mhurhangee/patent-ind-claim-en huggingface dataset:
A polymerizable composition comprising - a polythiol compound having at least three mercapto groups; and - a polyiso(thio)cyanate which is at least one of tolylene diisocyanate, 4,4'-diphenylmethane diisocyanate, and phenylene diisocyanate, wherein the thiol equivalent ratio which is a measured value of a thiol equivalent of the polythiol compound with respect to a theoretical value of the thiol equivalent and is as defined in the description, is 0.975-0.995. - a polythiol compound having at least three mercapto groups; and - a polyiso(thio)cyanate which is at least one of tolylene diisocyanate, 4,4'-diphenylmethane diisocyanate, and phenylene diisocyanate,
A counter-current cross-flow heat exchanger for heating a first gas represented by SO 2 and cooling a second gas represented by SO 3 , comprising a plurality of modules in fluid communication with one another, each module being positioned on a plane (α,α',α",α"'), said planes (α,α',α",α"') being mutually overlapping, further comprising conduits for the entry of said first gas, conduits for the entry of said second gas and conduits for the exit of said first gas and conduits for the exit of said second gas into and out of the exchanger , each module comprising a plurality of heat exchange plates , each having a heating face and a cooling face , said plates being positioned orthogonal to the plane of each module (α,α',α",α"') and parallel to one another so as to define heating spaces between said heating faces and cooling spaces between said cooling faces , said heating spaces and cooling spaces alternating relative to one another, wherein said first gas crosses the exchanger from the lower module to the upper module (5 or 6) crossing each heating space with a direction x substantially parallel to the plane of each module (α,α',α",α"') and wherein said second gas crosses the exchanger from the upper module (5 or 6) to the lower module crossing each cooling space with a direction y substantially orthogonal to the plane of each module (α,α',α",α"'), wherein the cooling spaces between one module and the immediately underlying one (6 and 5, 5 and 4, 4 and 3) are in direct fluid communication with one another, while the heating spaces between one module and the immediately overlying one (3 and 4, 4 and 5, 5 and 6) are in fluid communication with one another by means of conduits/conveyors (9,9',9"), thereby creating a "serpentine" path of said second gas, characterized by the fact that the said heat exchanger further comprises a frame , said frame comprising a load-bearing structure resting on the ground for the engagement and the suspension of the first module of the exchanger to said frame .
A process for the production of a mineral foam comprising the following steps: (i) separately preparing a slurry of cement and an aqueous foam, wherein the cement slurry comprises water (W) and Portland cement (C); (ii) contacting the slurry of cement with the aqueous foam to obtain a slurry of foamed cement; (iii) adding an aluminium salt source before or during step (ii); (iv) casting the slurry of foamed cement and leave it to set, wherein the mineral foam is substantially free of particles with a mean diameter D50 < 2μm, wherein aluminium sulphate, in particular in the form of an aluminium sulphate solution, is used as said aluminium salt source and the aluminium sulphate is added in an amount of 0.15 - 5% in dry aluminum sulphate by weight of cement, preferably 0.25 - 3% in dry aluminum sulphate by weight of cement, more preferably 0.5 - 2.5% in dry aluminum sulphate by weight of cement. (i) separately preparing a slurry of cement and an aqueous foam, wherein the cement slurry comprises water (W) and Portland cement (C); (ii) contacting the slurry of cement with the aqueous foam to obtain a slurry of foamed cement; (iii) adding an aluminium salt source before or during step (ii); (iv) casting the slurry of foamed cement and leave it to set, wherein the mineral foam is substantially free of particles with a mean diameter D50 < 2μm, wherein aluminium sulphate, in particular in the form of an aluminium sulphate solution, is used as said aluminium salt source and the aluminium sulphate is added in an amount of 0.15 - 5% in dry aluminum sulphate by weight of cement, preferably 0.25 - 3% in dry aluminum sulphate by weight of cement, more preferably 0.5 - 2.5% in dry aluminum sulphate by weight of cement.
A cable car having a number of cable car stations and a number of cable car vehicles (F) movable with a haulage rope between the cable car stations , wherein a cable car control unit is provided for controlling the cable car , characterized in that a maximum value for an electrical energy consumption of the cable car is predetermined, preferably in the form of a maximum power or a maximum amount of energy, in that an energy detection unit is provided for determining a variable which is representative of the electrical energy consumption of the cable car , and in that the cable car control unit is designed to control or regulate the electrical energy consumption of at least one electrical consumer of the cable car depending on the determined variable in such a manner that the maximum value for the electrical energy consumption predetermined for the cable car is not exceeded.
An anti-LAG-3 antibody for use in a method of treating a hematological malignancy in a human patient, wherein the anti-LAG-3 antibody comprises (a) a heavy chain variable region CDR1 having the sequence set forth in SEQ ID NO:7; (b) a heavy chain variable region CDR2 having the sequence set forth in SEQ ID NO:8; (c) a heavy chain variable region CDR3 having the sequence set forth in SEQ ID NO:9; (d) a light chain variable region CDR1 having the sequence set forth in SEQ ID NO:10; (e) a light chain variable region CDR2 having the sequence set forth in SEQ ID NO:11; and (f) a light chain variable region CDR3 having the sequence set forth in SEQ ID NO:12, and wherein the method comprises at least one administration cycle of the anti-LAG-3 antibody, wherein the cycle is a period of eight weeks, wherein for each of the at least one cycles, the anti-LAG-3 antibody is administered as follows: (a) four doses of 20 mg anti-LAG-3 antibody; (b) four doses of 80 mg anti-LAG-3 antibody; (c) four doses of 240 mg anti-LAG-3 antibody; or (d) four doses of 800 mg anti-LAG-3 antibody. (a) a heavy chain variable region CDR1 having the sequence set forth in SEQ ID NO:7; (b) a heavy chain variable region CDR2 having the sequence set forth in SEQ ID NO:8; (c) a heavy chain variable region CDR3 having the sequence set forth in SEQ ID NO:9; (d) a light chain variable region CDR1 having the sequence set forth in SEQ ID NO:10; (e) a light chain variable region CDR2 having the sequence set forth in SEQ ID NO:11; and (f) a light chain variable region CDR3 having the sequence set forth in SEQ ID NO:12, and (a) four doses of 20 mg anti-LAG-3 antibody; (b) four doses of 80 mg anti-LAG-3 antibody; (c) four doses of 240 mg anti-LAG-3 antibody; or (d) four doses of 800 mg anti-LAG-3 antibody.
A refrigeration system , comprising: - a heat exchanger configured to place a cooling fluid in a heat exchange relationship with a working fluid ; - a free-cooling circuit comprising a condenser and a pump , wherein the pump is configured to circulate the working fluid through the heat exchanger and the condenser of the free-cooling circuit ; - a flow control valve of the free-cooling circuit configured to control a flow rate of the working fluid directed to the condenser of the free-cooling circuit ; - a condenser bypass valve of the free-cooling circuit configured to control a flow rate of the working fluid that bypasses the condenser of the free-cooling circuit ; - a controller configured to adjust a first position of the flow control valve , a second position of the condenser bypass valve , a speed of a fan of the condenser , a speed of the pump , and a temperature of a heater of the free-cooling circuit based on an ambient temperature, a temperature of the working fluid leaving the condenser , the first position of the flow control valve , and/or the second position of the condenser bypass valve ; and - a first temperature sensor and a second temperature sensor communicatively coupled to the controller , wherein the first temperature sensor is configured to provide feedback to the controller indicative of the ambient temperature, and wherein the second temperature sensor is configured to provide feedback to the controller indicative of the temperature of the working fluid leaving the condenser . - a heat exchanger configured to place a cooling fluid in a heat exchange relationship with a working fluid ; - a free-cooling circuit comprising a condenser and a pump , wherein the pump is configured to circulate the working fluid through the heat exchanger and the condenser of the free-cooling circuit ; - a flow control valve of the free-cooling circuit configured to control a flow rate of the working fluid directed to the condenser of the free-cooling circuit ; - a condenser bypass valve of the free-cooling circuit configured to control a flow rate of the working fluid that bypasses the condenser of the free-cooling circuit ; - a controller configured to adjust a first position of the flow control valve , a second position of the condenser bypass valve , a speed of a fan of the condenser , a speed of the pump , and a temperature of a heater of the free-cooling circuit based on an ambient temperature, a temperature of the working fluid leaving the condenser , the first position of the flow control valve , and/or the second position of the condenser bypass valve ; and - a first temperature sensor and a second temperature sensor communicatively coupled to the controller , wherein the first temperature sensor is configured to provide feedback to the controller indicative of the ambient temperature, and wherein the second temperature sensor is configured to provide feedback to the controller indicative of the temperature of the working fluid leaving the condenser .
A process for the preparation of an aqueous anionically stabilized polymer dispersion comprising the steps a. a first emulsion polymerization of a first monomer mixture comprising acid functional monomers M1 comprising acid groups and less than 2 wt% (relative to the total weight of the first monomer mixture) amine functional monomers M2 comprising amine groups to form a first phase polymer dispersion of an acid functional oligomer P1 having a number average molecular weight Mn P1 between 500 and 50,000 g/mole (as determined by GPC using THF in combination with acetic acid) and a Fox glass transition temperature Tg P1 of at least 0°C, b. adding a base to increase the pH in a range between 6 and 11, c. a second emulsion polymerisation in the presence of the first phase polymer dispersion P1 of a second monomer mixture comprising amine functional monomers M2* having sterically hindered secondary amine or tertiary amine groups and less than 2 wt% (relative to the total weight of the second monomer mixture) acid functional monomers M1 to form a second phase of an amine functional polymer P2 having a Fox glass transition temperature Tg P2 of at least 0 °C, d. wherein Tg P2 is lower than Tg P1 by at least 5 °C and e. wherein the resulting anionically stabilized polymer dispersion comprises dispersed particles having within the particles separate unmixed first and second phases, wherein the Fox Tg is calculated based on constituting monomers in the monomer mixtures not including chain transfer agents or reactive surfactants. a. a first emulsion polymerization of a first monomer mixture comprising acid functional monomers M1 comprising acid groups and less than 2 wt% (relative to the total weight of the first monomer mixture) amine functional monomers M2 comprising amine groups to form a first phase polymer dispersion of an acid functional oligomer P1 having a number average molecular weight Mn P1 between 500 and 50,000 g/mole (as determined by GPC using THF in combination with acetic acid) and a Fox glass transition temperature Tg P1 of at least 0°C, b. adding a base to increase the pH in a range between 6 and 11, c. a second emulsion polymerisation in the presence of the first phase polymer dispersion P1 of a second monomer mixture comprising amine functional monomers M2* having sterically hindered secondary amine or tertiary amine groups and less than 2 wt% (relative to the total weight of the second monomer mixture) acid functional monomers M1 to form a second phase of an amine functional polymer P2 having a Fox glass transition temperature Tg P2 of at least 0 °C, d. wherein Tg P2 is lower than Tg P1 by at least 5 °C and e. wherein the resulting anionically stabilized polymer dispersion comprises dispersed particles having within the particles separate unmixed first and second phases, wherein the Fox Tg is calculated based on constituting monomers in the monomer mixtures not including chain transfer agents or reactive surfactants.
A virtual reality welding system, comprising: a protective welding helmet; a programmable processor-based subsystem ; and a computerized eyewear device having a head-up display (HUD) and control and communication circuitry operatively connected to the HUD , wherein the programmable processor-based subsystem and the computerized eyewear device are cooperatively configured to provide one or more of virtual reality images associated with a virtual reality welding process and virtual cues and indicators associated with a virtual reality welding process o the HUD ; wherein the computerized eyewear device is configured to: be worn by a user as eye glasses are worn while also wearing the protective welding helmet; and wirelessly communicate with the programmable processor-based subsystem ; wherein the computerized eyewear device further includes a frame configured to be worn on the head of the user; wherein the HUD is affixed to the frame and is movable with respect to the frame through rotation about a first axis that extends parallel to a brow portion of the frame . a protective welding helmet; a programmable processor-based subsystem ; and a computerized eyewear device having a head-up display (HUD) and control and communication circuitry operatively connected to the HUD , wherein the programmable processor-based subsystem and the computerized eyewear device are cooperatively configured to provide one or more of virtual reality images associated with a virtual reality welding process and virtual cues and indicators associated with a virtual reality welding process o the HUD ; wherein the computerized eyewear device is configured to: be worn by a user as eye glasses are worn while also wearing the protective welding helmet; and wirelessly communicate with the programmable processor-based subsystem ; wherein the computerized eyewear device further includes a frame configured to be worn on the head of the user; wherein the HUD is affixed to the frame and is movable with respect to the frame through rotation about a first axis that extends parallel to a brow portion of the frame . be worn by a user as eye glasses are worn while also wearing the protective welding helmet; and wirelessly communicate with the programmable processor-based subsystem ; wherein the computerized eyewear device further includes a frame configured to be worn on the head of the user; wherein the HUD is affixed to the frame and is movable with respect to the frame through rotation about a first axis that extends parallel to a brow portion of the frame .
Process for treating a magnetic structure , characterized in that it comprises the following steps: - providing (S10) a magnetic structure comprising at least one first layer of magnetic material comprising a CoFeB alloy; said magnetic material being deposited on a substrate ; - irradiating (S20) the magnetic structure with low-energy light ions chosen from He+, H+, Ar+, Xe+ ou Ga+, whereby the ions emitted during the irradiating step pass through the at least one first layer of magnetic material and are implanted deep in ths substrate at a depth in the substrate between 100 nm and 300 nm; and wherein said irradiating (S20) induces structural modifications of the irradiated magnetic layers - simultaneously holding (S30) the magnetic structure at a preset temperature profile and for a preset time. - providing (S10) a magnetic structure comprising at least one first layer of magnetic material comprising a CoFeB alloy; said magnetic material being deposited on a substrate ; - irradiating (S20) the magnetic structure with low-energy light ions chosen from He+, H+, Ar+, Xe+ ou Ga+, whereby the ions emitted during the irradiating step pass through the at least one first layer of magnetic material and are implanted deep in ths substrate at a depth in the substrate between 100 nm and 300 nm; and wherein said irradiating (S20) induces structural modifications of the irradiated magnetic layers - simultaneously holding (S30) the magnetic structure at a preset temperature profile and for a preset time.
Device assembly for detecting physical performance values of a test subject, with a muscle strength meter and with at least one evaluation unit connectable to the muscle strength meter , wherein the muscle strength meter has at least one strength sensor and on each side has a grip , such that the test subject can apply muscle strength to the at least one strength sensor from two opposite directions via the two grips , and wherein the muscle strength meter is designed as a mobile portable muscle strength meter , such that the muscle strength applied to the at least one strength sensor by the test subject can be indicated on a display of the at least one evaluation unit , and the muscle strength meter has sensors via which at least the body fat content of the test subject can be determined, and the evaluation unit contains at least one microcontroller (MCU) for joint evaluation of the test subject values determined by the muscle strength meter and by the sensors , wherein the sensors are arranged at both grips .
Device for mowing vegetation between embankments and on the flanks of embankments of an embankment culture, on which plants are planted, and which are covered with foil, or a similar material, comprising - a mowing unit with two rotating elements , together with - a guide wheel , by means of which the mowing unit can be guided along a flank of an embankment at a defined distance from the embankment , wherein a first rotating element is formed by a circular brush that has bristles , and the second rotating element is formed by a blade, or a cutting disc, wherein the first rotating element with its bristles sweeps over a partial region of the second rotating element , wherein the device is designed as a unit with its own wheels, or as one that can be moved on a carrier vehicle, characterised by , a housing that comprises a partial opening , wherein the second rotating element is arranged in the housing , wherein the bristles of the first rotating element engage with the partial opening of the housing . - a mowing unit with two rotating elements , together with - a guide wheel , by means of which the mowing unit can be guided along a flank of an embankment at a defined distance from the embankment , wherein a first rotating element is formed by a circular brush that has bristles , and the second rotating element is formed by a blade, or a cutting disc, wherein the first rotating element with its bristles sweeps over a partial region of the second rotating element , wherein the device is designed as a unit with its own wheels, or as one that can be moved on a carrier vehicle, characterised by , a housing that comprises a partial opening , wherein the second rotating element is arranged in the housing , wherein the bristles of the first rotating element engage with the partial opening of the housing .
A method performed by an apparatus comprising: transmitting a first signal to a first device for indicating a first resource in a control region of a carrier bandwidth, wherein the first resource is used by the first device for transmitting first control information, and the first control information comprises first non-orthogonal layer information; receiving the first control information from the first resource; receiving first data in a data region of the carrier bandwidth, wherein the data region comprises multiple non-orthogonal layers; decoding the first control information; and decoding the first data based on the first control information; wherein the first resource and the data region are on different non-orthogonal layers. transmitting a first signal to a first device for indicating a first resource in a control region of a carrier bandwidth, wherein the first resource is used by the first device for transmitting first control information, and the first control information comprises first non-orthogonal layer information; receiving the first control information from the first resource; receiving first data in a data region of the carrier bandwidth, wherein the data region comprises multiple non-orthogonal layers; decoding the first control information; and decoding the first data based on the first control information; wherein the first resource and the data region are on different non-orthogonal layers.
Electrical machine comprising a rotor and a stator , the rotor being mounted to rotate in the stator coaxially thereto and comprising a plurality p of pairs of magnetic poles in the form of permanent magnets, the stator being fixed and comprising a plurality s of slits housing windings of conductors that are passed through by electrical currents, the numbers s of slits being determined by the equation: s = 2 p +/- 1 or s = 2 p +/- 2, such that s is a positive integer that is a multiple of three, p being a positive integer number, wherein said stator is configured to reduce the amplitude A of the third harmonic of electromotive force, and wherein said stator comprises teeth separating said slits and characterized in that said teeth have a bottom face , facing the rotor, said bottom face being provided with at least one groove configured to reduce a magnetic saturation of the stator and therefore reduce the electromagnetic losses of the stator.
Painting booth comprising a painting chamber in which paint is sprayed and which is crossed by an air flow for evacuation of overspray from the chamber, the air flow exiting the chamber passing through an overspray removal unit for removing the overspray from the air flow, characterized in that the removal unit comprises an incoherent mass of cleaning elements kept in a stirred condition by means of a mechanical stirrer through which the air flow containing the overspray passes so as to release the overspray onto the cleaning elements.