mhurhangee/ep-ind-claims huggingface dataset:
A method for wireless communications by a User Equipment, UE (102, 206), comprising: receiving a configuration of a first index for a first cell (902, 904, 906, 908), wherein the first index is mapped to a first position in a Downlink Control Information, DCI, message; receiving a configuration of a second index for a second cell, wherein the first index and the second index are different, and wherein the first index is configured as a configuration index and a first offset and the second index is configured as the configuration index and a second offset; receiving the DCI message in a subframe; determining an indication of an uplink/downlink, UL/DL, subframe configuration for the first cell (902, 904, 906, 908) based on the first index and the DCI message, wherein the first index is configured as the configuration index and the first offset; and communicating with the first cell (902, 903, 906, 908) based on the determined UL/DL subframe configuration for the first cell (902, 904, 906, 908). receiving a configuration of a first index for a first cell (902, 904, 906, 908), wherein the first index is mapped to a first position in a Downlink Control Information, DCI, message; receiving a configuration of a second index for a second cell, wherein the first index and the second index are different, and wherein the first index is configured as a configuration index and a first offset and the second index is configured as the configuration index and a second offset; receiving the DCI message in a subframe; determining an indication of an uplink/downlink, UL/DL, subframe configuration for the first cell (902, 904, 906, 908) based on the first index and the DCI message, wherein the first index is configured as the configuration index and the first offset; and communicating with the first cell (902, 903, 906, 908) based on the determined UL/DL subframe configuration for the first cell (902, 904, 906, 908).
OPW airbag having a seam construction for a fabric with at least one, at least two-layered first chamber having an upper and a lower fabric layer (01, U1), each of which being provided with a fluid-impermeable coating, characterized in that adjacent to the first chamber a woven, at least two-layered tubular second chamber is arranged, which essentially surrounds the first chamber and has an upper and a lower fabric layer (02, U2), each of which being provided with a fluid-impermeable coating, and that, adjoining the same, at least one single-layered woven seam provided on both sides with a fluid-impermeable coating is arranged, and that the second chamber is filled with a sealing agent such that the latter is sealingly connected to the fluid-impermeable coating by penetrating the upper and lower fabric layers (02, U2).
A method for constructing a cultivation and/or transport table, wherein a first and a second profile (5, 6) are interconnected at an angle, preferably an approximately straight angle, to each other for forming a cultivation and/or transport table frame, wherein the first profile and the second profile are interconnected with the aid of a connecting element, and characterised in that a profile part of the first profile engages behind a profile part of the second profile wherein the first profile comprises a supporting surface; wherein the second profile comprises a supporting surface; such that when engaging the profile part behind the profile part, the supporting surface abuts against supporting surface to achieve a clamping of the first profile in the second profile allowing that the first profile can slide along the supporting surface of the second profile; while the connecting element prevents the profiles (5, 6) from sliding further relative to each other
A video encoding method according to scalable extensions of high efficiency video coding, SHVC, comprising: comparing a number of active reference layers with a number of direct reference layers, wherein the number of active reference layers indicates a number of reference layers that can be used for inter-layer prediction by a current picture of a current layer; and on a condition that the number of active reference layers is not equal to the number of direct reference layers, generating a bitstream comprising one or more layers and including, in a slice level header of the bitstream, a list of reference picture layer IDs that can be used for inter-layer prediction by the current picture of the current layer; on a condition that the number of active reference layers is equal to the number of direct reference layers, generating a bitstream comprising one or more layers and not including any indication of a list of reference picture layer IDs that can be used for inter-layer prediction by the current picture of the current layer. comparing a number of active reference layers with a number of direct reference layers, wherein the number of active reference layers indicates a number of reference layers that can be used for inter-layer prediction by a current picture of a current layer; and on a condition that the number of active reference layers is not equal to the number of direct reference layers, generating a bitstream comprising one or more layers and including, in a slice level header of the bitstream, a list of reference picture layer IDs that can be used for inter-layer prediction by the current picture of the current layer; on a condition that the number of active reference layers is equal to the number of direct reference layers, generating a bitstream comprising one or more layers and not including any indication of a list of reference picture layer IDs that can be used for inter-layer prediction by the current picture of the current layer.
A robot lawnmower (10, 11, 12, 13, 14, 15, 16, 17, 18, 19) comprising: a body; a drive system carried by the body and configured to maneuver the robot (10, 11, 12, 13, 14, 15, 16, 17, 18, 19) across a lawn (20, 1020); a grass cutter (200, 200A, 200B, 2000A, 2050, 2100, 2200) carried by the body; and a swath edge detector (310A, 310B, 310C, 310D, 310E, 310F, 310G, 310H, 310I) carried by the body and configured to detect a swath edge between cut grass and uncut grass while the drive system maneuvers the robot (10, 11, 12, 13, 14, 15, 16, 17, 18, 19) across the lawn (20, 1020) while following a detected swath edge, characterized in that the swath edge detector (310, 310A, 310B, 310C, 310D, 310E, 310F, 310G, 310H, 310I) includes a calibrator (320, 320A, 320B) that monitors uncut grass adjacent the swath edge for calibration of the swath edge detector (310, 310A, 310B, 310C, 310D, 310E, 310F, 310G, 310H, 3101).
Marking apparatus for marking an object comprising - a marking head having a plurality of marking devices for applying a marking on the object and - a driving mechanism for providing a relative movement of the object relative to the marking head in an advance direction during a marking operation, wherein - the marking head comprises in addition to the plurality of marking devices a plurality of sensor devices, - the sensor devices are arranged downstream of the marking devices in the advance direction, so that the marking applied by the marking devices is detectable by the sensor devices, when the object is moved relative to the marking head in the advance direction, characterized in that - the marking head is rotatable about an axis perpendicular to the advance direction in order to variably adapt the resolution of the marking. - a marking head having a plurality of marking devices for applying a marking on the object and - a driving mechanism for providing a relative movement of the object relative to the marking head in an advance direction during a marking operation, wherein - the marking head comprises in addition to the plurality of marking devices a plurality of sensor devices, - the sensor devices are arranged downstream of the marking devices in the advance direction, so that the marking applied by the marking devices is detectable by the sensor devices, when the object is moved relative to the marking head in the advance direction, characterized in that - the marking head is rotatable about an axis perpendicular to the advance direction in order to variably adapt the resolution of the marking.
An oil or fat composition, which has an MCPD-FS content X (ppm) and a hydroxyl value Y (mg-KOH/g) satisfying a relationship of the following expression, the content X being measured by a Deutsche Gesellschaft für Fettwissenschaft standard method C-III 18, and has a content (%) of trans isomers of linoleic acids in constituent fatty acids of an oil or fat, of 2 or more. Y ≥ 1.25 ⁢ X + 4 where Y ≤ 88
Seed drill comprising: - a front chassis, - a rear chassis, - a hopper mounted on the front chassis and intended to be filled with granulates, - a wheel-train mounted on the front chassis and on which the seed drill rests in a work configuration, - a seedbar mounted on the rear chassis - a dispensing system intended to transport the granulates from the hopper to the seedbar, the seedbar being intended to put the granulates coming from the hopper into the ground, in which, in its work configuration, wheels (51, 52, 53) of the wheel-train are arranged on at least three successive levels in a direction of advance, the three levels having axes (Al, A2, A3) which are distinct and transverse to a median plane of the seed drill, the three wheel (51, 52, 53) levels all belonging to the front chassis, characterised in that the rear chassis is mounted in an articulated manner to the front chassis by means of a pivot pin with a vertical axis, and in which the vertical axis of the pivot pin is arranged between the vertical plane passing through the axis of the foremost wheel level and the vertical plane passing through the axis of the rearmost wheel level. - a front chassis, - a rear chassis, - a hopper mounted on the front chassis and intended to be filled with granulates, - a wheel-train mounted on the front chassis and on which the seed drill rests in a work configuration, - a seedbar mounted on the rear chassis - a dispensing system intended to transport the granulates from the hopper to the seedbar, the seedbar being intended to put the granulates coming from the hopper into the ground,
An agent, which is a liposome formulation comprising: (a) cell-wall fragments from a Mycobacterium tuberculosis- complex (MTB-C) strain, (b) a liposome forming agent, and (c) 1 to 20 % sucrose for use in prevention or therapy of an allergic response of a human or animal. (a) cell-wall fragments from a Mycobacterium tuberculosis- complex (MTB-C) strain, (b) a liposome forming agent, and (c) 1 to 20 % sucrose for use in prevention or therapy of an allergic response of a human or animal.
A method of making a progressive-power lens, the method comprising comprising: Designing an object-side refractive surface and an eye-side refractive surface, the object-side refractive surface being either spherical or rotationally symmetric aspherical, the eye-side refractive surface having a progressive-power surface including a distance portion having positive power and having power to view relatively distant objects, a near portion having power to view relatively near objects, and an intermediate portion having continuously varying power to view intermediate objects between the distant and near objects, wherein the eye-side refractive surface of the distance portion is concave, and at least part of the eye-side refractive surface of the near portion is a convex region where one or both of principal meridians of the surface are convex, characterized in that the ratio of the surface area of the convex region within a circle having a radius of 25 mm from the geometrical center of the progressive-power lens to the surface area of the circle is less than or equal to 30%, an aspherical surface that corrects the astigmatism increased by providing the convex region is further added in the eye-side refractive surface, manufacturing the thus designed progressive-power lens. Designing an object-side refractive surface and an eye-side refractive surface, the object-side refractive surface being either spherical or rotationally symmetric aspherical, the eye-side refractive surface having a progressive-power surface including a distance portion having positive power and having power to view relatively distant objects, a near portion having power to view relatively near objects, and an intermediate portion having continuously varying power to view intermediate objects between the distant and near objects, wherein the eye-side refractive surface of the distance portion is concave, and at least part of the eye-side refractive surface of the near portion is a convex region where one or both of principal meridians of the surface are convex, characterized in that the ratio of the surface area of the convex region within a circle having a radius of 25 mm from the geometrical center of the progressive-power lens to the surface area of the circle is less than or equal to 30%, an aspherical surface that corrects the astigmatism increased by providing the convex region is further added in the eye-side refractive surface, manufacturing the thus designed progressive-power lens.
A spark ignition internal combustion engine comprising a control unit for controlling forced-ignition timing, wherein the control unit is configured to: calculate a maximum cylinder internal pressure (Pmax) in the case where it is assumed that equivolume combustion has been performed based on a cylinder internal pressure at compression top dead center at the time of adiabatic compression and a degree of explosion (p) according to a charging efficiency; calculate a maximum cylinder internal temperature (Tmax) in the case where it is assumed that equivolume combustion has been performed based on a cylinder internal temperature at compression top dead center at the time of adiabatic compression and the degree of explosion (p); calculate a self-ignition delay time (Tmin) based on the maximum cylinder internal pressure (Pmax) and the maximum cylinder internal temperature (Tmax); determine a knock limit forced-ignition timing based on the calculated self-ignition delay time (Tmin); and control the forced-ignition timing based on a result of the knock limit forced-ignition determination. calculate a maximum cylinder internal pressure (Pmax) in the case where it is assumed that equivolume combustion has been performed based on a cylinder internal pressure at compression top dead center at the time of adiabatic compression and a degree of explosion (p) according to a charging efficiency; calculate a maximum cylinder internal temperature (Tmax) in the case where it is assumed that equivolume combustion has been performed based on a cylinder internal temperature at compression top dead center at the time of adiabatic compression and the degree of explosion (p); calculate a self-ignition delay time (Tmin) based on the maximum cylinder internal pressure (Pmax) and the maximum cylinder internal temperature (Tmax); determine a knock limit forced-ignition timing based on the calculated self-ignition delay time (Tmin); and control the forced-ignition timing based on a result of the knock limit forced-ignition determination.
Apparatus for adjusting a processing tool of a sheet processing machine, wherein the at least one processing tool can be positioned on a support surface of the adjusting apparatus and adjusted, wherein the adjusting apparatus comprises at least one projection device, characterized in that the at least one support surface has at least one aligning device for supporting the processing tool, which aligning device is designed to align the processing tool on the support surface, in that the adjusting apparatus is coupled for data communication purposes to a digital processing contour of the processing tool, and in that the at least one projection device is arranged to project a projection onto the support surface so that, during the adjustment process, the projection device projects a processing contour and/or a cutting contour of the front side of the processing tool onto the rear side.
A submersible aerator including an impeller which is rotated by a motor and draws air and liquid simultaneously from different locations so as to mix the air and the liquid at a peripheral edge of the impeller, wherein a boss portion of the impeller is attached to an end of a motor shaft extending downward from the motor and penetrating into an air chamber; an intermediate plate having an air suction opening at the center thereof is attached to a top wall of a guide casing such that the intermediate plate faces an upper surface of a peripheral portion of a circular main plate of the impeller extending radially outward from the boss portion; a suction cover having a liquid suction opening at the center thereof is attached to a bottom wall of the guide casing such that the suction cover faces lower end surfaces of blades of the impeller; a plurality of guide vanes are provided on an upper surface of the suction cover such that a clearance is left between the guide vanes and a peripheral edge of the impeller; guide passages defined between the guide vanes guide an air-liquid mixture discharged from the impeller to air-liquid discharge passages of the guide casing, whereby the air-liquid mixture is jetted outward through the air-liquid discharge passages; an air chamber communicating with an air conduit extending downward from the atmosphere above a liquid into which the guide casing is immersed is provided above the guide casing in order to introduce air from the atmosphere above the liquid into which the guide casing is immersed; the impeller, which is rotated by the motor, is accommodated within the guide casing such that the impeller can rotate between a lower surface of the intermediate plate and the upper surface of the suction cover; the plurality of blades are provided on the main plate of the impeller such that the blades project toward the upper surface of the suction cover with a predetermined clearance left therebeween, and radially inner ends of the blades face the liquid suction opening, whereby liquid passages are defined between the blades such that the liquid passages communicate with the liquid suction opening and extend radially outward; a groove is provided in each blade such that the groove extends from the periphery of the boss portion of the impeller toward the periphery of the impeller so as to define air passages which communicate with the air chamber, which extend radially outward, and which are open at radially outer ends thereof; the blades have partition walls which separate the liquid passages and the air passages from each other; characterized in that the liquid passages and the air passages meet through communication portions in the form of holes or cut-outs at the radially outer ends of rear-side blade partition walls, which are partition walls of the blades which are located rearward with respect to the rotational direction of the motor and which do not receive pressure.
A fuel nozzle (10; 200; 300) comprising: a) an axial fuel circuit having a converging front surface with an axial fuel outlet formed therein; b) an air swirler surrounding the axial fuel circuit and having a converging front wall; c) a swirl chamber bounded by the converging front surface of the axial fuel circuit and a circumferential inner surface of the converging front wall of the air swirler; and d) an air cap surrounding the air swirler, such that an air circuit is defined between the air cap and the air swirler, wherein circumferentially spaced apart axial air vanes are arranged within the air circuit; characterised by e) a plurality of circumferentially disposed discrete jet passages extending through the converging front wall of the air swirler for directing atomizing air from the air circuit to the swirl chamber, wherein the discrete jet passages are interposed between the axial air vanes. a) an axial fuel circuit having a converging front surface with an axial fuel outlet formed therein; b) an air swirler surrounding the axial fuel circuit and having a converging front wall; c) a swirl chamber bounded by the converging front surface of the axial fuel circuit and a circumferential inner surface of the converging front wall of the air swirler; and d) an air cap surrounding the air swirler, such that an air circuit is defined between the air cap and the air swirler, wherein circumferentially spaced apart axial air vanes are arranged within the air circuit; characterised by e) a plurality of circumferentially disposed discrete jet passages extending through the converging front wall of the air swirler for directing atomizing air from the air circuit to the swirl chamber, wherein the discrete jet passages are interposed between the axial air vanes.
A method for producing a seal on a component using a shaping tool (10, 14), wherein a UV-curing sealing material is used as the material for the seal and wherein the shaping tool (10, 14) has an upper face and a lower face and at least one cavity which is open towards the lower face of the shaping tool (10, 14) and which is provided to be filled with the sealing material, and wherein, in addition, the shaping tool (10, 14) consists of a UV-permeable material at least in the region of the cavity and wherein the shaping tool (10, 14) consists of an inflexible material in regions, wherein the shaping tool (10, 14) consists of a flexible material at least in the region of the cavity, said method comprising the following steps in the stated sequence: 1. introducing the sealing material into the cavity of the shaping tool (10, 14) by means of screen printing, 2. placing the component on the lower face of the tool (10, 14) provided with the sealing material, 3. pressing the component onto the tool (10, 14), 4. curing the sealing material using UV radiation, 5. removing the tool (10, 14) from the component and the seal connected thereto. 1. introducing the sealing material into the cavity of the shaping tool (10, 14) by means of screen printing, 2. placing the component on the lower face of the tool (10, 14) provided with the sealing material, 3. pressing the component onto the tool (10, 14), 4. curing the sealing material using UV radiation, 5. removing the tool (10, 14) from the component and the seal connected thereto.
A polymer composition comprising: a. from 20 wt.% to 50 wt% of a thermoplastic polymer; b. from 5 wt.% to 30 wt% of a coated stainless steel fiber; c. from 0 wt.% to 15 wt% of a conductive filler; d. from 0 wt.% to 30 wt% of glass fiber; e. from 0 wt.% to 15 wt% of a second polymer; and f. from 0 wt.% to 15 wt% of one or more additives, wherein the coated stainless steel fiber comprises 75 wt% of stainless steel fiber, 9.25 wt% of a polyester material coating and 15.75 wt% of a polysulfone coating. a. from 20 wt.% to 50 wt% of a thermoplastic polymer; b. from 5 wt.% to 30 wt% of a coated stainless steel fiber; c. from 0 wt.% to 15 wt% of a conductive filler; d. from 0 wt.% to 30 wt% of glass fiber; e. from 0 wt.% to 15 wt% of a second polymer; and f. from 0 wt.% to 15 wt% of one or more additives,