mhurhangee/ep-ind-claims huggingface dataset:
A linear compressor comprising: a static outer envelope having a compression chamber formed at a first end and a piston shaped abutment at its second end; a housing installed within said outer envelope, with a piezoelectric actuator installed within said housing, with a first end of said actuator attached to a first end of said housing and a second end of said actuator attached to a motion amplifying assembly (A1,12,A2) adapted to provide an output motion to said static piston abutment greater than the motion of said second end of said piezoelectric actuator attached to an input end of said motion amplifying assembly; and a compression piston attached to said first end of said housing; such that when said piezoelectric actuator undergoes a predetermined vibrational motion, said motion amplifying assembly causes said housing and its attached compression piston to undergo, relative to said static outer envelope, vibrational motion at a level greater than that of said predetermined vibrational motion. a static outer envelope having a compression chamber formed at a first end and a piston shaped abutment at its second end; a housing installed within said outer envelope, with a piezoelectric actuator installed within said housing, with a first end of said actuator attached to a first end of said housing and a second end of said actuator attached to a motion amplifying assembly (A1,12,A2) adapted to provide an output motion to said static piston abutment greater than the motion of said second end of said piezoelectric actuator attached to an input end of said motion amplifying assembly; and a compression piston attached to said first end of said housing; such that when said piezoelectric actuator undergoes a predetermined vibrational motion, said motion amplifying assembly causes said housing and its attached compression piston to undergo, relative to said static outer envelope, vibrational motion at a level greater than that of said predetermined vibrational motion.
A method for control of a solar thermal power plant which comprises at least one unit with an input valve and with a solar collector, in which method input parameters are detected for the at least one unit, said input parameters comprising (i) a time (t) of day, (ii) a temperature (T out) which characterises an output temperature of heat transfer fluid at the at least one unit, (iii) a variable which characterises solar radiation conditions, and (iv) an input valve parameter (Av) which characterises an aperture opening at the input valve, respective fuzzy set parameters are assigned to the input parameters according to a first rule set in a fuzzification device, an inference device links and evaluates the fuzzy set parameters according to a second rule set and fuzzy set result parameters are produced, and output parameters are produced from fuzzy set result parameters according to a third rule set in a defuzzification device, said output parameters comprising (i) an opening parameter (fA) which defines an opening of the input valve, and (ii) a focussing parameter (fF) which defines a focussing of the at least one solar collector; and in which the at least one unit is controlled and/or adjusted by means of at least one output parameter. (i) a time (t) of day, (ii) a temperature (T out) which characterises an output temperature of heat transfer fluid at the at least one unit, (iii) a variable which characterises solar radiation conditions, and (iv) an input valve parameter (Av) which characterises an aperture opening at the input valve, respective fuzzy set parameters are assigned to the input parameters according to a first rule set in a fuzzification device, an inference device links and evaluates the fuzzy set parameters according to a second rule set and fuzzy set result parameters are produced, and output parameters are produced from fuzzy set result parameters according to a third rule set in a defuzzification device, said output parameters comprising (i) an opening parameter (fA) which defines an opening of the input valve, and (ii) a focussing parameter (fF) which defines a focussing of the at least one solar collector; and in which the at least one unit is controlled and/or adjusted by means of at least one output parameter. (i) an opening parameter (fA) which defines an opening of the input valve, and (ii) a focussing parameter (fF) which defines a focussing of the at least one solar collector; and in which the at least one unit is controlled and/or adjusted by means of at least one output parameter.
A method for transmitting device-to-device, D2D, data, by a first terminal, in a wireless communication system, the method comprising: receiving, from a base station, a radio resource control, RRC, signaling related to a configuration of a zero padding operation; receiving, from the base station, a resource pool used in a D2D communication via higher layer signaling, wherein the resource pool includes at least one of a scheduling assignment, SA, resource pool related to a resource region where the SA is transmitted or a data resource pool related to a resource region where the D2D data is transmitted; receiving, from the base station, a first downlink control information, DCI, format defined for the D2D communication; generating an SA based on the received DCI format; transmitting, to a second terminal, the generated SA, wherein the generated SA includes information related to a D2D data transmission; and transmitting, to the second terminal, the D2D data, wherein the first DCI format is Cyclic Redundancy Check, CRC, scrambled by a specific Radio Network Temporary Identifier, RNTI, wherein the specific RNTI is a D2D RNTI, wherein at least one padding bit is appended until a size of the first DCI format is equal to a size of a DCI format 0, and wherein the at least one padding bit is appended based on the received RRC signaling if the first terminal receives a signal related to an activation of the zero padding operation. receiving, from a base station, a radio resource control, RRC, signaling related to a configuration of a zero padding operation; receiving, from the base station, a resource pool used in a D2D communication via higher layer signaling, wherein the resource pool includes at least one of a scheduling assignment, SA, resource pool related to a resource region where the SA is transmitted or a data resource pool related to a resource region where the D2D data is transmitted; receiving, from the base station, a first downlink control information, DCI, format defined for the D2D communication; generating an SA based on the received DCI format; transmitting, to a second terminal, the generated SA, wherein the generated SA includes information related to a D2D data transmission; and transmitting, to the second terminal, the D2D data, wherein the first DCI format is Cyclic Redundancy Check, CRC, scrambled by a specific Radio Network Temporary Identifier, RNTI, wherein the specific RNTI is a D2D RNTI, wherein at least one padding bit is appended until a size of the first DCI format is equal to a size of a DCI format 0, and wherein the at least one padding bit is appended based on the received RRC signaling if the first terminal receives a signal related to an activation of the zero padding operation.
A method of preparing bioactive molecule coated microcrystals, which display delayed and/or prolonged release of said bioactive molecules in water and/or aqueous solution, comprising the step of: carrying out a double decomposition reaction in a water miscible organic solvent or substantially water miscible organic solvent or water miscible mixture of organic solvents, between a water soluble inorganic salt containing a polyvalent anion present in a water soluble precipitate, and a solvent-soluble metal salt or a solvent-soluble metal complex containing a polyvalent metal cation dissolved in said organic solvent, wherein said water soluble precipitate comprises said bioactive molecules, said water soluble inorganic salt, and an amino acid, whereby said bioactive molecule coated microcrystals are formed comprising a coating of one or more a water-insoluble, sparingly soluble, or poorly water-soluble calcium phosphate salts, formed by said double decomposition, on the surface of the microcrystals, wherein said bioactive molecule is any peptide, polypeptide, protein, nucleic acid, polysaccharide, sugar, vaccine component, adjuvant or any combination which produces a therapeutic effect, wherein said water soluble inorganic salt is a sodium or potassium phosphate salt, wherein said solvent-soluble metal salt or solvent-soluble metal complex is calcium chloride, and wherein the molecules which make up the crystalline core are amino acids. carrying out a double decomposition reaction in a water miscible organic solvent or substantially water miscible organic solvent or water miscible mixture of organic solvents, between a water soluble inorganic salt containing a polyvalent anion present in a water soluble precipitate, and a solvent-soluble metal salt or a solvent-soluble metal complex containing a polyvalent metal cation dissolved in said organic solvent, wherein said water soluble precipitate comprises said bioactive molecules, said water soluble inorganic salt, and an amino acid, whereby said bioactive molecule coated microcrystals are formed comprising a coating of one or more a water-insoluble, sparingly soluble, or poorly water-soluble calcium phosphate salts, formed by said double decomposition, on the surface of the microcrystals, wherein said bioactive molecule is any peptide, polypeptide, protein, nucleic acid, polysaccharide, sugar, vaccine component, adjuvant or any combination which produces a therapeutic effect, wherein said water soluble inorganic salt is a sodium or potassium phosphate salt, wherein said solvent-soluble metal salt or solvent-soluble metal complex is calcium chloride,
Rotor blade arrangement for a gas turbine, particularly a compression or turbine stage of an aircraft engine gas turbine, with at least one first rotor blade element and a second rotor blade element adjacent thereto in the circumferential direction, wherein the adjacent rotor blade elements each have at least one airfoil for flow deflection, one blade root for mounting on a rotor, as well as blade neck recesses facing one another and arranged between airfoil and blade root in which a common damping element is displaceably supported and wherein a first front side of the damping element has a first bearing recess into which a first bearing pin engages that is arranged on the blade neck recess of the first rotor blade element, and a second front side of the damping element opposite the gas turbine in the circumferential direction has a second bearing recess into which a second bearing pin engages that is arranged on the blade neck recess of the second rotor blade element; characterized in that either the damping element has a closed outer periphery in a cross section perpendicular to a longitudinal axis of the first and/or second bearing pin, or the damping element has a radial slot in a cross section perpendicular to a longitudinal axis of the first and/or second bearing pin, in which case a slot width is smaller than a maximum cross-sectional width of at least one of the bearing pins engaging in the bearing recesses.
Mounting system of a vehicle, in particular of a motor vehicle, having an interior trim panelling of the vehicle, and having an object which is to be releasably mounted on the interior trim panelling, wherein the interior trim panelling configures a depression which for receiving the object has a base, wall portions (8a, 8b, 8c, 8d), and an insertion opening for said object, and has holding means for fixing the object in the depression, wherein the object has a length "1", a width "b", and a height "h", wherein the width "b" is chosen so as to be larger than the height "h", and the length "1" and the width "b" define a broad side, and the length "1" and the height "h" define a narrow side of the object, and wherein at least two protrusions are provided and disposed, which protrusions are disposed opposite one another, function as first holding means, and constrict the insertion opening, characterized in that the protrusions are provided and disposed in such a manner that while the object to be mounted is being inserted into the depression said object between the protrusions is introducible into the depression exclusively by way of the narrow side of said object leading through said protrusions and, as a result of a subsequent rotating movement about a longitudinal axis of said object, is encased or able to be encased in the depression in such a manner that a broad side of said object comes to lie or bear behind the protrusions that constrict the insertion opening.
A liquid composition comprising a)a (meth) acrylic polymer, b)a multistage polymer in form of core shell particles and c)a (meth)acrylic monomer wherein the multistage polymer to monomer ratio by weight in the liquid composition is between 1/99 and 25/75, and characterized that the (meth) acrylic polymer has a mass average molecular weight Mw of less than 100 OOOg/mol as measured with size exclusion chromatography. a)a (meth) acrylic polymer, b)a multistage polymer in form of core shell particles and c)a (meth)acrylic monomer
A contact device for a high-voltage cable having an insulated electrical conductor, which is surrounded by a screen designed as a tube, wherein the contact device has a contact tube, which accommodates the cable, wherein, in the contact tube several threaded holes (106A, 106B) are each provided with a clamping screw (107A, 107B), characterized in that the threaded holes (106A, 106B) are produced by a friction-flow drilling process, so that each threaded hole (106A, 106B) has an annular bead on the inside of the contact tube, that the threaded holes (106A, 106B) are arranged on at least two circular lines (108A, 108B) on the circumference of the contact tube uniformly distributed on each circular line (108A, 108B), that the threaded holes (106A, 106B) are arranged offset relative to one another on adjacent circular lines in the circumferential direction and that the clamping screws (107A, 107B) are suitable for contacting the screen of the cable. wherein, in the contact tube several threaded holes (106A, 106B) are each provided with a clamping screw (107A, 107B), characterized in that the threaded holes (106A, 106B) are produced by a friction-flow drilling process, so that each threaded hole (106A, 106B) has an annular bead on the inside of the contact tube, that the threaded holes (106A, 106B) are arranged on at least two circular lines (108A, 108B) on the circumference of the contact tube uniformly distributed on each circular line (108A, 108B), that the threaded holes (106A, 106B) are arranged offset relative to one another on adjacent circular lines in the circumferential direction and that the clamping screws (107A, 107B) are suitable for contacting the screen of the cable.
Intraosseous dental implant having a solid shaft and a solid thread with variable height and pitch, wherein in the central part, the shaft has a reduced diameter in relation to the diameter of the shaft in the upper and lower part, and a part of the implant in the area with a reduced diameter of shaft is made of a material with an open porosity from 0.1% to 90%, and a pore diameter in the range from 0.3 μm to 1000 μm, characterized in that additionally, the implant has at least two internal channels, of which at least one channel starts in the implant socket, and has an outlet at the lower part of the implant, and at least one channel connects to the channel starting in the implant socket, and has an outlet in the porous part of the implant.
A method of sealing an annulus between inner and outer pipe sections (12, 18) of a pipe-in-pipe system, the method comprising positioning a sealing mass in the annulus in contact with the inner and outer pipe sections (12, 18), the method being characterised by: deforming the sealing mass by effecting relative longitudinal movement between the inner and outer pipe sections (12, 18); and fixing the inner and outer pipe sections (12, 18) against reverse relative longitudinal movement to maintain deformation of the sealing mass. deforming the sealing mass by effecting relative longitudinal movement between the inner and outer pipe sections (12, 18); and fixing the inner and outer pipe sections (12, 18) against reverse relative longitudinal movement to maintain deformation of the sealing mass.
A method for enabling communication of data relating to samples of electric measurements, the method being performed in an intelligent electronic device, IED (11a, 11b, 11), comprising a cellular radio module, the IED (11a, 11b, 11) being configured to protect power system equipment, the method comprising the steps of: detecting channel quality using the cellular radio module, the channel quality relating to a channel between the IED and a base station; transmitting packets using the cellular radio module, each packet comprising data relating to samples of electric measurements of voltages and/or currents expressed as phasors, to enable fault detection by comparison of phasors from different substations obtaining measurements of a power transmission line to perform line differential protection characterized by the further step of increasing sample rate of the electric measurements when the channel quality is worse than a first threshold. detecting channel quality using the cellular radio module, the channel quality relating to a channel between the IED and a base station; transmitting packets using the cellular radio module, each packet comprising data relating to samples of electric measurements of voltages and/or currents expressed as phasors, to enable fault detection by comparison of phasors from different substations obtaining measurements of a power transmission line to perform line differential protection characterized by the further step of increasing sample rate of the electric measurements when the channel quality is worse than a first threshold.
A device for treating a medical condition, the device comprising at least one deployable ablation element (302, 308, 310), an expandable member, a shaft, and wherein the device has a crimped position, a deployed position, and a fully expanded position, and wherein the at least one ablation element (302, 308, 310) is positioned over the expandable member, and the expandable member is mounted over the shaft, and wherein in the crimped state the device is configured for insertion into a hollow organ of a patient, and wherein in the fully expanded position the at least one ablation element (302, 308, 310) is configured to come into contact with the wall of the hollow organ. wherein the device has a crimped position, a deployed position, and a fully expanded position, and wherein the at least one ablation element (302, 308, 310) is positioned over the expandable member, and the expandable member is mounted over the shaft, and wherein in the crimped state the device is configured for insertion into a hollow organ of a patient, and wherein in the fully expanded position the at least one ablation element (302, 308, 310) is configured to come into contact with the wall of the hollow organ.
System for detecting an intrusion in an electronic device, said system comprising at least one optical sensor connected to at least one security module of the electronic device, said optical sensor and said security module being configured to detect a variation in light intensity measured by said optical sensor as compared with a reference light intensity associated with at least one pre-determined light source inside said electronic device, said at least one light source carrying out the back-lighting of the keypad and/or of the insertion slot for the card of said electronic device, said variation in light intensity representing a risk of intrusion into said electronic device, and said electronic device comprising at least one security module and means for transmitting at least one random on/off signal or a random variation signal intended for at least said light source, said optical detection implemented by said optical sensor and said security module taking account of the random signal transmitted.
A topical composition comprising a dispersion of treated particles in a cosmetically or pharmaceutically acceptable carrier, wherein each of said treated particles comprises one or more core particles encapsulated in a cross-linked silicone matrix, wherein each of the core particles is first coated by an inner layer of an anionic polymer selected from the group consisting of methyl vinyl ether and maleic anhydride (PVM/MA) copolymers and then encapsulated into the cross-linked silicone matrix.
Motor vehicle door closure, which forms a main latch and has a locking mechanism comprising a catch and comprising at least one pawl, a first operating lever, it being possible for the locking mechanism to be unlocked by means of the operating lever, and a locking device, it being possible for the operating lever to be disengaged from the locking mechanism by means of the locking device, a further motor vehicle door closure, which forms a secondary latch, being provided, it being possible for the further motor vehicle door closure to be operated by means of the operating lever and for an operating lever chain for the further motor vehicle door closure to be disengaged by means of the locking device, a second operating lever being provided on the motor vehicle door closure, it being possible for the second operating lever to be operated by means of the first operating lever and for the further motor vehicle door closure to be operated by means of the second operating lever, the first and second operating levers (5, 8) being connected by means of a coupling lever, the coupling lever having an extension and the extension engaging with the locking lever of the locking device so that a movement of the locking lever can be transmitted to the coupling lever, characterized in that the extension interacts elastically with the locking lever.