mhurhangee/patent-ind-claim-en huggingface dataset:
A method for compressive sensing executed by an edge node of a resource-constrained distributed computing network , wherein the edge node is provided with a fixed network capacity (Ø) the method comprising: collecting a raw data signal (X) continuously by a sensor of the edge node of the resource-constrained distributed computing network; dynamically updating a signal energy indicator (Σ) that quantifies a variance in the raw data signal; determining one or more compression characteristics as a function of the signal energy indicator as the signal energy indicator is updated; subsampling the raw data signal in accordance with current values of the one or more compression characteristics to create a compressed data signal (X); comparing a size of the compressed data signal to the fixed network capacity (Ø) and further subsampling the compressed data signal to further compress the compressed data signal to fit the fixed network capacity if the size is greater than that permitted by the fixed network capacity; and transmitting an output that includes the compressed data signal to a centralized node of the resource-constrained distributed computing network. collecting a raw data signal (X) continuously by a sensor of the edge node of the resource-constrained distributed computing network; dynamically updating a signal energy indicator (Σ) that quantifies a variance in the raw data signal; determining one or more compression characteristics as a function of the signal energy indicator as the signal energy indicator is updated; subsampling the raw data signal in accordance with current values of the one or more compression characteristics to create a compressed data signal (X); comparing a size of the compressed data signal to the fixed network capacity (Ø) and further subsampling the compressed data signal to further compress the compressed data signal to fit the fixed network capacity if the size is greater than that permitted by the fixed network capacity; and transmitting an output that includes the compressed data signal to a centralized node of the resource-constrained distributed computing network.
A data processing method comprising: receiving , from each of a plurality of sensors , one of the sensors being a group sensor, the sensors being configured to measure a parameter, the sensors being located at respective locations distributed over an environment, each sensor being configured to measure a value of the parameter at a respective one of a plurality of successive times of a repeating measurement cycle, a signal indicative of the value of the parameter measured by that sensor during the repeating measurement cycle; and determining , based on the values of the parameter measured by the plurality of sensors during the repeating measurement cycle, a value of the parameter at the location of the group sensor at each of the plurality of successive times of the repeating measurement cycle. receiving , from each of a plurality of sensors , one of the sensors being a group sensor, the sensors being configured to measure a parameter, the sensors being located at respective locations distributed over an environment, each sensor being configured to measure a value of the parameter at a respective one of a plurality of successive times of a repeating measurement cycle, one of the sensors being a group sensor, the sensors being configured to measure a parameter, the sensors being located at respective locations distributed over an environment, each sensor being configured to measure a value of the parameter at a respective one of a plurality of successive times of a repeating measurement cycle, a signal indicative of the value of the parameter measured by that sensor during the repeating measurement cycle; and determining , based on the values of the parameter measured by the plurality of sensors during the repeating measurement cycle, a value of the parameter at the location of the group sensor at each of the plurality of successive times of the repeating measurement cycle.
A glazing comprising a glass substrate having a layer of enamel adhered to at least a first portion of a surface of the glass substrate, the enamel comprising 20 to 80 wt% frit and 10 to 50 wt% inorganic pigment, wherein the thickness of the layer of enamel is in the range 2 μm to 50 μm, characterised in that the inorganic pigment has an infra-red reflectance such that the infra-red reflectance of the first portion of the surface of the glass substrate is 37% or higher over a region in the wavelength range 800 nm to 2250 nm.
Wet-chemically oxidised aluminium effect pigments, wherein the wet-chemically oxidised aluminium effect pigments comprise at least one metal oxide layer that is different from aluminium oxide and at least one enveloping non-reactive organic polymer layer and wherein the weight ratio of the metal oxide different from aluminium oxide applied as a metal oxide layer to the wet-chemically produced aluminium oxide layer is within a range of from 1:1 to 1:40, in particular within a range of from 1:2 to 1:25, and the thickness of the wet-chemically produced aluminium oxide layer is within in a range of from 30 nm to 300 nm.
Method for producing a chip-generating cutting tool which is a solid milling cutter and comprises a substrate which is made of carbide or cermet and is at least partially coated with a coating , wherein the cutting tool has at least one rake surface and at least one flank surface , between which at least one cutting edge (62.1) is arranged, wherein at least one segment of the at least one cutting edge (62.1) is formed by the coating and therefore forms a coated cutting-edge segment , wherein, at each point of the coated cutting-edge segment at least within a segment region of the coated cutting-edge segment , a quotient made up of a radius of the coated cutting-edge segment at the respective point divided by a local thickness of the coating is smaller than 0.9, characterized in that the substrate is coated with the coating , wherein, so that, at each point of the coated cutting-edge segment at least within the segment region of the coated cutting-edge segment , the quotient made up of the radius of the coated cutting-edge segment at the respective point divided by the local thickness of the coating is smaller than 0.9, the cutting tool has a cutting part with a diameter and the coating is applied with an average thickness, in that the diameter of the cutting part is greater than the average thickness of the coating by a factor of at most 600, preferably at most 300, particularly preferably at most 100, wherein the average thickness is an average of the thickness of the coating in a region of the at least one flank surface which butts against the segment region, said region butting against the segment region over the entire segment region of the coated cutting-edge segment , as a result of which, following the application of the coating , part of the coating of the cutting edge (62.1) chips away and thus forms a new cutting edge (62.1), wherein a site of rupture, at which the part of the coating has chipped away, forms a new rake surface , as a result of which, at each point of the coated cutting-edge segment within the segment region of the coated cutting-edge segment , the quotient made up of the radius of the coated cutting-edge segment at the respective point divided by the local thickness of the coating is smaller than 0.9, wherein the segment region of the coated cutting-edge segment extends over at least 80% of the coated cutting-edge segment.
Method for simultaneous production of chlorine compounds and carbon neutral compounds using a bioelectrochemical system, that comprises an anode chamber with an anode comprising an electrochemical catalyst, a cathode chamber with a cathode electrode comprising a biocompatible conductive material, which allows the bioelectrical conversion of CO 2 dissolved in an aqueous stream to carbon neutral compounds and clarified water , wherein the electrochemical catalyst in the anode and/or biocompatible conductive material in the cathode are carbon-based electrodes, such as carbon foam, carbon paper, carbon cloth, carbon felt, carbon wool, carbon nanotubes, carbon fibers, activated carbon, vitreous carbon or graphite (in any form); graphene, conductive polymers, dimensionally stable electrodes (DSA), electric conductive diamond (ECD), such as boron-doped diamond (BDD); cobalt, copper, gold, iridium, iron, nickel, palladium, platinum, ruthenium, silver, stainless steel, tin, titanium, tungsten, and combinations thereof, a power source and at least one anion and/or cation exchange membrane separating the anode chamber and the cathode chamber , characterized by the following steps: a) adding bioelectroactive microorganisms selected from Acetitomalacum, Acetoanaerobium, Acetobacterium, Azospira, Blautia, Butyribacterium, Bacteroides, Clostridium, Desulfobacterium, Eubacterium, Geobacter, Geovibrio, Megasphaera, Methanobacterium, Metanobrevibacter, Methanococcus, Morella, Rhodobacter, Sporomusa, Sulfospirillium and/or Thermoanaerobacter, and biocompatible conductive material in the cathode chamber ; b) feeding an aqueous stream into the cathode chamber and converting dissolved CO 2 in the aqueous stream into carbon neutral compounds ; c) feeding a chloride-containing solution in the anode chamber and transforming the chloride-containing solution to chlorine compounds in presence of an electrochemical catalyst; wherein a source of electrons is supplied in whole or in part from the electrochemical oxidation of chloride-containing solution to chlorine compounds in the anode chamber and transferred through an external circuit to the cathode . a) adding bioelectroactive microorganisms selected from Acetitomalacum, Acetoanaerobium, Acetobacterium, Azospira, Blautia, Butyribacterium, Bacteroides, Clostridium, Desulfobacterium, Eubacterium, Geobacter, Geovibrio, Megasphaera, Methanobacterium, Metanobrevibacter, Methanococcus, Morella, Rhodobacter, Sporomusa, Sulfospirillium and/or Thermoanaerobacter, and biocompatible conductive material in the cathode chamber ; b) feeding an aqueous stream into the cathode chamber and converting dissolved CO 2 in the aqueous stream into carbon neutral compounds ; c) feeding a chloride-containing solution in the anode chamber and transforming the chloride-containing solution to chlorine compounds in presence of an electrochemical catalyst;
A brake disc that stops rotation of an axle when a brake pad is pressed on a surface of the brake disc , comprising: a disc main body that is attached to a rotary body integrally rotating with the axle ; and a plurality of build-up layers laminated on a surface of the disc main body , characterized in that the build-up layers are laminated on the surface of the disc main body by means of laser metal deposition welding, the build-up layers are constituted of a laminate formed of two or more layers laminated on the surface of the disc main body , and the laminate includes an inner layer of a matrix which does not include high-melting-point metal particles having a higher melting point than the disc main body , the inner layer being laminated on the disc main body , and an outer layer which is formed on the inner layer and includes the matrix and high-melting-point metal particles having a higher melting point than the disc main body . a disc main body that is attached to a rotary body integrally rotating with the axle ; and a plurality of build-up layers laminated on a surface of the disc main body , characterized in that the build-up layers are laminated on the surface of the disc main body by means of laser metal deposition welding, the build-up layers are constituted of a laminate formed of two or more layers laminated on the surface of the disc main body , and the laminate includes an inner layer of a matrix which does not include high-melting-point metal particles having a higher melting point than the disc main body , the inner layer being laminated on the disc main body , and an outer layer which is formed on the inner layer and includes the matrix and high-melting-point metal particles having a higher melting point than the disc main body . an inner layer of a matrix which does not include high-melting-point metal particles having a higher melting point than the disc main body , the inner layer being laminated on the disc main body , and an outer layer which is formed on the inner layer and includes the matrix and high-melting-point metal particles having a higher melting point than the disc main body .
An implantable device for retracting prostatic tissue of a patient, the implantable device comprising: a shaft having a proximal end and a distal end opposite one another in a direction of a longitudinal axis of the shaft ; characterised by a proximal balloon fixedly attached to the shaft , the proximal balloon positioned closer to the proximal end than the distal end ; a distal balloon fixedly attached to the shaft , the distal balloon positioned closer to the distal end than the proximal end ; and an intermediate balloon fixedly attached to the shaft , the intermediate balloon positioned between the proximal balloon and the distal balloon ; wherein the shaft defines a first lumen in fluid communication with a first reservoir of the proximal balloon and a second reservoir of the distal balloon and fluidically isolated from a third reservoir defined by the intermediate balloon . a shaft having a proximal end and a distal end opposite one another in a direction of a longitudinal axis of the shaft ; characterised by a proximal balloon fixedly attached to the shaft , the proximal balloon positioned closer to the proximal end than the distal end ; a distal balloon fixedly attached to the shaft , the distal balloon positioned closer to the distal end than the proximal end ; and an intermediate balloon fixedly attached to the shaft , the intermediate balloon positioned between the proximal balloon and the distal balloon ; wherein the shaft defines a first lumen in fluid communication with a first reservoir of the proximal balloon and a second reservoir of the distal balloon and fluidically isolated from a third reservoir defined by the intermediate balloon .
A computing system comprising: a storage system ; and one or more processing units to execute processor-executable program code to cause the computing system to: transmit (S410) data of a mixed-reality environment to a first user; receive (S420), from the first user, a command to associate a voice annotation with the mixed-reality environment and with a second user; receive audio signals of a voice annotation from the first user; store (S450) the received audio signals in the storage system; and store (S450) metadata associating the received audio signals with the first user, the second user, and the mixed-reality environment; transmit data of the mixed-reality environment to the second user; receive, from the second user, a command to playback the voice annotation within the mixed-reality environment; and transmit the audio signals of the voice annotation to the second user, wherein only the second user can play back the voice annotation and other users cannot play back the voice annotation. a storage system ; and one or more processing units to execute processor-executable program code to cause the computing system to: transmit (S410) data of a mixed-reality environment to a first user; receive (S420), from the first user, a command to associate a voice annotation with the mixed-reality environment and with a second user; receive audio signals of a voice annotation from the first user; store (S450) the received audio signals in the storage system; and store (S450) metadata associating the received audio signals with the first user, the second user, and the mixed-reality environment; transmit data of the mixed-reality environment to the second user; receive, from the second user, a command to playback the voice annotation within the mixed-reality environment; and transmit the audio signals of the voice annotation to the second user, wherein only the second user can play back the voice annotation and other users cannot play back the voice annotation. transmit (S410) data of a mixed-reality environment to a first user; receive (S420), from the first user, a command to associate a voice annotation with the mixed-reality environment and with a second user; receive audio signals of a voice annotation from the first user; store (S450) the received audio signals in the storage system; and store (S450) metadata associating the received audio signals with the first user, the second user, and the mixed-reality environment; transmit data of the mixed-reality environment to the second user; receive, from the second user, a command to playback the voice annotation within the mixed-reality environment; and transmit the audio signals of the voice annotation to the second user, wherein only the second user can play back the voice annotation and other users cannot play back the voice annotation.
A composition comprising at least one thiosemicarbazone compound for use in a method for the treatment of anti-cancer therapy induced cognitive impairment, the use comprising the step of administering to a patient the composition comprising the at least one thiosemicarbazone compound (Formula II):
A portable inspection unit comprising: a unit body ; a flexible cable having a proximal end portion and a distal end portion, the proximal end portion extending from the unit body ; an imager housing disposed at the distal end of the flexible cable ; a port disposed in a top surface portion of the unit body ; and a grasper extending from a distal end portion of the imager housing , characterized by a trigger mechanism configured to extend and retract the grasper , wherein the trigger mechanism is configured to releasably attach to the grasper at a location accessible through the port allowing insertion and removal of the grasper through the port with respect to the unit body . a unit body ; a flexible cable having a proximal end portion and a distal end portion, the proximal end portion extending from the unit body ; an imager housing disposed at the distal end of the flexible cable ; a port disposed in a top surface portion of the unit body ; and a grasper extending from a distal end portion of the imager housing , characterized by a trigger mechanism configured to extend and retract the grasper , wherein the trigger mechanism is configured to releasably attach to the grasper at a location accessible through the port allowing insertion and removal of the grasper through the port with respect to the unit body .
A T cell genetically modified to express a chimeric antigen receptor (CAR) that comprises an antigen binding domain, a transmembrane domain, and an intracellular signalling domain (CAR T cell) for use in a method of treating a disease, disorder or condition associated with an elevated expression of a tumor antigen, the method comprising administering a first-line therapy and a second-line therapy to a patient in need thereof, wherein: the first-line therapy comprises administering to the patient an effective amount of the CAR T cell by infusion; following the administration of the first-line therapy, cytokine levels in the patient are monitored to determine the appropriate type of second-line therapy to be administered, wherein an increase in the level of IL-6 is detected thereby identifying an IL-6 inhibitor as the appropriate type of second-line therapy, and said IL-6 inhibitor is administered to the patient; and the disease, disorder or condition is cancer. the first-line therapy comprises administering to the patient an effective amount of the CAR T cell by infusion; following the administration of the first-line therapy, cytokine levels in the patient are monitored to determine the appropriate type of second-line therapy to be administered, wherein an increase in the level of IL-6 is detected thereby identifying an IL-6 inhibitor as the appropriate type of second-line therapy, and said IL-6 inhibitor is administered to the patient; and the disease, disorder or condition is cancer.
Printer for printing of printing objects for marking electrical components, having a housing which has a lower housing part and an upper housing part , having a printing space formed inside the housing , having a print head , having an exchangeable ink ribbon cassette , having a receiving device for a printing object to be printed, having a control and evaluation unit and having an input and display unit , wherein the receiving device is movable between a loading and unloading position outside the printing space and a printing position inside the printing space , characterized in that a print head holder , to the underside of which the print head is fastened, is mounted pivotably in the lower housing part in such a manner that in the closed position of the print head holder , the print head is arranged in a working position above the ink ribbon of the ink ribbon cassette , and, in an upwardly pivoted position, the print head holder is arranged at a distance from the ink ribbon cassette , so that an ink ribbon cassette can be inserted into the lower part of the housing, or is removable from the lower part of the housing, and that at least one spring arm is formed on the upper side of the ink ribbon cassette or on the underside of the print head holder in such a manner that the spring arm is deflected in the closed position of the print head holder in such a manner that the ink ribbon cassette has a predetermined distance from the print head .
A method of metalizing a surface of an insulation substrate comprising the steps of: applying an ink composition comprising a metal compound and an ink vehicle, wherein the metal compound is at least one selected from CuFe 0.5 Al 0.5 O 2.5 , CuFe 0.25 Al 0.25 Mn 0.5 O 2.5 , CuFe 0.5 B 0.5 O 2.5 , CuNi 0.5 B 0.5 O 2.5 , and CuGa 0.5 B 0.5 O 2.5 onto a surface to be metalized of the insulation substrate to obtain an insulation substrate with an ink layer; and plating at least one metal layer onto the insulation substrate with the ink layer. applying an ink composition comprising a metal compound and an ink vehicle, wherein the metal compound is at least one selected from CuFe 0.5 Al 0.5 O 2.5 , CuFe 0.25 Al 0.25 Mn 0.5 O 2.5 , CuFe 0.5 B 0.5 O 2.5 , CuNi 0.5 B 0.5 O 2.5 , and CuGa 0.5 B 0.5 O 2.5 onto a surface to be metalized of the insulation substrate to obtain an insulation substrate with an ink layer; and plating at least one metal layer onto the insulation substrate with the ink layer.