mhurhangee/ep-ind-claims huggingface dataset:
Method for operating an internal combustion engine in which, within a duty cycle of the engine, a valve of a cylinder is opened by a cam of a camshaft and a predefined quantity of fuel is supplied to the cylinder, characterized in that a dimension and/or a position of the cam on the camshaft is measured after production of the cam and/or camshaft, the dimension, position and/or a characteristic value determined therefrom is stored, and the quantity of fuel to be supplied within the duty cycle is determined depending on the stored dimension, position and/or characteristic value determined therefrom.
A thermally stable and cyclically stressable ultra-high strength concrete component having a strength of more than 130 N/mm 2 at a water cement content of less than 0.25, manufactured using a solid compound having at least one hydraulic binding agent, namely cement, and at least one aggregate, e.g. quartz sand or basalt sand, and a portion of fibers, namely cellulose fibers and/or regenerated cellulose fibers, whose volume reduces on heating, characterized in that the portion of the fibers whose volume reduces on heating amounts to between 0.3 and 1.2 vol%, particularly advantageously between 0.3 and 0.6 vol%, and in particular 0.6 vol%, with respect to the volumetric solid portion of the concrete.
A process for producing cold water dispersible water-soluble polymers comprising the steps of: (a) introducing a particulate, water-soluble polymer and an aqueous solution comprising a surface treatment additive into a high shear mixing chamber prior to being introduced into a pneumatic drying means and maintaining the particulate, water-soluble polymer suspended in a gas carrier within a chamber of the pneumatic drying means, wherein the water-soluble polymer comprises a cellulose ether, and the surface treatment additive comprises a salt; (b) maintaining the gas carrier at a temperature below the temperature at which the water soluble polymer particles degrade or become "sticky" and agglomerate to leave residual, dried surface treatment additive coated on the particulate, water-soluble polymer, wherein the amount of dried surface treatment additive coated on the particulates is less than 30 % by weight of the cold water dispersible water-soluble polymer. (a) introducing a particulate, water-soluble polymer and an aqueous solution comprising a surface treatment additive into a high shear mixing chamber prior to being introduced into a pneumatic drying means and maintaining the particulate, water-soluble polymer suspended in a gas carrier within a chamber of the pneumatic drying means, wherein the water-soluble polymer comprises a cellulose ether, and the surface treatment additive comprises a salt; (b) maintaining the gas carrier at a temperature below the temperature at which the water soluble polymer particles degrade or become "sticky" and agglomerate to leave residual, dried surface treatment additive coated on the particulate, water-soluble polymer,
A process for producing a supported cobalt-based Fischer-Tropsch synthesis catalyst, which process includes in a first activation stage, treating a particulate supported cobalt-based Fischer-Tropsch synthesis catalyst precursor comprising a catalyst support impregnated with cobalt and containing cobalt oxide, with a hydrogen-containing reducing gas or a nitrogen-containing gas, at a first heating rate, HR1, until the precursor has reached a temperature, T 1, where 80°C ≤ T 1 ≤ 180°C, to obtain a partially treated catalyst precursor; in a second activation stage, treating the partially treated catalyst precursor with a hydrogen-containing reducing gas, at a second average heating rate, HR2, with x step increments, where x is an integer and is greater than 1, and where 0<HR2<HR1, for a time, t 1, where t 1 is from 0.1 to 20 hours, to obtain a partially reduced catalyst precursor; and thereafter in a third activation stage, treating the partially reduced catalyst precursor with a hydrogen-containing reducing gas, at a third heating rate, HR3, where HR3>HR2 until the partially reduced catalyst precursor reaches a temperature, T 2, and maintaining the partially reduced catalyst precursor at T 2 for a time, t 2, where 0<t 2 ≤20 hours, to obtain an activated supported cobalt-based Fischer-Tropsch synthesis catalyst.
A method of manufacture of man made vitreous fibres (MMVF) comprising: applying electrical potential to a melt using graphite electrodes; fiberising the melt by means of a spinning cup to form fibres; and collecting the formed fibres, wherein the melt fed to the spinning cup comprises iron oxide. applying electrical potential to a melt using graphite electrodes; fiberising the melt by means of a spinning cup to form fibres; and collecting the formed fibres, wherein the melt fed to the spinning cup comprises iron oxide.
A method performed by a Mobility Management Entity for configuring an Equivalent Public Land Mobile Network (EPLMN) list, characterized by comprising: upon being triggered, grouping a Tracking Area Code of a cell currently accessed by a user equipment and an adjacent TAC of the TAC of the cell currently accessed by the user equipment to form a TAC set; finding each Evolved Node B (eNB) which supports at least one TAC in the TAC set, selecting primary Public Land Mobile Networks (PLMNs) under the TACs in the TAC set which are supported by the eNB, and grouping various TACs and their corresponding primary PLMNs to form a second set, wherein, the second set has no identical elements, and does not comprise a serving PLMN of a current serving cell of the user equipment; and adding PLMNs in the second set which are different from each other to an Equivalent Public Land Mobile Network (EPLMN) list and issuing the EPLMN list to the eNB of the user equipment. upon being triggered, grouping a Tracking Area Code of a cell currently accessed by a user equipment and an adjacent TAC of the TAC of the cell currently accessed by the user equipment to form a TAC set; finding each Evolved Node B (eNB) which supports at least one TAC in the TAC set, selecting primary Public Land Mobile Networks (PLMNs) under the TACs in the TAC set which are supported by the eNB, and grouping various TACs and their corresponding primary PLMNs to form a second set, wherein, the second set has no identical elements, and does not comprise a serving PLMN of a current serving cell of the user equipment; and adding PLMNs in the second set which are different from each other to an Equivalent Public Land Mobile Network (EPLMN) list and issuing the EPLMN list to the eNB of the user equipment.
A stencil processor for image processing, comprising: a program controller to fetch and issue instructions; and, an execution lane array (305, 405, 505) that is coupled to a two dimensional shift register array structure (306, 406) comprising registers arranged in two dimensions,, wherein execution lanes (510, 601) of the execution lane array (305, 405, 505) are located at respective array locations and are coupled to a register file comprising dedicated registers (R2-R5) of the two dimensional shift register array structure (306, 406) at same respective array locations in the two-dimensional shift register array structure (306, 406), and wherein each execution lane (510, 601) of the execution lane array (305, 405, 505) and the register file coupled to the execution lane (510, 601) form a unit cell, wherein each register of the register file is coupled, in two dimensions, to left, right, up and down neighbouring registers via output and input multiplexers (603, 604), and wherein the execution lanes (510, 601) each comprise at least one execution unit to execute the instructions and a physical register coupled to the execution unit and the register file. a program controller to fetch and issue instructions; and, an execution lane array (305, 405, 505) that is coupled to a two dimensional shift register array structure (306, 406) comprising registers arranged in two dimensions,, wherein execution lanes (510, 601) of the execution lane array (305, 405, 505) are located at respective array locations and are coupled to a register file comprising dedicated registers (R2-R5) of the two dimensional shift register array structure (306, 406) at same respective array locations in the two-dimensional shift register array structure (306, 406), and wherein each execution lane (510, 601) of the execution lane array (305, 405, 505) and the register file coupled to the execution lane (510, 601) form a unit cell, wherein each register of the register file is coupled, in two dimensions, to left, right, up and down neighbouring registers via output and input multiplexers (603, 604), and wherein the execution lanes (510, 601) each comprise at least one execution unit to execute the instructions and a physical register coupled to the execution unit and the register file.
An air filter unit (10; 100) for purifying air, said air filter unit comprising: a filter body (20; 200) extending along an axis A, a first filter frame (30; 300) and a second filter frame (40; 400) characterised in that the first and second filters are arranged on opposite ends of said filter body (20; 200), and in that each of said first (30; 300) and second filter frame (40; 400) comprising four elongated frame members (50; 500) turnably secured to each other, wherein said four elongated frame members (50; 500) are turnably secured to each other such that said filter body (20; 200) could be arranged in a first and a second state, wherein the first state is such that the filter body is folded to reduce the volume of the filter unit and the second state is such that the filter body is assembled. a filter body (20; 200) extending along an axis A, a first filter frame (30; 300) and a second filter frame (40; 400) characterised in that the first and second filters are arranged on opposite ends of said filter body (20; 200), and in that each of said first (30; 300) and second filter frame (40; 400) comprising four elongated frame members (50; 500) turnably secured to each other, wherein said four elongated frame members (50; 500) are turnably secured to each other such that said filter body (20; 200) could be arranged in a first and a second state, wherein the first state is such that the filter body is folded to reduce the volume of the filter unit and the second state is such that the filter body is assembled.
A method for decoding pictures, comprising the steps of: parsing a bitstream including coded pictures and split flags associated with transform units (TUs) to obtain the split-flags and a partitioning of coding units (CUs) into Prediction Units (PUs), the split-flags being used for generating a transform tree, generating the transform tree using the split-flags, wherein nodes in the transform tree represent transform units (TUs) at a given depth, respectively, the transform unit being associated with the CUs, wherein the generating further comprises; splitting each TU in a N-ary way only if the split-flag is set; merging, for each PU that includes multiple TUs, the multiple TUs into a larger TU; modifying the transform tree according to the splitting and merging; and decoding data contained in each PU using the TUs associated with the PU. parsing a bitstream including coded pictures and split flags associated with transform units (TUs) to obtain the split-flags and a partitioning of coding units (CUs) into Prediction Units (PUs), the split-flags being used for generating a transform tree, generating the transform tree using the split-flags, wherein nodes in the transform tree represent transform units (TUs) at a given depth, respectively, the transform unit being associated with the CUs, wherein the generating further comprises; splitting each TU in a N-ary way only if the split-flag is set; merging, for each PU that includes multiple TUs, the multiple TUs into a larger TU; modifying the transform tree according to the splitting and merging; and splitting each TU in a N-ary way only if the split-flag is set; merging, for each PU that includes multiple TUs, the multiple TUs into a larger TU; modifying the transform tree according to the splitting and merging; and decoding data contained in each PU using the TUs associated with the PU.
A method for isolating at least one fluid sample well laid out in a test card for analysis, said test card including a plate having at least one first main face from which is laid out at least one channel (9a, 9b, 9c) communicating with at least said well, this first face being coated with a membrane provided with an adhesive and which covers said channel (9a, 9c) with a covering area (17 1), the method for isolation including: - a phase for introducing a fluid sample into at least said well, - a phase for isolating said well, along an isolation area (Zi), consisting of exerting a force on at least one portion of the covering area (17 1) of the adhesive membrane for displacing it until causing it to fit the shape of the wall (9 1) of the channel (9a, 9c) so as to allow adhesion of said covering area (17 1) of the adhesive membrane onto the wall (9 1) of the channel, characterized in that it consists of exerting a force on the covering area (17 1) of the adhesive membrane in order to ensure displacement of the adhesive in an obturation area (Zo) for the sample well, contiguous to the isolation area (Zi). - a phase for introducing a fluid sample into at least said well, - a phase for isolating said well, along an isolation area (Zi), consisting of exerting a force on at least one portion of the covering area (17 1) of the adhesive membrane for displacing it until causing it to fit the shape of the wall (9 1) of the channel (9a, 9c) so as to allow adhesion of said covering area (17 1) of the adhesive membrane onto the wall (9 1) of the channel, characterized in that it consists of exerting a force on the covering area (17 1) of the adhesive membrane in order to ensure displacement of the adhesive in an obturation area (Zo) for the sample well, contiguous to the isolation area (Zi).
A movement damper element for a fluid-conducting, length-variable piping, comprising - a base body (2, 3) passed through by fluid conducted in the piping and - a valve body actuated by a pressure of the fluid conducted in the piping and movably retained on the base body between a damper position and an enable position, where in the enable position as compared to the damper position the valve body enables a larger flow passage cross section of the base body, - wherein the base body includes a center body and an exterior body surrounding the center body thereby forming an intermediate annular duct, and the valve body is designed as a valve ring disposed to be axially movable in the annular duct, the valve ring in its enable position enabling a larger flow passage cross section of the annular duct than in its damper position. - a base body (2, 3) passed through by fluid conducted in the piping and - a valve body actuated by a pressure of the fluid conducted in the piping and movably retained on the base body between a damper position and an enable position, where in the enable position as compared to the damper position the valve body enables a larger flow passage cross section of the base body, - wherein the base body includes a center body and an exterior body surrounding the center body thereby forming an intermediate annular duct, and the valve body is designed as a valve ring disposed to be axially movable in the annular duct, the valve ring in its enable position enabling a larger flow passage cross section of the annular duct than in its damper position.
A hinge for the controlled rotatable movement of a door or like closing element anchored to a wall or like stationary support, the hinge comprising a fixed element couplable to the wall or like stationary support and a movable element couplable to the door or like closing element, the fixed and movable elements being rotatably coupled each other to rotate about a first longitudinal axis between an open position and a closed position; wherein one of said movable element and fixed element includes a hinge body, the other of said movable element and fixed element including a pivot defining said first axis; wherein said pivot includes cam means rotating about said first longitudinal axis, said hinge body including at least one working chamber defining a second axis substantially perpendicular to said first axis, said at least one working chamber including follower means reciprocally interacting with said cam means for sliding along said second longitudinal axis between a first and a second end-stroke position, said follower means including at least one elastic counteracting element; wherein said cam means include at least one first cam element susceptible to interact with said follower means for moving thereof from one of said first and second end stroke position to a third position which is intermediate therebetween and vice-versa, said cam means further including at least one second cam element ( 52', 52") susceptible to interact with said follower means for moving thereof from said third intermediate position to the other of said first and second end stroke position and vice-versa; wherein said at least one first and second cam elements ( 51; 52', 52") are mutually superimposed along said first axis, said follower means including at least one first operating surface and at least one second operating surface ( 67', 67") which are also mutually superimposed to sequentially interact respectively with said at least one first cam element and with said at least one second cam element ( 52', 52") and vice-versa; characterized in that said follower means include at least one interface element interposed between said pivot and said at least one elastic counteracting element, said at least one interface element comprising said at least one first operating surface and said at least one second operating surface ( 67', 67").
An apparatus for characterizing human tissue type based upon a rate of dissipation of kinetic energy applied to the human tissue, the apparatus characterized by: an adjustable pneumatic supporting surface (102, 106, 112, 114) adapted for applying kinetic energy to an anatomical portion of a human supported thereon; at least one sensor (104, 110, 116) coupled to said surface for detecting the rate of dissipation of the kinetic energy applied by the surface to said anatomical portion, said at least one sensor consisting of at least one accelerometer, whereby the rate of dissipation of the applied kinetic energy is indicative of a tissue type of said anatomical portion; and a processor operable to process data obtained from said sensor relating to said rate of dissipation of said applied kinetic energy for characterizing the tissue type of said anatomical portion. an adjustable pneumatic supporting surface (102, 106, 112, 114) adapted for applying kinetic energy to an anatomical portion of a human supported thereon; at least one sensor (104, 110, 116) coupled to said surface for detecting the rate of dissipation of the kinetic energy applied by the surface to said anatomical portion, said at least one sensor consisting of at least one accelerometer, whereby the rate of dissipation of the applied kinetic energy is indicative of a tissue type of said anatomical portion; and a processor operable to process data obtained from said sensor relating to said rate of dissipation of said applied kinetic energy for characterizing the tissue type of said anatomical portion.
A method for secure communication between an end-device and a server system, comprising the steps: - transmitting at least one identifier and a randomized code from the end-device to the server system, characterized in that - the server system randomly assigns a new value to the at least one identifier and uses the new value along with the randomized code for further data transmissions between the end-device and the server system; and - the end-device is instructed to change the at least one identifier to the new value, wherein the end-device and the server system communicate via a Low-Power Wide-Area Network. - transmitting at least one identifier and a randomized code from the end-device to the server system, characterized in that - the server system randomly assigns a new value to the at least one identifier and uses the new value along with the randomized code for further data transmissions between the end-device and the server system; and - the end-device is instructed to change the at least one identifier to the new value, wherein
A composition comprising: a continuous matrix formed of a polypeptide crosslinked with a second polymer comprising a polysaccharide; and particles of a porous, osteoconductive material dispersed in the continuous matrix; wherein the pores of the osteoconductive material have a polypeptide adsorbed therein. a continuous matrix formed of a polypeptide crosslinked with a second polymer comprising a polysaccharide; and particles of a porous, osteoconductive material dispersed in the continuous matrix;
A nonaqueous electrolyte lithium-ion secondary battery characterized by comprising: a positive electrode; a negative electrode containing a titanium-containing oxide as a negative electrode active material; and a nonaqueous electrolyte, characterized in that the nonaqueous electrolyte contains carbon monoxide and at least one selected from difluorophosphoric acid and monofluorophosphoric acid, and a ratio of a mass concentration of carbon monoxide to a sum of mass concentrations of difluorophosphoric acid and monofluorophosphoric acid is in the range of 0.1 to 5%. a positive electrode; a negative electrode containing a titanium-containing oxide as a negative electrode active material; and a nonaqueous electrolyte, characterized in that the nonaqueous electrolyte contains carbon monoxide and at least one selected from difluorophosphoric acid and monofluorophosphoric acid, and a ratio of a mass concentration of carbon monoxide to a sum of mass concentrations of difluorophosphoric acid and monofluorophosphoric acid is in the range of 0.1 to 5%.
A fire protection duct for at least one room comprising a duct formed by refractory block elements (Ia, Ib) assembled to each other, characterized in that the refractory block elements (Ia, Ib) consist of a silicocalcareous material and the inner face of the duct is covered over its entire surface with a coating consisting of a refractory glue.
Watch movement for mechanical watch piece, the movement comprising a motor, a gearing, an escapement and a regulating organ, wherein the gearing transmits the driving power coming from the motor to said escapement and said escapement is cooperating with said regulating organ so as to maintain the oscillations of the regulating organ which comprises a first balance (2.1) and a first spiral (3.1), said first balance (2.1) being mounted on an axle, the regulating organ comprising at least a second balance (2.2) mounted on the axle of said first balance (2.1) and at least a second spiral (3.2) arranged on said at least second balance (2.2), wherein the escapement is arranged at least partially between said first balance (2.1) and said second balance (2.2) of the regulating organ.
An improved method for assaying a sample suspected to contain 4-pyrrolidinopyridine(4-PPY)comprising the steps of: (i)incubating sample containing 4-PPY at a temperature between 40° C and 90° C for a duration between 1 hr and 3hrs. (ii) subjecting pre-heated sample to a reversed phase high performance liquid chromatography. (iii) detecting any 4-pyrrolidinopyridine(4-PPY). (i)incubating sample containing 4-PPY at a temperature between 40° C and 90° C for a duration between 1 hr and 3hrs. (ii) subjecting pre-heated sample to a reversed phase high performance liquid chromatography. (iii) detecting any 4-pyrrolidinopyridine(4-PPY).