mhurhangee/ep-ind-claims huggingface dataset:
A method for flotation of an ore, which comprises the steps of providing an aqueous suspension comprising (i) an ore, which is in the form of particles, (ii) water, (iii) a first frothing agent in a flotation cell to obtain a provided aqueous suspension, introducing air into the provided aqueous suspension to obtain a froth, characterized in that the first frothing agent is a poly(tetrahydrofuran) having a number-average molecular weight M n in the range of 200 to 1200. providing an aqueous suspension comprising (i) an ore, which is in the form of particles, (ii) water, (iii) a first frothing agent in a flotation cell to obtain a provided aqueous suspension, (i) an ore, which is in the form of particles, (ii) water, (iii) a first frothing agent introducing air into the provided aqueous suspension to obtain a froth,
A multimode optical fiber comprising: a central multimode core region comprising maximum refractive index delta percent Δ 1 and a radius R 1; a cladding comprising an outer radius R clad, the cladding comprising: a first inner annular region surrounding said core region comprising refractive index delta percent Δ 2 and a radius R 2, wherein R 2 > R 1; a depressed-index annular region surrounding said inner annular region and comprising Δ 3 and a radius R 3, wherein R 3 > R 2, and a third annular region comprising refractive index delta percent Δ 4 which is greater than Δ 2 at a radial point less than or equal to 45 microns from the center of the fiber, the third annular region surrounding the depressed annular region; wherein Δ 1MAX > Δ 4 > Δ 2 > Δ 3, wherein the third annular region has an outer radius R 4; and characterised in that, wherein R 4 = R clad, and wherein the difference between Δ 4 and Δ 2 is greater than or equal to 0.03 delta percent. a central multimode core region comprising maximum refractive index delta percent Δ 1 and a radius R 1; a cladding comprising an outer radius R clad, the cladding comprising: a first inner annular region surrounding said core region comprising refractive index delta percent Δ 2 and a radius R 2, wherein R 2 > R 1; a depressed-index annular region surrounding said inner annular region and comprising Δ 3 and a radius R 3, wherein R 3 > R 2, and a third annular region comprising refractive index delta percent Δ 4 which is greater than Δ 2 at a radial point less than or equal to 45 microns from the center of the fiber, the third annular region surrounding the depressed annular region; wherein Δ 1MAX > Δ 4 > Δ 2 > Δ 3, wherein the third annular region has an outer radius R 4; and a first inner annular region surrounding said core region comprising refractive index delta percent Δ 2 and a radius R 2, wherein R 2 > R 1; a depressed-index annular region surrounding said inner annular region and comprising Δ 3 and a radius R 3, wherein R 3 > R 2, and a third annular region comprising refractive index delta percent Δ 4 which is greater than Δ 2 at a radial point less than or equal to 45 microns from the center of the fiber, the third annular region surrounding the depressed annular region; wherein Δ 1MAX > Δ 4 > Δ 2 > Δ 3, wherein the third annular region has an outer radius R 4; and
A torque wrench for the medical field, in particular for dentistry, with a head region which has a receiving opening, which receiving opening defines a rotation axis and is intended to receive a screwing instrument in the extension of the rotation axis, an at least approximately flexurally resistant shaft region which adjoins the head region, extends at least approximately in a plane running at right angles to the rotation axis and defines a longitudinal axis of the torque wrench, with a support formed on the shaft region, and with an actuating lever which comprises an elastically bendable flexion portion and a grip portion adjoining the flexion portion, which actuating lever is secured on the shaft region, between the support and the head region, with an end region of the actuating lever facing away from the grip portion, wherein, in its rest position, the actuating lever, seen in a circumferential direction with respect to the rotation axis, is spaced from the support, and the actuating lever, when a force is applied to its grip portion in a tightening direction, with the screwing instrument inserted in the receiving opening, transmits a torque by entrainment to the screwing instrument and, when a reference force (Fl) is reached, comes into contact with the support, wherein the shaft region has a clearance which runs parallel to the plane and in which the actuating lever runs, and which forms a free space for the deflection of the actuating lever, characterized in that the shaft region has a wall which extends in the longitudinal direction, which lies ahead of the actuating lever, as seen in the tightening direction, which delimits the clearance, and which has a curvature that forms the support and that is concave to the rotation axis and runs into the plane, and in that, when the reference force (Fl) is reached, the flexion portion comes into contact with the support, and the flexion portion is able to bend further in the tightening direction upon application of a force that is directed in the tightening direction and that exceeds the reference force.
A portioning robot for food products, arranged to grip and place a food product in a portion carrier in the same station and step, comprising a gripping and positioning device, which gripping and positioning device includes two gripping members (12a, 12b) arranged to grip a food product laying on a belt or table, wherein at least one of said gripping members (12a, 12b) is movable between at least two relative positions, one holding position and one open position, wherein inner surfaces of the jaws (12a, 12b) form an angle (β) in the closed/gripping position, that is less than 180 ° forming a narrowing gap, in between said inner surfaces of the jaws (12a, 12b), further comprising a processing equipment including a weighing device and an ocular scanning device wherein said gripping and portioning device comprises a movable, downsizing cutting device arranged at least on one side of said gripping members (12a, 12b), said downsizing cutting device comprising a knife blade arranged to cut along the side edges or corner edges (121, 122) of both of said gripping members (12a, 12b), characterised in that along at least a part of at least one edge is arranged an edge cutter having a cutting edge enabling downsizing of the food product by means of said processing equipment arranged to control exact gripping of the product at a position that based on length measurement provides a precisely calculated weight of the cut product, arranged to achieve a downsizing cut of a food product, to better fulfil a target weight of a portion carrier, said inner surfaces of the jaws (12a, 12b) providing a converging gap in relation to the direction of the cutting movement of the cutting knife.
An article comprising: a cold-formed glass substrate in a curved shape, the cold-formed glass substrate having a first major surface, and a second major surface opposing the first major surface; a plurality of separate mechanical retainers attached to the second major surface of the cold-formed glass substrate; and a frame; wherein the mechanical retainers are attached to the frame, wherein one or both the mechanical retainers and the frame maintain the curved shape of the cold-formed glass substrate; wherein the entirety of the first major surface is exposed relative to the frame; and wherein at least one coating is applied to at least one of the first or second major surface, the at least one coating being selected from an ink coating, an anti-reflective coating, an anti-glare coating, an easy-to-clean coating, a conductive coating, and a haptic coating. a cold-formed glass substrate in a curved shape, the cold-formed glass substrate having a first major surface, and a second major surface opposing the first major surface; a plurality of separate mechanical retainers attached to the second major surface of the cold-formed glass substrate; and a frame;
A joint bridging device having - two anchoring mechanisms, by means of which the joint bridging device can be anchored to two structure parts separated from one another by a joint and - a bridging mechanism, which is connected at its opposing longitudinal sides to one of the anchoring mechanisms in each case, wherein changes in the position of the structure parts relative to one another can be compensated by a change in shape of the bridging mechanism, wherein the anchoring mechanisms are each composed of a bottom part capable of being anchored to the corresponding structure part and a top part which is connected in a force transferring manner to the bottom part by means of a plurality of screws and which is connected to the bridging mechanism, wherein the top part, in the installed state of the bottom part, can be removed from the latter in an at least essentially non-destructive manner, wherein a separator of the bottom part extends, on a side of the top part facing away from the joint next to said top part, toward a surface of a floor covering adjoining the joint bridging device, wherein a distance of an end face of the separator facing the surface of the floor covering from the floor covering is a maximum of 8 mm, preferably a maximum of 6 mm, more preferably a maximum of 4 mm, wherein the top part and the bottom part brace each other in the area of opposing contact surfaces (KO, KU) such that when the joint bridging device is in operation, bearing forces oriented perpendicular to the surface of the floor covering can be transferred and wherein the contact surfaces (KO, KU) have a greater distance from the surface of the floor covering than does the end face of the separator, characterized in that the bridging mechanism is articulatingly connected to the top part and that the bridging mechanism is formed by a plurality of rigid bridging members (5, 6), which are moveable relative to one another, wherein changes in the position of the structure parts relative to one another can be compensated by at least one relative movement of adjacent bridging members (5, 6). - two anchoring mechanisms, by means of which the joint bridging device can be anchored to two structure parts separated from one another by a joint and - a bridging mechanism, which is connected at its opposing longitudinal sides to one of the anchoring mechanisms in each case, wherein changes in the position of the structure parts relative to one another can be compensated by a change in shape of the bridging mechanism,
An element substrate comprising: a plurality of driving elements for generating thermal, mechanical, magnetic, or electromagnetic wave energy; a first resistance element and a second resistance element (702, 706) each includes a first terminal and a second terminal and is arranged in a predetermined direction, wherein the first terminals of said first resistance element and said second resistance element are selectively connected to a first line for supplying a current, and the second terminals of said first resistance element and second resistance element are commonly connected to a second line for supplying a current; and voltage detection means (704, 705, 713) for detecting a voltage across the first resistance element, characterized in that said voltage detection means is configured to detect the voltage across the first resistance element by detecting a difference in voltage between the first terminal of said first resistance element and the first terminal of said second resistance element while current is supplied to said first resistance element and is not supplied to said second resistance element. a plurality of driving elements for generating thermal, mechanical, magnetic, or electromagnetic wave energy; a first resistance element and a second resistance element (702, 706) each includes a first terminal and a second terminal and is arranged in a predetermined direction, wherein the first terminals of said first resistance element and said second resistance element are selectively connected to a first line for supplying a current, and the second terminals of said first resistance element and second resistance element are commonly connected to a second line for supplying a current; and voltage detection means (704, 705, 713) for detecting a voltage across the first resistance element, characterized in that said voltage detection means is configured to detect the voltage across the first resistance element by detecting a difference in voltage between the first terminal of said first resistance element and the first terminal of said second resistance element while current is supplied to said first resistance element and is not supplied to said second resistance element.
A power tool having a height adjustment system, a table with a work surface for supporting a workpiece, a saw blade extending through a slot in the table surface, a carriage supporting the saw blade and a motor for driving the saw blade, and an adjustment mechanism for adjusting the height of the saw blade above the surface, the height adjustment system comprising: an adjustment motor configured to drive the adjustment mechanism to increase or decrease the height of the saw blade relative to the work surface; a movable sensor movably supported relative to the table and movable in response to movement of the adjustment mechanism, the movable sensor configured to direct a movable sensing beam at a non-perpendicular angle relative to the work surface, the beam passing through a position above the work surface at a predetermined location along the work surface that is calibrated to the height of the saw blade, the movable sensor further configured to generate a movable sensor signal in response to the detection of the workpiece in the path of the movable sensing beam; and a controller configured for controlling the adjustment motor to change the height of the saw blade relative to the work surface in response to said movable sensor signal, wherein the movable sensor is movable in response to movement of the adjustment mechanism to change said position above the work surface; characterized in that the controller is configured to cause the adjustment motor to drive the adjustment mechanism until the upper edge of a workpiece at said predetermined location is detected in response to the movable sensor signal. an adjustment motor configured to drive the adjustment mechanism to increase or decrease the height of the saw blade relative to the work surface; a movable sensor movably supported relative to the table and movable in response to movement of the adjustment mechanism, the movable sensor configured to direct a movable sensing beam at a non-perpendicular angle relative to the work surface, the beam passing through a position above the work surface at a predetermined location along the work surface that is calibrated to the height of the saw blade, the movable sensor further configured to generate a movable sensor signal in response to the detection of the workpiece in the path of the movable sensing beam; and a controller configured for controlling the adjustment motor to change the height of the saw blade relative to the work surface in response to said movable sensor signal, wherein the movable sensor is movable in response to movement of the adjustment mechanism to change said position above the work surface;
A method for enriching or isolating extracellular vesicles from a body fluid sample, e.g. a urine sample, comprising (i) optionally filtrating the body fluid sample through a first membrane, wherein said first membrane has a pore size from 180 nm to 250 nm and does not bind proteins; (ii) filtrating the body fluid or, if step (i) is carried out, the filtrate obtained from step (i) through a second membrane, wherein said second membrane has a pore size from 180 nm to 250 nm and is a protein-binding membrane; and (iii) recovering the extracellular vesicles from the second membrane.
An oligonucleotide comprising one of the following sequence: (TTAGGG) SEQ ID No. 1, (TAGGGT) SEQ ID No. 2, (AGGGTT) SEQ ID No. 3, (GGGTTA) SEQ ID No. 4, (GGTTAG) SEQ ID No. 5 or (GTTAGG) SEQ ID No. 6 or a variant or a mixture thereof for use in the treatment and/or prevention of a disease characterized by alternative lengthening of telomeres wherein the variant comprises one of the following sequence: TCAGGG, TTCGGG, GTAGGG, TGAGGG, TTGGGG, TAAGGG, ATAGGG, CTAGGG, TTTGGG or TTAAGGG.
Engine bracket for receiving an electrical machine, in particular for receiving the bearing of an electrical machine, comprising a peripheral outer wall, comprising an intermediate floor connected to the peripheral outer wall, comprising a floor, which is formed integrally in the intermediate floor and connected to the intermediate floor by way of a transition region, for receiving a bearing, characterised in that the transition region has a peripheral first annular wall and at least one peripheral second annular wall which form a circular, annular storage space provided in the transition region, the first and the at least one second annular wall (12, 13) forming a labyrinth-type seal together with a bearing support of an electrical machine to be assigned to the engine bracket.
A heat exchanger system comprising: a. two heat exchangers, a first heat exchanger and a second heat exchanger, mounted within a single enclosure; b. a first air inlet for receiving air from a first air system; c. a first air outlet for expelling air from the first air system; d. one or more second air inlets for receiving air from a second air system; e. one or more second air outlets for expelling air from the second air system; f. a first air path defined as a sealed air path from the first air inlet through the first heat exchanger, to the first air outlet; and g. a second air path defined as a sealed air path from the first air inlet through the second heat exchanger to the first air outlet, h. a third air path defined as a sealed air path from the second air inlet through the first heat exchanger, to the second air outlet; and i. a fourth air path defined as a sealed air path from the second air inlet through the second heat exchanger to the second air outlet, wherein the air from the first air inlet is split into the first and second air paths, wherein air from the second air inlet is split into the third and fourth air paths, and wherein the first heat exchanger is provided for transferring energy from the first air path to the third air path, and the second heat exchanger is provided for transferring energy from the second air path to the fourth air path; characterized in that the first air path and the third air path are provided in a counterflow relation, and the second air path and the fourth air path are provided in a counterflow relation, And in that the system further comprises an evaporator for cooling air, wherein the first air outlet is in fluid communication with the evaporator, and the one or more second air inlets is in fluid communication with the evaporator, and the system is configured to make air from the first air outlet pass through the evaporator for cooling and enter the second air inlet. a. two heat exchangers, a first heat exchanger and a second heat exchanger, mounted within a single enclosure; b. a first air inlet for receiving air from a first air system; c. a first air outlet for expelling air from the first air system; d. one or more second air inlets for receiving air from a second air system; e. one or more second air outlets for expelling air from the second air system; f. a first air path defined as a sealed air path from the first air inlet through the first heat exchanger, to the first air outlet; and g. a second air path defined as a sealed air path from the first air inlet through the second heat exchanger to the first air outlet, h. a third air path defined as a sealed air path from the second air inlet through the first heat exchanger, to the second air outlet; and i. a fourth air path defined as a sealed air path from the second air inlet through the second heat exchanger to the second air outlet,
A method of determining properties of a sample, comprising: detecting using a first detector emissions of a first type from the sample in response to a beam scanned over an area of the sample; detecting using a second detector emissions of a second type from the sample in response to the beam scanned over the area of the sample, the second detector measuring spectral information; using emissions of the first type, dividing the scanned area of the sample into multiple regions, each region having a common characteristic; characterized by: combining emissions of the second type from multiple points in at least one of said regions to produce a combined spectrum of the material in the region. detecting using a first detector emissions of a first type from the sample in response to a beam scanned over an area of the sample; detecting using a second detector emissions of a second type from the sample in response to the beam scanned over the area of the sample, the second detector measuring spectral information; using emissions of the first type, dividing the scanned area of the sample into multiple regions, each region having a common characteristic; characterized by: combining emissions of the second type from multiple points in at least one of said regions to produce a combined spectrum of the material in the region.
A base for a domestic electrical appliance for food preparation, comprising: - - a first drive output designed to be removably installed and to rotate a first accessory; - a second drive output designed to be removably installed and to rotate a second accessory; - an electric motor configured to rotate the first drive output and the second drive output simultaneously; and - a pivoting safety shutter, comprising a hinge mounted on the base so as to allow pivoting of the shutter relative to the base, and a closure plate designed to close off the first drive output and the second drive output, said shutter being pivotally mounted on the base between a first configuration in which the closure plate of the shutter covers the first drive output, the second drive output being uncovered, and a second configuration in which the closure plate of the shutter covers the second drive output, the first drive output being uncovered, the shutter being configured to cooperate with the second accessory so as to ensure that the shutter is positioned and held in the first configuration when the second accessory is positioned on the second drive output. - a first drive output designed to be removably installed and to rotate a first accessory; - a second drive output designed to be removably installed and to rotate a second accessory; - an electric motor configured to rotate the first drive output and the second drive output simultaneously; and - a pivoting safety shutter, comprising a hinge mounted on the base so as to allow pivoting of the shutter relative to the base, and a closure plate designed to close off the first drive output and the second drive output, said shutter being pivotally mounted on the base between a first configuration in which the closure plate of the shutter covers the first drive output, the second drive output being uncovered, and a second configuration in which the closure plate of the shutter covers the second drive output, the first drive output being uncovered,