mhurhangee/ep-ind-claims huggingface dataset:
A clamping ring for hose connections, including a hollow-cylinder shaped section arranged around a central axis of the clamping ring for receiving a hose or pipe line and a plurality of arms projecting in parallel to the central axis of the clamping ring from a first open end of the hollow-cylinder shaped section, wherein at least one stop element for preventing a hose or pipe line from being pushed completely through the hollow-cylinder shaped section is arranged at a second open end of the hollow-cylinder shaped section, and wherein limiting elements (5, 7) are arranged on the outside of the clamping ring, which limiting elements extend at least in sections around the central axis of the clamping ring and are arranged in such a way that a movement, extending in parallel to the central axis of the clamping ring, of a fastening nut mounted onto the clamping ring is limited or prevented in both directions, wherein at least one of the limiting elements is arranged on each of at least two of the arms, wherein these at least two arms with the limiting elements arranged thereon are designed as clip elements which are elastically bendable in the direction towards the central axis of the clamping ring, characterized in that the limiting elements comprise a group of two or more first limiting elements and a group of two or more second limiting elements, wherein the first limiting elements are further away from the second end of the hollow-cylinder shaped section than the second limiting elements, and wherein between the group of first limiting elements and the group of second limiting elements a receiving area for a fastening nut to be mounted is arranged. wherein at least one of the limiting elements is arranged on each of at least two of the arms, wherein these at least two arms with the limiting elements arranged thereon are designed as clip elements which are elastically bendable in the direction towards the central axis of the clamping ring, characterized in that the limiting elements comprise a group of two or more first limiting elements and a group of two or more second limiting elements, wherein the first limiting elements are further away from the second end of the hollow-cylinder shaped section than the second limiting elements, and wherein between the group of first limiting elements and the group of second limiting elements a receiving area for a fastening nut to be mounted is arranged.
A tracking method for a voltage converter, in particular an inverter, of a photovoltaic system, for tracking a working point of a PV generator, in which method an intermediate circuit voltage (U ZW) is changed repeatedly by voltage increments of a predetermined level (ΔU) in a direction towards a lower or a higher voltage, characterized in that a mean rate of change (|ΔU/Δt|) of the intermediate circuit voltage (U ZW) in a subperiod between two voltage increments is limited by a maximum mean rate of change, wherein the maximum mean rate of change is determined depending on the level of the intermediate circuit voltage (U ZW).
A process for producing a long-chain branched propylene homopolymer or copolymer (b-PP), wherein the long-chain branched propylene homopolymer or copolymer (b-PP) (a) has a comonomer in the copolymer selected from ethylene, C 4 -C 20 -alpha olefin and any combination thereof and a comonomer content in the range of 0.1 to 7.0 wt%, (b) has a melt flow rate MFR 2 (230 °C) in the range of 6.5 to 25.0 g/10min as measured according to ISO 1133, (c) has a F30 melt strength in the range of 5.0 to 12.0 cN wherein the F30 melt strength of the b-PP is measured according to ISO 16790:2005, (d) has a xylene hot insoluble fraction of less than 0.08 wt% as measured according to EN 579 and (e) is free of phthalic compounds; the process comprising the steps: producing a propylene homopolymer or copolymer having a comonomer in the copolymer selected from ethylene, C 4 -C 20 -alpha olefin and any combination thereof, with a comonomer content in the range of 0.1 to 7.0 wt%, in a polymerization process in the presence of a catalyst system comprising: a) a Ziegler-Natta based catalyst with a transition metal of Group 4 to 6, the catalyst containing an internal donor, b) optionally a co-catalyst (Co), c) optionally an external donor and wherein if present, the co-catalyst (Co) to external donor molar ratio [Co/ED] is in the range of 3.0 to 45.0 mol/mol and wherein the co-catalyst (Co) to transition metal of Group 4 to 6 molar ratio [Co/TM] is in the range of 40.0 to 500 mol/mol; wherein the resulting propylene homopolymer or copolymer powder has (a) a porosity of more than 8.0 %, (b) a median particle size d50 in the range of 150 to 1500 μm, (c) a top-cut particle size d95 in the range of 500 to 4000 μm and wherein the internal donor comprised in the Ziegler-Natta catalyst (a) is a non-phthalic compound; and mixing said propylene homopolymer or copolymer with a thermally decomposing free radical-forming agent and optionally with at least one functionally unsaturated compound at a temperature of 20 to 100 °C for at least 2 minutes to form a pre-mixed material and melt mixing the pre-mixed material in a melt mixing device at a barrel temperature in the range of 180 to 300 °C to obtain said long-chain branched propylene homopolymer or copolymer (b-PP). (a) has a comonomer in the copolymer selected from ethylene, C 4 -C 20 -alpha olefin and any combination thereof and a comonomer content in the range of 0.1 to 7.0 wt%, (b) has a melt flow rate MFR 2 (230 °C) in the range of 6.5 to 25.0 g/10min as measured according to ISO 1133, (c) has a F30 melt strength in the range of 5.0 to 12.0 cN wherein the F30 melt strength of the b-PP is measured according to ISO 16790:2005, (d) has a xylene hot insoluble fraction of less than 0.08 wt% as measured according to EN 579 and (e) is free of phthalic compounds; (a) a porosity of more than 8.0 %, (b) a median particle size d50 in the range of 150 to 1500 μm, (c) a top-cut particle size d95 in the range of 500 to 4000 μm and wherein the internal donor comprised in the Ziegler-Natta catalyst (a) is a non-phthalic compound; and
Agricultural working machine for arrangement on the front or rear side of a towing vehicle, comprising a frame on which at least one working element (31 - 34) is arranged which comprises a boom and a working tool, the working tool being arranged on the boom and the boom being variable in length such that a working position (P E, P A) of the working tool can be changed from a retracted working position (P E) to an extended working position (P A) relative to the frame, the boom being pivotable by an actuator about a pivot axis in and against a pivoting direction such that the working tool can be reversibly lifted from an operating position into a raised position, the working machine comprising a sensor for detecting a height (H E, H A) of the at least one working tool as well as an evaluation and control unit for controlling the actuator, the evaluation and control unit being designed to • detect the height (H E, H A) of the at least one working tool, • control an angular speed of the boom during pivoting about the pivot axis by applying an actuating value to the actuator, and • apply, continuously or after reaching a limit height (H G), an actuating value to the actuator when the at least one working tool is lowered from the raised position to the operating position, which value reduces the angular speed, the agricultural working machine comprising a sensor for detecting the working position (P E, P A) of the working tool and the evaluation and control unit being designed to detect the working position (P E, P A) of the working tool, characterized in that the evaluation and control unit is designed to adjust the actuating value that reduces the angular speed, and/or the limit height (H G), on the basis of the working position (P E, P E) of the working tool such that the time required for lowering the working tool independently of the working position (P E, P A) of the working tool is substantially the same. • detect the height (H E, H A) of the at least one working tool, • control an angular speed of the boom during pivoting about the pivot axis by applying an actuating value to the actuator, and • apply, continuously or after reaching a limit height (H G), an actuating value to the actuator when the at least one working tool is lowered from the raised position to the operating position, which value reduces the angular speed, the agricultural working machine comprising a sensor for detecting the working position (P E, P A) of the working tool and the evaluation and control unit being designed to detect the working position (P E, P A) of the working tool, characterized in that the evaluation and control unit is designed to adjust the actuating value that reduces the angular speed, and/or the limit height (H G), on the basis of the working position (P E, P E) of the working tool such that the time required for lowering the working tool independently of the working position (P E, P A) of the working tool is substantially the same.
A multicore fiber and ferrule assembly, comprising: a plurality of multicore fibers at the end of a multifiber cable, each optical fiber comprising a plurality of cores extending longitudinally within a respective fiber body, wherein each fiber body has a circular profile with a flat side surface, and wherein, within each fiber body, the plurality of cores has a cross-sectional geometrical configuration relative to the flat side surface, such that the at least one flat side surface identifies a particular rotational orientation of the plurality of cores, and such that alignment of the at least one flat side surface results in a rotational alignment of the plurality of cores, and a multifiber ferrule for terminating the plurality of multicore fibers, comprising a ferrule body having a plurality of guide holes therein shaped to guide the plurality of multicore fibers, wherein each guide hole is provided with one or more flat side surfaces therewithin corresponding to the one or more flat side surfaces of a respective multicore fiber, and wherein insertion of each fiber into its respective guide hole with the fiber flat side surface in line with the guide hole's corresponding flat side surface automatically aligns the fiber. a plurality of multicore fibers at the end of a multifiber cable, each optical fiber comprising a plurality of cores extending longitudinally within a respective fiber body, wherein each fiber body has a circular profile with a flat side surface, and wherein, within each fiber body, the plurality of cores has a cross-sectional geometrical configuration relative to the flat side surface, such that the at least one flat side surface identifies a particular rotational orientation of the plurality of cores, and such that alignment of the at least one flat side surface results in a rotational alignment of the plurality of cores, and a multifiber ferrule for terminating the plurality of multicore fibers, comprising a ferrule body having a plurality of guide holes therein shaped to guide the plurality of multicore fibers, wherein each guide hole is provided with one or more flat side surfaces therewithin corresponding to the one or more flat side surfaces of a respective multicore fiber, and wherein insertion of each fiber into its respective guide hole with the fiber flat side surface in line with the guide hole's corresponding flat side surface automatically aligns the fiber.
A non-catalytic thermal decomposition process comprising: providing a generally solid feedstock to a thermal decomposition unit; moving the feedstock through at least one gasification zone in the thermal decomposition unit with at least one transfer ram, wherein the transfer ram is moved at a rate effective for providing a retention time of feedstock in the gasification zone of 0.25 hours to 3 hours; and providing oxygen and optionally an additional gas to a face of the transfer ram and allowing the oxygen and the optional additional gas to exit at a face of the transfer ram at a rate of 0.24 to 0.73 g-mol/hr-cm 2 (0.5 to 1.5 lb-mol/hr-ft 2), wherein, when the additional gas is provided, the oxygen and additional gas provided to the face of the transfer ram are at a ratio of 3:1 to 1:2. providing a generally solid feedstock to a thermal decomposition unit; moving the feedstock through at least one gasification zone in the thermal decomposition unit with at least one transfer ram, wherein the transfer ram is moved at a rate effective for providing a retention time of feedstock in the gasification zone of 0.25 hours to 3 hours; and providing oxygen and optionally an additional gas to a face of the transfer ram and allowing the oxygen and the optional additional gas to exit at a face of the transfer ram at a rate of 0.24 to 0.73 g-mol/hr-cm 2 (0.5 to 1.5 lb-mol/hr-ft 2), wherein, when the additional gas is provided, the oxygen and additional gas provided to the face of the transfer ram are at a ratio of 3:1 to 1:2.
A pharmaceutically acceptable salt of the compound 4-amino-l-((2R,5R,8R,14R)-2-(4-aminobutyl)-8-benzyl-5-isobutyl-4,7,10-trioxo-14-phenyl-3,6,9,12-tetraazapentadecan-1-acyl)piperidine-4-carboxylic acid represented by formula, wherein the pharmaceutically acceptable salt is an inorganic salt or an organic salt, preferably an acetate, a hydrochloride, a phosphate, a citrate, a benzoate or a fumarate.
A computer-implemented method comprising: providing a plurality of available speed control bands in a predictive cruise control system of a vehicle, wherein the available speed control bands are selectable by an operator of the vehicle; and presenting one or more operator notifications associated with the predictive cruise control system via an operator interface; characterized in that the one or more operator notifications comprise a speed control band adjustment notification that indicates a proposed change from a currently active speed control band to another of the available speed control bands.. providing a plurality of available speed control bands in a predictive cruise control system of a vehicle, wherein the available speed control bands are selectable by an operator of the vehicle; and presenting one or more operator notifications associated with the predictive cruise control system via an operator interface; characterized in that the one or more operator notifications comprise a speed control band adjustment notification that indicates a proposed change from a currently active speed control band to another of the available speed control bands..
An organic magnesium phosphide expressed by General Formula: wherein, R 1 and R 2 are each independently an aliphatic group, heteroaliphatic group, alicyclic group, or heterocyclic group, and X is chlorine, bromine, or iodine.
A computer implemented method for sensor classification comprising: receiving from a sensor node a series of measurement data, wherein the sensor node is unknown in an infrastructure knowledge base; logging the series of measurement data in a first database; extracting a test pattern from the series of measurement data from the first database; determining a similarity measure for the test pattern and a predefined reference pattern stored in a second database, wherein the reference pattern classifies a capability type, and wherein the similarity measure is associated with a confidence value; suggesting the capability type for classifying the sensor node if the confidence value is above a predefined threshold value; and initiating an update of the infrastructure knowledge base to register the previously unknown sensor node with the suggested capability type if the suggested capability type is accepted. receiving from a sensor node a series of measurement data, wherein the sensor node is unknown in an infrastructure knowledge base; logging the series of measurement data in a first database; extracting a test pattern from the series of measurement data from the first database; determining a similarity measure for the test pattern and a predefined reference pattern stored in a second database, wherein the reference pattern classifies a capability type, and wherein the similarity measure is associated with a confidence value; suggesting the capability type for classifying the sensor node if the confidence value is above a predefined threshold value; and initiating an update of the infrastructure knowledge base to register the previously unknown sensor node with the suggested capability type if the suggested capability type is accepted.
A high-tensile steel plate having a yield point of 620 MPa or more giving welding heat-affected zone with low-temperature toughness of vE-40°C ≥ 100 J, the high-tensile steel plate with a chemical composition consisting of, by mass, C: 0.05% to 0.14%, Si: 0.01% to 0.30%, Mn: 0.3% to 2.3%, P: 0.008% or less, S: 0.005% or less, Al: 0.005% to 0.1%, Ni: 0.5% to 4%, B: 0.0003% to 0.003%, N: 0.001% to 0.008%, Ceq = + [Mn]/6 + [Cu + Ni]/15 + [Cr + Mo + V]/5 ≤ 0.80, (each element symbol represents the content (mass%) of the element), a center-segregation zone hardness index HCS satisfying Expression, optionally further one or more elements selected from, by mass, Cr: 0.2% to 2.5%, Mo: 0.1% to 0.7%, V: 0.005% to 0.1%, Cu: 0.49% or less, Ti: 0.005% to 0.025% and Ca: 0.0005% to 0.003%, and the balance being Fe and inevitable impurities, wherein the hardness of a center-segregation zone in the steel plate satisfies Expression, HCS = 5.5 C 4 / 3 + 15 P + 0.90 Mn + 0.12 Ni + 0.53 Mo ≤ 2.3 where each represents the content (mass%) of the element, HV max / HV ave ≤ 1.35 + 0.006 / C − t / 750 where HV max represents a maximum Vickers hardness of the center-segregation zone, HV ave represents an average Vickers hardness of a portion that does not include the center-segregation zone and that does not include regions extending from both surfaces to 1/4 of the thickness of the steel plate, C represents the content (mass%) of carbon, and t represents a thickness (mm) of the steel plate, whereas the steel plate has a thickness of 60 to 150 mm, and having a CTOD value of a weld heat affected zone in a multipass welded zone of 0.50 mm or more at -10°C.
A method for fetching a target bin stored in a storage system, wherein the storage system includes a three-dimensional storage grid containing a plurality of bins stacked in vertical stacks, supporting rails on the grid structure, and a plurality of vehicles, controllably arranged to move individually on the supporting rails, the method comprising: - controlling a plurality of non-target vehicles, such that each non-target vehicle operates as an intermediate storage for a single bin located vertically above a target bin; - controlling a target vehicle to pick up the target bin, and - controlling the plurality of non-target vehicles and the target vehicle to be positioned adjacent to each other in a linear manner on the supporting rails, the plurality of non-target vehicles and the target vehicle are the same type of vehicle able to lift only a single bin at a time, wherein the step of controlling each of the plurality of non-target vehicles to operate as intermediate storage for a single bin located vertically above the target bin further comprises: - controlling a non-target vehicle to move to a target location above the target bin; - controlling the non-target vehicle to pick up a single bin from the vertical stack at the target location; - controlling the non-target vehicle to rest at a neighbor location; and - determining if the target bin has become the upper bin in the vertical stack at the target location, and if this is not true, repeating the controlling steps until the target bin has become the upper bin in the vertical stack at the target location. - controlling a plurality of non-target vehicles, such that each non-target vehicle operates as an intermediate storage for a single bin located vertically above a target bin; - controlling a target vehicle to pick up the target bin, and - controlling the plurality of non-target vehicles and the target vehicle to be positioned adjacent to each other in a linear manner on the supporting rails, the plurality of non-target vehicles and the target vehicle are the same type of vehicle able to lift only a single bin at a time, - controlling a non-target vehicle to move to a target location above the target bin; - controlling the non-target vehicle to pick up a single bin from the vertical stack at the target location; - controlling the non-target vehicle to rest at a neighbor location; and - determining if the target bin has become the upper bin in the vertical stack at the target location, and if this is not true, repeating the controlling steps until the target bin has become the upper bin in the vertical stack at the target location.
A catheter for insertion into a blood vessel at a vessel insertion site for delivering blood after dialysis to a location downstream of the vessel insertion site, the catheter comprising: an elongate body having a proximal portion (14, 104), a distal portion (18, 108), and a lumen (20, 120) extending therebetween along a longitudinal axis, the elongate body having an inner surface surrounding the lumen (20, 120) and an outer surface surrounding the inner surface, the distal portion of the elongate body defining a cross-sectional area sufficiently small to permit insertion thereof into the blood vessel such that blood flows in the vessel around the distal end portion; and characterised by a braided structure (35, 140) having a proximal end and a distal end, the braided structure being embedded within the elongate body such that the outer surface of the elongate body completely surrounds the braided structure, the braided structure (35, 140) extending from the proximal portion (14, 104) of the elongate body toward the distal portion (18, 108) thereof, wherein the distal portion (18, 108) of the elongate body and the braided structure (35, 140) are sufficiently flexible such that the catheter can freely float at a vascular location downstream of the vessel insertion site; and wherein the proximal portion (14, 104) of the elongate body and the braided structure (35, 140) are configured to respond to an axial force by expanding such that the lumen (20, 120) is enlarged along the longitudinal axis for advancement over an engagement feature (32, 36) for coupling with another blood conduit. an elongate body having a proximal portion (14, 104), a distal portion (18, 108), and a lumen (20, 120) extending therebetween along a longitudinal axis, the elongate body having an inner surface surrounding the lumen (20, 120) and an outer surface surrounding the inner surface, the distal portion of the elongate body defining a cross-sectional area sufficiently small to permit insertion thereof into the blood vessel such that blood flows in the vessel around the distal end portion; and characterised by a braided structure (35, 140) having a proximal end and a distal end, the braided structure being embedded within the elongate body such that the outer surface of the elongate body completely surrounds the braided structure, the braided structure (35, 140) extending from the proximal portion (14, 104) of the elongate body toward the distal portion (18, 108) thereof, wherein the distal portion (18, 108) of the elongate body and the braided structure (35, 140) are sufficiently flexible such that the catheter can freely float at a vascular location downstream of the vessel insertion site; and wherein the proximal portion (14, 104) of the elongate body and the braided structure (35, 140) are configured to respond to an axial force by expanding such that the lumen (20, 120) is enlarged along the longitudinal axis for advancement over an engagement feature (32, 36) for coupling with another blood conduit.