mhurhangee/patent-ind-claim-en huggingface dataset:
An electrodepositable composition comprising: (a) an aqueous medium; (b) an ionic (meth)acrylic polymer; and (c) solid particles comprising: (i) lithium-containing particles, and (ii) electrically conductive particles; wherein the composition has a weight ratio of solid particles to ionic (meth)acrylic polymer of at least 4:1; characterised in that the (meth)acrylic polymer is prepared by polymerizing a mixture of (meth)acrylic monomers including a (meth)acrylic acid monomer and at least partially neutralizing the (meth)acrylic polymer with a base in which the mixture of (meth)acrylic monomers includes a monomer having a Tg (glass transition temperature) of -20°C or less. (a) an aqueous medium; (b) an ionic (meth)acrylic polymer; and (c) solid particles comprising: (i) lithium-containing particles, and (ii) electrically conductive particles; wherein the composition has a weight ratio of solid particles to ionic (meth)acrylic polymer of at least 4:1; characterised in that the (meth)acrylic polymer is prepared by polymerizing a mixture of (meth)acrylic monomers including a (meth)acrylic acid monomer and at least partially neutralizing the (meth)acrylic polymer with a base in which the mixture of (meth)acrylic monomers includes a monomer having a Tg (glass transition temperature) of -20°C or less. (i) lithium-containing particles, and (ii) electrically conductive particles;
A method for transmitting a reference signal by a base station in a beamforming communication system, comprising: generating a reference signal sequence for a reference signal to be used for a beam search; mapping the reference signal sequence to modulation symbols which correspond to resource elements with same subcarrier spacing which is predetermined on a frequency domain among resource elements to be used for transmitting the reference signal; generating an orthogonal frequency division multiplex, OFDM, signal including the modulation symbols, wherein the OFDM signal is configured such that a same sequence pattern is repeated a predetermined number of times by a period of a predetermined sub-symbol duration in an OFDM symbol on a time domain; and transmitting the OFDM signal during a predetermined period, wherein the predetermined period is divided into a plurality of frame groups based on a number of transmission antennas of the base station , and different transmission beams for the transmission antennas are used during each of the plurality of frame groups, and wherein the OFDM signal is transmitted during all or a part of the plurality of frame groups based on an operating mode of the terminal , and the operating mode includes one of a single input single output, SISO, mode and a multiple input multiple output, MIMO, mode. generating a reference signal sequence for a reference signal to be used for a beam search; mapping the reference signal sequence to modulation symbols which correspond to resource elements with same subcarrier spacing which is predetermined on a frequency domain among resource elements to be used for transmitting the reference signal; generating an orthogonal frequency division multiplex, OFDM, signal including the modulation symbols, wherein the OFDM signal is configured such that a same sequence pattern is repeated a predetermined number of times by a period of a predetermined sub-symbol duration in an OFDM symbol on a time domain; and transmitting the OFDM signal during a predetermined period, wherein the predetermined period is divided into a plurality of frame groups based on a number of transmission antennas of the base station , and different transmission beams for the transmission antennas are used during each of the plurality of frame groups, and wherein the OFDM signal is transmitted during all or a part of the plurality of frame groups based on an operating mode of the terminal , and the operating mode includes one of a single input single output, SISO, mode and a multiple input multiple output, MIMO, mode.
A method for producing mechanical work, which includes swirling of a pre-compressed working medium, its expansion in an actuating device to produce mechanical work in the form of rotation of the shaft , and discharge of the working medium from said device characterised in that the working medium is swirled along a spatial trajectory formed by a linear bushing with several channels in its body, each representing a conical spiral with two breakpoints, the form of each of the channels being described by a piecewise smooth curve composed of three parts each described with following canonical parametric equations: 1 st part: a segment of the conical spiral (0<t<tl) f 1 ̅ t = x e ̅ 1 + y e ̅ 2 + z e ̅ 3 , and x=at cos t, y=at sin t, z=bt, where: e 1 , e 2 , e 3 are basis vectors, x,y,z, t are temporaries, a,b are constants chosen for maximum efficiency and tl,t2 are conical spiral breakpoints 2 nd part: a segment of a straight line between inflection points (t1≤t≤t2): f 2 ̅ t = f 1 ̅ t 1 + t − t 1 t 2 − t 1 × f 1 ̅ t 2 − f 1 ̅ t 1 3rd part: a segment of the conical spiral (t>t2) with the equation same as . 1 st part: a segment of the conical spiral (0<t<tl) f 1 ̅ t = x e ̅ 1 + y e ̅ 2 + z e ̅ 3 , and x=at cos t, y=at sin t, z=bt, where: e 1 , e 2 , e 3 are basis vectors, x,y,z, t are temporaries, a,b are constants chosen for maximum efficiency and tl,t2 are conical spiral breakpoints and x=at cos t, y=at sin t, z=bt, where: e 1 , e 2 , e 3 are basis vectors, x,y,z, t are temporaries, a,b are constants chosen for maximum efficiency and tl,t2 are conical spiral breakpoints 2 nd part: a segment of a straight line between inflection points (t1≤t≤t2): f 2 ̅ t = f 1 ̅ t 1 + t − t 1 t 2 − t 1 × f 1 ̅ t 2 − f 1 ̅ t 1 3rd part: a segment of the conical spiral (t>t2) with the equation same as .
A composition comprising a peptide and a moiety for use in targeting a carbohydrate receptor on a cell, wherein the peptide comprises an amino acid sequence that can bind to the carbohydrate receptor on the cell, wherein the carbohydrate receptor is annexin 1 and wherein the amino acid sequence comprises IFLLWQRX (amino acids 1 to 8 of SEQ ID NO:20), IFLLWQRXX (amino acids 1 to 9 of SEQ ID NO:20), IFLLWQRXXX (amino acids 1 to 10 of SEQ ID NO:20), IFLLWQRXXXX (amino acids 1 to 11 of SEQ ID NO:20), or IFLLWQRXXXXX (SEQ ID NO:20), wherein each X is independently a polar or charged amino acid, wherein the moiety is covalently linked to the peptide.
Magnetic field measuring device comprising a mechanically vibratable rectangular substrate strip clamped on one side, wherein at least one flat side of the substrate strip is coated with a magnetostrictive material system, further comprising drive means designed for periodically exerting a force component directed perpendicular to the flat sides of the substrate strip on at least part of a flat side of the substrate strip with a predetermined excitation frequency, and comprising a detection device for detecting an electrical signal generated by the vibration of the substrate strip , wherein a. the substrate strip is formed from a material with a modulus of elasticity greater than 5 GPa and b. the detection device comprises an induction coil which surrounds the substrate strip without contact and has a coil axis aligned along the substrate strip , wherein - the excitation frequency is set as a function of the dimensions of the substrate strip such that the substrate strip forms a U-mode oscillating in mechanical resonance, wherein U-modes are modes which primarily exhibit bending in the form of a symmetrical arc open upwards or downwards of the substrate strip along the short axis, and - the U-mode is formed with at least one node line and - the induction coil is formed from at least two coaxial, non-overlapping partial coils connected in series, wherein two adjacent partial coils have opposite winding directions and are arranged on different sides of the at least one node line. a. the substrate strip is formed from a material with a modulus of elasticity greater than 5 GPa and b. the detection device comprises an induction coil which surrounds the substrate strip without contact and has a coil axis aligned along the substrate strip , - the excitation frequency is set as a function of the dimensions of the substrate strip such that the substrate strip forms a U-mode oscillating in mechanical resonance, wherein U-modes are modes which primarily exhibit bending in the form of a symmetrical arc open upwards or downwards of the substrate strip along the short axis, and - the U-mode is formed with at least one node line and - the induction coil is formed from at least two coaxial, non-overlapping partial coils connected in series, wherein two adjacent partial coils have opposite winding directions and are arranged on different sides of the at least one node line.
A system comprising: a converter configured to be coupled between an energy storage unit and a grid ; a converter controller configured to control the converter responsive to a frequency command signal (P) and a voltage command signal (Q) that respectively cause the converter to provide real power and a reactive power component; and a control circuit configured to detect frequency and voltage variations of the grid and to responsively generate the frequency command signal (P) and the voltage command signal (Q), characterized in that the control circuit implements: a real power control loop having an inner frequency control loop configured to generate frequency command signal (P) responsive to a transient frequency of the grid and a real power reference (P ref ); and a reactive power control loop having an inner voltage control loop configured to generate the reactive power command (Q) responsive to a transient voltage of the grid , a reactive power reference signal (Q ref ) and a feedforward (G p2q ) of the frequency command signal (P); and wherein the control circuit is configured to provide feedforward (G p2q ) from the inner frequency control loop to the inner voltage control loop to inhibit reactive component transfer in response to a voltage variation of the grid due to a power transfer between the energy storage unit and the grid . a converter configured to be coupled between an energy storage unit and a grid ; a converter controller configured to control the converter responsive to a frequency command signal (P) and a voltage command signal (Q) that respectively cause the converter to provide real power and a reactive power component; and a control circuit configured to detect frequency and voltage variations of the grid and to responsively generate the frequency command signal (P) and the voltage command signal (Q), characterized in that the control circuit implements: a real power control loop having an inner frequency control loop configured to generate frequency command signal (P) responsive to a transient frequency of the grid and a real power reference (P ref ); and a reactive power control loop having an inner voltage control loop configured to generate the reactive power command (Q) responsive to a transient voltage of the grid , a reactive power reference signal (Q ref ) and a feedforward (G p2q ) of the frequency command signal (P); and a real power control loop having an inner frequency control loop configured to generate frequency command signal (P) responsive to a transient frequency of the grid and a real power reference (P ref ); and a reactive power control loop having an inner voltage control loop configured to generate the reactive power command (Q) responsive to a transient voltage of the grid , a reactive power reference signal (Q ref ) and a feedforward (G p2q ) of the frequency command signal (P); and wherein the control circuit is configured to provide feedforward (G p2q ) from the inner frequency control loop to the inner voltage control loop to inhibit reactive component transfer in response to a voltage variation of the grid due to a power transfer between the energy storage unit and the grid .
An adhesive label comprising an uniaxially in machine direction oriented multilayer facestock comprising layers in the following order: a printable skin layer, a core layer, and an adhesive receiving skin layer, wherein the printable skin layer comprises more than 50 wt.% of linear low density polyethylene(s) and less than 50 wt.% of propylene polymer(s), and wherein the adhesive receiving skin layer comprises at least 50 wt.% of propylene homopolymer(s) and following modifier: between 5 and 20 wt.% of ethylene-octene block copolymer.
A sectional heat exchanger for a condensing heat cell, - wherein the sectional heat exchanger comprises two end segments and one or more than one intermediate segment(s) provided between the two end segments; - wherein the one or the more than one intermediate segment(s) and the two end segments are assembled in the heat exchanger, wherein a combustion chamber is provided in the sectional heat exchanger, - wherein each of the one or the more than one intermediate segment(s) comprises at least one water flow channel for water to be heated, - wherein in between each two consecutive segments at least one flue gas flow channel is provided, and wherein the flue gas flow channel extends from the combustion chamber, - wherein the one or the more than one intermediate segment(s) each comprise a horizontal row of ribs extending into the flue gas flow channel in order to increase heat exchange from the flue gas to the water to be heated; wherein ribs at the two outer sides of the horizontal row of ribs have a larger height than ribs in the middle of the row of ribs; wherein with height of the rib is meant the dimension of the rib in the vertical direction of the sectional heat exchanger; characterized in that the one or the more than one intermediate segment(s) each comprise a plurality of rows of pins extending in the flue gas channel to increase heat transfer. - wherein the sectional heat exchanger comprises two end segments and one or more than one intermediate segment(s) provided between the two end segments; - wherein the one or the more than one intermediate segment(s) and the two end segments are assembled in the heat exchanger, wherein a combustion chamber is provided in the sectional heat exchanger, - wherein each of the one or the more than one intermediate segment(s) comprises at least one water flow channel for water to be heated, - wherein in between each two consecutive segments at least one flue gas flow channel is provided, and wherein the flue gas flow channel extends from the combustion chamber, - wherein the one or the more than one intermediate segment(s) each comprise a horizontal row of ribs extending into the flue gas flow channel in order to increase heat exchange from the flue gas to the water to be heated;
A water softening composition substantially free from any fabric softening actives, surfactant and bleach comprising a combination of polymeric water softening agents; the first agent comprising a polyacrylate having a molecular weight of from 4,000 to 8,000; and the second agent comprising a co-polymer of an unsaturated poly-carboxylic acid comprising maleic acid, and the co-polymer further comprising an olefin, wherein the co-polymer has a molecular weight of from 5,000 to 15,000.
A vapor chamber device adapted to be thermally coupled to a heat source , the vapor chamber device comprising: a first casing comprises a first plate portion , a plurality of first protrusions protruding from an inner surface of the first plate portion , and a first side wall protruding from the inner surface and surrounding the first protrusions , wherein the heat source is adapted to contact an outer surface of the first plate portion ; a first capillary structure disposed above the inner surface of the first plate portion and surrounding the first protrusions ; and a second casing stacked on the first casing , the second casing comprising a second plate portion , a plurality of second protrusions protruding from the second plate portion , and a second side wall protruding from the second plate portion and surrounding the second protrusions , wherein the first side wall is connected to the second side wall , a plurality of steam passages are formed between the second protrusions , the vapor chamber device being characterized in that the second plate portion comprises a plurality of connecting regions yielded by the second protrusions , the first protrusions are connected to the connecting regions , and the second protrusions rest against the first capillary structure . a first casing comprises a first plate portion , a plurality of first protrusions protruding from an inner surface of the first plate portion , and a first side wall protruding from the inner surface and surrounding the first protrusions , wherein the heat source is adapted to contact an outer surface of the first plate portion ; a first capillary structure disposed above the inner surface of the first plate portion and surrounding the first protrusions ; and a second casing stacked on the first casing , the second casing comprising a second plate portion , a plurality of second protrusions protruding from the second plate portion , and a second side wall protruding from the second plate portion and surrounding the second protrusions , wherein the first side wall is connected to the second side wall , a plurality of steam passages are formed between the second protrusions , the vapor chamber device being characterized in that the second plate portion comprises a plurality of connecting regions yielded by the second protrusions , the first protrusions are connected to the connecting regions , and the second protrusions rest against the first capillary structure .
A combined pumping system suitable to be connected to a vacuum chamber, said system comprising a getter pump an ion pump ; and a flange having an internal side and an external side, the internal side of the flange being internal to the vacuum chamber when the pumping system is connected to the vacuum chamber and the external side of the flange being external to the vacuum chamber when the pumping system is connected to the vacuum chamber, characterized in that said getter and ion pumps are mounted on the flange and arranged on the internal side of said flange at two different points thereof.
A container prepared from a thermoplastic composition comprising - from 95 - 70 wt.% based on the weight of the thermoplastic composition of a polypropylene composition having a total amount of comonomer of at most 3 wt.% based on the weight of the polypropylene composition and comprising a random propylene copolymer having a comonomer content from 0.2 - 5 wt% based on the weight of the random propylene copolymer and the random propylene copolymer having a melt flow index of at most 0.7 g/10 min determined in accordance with ISO 1133 (2.16 kg, 230°C), - from 5 - 30 wt.% based on the weight of the thermoplastic composition of reinforcing fibres, - from 0 - 5 wt.% based on the weight of the thermoplastic composition of additives. - from 95 - 70 wt.% based on the weight of the thermoplastic composition of a polypropylene composition having a total amount of comonomer of at most 3 wt.% based on the weight of the polypropylene composition and comprising a random propylene copolymer having a comonomer content from 0.2 - 5 wt% based on the weight of the random propylene copolymer and the random propylene copolymer having a melt flow index of at most 0.7 g/10 min determined in accordance with ISO 1133 (2.16 kg, 230°C), - from 5 - 30 wt.% based on the weight of the thermoplastic composition of reinforcing fibres, - from 0 - 5 wt.% based on the weight of the thermoplastic composition of additives.
A method for recovering heat from flue gas of a boiler , the method comprising - passing the flue gas (G) through a flue gas cooling unit , - cooling the flue gas (G) in the flue gas cooling unit , said cooling comprising cooling by a circulation of a cooling liquid (CL), - feeding at least part of said cooling liquid (CL) heated in the flue gas cooling unit into a heat pump , - the heat pump being coupled to a circulation of heat-transfer fluid (HT, HT1, HT2), characterized by - transferring condensing heat (H) of said heat-transfer fluid (HT, HT1, HT2) into said cooling liquid (CL) fed in the heat pump for raising the temperature of said cooling liquid (CL), - feeding said cooling liquid (CL) heated in the heat pump in a combustion air humidifier , and - humidifying combustion air to be fed in the boiler in the combustion air humidifier . - passing the flue gas (G) through a flue gas cooling unit , - cooling the flue gas (G) in the flue gas cooling unit , said cooling comprising cooling by a circulation of a cooling liquid (CL), - feeding at least part of said cooling liquid (CL) heated in the flue gas cooling unit into a heat pump , - the heat pump being coupled to a circulation of heat-transfer fluid (HT, HT1, HT2), characterized by - transferring condensing heat (H) of said heat-transfer fluid (HT, HT1, HT2) into said cooling liquid (CL) fed in the heat pump for raising the temperature of said cooling liquid (CL), - feeding said cooling liquid (CL) heated in the heat pump in a combustion air humidifier , and - humidifying combustion air to be fed in the boiler in the combustion air humidifier .
The gripper jaw assembly comprising at least two adjacent pairs of jaws for use in preform transfer grippers (TGs), each jaw comprising an end to be attached to the gripper and a free end, where each first jaw of the at least two adjacent pairs of jaws comprises at least one recess made in the portion of interaction of each first jaw with a preform, and each second jaw of the at least two adjacent pairs of jaws comprises at least one recess made in the portion of each second jaw interacting with the preform characterized in that at least one recess (1.111, 1.111', 1.111", 1.111′′′, 1.111ʺʺ, 1.111′′′ʺ) of the first jaw (1.1, 1.1' , 1.1", 1.1 ′′′, 1.1ʺʺ , 1.1′′′ʺ ) of one pair of jaws interacts with at least one recess (1.211, 1.211', 1.211", 1.211 ′′′ , 1.211 ʺʺ , 1.211′′′ʺ) of the second jaw (1.2, 1.2', 1.2", 1.2′′′, 1.2ʺʺ, 1.2′′′ʺ) of adjacent pair of jaws and at least one recess (1.211, 1.211', 1.211", 1.211 ′′′ , 1.211 ʺʺ , 1.211′′′ʺ) of the second jaw (1.2, 1.2', 1.2", 1.2 ′′′, 1.2ʺʺ, 1.2′′′ʺ) of one pair of jaws interacts with at least one recess (1.111, 1.111', 1.111", 1.111′′′, 1.111ʺʺ, 1.111′′′ʺ) of the first jaw (1.1, 1.1', 1.1", 1.1′′′, 1.1 ʺʺ, 1.1′′′ʺ) of adjacent pair of jaws so that when two adjacent pairs are in open state, the first jaw (1.1, 1.1' , 1.1" , 1.1 ′′′, 1.1 ʺʺ, 1.1′′′ ʺ ) of one pair of jaws at least partially overlaps with the second jaw (1.2, 1.2', 1.2", 1.2"', 1.2ʺʺ, 1.2 ′′′ʺ ) of another adjacent pair of jaws and the second jaw (1.2, 1.2', 1.2", 1.2′′′, 1.2ʺʺ, 1.2 ʺʺ′ ) of one pair of jaws at least partially overlaps with the first jaw (1.1, 1.1' , 1.1" , 1.1 ′′′, 1.1 ʺʺ ) of another adjacent pair of jaws when both said jaws pass each other.