mhurhangee/ep-ind-claims huggingface dataset:
A treatment method for treating a surface for treatment by means of an automaton comprising: - a base configured to move over ground; - a platform mounted on the base and configured to move, at least in part, perpendicularly to the base, e.g. vertically; and - treatment means, e.g. an arm, mounted on the platform and including a movable end configured to treat a given area; the method being characterized in that it comprises: a) subdividing the surface for treatment into subdivisions of area less than or equal to the given area, the subdivisions being obtained by splitting up the surface for treatment with a regular rectangular grid with lines corresponding to movements of the platform and of the base; a') determining a chronological order for treating said subdivisions; b) treating the surface of each subdivision by controlling movements of the treatment means; and c) changing subdivision by moving the platform, e.g. in vertical translation, and/or by moving the base over the ground. - a base configured to move over ground; - a platform mounted on the base and configured to move, at least in part, perpendicularly to the base, e.g. vertically; and - treatment means, e.g. an arm, mounted on the platform and including a movable end configured to treat a given area; the method being characterized in that it comprises: a) subdividing the surface for treatment into subdivisions of area less than or equal to the given area, the subdivisions being obtained by splitting up the surface for treatment with a regular rectangular grid with lines corresponding to movements of the platform and of the base; a') determining a chronological order for treating said subdivisions; b) treating the surface of each subdivision by controlling movements of the treatment means; and c) changing subdivision by moving the platform, e.g. in vertical translation, and/or by moving the base over the ground. a) subdividing the surface for treatment into subdivisions of area less than or equal to the given area, the subdivisions being obtained by splitting up the surface for treatment with a regular rectangular grid with lines corresponding to movements of the platform and of the base; a') determining a chronological order for treating said subdivisions; b) treating the surface of each subdivision by controlling movements of the treatment means; and c) changing subdivision by moving the platform, e.g. in vertical translation, and/or by moving the base over the ground.
A method for the treatment of magnesia-carbon products, comprising the following method steps: A. Providing magnesia-carbon products comprising the following features: A.1 the magnesia-carbon products consist mainly of magnesia and carbon; A.2 the magnesia-carbon products comprise proportions of Al 4 C 3; B. providing water; C. providing a gas comprising the following features: C.1 the gas comprises carbon dioxide; C.2 the proportion of carbon dioxide in the gas is above the proportion of carbon dioxide in the air; D. providing a container that encloses a space; E. providing the magnesia carbon products in the space; F. subjecting the space to F.1 temperature; and F.2 pressure while providing the water and the gas in the space. A. Providing magnesia-carbon products comprising the following features: A.1 the magnesia-carbon products consist mainly of magnesia and carbon; A.2 the magnesia-carbon products comprise proportions of Al 4 C 3; A.1 the magnesia-carbon products consist mainly of magnesia and carbon; A.2 the magnesia-carbon products comprise proportions of Al 4 C 3; B. providing water; C. providing a gas comprising the following features: C.1 the gas comprises carbon dioxide; C.2 the proportion of carbon dioxide in the gas is above the proportion of carbon dioxide in the air; C.1 the gas comprises carbon dioxide; C.2 the proportion of carbon dioxide in the gas is above the proportion of carbon dioxide in the air; D. providing a container that encloses a space; E. providing the magnesia carbon products in the space; F. subjecting the space to F.1 temperature; and F.2 pressure while providing the water and the gas in the space. F.1 temperature; and F.2 pressure while providing the water and the gas in the space.
Method for creating a dental 3D X-ray image of a jaw region of a patient from a plurality of projection images of a recording volume having a cylindrical core volume with a flat base generated during a revolution of an X-ray emitter and an X-ray detector about the head of a patient, wherein the patient is positioned relative to the core volume such that the jaw region is located within the core volume and such that the lower edge of a lower jaw of the patient and the base of the core volume are aligned at least approximately parallel, characterized in that a first angle of an occlusal plane or a temporomandibular joint of the positioned patient relative to the base or a lateral surface of the core volume is determined and a positional correction of the 3D X-ray image by the first angle is carried out.
A method for maximising energy efficiency of an electric drive system comprising an electric motor and a load, wherein the method characterized by determining speed dependent torque characteristics of the system (21, 22, 23, 24), wherein the torque characteristics are selected from two types of behaviour: linear or quadratic behaviour of a torque of the motor in respect to a rotational speed of the motor, and controlling the motor on the basis of the determined torque characteristics.
A prosthetic heart valve device comprising: an anchoring member having a radially expandable frame with an interior and having an upstream portion and a downstream portion, wherein the upstream portion includes a tissue fixation portion configured to press outwardly against tissue located at and/or downstream of a native annulus of a heart valve in a subject and configured to be at least partially deformable to conform to a shape of the tissue; a valve positioned relative to the anchoring member and having at least one leaflet movable from a closed position in which blood flow is blocked through the interior and an open position in which blood flow is allowed through the interior in a flow direction from the upstream portion toward the downstream portion, wherein the valve is spaced inwardly apart from the tissue fixation portion of the anchoring member such that the valve remains competent when the tissue fixation portion is deformed to conform to the shape of the tissue; and an extension assembly extending laterally away from the upstream portion of the anchoring member in a deployed configuration, wherein the extension member comprises a plurality of discrete fabric segments having a first end at the anchoring member and a second end spaced apart from the anchoring member, wherein the fabric segments are arranged side-by-side around the extension member and adjacent fabric segments are loosely coupled together by a flexible coupling means such that the second ends of adjacent fabric segments can be configured independently of each other in the deployed state. an anchoring member having a radially expandable frame with an interior and having an upstream portion and a downstream portion, wherein the upstream portion includes a tissue fixation portion configured to press outwardly against tissue located at and/or downstream of a native annulus of a heart valve in a subject and configured to be at least partially deformable to conform to a shape of the tissue; a valve positioned relative to the anchoring member and having at least one leaflet movable from a closed position in which blood flow is blocked through the interior and an open position in which blood flow is allowed through the interior in a flow direction from the upstream portion toward the downstream portion, wherein the valve is spaced inwardly apart from the tissue fixation portion of the anchoring member such that the valve remains competent when the tissue fixation portion is deformed to conform to the shape of the tissue; and an extension assembly extending laterally away from the upstream portion of the anchoring member in a deployed configuration, wherein the extension member comprises a plurality of discrete fabric segments having a first end at the anchoring member and a second end spaced apart from the anchoring member, wherein the fabric segments are arranged side-by-side around the extension member and adjacent fabric segments are loosely coupled together by a flexible coupling means such that the second ends of adjacent fabric segments can be configured independently of each other in the deployed state.
A method for controlling the speed of a motor vehicle on a slope, comprising an ABS antilock braking system allowing the wheels to be braked independently, this method automatically limiting the speed of the vehicle on downhill slopes to a target speed when the driver releases the accelerator pedal, characterized in that that it reduces the target speed (N-1, N-2) according to low wheel grip information given by a low grip detection function.
Electrical connection device for a vehicle element, the device comprising i) an electrical connector comprising a wall provided with first attachment means, and ii) a flexible blade comprising a first part provided with second attachment means able to cooperate with said first attachment means in order to attach said flexible blade to said wall of the electrical connecter, and a second part having an extension in a principal direction greater than that of said first part, situated substantially above the latter, connected to said first part by an intermediate part, and provided with third attachment means able to cooperate with fourth attachment means defined on a wall of said element in order to attached said flexible blade to said wall of the element, characterised in that said part comprises a free end able to be introduced into a first runner that said fourth attachment means comprise, and in that said second part is able to be locked with respect to translation along said principal direction by at least one protuberance defined on an internal face of said first runner.
A method for identity management across multiple planes by a mission critical push to talk, MCPTT, server in a communication system, the method comprising: receiving, from a signaling plane entity, a first message to establish a call between a first MCPTT client and at least one second MCPTT client, the first message comprising an application plane identity of the at least one second MCPTT client; identifying a signaling plane identity of the at least one second MCPTT client based on the application plane identity of the at least one second MCPTT client; and transmitting, to the at least one second MCPTT client, at least one second message to establish the call via the signaling plane entity, the at least one second message comprising the signaling plane identity of the at least one second MCPTT client. receiving, from a signaling plane entity, a first message to establish a call between a first MCPTT client and at least one second MCPTT client, the first message comprising an application plane identity of the at least one second MCPTT client; identifying a signaling plane identity of the at least one second MCPTT client based on the application plane identity of the at least one second MCPTT client; and transmitting, to the at least one second MCPTT client, at least one second message to establish the call via the signaling plane entity, the at least one second message comprising the signaling plane identity of the at least one second MCPTT client.
System (1; 100; 200) for classifying hides (P; P', P") according to quality, comprising a frame that supports a feeding line (3; 43) for feeding said hides and a classification unit suited to classify said hides and comprising electronic processing and control means operatively connected to: - automatic measuring means (20, 21, 22) suited to measure the physical characteristics of said hides and arranged along said feeding line (3; 43), and - a manual unit suited to assign a quality code chosen by the operator to each one of said hides, characterized in that said feeding line (3; 43) for feeding said hides comprises a plurality of distinct transport surfaces (4; 4', 4") suited to move said hides (P; P', P") forward according to an advance direction towards a plurality of control stations (5; 5', 5") each one of which comprises a control surface for said hides, said control stations (5; 5', 5") being connected in parallel to said feeding line (3; 43) through sorting stations (10; 40', 40") that are configured so as to selectively transfer said hides between said transport surfaces (4; 4', 4") and the control surface belonging to a corresponding one of said control stations (5; 5', 5"), said system comprising first power means suited to move said surfaces (4; 4', 4"; 6) forward and second power means suited to mutually move said surfaces (4; 4', 4"; 6), said power means being suited to allow said hides (P; P', P") to be selectively transferred between said transport surfaces (4; 4', 4") and the control surface that belongs to a corresponding one of said control stations (5; 5'; 5"). - automatic measuring means (20, 21, 22) suited to measure the physical characteristics of said hides and arranged along said feeding line (3; 43), and - a manual unit suited to assign a quality code chosen by the operator to each one of said hides,
A device for debonding a structure from a main surface region of a carrier, comprising a tape for laminating to the structure; a first holder and a second holder for spanning the tape and to keep a tension of the tape, wherein at least the second holder is movable into a lifted position vertically offset to the main surface region of the carrier; and a deflecting-element for providing a deflection-line arranged between the first holder and the second holder for deflecting the tape in response to moving the second holder into the lifted position, wherein the deflecting-element is arranged to be movable parallel to the carrier for moving the deflection-line parallel to the carrier and for debonding the structure, laminated to the tape, from the carrier.
A retractable leg assembly for an amphibious vehicle, characterised in that it comprises: an adapter fitting that is fastenable to a bow of the vehicle; a leg that is pivotally connected to the fitting; and a linear actuator that is pivotally connected with a pivotal connection both to the fitting and to the leg, the linear actuator having a cylinder and an extendable rod, the cylinder being pivotally connected to the fitting at or adjacent a rod end of the cylinder, the actuator being configured to move the leg through an arc of travel from a retracted position to an extended position, whereby the pivotal connection of the actuator with the fitting when the actuator is extended, is located in front of the leg assembly, wherein the actuator is movable about its pivotal connection in a manner ensuring that a force exerted on the leg by the actuator in a direction that is tangential to the arc of travel of the leg remains substantially optimal during a greater portion of the arc of travel, and the retractable leg assembly is located outside a hull of the amphibious vehicle without moving through a watertight structure of the hull, the actuator travelling in a recess provided in the hull. an adapter fitting that is fastenable to a bow of the vehicle; a leg that is pivotally connected to the fitting; and a linear actuator that is pivotally connected with a pivotal connection both to the fitting and to the leg, the linear actuator having a cylinder and an extendable rod, the cylinder being pivotally connected to the fitting at or adjacent a rod end of the cylinder, the actuator being configured to move the leg through an arc of travel from a retracted position to an extended position, whereby the pivotal connection of the actuator with the fitting when the actuator is extended, is located in front of the leg assembly, wherein the actuator is movable about its pivotal connection in a manner ensuring that a force exerted on the leg by the actuator in a direction that is tangential to the arc of travel of the leg remains substantially optimal during a greater portion of the arc of travel, and the retractable leg assembly is located outside a hull of the amphibious vehicle without moving through a watertight structure of the hull, the actuator travelling in a recess provided in the hull.
Apparatus for treating containers, comprising a container treatment station, a transport path, at least one transport element (5a, 5b) and a carrier element for receiving at least one container which can be moved along the transport path via the transport element (5a, 5b), a segment of the transport path being configured such that it can be moved with a carrier element, so that, by the movement of the segment, the containers accommodated on the carrier element can be introduced into the container treatment station for container treatment, characterized in that the carrier element is configured to close the container treatment station when the containers are introduced into the container treatment station for container treatment.
A capacitor including first and second conductive plates separated by a dielectric spacer, the dielectric spacer being formed of a dielectric material including a composition of bismuth ferrite and an additive which increases the difference between the saturation polarisation and the remnant polarisation of bismuth ferrite, characterised in that said additive includes strontium and titanium.
A method for utilizing near-surface geothermal heat for heating and/or cooling and/or warming hot drinking water from one or more buildings, with ground collectors that are arranged one above the other in multiple heat storage layers, in which heat is withdrawn from the earth by the ground collectors in at least one heat storage layer to heat one or more buildings, and the regeneration of the earth takes place at least temporarily in at least one first heat storage layer containing first ground collectors with the aid of heat supplied to the earth distributed in a planar manner over at least one region of the surface of the earth, and at the same time in at least one second heat storage layer arranged below the first heat storage layer and containing second ground collectors with the aid of heat emission from the second ground collectors to the second heat storage layer, wherein the first ground collectors emit no heat or less heat to the first heat storage layer than the second ground collectors emit to the second heat storage layer, and heat is withdrawn from the earth at least temporarily by the ground collectors in all heat storage layers (12, 15) to heat buildings.
Device for applying adhesive to a substrate, having an application roller that is rotatable about an axis, an installation for dispensing adhesive to a circumferential area of the application roller, a dispensing region of the application roller for dispensing adhesive from the application roller, and having a doctor blade, wherein the dispensing region for adhesive in the rotation direction of the application roller is located behind the installation for dispensing the adhesive to the application roller and ahead of the doctor blade, wherein the application roller is rotatable about a vertical axis and the excess adhesive wiped by the doctor blade from the doctor blade reaches a collection installation that is located below the doctor blade, characterized in that the installation for dispensing adhesive is configured as a slot die, wherein the slot die has a vertical slot, the vertical slot extent of the latter being adjustable.
A method of approximating an exact log-likehood ratio, LLR, calculation for quadrature amplitude modulation, QAM, signals in a receiver, said method comprising employing a piecewise linear approximation to determine respective values of a plurality of LLR coefficients K i, j k, where i corresponds to a QAM constellation, j corresponds to a QAM constellation bit index, and k corresponds to an LLR coefficient index, wherein said method further comprises: a. if k is larger than one, deriving LLR coefficients K i, j k based on a requirement that said exact LLR calculation and said LLR approximation have the same sign for a specific value of the standard deviation of a channel noise distribution; and b. if k is equal to one, deriving an optimal value of the LLR coefficient K i, j 1 based on a minimization of an expected LLR error between said exact LLR calculation and said LLR approximation by searching for the optimal value of the LLR coefficient K i, j 1 that minimizes the expected LLR error for the specific value of the standard deviation of the channel noise distribution. a. if k is larger than one, deriving LLR coefficients K i, j k based on a requirement that said exact LLR calculation and said LLR approximation have the same sign for a specific value of the standard deviation of a channel noise distribution; and b. if k is equal to one, deriving an optimal value of the LLR coefficient K i, j 1 based on a minimization of an expected LLR error between said exact LLR calculation and said LLR approximation by searching for the optimal value of the LLR coefficient K i, j 1 that minimizes the expected LLR error for the specific value of the standard deviation of the channel noise distribution.
A container made of glass, in particular for holding a preparation, comprising a hollow body which has an inner volume, in particular for holding the preparation; the hollow body having a wall with an inner surface adjacent to the inner volume of the hollow body; and an outer surface opposite the inner surface; wherein the wall comprises a compressive stress zone at least in a portion thereof; wherein the compressive stress zone is provided adjacent to the outer surface, whereby the outer surface is toughened by virtue of compressive stress at least in a portion thereof; and characterized in that the inner surface of the wall opposite said portion is free of compressive stresses and is preferably under tensile stress. the hollow body having a wall with an inner surface adjacent to the inner volume of the hollow body; and an outer surface opposite the inner surface; a wall with an inner surface adjacent to the inner volume of the hollow body; and an outer surface opposite the inner surface; wherein the wall comprises a compressive stress zone at least in a portion thereof; wherein the compressive stress zone is provided adjacent to the outer surface, whereby the outer surface is toughened by virtue of compressive stress at least in a portion thereof; and characterized in that the inner surface of the wall opposite said portion is free of compressive stresses and is preferably under tensile stress.
A method for changing an aggregation potential or propensity of a particulate solid material comprising the step of: coating the particulate solid material with a composition comprising a homopolymer or a copolymer of a heterocyclic or heterocyclic aromatic nitrogen-containing vinyl monomer. coating the particulate solid material with a composition comprising a homopolymer or a copolymer of a heterocyclic or heterocyclic aromatic nitrogen-containing vinyl monomer.
A crystalline Form I of nicotinamide riboside chloride according to formula I that is characterized by a powder X-ray diffraction pattern having peaks at 5.1, 15.7, and 21.7 degrees two theta ± 0.2 degrees two theta.