mhurhangee/ep-ind-claims huggingface dataset:
An isocyanate-modified polyester-epoxide polymer (i-PEEP) composition which comprises a reaction product of: (a) a polyepoxide compound having an equivalent weight within the range of 125 to 250 g/eq.; (b) a polyol composition comprising a polyester polyol, wherein the polyester polyol has a hydroxyl value within the range of 50 to 400 mg KOH/g, an average hydroxyl functionality within the range of 1.5 to 4.0, and an acid number less than 5 mg KOH/g; and (c) a polyisocyanate having an average NCO functionality within the range of 2.0 to 3.0; wherein the polyepoxide compound is an aromatic polyepoxide; and wherein the ratio of epoxy equivalents of the polyepoxide compound to hydroxyl equivalents of the polyol composition is within the range of 0.2 to 2, the i-PEEP index as defined herein is within the range of 100 to 200; and the i-PEEP composition has a glass-transition temperature as measured by differential scanning calorimetry within the range of -30°C to 35°C. (a) a polyepoxide compound having an equivalent weight within the range of 125 to 250 g/eq.; (b) a polyol composition comprising a polyester polyol, wherein the polyester polyol has a hydroxyl value within the range of 50 to 400 mg KOH/g, an average hydroxyl functionality within the range of 1.5 to 4.0, and an acid number less than 5 mg KOH/g; and (c) a polyisocyanate having an average NCO functionality within the range of 2.0 to 3.0; wherein the polyepoxide compound is an aromatic polyepoxide; and wherein the ratio of epoxy equivalents of the polyepoxide compound to hydroxyl equivalents of the polyol composition is within the range of 0.2 to 2, the i-PEEP index as defined herein is within the range of 100 to 200; and the i-PEEP composition has a glass-transition temperature as measured by differential scanning calorimetry within the range of -30°C to 35°C.
A method for transmitting information, comprising: determining, by a terminal device, multiple uplink channels to be transmitted, the multiple uplink channels at least partially overlapping in time domain; determining, by the terminal device, to transmit one of the multiple uplink channels according to a time domain position of first information associated with at least one of the multiple uplink channels, wherein the first information is scheduling information associated with each of the multiple uplink channels or configuration information associated with each of the multiple uplink channels. determining, by a terminal device, multiple uplink channels to be transmitted, the multiple uplink channels at least partially overlapping in time domain; determining, by the terminal device, to transmit one of the multiple uplink channels according to a time domain position of first information associated with at least one of the multiple uplink channels, wherein the first information is scheduling information associated with each of the multiple uplink channels or configuration information associated with each of the multiple uplink channels.
A combined plate-and-tube heat exchange evaporative condenser, comprising a fan, a water pump, a water sprayer and a reservoir, wherein the evaporative condenser further comprises a combined plate-and-tube heat exchanger; the combined plate-and-tube heat exchanger is consisted of a plurality of combined plate-and-tube heat exchange pieces connected by a plurality of inlet headers and a plurality of outlet headers; the combined plate-and-tube heat exchange piece comprises a heat transfer plate and a serpentine tube machined by a heat exchange tube; the heat transfer plate is provided with a groove, and the shape of the groove is matched with that of the serpentine tube; the serpentine tube is disposed in the groove, characterised in that a gap between the serpentine tube and the groove is filled with a thermally conductive adhesive layer; the gap has a width smaller than 10 mm; the thermally conductive adhesive layer is a metal filler layer, the metal filler layer is formed by a liquid metal filling the gap through capillary action.
A method comprising receiving, by an apparatus, an electrocardiogram, ECG, signal; extracting, by the apparatus, a plurality of beat-to-beat intervals; extracting, by the apparatus, a plurality of QT intervals; computing, by the apparatus, a first probability distribution for a range of QT values based on the plurality of QT intervals; computing, by the apparatus, a second probability distribution for a range of QT values based on the plurality of QT intervals and the plurality of RR intervals; characterised by: solving, by the apparatus, one or more points, wherein the first probability distribution and the second probability distribution intersect or wherein a difference between the first probability distribution and the second probability distribution is below a pre-defined difference threshold; designating, by the apparatus, one of one or more QT values corresponding to the one or more solved points as a corrected QT interval for a given QT interval of the plurality of QT intervals. receiving, by an apparatus, an electrocardiogram, ECG, signal; extracting, by the apparatus, a plurality of beat-to-beat intervals; extracting, by the apparatus, a plurality of QT intervals; computing, by the apparatus, a first probability distribution for a range of QT values based on the plurality of QT intervals; computing, by the apparatus, a second probability distribution for a range of QT values based on the plurality of QT intervals and the plurality of RR intervals; characterised by: solving, by the apparatus, one or more points, wherein the first probability distribution and the second probability distribution intersect or wherein a difference between the first probability distribution and the second probability distribution is below a pre-defined difference threshold; designating, by the apparatus, one of one or more QT values corresponding to the one or more solved points as a corrected QT interval for a given QT interval of the plurality of QT intervals. solving, by the apparatus, one or more points, wherein the first probability distribution and the second probability distribution intersect or wherein a difference between the first probability distribution and the second probability distribution is below a pre-defined difference threshold; designating, by the apparatus, one of one or more QT values corresponding to the one or more solved points as a corrected QT interval for a given QT interval of the plurality of QT intervals.
An adhesive composition comprising: a (meth)acrylate-based resin; and a polymer having a melting temperature (Tm) when measured using differential scanning calorimetry of 45°C or higher and 49 °C or less, wherein the polymer is a copolymer of a monofunctional polysiloxane and two types of monomers, wherein the polymer having a melting temperature of 45°C or higher and 49°C or less, comprises, based on 100 parts by weight of the polymer having a melting temperature of 45°C or higher and 49°C or less, the monofunctional polysiloxane in greater than or equal to 10 parts by weight and less than or equal to 40 parts by weight, and the two types of monomers in greater than or equal to 60 parts by weight and less than or equal to 90 parts by weight, and wherein the two types of monomers are represented by the following Chemical Formula 1: in Chemical Formula 1, X is N or O; R1 is hydrogen or a methyl group; and n is an integer of 10 to 30. a (meth)acrylate-based resin; and a polymer having a melting temperature (Tm) when measured using differential scanning calorimetry of 45°C or higher and 49 °C or less, wherein the polymer is a copolymer of a monofunctional polysiloxane and two types of monomers, wherein the polymer having a melting temperature of 45°C or higher and 49°C or less, comprises, based on 100 parts by weight of the polymer having a melting temperature of 45°C or higher and 49°C or less, the monofunctional polysiloxane in greater than or equal to 10 parts by weight and less than or equal to 40 parts by weight, and the two types of monomers in greater than or equal to 60 parts by weight and less than or equal to 90 parts by weight, and wherein the two types of monomers are represented by the following Chemical Formula 1: in Chemical Formula 1, X is N or O; R1 is hydrogen or a methyl group; and n is an integer of 10 to 30. X is N or O; R1 is hydrogen or a methyl group; and n is an integer of 10 to 30.
Sealing tape for sealing building elements, with a carrier tape extending in a longitudinal direction of the tape and with an adhesive portion arranged on the carrier tape and extending in the longitudinal direction of the sealing tape, wherein a plurality of protrusions which extend in a direction perpendicular to the longitudinal direction are arranged on the carrier tape and recesses are arranged in each case between these protrusions, characterised in that, starting from the carrier tape, a distance between two adjacent protrusions is first of all increased and then decreased again, wherein a length of the protrusions running in the longitudinal direction is changed.
Heating/cooling system manifold comprising a sleeve having at least one opening (3, 4) in a wall and fixing means having a connection geometry (6, 29, 30) adapted for mounting at least a functional part (114 - 119) of the system to the sleeve and being arranged around the opening (3, 4), wherein the fixing means comprise at least two parts (7, 8) which are connected by means of at least one joining element (9, 10) outside the sleeve, characterized in that at least one of the two parts (7, 8) of the fixing means comprises a protrusion (11, 12) extending into the interior of the sleeve.
Cable gland comprising a component and at least one contact element, the at least one contact element comprising a plurality of substantially geometrically identically shaped windings, each winding comprising a retaining section for electrically contacting the component surrounding the contact element, at least one first and one second supporting section (16, 17) for electrically contacting a shield of a long-molded part and a first and a second extending section (18, 19), the retaining section, the first extending section and the at least two supporting sections (16, 17) being arranged one after the other and the first supporting section and the second supporting section adjoining each other.
A liquid trap system adapted to allow a liquid to pass through the liquid trap system in a downstream direction while preventing gasses from passing through the liquid trap system in an upstream direction, wherein the liquid trap system comprises at least first and a second liquid trap (102',102") characterized in that the first liquid trap is adapted to allow liquid to pass therethrough when the flow rate of the liquid flowing into the entire liquid trap system is above a first predetermined flow rate, and wherein the second liquid trap (102") is adapted to allow liquid to pass therethrough when the flow rate of liquid flowing in the liquid trap system is above a second predetermined flow rate, the second predetermined flow rate being larger than the first predetermined flow rate, such that when the flow rate is below the second flow rate, any liquid which flows into the liquid trap system is directed through the first liquid trap.
An electrode for a solid state battery which comprises a plurality of electrode active material particles, a first polymer electrolyte, a second polymer electrolyte and a conductive material, wherein the electrode active material particles are at least partially surface-coated with a first coating layer comprising a mixture of the first polymer electrolyte and the conductive material, the second polymer electrolyte at least partially covers the surface of the first coating layer, the surface of the particles or both surfaces, and the electrode active material particles are bound to each other by at least one of the first polymer electrolyte and the second polymer electrolyte to form an integrated structure, the first polymer electrolyte comprises at least one from polycarbonate polymer and polysiloxane polymer, and the first polymer electrolyte is different from the second polymer electrolyte. wherein the electrode active material particles are at least partially surface-coated with a first coating layer comprising a mixture of the first polymer electrolyte and the conductive material, the second polymer electrolyte at least partially covers the surface of the first coating layer, the surface of the particles or both surfaces, and the electrode active material particles are bound to each other by at least one of the first polymer electrolyte and the second polymer electrolyte to form an integrated structure, the first polymer electrolyte comprises at least one from polycarbonate polymer and polysiloxane polymer, and the first polymer electrolyte is different from the second polymer electrolyte.
A process for recovering tocotrienols/tocopherols, carotenoids and sterols from crude vegetable oil, characterised in that prior to the recovery steps, the amount of the free fatty acids in the crude oil is reduced to 3.50% by weight or less by distillation, wherein the distillation is performed using two distillation columns, one column operating at a temperature of 90 to 200°C and a pressure ranging from 10 to 100 kPa and the subsequent column at 120 to 250°C and 0.10 to 10 kPa, to produce a first fraction enriched with carotenoids and a second fraction enriched with tocotrienols/tocopherols, wherein the process further comprises the steps of: transesterifying the first fraction in the presence of an alcohol and a basic catalyst to convert the glycerides therein to fatty acid esters and glycerine, forming a transesterified mixture comprising glycerine, fatty acid esters and carotenoids, followed by distilling the transesterified mixture to separate carotenoids; and esterifying the second fraction in the presence of an alcohol and an acid catalyst to convert fatty acids therein to fatty acid esters, forming an esterified mixture comprising fatty acid esters and tocotrienols/tocopherols, followed by distilling the esterified mixture to separate tocotrienols/tocopherols. transesterifying the first fraction in the presence of an alcohol and a basic catalyst to convert the glycerides therein to fatty acid esters and glycerine, forming a transesterified mixture comprising glycerine, fatty acid esters and carotenoids, followed by distilling the transesterified mixture to separate carotenoids; and esterifying the second fraction in the presence of an alcohol and an acid catalyst to convert fatty acids therein to fatty acid esters, forming an esterified mixture comprising fatty acid esters and tocotrienols/tocopherols, followed by distilling the esterified mixture to separate tocotrienols/tocopherols.
A refrigerator comprising: a main body having an inner case and an outer case; a storage chamber (20, 60) which is defined by the inner case and is to be opened at a front surface thereof; a door (40, 80) to open and close the opened front surface of the storage chamber (20, 60); a shelf mounting portion (21, 61) which is provided in the inner case; and a shelf (31-34, 71-74) which is separably mountable to the shelf mounting portion (21, 61); wherein a shock-absorbing member (111, 121) is adapted to accommodate the shelf, when said shelf is separated from the shelf mounting portion, said shock-absorbing member is fixed within the storage chamber, so as to fix the shelf separated from the shelf mounting portion within the storage chamber during transportation of the refrigerator, said shock-absorbing member (111, 121) comprises a fixing portion (111b, 121b) coupled to the shelf mounting portion (21, 61); and the shock-absorbing member (111, 121) is fixed within the storage chamber (20, 60) by coupling the fixing portion to the shelf mounting portion, which shelf mounting portion (21, 61) has a protrusion shape which protrudes from the inner case; and characterized in that the fixing portion (111a, 121a) has a groove shape into which the shelf mounting portion is able to be inserted. a main body having an inner case and an outer case; a storage chamber (20, 60) which is defined by the inner case and is to be opened at a front surface thereof; a door (40, 80) to open and close the opened front surface of the storage chamber (20, 60); a shelf mounting portion (21, 61) which is provided in the inner case; and a shelf (31-34, 71-74) which is separably mountable to the shelf mounting portion (21, 61); wherein a shock-absorbing member (111, 121) is adapted to accommodate the shelf, when said shelf is separated from the shelf mounting portion, said shock-absorbing member is fixed within the storage chamber, so as to fix the shelf separated from the shelf mounting portion within the storage chamber during transportation of the refrigerator, said shock-absorbing member (111, 121) comprises a fixing portion (111b, 121b) coupled to the shelf mounting portion (21, 61); and the shock-absorbing member (111, 121) is fixed within the storage chamber (20, 60) by coupling the fixing portion to the shelf mounting portion, which shelf mounting portion (21, 61) has a protrusion shape which protrudes from the inner case; and characterized in that the fixing portion (111a, 121a) has a groove shape into which the shelf mounting portion is able to be inserted.
A computer-implemented method for operating an autonomous driving vehicle, the method comprising: in response to a request for a three-point turn, generating a set of forward turning paths based on a maximum forward turning angle associated with the autonomous driving vehicle; generating a set of backward turning paths based on a maximum backward turning angle associated with the ADV; generating a set of three-point turn path candidates based on the forward turning paths and the backward turning paths; for each of the three-point turn path candidates, calculating a path cost using a predetermined cost function; and selecting one of the three-point turn path candidates having a lowest path cost to drive the ADV to make a three-point turn, characterized in that calculating a path cost using a predetermined cost function comprises: for each of the three-point turn path candidates, determining a path heading direction of an end point of the three-point turn path candidate; and calculating a path cost for the three-point turn path candidate based on a difference between the path heading direction and a lane direction of a target lane that the ADV turns into after the three-point turn. in response to a request for a three-point turn, generating a set of forward turning paths based on a maximum forward turning angle associated with the autonomous driving vehicle; generating a set of backward turning paths based on a maximum backward turning angle associated with the ADV; generating a set of three-point turn path candidates based on the forward turning paths and the backward turning paths; for each of the three-point turn path candidates, calculating a path cost using a predetermined cost function; and selecting one of the three-point turn path candidates having a lowest path cost to drive the ADV to make a three-point turn, characterized in that calculating a path cost using a predetermined cost function comprises: for each of the three-point turn path candidates, determining a path heading direction of an end point of the three-point turn path candidate; and calculating a path cost for the three-point turn path candidate based on a difference between the path heading direction and a lane direction of a target lane that the ADV turns into after the three-point turn. for each of the three-point turn path candidates, determining a path heading direction of an end point of the three-point turn path candidate; and calculating a path cost for the three-point turn path candidate based on a difference between the path heading direction and a lane direction of a target lane that the ADV turns into after the three-point turn.
Supercharger, in particular for a motor vehicle, comprising: - a gas compression wheel; - a rotating electrical machine configured to drive the gas compression wheel; - a voltage converter configured to supply power to said electrical machine from an electrical grid; characterized by - an electrical connection device comprising a power supply conductor configured to electrically connect the voltage converter to the electrical grid and at least one phase conductor (303u, 303v, 303w) configured to electrically connect the voltage converter to a phase of the electrical machine, said connection device comprising a body that overmoulds said power supply conductor and said phase conductor (303u, 303v, 303w) together. - a gas compression wheel; - a rotating electrical machine configured to drive the gas compression wheel; - a voltage converter configured to supply power to said electrical machine from an electrical grid; characterized by - an electrical connection device comprising a power supply conductor configured to electrically connect the voltage converter to the electrical grid and at least one phase conductor (303u, 303v, 303w) configured to electrically connect the voltage converter to a phase of the electrical machine,
Fire fighting device for railway vehicles comprising - an extinguishing liquid container having an outlet which is connectable to a pipeline system and discharges extinguishing liquid stored in the extinguishing liquid container, - the extinguishing liquid container being manufactured from a plastic composite material, characterized in that - the plastic composite is permanently hydrolysis resistant, and - an electric heating cartridge is arranged in the extinguishing liquid container via an opening. - an extinguishing liquid container having an outlet which is connectable to a pipeline system and discharges extinguishing liquid stored in the extinguishing liquid container, - the extinguishing liquid container being manufactured from a plastic composite material, - the plastic composite is permanently hydrolysis resistant, and - an electric heating cartridge is arranged in the extinguishing liquid container via an opening.
A method for manufacturing particles, said particles having a diameter of between 10 - 2000 nm, and said particles consisting of a shell and one or more magnetic cores, wherein said magnetic core consist of a ferromagnetic, ferrimagnetic or superparamagnetic material coated with one or more graphene layers and said shell consists of an oxidic glass composition, and said method comprising the steps of a) providing particles with a magnetic core and coated with a graphene layer, b) activating said particles b1) by chemical modification, b2) by coating with polymers or b3) by oxidizing the surface of the carbon, c) coating the activated particles with an oxidic glass composition, d) optionally further functionalizing the obtained particles with small molecules. a) providing particles with a magnetic core and coated with a graphene layer, b) activating said particles b1) by chemical modification, b2) by coating with polymers or b3) by oxidizing the surface of the carbon, c) coating the activated particles with an oxidic glass composition, d) optionally further functionalizing the obtained particles with small molecules.