mhurhangee/ep-ind-claims huggingface dataset:
A method of making a glycoconjugate comprising a saccharide conjugated to a carrier protein through a (2-((2-oxoethyl)thio)ethyl)carbamate (eTEC) spacer, comprising the steps of: a) reacting a saccharide with 1,1'-carbonyl-di-(1,2,4-triazole) or 1,1'-carbonyldiimidazole, in an organic solvent to produce an activated saccharide; b) reacting the activated saccharide with cystamine or cysteamine or a salt thereof, to produce a thiolated saccharide; c) reacting the thiolated saccharide with a reducing agent to produce an activated thiolated saccharide comprising one or more free sulfhydryl residues; d) reacting the activated thiolated saccharide with an activated carrier protein comprising one or more α-haloacetamide groups, to produce a thiolated saccharide-carrier protein conjugate; and e) reacting the thiolated saccharide-carrier protein conjugate with (i) a first capping reagent capable of capping unconjugated α-haloacetamide groups of the activated carrier protein; and/or (ii) a second capping reagent capable of capping unconjugated free sulfhydryl residues; whereby an eTEC linked glycoconjugate is produced. a) reacting a saccharide with 1,1'-carbonyl-di-(1,2,4-triazole) or 1,1'-carbonyldiimidazole, in an organic solvent to produce an activated saccharide; b) reacting the activated saccharide with cystamine or cysteamine or a salt thereof, to produce a thiolated saccharide; c) reacting the thiolated saccharide with a reducing agent to produce an activated thiolated saccharide comprising one or more free sulfhydryl residues; d) reacting the activated thiolated saccharide with an activated carrier protein comprising one or more α-haloacetamide groups, to produce a thiolated saccharide-carrier protein conjugate; and e) reacting the thiolated saccharide-carrier protein conjugate with (i) a first capping reagent capable of capping unconjugated α-haloacetamide groups of the activated carrier protein; and/or (ii) a second capping reagent capable of capping unconjugated free sulfhydryl residues;
Power sourcing equipment, comprising a power sourcing equipment chip, a master control unit, and a power supplying port, and further comprising a preprocessing unit, wherein the preprocessing unit is configured to: determine whether the master control unit starts upon power-on (701,801); if the master control unit starts upon power-on, control the power sourcing equipment chip to detect whether the power supplying port is connected to a valid powered device (702,802); and when determining that the power supplying port is connected to the valid powered device, control, according to a preset rule, the power sourcing equipment chip to power on the valid powered device (703,803). determine whether the master control unit starts upon power-on (701,801); if the master control unit starts upon power-on, control the power sourcing equipment chip to detect whether the power supplying port is connected to a valid powered device (702,802); and when determining that the power supplying port is connected to the valid powered device, control, according to a preset rule, the power sourcing equipment chip to power on the valid powered device (703,803).
Method for detecting at least one specific microorganism in a sample, wherein at least one probe nucleic acid sequence is capable of hybridizing with at least one target nucleic acid sequence of said microorganism, said probe nucleic acid sequence comprising at least one detectable label which is capable of emitting at least one detectable signal, wherein the detectable signal takes a first value when the probe sequence is not bound to the target sequence and a second value when the probe sequence is bound to the target sequence, wherein the second value of the detectable signal is decreased, increased or changed compared to the first value of the detectable signal, said method comprising: a) in a provided sample suspected to include the microorganism; b) perforating or lysing microorganisms within the sample; c) adding the probe nucleic acid sequence to the sample under conditions which allow in-vitro hybridization of the probe sequence with the target sequence, wherein said conditions comprise heating the sample at least temporarily to a predetermined temperature above room temperature and then cooling the sample to a lower temperature; d) continuously measuring values of the detectable signal for the probe nucleic acid sequence in the sample at a plurality of measuring points in time along the course of the signal-generating reaction, comprising measuring values of the detectable signal during and/or after heating and during and/or after cooling; and e) continuously analyzing the measured values of the detectable signal of the probe nucleic acid sequence, wherein it is indicated that the sample contains the microorganism if the measured values correspond to the second value of the detectable signal. a) in a provided sample suspected to include the microorganism; b) perforating or lysing microorganisms within the sample; c) adding the probe nucleic acid sequence to the sample under conditions which allow in-vitro hybridization of the probe sequence with the target sequence, wherein said conditions comprise heating the sample at least temporarily to a predetermined temperature above room temperature and then cooling the sample to a lower temperature; d) continuously measuring values of the detectable signal for the probe nucleic acid sequence in the sample at a plurality of measuring points in time along the course of the signal-generating reaction, comprising measuring values of the detectable signal during and/or after heating and during and/or after cooling; and e) continuously analyzing the measured values of the detectable signal of the probe nucleic acid sequence, wherein it is indicated that the sample contains the microorganism if the measured values correspond to the second value of the detectable signal.
Computer-operated method for analysing personal accident data of one or more vehicle occupants, wherein the personal accident data comprises at least image data of a video sequence of the vehicle occupant during an accident, wherein the method comprises a first step of recognising a pattern (M(x)) using the image data, and comprises a second step of comparing the recognised pattern (M(x)) with a number of previously stored patterns (M...M(n)), wherein this recognised pattern (M(x)) comprises a motion sequence of the vehicle passenger during the accident, characterised in that the recognised pattern and the previously stored pattern comprise a temporal sequence of acceleration processes of a head and/or a neck and/or a thorax and/or a torso and/or extremities of the vehicle passenger, and/or a temporal sequence of deviations of a head and/or a neck and/or a torso and/or a thorax and/or extremities of the vehicle passenger, wherein medical diagnostic data (D...D(p)) is allocated respectively to the previously stored patterns (M...M(n)), and the method further comprises a third step of issuing medical diagnostic data (D(j)) that is allocated to the recognised pattern (M(j)). the personal accident data comprises at least image data of a video sequence of the vehicle occupant during an accident, wherein the method comprises a first step of recognising a pattern (M(x)) using the image data, and comprises a second step of comparing the recognised pattern (M(x)) with a number of previously stored patterns (M...M(n)), wherein this recognised pattern (M(x)) comprises a motion sequence of the vehicle passenger during the accident, characterised in that the recognised pattern and the previously stored pattern comprise a temporal sequence of acceleration processes of a head and/or a neck and/or a thorax and/or a torso and/or extremities of the vehicle passenger, and/or a temporal sequence of deviations of a head and/or a neck and/or a torso and/or a thorax and/or extremities of the vehicle passenger, wherein medical diagnostic data (D...D(p)) is allocated respectively to the previously stored patterns (M...M(n)), and the method further comprises a third step of issuing medical diagnostic data (D(j)) that is allocated to the recognised pattern (M(j)).
Method for manufacturing a carpet tile wherein the combination of the yarns and the substrate has a light reflectance above 30 according to the 2008 report BS8493 from the British Standards Institution, comprising: - tufting white based or solution dyed based yarns onto a light coloured or white PET and/or PP substrate into loop pile; - precoating the substrate with a polyolefin or SBR with filler comprising MgCO 3, CaCO 3, ATH and/or TiO 2 with a chemical purity higher than 90%, - applying a heavy coating layer comprising a polymer blend based on a synthetic bitumen filled with one or more components from the group of CaCO 3, ATH, NaCl, MgCO 3 or - applying a heavy coating layer comprising a polymer blend based on polyolefin co-polymer, tackifiers and wax/oil, filled with one or more components from the group of CaCO 3, ATH, NaCl, MgCO 3. - tufting white based or solution dyed based yarns onto a light coloured or white PET and/or PP substrate into loop pile; - precoating the substrate with a polyolefin or SBR with filler comprising MgCO 3, CaCO 3, ATH and/or TiO 2 with a chemical purity higher than 90%, - applying a heavy coating layer comprising a polymer blend based on a synthetic bitumen filled with one or more components from the group of CaCO 3, ATH, NaCl, MgCO 3 or - applying a heavy coating layer comprising a polymer blend based on polyolefin co-polymer, tackifiers and wax/oil, filled with one or more components from the group of CaCO 3, ATH, NaCl, MgCO 3.
Process for preparing a prosthetic element comprising a glass-ceramic body, said process comprising the steps of a) providing a basic body comprising an amorphous glass phase and containing the components of the glass-ceramic body to be prepared, and b) transferring energy to the basic body to induce conversion of a starting phase of the material of the basic body into at least one crystalline phase in a confined region, wherein energy is transferred to the confined region of the basic body by laser irradiating said region with a laser beam having a wavelength of at least 500 nm and in addition the basic body is heated to a first temperature before laser irradiation. a) providing a basic body comprising an amorphous glass phase and containing the components of the glass-ceramic body to be prepared, and b) transferring energy to the basic body to induce conversion of a starting phase of the material of the basic body into at least one crystalline phase in a confined region, wherein energy is transferred to the confined region of the basic body by laser irradiating said region with a laser beam having a wavelength of at least 500 nm and in addition the basic body is heated to a first temperature before laser irradiation.
A washing machine adapted for washing and rinsing the laundry, comprising a tub delimited by a wall and including at least a ballast weight connected to said wall, said ballast weight being realized in concrete or iron casting characterized by comprising an insert realized in a material having a thermal conductivity lower than the thermal conductivity of the material forming the wall, said insert being located between said wall and said ballast weight, covering a portion of an outer surface of said wall which is larger than the portion of the wall covered by said ballast weight.
A filter comprising, a first tube (20, 49) having a plurality of a first set of slots (21, 50), a second tube (27, 56) having a plurality of a first set of expandable legs (1, 2, 3, 4, 35, 36, 37, 38), each leg of the first set having an end secured to the second tube and a free end, each slot of the first set of slots on the first tube being positioned at a radial position allowing for deployment of each expandable leg of the first set, characterized in that; the first tube has a plurality of a second set of slots (22, 51) and a plurality of a third set of slots (23, 52), the second tube has a plurality of a second set of expandable legs (5, 6, 7, 8, 39, 40, 41, 42) and a plurality of a third set of expandable legs (10, 11, 12, 13, 44, 45, 46, 47), each leg of the second set has an end secured to the second tube and a free end, the free end of each leg in the first set being oriented in a direction opposite to the free end of each leg in the second set, each leg of the third set comprises an expandable segment and has both ends secured to the second tube, each slot of the second set of slots on the first tube is positioned at a radial position allowing for deployment of each leg of the second set, and each slot of the third set of slots on the first tube is positioned at a radial position allowing for deployment of each leg of the third set, the slots being oriented parallel to the cylindrical axis of the first tube, wherein the second tube's external diameter is less than the first tube's internal diameter, and wherein the second tube is inserted into the first tube.
A tunnel kiln comprising: (a) a tunnel kiln main body having an inner wall constituted by a furnace material, and having a debinding zone and a sintering zone wherein respectively debinding and sintering of a body to be fired containing an organic component are performed; (b) a conveying unit for conveying the body to be fired from an inlet side to an outlet side of the tunnel kiln main body; and (c) a lining provided so that at least an inner wall of the debinding zone, of the inner wall of the tunnel kiln main body, is covered therewith, (d) wherein the lining has a cold spot where the temperature of the surface of the lining is partially lower, and (e) wherein the cold spot is formed by arranging a jacket for cooling on the outside of the lining or by means of a double tube arranged on the outside of the lining and adapted to flow a cooling medium. (a) a tunnel kiln main body having an inner wall constituted by a furnace material, and having a debinding zone and a sintering zone wherein respectively debinding and sintering of a body to be fired containing an organic component are performed; (b) a conveying unit for conveying the body to be fired from an inlet side to an outlet side of the tunnel kiln main body; and (c) a lining provided so that at least an inner wall of the debinding zone, of the inner wall of the tunnel kiln main body, is covered therewith, (d) wherein the lining has a cold spot where the temperature of the surface of the lining is partially lower, and (e) wherein the cold spot is formed by arranging a jacket for cooling on the outside of the lining or by means of a double tube arranged on the outside of the lining and adapted to flow a cooling medium.
A high strength seamless stainless steel pipe of a composition comprising, in mass%, C: 0.012 to 0.05%, Si: 1.0% or less, Mn: 0.15 to 0.5%, P: 0.05% or less, S: 0.005% or less, Cr: more than 16.0% and 18.0% or less, Mo: more than 2.0% and 3.0% or less, Cu: 0.7 to 3.5%, Ni: 3.0% or more and less than 5.0%, W: 0.5 to 3.0%, Nb: 0.05 to 0.15%, Al: 0.02 to 0.07%, N: 0.012 to 0.06%, O: 0.006% or less, and optionally at least one selected from Ti: 0.3% or less, V: 0.5% or less, Zr: 0.2% or less, Co: 1.4% or less, Ta: 0.1% or less, B: 0.0100% or less, Ca: 0.0005 to 0.0050%, and REM: 0.001 to 0.01%, and the balance Fe and unavoidable impurities, the high strength seamless stainless steel pipe having a structure that includes more than 40% tempered martensite phase as a primary phase, and 20 to 40% ferrite phase, and 5% to 25% residual austenite phase in terms of a volume fraction, and in which C, Cr, Ni, Mo, N, W, and Cu in the residual austenite phase satisfy the following formula: Md 30 = 1148 − 1775 C − 44 Cr − 39 Ni − 37 Mo − 698 N − 15 W − 13 Cu ≤ − 10, wherein C, Cr, Ni, Mo, N, W, and Cu represent the content of each element in the residual austenite phase in mass%, the content being 0, zero, for elements that are not contained, where the elements in the residual austenite phase are determined using the method specified in the description.
Article with antifouling properties for use in aquatic applications, in particular marine applications, comprising: a) a support, b) at least one adhesion-promoting coat deposited on said support, and c) at least one antifouling coat deposited on said adhesion-promoting coat, said article being characterized in that said antifouling coat is obtained after deposition and curing on contact with atmospheric moisture of a composition X comprising: (i) at least one organosilicon compound A' comprising at least two identical or different hydrolyzable and condensable groups, or at least two silanol functions ≡SiOH, (ii) at least one crosslinking agent B', and (iii) a catalytically effective amount of at least one polycondensation catalyst C which is a heterometallic complex whose chemical formula comprises: • at least two different metal atoms M and M', M being an atom chosen from the group constituted by the atoms of columns 2 and 13 of the Periodic Table of the Elements and M' being an atom chosen from the group constituted by the atoms of column 4 of the Periodic Table of the Elements, and • at least one alkoxide ligand or chelating ligand. a) a support, b) at least one adhesion-promoting coat deposited on said support, and c) at least one antifouling coat deposited on said adhesion-promoting coat, (i) at least one organosilicon compound A' comprising at least two identical or different hydrolyzable and condensable groups, or at least two silanol functions ≡SiOH, (ii) at least one crosslinking agent B', and (iii) a catalytically effective amount of at least one polycondensation catalyst C which is a heterometallic complex whose chemical formula comprises: • at least two different metal atoms M and M', M being an atom chosen from the group constituted by the atoms of columns 2 and 13 of the Periodic Table of the Elements and M' being an atom chosen from the group constituted by the atoms of column 4 of the Periodic Table of the Elements, and • at least one alkoxide ligand or chelating ligand. • at least two different metal atoms M and M', M being an atom chosen from the group constituted by the atoms of columns 2 and 13 of the Periodic Table of the Elements and M' being an atom chosen from the group constituted by the atoms of column 4 of the Periodic Table of the Elements, and • at least one alkoxide ligand or chelating ligand.
A power combining circuit comprising at least: a plurality of amplifiers (PA1∼PAn), each of which amplifies input high frequency powers; a plurality of 3dB-hybrid circuits (HYB1∼HYBn), each of which distributes an output from the corresponding amplifier (PA1∼PAn) to two signals having a phase difference of 90 degrees from each other; two couplers (C1, C2), each of which couples signals in phase with each other, among the two signals output from each of the 3dB-hybrid circuits (HYB1∼HYBn); two filters (FILTER 1, FILTER 2) which remove a spurious component included in each of the signals coupled by the two couplers (C1, C2); and a back-end positioned hybrid circuit which power-combines the signals from the two filters (FILTER 1, FILTER 2) for output, characterized in that the power combining circuit further comprises: two impedance transformation lines (TR1, TR2), each of which transforms a characteristic impedance of the line to a predetermined matching impedance, the impedance transformation lines (TR1, TR2) being connected between the two couplers (C1, C2) and the two filters (FILTER 1, FILTER 2). a plurality of amplifiers (PA1∼PAn), each of which amplifies input high frequency powers; a plurality of 3dB-hybrid circuits (HYB1∼HYBn), each of which distributes an output from the corresponding amplifier (PA1∼PAn) to two signals having a phase difference of 90 degrees from each other; two couplers (C1, C2), each of which couples signals in phase with each other, among the two signals output from each of the 3dB-hybrid circuits (HYB1∼HYBn); two filters (FILTER 1, FILTER 2) which remove a spurious component included in each of the signals coupled by the two couplers (C1, C2); and a back-end positioned hybrid circuit which power-combines the signals from the two filters (FILTER 1, FILTER 2) for output, characterized in that the power combining circuit further comprises: two impedance transformation lines (TR1, TR2), each of which transforms a characteristic impedance of the line to a predetermined matching impedance, the impedance transformation lines (TR1, TR2) being connected between the two couplers (C1, C2) and the two filters (FILTER 1, FILTER 2). two impedance transformation lines (TR1, TR2), each of which transforms a characteristic impedance of the line to a predetermined matching impedance, the impedance transformation lines (TR1, TR2) being connected between the two couplers (C1, C2) and the two filters (FILTER 1, FILTER 2).
Geopolymer foam formulation, comprising: at least one inorganic binder which comprises metakaolin, at least one alkaline activator, selected from the group consisting of alkali metal hydroxides, alkali metal carbonates, alkali metal aluminates, alkali metal silicates and mixtures thereof; at least one nonionic surfactant, where the surfactant is an alkyl polyglucoside; a gas phase and water. at least one inorganic binder which comprises metakaolin, at least one alkaline activator, selected from the group consisting of alkali metal hydroxides, alkali metal carbonates, alkali metal aluminates, alkali metal silicates and mixtures thereof; at least one nonionic surfactant, where the surfactant is an alkyl polyglucoside; a gas phase and water.
A four-stroke internal combustion engine comprising: an intake passage through which air is guided to a combustion chamber; an intake valve that opens and closes communication between the combustion chamber and the intake passage; a fuel injection device through which a fuel is injected to the intake passage or the combustion chamber; at least one further valve (38A,38B) disposed in the intake passage; and a controller that controls the further valve (38A,38B) at startup of an internal combustion engine, wherein the controller is configured to change an opening of the further valve (38A,38B) from an opening equal to or smaller than a first opening to a second opening greater than the first opening and from the second opening greater than the first opening to the opening equal to or smaller than the first opening during a period between start of an intake stroke of one cycle and end of an exhaust stroke thereof, wherein the cycle is a cycle prior to occurrence of a first explosion in the combustion chamber or a cycle in which the first explosion occurs in the combustion chamber. an intake passage through which air is guided to a combustion chamber; an intake valve that opens and closes communication between the combustion chamber and the intake passage; a fuel injection device through which a fuel is injected to the intake passage or the combustion chamber; at least one further valve (38A,38B) disposed in the intake passage; and a controller that controls the further valve (38A,38B) at startup of an internal combustion engine, wherein the controller is configured to change an opening of the further valve (38A,38B) from an opening equal to or smaller than a first opening to a second opening greater than the first opening and from the second opening greater than the first opening to the opening equal to or smaller than the first opening during a period between start of an intake stroke of one cycle and end of an exhaust stroke thereof, wherein the cycle is a cycle prior to occurrence of a first explosion in the combustion chamber or a cycle in which the first explosion occurs in the combustion chamber.