mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus comprising: a frame comprising a top wall, a bottom wall , and sides defining an opening for receiving a plurality of removable electronic modules: a guide slidably insertable into the frame to partition an upper or lower portion of the opening when inserted into the frame, wherein the guide comprises a first edge for slidable engagement with the top wall or the bottom wall; and a lead screw extending from an opening in the front section of the guide and spaced from a front end of the guide, to a back end of the guide for connecting the guide to the frame . a guide slidably insertable into the frame to partition an upper or lower portion of the opening when inserted into the frame, wherein the guide comprises a first edge for slidable engagement with the top wall or the bottom wall; and a lead screw extending from an opening in the front section of the guide and spaced from a front end of the guide, to a back end of the guide for connecting the guide to the frame .
A main beam for wind turbine blade, comprising: one or more carbon fiber pultruded bodies , each of the carbon fiber pultruded bodies comprising one or more carbon fiber pultruded sheets, the carbon fiber pultruded sheets are stacked along a thickness direction of the carbon fiber pultruded bodies, the carbon fiber pultruded sheets are formed by curing a first infusion material; one or more inlays , which are arranged adjacent to the carbon fiber pultruded bodies in a direction perpendicular to a thickness direction of the main beam ; one or more overlays , which only cover the carbon fiber pultruded bodies on both sides in the thickness direction of the main beam ; and a second infusion material , which impregnates the carbon fiber pultruded bodies , the inlays and the overlays , wherein the one or more inlays comprises a main body of the inlays , the thickness d1 of which is less than or equal to the sum D of the thicknesses of the adjacent carbon fiber pultruded bodies and the overlays ; and a transition portion of the inlays arranged between the main body of the inlays and the adjacent carbon fiber pultruded bodies to form a thickness transition, the thickness d2 of which varies between zero and D-d1 from the main body of the inlays to the carbon fiber pultruded bodies . one or more carbon fiber pultruded bodies , each of the carbon fiber pultruded bodies comprising one or more carbon fiber pultruded sheets, the carbon fiber pultruded sheets are stacked along a thickness direction of the carbon fiber pultruded bodies, the carbon fiber pultruded sheets are formed by curing a first infusion material; one or more inlays , which are arranged adjacent to the carbon fiber pultruded bodies in a direction perpendicular to a thickness direction of the main beam ; one or more overlays , which only cover the carbon fiber pultruded bodies on both sides in the thickness direction of the main beam ; and a second infusion material , which impregnates the carbon fiber pultruded bodies , the inlays and the overlays , wherein the one or more inlays comprises a main body of the inlays , the thickness d1 of which is less than or equal to the sum D of the thicknesses of the adjacent carbon fiber pultruded bodies and the overlays ; and a transition portion of the inlays arranged between the main body of the inlays and the adjacent carbon fiber pultruded bodies to form a thickness transition, the thickness d2 of which varies between zero and D-d1 from the main body of the inlays to the carbon fiber pultruded bodies .
A therapeutic nanoparticle comprising: at least one oncologic drug; and taurolidine, whereby to provide the simultaneous delivery of the at least one oncologic drug and taurolidine, thereby harnessing the synergistic effect of taurolidine on the at least one oncologic drug; and further comprising a coating, which is configured to release the at least one oncologic drug and taurolidine locally to the site of a cancer, wherein the coating comprises an absorbable polymer and wherein the coating is created from combinations of copolymers and multimers derived from polymers structured from at least one from the group consisting of I-lactide, glycolide, e-caprolactone, p-dioxanone, and trimethylene carbonate. at least one oncologic drug; and taurolidine, whereby to provide the simultaneous delivery of the at least one oncologic drug and taurolidine, thereby harnessing the synergistic effect of taurolidine on the at least one oncologic drug; and further comprising a coating, which is configured to release the at least one oncologic drug and taurolidine locally to the site of a cancer, wherein the coating comprises an absorbable polymer and wherein the coating is created from combinations of copolymers and multimers derived from polymers structured from at least one from the group consisting of I-lactide, glycolide, e-caprolactone, p-dioxanone, and trimethylene carbonate.
Connection device for plastic pipe elements , comprising: - at least one pipe element having at least one end, and - at least one plastic connection element which is connected to an outer surface of said at least one pipe element through said at least one end, - where said at least one end of the pipe element comprises a resistance wire wound on the outer surface of the pipe element itself, characterized in that said resistance wire is wound between the end itself of the pipe element and a specific distance according to a direction parallel to a generatrix of the pipe element , the device comprising at least one clamp externally fixed to the pipe element and located on the resistance wire or right after said resistance wire . - at least one pipe element having at least one end, and - at least one plastic connection element which is connected to an outer surface of said at least one pipe element through said at least one end, - where said at least one end of the pipe element comprises a resistance wire wound on the outer surface of the pipe element itself,
A water-dispersible polyisocyanate (A), comprising as components (a) at least one diisocyanate or polyisocyanate, (b) at least one surfactant comprising an amine and a mixture of compounds based on the following formulae (I) and (II):, in which R 1 and R 2 independently of one another are alkyl, cycloalkyl or aryl, it being possible for each of the stated radicals to be substituted by aryl, alkyl, aryloxy, alkyloxy, heteroatoms and/or heterocycles, said mixture of compounds of formulae (I) and (II) being characterised in that the molar ratio between compound (II), i.e. the monoester-type compound, and compound (I), i.e. the diester-type compound, is from 5:95 to 95:5, (c) at least one monofunctional polyalkylene glycol, (d) optionally at least one high molecular mass diol or polyol, (e) optionally at least one low molecular mass diol or polyol, and (f) at least one solvent (E) which comprises (i) at least one carboxylic acid ester group and (ii) a hydrophilic-lipophilic balance (HLB) value of 7,8 or less calculated by the following formula HLB = 20 ∗ (M h /M), wherein M h means mole weight of heteroatoms and M means mole weight of the molecule. (a) at least one diisocyanate or polyisocyanate, (b) at least one surfactant comprising an amine and a mixture of compounds based on the following formulae (I) and (II):, in which R 1 and R 2 independently of one another are alkyl, cycloalkyl or aryl, it being possible for each of the stated radicals to be substituted by aryl, alkyl, aryloxy, alkyloxy, heteroatoms and/or heterocycles, said mixture of compounds of formulae (I) and (II) being characterised in that the molar ratio between compound (II), i.e. the monoester-type compound, and compound (I), i.e. the diester-type compound, is from 5:95 to 95:5, (c) at least one monofunctional polyalkylene glycol, (d) optionally at least one high molecular mass diol or polyol, (e) optionally at least one low molecular mass diol or polyol, and (f) at least one solvent (E) which comprises (i) at least one carboxylic acid ester group and (ii) a hydrophilic-lipophilic balance (HLB) value of 7,8 or less calculated by the following formula HLB = 20 ∗ (M h /M), wherein M h means mole weight of heteroatoms and M means mole weight of the molecule.
A method of making an analyte array, comprising (a) providing a substrate having a surface comprising mask regions and transparent regions, the mask regions having a composition that blocks transmittance of radiation in a first part of the electromagnetic spectrum and transparent regions having a composition that transmits radiation in the first part of the electromagnetic spectrum, wherein a continuous gel layer coats the surface across the mask regions and the transparent regions characterised in that the method further comprises: (b) contacting the continuous gel layer with a fluid comprising analytes under conditions wherein analytes become attached to the gel layer and wherein a first subpopulation of the analytes attaches to portions of the gel layer that coat the mask regions and a second subpopulation of the analytes attaches to portions of the gel layer that coat the transparent regions; and (c) irradiating the surface with radiation in the first part of the electromagnetic spectrum, from the side opposite that coated with the gel layer, and wherein the mask regions selectively protect the continuous gel layer at the mask regions from radiation in the first part of the electromagnetic spectrum, thereby selectively modifying the analytes of the second subpopulation compared to the analytes of the first subpopulation. (a) providing a substrate having a surface comprising mask regions and transparent regions, the mask regions having a composition that blocks transmittance of radiation in a first part of the electromagnetic spectrum and transparent regions having a composition that transmits radiation in the first part of the electromagnetic spectrum, wherein a continuous gel layer coats the surface across the mask regions and the transparent regions (b) contacting the continuous gel layer with a fluid comprising analytes under conditions wherein analytes become attached to the gel layer and wherein a first subpopulation of the analytes attaches to portions of the gel layer that coat the mask regions and a second subpopulation of the analytes attaches to portions of the gel layer that coat the transparent regions; and (c) irradiating the surface with radiation in the first part of the electromagnetic spectrum, from the side opposite that coated with the gel layer, and wherein the mask regions selectively protect the continuous gel layer at the mask regions from radiation in the first part of the electromagnetic spectrum, thereby selectively modifying the analytes of the second subpopulation compared to the analytes of the first subpopulation.
A system for use in a next generation network comprising a radio access network and a data network interconnected by a core network, wherein the core network has a control plane, is subject to network slicing and comprises a policy control function to provide policy rules to control plane functions in the core network, the system comprising: an IP Multimedia Subsystem, IMS, slice selection manager implemented at an edge of a plurality of IMS network slices (602-604) of an IMS network in the data network, the IMS slice selection manager comprising: a policy controller configured to receive an IMS slice selection policy from the policy control function; and an IMS slice selector configured to receive an IMS service request for an IMS service, to select an IMS network slice from the plurality of IMS network slices to provide the IMS service based on the IMS slice selection policy, and to initiate routing of the IMS service request to the IMS network slice selected to provide the IMS service. a policy controller configured to receive an IMS slice selection policy from the policy control function; and an IMS slice selector configured to receive an IMS service request for an IMS service, to select an IMS network slice from the plurality of IMS network slices to provide the IMS service based on the IMS slice selection policy, and to initiate routing of the IMS service request to the IMS network slice selected to provide the IMS service.
A method for operating a laundry washing appliance comprising a washing chamber to wash goods according to a wash program selected by a user including at least a washing cycle, said method including: - Adding a detergent to a washing liquor within the washing chamber during a washing phase of the washing cycle, the washing phase having a predefined duration; - Performing a plurality of measurements of the conductivity of the washing liquor in order to collect a set of conductivity measurements (C 1 ,...,C n ) defining a conductivity curve; - Analyzing the set of conductivity measurements (C 1 ,...,C n ) in order to determine if a condition of substantial invariability of the conductivity measurements (C 1 ,...,C n ) is reached and/or detect if the related conductivity curve shows a peak characterized in that said method further comprises the steps of - Extending the predefined duration of the washing phase, if after a first preset time period (T ref ) starting from the beginning of the washing phase, no conductivity increase or peak in the conductivity curve is detected; and/or - Extending the predefined duration of the washing phase, if after a second preset time period (T ref ) starting from the beginning of the washing phase, the condition of substantial invariability of the conductivity measurements (C 1 ,...,C n ) has not been reached. - Adding a detergent to a washing liquor within the washing chamber during a washing phase of the washing cycle, the washing phase having a predefined duration; - Performing a plurality of measurements of the conductivity of the washing liquor in order to collect a set of conductivity measurements (C 1 ,...,C n ) defining a conductivity curve; - Analyzing the set of conductivity measurements (C 1 ,...,C n ) in order to determine if a condition of substantial invariability of the conductivity measurements (C 1 ,...,C n ) is reached and/or detect if the related conductivity curve shows a peak characterized in that said method further comprises the steps of - Extending the predefined duration of the washing phase, if after a first preset time period (T ref ) starting from the beginning of the washing phase, no conductivity increase or peak in the conductivity curve is detected; and/or - Extending the predefined duration of the washing phase, if after a second preset time period (T ref ) starting from the beginning of the washing phase, the condition of substantial invariability of the conductivity measurements (C 1 ,...,C n ) has not been reached.
Method for operating a drive device for a motor vehicle, which has an exhaust gas-generating drive unit, an exhaust gas aftertreatment device and a heating device for heating the exhaust gas aftertreatment device , wherein electrical terminals of the heating device are electrically connected to a control device via electrical supply connections , wherein a voltage applied to the heating device is measured by the control device by means of measuring lines which are electrically connected on the one hand to the control device and on the other hand to the terminals , wherein a fault in the supply connections is detected if the measured voltage deviates from a preset value, characterised in that a differential voltage between a supply voltage applied by the control device to the supply connections and a test voltage measured by the control device on the measuring lines is used as the voltage.
Method for manufacturing plant-based meat analogue products, said method comprising: a) preparing a batch (P) of plant textured proteins by hydrating said plant textured proteins with an aqueous solution, b) preparing a batch (E) of texturing emulsion by b1) dispersing in oil a mixture comprising a texturing agent and at least one other binding agent, b2) mixing said dispersion with an aqueous solution under low agitation, and b3) mixing the mixture obtained at step b2) under high shear conditions, thereby obtaining an emulsion, c) mixing said batches (P) and (E) under low agitation, d) separating the mixture obtained at step c) into 2 parts and mincing only one part of said mixture, e) mixing the non-minced part and the minced part obtained at step d), and f) forming plant-based meat analogue products from the mixture obtained at step e). a) preparing a batch (P) of plant textured proteins by hydrating said plant textured proteins with an aqueous solution, b) preparing a batch (E) of texturing emulsion by b1) dispersing in oil a mixture comprising a texturing agent and at least one other binding agent, b2) mixing said dispersion with an aqueous solution under low agitation, and b3) mixing the mixture obtained at step b2) under high shear conditions, thereby obtaining an emulsion, b1) dispersing in oil a mixture comprising a texturing agent and at least one other binding agent, b2) mixing said dispersion with an aqueous solution under low agitation, and b3) mixing the mixture obtained at step b2) under high shear conditions, thereby obtaining an emulsion, c) mixing said batches (P) and (E) under low agitation, d) separating the mixture obtained at step c) into 2 parts and mincing only one part of said mixture, e) mixing the non-minced part and the minced part obtained at step d), and f) forming plant-based meat analogue products from the mixture obtained at step e).
A method by a wireless device , the method comprising: receiving information relating to a Narrowband Secondary Synchronization Signal, NSSS, transmit diversity scheme, the information indicating the number of NSSS occasions that use different NSSS transmit diversity configurations, and wherein the received indication is for use in performing at least one measurement across the NSSS occasions. receiving information relating to a Narrowband Secondary Synchronization Signal, NSSS, transmit diversity scheme, the information indicating the number of NSSS occasions that use different NSSS transmit diversity configurations, and wherein the received indication is for use in performing at least one measurement across the NSSS occasions.
A surface area luminaire with a plate-shaped light guiding element and lighting means arranged on at least one narrow side of the light guiding element , the light of which is coupled into the light guiding element via a light entry surface formed by the narrow side and is emitted via a light exit surface oriented substantially perpendicular to the light entry surface, wherein on the side of the light guiding element opposite the light exit surface a flat device carrier is provided, on which at least one operating device for the lighting means is arranged, wherein the luminaire also has a mounting frame , which can be detachably connected to the device carrier and is designed for fastening to a carrier surface, for example, to the ceiling of a room to be illuminated, wherein the detachable connection between device carrier and mounting frame has two bolts , which are displaceably arranged on the mounting frame and are designed for latching with at least one latching element arranged on the device carrier , wherein the bolts for releasing the latching are movable in a direction parallel to the plane of the light guiding element , and wherein the mounting frame has a frame-like region , on the sides of which webs extend downward, wherein two of said webs form guides opposite one another for the bolts and the bolts in each case abut against the inside of the webs .
A Raman spectroscopic system comprising, a spectrograph outputting Raman spectra in a near-infrared (NIR) optical range, a detector configured to receive the Raman spectra and output electrical signals representative of the Raman spectra with an operational wavelength range, wherein the detector is disposed in a radiation shield the radiation shield, comprising: a chamber including an aperture and a near-infrared detector having at least one detector element, the chamber composed of a thermally conductive material having a thermal conductivity greater than 30 Watts per meter-Kelvin, the detector disposed within the chamber and opposite the aperture; and a cooling device in thermal contact with the chamber and the detector, the cooling device structured to lower the temperature of the chamber to reduce the emission from the chamber of unwanted thermal radiation incident upon the detector, wherein the aperture is configured to enable the detector to receive electromagnetic signals in a desired operational wavelength range from a spectrograph, wherein the desired operational wavelength range is 0.4 to 2.5 microns, and the electromagnetic signals are Raman signals, wherein the cooling device is configured to lower the temperature of the chamber to a temperature, so that the unwanted thermal radiation emitted or reflected from the chamber is sufficiently low so as to not significantly elevate the inherent detector dark current generated by the detector, thereby improving the signal to noise ratio of the detector. a chamber including an aperture and a near-infrared detector having at least one detector element, the chamber composed of a thermally conductive material having a thermal conductivity greater than 30 Watts per meter-Kelvin, the detector disposed within the chamber and opposite the aperture; and a cooling device in thermal contact with the chamber and the detector, the cooling device structured to lower the temperature of the chamber to reduce the emission from the chamber of unwanted thermal radiation incident upon the detector, wherein the aperture is configured to enable the detector to receive electromagnetic signals in a desired operational wavelength range from a spectrograph, wherein the desired operational wavelength range is 0.4 to 2.5 microns, and the electromagnetic signals are Raman signals, wherein the cooling device is configured to lower the temperature of the chamber to a temperature, so that the unwanted thermal radiation emitted or reflected from the chamber is sufficiently low so as to not significantly elevate the inherent detector dark current generated by the detector, thereby improving the signal to noise ratio of the detector.