mhurhangee/ep-ind-claims huggingface dataset:
A MALDI mass spectrometry method for a sample to be measured containing multiple different molecules, said sample to be measured being prepared from a sample containing multiple different molecules to be measured and a matrix, said method comprising the steps of (i) providing the sample containing the multiple different molecules to be measured, said multiple different molecules being selected from the group consisting of a saccharide mixture, a glycopeptide mixture, a glycopeptide-peptide mixture, a glycoprotein mixture, and a glycoprotein-protein mixture, wherein either a) the multiple different molecules to be measured are reacted with a common derivatizing agent, said derivatizing agent being a condensed polycyclic compound having a reactive functional group capable of bonding the condensed polycyclic portion and the molecules to be measured; or b) the multiple different molecules to be measured have a common peptide or protein portion; (ii) obtaining a quantitative mass spectrum of the multiple different molecules to be measured from an arbitrary point in the sample to be measured where a signal is detected without measuring and integrated averaging the entire sample to be measured. (i) providing the sample containing the multiple different molecules to be measured, said multiple different molecules being selected from the group consisting of a saccharide mixture, a glycopeptide mixture, a glycopeptide-peptide mixture, a glycoprotein mixture, and a glycoprotein-protein mixture, wherein either a) the multiple different molecules to be measured are reacted with a common derivatizing agent, said derivatizing agent being a condensed polycyclic compound having a reactive functional group capable of bonding the condensed polycyclic portion and the molecules to be measured; or b) the multiple different molecules to be measured have a common peptide or protein portion; a) the multiple different molecules to be measured are reacted with a common derivatizing agent, said derivatizing agent being a condensed polycyclic compound having a reactive functional group capable of bonding the condensed polycyclic portion and the molecules to be measured; or b) the multiple different molecules to be measured have a common peptide or protein portion; (ii) obtaining a quantitative mass spectrum of the multiple different molecules to be measured from an arbitrary point in the sample to be measured where a signal is detected without measuring and integrated averaging the entire sample to be measured.
An ex vivo method of preparing a cells/scaffold composition, wherein the cells are chondrocytes or chondrocyte-like cells, the method comprising: subjecting cells capable of differentiating into a chondrocyte-like cell to a scaffold; encapsulating the cells using two expandable balloon-like bio-polymeric biodegradable membranes; and subjecting the cells to mechanical stress. subjecting cells capable of differentiating into a chondrocyte-like cell to a scaffold; encapsulating the cells using two expandable balloon-like bio-polymeric biodegradable membranes; and subjecting the cells to mechanical stress.
A method of detecting impurities in a refrigerant utilizing a refrigerant analyzer, wherein the refrigerant analyzer includes an electrochemical sensor operably coupled to a control device, the electrochemical sensor including a counter electrode disposed within an atmospheric regulated chamber and a sensing electrode disposed within a sensing chamber, the method comprising the steps: (a) circulating conditioned air through the sensing chamber for an initialization duration of time to obtain an initial output value; (b) determining whether the initial output value is stabilized below a pre-determined initial limit; (c) circulating a refrigerant through the sensing chamber for a sensing duration of time; (d) operating the control device to measure a sensed output value; and (e) operating the control device to determine a measured concentration of at least one contaminant within the refrigerant based on the sensed output value. (a) circulating conditioned air through the sensing chamber for an initialization duration of time to obtain an initial output value; (b) determining whether the initial output value is stabilized below a pre-determined initial limit; (c) circulating a refrigerant through the sensing chamber for a sensing duration of time; (d) operating the control device to measure a sensed output value; and (e) operating the control device to determine a measured concentration of at least one contaminant within the refrigerant based on the sensed output value.
An Fc-binding polypeptide which comprises a sequence as defined by SEQ ID NO 53 KEX 1 Q X 2 AFYEILX 3 LP NLTEEQRX 4 X 5 F IX 6 X 7 LKDX 8 PSX 9 SX 10 X 11 X 12 LAEAKX 13 X 14 NX 15 AQAPK (SEQ ID NO 53) wherein individually of each other: X 1 =A or is deleted X 2 =E or K, X 3 =H X 4 =A or N X 5 =A, G, S, Y, Q, T, N, F, L, W, I, M, V, D, E, H, R or K X 6 =Q X 7 =S X 8 =E or D X 9 = V or is deleted X 10 =K or is deleted X 11 =A, E or N or is deleted X 12 =1 X 13 =K X 14 =L X 15 =D, F, Y, W, K or R, which polypeptide has an improved alkaline stability compared to a polypeptide or a parental polypeptide, as defined by SEQ ID NO 1, SEQ ID NO 2, SEQ ID NO 3, SEQ ID NO 4, SEQ ID NO 5, SEQ ID NO 6 or SEQ ID NO 7, such as wherein the alkaline stability is improved as measured by the remaining IgG-binding capacity after 24 or 25 h incubation in 0.5 M or 1.0 M aqueous NaOH at 22 +/- 2 °C. X 1 =A or is deleted X 2 =E or K, X 3 =H X 4 =A or N X 5 =A, G, S, Y, Q, T, N, F, L, W, I, M, V, D, E, H, R or K X 6 =Q X 7 =S X 8 =E or D X 9 = V or is deleted X 10 =K or is deleted X 11 =A, E or N or is deleted X 12 =1 X 13 =K X 14 =L X 15 =D, F, Y, W, K or R, which polypeptide has an improved alkaline stability compared to a polypeptide or a parental polypeptide, as defined by SEQ ID NO 1, SEQ ID NO 2, SEQ ID NO 3, SEQ ID NO 4, SEQ ID NO 5, SEQ ID NO 6 or SEQ ID NO 7, such as wherein the alkaline stability is improved as measured by the remaining IgG-binding capacity after 24 or 25 h incubation in 0.5 M or 1.0 M aqueous NaOH at 22 +/- 2 °C.
A port configuration method for a Home Gateway, HG, comprising: performing, on an Optical Network Unit, ONU, first matching on a feature code reported by the HG, wherein performing, on the ONU, the first matching on the feature code reported by the HG comprises: performing, on the ONU, the first matching on the feature code reported by the HG and feature code segments on the ONU, wherein the feature code segments on the ONU comprise: feature codes and wildcard characters of HGs; reporting the feature code of the HG which succeeds in the first matching to an Element Management System, EMS, for second matching, wherein reporting the feature code of the HG which succeeds in the first matching to the EMS for second matching comprises: reporting the feature code of the HG which succeeds in the first matching to the EMS, so as to enable the EMS to perform the second matching on the feature code of the HG which succeeds in the first matching and feature code segments on the EMS, wherein the feature code segments on the EMS consist of feature codes of the HGs; and transmitting port data configuration information to the HG which succeeds in the second matching to perform port configuration. performing, on an Optical Network Unit, ONU, first matching on a feature code reported by the HG, wherein performing, on the ONU, the first matching on the feature code reported by the HG comprises: performing, on the ONU, the first matching on the feature code reported by the HG and feature code segments on the ONU, wherein the feature code segments on the ONU comprise: feature codes and wildcard characters of HGs; reporting the feature code of the HG which succeeds in the first matching to an Element Management System, EMS, for second matching, wherein reporting the feature code of the HG which succeeds in the first matching to the EMS for second matching comprises: reporting the feature code of the HG which succeeds in the first matching to the EMS, so as to enable the EMS to perform the second matching on the feature code of the HG which succeeds in the first matching and feature code segments on the EMS, wherein the feature code segments on the EMS consist of feature codes of the HGs; and transmitting port data configuration information to the HG which succeeds in the second matching to perform port configuration.
A method of configuring an aircraft electrical system, wherein: the electrical system comprises a wiring harness and a plurality of electronic modules (103a, 103b, 103c); the wiring harness comprises a plurality of connection points (107a, 107b, 107c); a first electronic module in the plurality is connected to the wiring harness via a first connection point in the plurality; and the method comprises: transmitting by the first electronic module, a connection point identification request; in response to the transmitting, receiving at the first electronic module from the wiring harness, an identifier of the first connection point; on the basis of the received identifier, determining configuration data for the first electronic module, the configuration data being associated with the first connection point; and configuring the first electronic module to operate in accordance with the determined configuration data. the electrical system comprises a wiring harness and a plurality of electronic modules (103a, 103b, 103c); the wiring harness comprises a plurality of connection points (107a, 107b, 107c); a first electronic module in the plurality is connected to the wiring harness via a first connection point in the plurality; and the method comprises: transmitting by the first electronic module, a connection point identification request; in response to the transmitting, receiving at the first electronic module from the wiring harness, an identifier of the first connection point; on the basis of the received identifier, determining configuration data for the first electronic module, the configuration data being associated with the first connection point; and configuring the first electronic module to operate in accordance with the determined configuration data. transmitting by the first electronic module, a connection point identification request; in response to the transmitting, receiving at the first electronic module from the wiring harness, an identifier of the first connection point; on the basis of the received identifier, determining configuration data for the first electronic module, the configuration data being associated with the first connection point; and configuring the first electronic module to operate in accordance with the determined configuration data.
An electronic label having a housing which comprises a front wall and a rear wall and at least one side wall, - wherein the front wall comprises a screen which is, in particular, reflective, - wherein, in contrast to the front wall and rear wall, the side wall is configured to be light-conducting and - wherein a light source (19A, 29B), for emitting the light which can be generated thereby through the side wall, is positioned inside the housing, characterised in that the side wall is inclined toward the front wall and comprises an energy storage device holder which protrudes into the interior of the housing and which is configured to hold at least one electrical energy storage device, in particular a battery or a rechargeable battery, particularly preferably a button cell battery, at a position in the housing as intended, wherein the side wall and the energy storage device holder are configured in one piece and to be light-permeable. - wherein the front wall comprises a screen which is, in particular, reflective, - wherein, in contrast to the front wall and rear wall, the side wall is configured to be light-conducting and - wherein a light source (19A, 29B), for emitting the light which can be generated thereby through the side wall, is positioned inside the housing, the side wall is inclined toward the front wall and comprises an energy storage device holder which protrudes into the interior of the housing and which is configured to hold at least one electrical energy storage device, in particular a battery or a rechargeable battery, particularly preferably a button cell battery, at a position in the housing as intended, wherein the side wall and the energy storage device holder are configured in one piece and to be light-permeable.
A process for the preparation of flocculated filler particles comprising the steps of a) providing at least two aqueous suspensions each comprising at least one filler material, characterized in that i) a first aqueous suspension S1 comprises at least one flocculating additive A, and ii) a second aqueous suspension S2 comprises at least one flocculating additive B which is different from flocculating additive A, and iii) the at least one filler material in the first aqueous suspension S1 and the second aqueous suspension S2 is different, and b) combining the at least two aqueous suspensions provided in step a) by bringing them together to form an aqueous suspension SM of flocculated filler particles, wherein the mass ratio of the at least one filler material in the first aqueous suspension and the second aqueous suspension S1:S2 is from 1:100 to 100:1, characterized in that step b) is carried out by bringing the first aqueous suspension S1 and the second aqueous suspension S2 simultaneously together. a) providing at least two aqueous suspensions each comprising at least one filler material, characterized in that i) a first aqueous suspension S1 comprises at least one flocculating additive A, and ii) a second aqueous suspension S2 comprises at least one flocculating additive B which is different from flocculating additive A, and iii) the at least one filler material in the first aqueous suspension S1 and the second aqueous suspension S2 is different, and i) a first aqueous suspension S1 comprises at least one flocculating additive A, and ii) a second aqueous suspension S2 comprises at least one flocculating additive B which is different from flocculating additive A, and iii) the at least one filler material in the first aqueous suspension S1 and the second aqueous suspension S2 is different, and b) combining the at least two aqueous suspensions provided in step a) by bringing them together to form an aqueous suspension SM of flocculated filler particles, wherein the mass ratio of the at least one filler material in the first aqueous suspension and the second aqueous suspension S1:S2 is from 1:100 to 100:1,
Method for producing an interior trim component comprising the steps consisting of: a) mixing polypropylene fibers, wood fibers and polyethylene terephthalate fibers in order to obtain a fiber mixture comprising polypropylene fibers, wood fibers and polyethylene terephthalate fibers, wherein the mixture comprises: - from 35 to 60% by weight of polypropylene fibers, - from 35 to 60% by weight of wood fibers, and - up to 30% by weight of polyethylene terephthalate fibers, then b) needling the fiber mixture in order to obtain a needled mat, c) heating the obtained needled mat at a temperature above the softening point of the polypropylene fibers, d) optionally laminating the heated needled mat with a decor layer, then e) press-molding the needled mat and the optional decor layer in order to obtain the interior trim component. a) mixing polypropylene fibers, wood fibers and polyethylene terephthalate fibers in order to obtain a fiber mixture comprising polypropylene fibers, wood fibers and polyethylene terephthalate fibers, wherein the mixture comprises: - from 35 to 60% by weight of polypropylene fibers, - from 35 to 60% by weight of wood fibers, and - up to 30% by weight of polyethylene terephthalate fibers, then - from 35 to 60% by weight of polypropylene fibers, - from 35 to 60% by weight of wood fibers, and - up to 30% by weight of polyethylene terephthalate fibers, then b) needling the fiber mixture in order to obtain a needled mat, c) heating the obtained needled mat at a temperature above the softening point of the polypropylene fibers, d) optionally laminating the heated needled mat with a decor layer, then e) press-molding the needled mat and the optional decor layer in order to obtain the interior trim component.
A method of manufacturing a device with an electrode structure, the method comprising: a) providing a substrate with a microfluidic channel structure shaped to match the electrode structure; b) applying a primer layer that comprises a porous particulate material and does not include an organic polymer, the primer layer being capable of absorbing a humectant organic solvent in which metal particles of a conductive liquid are dispersed to the microfluidic channel structure; c) introducing the conductive liquid to the primed microfluidic channel structure, the conductive liquid comprising dispersed electrically conductive particles in a carrier medium including a humectant organic solvent that is absorbable by the primer layer; d) waiting for the conductive liquid to flow throughout the microfluidic channel structure by capillary action; and e) evaporating the humectant organic solvent from the carrier medium to allow the electrically conductive particles to form the electrode structure; and f) sintering the substrate with the microfluidic channel structure to fuse the conductive particles and for removing any remaining humectant organic solvent; and g) laminating the substrate with a cap layer to cover at least a part of the electrode structure. a) providing a substrate with a microfluidic channel structure shaped to match the electrode structure; b) applying a primer layer that comprises a porous particulate material and does not include an organic polymer, the primer layer being capable of absorbing a humectant organic solvent in which metal particles of a conductive liquid are dispersed to the microfluidic channel structure; c) introducing the conductive liquid to the primed microfluidic channel structure, the conductive liquid comprising dispersed electrically conductive particles in a carrier medium including a humectant organic solvent that is absorbable by the primer layer; d) waiting for the conductive liquid to flow throughout the microfluidic channel structure by capillary action; and e) evaporating the humectant organic solvent from the carrier medium to allow the electrically conductive particles to form the electrode structure; and f) sintering the substrate with the microfluidic channel structure to fuse the conductive particles and for removing any remaining humectant organic solvent; and g) laminating the substrate with a cap layer to cover at least a part of the electrode structure.
Sandal comprising a flexible sole and a flexible upper, said flexible upper consisting of a main longitudinal strap and two side longitudinal straps (8 and 9) leaving it, each strap (7,8,9) comprises, in his more distal region, one upper protuberance which is in contact with an upper surface of said flexible sole, a lower protuberance which is in contact with the lower surface of the said flexible sole characterized in that the straps (7,8,9) also each comprise, in their more distal region a hollow space that passes through a corresponding cavity in the flexible sole and receives, in its interior, a region with a smaller diameter of a rigid plastic stopper, said stopper which still has a region of larger diameter that overlies the lower protuberance of the most distal end of the upper, as well as a central hole which connects the inside of the hollow space to the outside environment.
A synthetic test circuit for a valve performance test of HVDC, comprising: a resonance circuit comprising a first test valve being an inverter unit, wherein the synthetic test circuit is configured to test an operation of an inverter mode, and a second test valve being a rectifier unit, wherein the synthetic test circuit is configured to test an operation of a rectifier mode;and a power supply (P/S) configured to provide the resonance circuit with an operating voltage; wherein the synthetic test circuit further comprises: a DC/DC converter configured to bypass a DC offset current of the resonance circuit,and a plurality of submodules comprised in respective first and second test valves, each sub-module including a plurality of IGBTs and a capacitor, wherein the synthetic test circuit is configured such that a current flowing in a sub-module included in the first test valve has a positive DC current offset, and a current flowing in a sub-module included in the second test valve has, a negative DC current offset. a resonance circuit comprising a first test valve being an inverter unit, wherein the synthetic test circuit is configured to test an operation of an inverter mode, and a second test valve being a rectifier unit, wherein the synthetic test circuit is configured to test an operation of a rectifier mode;and a power supply (P/S) configured to provide the resonance circuit with an operating voltage; wherein the synthetic test circuit further comprises: a DC/DC converter configured to bypass a DC offset current of the resonance circuit,and a plurality of submodules comprised in respective first and second test valves, each sub-module including a plurality of IGBTs and a capacitor, wherein the synthetic test circuit is configured such that a current flowing in a sub-module included in the first test valve has a positive DC current offset, and a current flowing in a sub-module included in the second test valve has, a negative DC current offset. a DC/DC converter configured to bypass a DC offset current of the resonance circuit,and a plurality of submodules comprised in respective first and second test valves, each sub-module including a plurality of IGBTs and a capacitor, wherein the synthetic test circuit is configured such that a current flowing in a sub-module included in the first test valve has a positive DC current offset, and a current flowing in a sub-module included in the second test valve has, a negative DC current offset.
A multifilament fibre comprising at least one polymer consisting of a polyester, and at least one filler comprising calcium carbonate, wherein the calcium carbonate is present in the multifilament fibre in an amount of at least 2 wt.-%, based on the total weight of the multifilament fibre, and wherein the calcium carbonate is a surface-treated calcium carbonate comprising on at least a part of its accessible surface area a treatment layer comprising a hydrophobising agent, wherein the hydrophobising agent is a mono-substituted succinic anhydride consisting of succinic anhydride mono-substituted with a group selected from a linear, branched, aliphatic and cyclic group having a total amount of carbon atoms from at least C 2 to C 30 in the substituent and/or reaction products thereof and/or a phosphoric acid ester blend of one or more phosphoric acid mono-ester and/or reaction products thereof and one or more phosphoric acid di-ester and/or reaction products thereof.