mhurhangee/ep-ind-claims huggingface dataset:
A method of preparing a hemostatic textile, comprising: forming a hemostatic textile, comprising: freeze-drying thrombin-containing serum or plasma onto textile material comprising glass fibers woven or knitted with secondary fibers, wherein the secondary fibers comprise regenerated bamboo fibers; and applying hemostatic proteins to the textile material; packaging the hemostatic textile; and sterilizing the hemostatic textile. forming a hemostatic textile, comprising: freeze-drying thrombin-containing serum or plasma onto textile material comprising glass fibers woven or knitted with secondary fibers, wherein the secondary fibers comprise regenerated bamboo fibers; and applying hemostatic proteins to the textile material; freeze-drying thrombin-containing serum or plasma onto textile material comprising glass fibers woven or knitted with secondary fibers, wherein the secondary fibers comprise regenerated bamboo fibers; and applying hemostatic proteins to the textile material; packaging the hemostatic textile; and sterilizing the hemostatic textile.
An electrical outlet, comprising: - a side wall (2.1) demarcating a cavity; - a bottom (2.2) at a first longitudinal end of the cavity; - a cover comprising at least two orifices (5.1), with the cover being arranged so it is movable with respect to the bottom (2.2); and - return means for returning the cover to a second longitudinal end of the cavity opposite the first longitudinal end, and providing a first opposition to a movement of the cover towards the bottom (2.2); - a closure element arranged so as to be longitudinally movable along the cavity, further being movable between a closing position for closing the orifices (5.1) and an opening position for opening the orifices (5.1); - recovery means for returning the closure element to the closing position; and - retaining means that can be actuated against a second opposition to retain the cover, when the cover is moved with respect to the second longitudinal end characterized in that the retaining means comprise a tab with a retaining surface and a housing in which there is located a retaining face (15.2'), where by means of actuating the retaining means, contact can be established between the retaining surface and the retaining face (15.2') according to a plane of contact substantially perpendicular to a central longitudinal axis of the cavity, in that the recovery means are arranged such that the second opposition, which is greater than the first opposition, is determined by a resistance of the recovery means to elastic deformation, and in that the tab is arranged in the closure element so that, when the closure element is rotated so that the resistance of the recovery means to elastic deformation is overcome, the tab is movable so that it is housed in the housing according to a retaining position to retain the cover, such that the return of the cover by the action of the return means is prevented whereas, when the resistance of the recovery means to elastic deformation is not overcome, the tab is movable so that it is dislodged from the housing according to a released position. - a side wall (2.1) demarcating a cavity; - a bottom (2.2) at a first longitudinal end of the cavity; - a cover comprising at least two orifices (5.1), with the cover being arranged so it is movable with respect to the bottom (2.2); and - return means for returning the cover to a second longitudinal end of the cavity opposite the first longitudinal end, and providing a first opposition to a movement of the cover towards the bottom (2.2); - a closure element arranged so as to be longitudinally movable along the cavity, further being movable between a closing position for closing the orifices (5.1) and an opening position for opening the orifices (5.1); - recovery means for returning the closure element to the closing position; and - retaining means that can be actuated against a second opposition to retain the cover, when the cover is moved with respect to the second longitudinal end
Method of joining a facing element to an anchoring substrate by means of a fixing plug system, - wherein the fixing plug system has a first expansible fixing plug for anchoring in the anchoring substrate and a second expansible fixing plug for securing in the facing element, - wherein the fixing plug system comprises an expander element having an expander portion for expanding an expansion region of the first expansible fixing plug and a draw-in portion for expanding an expansion region of the second expansible fixing plug, and - wherein the draw-in portion is drawn into the expansion region of the second expansible fixing plug as a result of the expander portion being driven into the expansion region of the first expansible fixing plug, having the steps of: a) drilling a drill hole through the facing element into the anchoring substrate; b) setting the first expansible fixing plug in the drill hole in the anchoring substrate and setting the second expansible fixing plug in the drill hole in the facing element; and c) expanding the expansible fixing plugs (2, 3) by introducing the expander element; characterised by the following steps: d) making a test drill hole in the facing element; e) setting a third expansible fixing plug in the test drill hole; f) introducing a test gauge into the third expansible fixing plug, with the result that the third expansible fixing plug is expanded; and g) applying a test load to the test gauge to test the holding force of the third expansible fixing plug in the facing element. - wherein the fixing plug system has a first expansible fixing plug for anchoring in the anchoring substrate and a second expansible fixing plug for securing in the facing element, - wherein the fixing plug system comprises an expander element having an expander portion for expanding an expansion region of the first expansible fixing plug and a draw-in portion for expanding an expansion region of the second expansible fixing plug, and - wherein the draw-in portion is drawn into the expansion region of the second expansible fixing plug as a result of the expander portion being driven into the expansion region of the first expansible fixing plug, a) drilling a drill hole through the facing element into the anchoring substrate; b) setting the first expansible fixing plug in the drill hole in the anchoring substrate and setting the second expansible fixing plug in the drill hole in the facing element; and c) expanding the expansible fixing plugs (2, 3) by introducing the expander element; d) making a test drill hole in the facing element; e) setting a third expansible fixing plug in the test drill hole; f) introducing a test gauge into the third expansible fixing plug, with the result that the third expansible fixing plug is expanded; and g) applying a test load to the test gauge to test the holding force of the third expansible fixing plug in the facing element.
A combination comprising mussel lipid extract and krill oil, wherein the combination is adapted for separate or simultaneous administration, wherein the mussel lipid extract is obtained from Perna canaliculus, and wherein the weight ratio of mussel lipid extract to krill oil is in the range of 5:95 to 99:1.
A method for isolating polynucleotides from a cell-containing sample, the method comprising: contacting the sample with a lysis solution having a first pH between 4 and 8 and a plurality of binding particles coated in PAMAM, so that the polynucleotides are liberated from the cells and become bound to the PAMAM, thereby creating binding particles bound with polynucleotides and a solution containing residual cellular matter; compacting the binding particles; removing the solution containing residual cellular matter; washing the binding particles; and releasing the polynucleotides from the binding particles by contacting the binding particles with a release solution, releasing based on a shift from the first pH to a second, more basic pH; wherein the PAMAM has a molecular weight between 500 and 600 Daltons. contacting the sample with a lysis solution having a first pH between 4 and 8 and a plurality of binding particles coated in PAMAM, so that the polynucleotides are liberated from the cells and become bound to the PAMAM, thereby creating binding particles bound with polynucleotides and a solution containing residual cellular matter; compacting the binding particles; removing the solution containing residual cellular matter; washing the binding particles; and releasing the polynucleotides from the binding particles by contacting the binding particles with a release solution, releasing based on a shift from the first pH to a second, more basic pH; wherein the PAMAM has a molecular weight between 500 and 600 Daltons.
An air conditioner comprising: a compressor configured to compress a refrigerant; an indoor heat exchanger configured to convert a gaseous refrigerant into a liquid refrigerant in a heating mode; an outdoor heat exchanger configured to convert the liquid refrigerant into the gaseous refrigerant in the heating mode; a main pipe connecting the indoor heat exchanger and the outdoor heat exchanger; an injection pipe branched from the main pipe and connected to an injection port of the compressor; a main valve installed on the main pipe and configured to control flow rate of the refrigerant flowing into the main pipe; an injection valve installed on the injection pipe and configured to control the flow rate of the refrigerant flowing into the injection pipe; and a controller configured to calculate an injection ratio based on a degree of opening of the injection valve and the main valve, and to control the degree of opening of the injection valve when the calculated injection ratio is not included in a preset range, wherein the controller is configured to control the degree of opening of the injection valve based on a relationship between the injection ratio and dryness of the refrigerant flowing through the injection port into the compressor. a compressor configured to compress a refrigerant; an indoor heat exchanger configured to convert a gaseous refrigerant into a liquid refrigerant in a heating mode; an outdoor heat exchanger configured to convert the liquid refrigerant into the gaseous refrigerant in the heating mode; a main pipe connecting the indoor heat exchanger and the outdoor heat exchanger; an injection pipe branched from the main pipe and connected to an injection port of the compressor; a main valve installed on the main pipe and configured to control flow rate of the refrigerant flowing into the main pipe; an injection valve installed on the injection pipe and configured to control the flow rate of the refrigerant flowing into the injection pipe; and a controller configured to calculate an injection ratio based on a degree of opening of the injection valve and the main valve, and to control the degree of opening of the injection valve when the calculated injection ratio is not included in a preset range, wherein the controller is configured to control the degree of opening of the injection valve based on a relationship between the injection ratio and dryness of the refrigerant flowing through the injection port into the compressor.
A lentiviral vector comprising a polynucleotide comprising a myeloproliferative sarcoma virus enhancer, negative control region deleted, dl587rev primer-binding site substituted promoter operably linked to a nucleic acid encoding a chimeric antigen receptor, wherein the CAR comprises: (a) an scFv that binds B cell maturation antigen (BCMA); (b) a CD8α hinge region; (c) a CD8α transmembrane domain; (d) a CD137 co-stimulatory signaling domain; and (e) a CD3ζ primary signaling domain. (a) an scFv that binds B cell maturation antigen (BCMA); (b) a CD8α hinge region; (c) a CD8α transmembrane domain; (d) a CD137 co-stimulatory signaling domain; and (e) a CD3ζ primary signaling domain.
Method for automatic flushing of at least one fluid line, in particular a potable water line, - in which time or volume controlled flushing processes are provided, - in which a temperature profile of the fluid is directly or indirectly measured, - in which the measured data are evaluated and - in which the automatic flushing of the at least one fluid line is influenced by an outcome of the evaluation, characterised in that a flushing process is prevented when a constant temperature is measured for a predefined time period. - in which time or volume controlled flushing processes are provided, - in which a temperature profile of the fluid is directly or indirectly measured, - in which the measured data are evaluated and - in which the automatic flushing of the at least one fluid line is influenced by an outcome of the evaluation,
A 5T4 specific chimeric antigen receptor having the polypeptide structure V3 as illustrated in Figure 2, said structure comprising an extra cellular ligand binding-domain comprising VH and VL from a monoclonal anti-5T4 antibody, a CD8α hinge, a CD8α transmembrane domain and a cytoplasmic domain including a CD3 zeta signaling domain and a co-stimulatory domain from 4-1BB.
An electronics card comprising a stack of printed circuit layers, each comprising an electrically insulating support having at least one conductive track extending thereon, and two electromagnetic shields extending respectively over a top face and over a bottom face of the stack, each shield comprises an electrically conductive grid, each extending over an electrically insulating support, the card being characterized in that each shield further comprises the said grid and an electrically conductive plate that are superposed, each extending over an electrically insulating support (16, 17), and the at least one conductive track is obtained by solid copper type etching.
A method for detecting des-R-prothrombin activation peptide fragment F2 for monitoring, diagnosis and screening of cancer which is selected from the group consisting of liver cancer, breast cancer and stomach cancer wherein said method comprises the following steps: 1) measuring the expression of des-R-prothrombin activation peptide fragment F2 of SEQ.ID.NO:1 in a sample obtained from a subject which is selected from a group consisting of blood, serum and plasma; and 2) comparing the expression of des-R-prothrombin activation peptide fragment F2 of step 1) with that of a normal subject, and then selecting subjects demonstrating reduced des-R-F2 expression. 1) measuring the expression of des-R-prothrombin activation peptide fragment F2 of SEQ.ID.NO:1 in a sample obtained from a subject which is selected from a group consisting of blood, serum and plasma; and 2) comparing the expression of des-R-prothrombin activation peptide fragment F2 of step 1) with that of a normal subject, and then selecting subjects demonstrating reduced des-R-F2 expression.
A camera having an internal antenna, comprising: a metal body portion forming an external surface of the camera, excluding one side surface of the camera; a non-metallic grip portion comprising the one side surface and fastened to the metal body portion; and an antenna portion having at least one radiator and characterised in that the radiator is within the grip portion, and further characterised in that the grip portion includes a radiation gain extension portion, which extends in a lateral outward direction of the camera from the grip portion. a metal body portion forming an external surface of the camera, excluding one side surface of the camera; a non-metallic grip portion comprising the one side surface and fastened to the metal body portion; and an antenna portion having at least one radiator and characterised in that the radiator is within the grip portion, and further characterised in that the grip portion includes a radiation gain extension portion, which extends in a lateral outward direction of the camera from the grip portion.
A two-dimensional textile substrate comprising an at least regional flame retardant coating, producible by coating a two-dimensional textile substrate with the following aqueous composition: a) 0.5 to 10 wt.-% of a starch-based binding agent comprising or consisting of starch and/or a starch derivative; b) 10 to 50 wt.-% of at least one inorganic flame retardant, which is selected from the group consisting of aluminum oxides, magnesium oxides, aluminum hydroxides, magnesium hydroxides, ammonium-containing flame retardants and mixtures thereof and mixtures thereof; c) 0.5 to 20 wt.-% of a phosphorus-based or phosphorus-nitrogen-based flame retardant, the phosphorus-based flame retardant being selected from the group consisting of organic derivatives of salts of phosphonic acid and organic derivatives of salts of phosphoric acid; and the phosphorus-nitrogen-based flame retardant comprising or consisting of a) an organic derivative of a salt of phosphonic acid, an organic derivative of a salt of phosphoric acid and/or mixtures thereof; and b) a melamine, a urea, derivatives thereof and/or mixtures thereof; d) 1 to 20 wt.-% of a plastic-based binding agent comprising or consisting of at least one plastic; e) 0 to 30 wt.-% of at least one additive, the components a) to e), together with water, adding up to 100 wt.-%, and subsequent drying of the two-dimensional substrate. a) 0.5 to 10 wt.-% of a starch-based binding agent comprising or consisting of starch and/or a starch derivative; b) 10 to 50 wt.-% of at least one inorganic flame retardant, which is selected from the group consisting of aluminum oxides, magnesium oxides, aluminum hydroxides, magnesium hydroxides, ammonium-containing flame retardants and mixtures thereof and mixtures thereof; c) 0.5 to 20 wt.-% of a phosphorus-based or phosphorus-nitrogen-based flame retardant, the phosphorus-based flame retardant being selected from the group consisting of organic derivatives of salts of phosphonic acid and organic derivatives of salts of phosphoric acid; and the phosphorus-nitrogen-based flame retardant comprising or consisting of a) an organic derivative of a salt of phosphonic acid, an organic derivative of a salt of phosphoric acid and/or mixtures thereof; and b) a melamine, a urea, derivatives thereof and/or mixtures thereof; a) an organic derivative of a salt of phosphonic acid, an organic derivative of a salt of phosphoric acid and/or mixtures thereof; and b) a melamine, a urea, derivatives thereof and/or mixtures thereof; d) 1 to 20 wt.-% of a plastic-based binding agent comprising or consisting of at least one plastic; e) 0 to 30 wt.-% of at least one additive,
Device for spot welding with a laser beam, comprising at least one welding unit with an optical axis, along which a high-power diode laser, a beam-forming optical system and a tube are disposed, and a component-holding fixture in which the components (7.1, 7.2) to be welded together are positioned relative to the welding unit, and means for generating a contact force between the free end of the tube that faces away from the beam-forming optical system and the components (7.1, 7.2) to be welded together in the direction of the optical axis, characterized in that the high-power laser, the beam-forming optical system and the tube are stationarily configured relative to one another by way of a housing, that the inside circumferential surface of the tube is reflective for the laser beam, that the beam-forming optical system is configured in such a manner that it transforms a laser beam emitted by the high-power diode laser into a divergent laser beam, the cross section of which is adapted to the cross section of the hollow space of the tube by means of multiple reflections on the inside circumference of the tube and the distribution of radiation intensity of which laser beam is homogenized across the cross section of the beam.
A method for managing a group of to-be-managed nodes comprising the steps of: (a) forming a particular packet containing a network layer header, including a destination address designating receipt of the packet by a group of nodes, a second header, and a payload wherein a plurality of nodes is divided into one or more groups, including a particular group, and a particular message to be executed by each node of the group, (b) transmitting the particular packet to one or more nodes, including the particular group of nodes, characterized in that the second header identifies a syntax and semantic by which a payload of the packet is parseable in a predefined fashion, the payload contains an identifier previously assigned for designating the particular group of one or more nodes as recipients of the message, each node receiving the particular packet but not previously assigned the identifier contained therein ignores the packet, and each node of the particular group, but only the nodes of the particular group, executes the particular message contained in the particular packet. (a) forming a particular packet containing a network layer header, including a destination address designating receipt of the packet by a group of nodes, a second header, and a payload wherein a plurality of nodes is divided into one or more groups, including a particular group, and a particular message to be executed by each node of the group, (b) transmitting the particular packet to one or more nodes, including the particular group of nodes, characterized in that the second header identifies a syntax and semantic by which a payload of the packet is parseable in a predefined fashion, the payload contains an identifier previously assigned for designating the particular group of one or more nodes as recipients of the message, each node receiving the particular packet but not previously assigned the identifier contained therein ignores the packet, and each node of the particular group, but only the nodes of the particular group, executes the particular message contained in the particular packet.
A method for manufacturing a module with a hollow area by hot isostatic compression, comprising: - a step for making an assembly comprising superposed elements (6, 10) defining the hollow area, said assembly being made so as to form a leakproof casing containing said hollow area, including at least one meltable obturation member separating said hollow area from the outside of the assembly; followed - by a step for hot isostatic compression of said assembly, achieved so as to obtain diffusion-welding of its elements, this step being carried out by changing the temperature and pressure conditions so that the latter cause during this step a rupture of said meltable obturation member allowing the pressurization gas to penetrate into said hollow area. - a step for making an assembly comprising superposed elements (6, 10) defining the hollow area, said assembly being made so as to form a leakproof casing containing said hollow area, including at least one meltable obturation member separating said hollow area from the outside of the assembly; followed - by a step for hot isostatic compression of said assembly, achieved so as to obtain diffusion-welding of its elements, this step being carried out by changing the temperature and pressure conditions so that the latter cause during this step a rupture of said meltable obturation member allowing the pressurization gas to penetrate into said hollow area.