mhurhangee/ep-ind-claims huggingface dataset:
A soap base composition, produced from a saponification reaction between: a first mixture comprising an oil and a zeta-potential increasing component, the zeta-potential increasing component including an infusion of an extraction medium of glycerol and extract from a natural plant additive selected from the group consisting of coriander, thyme, clove, rosemary, aloe vera, comfrey, colt's foot, nettle, rosewood, chamomile, tragacanth, locust bean, soy bean, fumitory, and any combination thereof; and an acetic acid containing compound, preferably natural vinegar; and a second mixture including a saponification reactant for producing the soap base composition. a first mixture comprising an oil and a zeta-potential increasing component, the zeta-potential increasing component including an infusion of an extraction medium of glycerol and extract from a natural plant additive selected from the group consisting of coriander, thyme, clove, rosemary, aloe vera, comfrey, colt's foot, nettle, rosewood, chamomile, tragacanth, locust bean, soy bean, fumitory, and any combination thereof; and an acetic acid containing compound, preferably natural vinegar; and a second mixture including a saponification reactant for producing the soap base composition.
Electrostatic collector comprising a collection chamber, delimited by a tubular wall oriented along a first axis (z), and a support (12, 42, 72) for holding an electrode in position in the collection chamber and for removing an electrode from the collection chamber, characterised in that the support comprises: a guide, passing transversally through the collection chamber, the first and second ends of which are fixed to the wall, the guide comprising a through opening, the longitudinal axis of which is oriented along the first axis, configured to hold the electrode; a first attachment element (22, 52), comprising at least one electrically conducting part that will extend at least partly in the guide, from the first end towards the opening; and a second attachment element (24, 54), comprising at least one electrically insulating part, that can move in translation in the guide from the second end towards the opening and from the opening towards the second end; the second attachment element being capable of moving from a closed position in which the electrode is held in said opening, to an open position in which the electrode is released from said opening. a guide, passing transversally through the collection chamber, the first and second ends of which are fixed to the wall, the guide comprising a through opening, the longitudinal axis of which is oriented along the first axis, configured to hold the electrode; a first attachment element (22, 52), comprising at least one electrically conducting part that will extend at least partly in the guide, from the first end towards the opening; and a second attachment element (24, 54), comprising at least one electrically insulating part, that can move in translation in the guide from the second end towards the opening and from the opening towards the second end; the second attachment element being capable of moving from a closed position in which the electrode is held in said opening, to an open position in which the electrode is released from said opening.
An aqueous dispersion comprising core-shell polymer latex particles wherein the shell of the core-shell polymer latex particles bears ethylenically unsaturated groups pending from the polymeric backbone of the shell of the latex particles wherein the ethylenic unsaturation is separated from the polymeric backbone by at least 3 chemical bonds and wherein the shell of the core-shell particles is cross-linked and the core of the core-shell particles is not crosslinked.
A control device for controlling access to a computer comprising a wake-up interface, said control device being adapted to emit a first signal dedicated to wake-up said computer said computer also comprising a communication interface having an activation input coupled to an activation pin of a connector intended to be mechanically and temporarily coupled to an activation output of a configuration tool, said control device being adapted to emit a second signal dedicated to the activation of said communication interface characterized in that it comprises control means supplying, once interposed between, on the one hand, said activation pin and, on the other hand, said wake-up interface and said activation input of the communication interface, either said wake-up interface with said first signal, or said activation input of the communication interface with said second signal, depending on whether they are placed in a first state or a second state by said configuration tool via said activation pin.
Method of handling laboratory sample containers, the method comprising the steps of: a) moving a laboratory sample container to a target position, wherein the target position is a position at which the laboratory sample container is inserted into a corresponding orifice of a laboratory sample container rack, provided that the laboratory sample container rack is placed at an intended position, wherein the laboratory sample container is prevented from moving horizontally more than a predetermined horizontal distance (Δxy) if inserted into the corresponding orifice of the laboratory sample container rack, characterized by the steps: b) applying a force (Fxy) in an horizontal direction (xy) to the laboratory sample container, c) determining if the laboratory sample container moves in the horizontal direction (xy) more than the predetermined horizontal distance (Δxy), and d) performing an error procedure if it is determined that the laboratory sample container moves in the horizontal direction (xy) more than the predetermined horizontal distance (Δxy). a) moving a laboratory sample container to a target position, wherein the target position is a position at which the laboratory sample container is inserted into a corresponding orifice of a laboratory sample container rack, provided that the laboratory sample container rack is placed at an intended position, wherein the laboratory sample container is prevented from moving horizontally more than a predetermined horizontal distance (Δxy) if inserted into the corresponding orifice of the laboratory sample container rack, b) applying a force (Fxy) in an horizontal direction (xy) to the laboratory sample container, c) determining if the laboratory sample container moves in the horizontal direction (xy) more than the predetermined horizontal distance (Δxy), and d) performing an error procedure if it is determined that the laboratory sample container moves in the horizontal direction (xy) more than the predetermined horizontal distance (Δxy).
A repeater (1, 2,...N) for an optical communication system, the repeater being capable of operatively coupling to an incoming fiber path and an outgoing fiber path relative to a given direction of communication, the repeater comprising: a first amplifier having an input and an output, and for amplifying optical signals; a second amplifier having an input and an output, and for amplifying optical signals; and a first high loss loop back (HLLB) path for coupling the output of the first amplifier to the input of the second amplifier, the first HLLB path being configured to couple an outgoing optical time domain reflectometry (OTDR) test signal from a first line monitoring equipment (LME 1) and reflected from the outgoing fiber path from the output of the first amplifier to the input of the second amplifier and to the incoming fiber path in an incoming direction, characterised in that the first HLLB path is further configured to: couple an incoming OTDR test signal from the first LME (LME 1) from the output of the first amplifier to the input of the second amplifier and to the incoming fiber path in an outgoing direction; and couple a loopback test signal from the first LME (LME 1) from the output of the first amplifier to the input of the second amplifier and to the incoming fiber path in an incoming direction. a first amplifier having an input and an output, and for amplifying optical signals; a second amplifier having an input and an output, and for amplifying optical signals; and a first high loss loop back (HLLB) path for coupling the output of the first amplifier to the input of the second amplifier, the first HLLB path being configured to couple an outgoing optical time domain reflectometry (OTDR) test signal from a first line monitoring equipment (LME 1) and reflected from the outgoing fiber path from the output of the first amplifier to the input of the second amplifier and to the incoming fiber path in an incoming direction, characterised in that the first HLLB path is further configured to: couple an incoming OTDR test signal from the first LME (LME 1) from the output of the first amplifier to the input of the second amplifier and to the incoming fiber path in an outgoing direction; and couple a loopback test signal from the first LME (LME 1) from the output of the first amplifier to the input of the second amplifier and to the incoming fiber path in an incoming direction. couple an incoming OTDR test signal from the first LME (LME 1) from the output of the first amplifier to the input of the second amplifier and to the incoming fiber path in an outgoing direction; and couple a loopback test signal from the first LME (LME 1) from the output of the first amplifier to the input of the second amplifier and to the incoming fiber path in an incoming direction.
An apparatus for deploying stowed control surfaces of an object, said apparatus comprising: a first and second gas chambers (22, 32); a first hot gas generator for discharging a surge of hot gas into said first gas chambers; a piston wedge, in response to said surge of hot gas being discharged into said first gas chamber, displaces at least one of a plurality of control surfaces to break an environmental seal covering said object; a second hot gas generator for discharging a surge of hot gas into said second gas chamber; and means for translating linear motion to rotation motion, in response to said surge of hot gas being discharged into said second gas chamber, forces said plurality of control surfaces to deploy completely. a first and second gas chambers (22, 32); a first hot gas generator for discharging a surge of hot gas into said first gas chambers; a piston wedge, in response to said surge of hot gas being discharged into said first gas chamber, displaces at least one of a plurality of control surfaces to break an environmental seal covering said object; a second hot gas generator for discharging a surge of hot gas into said second gas chamber; and means for translating linear motion to rotation motion, in response to said surge of hot gas being discharged into said second gas chamber, forces said plurality of control surfaces to deploy completely.
A method performed by a terminal for transmitting a channel state information, CSI, report in a wireless communication system, the method comprising: receiving, from a base station, information on an uplink subcarrier space size and information on a downlink subcarrier space size; identifying a CSI reference resource in a first downlink slot which precedes a second downlink slot by a time offset, wherein the second downlink slot corresponds to an uplink slot for a CSI reporting; receiving, from the base station, a CSI reference signal, CSI-RS, on the identified CSI reference resource; and transmitting, to the base station on a physical uplink control channel, PUCCH, the CSI report for the received CSI-RS in the uplink slot based on the uplink subcarrier space size, wherein the time offset is a smallest value greater than or equal to a positive integer identified based on the downlink subcarrier space size, in case that the CSI reporting is a periodic CSI reporting. receiving, from a base station, information on an uplink subcarrier space size and information on a downlink subcarrier space size; identifying a CSI reference resource in a first downlink slot which precedes a second downlink slot by a time offset, wherein the second downlink slot corresponds to an uplink slot for a CSI reporting; receiving, from the base station, a CSI reference signal, CSI-RS, on the identified CSI reference resource; and transmitting, to the base station on a physical uplink control channel, PUCCH, the CSI report for the received CSI-RS in the uplink slot based on the uplink subcarrier space size, wherein the time offset is a smallest value greater than or equal to a positive integer identified based on the downlink subcarrier space size, in case that the CSI reporting is a periodic CSI reporting.
A method of determining the state of health of a battery cell, implemented by an electronic diagnosis device, comprising the steps of: a) controlling the recharge of the cell according to a CC-CV recharge method, comprising a phase CC of cell recharge at constant current, followed by a phase CV of cell recharge at constant voltage; and b) during phase CV, measuring the recharge current I1 in the cell at a first time, and measuring the recharge current 12 in the cell at a second time subsequent to the first time, characterized in that, at step b), the charge variation ΔQ of the cell between the first and second times is measured, and in that it further comprises the steps of: c) calculating a coefficient α representative of ratio ΔQ/(I2-I1); and d) determining a value SOH representative of the state of health of the cell by taking into account coefficient α. a) controlling the recharge of the cell according to a CC-CV recharge method, comprising a phase CC of cell recharge at constant current, followed by a phase CV of cell recharge at constant voltage; and b) during phase CV, measuring the recharge current I1 in the cell at a first time, and measuring the recharge current 12 in the cell at a second time subsequent to the first time, c) calculating a coefficient α representative of ratio ΔQ/(I2-I1); and d) determining a value SOH representative of the state of health of the cell by taking into account coefficient α.
A genetically modified chrysanthemum plant exhibiting altered inflorescence, said chrysanthemum comprising expressed genetic material encoding a flavonoid 3',5' hydroxylase (F3'5'H) enzyme operably linked to a selected promoter and terminator, wherein: (a) the F3'5'H enzyme is encoded by SEQ ID NO: 1, or a nucleotide sequence capable of hybridizing to a complementary form of SEQ ID NO: 1 under high stringency conditions, and the promoter is from an anthocyanidin synthase gene; or (b) the F3'5'H enzyme is encoded by SEQ ID NO: 12, or a nucleotide sequence capable of hybridizing to a complementary form of SEQ ID NO: 12 under high stringency conditions, and the promoter is from a F3'5'H gene derived from Cineraria. (a) the F3'5'H enzyme is encoded by SEQ ID NO: 1, or a nucleotide sequence capable of hybridizing to a complementary form of SEQ ID NO: 1 under high stringency conditions, and the promoter is from an anthocyanidin synthase gene; or (b) the F3'5'H enzyme is encoded by SEQ ID NO: 12, or a nucleotide sequence capable of hybridizing to a complementary form of SEQ ID NO: 12 under high stringency conditions, and the promoter is from a F3'5'H gene derived from Cineraria.
A wafer processing laminate consisting of a support, a temporary adhesive material layer formed thereon and a wafer laminated on the temporary adhesive material layer, where the wafer has a circuit-forming front surface and a back surface to be processed, wherein the temporary adhesive material layer is a three-layered structure composite temporary adhesive material layer consisting of a first temporary adhesive layer of a non-silicone thermoplastic resin layer releasably adhered on a surface of the wafer, a second temporary adhesive layer of a thermoplastic siloxane resin polymer layer laminated on the first temporary adhesive layer, and a third temporary adhesive layer of a thermosetting modified siloxane polymer layer laminated on the second temporary adhesive layer and releasably adhered to the support, and wherein the thermoplastic siloxane resin polymer layer is a material in which an organopolysiloxane resin containing an R 21 R 22 R 23 SiO 1/2 unit, where R 21, R 22 and R 23 each represent an unsubstituted or substituted monovalent hydrocarbon group having 1 to 10 carbon atoms or a hydroxyl group, and a SiO 4/2 unit, with a molar ratio of the R 21 R 22 R 23 SiO 1/2 unit/SiO 4/2 unit of 0.6 to 1.7, and an organopolysiloxane represented by the following formula are partially subjected to dehydration condensation, the ratio of the organopolysiloxane and the organopolysiloxane resin to be subjected to dehydration condensation being 99:1 to 50:50, and the weight average molecular weight of the thermoplastic siloxane resin polymer is 200,000 to 1,500,000, wherein R 11 and R 12 are each unsubstituted or substituted monovalent hydrocarbon group having 1 to 10 carbon atoms, and "n" represents 5,000 to 10,000.
A method for laying pipes (9, 10) and/or lines in installation areas that lie in pipe trenches, to include mechanically unstable ground, wherein, a) in installation areas lying partially or completely underwater, wherein before the pipes (8, 9) are introduced into the installation areas, the pipes (8, 9), or b) in installation areas lying completely underwater, the mechanical laying equipment used to position the pipes, or c) in installation areas lying partially or completely underwater, wherein before the pipes (8, 9) are introduced into the installation areas, the pipes (8, 9) and the mechanical laying equipment used to position the pipes have arranged on them one or more alignment attachments for generating a respective at least one measuring line that runs over the water surface, and the mechanical laying equipment is used to acquire the pipes (9, 10) at a constant accuracy and position them in their installation position, wherein the alignment attachments protrude over the water surface, and indicate the position of the pipe in the trench in relation to the next, already fixed pipe and its pipe axis, wherein the pipes are aligned in their gradient and height owing to the alignment of the at least one measuring line of the alignment attachments, and are fixed in their final installation position, after which the trench is filled with a flowable backfill materials. a) in installation areas lying partially or completely underwater, wherein before the pipes (8, 9) are introduced into the installation areas, the pipes (8, 9), or b) in installation areas lying completely underwater, the mechanical laying equipment used to position the pipes, or c) in installation areas lying partially or completely underwater, wherein before the pipes (8, 9) are introduced into the installation areas, the pipes (8, 9) and the mechanical laying equipment used to position the pipes
Method of welding of at least two metal-based materials, non-weldable directly to each other with resistance welding, characterized in that at least one spacer (6,12,32) is made of a metal filler material which is calculated and chosen with the Schaeffler diagram, and in a first process step is joined using arc, plasma, plasma arc, gas metal arc, beam, laser beam or electron beam welding to at least one of the two surfaces of a material (5,11,31) in every interstice between two surfaces of the materials to be welded, and in a second step the welded spacer (6,12,32) is utilized so that resistance welding is focused to the surface of the material (5,11,31) with the spacer (6,12,32) to melt at least one spacer (6,12,32) located in the heat affected zone in order to achieve a weld between the metal-based materials (5,11,31; 7,13,35); whereby a gap defined by the spacer (6, 12, 32) is achieved between the welded materials, and wherein the proportion of diameter to height in the spacer is at least five.
A radial turbine comprising a vortex-shaped turbine scroll formed inside a turbine casing; and turbine blades of a turbine rotor positioned inside said turbine scroll such that, in operation, an operating gas enters said turbine scroll at an inlet, flows along a swirl of said turbine scroll which causes it to rotate as it flows in from an opening at the outside circumference of said turbine blades toward said turbine blades in the radial direction toward a center of said turbine rotor to rotate said turbine rotor before flowing out in the axial direction, wherein said turbine scroll has a radial outer circumferential wall, a radial inner circumferential wall, and axial side walls, wherein said axial side walls define an axial width in each cross section of a flow path of said turbine scroll in the direction of the axis of rotation of the turbine rotor that includes the axis of rotation, wherein said axial width of said turbine scroll expands at a fixed rate from the axial width (B 1) at radial outside circumferential edges between the axial side walls and the radial outer circumferential wall toward the axial width (B 2) at radial inside circumferential edges between the axial side walls and the radial inner circumferential wall, and wherein said axial width of said turbine scroll is formed so that the axial width (B 2) at the radial inside circumferential edges is 1.2 to 1.5 times the axial width (B 1) at the radial outside circumferential edges.
An isolated fetal porcine alveolar macrophage cell capable of reproducing PRRS virus, wherein the cell is ZMAC-1, a deposit with the American Type Culture Collection designated as ATCC Patent Deposit No. PTA-8764 or derived therefrom, or an immortalized cell variant or derivative of said cell, wherein said cell derived therefrom, variant or derivative is capable of reproducing PRRS virus.
A silica-based material comprising: silicon; aluminum; at least one fourth period element selected from the group consisting of iron, cobalt, nickel and zinc; and at least one basic element selected from the group consisting of alkali metal elements, alkali earth metal elements and rare earth elements, wherein the silica-based material comprises 42 to 90 mol% of the silicon, 3 to 38 mol% of the aluminum, 0.5 to 20 mol% of the fourth period element and 2 to 38 mol% of the basic element, based on a total mole of the silicon, the aluminum, the fourth period element and the basic element; and wherein the distribution range of measured values of the fourth period element is within 10 %, determined by observing the cross-section of the silica-based material is observed by electron probe microanalysis (EPMA). silicon; aluminum; at least one fourth period element selected from the group consisting of iron, cobalt, nickel and zinc; and at least one basic element selected from the group consisting of alkali metal elements, alkali earth metal elements and rare earth elements, wherein the silica-based material comprises 42 to 90 mol% of the silicon, 3 to 38 mol% of the aluminum, 0.5 to 20 mol% of the fourth period element and 2 to 38 mol% of the basic element, based on a total mole of the silicon, the aluminum, the fourth period element and the basic element; and wherein the distribution range of measured values of the fourth period element is within 10 %, determined by observing the cross-section of the silica-based material is observed by electron probe microanalysis (EPMA).