mhurhangee/ep-ind-claims huggingface dataset:
A stormwater drain baffle to be disposed in a flow-through stormwater sump or chamber for baffling a stormwater flow-path, the baffle having a plurality of openings distributed over the area of the baffle, the baffle comprising at least two baffle portions (4, 5, 6) connected to each other, wherein the baffle portions (4, 5, 6) are disposed near to and in superposed relation to each other so that the baffle portions overlap each other and are adjustably connected to each other for adjusting the width (W tot) of the baffle; and wherein at least the outermost baffle portions of the baffle comprise fixing members (7, 8) which are monolithic with the baffle portions (4, 5) and adapted for fixing the baffle to the inner sidewall of the sump or the chamber, wherein the baffle portions (4, 5, 6) comprise edges and stiffening members (11,12,13,14;15,16,17,18) which are disposed at the edges, wherein the stiffening members (11,12,13,14;15,16,17,18) are stiffening flanges which are monolithic with the baffle portions (4,5,6), wherein the baffle comprises a rectangular first baffle portion and a rectangular second baffle portion, wherein the first baffle portion and the second baffle portion have a first side and a second side, and the second side is the opposite side in relation to the first side, characterised in that the lower and upper stiffening flanges (12,13;16,17) of the baffle portions are directed to the first side and that the inner distance between lower and upper stiffening flanges (12, 13) of the first baffle portion is larger than the outer distance of the lower and upper stiffening flanges (16, 17) of the second baffle portion.
Connecting element for non-detachably connecting at least two components (12.1, 12.2) by means of friction welding when rotating the connecting element about a longitudinal axis (10.1) of the connecting element, comprising - a shaft (10.2-10.4) formed along the longitudinal axis (10.1) with a shaft end (10.2) at a free end of the shaft (10.2-10.4) for penetrating at least one component (12.1), and - a head (10.5) connected to the shaft (10.2-10.4) for transmitting a torque about the longitudinal axis (10.1) from a turning tool to the shaft (10.2-10.4), wherein the shaft end (10.2) has a shaft end face (10.21) that has a convex envelope (10.22) with an obtuse profile, wherein the shaft end face (10.21) has a plurality of depressions and elevations, and wherein the shaft end face (10.21) is configured such that the shaft end face (10.21) does not generate material waste during friction welding for non-detachably joining at least two components (12.1, 12.2). - a shaft (10.2-10.4) formed along the longitudinal axis (10.1) with a shaft end (10.2) at a free end of the shaft (10.2-10.4) for penetrating at least one component (12.1), and - a head (10.5) connected to the shaft (10.2-10.4) for transmitting a torque about the longitudinal axis (10.1) from a turning tool to the shaft (10.2-10.4), wherein the shaft end (10.2) has a shaft end face (10.21) that has a convex envelope (10.22) with an obtuse profile, wherein the shaft end face (10.21) has a plurality of depressions and elevations, and wherein the shaft end face (10.21) is configured such that the shaft end face (10.21) does not generate material waste during friction welding for non-detachably joining at least two components (12.1, 12.2).
A test system for determining battery performance during development of a battery configuration in a test environment, the test system comprising at least one communication interface and at least one processing device, wherein the test system is configured for receiving operating data indicative of at least one test protocol via the communication interface, wherein the test system is configured for receiving battery performance input data via the communication interface, wherein the processing device is configured for determining at least one predicted time series of at least one state variable indicative of battery performance based on the battery performance input data and on the operating data using at least one data driven model, wherein the test system is configured for providing at least parts of the predicted time series of the state variable.
A method of operating a subject uninterruptible power supply, in short UPS, of a UPS system comprising a plurality of UPSs connected in parallel at a load bus and configured to provide power thereto from respective batteries of a plurality of batteries, the method comprising: determining a difference between a variable indicative of battery capacity for a battery associated with the subject UPS and an average value of the variable for the plurality of batteries; and controlling a power flow between the subject UPS and the load bus by controlling a phase of an inverter of the subject UPS responsive to the determined difference, characterized in that adjustment of the phase of the inverter is limited responsive to the determined difference falling outside of a predetermined range. determining a difference between a variable indicative of battery capacity for a battery associated with the subject UPS and an average value of the variable for the plurality of batteries; and controlling a power flow between the subject UPS and the load bus by controlling a phase of an inverter of the subject UPS responsive to the determined difference, characterized in that adjustment of the phase of the inverter is limited responsive to the determined difference falling outside of a predetermined range.
Heat exchanger for machines for preparing infused beverages, comprising a box-shaped body, a duct for the passage of a liquid to be heated, said duct being made of steel and extending inside the box-shaped body, a heating element placed in contact with said duct for the passage of the liquid; said duct extending according to a curvilinear path inside said box-shaped body and having an inlet and an outlet of the liquid to be heated, characterized by comprising at least one support for constraining said box-shaped body inside the machine for preparing infused beverages; said at least one support being made of insulating material; said support making, together with said box-shaped body, a seat for accommodating heat sensors; - said box-shaped body having two half-seats of said accommodating seats; said half-seats being made on the side of the box-shaped body facing said support when the heat exchanger is mounted, said half seats comprising grooves made on a side of the box-shaped body. - said box-shaped body having two half-seats of said accommodating seats; said half-seats being made on the side of the box-shaped body facing said support when the heat exchanger is mounted, said half seats comprising grooves made on a side of the box-shaped body.
A cutting head for a excavator or a forestry machine for cutting trees and/or bushes, wherein the head has two blades, which are mounted in bottom parts of gripping and cutting branches, wherein the cutting edges of the blades are shaped as a wedge characterized in that said cutting edges of the blades are located in the same plane, so that upon a cutting movement the tree and/or a bush is cut in one plane; and in that both blades are symmetrical and have on at least one side of the wedge-shaped edge any number of grooves of any geometrical shape.
A collecting device for environmentally harmful fluids, in particular oil, dripping down at towers, pillars or the like, in particular for wind power plants, wherein - there are provided at least one collar, completely encircling the tower and contiguous with the tower in a fluid-tight manner, and a collecting means secured thereto, - a binder for environmentally harmful fluids, in particular an oil binder, is arranged in the collecting means and - openings are provided in the collecting means, below the binder, for the drainage of atmospheric water, characterized in that the binder is, in the form of binder mats, designed as cartridges insertable into the collecting means and the cartridge is a standardized annulus segment with a lower perforated plate portion below the binder mat and an upper perforated plate portion above the binder mat, wherein the binder mat is larger than the perforated plate portions (41, 43) and than the width of the encircling, annulus-shaped channel. - there are provided at least one collar, completely encircling the tower and contiguous with the tower in a fluid-tight manner, and a collecting means secured thereto, - a binder for environmentally harmful fluids, in particular an oil binder, is arranged in the collecting means and - openings are provided in the collecting means, below the binder, for the drainage of atmospheric water,
Pharmaceutical active ingredient consisting exclusively of the combination of: - (1S,3R,4R,5R)-3-{[ -3-(3,4-dihydroxyphenyl)-2-propenoyl]oxy}-1,4,5-trihydroxycyclohexanecarboxylic acid, and - methyl (2S,3E,4S)-4-{2-[2-(3,4-dihydroxyphenyl)ethoxy]-2-oxoethyl}-3-ethylidene-2-(β-D-glucopyranosyloxy)-3,4-dihydro-2H-pyran-5-carboxylale for use as a drug or veterinary product. - (1S,3R,4R,5R)-3-{[ -3-(3,4-dihydroxyphenyl)-2-propenoyl]oxy}-1,4,5-trihydroxycyclohexanecarboxylic acid, and - methyl (2S,3E,4S)-4-{2-[2-(3,4-dihydroxyphenyl)ethoxy]-2-oxoethyl}-3-ethylidene-2-(β-D-glucopyranosyloxy)-3,4-dihydro-2H-pyran-5-carboxylale for use as a drug or veterinary product.
A method for controlling notification of arrival of a message, comprising, at a first portable electronic device: receiving a message; in response to receiving the message, determining, by an alert controller of the first portable electronic device, whether a plurality of communication devices (102, 104, 106) including the first portable electronic device are in proximity with each other; when it is determined that the plurality of communication devices (102, 104, 106) are not in proximity with each other, providing, by the alert controller, on the first portable electronic device a notification that indicates the message has been received; when it is determined that the plurality of communication devices (102, 104, 106) are in proximity with each other, determining, by the alert controller, at least one communication device of the plurality of communication devices (102, 104, 106) on which to produce the notification that indicates the message has been received; wherein determining at least one communication device of the plurality of communication devices (102, 104, 106) on which to produce the notification comprises: configuring one of the plurality of communication devices (102, 104, 106) as a primary device and determining at least one communication device of the plurality of communication devices (102, 104, 106) on which to inhibit producing the notification based on a same-message-received alerting priority scheme associated with at least one of the plurality of communication devices (102, 104, 106). receiving a message; in response to receiving the message, determining, by an alert controller of the first portable electronic device, whether a plurality of communication devices (102, 104, 106) including the first portable electronic device are in proximity with each other; when it is determined that the plurality of communication devices (102, 104, 106) are not in proximity with each other, providing, by the alert controller, on the first portable electronic device a notification that indicates the message has been received; when it is determined that the plurality of communication devices (102, 104, 106) are in proximity with each other, determining, by the alert controller, at least one communication device of the plurality of communication devices (102, 104, 106) on which to produce the notification that indicates the message has been received; wherein determining at least one communication device of the plurality of communication devices (102, 104, 106) on which to produce the notification comprises: configuring one of the plurality of communication devices (102, 104, 106) as a primary device and determining at least one communication device of the plurality of communication devices (102, 104, 106) on which to inhibit producing the notification based on a same-message-received alerting priority scheme associated with at least one of the plurality of communication devices (102, 104, 106).
A workpiece holder that rotates a workpiece about a rotary axis while holding the workpiece having an outer peripheral portion rotationally symmetric about a symmetry axis, the holder comprising: a holding table (21A, 21B) including: a chuck mechanism that holds the workpiece; a positioning mechanism that moves the chuck mechanism in a direction orthogonal to the rotary axis while supporting the chuck mechanism to locate the workpiece; and a rotary mechanism that rotates the positioning mechanism about the rotary axis to rotate the workpiece held by the chuck mechanism about the rotary axis; an alignment imaging part that captures an image of the outer peripheral portion of the workpiece held by the chuck mechanism; a misalignment detector that detects misalignment of the symmetry axis with respect to the rotary axis on the basis of the image captured by the alignment imaging part while the workpiece is rotated by the rotary mechanism; and a workpiece position correction part that corrects the position of the workpiece in such a manner as to match the symmetry axis with the rotary axis by moving the chuck mechanism using the positioning mechanism so as to eliminate the misalignment. a holding table (21A, 21B) including: a chuck mechanism that holds the workpiece; a positioning mechanism that moves the chuck mechanism in a direction orthogonal to the rotary axis while supporting the chuck mechanism to locate the workpiece; and a rotary mechanism that rotates the positioning mechanism about the rotary axis to rotate the workpiece held by the chuck mechanism about the rotary axis; an alignment imaging part that captures an image of the outer peripheral portion of the workpiece held by the chuck mechanism; a misalignment detector that detects misalignment of the symmetry axis with respect to the rotary axis on the basis of the image captured by the alignment imaging part while the workpiece is rotated by the rotary mechanism; and a workpiece position correction part that corrects the position of the workpiece in such a manner as to match the symmetry axis with the rotary axis by moving the chuck mechanism using the positioning mechanism so as to eliminate the misalignment.
A computer implemented method for determining a center of rotation of a bone, comprising the steps of: a) acquiring image data representing a plurality of images taken by a camera while the bone is being rotated about the center of rotation, wherein the images show a marker device attached to the bone; b) forming a plurality of image pairs from the image data, wherein each image pair comprises two different images; c) determining a first relative position of the marker device relative to the camera from a first image of an image pair; d) determining a second relative position of the marker device relative to the camera from a second image of the same image pair; e) calculating a transformation of the first relative position into the second relative position; f) repeating steps c) to e) for all image pairs to obtain a plurality of transformations; and g) calculating the location of the center of rotation of the bone relative to the marker device from the plurality of transformations. a) acquiring image data representing a plurality of images taken by a camera while the bone is being rotated about the center of rotation, wherein the images show a marker device attached to the bone; b) forming a plurality of image pairs from the image data, wherein each image pair comprises two different images; c) determining a first relative position of the marker device relative to the camera from a first image of an image pair; d) determining a second relative position of the marker device relative to the camera from a second image of the same image pair; e) calculating a transformation of the first relative position into the second relative position; f) repeating steps c) to e) for all image pairs to obtain a plurality of transformations; and g) calculating the location of the center of rotation of the bone relative to the marker device from the plurality of transformations.
An aluminogermanosilicate molecular sieve having, in its calcined form, a powder X-ray diffraction pattern including the peaks in the following table: 2-Theta [°] d-Spacing [nm] Relative Intensity [100 × l/lo] 6.8 1.30 W 9.5 0.93 W 15.6 0.57 M 21.0 0.42 W 22.2 0.40 VS 25.9 0.34 M 26.9 0.33 M.
Fluidised bed units support device, which is in at least at one position with the fluidised bed unit connectable, with an U-profile (1.1) with an opening (1.2) at one side and a non destructively removable cover (1.3) of the opening (1.2), with end portions (1.5.1) of the U-profile (1.1) extending parallel to and being spaced apart from the U-legs (1.1.3) between the U-legs(1.1.3) for respectively forming an inner channel (1.4) of the U-profile characterised by a design of the channel (1.4), being open at least towards one side at an U-base (1.1.2)of the U-profil, for receiving of cables, lines or the like are.
A method for purifying blood coagulation factor VII (Factor VII) and/or activated blood coagulation factor VII (activated Factor VII) from cryoprecipitate-poor plasma-derived fraction, comprising the following steps: (a) a step of adsorbing Factor VII and/or activated Factor VII to a first strong anion exchange resin by a batch method; (b) a step of adsorbing Factor VII and/or activated Factor VII which remains in a non-adsorption fraction in step (a) to a second strong anion exchange resin by a column method; (c) a step of recovering Factor VII and/or activated Factor VII from an adsorption fraction in steps (a) and (b); wherein said strong anion exchange resins of (a) and (b) do not receive or lose protons when the pH changes. (a) a step of adsorbing Factor VII and/or activated Factor VII to a first strong anion exchange resin by a batch method; (b) a step of adsorbing Factor VII and/or activated Factor VII which remains in a non-adsorption fraction in step (a) to a second strong anion exchange resin by a column method; (c) a step of recovering Factor VII and/or activated Factor VII from an adsorption fraction in steps (a) and (b);
A transmitter operable to communicate with a receiver via a wireless communication channel, wherein the transmitter comprises: a processing subsystem; and a transmitter subsystem coupled to the processing subsystem; wherein the processing subsystem is configured to demultiplex an initial data stream into a plurality of intermediate data streams by splitting all the modulated symbols of the initial data stream directly into disjoint portions of modulated symbols, wherein each disjoint portion is a different one of the plurality of intermediate data streams and has a different quantity of modulated symbols, and cover (472, 473) each of the intermediate data streams with a different one of at least two different spreading codes, wherein the spreading codes are different-length spreading codes; and wherein the transmitter subsystem is configured to transmit a final data stream resulting from the covered plurality of intermediate data streams on a first wireless communication channel. a processing subsystem; and a transmitter subsystem coupled to the processing subsystem; wherein the processing subsystem is configured to demultiplex an initial data stream into a plurality of intermediate data streams by splitting all the modulated symbols of the initial data stream directly into disjoint portions of modulated symbols, wherein each disjoint portion is a different one of the plurality of intermediate data streams and has a different quantity of modulated symbols, and cover (472, 473) each of the intermediate data streams with a different one of at least two different spreading codes, wherein the spreading codes are different-length spreading codes; and wherein the transmitter subsystem is configured to transmit a final data stream resulting from the covered plurality of intermediate data streams on a first wireless communication channel.
A turbo compound bearing for attaching a turbo compound system to an internal combustion engine, the turbo compound bearing comprising: an exhaust gas turbine having a turbine shaft mounted in a turbine bearing housing; a hydrodynamic clutch having a clutch shaft mounted in a clutch bearing housing; wherein a plate-shaped base support is provided for fastening the internal combustion engine, said plate-shaped base support having at least one first centering surface, on which the clutch bearing housing is aligned, characterized in that the clutch bearing housing has at least one second centering surface, on which the turbine bearing housing is aligned, and the clutch bearing housing is plugged into the plate-shaped base support from one side and the turbine bearing housing is plugged into the plate-shaped base support from the other side. an exhaust gas turbine having a turbine shaft mounted in a turbine bearing housing; a hydrodynamic clutch having a clutch shaft mounted in a clutch bearing housing; wherein a plate-shaped base support is provided for fastening the internal combustion engine, said plate-shaped base support having at least one first centering surface, on which the clutch bearing housing is aligned, characterized in that the clutch bearing housing has at least one second centering surface, on which the turbine bearing housing is aligned, and the clutch bearing housing is plugged into the plate-shaped base support from one side and the turbine bearing housing is plugged into the plate-shaped base support from the other side.
A method for processing the contents of multiple reaction receptacles to quantitatively determine the amount of a target nucleic acid present in each of said reaction receptacles, said method comprising the automated steps of: a) successively providing to an enclosed incubator a plurality of reaction receptacles, each reaction receptacle being provided with reagents sufficient to amplify and detect the presence of a target sequence, or its complement, contained within a target nucleic acid under the temperature conditions of said incubator; wherein said incubator has one or more reaction receptacle access openings (618, 620, 1614); b) in said incubator, periodically measuring the amount of a signal associated with the presence of an amplification product containing said target sequence or its complement in each reaction receptacle provided to said incubator in accordance with step a); and c) quantifying the amount of said target nucleic acid present in each reaction receptacle based upon said measurements obtained in step b), wherein a portion of said plurality of reaction receptacles are being successively provided to said incubator in accordance with step a) as the contents of a different portion of said plurality of reaction receptacles are being processed in accordance with steps b)-c). a) successively providing to an enclosed incubator a plurality of reaction receptacles, each reaction receptacle being provided with reagents sufficient to amplify and detect the presence of a target sequence, or its complement, contained within a target nucleic acid under the temperature conditions of said incubator; wherein said incubator has one or more reaction receptacle access openings (618, 620, 1614); b) in said incubator, periodically measuring the amount of a signal associated with the presence of an amplification product containing said target sequence or its complement in each reaction receptacle provided to said incubator in accordance with step a); and c) quantifying the amount of said target nucleic acid present in each reaction receptacle based upon said measurements obtained in step b), wherein a portion of said plurality of reaction receptacles are being successively provided to said incubator in accordance with step a) as the contents of a different portion of said plurality of reaction receptacles are being processed in accordance with steps b)-c).