome (PRRS) virus antigen, wherein the at least one PRRS virus antigen is a live attenuated/modified live PRRS virus selected from the group consisting of live attenuated/modified live PRRS virus type 1 genotype, live attenuated/modified live PRRS virus type 2 genotype, live attenuated/modified live PRRS virus strain 94881 and PRRS virus strain ATCC deposit VR-2332.
A motor for a personal care device, the motor comprising: a stator comprising a stator surface; a rotor comprising a rotor surface, wherein the stator is adjacent to the rotor in a y-direction such that the rotor surface is disposed opposite the stator surface in the y-direction, wherein the interaction between the magnetic field from the stator and the rotor causes a torque in the y-direction; and a spacer projecting between the stator surface and the rotor surface so as to define a minimum airgap between the stator and the rotor in the y-direction, wherein the spacer is disposed on or at one of the rotor surface and the stator surface, characterized in that the spacer has a curved contact surface configured to engage with the other one of the rotor surface and the stator surface, the other surface being a flat surface. a stator comprising a stator surface; a rotor comprising a rotor surface, wherein the stator is adjacent to the rotor in a y-direction such that the rotor surface is disposed opposite the stator surface in the y-direction, wherein the interaction between the magnetic field from the stator and the rotor causes a torque in the y-direction; and a spacer projecting between the stator surface and the rotor surface so as to define a minimum airgap between the stator and the rotor in the y-direction, wherein the spacer is disposed on or at one of the rotor surface and the stator surface, characterized in that the spacer has a curved contact surface configured to engage with the other one of the rotor surface and the stator surface, the other surface being a flat surface.
A sole structure for an article of footwear including an upper-facing surface and a ground-facing surface opposite the upper-facing surface, comprising: a heel-supporting region including a central area surrounded by a first plurality of rings (424A, 424B) defined in the ground-facing surface; a forefoot-supporting region including a central area surrounded by a second plurality of rings (424C, 424D) defined in the ground-facing surface, wherein the heel-supporting region and the forefoot-supporting region constitute parts of a single midsole element made from a polymeric foam material, wherein each of the first plurality of rings and the second plurality of rings includes: a first ring (424A, 424C) that surrounds the central area and a second ring (424B, 424D) that surrounds the first ring; and an outsole component partially covering the single midsole element, wherein the outsole component includes a first opening through which at least some of the first plurality of rings are exposed and a second opening through which at least some of the second plurality of rings are exposed. a heel-supporting region including a central area surrounded by a first plurality of rings (424A, 424B) defined in the ground-facing surface; a forefoot-supporting region including a central area surrounded by a second plurality of rings (424C, 424D) defined in the ground-facing surface, wherein the heel-supporting region and the forefoot-supporting region constitute parts of a single midsole element made from a polymeric foam material, wherein each of the first plurality of rings and the second plurality of rings includes: a first ring (424A, 424C) that surrounds the central area and a second ring (424B, 424D) that surrounds the first ring; and an outsole component partially covering the single midsole element, wherein the outsole component includes a first opening through which at least some of the first plurality of rings are exposed and a second opening through which at least some of the second plurality of rings are exposed.
A vehicle controller, comprising: a first grip handle, a second grip handle, and a control area adjacent to the first and second grip handles, wherein the control area includes at least one control device (115, 120, 125); and a function bridge module (405; 505; 605; 705; 940), wherein the function bridge module is positioned between the first and second grip handles and below the control area, wherein the function bridge module is removeably attached to at least one of the first grip handle, the second grip handle and the control area, wherein the positioning of the function bridge causes a center of mass of the grip handles to be distributed between the user's hands during use of the vehicle controller. a first grip handle, a second grip handle, and a control area adjacent to the first and second grip handles, wherein the control area includes at least one control device (115, 120, 125); and a function bridge module (405; 505; 605; 705; 940), wherein the function bridge module is positioned between the first and second grip handles and below the control area, wherein the function bridge module is removeably attached to at least one of the first grip handle, the second grip handle and the control area, wherein the positioning of the function bridge causes a center of mass of the grip handles to be distributed between the user's hands during use of the vehicle controller.