mhurhangee/ep-ind-claims huggingface dataset:
Connecting bearing for elastically fastening a driver cabin to the frame of a vibration roller, wherein the connecting bearing comprises a first and a second fastening device, wherein the fastening devices are coupled mechanically through an elastomer, which is configured as a vibration insulation, wherein the first fastening device is configured as a receiver bushing running centrally in longitudinal direction through the elastomer, and the second fastening device is configured as a clamping collar arranged essentially perpendicular to the receiver bushing, wherein an inner area of the clamping collar is arranged in the elastomer and an outer area of the clamping collar projects outside the elastomer, and wherein in the lower area of the elastomer a radial ring-cylindrical recess is provided, which is essentially parallel to the receiver bushing and extends to a predetermined height of the connecting bearing, characterized in that the height of the radial ring-cylindrical recess in the elastomer significantly projects beyond the area of the clamping collar, but is below the total height of the connecting bearing, and that spring rigidity parameters in longitudinal direction are two to four times higher than spring rigidity parameters vertical to the longitudinal direction.
Method for indirect determination of the waste gas rate in metallurgical processes relating to the treatment of liquid steel, wherein initially helium is added as reference gas to the waste gas and in particular at an instant which in terms of flow lies so far in advance of sampling that a thorough intermixing of the reference gas and waste gas takes place, thus quasi a homogenous distribution is achieved, and that then a quantitative helium and nitrogen analysis of the waste gas, measured by a mass spectrometer, is carried out with consideration of the added amount of helium and characterised in that the waste gas rate is determined in accordance with the formula: Q w = 1 He - He Air ⁢ N 2 N 2 ⁢ Air ⁢ Q HeB
Cooling device with liquid for electronic cards, in particular for high-performance processing units, comprising at least a hydraulic circuit in which a heat-carrying fluid flows in order to extract the heat produced by the electronic components and/or by the hot spots present on a printed circuit board of at least one associated electronic card, whereby it comprises a cooling plate made of heat conductive material, and provided with means for mechanical coupling to said electronic card so as to be inserted together therewith in a containing rack for electronic cards of said processing unit, wherein said cooling plate has at least a heat extraction surface directly facing toward the printed circuit board on which said electronic components and/or said hot spots are present and at least partly in contact with, or at least in close proximity, in the order of tenths of a millimeter, to said electronic components and/or said hot spots, said hydraulic circuit being made in the thickness of said cooling plate and comprising a plurality of hydraulic sub-circuits, whereby said cooling plate has sliding guide means able to cooperate with corresponding alignment means of the containing rack in order to insert/ extract the combined plate /card into/from the rack, characterized in that said hydraulic circuit comprises switching/deflector means consisting of plugs disposed along at least part of said hydraulic sub-circuits in order to define desired paths which can be selectively varied by switching the flow of the fluid in correspondence with the main electronic components and/or with the hot spots of said electronic card.
A reaction condition composition for replication of a first genomic variation with hybridization and ligation of a circularizing oligonucleotide probe, said composition comprising: a DNA ligase from 1 to 5 units, wherein one unit of DNA ligase is equal to the amount of DNA ligase required to convert 1 nanomole of 32P-labelled inorganic pyrophosphate into Norit adsorbable material in 20 minutes at 37 degrees Celsius; a DNA polymerase from 0.2 to 2.5 units, wherein one unit of DNA polymerase is equal to the amount of DNA polymerase required to convert 15 nanomoles of dNTP into acid insoluble material in 30 minutes at 75 degrees Celsius; at least one circularizing oligonucleotide probe having a final concentration from 0.0125 to 0.3 micromolar, wherein the at least one circularizing oligonucleotide probe is specific to the first genomic variation; a deoxyribonucleic acid buffer capable of maintaining a pH from 7 to 9; NAD+ having a final concentration from 0.1 to 1.4 millimolar; at least two primers having a final concentration from 0.1 to 0.5 micromolar, wherein the at least two primers are specific to a first replication sequence; and deoxynucleotide triphosphates having a final contraction from 0.1 to 0.2 millimolar. a DNA ligase from 1 to 5 units, wherein one unit of DNA ligase is equal to the amount of DNA ligase required to convert 1 nanomole of 32P-labelled inorganic pyrophosphate into Norit adsorbable material in 20 minutes at 37 degrees Celsius; a DNA polymerase from 0.2 to 2.5 units, wherein one unit of DNA polymerase is equal to the amount of DNA polymerase required to convert 15 nanomoles of dNTP into acid insoluble material in 30 minutes at 75 degrees Celsius; at least one circularizing oligonucleotide probe having a final concentration from 0.0125 to 0.3 micromolar, wherein the at least one circularizing oligonucleotide probe is specific to the first genomic variation; a deoxyribonucleic acid buffer capable of maintaining a pH from 7 to 9; NAD+ having a final concentration from 0.1 to 1.4 millimolar; at least two primers having a final concentration from 0.1 to 0.5 micromolar, wherein the at least two primers are specific to a first replication sequence; and deoxynucleotide triphosphates having a final contraction from 0.1 to 0.2 millimolar.
Milling head comprising a base body, through which passes a transverse centre plane, and two end milling cutters (6, 8) arranged parallel to one another, the end milling cutters (6, 8) being configured for cutting processing of workpieces and each comprising at least one axis of rotation and at least one cutter carrier with at least one cutting edge, wherein the milling head additionally comprises at least one finger cutter (14, 16) through which the at least one axis of rotation passes and which is rotatable about the at least one axis of rotation, characterised in that at least the one finger cutter (14, 16) is adjustable by means of an adjustment means along the axis of rotation at least between an extended milling position and a retracted rest position.
A collagen hydrogel which comprises a 3D fibrillar structure with micropores obtainable by a process comprising the following steps: a) providing an acidic mass of native Type I collagen fibers dispersed in water in a concentration comprised between 1-15% in weight; b) neutralizing the acidic mass to adjust the pH to physiological pH; and c) applying beta radiation to the neutralized mass of step b) in a range of up to 50 KGy; wherein: - the acidic mas has a pH comprised between 0.5-5; - the acidic mass comprises fibers, wherein at least 90% of the total mass of the fibers have a length comprised in a range from 10 μm to 2500 μm and a fiber diameter comprised in a range from 5 to 80 μm measured at a pH between 1 and 2; and wherein the median of the fiber length in the total mass of fibers of collagen is comprised between 100 and 900 μm. a) providing an acidic mass of native Type I collagen fibers dispersed in water in a concentration comprised between 1-15% in weight; b) neutralizing the acidic mass to adjust the pH to physiological pH; and c) applying beta radiation to the neutralized mass of step b) in a range of up to 50 KGy; - the acidic mas has a pH comprised between 0.5-5; - the acidic mass comprises fibers, wherein at least 90% of the total mass of the fibers have a length comprised in a range from 10 μm to 2500 μm and a fiber diameter comprised in a range from 5 to 80 μm measured at a pH between 1 and 2; and
A method of enhancing the performance of an asphaltene inhibitor during production, storage, transportation or refining of a petroleum hydrocarbon fluid, the method comprising contacting the asphaltene inhibitor with an ionic liquid during a production or refining operation or prior to or during storage or transportation of the petroleum hydrocarbon fluid, wherein the ionic liquid has a cation of R 1 R 2 R 3 R 4 N + or R 1 R 2 R 3 N + R 8 N + R 5 R 6 R 7 and an anion, wherein R 1, R 2, R 3, R 4, R 5, R 6 and R 7 are independently selected from hydrogen, a straight or branched C 1-30 alkyl group, benzyl, a C 7-30 alkylbenzyl group, a C 7-30 arylalkyl group, a straight or branched C 3-30 alkenyl group, a C 1-30 hydroxyalkyl group, a C 7-30 hydroxyalkylbenzyl group, an oxyalkylene or a polyoxyalkylene group or a zwitterion; R 8 is a straight or branched C 1-30 alkylene, an alkylene oxyalkylene or an alkylene polyoxyalkylene; and the anion comprises halides, hydroxyl, bicarbonate, carbonate, alkyl carbonates, alkoxides, carboxylates, hydroxycarboxylates or a combination thereof.
Locking arrangement having a lock cylinder and a matching key, wherein the key having a flat key bit with a narrow spine, two broad sides which run substantially parallel to one another, and coding notches (6a to 6f) on the front formed on peripheral edge running obliquely to an apex, which is opposite the spine, at coding positions (a to f) on the key bit; the lock cylinder having a cylinder housing, a cylinder core which is mounted in a bearing hole in the cylinder housing and has a keyway for insertion of the key bit, tumblers which are located in core pin holes, interact with the coding notches (6a to 6f) on the key bit, and are disposed at coding positions on the cylinder, said coding positions coinciding with coding positions (a to f) on the key bit when the locking bit is inserted as far as a stop in the keyway, and a sensing member which is located in a supplementary core hole that extends transversely relative to the core pin holes and senses a sensing point on a broad side of the key, the spacing (t), from the spine, of the sensing point on a broad side of the key being greater than the spacing (s), from the spine, of the apex of the coding notch, whereby the supplementary core hole is located between two immediately adjacent core holes and the sensing member has a tip by means of which the sensing point on a broad side of the key situated between two immediately adjacent coding positions (6b, 6c) is sensed, characterized in that the sensing point being situated close to a peripheral edge of a coding notch which is cut-in to a lesser extent than the coding notch that is cut-in to the deepest extent in such a way that deepening by grinding or milling, of the coding notch which is cut-in to a lesser extent, to the depth of the coding notch that is cut-in to the deepest extent leads to disappearance of the sensing point, so that the sensing member sensing the sensing point is not held in a proper position by a portion of the key width side.
A flame-retardant resin composition comprising as a resin component components and: at least one of polyethylene and an ethylene-α olefin copolymer each having a density of 0.900 to 0.940g/cm 3: 70 to 98% by mass based on the total amount of the resin component; and a polyolefin resin modified with an unsaturated carboxylic acid: 2 to 30% by mass based on the total amount of the resin component, wherein the flame-retardant resin composition contains: 95 to 220 parts by mass of magnesium hydroxide; 15 to 100 parts by mass of aluminum hydroxide; and 2 to 15 parts by mass of (c) a silicone-based lubricant based on 100 parts by mass of the resin component. at least one of polyethylene and an ethylene-α olefin copolymer each having a density of 0.900 to 0.940g/cm 3: 70 to 98% by mass based on the total amount of the resin component; and a polyolefin resin modified with an unsaturated carboxylic acid: 2 to 30% by mass based on the total amount of the resin component, wherein the flame-retardant resin composition contains: 95 to 220 parts by mass of magnesium hydroxide; 15 to 100 parts by mass of aluminum hydroxide; and 2 to 15 parts by mass of (c) a silicone-based lubricant based on 100 parts by mass of the resin component. 95 to 220 parts by mass of magnesium hydroxide; 15 to 100 parts by mass of aluminum hydroxide; and 2 to 15 parts by mass of (c) a silicone-based lubricant based on 100 parts by mass of the resin component.
Check valve, comprising: a housing having a main body, which has an inlet opening, a valve body, which has a passage having an outlet opening and which is at least partly arranged in the main body, a valve element, which is at least partly arranged in the valve body for axial movement relative to the valve body and which has a through-opening, a valve member, which is arranged in the valve body between the outlet opening and the valve element and has a sealing element and a valve stem, which is axially movable relative to the valve body, a preloading element, which is designed to preload the valve member toward the valve element with a preload force, wherein the check valve also comprises: a further preloading element, which is designed to preload the valve element toward the valve member with a further preload force, and/or another preloading element, which is designed to preload the valve body toward the inlet opening with another preload force, wherein the valve element comprises a sealing seat, which surrounds the through-opening and faces the sealing element, and in a closed position of the check valve the sealing element abuts the sealing seat and closes the through-opening, characterized in that the valve body is axially movable relative to the main body. a housing having a main body, which has an inlet opening, a valve body, which has a passage having an outlet opening and which is at least partly arranged in the main body, a valve element, which is at least partly arranged in the valve body for axial movement relative to the valve body and which has a through-opening, a valve member, which is arranged in the valve body between the outlet opening and the valve element and has a sealing element and a valve stem, which is axially movable relative to the valve body, a preloading element, which is designed to preload the valve member toward the valve element with a preload force, wherein the check valve also comprises: a further preloading element, which is designed to preload the valve element toward the valve member with a further preload force, and/or another preloading element, which is designed to preload the valve body toward the inlet opening with another preload force, wherein the valve element comprises a sealing seat, which surrounds the through-opening and faces the sealing element, and in a closed position of the check valve the sealing element abuts the sealing seat and closes the through-opening, characterized in that the valve body is axially movable relative to the main body. a further preloading element, which is designed to preload the valve element toward the valve member with a further preload force, and/or another preloading element, which is designed to preload the valve body toward the inlet opening with another preload force, wherein the valve element comprises a sealing seat, which surrounds the through-opening and faces the sealing element, and in a closed position of the check valve the sealing element abuts the sealing seat and closes the through-opening, characterized in that the valve body is axially movable relative to the main body.
Compression item, which may be pulled over a joint and is made from an elastic basic knitted fabric, in which the basic knitted fabric has at least a knitted insert for the bend on the inside of the joint and the basic knitted fabric and the insert are made using at least an elastic knitting thread (S1, S2, P, S1H, S2H, S1V, S2V) and an elastic weft thread, characterised in that the insert is knitted double layered and exercises the same compression pressure on the body of the wearer of the item as the basic knitted fabric, in which the basic knitted fabric and the at least one insert are knitted with the same elastic weft threads.
A liquid, polymer-containing coating material, comprising an amphiphilic polymer dissolved in a volatile solvent, said amphiphilic polymer comprising 10 to 90 weight % of at least one addition polymerizable siloxysilane-containing monomer and 10 to 90 weight % of at least one addition polymerizable hydroxyalkyl ester-containing monomer.
Multiple-piece spring link for a wheel suspension system of a vehicle, having: a first profiled side part which forms a first side limb of the multiple-piece spring link, the first profiled side part having a first protuberance; a second profiled side part which forms a second side limb of the multiple-piece spring link, the second profiled side part having a second protuberance; the first protuberance and the second protuberance being arranged opposite one another and forming a spring receiving region for receiving a spring, characterized in that the first profiled side part and the second profiled side part are single-piece profiled side parts, the first profiled side part and the second profiled side part being extruded profiled side parts. a first profiled side part which forms a first side limb of the multiple-piece spring link, the first profiled side part having a first protuberance; a second profiled side part which forms a second side limb of the multiple-piece spring link, the second profiled side part having a second protuberance; the first protuberance and the second protuberance being arranged opposite one another and forming a spring receiving region for receiving a spring, characterized in that the first profiled side part and the second profiled side part are single-piece profiled side parts, the first profiled side part and the second profiled side part being extruded profiled side parts.
A method for forming a photovoltaic cell comprising the following steps: a) forming a structuration pattern, including at least two cavities and at least one pillar, from the surface of a semiconductor substrate (11, 41); b) forming from the surface of the substrate a doped area (21, 51) according to the type of conductivity opposite to that of the substrate, so that the pillar is entirely formed with said doped area; c) forming a buffer layer (25, 55) at the bottom of at least one cavity; d) forming a conductive contact (27, 57) with the doped area located in the pillar, by screen-printing deposition into said at least one cavity on the buffer layer and heat treatment for resuming contact. a) forming a structuration pattern, including at least two cavities and at least one pillar, from the surface of a semiconductor substrate (11, 41); b) forming from the surface of the substrate a doped area (21, 51) according to the type of conductivity opposite to that of the substrate, so that the pillar is entirely formed with said doped area; c) forming a buffer layer (25, 55) at the bottom of at least one cavity; d) forming a conductive contact (27, 57) with the doped area located in the pillar, by screen-printing deposition into said at least one cavity on the buffer layer and heat treatment for resuming contact.
A portable spreader apparatus for storing and scattering granules, in particular pourable and flowable granular loose material, which contains a closable container and a hand piece connected to the container for scattering the granules, wherein a lever is pivotably held on the exterior of the hand piece, which is connected via a valve rod to a valve head of a valve, and the hand piece, in the connecting region of the container, comprises a lock chamber for regulating the flow rate, and the hand piece is shaped in the front end into a distributor, wherein the valve is arranged in the lock chamber and can be actuated via the lever, characterized in that the connection between the hand piece and the container occurs by way of an interlocking connection of a cylindrical sleeve inserted into the hand piece, and the sleeve is bevelled at the end situated in the hand piece, wherein the obliquely extending edge of the sleeve forms a valve seat.
A loading system comprising: an adjunct loading member; at least one adjunct material (606, 806, 816, 906) configured to be transferred from the adjunct loading member (600, 700, 900) to a tissue-facing surface of a jaw of first and second jaws (602, 802, 804) of an end effector, the first and second jaws being configured to clamp tissue therebetween, the adjunct material comprising an opening, the adjunct loading member comprising a supporting member (620, 920) configured to releasably retain the adjunct material, the supporting member comprising a reservoir (614, 824, 924) releasably holding an adhesive (616, 827, 924), the reservoir disposed adjacent the opening, the reservoir configured to release the adhesive when a load is applied to the adjunct loading member; the opening being configured to receive the adhesive when the adhesive is released from the reservoir and to allow the adhesive to transfer through the opening and onto the tissue-facing surface of the jaw, the adhesive configured to transition from a non-cured state, in which the adhesive is substantially liquid, to a cured state, in which the adhesive is at least partially non-liquid, upon the application of at least one of ultra violet light and infrared radiation, when the adjunct material is released from the adjunct loading member and transferred to the jaw, to retain the adjunct material on the jaw, the loading system further comprising a radiation applicator (603, 808, 908) configured to apply the at least one of ultra violet light and infrared radiation to the adhesive. an adjunct loading member; at least one adjunct material (606, 806, 816, 906) configured to be transferred from the adjunct loading member (600, 700, 900) to a tissue-facing surface of a jaw of first and second jaws (602, 802, 804) of an end effector, the first and second jaws being configured to clamp tissue therebetween, the adjunct material comprising an opening, the adjunct loading member comprising a supporting member (620, 920) configured to releasably retain the adjunct material, the supporting member comprising a reservoir (614, 824, 924) releasably holding an adhesive (616, 827, 924), the reservoir disposed adjacent the opening, the reservoir configured to release the adhesive when a load is applied to the adjunct loading member; the opening being configured to receive the adhesive when the adhesive is released from the reservoir and to allow the adhesive to transfer through the opening and onto the tissue-facing surface of the jaw, the adhesive configured to transition from a non-cured state, in which the adhesive is substantially liquid, to a cured state, in which the adhesive is at least partially non-liquid, upon the application of at least one of ultra violet light and infrared radiation, when the adjunct material is released from the adjunct loading member and transferred to the jaw, to retain the adjunct material on the jaw, the loading system further comprising a radiation applicator (603, 808, 908) configured to apply the at least one of ultra violet light and infrared radiation to the adhesive.
A compound having the following formula: wherein R is an alkane chain having between 8 and 20 carbon atoms, and A is one or more anions having a total charge of -2; or R is a quaternary amine having the following formula: wherein R a and R b are each an alkane chain having between 8 and 20 carbon atoms, and A is one or more anions having a total charge of -3. or R is a quaternary amine having the following formula: wherein R a and R b are each an alkane chain having between 8 and 20 carbon atoms, and A is one or more anions having a total charge of -3.