mhurhangee/ep-ind-claims huggingface dataset:
Scale with • a support plate for receiving a load to be weighed, • a sensor system with at least one measuring sensor for determining at least one parameter significant for the weight of the load, • an electronic unit for calculating a weighing result from a measurement result provided by the sensor system, and with • a switching device arranged on the support plate, wherein the switching device comprises at least one switching actuator for selecting or choosing a function of the scale, by means of which a user is able to select or choose the respective function of the scale by means of a switching action which can be detected by the switching device, and wherein the switching action comprises exerting pressure on a switching area provided on the support plate and assigned to the function or approaching, in particular approaching which requires at least light contact for choosing, a proximity-sensitive switching area of the scale, characterized in that the scale comprises at least one haptic feedback actuator which, when a switching action is detected, is capable of generating a haptic feedback for the user by means of mechanical excitation or movement of the support plate and thus of the switching area arranged thereon. • a support plate for receiving a load to be weighed, • a sensor system with at least one measuring sensor for determining at least one parameter significant for the weight of the load, • an electronic unit for calculating a weighing result from a measurement result provided by the sensor system, and with • a switching device arranged on the support plate, wherein the switching device comprises at least one switching actuator for selecting or choosing a function of the scale, by means of which a user is able to select or choose the respective function of the scale by means of a switching action which can be detected by the switching device, and wherein the switching action comprises exerting pressure on a switching area provided on the support plate and assigned to the function or approaching, in particular approaching which requires at least light contact for choosing, a proximity-sensitive switching area of the scale, characterized in that the scale comprises at least one haptic feedback actuator which, when a switching action is detected, is capable of generating a haptic feedback for the user by means of mechanical excitation or movement of the support plate and thus of the switching area arranged thereon.
A polyamine of Formula wherein A represents the radical of an amine after removal of a primary aliphatic amino group; a represents an integer from 1 to 6, provided that if a = 1, the radical A has at least one reactive group selected from the group consisting of primary amino groups, secondary amino groups, hydroxyl groups and mercapto groups; R1 and R2 represent either independently of one another, a monovalent hydrocarbon radical having 1 to 12 C atoms, or taken together, a divalent hydrocarbon radical having 4 to 12 C atoms, which is part of an optionally substituted carbocyclic ring having 5 to 8, preferably 6, C atoms; R3 represents a hydrogen atom or an alkyl group or arylalkyl group or alkoxycarbonyl group having 1 to 12 C atoms each; and either R4 represents a monovalent aliphatic cycloaliphatic or arylaliphatic radical having 1 to 20 C atoms, which optionally contains oxygen atoms, and R5 represents a hydrogen atom or a monovalent aliphatic, cycloaliphatic or arylaliphatic radical having 1 to 20 C atoms, which optionally contains oxygen atoms, or R4 and R5 together represent a divalent aliphatic radical with 3 to 30 C atoms which is part of an optionally substituted heterocyclic ring having 5 to 8, preferably 6, ring atoms, wherein this ring in addition to the nitrogen atom optionally contains additional heteroatoms. A represents the radical of an amine after removal of a primary aliphatic amino group; a represents an integer from 1 to 6, provided that if a = 1, the radical A has at least one reactive group selected from the group consisting of primary amino groups, secondary amino groups, hydroxyl groups and mercapto groups; R1 and R2 represent either independently of one another, a monovalent hydrocarbon radical having 1 to 12 C atoms, or taken together, a divalent hydrocarbon radical having 4 to 12 C atoms, which is part of an optionally substituted carbocyclic ring having 5 to 8, preferably 6, C atoms; R3 represents a hydrogen atom or an alkyl group or arylalkyl group or alkoxycarbonyl group having 1 to 12 C atoms each; and either R4 represents a monovalent aliphatic cycloaliphatic or arylaliphatic radical having 1 to 20 C atoms, which optionally contains oxygen atoms, and R5 represents a hydrogen atom or a monovalent aliphatic, cycloaliphatic or arylaliphatic radical having 1 to 20 C atoms, which optionally contains oxygen atoms, or R4 and R5 together represent a divalent aliphatic radical with 3 to 30 C atoms which is part of an optionally substituted heterocyclic ring having 5 to 8, preferably 6, ring atoms, wherein this ring in addition to the nitrogen atom optionally contains additional heteroatoms.
A botanical disinfection composition, characterized by comprising the following raw materials in parts by weight: 0.5-1.0 part of tea tree essential oil, 0.5-1.0 part of niaouli essential oil, 0.5-1.0 part of palmarosa essential oil, 0.5-1.0 part of lemon mint essential oil, and 0.3-0.8 part of lemon myrtle essential oil or litsea cubeba essential oil. 0.5-1.0 part of tea tree essential oil, 0.5-1.0 part of niaouli essential oil, 0.5-1.0 part of palmarosa essential oil, 0.5-1.0 part of lemon mint essential oil, and 0.3-0.8 part of lemon myrtle essential oil or litsea cubeba essential oil.
Shelving structure comprising a plurality of supporting legs or uprights with respect to a ground or pavement subject to the vibrations induced by a seism, wherein at least one of said supporting legs or uprights comprises an isolator, (11; 111; 111'; 111"; 211), wherein said isolator (11; 111; 111', 111"; 211) comprises an oscillating element (13; 113; 213) coupled to said shelving structure, characterized in that the isolator further comprises a supporting framework provided with a base plate adapted to support the isolator (11;111;111';111";211) with respect to the ground, wherein said oscillating element (13;113;213) and said supporting framework are associated with each other by means of connecting pins slidable in pairs of substantially parallel arched guides (21;121) arranged in at least one out of said oscillating element (13;113;213) and said supporting framework, whereby said oscillating element (13;113;213) and said supporting framework are mutually oscillating and the mutual oscillation of the oscillating element (13;113;213) and of the supporting framework causes the simultaneous mutual sliding thereof along two directions (S1,S2) perpendicular to each other, wherein said base plate is intended for resting on the ground and pairs of mutually parallel side walls (15b,15c) perpendicular to the respective base plate; wherein said oscillating element (13;113;213) comprises an oscillating framework (129; 229) which comprises a supporting plate (129a, 229a) intended for supporting the structure to be isolated from the ground and pairs of mutually parallel lateral walls (129b,129c) perpendicular to the corresponding supporting plate (129a; 229a), said supporting plate (129a; 229a) being provided with engagement elements to which the uprights or legs of the shelving structure are attached; wherein the arched guides (21,121) comprise arched slots (23,123) formed in the side walls of the supporting framework and oscillating framework (129; 229); and wherein, when the isolator is in the operating configuration, the concavity of the arched slots (23, 123) is directed upwards in the supporting frame, i.e. towards the shelving structure to be isolated, and downwards, i.e. towards the ground, in the oscillating framework (129, 229).
A hand-operated power tool, comprising: a power head having a housing (146, 148) enclosing an electric motor and at least partially enclosing a cutting tool operatively coupled to the electric motor; a head support connected to the power head and settable in a plurality of angular positions with respect to said power head, said head support having a head coupling including a head electrical connection unit electrically connected to the electric motor; an elongated boom terminating at a distal end with a handle coupling for releasable engagement with the head coupling, the handle coupling having an electrical receptacle for electrically connecting to the head electrical connection unit during the engagement; and a control handle assembly connected to a proximal end of said elongated boom and having a manual switch to control communication of electric power from an electrical power unit to the handle electrical connection unit during the engagement,whereby engagement of the manual switch controls mechanical operation of the cutting tool; characterised by a moveable engagement pin for locking said head support into one of a plurality of selectable angular positions with respect to said power head. a power head having a housing (146, 148) enclosing an electric motor and at least partially enclosing a cutting tool operatively coupled to the electric motor; a head support connected to the power head and settable in a plurality of angular positions with respect to said power head, said head support having a head coupling including a head electrical connection unit electrically connected to the electric motor; an elongated boom terminating at a distal end with a handle coupling for releasable engagement with the head coupling, the handle coupling having an electrical receptacle for electrically connecting to the head electrical connection unit during the engagement; and a control handle assembly connected to a proximal end of said elongated boom and having a manual switch to control communication of electric power from an electrical power unit to the handle electrical connection unit during the engagement,whereby engagement of the manual switch controls mechanical operation of the cutting tool;
A method for an application server, the method comprising: receiving, from a mobility management entity, MME, information related to a power saving mode of terminals; receiving (S910, S830, S1110), from a first terminal (1003, 1103), a service request for a second terminal; identifying that the second terminal is in a power saving mode using the received information from the MME; and characterised by: transmitting (S940, S1130) an early media service to the first terminal based on information related to the power saving mode of the second terminal, the early media service being used to notify a user that the service is delayed. receiving, from a mobility management entity, MME, information related to a power saving mode of terminals; receiving (S910, S830, S1110), from a first terminal (1003, 1103), a service request for a second terminal; identifying that the second terminal is in a power saving mode using the received information from the MME; and characterised by: transmitting (S940, S1130) an early media service to the first terminal based on information related to the power saving mode of the second terminal, the early media service being used to notify a user that the service is delayed.
A process comprising the steps of: a. macerating fresh tea leaves, b. fermenting the macerated tea leaves, c. expressing juice from fermented tea leaves thereby to produce leaf residue and tea juice, d. heating the juice to a temperature of 50 to 85°C for 15 to 150 minutes, e. collecting the vapour from the heated tea juice and condensing it to produce a condensate rich in tea aroma; and f. recovering the condensate; wherein in step (d) the juice is aerated with a gas comprising oxygen and wherein in step (e), the vapour mixed with the gas is collected and condensed. a. macerating fresh tea leaves, b. fermenting the macerated tea leaves, c. expressing juice from fermented tea leaves thereby to produce leaf residue and tea juice, d. heating the juice to a temperature of 50 to 85°C for 15 to 150 minutes, e. collecting the vapour from the heated tea juice and condensing it to produce a condensate rich in tea aroma; and f. recovering the condensate;
A method of forming patterns for a large area liquid crystal device, comprising: preparing a large area liquid crystal device which includes a substrate, a conductive layer provided on the substrate, and a liquid crystal alignment film provided on the conductive layer; and exposing one area of the substrate by delaminating one area of the conductive layer and the liquid crystal alignment film by irradiating a laser to the large area liquid crystal device; wherein the laser is irradiated from the liquid crystal alignment film toward the conductive layer and the laser is a Q switching IR laser having a beam diameter of 1 mm or larger and 16 mm or smaller and an energy per pulse of 0.05 J or higher and 2.5 J or lower. preparing a large area liquid crystal device which includes a substrate, a conductive layer provided on the substrate, and a liquid crystal alignment film provided on the conductive layer; and exposing one area of the substrate by delaminating one area of the conductive layer and the liquid crystal alignment film by irradiating a laser to the large area liquid crystal device; wherein the laser is irradiated from the liquid crystal alignment film toward the conductive layer and the laser is a Q switching IR laser having a beam diameter of 1 mm or larger and 16 mm or smaller and an energy per pulse of 0.05 J or higher and 2.5 J or lower.
A user equipment, UE, for communicating with a base station, the UE comprising: means for establishing a Radio Resource Control, RRC, connection with the base station to enter an RRC connected mode; and means for receiving a dedicated signalling message including a modified part of system information via the RRC connection, in a case where the UE is in the RRC connected mode. means for establishing a Radio Resource Control, RRC, connection with the base station to enter an RRC connected mode; and means for receiving a dedicated signalling message including a modified part of system information via the RRC connection, in a case where the UE is in the RRC connected mode.
Projection light module for a motor vehicle headlamp, having a light source, a primary lens that bundles the light of the light source into an intermediate light distribution, a mirrored shutter that delimits the intermediate light distribution with a shutter edge (18.1), a projection lens that projects the delimited intermediate light distribution into a region in front of the light module and a first holding structure that firmly holds the light source, the primary lens, the mirrored shutter and the projection lens, which first holding structure comprises a lens mount, which comprises a light source side end and a projection lens side end, which projection lens side end has a lens receiver, which is configured for accommodating the projection lens and to retain it by a form fit and/or force fit, wherein the lens mount is divided into a first component and a second component, wherein a separating surface lying between the two components cuts the lens receiver, characterised in that the mirrored shutter is clamped between the first component and the second component, wherein the position of the mirrored shutter in relation to the two components of the lens mount is determined by form fitting elements (30, 34) that engage with one another, and in that the mirrored shutter has spacers (18.4, 18.5) facing toward the projection lens, which are in contact with the projection lens.
A tubular membrane heat exchanger comprising: an inlet header including an inlet header body; an outlet header including an outlet header body; a plurality of tubular membranes; characterised in that the tubular membrane heat exchanger further comprises a plurality of inlet fittings connecting the tubular membranes to the inlet header body; potting of the inlet header keeping the tubular membranes connected to the inlet fittings; a plurality of outlet fittings connecting the tubular membranes to the outlet header body; and potting of the outlet header keeping the tubular membranes connected to the outlet fittings. an inlet header including an inlet header body; an outlet header including an outlet header body; a plurality of tubular membranes; characterised in that the tubular membrane heat exchanger further comprises a plurality of inlet fittings connecting the tubular membranes to the inlet header body; potting of the inlet header keeping the tubular membranes connected to the inlet fittings; a plurality of outlet fittings connecting the tubular membranes to the outlet header body; and potting of the outlet header keeping the tubular membranes connected to the outlet fittings.
A cladding system for a wall, the cladding system comprising a plate-shaped cladding element connectable to a fastening profile on two opposite longitudinal or transverse sides, the fastening profile being configured to anchor the cladding system to the wall, the cladding element having a preferably strip-shaped fastening section (60, 62), which is bent in relation to a base surface section of the cladding element, on the two longitudinal or transverse sides disposed in operative connection with a fastening profile, the fastening section (60, 62) interacting with a complementary, groove-shaped reception section (16, 18) on the fastening profile, the two reception sections (16, 18) on the fastening profile being disposed on the fastening profile on the side opposite to a fastening surface for the wall, the first reception section extending at least substantially parallel to the fastening surface or to the base surface section of the cladding element, characterized in that the second reception section is disposed at an inclined angle (α), preferably between 30° and 60°, particularly preferably approximately 45 degrees, to the fastening surface or to the base surface section, and that a plane aligned with a lateral wall surface of the second reception section assigned to the second reception section extends outside the cross section of the cladding element if said cladding element is disposed in the first reception section of the fastening profile.
Method for determining the direction of a source of waterborne sound that emits a waterborne acoustic signal, doing so by means of a hydrophone arrangement which forms a linear antenna or a virtual linear antenna, wherein the method comprises the following steps: - Determining the waterborne acoustic signal incoming at the hydrophone arrangement at a first measurement time t 1, - Performing an electronic antenna swing analysis which determines a sum signal S of the linear antenna or of the virtual linear antenna at every rotation angle α n = α 0 ± nΔα, where α 0 is the starting angle, Δα is the step-width angle, and n = 0, 1, 2, 3, 4..., such that a measurement series S(α) is created, - Determining a maximum sum signal S max (α max), where α max is the maximum rotation angle of the measurement series S(α), - Determining a fit measurement series S Fit (α), which includes the maximum sum signal S max (α max) and at least two more sum signals S(α n) m, with the sum number m = 2, 3, 4..., - Determining a mathematical fit function f Fit (α Fit) for the fit measurement series S Fit (α) by means of a mathematical equalization calculation, and - Determining a fit function maximum f Fit,Max (α Fit,Max) of the mathematical fit function f Fit (α Fit), wherein the direction of the waterborne sound source is determined by means of α Fit,Max. - Determining the waterborne acoustic signal incoming at the hydrophone arrangement at a first measurement time t 1, - Performing an electronic antenna swing analysis which determines a sum signal S of the linear antenna or of the virtual linear antenna at every rotation angle α n = α 0 ± nΔα, where α 0 is the starting angle, Δα is the step-width angle, and n = 0, 1, 2, 3, 4..., such that a measurement series S(α) is created, - Determining a maximum sum signal S max (α max), where α max is the maximum rotation angle of the measurement series S(α), - Determining a fit measurement series S Fit (α), which includes the maximum sum signal S max (α max) and at least two more sum signals S(α n) m, with the sum number m = 2, 3, 4..., - Determining a mathematical fit function f Fit (α Fit) for the fit measurement series S Fit (α) by means of a mathematical equalization calculation, and - Determining a fit function maximum f Fit,Max (α Fit,Max) of the mathematical fit function f Fit (α Fit), wherein the direction of the waterborne sound source is determined by means of α Fit,Max.
A method for locally describing an image, comprising: - preprocessing an image by applying a low-pass filter to each channel for reducing at least one of the following effects: radiometric noise, geometric quantization or image lattice; - extracting a plurality of key points from said image; - for each key point, extracting a circular patch of size s which surrounds said key point; - for each key point corresponding circular patch, applying a trace transform, thus transforming each of said corresponding circular patches into respective bidimensional transformed matrixes, thus obtaining a plurality of rows of values of length of normal (p), wherein the trace transform is geometrically represented by a distance and by an angle ( φ) with respect to the extracted key points, said length of normal (p) representing said distance with respect to the corresponding key point; the method being characterized in that if further comprises: - applying a frequency transform to each of said rows of values of length of normal (p), thus obtaining, for each row of values of length of normal (p), a row of module values, wherein said module values represent a local descriptor of each key point of said image; - eliminating the DC value of each of said module values, thus creating an optimized local descriptor of each key point of the image, the optimized descriptor being formed by said rows of module values from which the respective DC values have been eliminated. - preprocessing an image by applying a low-pass filter to each channel for reducing at least one of the following effects: radiometric noise, geometric quantization or image lattice; - extracting a plurality of key points from said image; - for each key point, extracting a circular patch of size s which surrounds said key point; - for each key point corresponding circular patch, applying a trace transform, thus transforming each of said corresponding circular patches into respective bidimensional transformed matrixes, thus obtaining a plurality of rows of values of length of normal (p), wherein the trace transform is geometrically represented by a distance and by an angle ( φ) with respect to the extracted key points, said length of normal (p) representing said distance with respect to the corresponding key point; - applying a frequency transform to each of said rows of values of length of normal (p), thus obtaining, for each row of values of length of normal (p), a row of module values, wherein said module values represent a local descriptor of each key point of said image; - eliminating the DC value of each of said module values, thus creating an optimized local descriptor of each key point of the image, the optimized descriptor being formed by said rows of module values from which the respective DC values have been eliminated.