mhurhangee/ep-ind-claims huggingface dataset:
Sanding shoe (1, 1.1) for a belt sanding machine, consisting of a sliding layer, the basic constituent of which is graphite, which fulfils a sliding function for the abrasive belt, an intermediate material and a carrier for inclusion in an sanding shoe holder, wherein the carrier consists of a flexible material, and wherein the carrier has two free ends or carrier strips which are not covered by the intermediate material and the sliding layer, characterised in that the flexible material is made of textile fabric, hard paper, paper, cardboard, soft plastic film made of PU foam or a mixture of these materials.
Method to determine a roll angle ( λ E) of a vehicle, wherein the roll angle (λ E) is calculated as a combination of at least a first roll angle variable ( λ 1) and a second roll angle variable ( λ 2), wherein the first roll angle variable ( λ 1) is determined from an acquired rolling rate ( λ̇ m) of the vehicle using a first method, wherein the second roll angle variable ( λ 2) is determined from one or more further vehicle movement dynamics characteristic variables using a second method, characterized in that the combination comprises multiple levels, wherein each level comprises at least one filtering step and at least one combination step, wherein one of the roll angle variable determination methods applies a resettable integrator in combination with a resettable high-pass filter to eliminate roll-rate offset effects.
A method of generating an ultrasound image, the method comprising: setting a focal point in an object; transmitting, based on a location of the focal point, ultrasound signals into the object by using a plurality of elements in a transducer; receiving, via the plurality of elements, ultrasound echo signals obtained by reflecting the ultrasound signals from the object; and performing beamforming on the received ultrasound echo signals, wherein the performing beamforming of the received ultrasound echo signals comprises: setting, based on the location of the focal point, a plurality of delay times respectively corresponding to the plurality of elements; determining the number of capacitors to be used for time delay, respectively corresponding to the plurality of elements based on the set plurality of delay times, such that a time when a signal is not stored in a capacitor used for the time delay is less than a predetermined time; and respectively performing the beamforming on the received ultrasound echo signals by using the determined number of capacitors. setting a focal point in an object; transmitting, based on a location of the focal point, ultrasound signals into the object by using a plurality of elements in a transducer; receiving, via the plurality of elements, ultrasound echo signals obtained by reflecting the ultrasound signals from the object; and performing beamforming on the received ultrasound echo signals, wherein the performing beamforming of the received ultrasound echo signals comprises: setting, based on the location of the focal point, a plurality of delay times respectively corresponding to the plurality of elements; determining the number of capacitors to be used for time delay, respectively corresponding to the plurality of elements based on the set plurality of delay times, such that a time when a signal is not stored in a capacitor used for the time delay is less than a predetermined time; and respectively performing the beamforming on the received ultrasound echo signals by using the determined number of capacitors. setting, based on the location of the focal point, a plurality of delay times respectively corresponding to the plurality of elements; determining the number of capacitors to be used for time delay, respectively corresponding to the plurality of elements based on the set plurality of delay times, such that a time when a signal is not stored in a capacitor used for the time delay is less than a predetermined time; and respectively performing the beamforming on the received ultrasound echo signals by using the determined number of capacitors.
A method of searching points of interest, or POIs, along a calculated route (10, 11) to be travelled by a user, the method comprising the steps of: - providing an initial search corridor (12, 13, 14) of predetermined size, wherein the search corridor (12, 13, 14, 12', 13', 14') is indicative of a geographic area covering at least a portion of the route to be travelled by the user; - performing a POI search within the provided search corridor (12, 13, 14, 12', 13', 14'); and - adjusting the corridor size for a subsequent POI search based on a number of POI hits found during the POI search in the currently provided search corridor (12, 13, 14, 12', 13', 14'), wherein the adjusting step and the POI searching step are iteratively repeated until the number of POI hits found within the iteratively adjusted corridor size meets an acceptance criterion, wherein the adjusting step is stopped as soon as the acceptance criterion is met, whereas the POI searching step continues on the basis of the adjusted corridor size while the user is travelling along the route, wherein the method further comprises: - updating a route position, and - adjusting the search corridor to the updated route position. - providing an initial search corridor (12, 13, 14) of predetermined size, wherein the search corridor (12, 13, 14, 12', 13', 14') is indicative of a geographic area covering at least a portion of the route to be travelled by the user; - performing a POI search within the provided search corridor (12, 13, 14, 12', 13', 14'); and - adjusting the corridor size for a subsequent POI search based on a number of POI hits found during the POI search in the currently provided search corridor (12, 13, 14, 12', 13', 14'), wherein the adjusting step and the POI searching step are iteratively repeated until the number of POI hits found within the iteratively adjusted corridor size meets an acceptance criterion, wherein the adjusting step is stopped as soon as the acceptance criterion is met, whereas the POI searching step continues on the basis of the adjusted corridor size while the user is travelling along the route, wherein the method further comprises: - updating a route position, and - adjusting the search corridor to the updated route position.
Device for roasting organic matter for extraction of volatile compounds, in particular guaiacol, continuously, comprising a tank of raw organic matter, a member for preparing organic matter disposed downstream of the tank of raw organic matter, a tank of prepared organic matter disposed downstream of the member for preparing organic matter, a member for supplying and circulating prepared organic matter disposed downstream of the tank of prepared organic matter, a furnace disposed downstream of the member for supplying and circulating prepared organic matter and comprising an electric resistor, a fan for supplying the furnace with air, a member for spraying water in the furnace, a temperature sensor disposed in the furnace, a control member receiving data from the temperature sensor and emitting settings to the electric resistor, the supply fan and the member for spraying water.
A method of synchronizing transmission of packets in a data stream from a content server via a plurality of packet control functions, PCFs, (116, 118) on a wireless network to a plurality of mobile nodes, each packet having an assigned sequence number, the method comprising: synchronizing a counter of each PCF with counters of the other PCFs on the wireless network, wherein each PCF maintains a jitter buffer for buffering the data stream received by the PCF; selecting a modulo number based on the size of the jitter buffers; calculating a remainder of a modulo operation using the modulo number for each sequence number; and transmitting a packet in a data stream from each PCF (116, 118) when the counter of the PCF equals the remainder of the modulo operation on the sequence number of the packet in the data stream. synchronizing a counter of each PCF with counters of the other PCFs on the wireless network, wherein each PCF maintains a jitter buffer for buffering the data stream received by the PCF; selecting a modulo number based on the size of the jitter buffers; calculating a remainder of a modulo operation using the modulo number for each sequence number; and transmitting a packet in a data stream from each PCF (116, 118) when the counter of the PCF equals the remainder of the modulo operation on the sequence number of the packet in the data stream.
Method for removing nitrite from a liquid, comprising the following steps: (a) providing nitrite-comprising liquid, coming from the oxidation of ammonia in an aqueous solution, wherein the ammonia in aqueous solution comes from washing ammonia-comprising air; (b) adding an amount of a nitrite-converting substance to the nitrite-comprising liquid, thereby converting nitrite into nitrogen gas, wherein the nitrite-converting substance comprises an amine group or amide group and a sulfamic group, and is capable of forming diazo compounds, wherein the liquid comprises a pH-value which is lower than 5.9, wherein the nitrite-converting substance is sulfamic acid or a salt thereof, and wherein the oxidation of ammonia in an aqueous solution is performed by micro-organisms. (a) providing nitrite-comprising liquid, coming from the oxidation of ammonia in an aqueous solution, wherein the ammonia in aqueous solution comes from washing ammonia-comprising air; (b) adding an amount of a nitrite-converting substance to the nitrite-comprising liquid, thereby converting nitrite into nitrogen gas, wherein the nitrite-converting substance comprises an amine group or amide group and a sulfamic group, and is capable of forming diazo compounds, wherein the liquid comprises a pH-value which is lower than 5.9, wherein the nitrite-converting substance is sulfamic acid or a salt thereof, and wherein the oxidation of ammonia in an aqueous solution is performed by micro-organisms.
Device for the quality control of transparent objects, comprising at least one light source (3, 7), which is configured to illuminate the object, and comprising at least one image capture device, with which at least one image of the object can be captured, and comprising at least one reflector, it being possible to place the object between the reflector, on the one hand, and the image capture device and the light source, on the other hand, the distance between the object and the reflector being variable, characterized in that in addition an evaluation device is present, with which the data of the image capture device (2, 2a, 2b) can be evaluated by supplying at least two images of the transparent object to the evaluation device, and the evaluation device is configured to compare at least one first image, which was acquired using the reflector, with at least one second image, the acquisition conditions of which differ from the first image, by changing the distance between the object and the reflector.
Seal element, consisting of an elongate seal body which can be deformed elastically at least in a transverse direction to its longitudinal extent, which seal body has a cross-sectional profile which is open on one side with at least two contact regions on adjacent components (2, 3), and which seal body has a U-shaped cross-sectional profile, each of the two limbs (8', 8'') of the U-profile forming a contact region in the operating state with one of the surfaces (4, 5) of an adjacent component (2, 3), and at least one of the two limbs (8', 8'') being elastically deformable perpendicularly with respect to its longitudinal extent, by at least one spring element being inserted into the seal body, which spring element exerts a spreading force on the limbs (8', 8'') of the U-shaped seal body, characterized in that a number of spring elements are inserted into the seal body so as to follow one another with or without intermediate spacings, and the spring elements which follow one another have a different deformation behaviour, in particular exert different spreading forces on the seal body.
A method of forming a cutting element comprising: placing a plurality of diamond particles adjacent to a substrate in a reaction cell; and subjecting the plurality of diamond particles to high pressure high temperature conditions to form a polycrystalline diamond body; wherein the polycrystalline diamond body comprises a cutting face area to thickness ratio ranging from 60:16 to 500:5; and wherein the thickness of the polycrystalline diamond body is greater than 8 mm. placing a plurality of diamond particles adjacent to a substrate in a reaction cell; and subjecting the plurality of diamond particles to high pressure high temperature conditions to form a polycrystalline diamond body;
A copolymer prepared using two or more non-coordinating anion activators said copolymer comprising a first C 2 to C 12 alpha olefin, a second C 3 to C 12 alpha olefin different from the first alpha olefin, and diene, where the copolymer has: a) first alpha olefin content of 35 to 90 mol%; b) second alpha olefin content of 9.8 to 64.8 mol%; c) diene content of 0.2 to 5 mol%; d) a branching index g'ave of 0.95 or more; e) complex viscosity ratio (eta ∗ (0.01rad/s)/eta ∗ (100rad/s), at 125 °C) greater than 1.1 ∗ Y 0, where Y 0 = Y1+{[(Y2-Y1)/(X2-X1)](X0-X1)}, where X 0 is the wt% of a first non-coordinating anion activator, NCA 1, used to prepare the copolymer (based upon weight of NCA 1 and a second non-coordinating anion activator, NCA 2, used to prepare the copolymer), X 1 = 0, X 2 = 100, Y 1 = complex viscosity ratio of polymer made with 100% NCA 1 and 0% NCA 2, Y 2 is complex viscosity ratio of polymer made with 100% NCA 2 and 0% NCA 1, where NCA 1 has an Mw lower than the Mw of NCA 2; f) an Mw/Mn of 5.0 or less; g) a melting point of 30°C or less; and h) a Composition Distribution Breadth Index of 50% or more. a) first alpha olefin content of 35 to 90 mol%; b) second alpha olefin content of 9.8 to 64.8 mol%; c) diene content of 0.2 to 5 mol%; d) a branching index g'ave of 0.95 or more; e) complex viscosity ratio (eta ∗ (0.01rad/s)/eta ∗ (100rad/s), at 125 °C) greater than 1.1 ∗ Y 0, where Y 0 = Y1+{[(Y2-Y1)/(X2-X1)](X0-X1)}, where X 0 is the wt% of a first non-coordinating anion activator, NCA 1, used to prepare the copolymer (based upon weight of NCA 1 and a second non-coordinating anion activator, NCA 2, used to prepare the copolymer), X 1 = 0, X 2 = 100, Y 1 = complex viscosity ratio of polymer made with 100% NCA 1 and 0% NCA 2, Y 2 is complex viscosity ratio of polymer made with 100% NCA 2 and 0% NCA 1, where NCA 1 has an Mw lower than the Mw of NCA 2; f) an Mw/Mn of 5.0 or less; g) a melting point of 30°C or less; and h) a Composition Distribution Breadth Index of 50% or more.
A composition comprising an agonist of hypocretin receptor 2 (HCRTR2) for use in the treatment of heart failure, wherein the agonist of HCRTR2 is selected from the group consisting of orexin-A, orexin-B, [Ala 11,D-Leu 15]-orexin B, and SB-668875.
A variant adeno-associated virus capsid protein comprising a heterologous peptide with a length of 7, 8, 9, 10 or 11 amino acids covalently inserted in the GH-loop of the capsid protein relative to a corresponding parental AAV capsid protein, wherein the peptide insertion comprises the amino acid sequence ISDQTKH (SEQ ID NO:14).
A device for detecting at least one level of a fluid of a tank, comprising: - a floating body having a floating axis; - a plurality of orientation sensors constrained in a fixed position to said floating body; - a command unit configured to communicate with said plurality of orientation sensors and to control an operating device, wherein each sensor of said plurality is configured to send a signal to said command unit to change the operating state of said operating device at a certain level (L1, L2, L3, L4) of said fluid corresponding to a determined inclination (i1, i2, i3, i4) of said axis with respect to said certain level (L1, L2, L3, L4), - a support means operatively connected to said floating body and comprising a hinge, said support means being configured to allow movement of said floating body only with respect to a single plane perpendicular to the plane corresponding to said level of said fluid of said tank, - said floating body comprising at one end a connecting protrusion configured for stably connecting and in a unique position said floating body to said support means, wherein said predetermined inclination (i1, i2, i3, i4) of said axis, determining a change of the state of said sensors, is different for each sensor of said plurality. - a floating body having a floating axis; - a plurality of orientation sensors constrained in a fixed position to said floating body; - a command unit configured to communicate with said plurality of orientation sensors and to control an operating device, wherein each sensor of said plurality is configured to send a signal to said command unit to change the operating state of said operating device at a certain level (L1, L2, L3, L4) of said fluid corresponding to a determined inclination (i1, i2, i3, i4) of said axis with respect to said certain level (L1, L2, L3, L4), - a support means operatively connected to said floating body and comprising a hinge, said support means being configured to allow movement of said floating body only with respect to a single plane perpendicular to the plane corresponding to said level of said fluid of said tank, - said floating body comprising at one end a connecting protrusion configured for stably connecting and in a unique position said floating body to said support means, wherein
An antenna assembly, comprising: an extendible mast constructed and arranged so as to be configurable between a coiled form and an extended form, wherein when extended the mast is resiliently biased in the form of an elongate tube having a slit along its length and wherein when coiled the mast is opened out at the slit and wound about an axis extending transversely to the longitudinal extent of the mast; and, an antenna comprising one or more antenna elements for transmitting and receiving signals integrally coupled to the mast such that when extended, the mast supports and positions the antenna, and when coiled, the mast and antenna are coiled together, wherein the antenna extends along only a portion of the mast so as to be in an elevated position when the antenna assembly is deployed; wherein the mast comprises a laminate of fibre-reinforced insulating layers serving as structural components of the antenna assembly and configured to be bistable such that the antenna assembly is stable both when coiled and when extended, allowing the antenna assembly to be manually extendable and retractable from and back to an unconstrained coil; and wherein the antenna is integrally coupled with or within the laminate of fibre-reinforced insulating layers. an extendible mast constructed and arranged so as to be configurable between a coiled form and an extended form, wherein when extended the mast is resiliently biased in the form of an elongate tube having a slit along its length and wherein when coiled the mast is opened out at the slit and wound about an axis extending transversely to the longitudinal extent of the mast; and, an antenna comprising one or more antenna elements for transmitting and receiving signals integrally coupled to the mast such that when extended, the mast supports and positions the antenna, and when coiled, the mast and antenna are coiled together, wherein the antenna extends along only a portion of the mast so as to be in an elevated position when the antenna assembly is deployed; wherein the mast comprises a laminate of fibre-reinforced insulating layers serving as structural components of the antenna assembly and configured to be bistable such that the antenna assembly is stable both when coiled and when extended, allowing the antenna assembly to be manually extendable and retractable from and back to an unconstrained coil; and wherein the antenna is integrally coupled with or within the laminate of fibre-reinforced insulating layers.
A process for the preparation of a granular composition comprising solidified melt granules comprising a non-steroidal anti-inflammatory drug (NSAID) as a continuous phase wherein the NSAID is ibuprofen, flurbiprofen, ketoprofen, naproxen or an enantiomer or a salt thereof, which process comprising the steps of: (a) melt-extruding the NSAID; (b) forming a homogeneous extrudate of the NSAID; (c) cooling the extrudate; and (d) comminuting the cooled extrudate to form granules; wherein in step (a) the NSAID is fully melted and in step (b) the extrudate is formed into two or more ribbons having a depth of 10 mm or less and which solidify in 5 minutes or less wherein the NSAID is heated to a temperature of 5 - 20°C above its melting point wherein a disintegrant is melt extruded with the NSAID, wherein the disintegrant is selected from croscarmellose sodium and/or sodium starch glycolate and wherein the NSAID forms 70 - 95% w/w of the melt granules. (a) melt-extruding the NSAID; (b) forming a homogeneous extrudate of the NSAID; (c) cooling the extrudate; and (d) comminuting the cooled extrudate to form granules;
A composition comprising an aqueous dispersion of a) 10 to 60 weight percent, based on the weight of the composition, of polymer particles; and b) from 0.02 to 2 weight percent, based on the weight of the composition, of a hydrophobically modified poly(oxyalkylene-urethane) rheology modifier having 1) a backbone; and 2) a hydrophobic portion represented by Fragment I: where R is a C 2 -C 20 divalent hydrocarbyl group; each R 1 independently comprises a biradical of a primary monomer selected from the group consisting of i) methyl methacrylate; ii) methyl acrylate; iii) ethyl acrylate; iv) butyl methacrylate; v) butyl acrylate; vi) 2-ethylhexyl acrylate; and vii) 2-propylheptyl acrylate; and m is from 5 to 20; wherein the dotted line is the point of attachment of Fragment I to the backbone of the rheology modifier.