mhurhangee/ep-ind-claims huggingface dataset:
A light pulse detector with direct injection fed back which comprises a matrix of photodetectors, each photodetector comprising a transducer and an integrator comprising a MOSFET injection transistor mounted as a common gate, a feedback amplifier, an integration capacitor, the feedback amplifier being a cascode inverting differential amplifier of which the negative input is connected to the input of the injection transistor and of which the output is connected to the gate of this transistor, characterised in that it comprises, for each photodetector, a demultiplexing circuit inserted between the transducer and the integrator, capable of connecting successively the transducer on the input of the injection transistor then on a reference voltage (Vref) to which is also connected the positive input of the differential amplifier.
A carrier part for fixing insulating construction means such as thermal insulation boards, renovation boards, clinker brick, plaster or the like on interior and/or exterior walls of buildings, wherein the construction means are held by the intermediately arranged carrier parts, which are anchored on the substructure by means of fastening elements, and wherein the carrier part has a base body that is defined by longitudinal webs and face webs (3; 3a, 3b) and provided with through-openings, which are spaced apart from one another by a fixed grid dimension, in order to receive fastening elements, characterized in that the face webs are shorter than the longitudinal webs and realized in the form of an arrow point with a symmetric arrangement of two angularly extending diagonal edge webs (3a, 3b).
A filter medium for an air filter for collecting dust in an air flow, the filter medium comprising: a pre-collection layer for collecting a part of the dust in the air flow; a principal collection layer that includes a porous polytetrafluoroethylene film and is positioned on a downstream side of the air flow relative to the pre-collection layer to collect dust that passes through the pre-collection layer; and an air-permeable cover layer that is positioned in the outermost surface layer on an upstream side of the air flow to allow dust in the air flow to pass therethrough and to suppress deformation of the surface of the filter medium for an air filter caused by pressing force from an outside, an air-permeable support layer which is positioned on the downstream side of the air flow relative to the principal collection layer to support the principal collection layer, characterized in that the air-permeable cover layer has a thickness of 0.3 mm or less and an average fiber diameter of 10 to 30 μm, and a weight per unit area of 5 to 20 g/m 2, wherein the air-permeable cover layer is constituted with a spun-bond non-woven fabric. a pre-collection layer for collecting a part of the dust in the air flow; a principal collection layer that includes a porous polytetrafluoroethylene film and is positioned on a downstream side of the air flow relative to the pre-collection layer to collect dust that passes through the pre-collection layer; and an air-permeable cover layer that is positioned in the outermost surface layer on an upstream side of the air flow to allow dust in the air flow to pass therethrough and to suppress deformation of the surface of the filter medium for an air filter caused by pressing force from an outside, an air-permeable support layer which is positioned on the downstream side of the air flow relative to the principal collection layer to support the principal collection layer, characterized in that the air-permeable cover layer has a thickness of 0.3 mm or less and an average fiber diameter of 10 to 30 μm, and a weight per unit area of 5 to 20 g/m 2, wherein the air-permeable cover layer is constituted with a spun-bond non-woven fabric.
A system for monitoring an excimer bulb, the system comprising: a thermoelectric energy harvester configured to be located adjacent to the excimer bulb at a constant, known distance, and to convert thermal energy from the excimer bulb into electrical energy having a current voltage; and a controller in electrical communication with the thermoelectric energy harvester and configured to calculate a remaining useful life of the excimer bulb based on the current voltage of the electrical energy converted by the thermoelectric energy harvester. a thermoelectric energy harvester configured to be located adjacent to the excimer bulb at a constant, known distance, and to convert thermal energy from the excimer bulb into electrical energy having a current voltage; and a controller in electrical communication with the thermoelectric energy harvester and configured to calculate a remaining useful life of the excimer bulb based on the current voltage of the electrical energy converted by the thermoelectric energy harvester.
A securing assembly for use in suspending an article, the securing assembly comprising: an insertion arrangement for insertion into the article, the insertion arrangement comprising an insertion portion to be inserted into the article; an attaching arrangement for attaching the insertion arrangement to a connector configured to connect the securing assembly to an elongate suspending member; wherein the attaching arrangement further includes a fastening formation for fastening the attaching arrangement to the connector; and wherein each of the insertion portion and the attaching arrangement define a respective through passage (46, 48) to allow the suspending member to be inserted through the securing assembly; characterised in that the insertion portion has an external thread thereon; and further characterised in that the insertion arrangement and the attaching arrangement comprise cooperating joining formations (16,18) to join the attaching arrangement to the insertion arrangement. an insertion arrangement for insertion into the article, the insertion arrangement comprising an insertion portion to be inserted into the article; an attaching arrangement for attaching the insertion arrangement to a connector configured to connect the securing assembly to an elongate suspending member; wherein the attaching arrangement further includes a fastening formation for fastening the attaching arrangement to the connector; and wherein each of the insertion portion and the attaching arrangement define a respective through passage (46, 48) to allow the suspending member to be inserted through the securing assembly; characterised in that the insertion portion has an external thread thereon; and further characterised in that the insertion arrangement and the attaching arrangement comprise cooperating joining formations (16,18) to join the attaching arrangement to the insertion arrangement.
Optical device comprising a support mounted on a rotational drive motor and a reflective optical component, the support comprising at least one sleeve coaxial with the axis of rotational drive, one end of the sleeve defining an inlet orifice and comprising in its wall an opening defining an outlet orifice in which the reflective optical component is housed, so that a light beam entering via the inlet orifice is reflected by the reflective optical component so as to exit via the outlet orifice, characterized in that the reflective optical component is mounted and held in the sleeve by cooperation of shape with the wall of said sleeve.
A method for preparing a glycoprotein-toxic payload molecule conjugate represented by formula I [D-L-G] n -Gp Formula I wherein Gp is a glycoprotein comprising an N-glycan, wherein the N-glycan comprises a GlcNAc residue bound by a β-N linkage to an asparagine; n is an integer from 1 to 20; D is a toxic payload molecule; L is a linker group covalently joining G to D; and G is a saccharide structure represented by formula II wherein R is a glycosidic bond to the GlcNAc residue bound by a β-N linkage to an asparagine; X 1 is H; X 2 is a bond to L and X 3 and X 4 are each OH; X 5 is CH 2 OH; wherein the method comprises the steps of: providing a glycoprotein comprising an N-glycan comprising an acceptor site, wherein the glycoprotein comprising the N-glycan comprising the acceptor site is prepared by contacting a glycoprotein comprising an N-glycan with an endoglycosidase, wherein the N-glycan is a hybrid-type N-glycan and the endoglycosidase is EndoS2; and reacting a donor molecule with the glycoprotein comprising the N-glycan comprising the acceptor site in the presence of a glycosyltransferase, wherein the glycosyltransferase is human β1,4-GalT1(Y285L) or bovine β1,4-GalT1(Y289L); wherein the donor molecule is UDP-2-(2-azidoacetamido)-2-deoxy-Gal (UDP-GalNAz). Gp is a glycoprotein comprising an N-glycan, wherein the N-glycan comprises a GlcNAc residue bound by a β-N linkage to an asparagine; n is an integer from 1 to 20; D is a toxic payload molecule; L is a linker group covalently joining G to D; and G is a saccharide structure represented by formula II R is a glycosidic bond to the GlcNAc residue bound by a β-N linkage to an asparagine; X 1 is H; X 2 is a bond to L and X 3 and X 4 are each OH; X 5 is CH 2 OH; wherein the method comprises the steps of: providing a glycoprotein comprising an N-glycan comprising an acceptor site, wherein the glycoprotein comprising the N-glycan comprising the acceptor site is prepared by contacting a glycoprotein comprising an N-glycan with an endoglycosidase, wherein the N-glycan is a hybrid-type N-glycan and the endoglycosidase is EndoS2; and reacting a donor molecule with the glycoprotein comprising the N-glycan comprising the acceptor site in the presence of a glycosyltransferase, wherein the glycosyltransferase is human β1,4-GalT1(Y285L) or bovine β1,4-GalT1(Y289L); wherein the donor molecule is UDP-2-(2-azidoacetamido)-2-deoxy-Gal (UDP-GalNAz). providing a glycoprotein comprising an N-glycan comprising an acceptor site, wherein the glycoprotein comprising the N-glycan comprising the acceptor site is prepared by contacting a glycoprotein comprising an N-glycan with an endoglycosidase, wherein the N-glycan is a hybrid-type N-glycan and the endoglycosidase is EndoS2; and reacting a donor molecule with the glycoprotein comprising the N-glycan comprising the acceptor site in the presence of a glycosyltransferase, wherein the glycosyltransferase is human β1,4-GalT1(Y285L) or bovine β1,4-GalT1(Y289L); wherein the donor molecule is UDP-2-(2-azidoacetamido)-2-deoxy-Gal (UDP-GalNAz).
A method for producing core-shell catalyst particles comprising a core containing palladium and a shell containing platinum and covering the core, wherein the method comprises: a step of depositing copper on the surface of the palladium-containing particles by applying a potential that is nobler than the oxidation-reduction potential of copper to the palladium-containing particles in a copper ion-containing electrolyte, and a step of forming the shell by, inside a reaction system kept at -3°C or more and 10°C or less, substituting the copper deposited on the surface of the palladium-containing particles with platinum by bringing the copper into contact with a platinum ion-containing solution in which platinum ions and a reaction inhibitor that inhibits a substitution reaction between the copper and the platinum, are contained, and wherein the reaction inhibitor is at least one selected from the group consisting of citric acid, ethylenediaminetetraacetic acid (EDTA), sodium salts thereof, and potassium salts thereof. a step of depositing copper on the surface of the palladium-containing particles by applying a potential that is nobler than the oxidation-reduction potential of copper to the palladium-containing particles in a copper ion-containing electrolyte, and a step of forming the shell by, inside a reaction system kept at -3°C or more and 10°C or less, substituting the copper deposited on the surface of the palladium-containing particles with platinum by bringing the copper into contact with a platinum ion-containing solution in which platinum ions and a reaction inhibitor that inhibits a substitution reaction between the copper and the platinum, are contained,
Organizer body (2, 2') for holding at least one electrical line in a wire organizer (1, 1'), the organizer body (2, 2') comprising at least one lead-through opening (20, 20') extending from a back side to a front side of the organizer body (2, 2') in a insertion direction (I, I') for leading the electrical line from the back side to the front side, wherein the at least one lead-through opening (20, 20') is at least partly intersecting with a shaft adapted for receiving a clamping element, wherein the shaft opens against a clamping direction extending transversely to the insertion direction (I, I'), characterized in that the organizer body (2, 2') comprises at least one further lead-through opening (20, 20') intersecting with the at least one shaft.
A method for wireless communication at a user equipment, UE, comprising: receiving a first synchronization signal for synchronizing with a cell, the first synchronization signal transmitted by a base station serving the cell according to a first periodicity; receiving system information comprising an indication of a second periodicity of a second synchronization signal; receiving, subsequent to the synchronizing, the second synchronization signal for resynchronizing with the cell, the second synchronization signal transmitted by the base station according to the second periodicity, wherein the second synchronization signal comprises a plurality of repetitions of a first sequence that is based at least in part on a cell identifier of the cell; and communicating over the cell with the base station based at least in part on the resynchronizing. receiving a first synchronization signal for synchronizing with a cell, the first synchronization signal transmitted by a base station serving the cell according to a first periodicity; receiving system information comprising an indication of a second periodicity of a second synchronization signal; receiving, subsequent to the synchronizing, the second synchronization signal for resynchronizing with the cell, the second synchronization signal transmitted by the base station according to the second periodicity, wherein the second synchronization signal comprises a plurality of repetitions of a first sequence that is based at least in part on a cell identifier of the cell; and communicating over the cell with the base station based at least in part on the resynchronizing.
A method for determining the amount of C peptide in a sample by tandem mass spectrometry or high resolution/high accuracy mass spectrometry, the method comprising: (a) subjecting a sample to solid phase extraction and high performance liquid chromatography (HPLC) to obtain a fraction enriched in C peptide; (b) subjecting the enriched C peptide to an ionization source under conditions suitable to generate one or more C peptide ions detectable by mass spectrometry; (c) determining the amount of one or more C peptide ions by tandem mass spectrometry or high resolution/high accuracy mass spectrometry, wherein said determined ions comprise one or more fragment ions selected from the group of ions with mass to charge ratios consisting of 785.4 ± 0.5 and 646.1 ± 0.5; wherein the amount of ions determined in step (c) is related to the amount of a C peptide in said sample. (a) subjecting a sample to solid phase extraction and high performance liquid chromatography (HPLC) to obtain a fraction enriched in C peptide; (b) subjecting the enriched C peptide to an ionization source under conditions suitable to generate one or more C peptide ions detectable by mass spectrometry; (c) determining the amount of one or more C peptide ions by tandem mass spectrometry or high resolution/high accuracy mass spectrometry, wherein said determined ions comprise one or more fragment ions selected from the group of ions with mass to charge ratios consisting of 785.4 ± 0.5 and 646.1 ± 0.5;
A contoured class divider for dividing an aircraft cabin arrangement between at least one forward passenger seat and at least one aft passenger seat, the contoured class divider comprising: a panel configured to be positioned adjacent to and rearwardly of the at least one forward seat, the panel having a contoured shape for receiving, in use, the back of the forward seat in at least one of a reclined position and an upright position, the panel extending substantially from a connector for an underside of an overhead bin; a lower support assembly (16, 18), the panel extending to the lower support assembly, and means to articulate the panel from a rearward position during normal operation to a forward position during emergency landing, characterised in that the lower support assembly comprises support legs which support a lower edge of the panel, in use, above a floor of the aircraft cabin such that a passenger in the aft seat can stow luggage beneath the forward seat. a panel configured to be positioned adjacent to and rearwardly of the at least one forward seat, the panel having a contoured shape for receiving, in use, the back of the forward seat in at least one of a reclined position and an upright position, the panel extending substantially from a connector for an underside of an overhead bin; a lower support assembly (16, 18), the panel extending to the lower support assembly, and means to articulate the panel from a rearward position during normal operation to a forward position during emergency landing, characterised in that the lower support assembly comprises support legs which support a lower edge of the panel, in use, above a floor of the aircraft cabin such that a passenger in the aft seat can stow luggage beneath the forward seat.
Device for cutting by wire of a part to be cut, intended to be in motion with respect to the wire to enable the cutting thereof, comprising at least one first rotary member about a first axis of rotation (Xa) and a second rotary member about a second axis of rotation (Xb), said first (Xa) and second (Xb) axes of rotation being substantially mutually parallel, said at least one first and one second rotary members enabling driving of the wire substantially perpendicularly to said first (Xa) and second (Xb) axes of rotation, the wire bearing against the outer surface (Sa, Sb) of each of said at least one first and one second rotary members extending about the corresponding axis of rotation (Xa, Xb), the device further comprising a detection and measurement system of a sag formed on the wire of the device, characterised in that said detection and measurement system comprises at least one detection sensor of the presence or not of the wire, included within at least one of said at least one first rotary member and one second rotary member and thus rotated thereby, the detection sensor being configured to provide a signal on the detection of the presence or not of the wire during the rotation of said at least one of said at least one first rotary member and one second rotary member, said detection sensor also providing information on the presence or not of a sag formed on the wire, and in that the detection and measurement system further comprises an electronic processing system configured to determine the measurement of the sag on the basis of the detection signal of the wire supplied by the detection sensor.
An optoelectronic module having an optical emission or detection channel, the module comprising: a support on which is mounted a light emitting or light detecting element (22A; 22B); a cover including an optically transmissive portion over the light emitting or light detecting element, wherein the optically transmissive portion is surrounded laterally by sections of the cover that are non-transparent to one or more wavelengths of light emitted by or detectable by the light emitting or light detecting element, wherein the non-transparent sections of the cover are composed of a non-transparent printed circuit board, polymer or ceramic layer having a coating (32; 32A; 32B) of a non-transparent material, and wherein the cover has a thickness of no more than 150 μm; a lens on a surface of the optically transmissive portion; and a spacer separating the support from the cover. a support on which is mounted a light emitting or light detecting element (22A; 22B); a cover including an optically transmissive portion over the light emitting or light detecting element, wherein the optically transmissive portion is surrounded laterally by sections of the cover that are non-transparent to one or more wavelengths of light emitted by or detectable by the light emitting or light detecting element, wherein the non-transparent sections of the cover are composed of a non-transparent printed circuit board, polymer or ceramic layer having a coating (32; 32A; 32B) of a non-transparent material, and wherein the cover has a thickness of no more than 150 μm; a lens on a surface of the optically transmissive portion; and a spacer separating the support from the cover.
A method for fabricating a semiconductor device structure, the method comprising: forming a first gate structure being a trench gate structure adjacent to a first region of semiconductor material having a first conductivity type, and forming a second gate structure being a lateral gate structure overlying the first region and offset from the first gate structure; and subsequently: forming a second region being a body region of semiconductor material having a second conductivity type within the first region of semiconductor material by implanting ions having the second conductivity type into the first region and diffusing the implanted ions; forming, by implanting ions, a further region of semiconductor material having the first conductivity type within the body region adjacent to the trench gate structure; and forming, by implanting ions a third region being a source region of semiconductor material having the first conductivity type within the second region, wherein a first portion of the second region underlying the second gate structure is disposed between the first gate structure and the third region. forming a first gate structure being a trench gate structure adjacent to a first region of semiconductor material having a first conductivity type, and forming a second gate structure being a lateral gate structure overlying the first region and offset from the first gate structure; and subsequently: forming a second region being a body region of semiconductor material having a second conductivity type within the first region of semiconductor material by implanting ions having the second conductivity type into the first region and diffusing the implanted ions; forming, by implanting ions, a further region of semiconductor material having the first conductivity type within the body region adjacent to the trench gate structure; and forming, by implanting ions a third region being a source region of semiconductor material having the first conductivity type within the second region, wherein a first portion of the second region underlying the second gate structure is disposed between the first gate structure and the third region. forming a second region being a body region of semiconductor material having a second conductivity type within the first region of semiconductor material by implanting ions having the second conductivity type into the first region and diffusing the implanted ions; forming, by implanting ions, a further region of semiconductor material having the first conductivity type within the body region adjacent to the trench gate structure; and forming, by implanting ions a third region being a source region of semiconductor material having the first conductivity type within the second region, wherein a first portion of the second region underlying the second gate structure is disposed between the first gate structure and the third region.