mhurhangee/patent-ind-claim-en huggingface dataset:
A system for measuring conditions in a wellbore , the system comprising: tubing extending into the wellbore; a first fiber optic cable extending axially along a first surface portion of the tubing and having multiple signal generation gauges for producing a generated acoustic signal by tapping out a light of a predetermined wavelength of the first fiber optic cable, each of the plurality of signal generation gauges located at a predetermined location along the first fiber optic cable, said generated acoustic signal propagating outward from the signal generation gauge and through the tubing; and a second fiber optic cable extending axially along a second surface portion of the tubing and operable to receive a resulting signal of the generated acoustic signal so that wellbore parameters proximate to the predetermined location can be determined, the second fiber optic cable being spaced apart from the first fiber optic cable and being operable to transmit data of the resulting signal to a receiver . tubing extending into the wellbore; a first fiber optic cable extending axially along a first surface portion of the tubing and having multiple signal generation gauges for producing a generated acoustic signal by tapping out a light of a predetermined wavelength of the first fiber optic cable, each of the plurality of signal generation gauges located at a predetermined location along the first fiber optic cable, said generated acoustic signal propagating outward from the signal generation gauge and through the tubing; and a second fiber optic cable extending axially along a second surface portion of the tubing and operable to receive a resulting signal of the generated acoustic signal so that wellbore parameters proximate to the predetermined location can be determined, the second fiber optic cable being spaced apart from the first fiber optic cable and being operable to transmit data of the resulting signal to a receiver .
Machine tool separating device, in particular manual machine tool separating device, having at least one cutting strand and having at least one guide unit , wherein the cutting strand , as seen along a direction running at least substantially perpendicular to a cutting plane of the cutting strand , has a maximum dimension (x) smaller than 4 mm, characterized in that the cutting strand has a multiplicity of blade carrier elements which are connected to one another by means of one of the connecting elements , wherein the connecting element is formed in the shape of a bolt and in one piece with a blade carrier element, wherein the connecting element protrudes along the central axis of the bolt-shaped connecting element .
A process for the preparation of a polyurea-based core-shell microcapsule slurry comprising the steps of: 1) admixing a hydrophobic active ingredient with at least one polyisocyanate having at least three isocyanate functional groups to form an oil phase, provided that the oil phase is essentially free from diisocyanate; 2) dissolving an ionic or non-ionic emulsifier in water to form a water phase, wherein the ionic emulsifier is chosen in the group consisting of gum Arabic, carboxymethyl cellulose, soy protein, sodium caseinate, gelatin, bovine serum albumin, sugar beet pectin, hydrolyzed soy protein, hydrolyzed sericin, Pseudo collagen, Biopolymer SA-N, Pentacare-NA PF, and mixtures thereof and wherein the non-ionic emulsifier is chosen in the group consisting of polyvinyl alcohol, modified polyvinyl alcohol, modified starch, modified cellulose, polysaccharides and mixtures thereof; 3) adding the oil phase to the water phase to form an oil-in-water dispersion; 4) applying conditions sufficient to induce interfacial polymerisation and form microcapsules in form of a slurry; said process being characterized in that : - the at least one polyisocyanate having at least three isocyanate functional groups is present in an amount comprised between 1 and 15 wt% of the oil phase, - no substantial amount of amine or polyamine is added at any stage of the process, and - it does not comprise a further step of adding a cationic polymer to form an outer coating to the microcapsule. 1) admixing a hydrophobic active ingredient with at least one polyisocyanate having at least three isocyanate functional groups to form an oil phase, provided that the oil phase is essentially free from diisocyanate; 2) dissolving an ionic or non-ionic emulsifier in water to form a water phase, wherein the ionic emulsifier is chosen in the group consisting of gum Arabic, carboxymethyl cellulose, soy protein, sodium caseinate, gelatin, bovine serum albumin, sugar beet pectin, hydrolyzed soy protein, hydrolyzed sericin, Pseudo collagen, Biopolymer SA-N, Pentacare-NA PF, and mixtures thereof and wherein the non-ionic emulsifier is chosen in the group consisting of polyvinyl alcohol, modified polyvinyl alcohol, modified starch, modified cellulose, polysaccharides and mixtures thereof; 3) adding the oil phase to the water phase to form an oil-in-water dispersion; 4) applying conditions sufficient to induce interfacial polymerisation and form microcapsules in form of a slurry; - the at least one polyisocyanate having at least three isocyanate functional groups is present in an amount comprised between 1 and 15 wt% of the oil phase, - no substantial amount of amine or polyamine is added at any stage of the process, and - it does not comprise a further step of adding a cationic polymer to form an outer coating to the microcapsule.
A scintillator plate comprising: a substrate , a scintillator arranged over the substrate ; and a protective layer arranged so as to cover the scintillator , wherein the scintillator includes a plurality of columnar crystals containing an alkali metal halide, the protective layer includes a resin layer containing a resin to which particles of a metal oxide are added, wherein a thickness of the resin layer from an apex of each of the plurality of columnar crystals to an upper surface of the resin layer is not less than 10 μm and less than 30 μm, characterized in that a concentration of the particles in the resin layer is not less than 0.15 vol% and less than 7.5 vol%. a substrate , a scintillator arranged over the substrate ; and a protective layer arranged so as to cover the scintillator , wherein the scintillator includes a plurality of columnar crystals containing an alkali metal halide, the protective layer includes a resin layer containing a resin to which particles of a metal oxide are added, wherein a thickness of the resin layer from an apex of each of the plurality of columnar crystals to an upper surface of the resin layer is not less than 10 μm and less than 30 μm, characterized in that a concentration of the particles in the resin layer is not less than 0.15 vol% and less than 7.5 vol%.
A communication method, comprising: obtaining , by a first communication apparatus, first configuration information, wherein the first configuration information comprises configuration information of a first sidelink radio bearer, the first sidelink radio bearer is used to carry a first unicast service between the first communication apparatus and a second communication apparatus, and the first sidelink is a radio link between the first communication apparatus and the second communication apparatus; and sending , by the first communication apparatus, the first configuration information to the second communication apparatus; characterised in that when a sidelink radio bearer of an existing unicast connection between the first communication apparatus and the second communication apparatus does not satisfy a service requirement corresponding to quality of service QoS information of the first unicast service, the first communication apparatus sends the first configuration information to the second communication apparatus. obtaining , by a first communication apparatus, first configuration information, wherein the first configuration information comprises configuration information of a first sidelink radio bearer, the first sidelink radio bearer is used to carry a first unicast service between the first communication apparatus and a second communication apparatus, and the first sidelink is a radio link between the first communication apparatus and the second communication apparatus; and sending , by the first communication apparatus, the first configuration information to the second communication apparatus; characterised in that when a sidelink radio bearer of an existing unicast connection between the first communication apparatus and the second communication apparatus does not satisfy a service requirement corresponding to quality of service QoS information of the first unicast service, the first communication apparatus sends the first configuration information to the second communication apparatus.
Process for the production of methane from carbon from refuse-derived fuel and water comprising the following steps: a) Electrolysis of water to form hydrogen and oxygen; b) Hydro-gasification of carbon from refuse-derived fuel in the presence of hydrogen only, without adding air and/or oxygen and/or water, to obtain methane conducted at a pressure comprised between 1 and 50 bar and a temperature comprised between 300 and 500 °C. a) Electrolysis of water to form hydrogen and oxygen; b) Hydro-gasification of carbon from refuse-derived fuel in the presence of hydrogen only, without adding air and/or oxygen and/or water, to obtain methane conducted at a pressure comprised between 1 and 50 bar and a temperature comprised between 300 and 500 °C.
A method for managing wireless transmission conflicts on a computing device that supports at least two wireless transmitters , and wherein the wireless transmitters are capable of transmitting both control and data information, the method comprising: identifying a potential signal conflict arising from simultaneous transmissions by a first wireless transmitter and a second wireless transmitter currently installed on the computing device; preparing to transmit a first set of data via the first wireless transmitter ; preparing to transmit a second set of data via the second wireless transmitter ; assigning priorities to the first and second sets of data; and transmitting the first set of data and second set of data, via the first wireless transmitter and the second wireless transmitter , respectively, on a non-conflicting basis and in accordance with priorities assigned to the first and second data sets, characterized in that using particular frequency ranges in a particular one of the wireless transmitters is disabled or avoided. identifying a potential signal conflict arising from simultaneous transmissions by a first wireless transmitter and a second wireless transmitter currently installed on the computing device; preparing to transmit a first set of data via the first wireless transmitter ; preparing to transmit a second set of data via the second wireless transmitter ; assigning priorities to the first and second sets of data; and transmitting the first set of data and second set of data, via the first wireless transmitter and the second wireless transmitter , respectively, on a non-conflicting basis and in accordance with priorities assigned to the first and second data sets, characterized in that using particular frequency ranges in a particular one of the wireless transmitters is disabled or avoided.
A base for manual ceramic cutter, said base comprising: - a support surface for the ceramic parts to be cut; - longitudinal displacement guides for a tool-holder head; and - supports supporting the longitudinal displacement guides , characterized in that the base further comprises: - a rigid steel profile in a central longitudinal area, secured to the supports ; and - two lateral platforms mounted on the rigid profile by means of respective longitudinal shafts , with the longitudinal shafts being located adjacent to each other at an upper central region of the rigid profile , wherein the two lateral platforms can be lowered between a horizontal use position, in which the two lateral platforms form the support surface for the ceramic parts to be cut, and an inoperative position in which the base defines a smaller surface area. - a support surface for the ceramic parts to be cut; - longitudinal displacement guides for a tool-holder head; and - supports supporting the longitudinal displacement guides , - a rigid steel profile in a central longitudinal area, secured to the supports ; and - two lateral platforms mounted on the rigid profile by means of respective longitudinal shafts , with the longitudinal shafts being located adjacent to each other at an upper central region of the rigid profile ,
A data communication network connecting a plurality of computation clusters , said data communication network arranged for receiving via N data input ports, N > 1, input signals from one or more first clusters of said plurality of computation clusters and for outputting output signals to one or more second clusters of said plurality of computation clusters via M data output ports, M > 1, said communication network further comprising a segmented bus network for interconnecting clusters of said plurality computation clusters and a control means arranged for concurrently activating up to P parallel data busses of said segmented bus network, thereby forming bidirectional parallel interconnections between P of said N data input ports, P < N, and P of said M data output ports, P < M, via paths of connected and activated segments of said segmented bus network, characterized in that said segments are linked by means of segmentation switches at least partly implemented in a back-end-of-line (BEOL) fabric of at least one electronic integrated circuit wherein said plurality of computation clusters have been fabricated, wherein said segmentation switches are 3-way or 4-way switches, and said N data input ports and said M data output ports are connected via stub segments of the segmented bus network to a subset of said segmentation switches on said P parallel data busses.
Method for detecting a composition of a substance sample which includes at least one first and second component by way of a detector comprising the steps of: a) providing the detector in an active operating state and supplying the substance sample to a measurement cell ; b) generating an electromagnetic field with an adjustable field strength in the measurement cell and detecting a conductivity between a first and a second pole of the measurement cell ; c) detecting a first rise in conductivity between the first and second poles and a field strength prevailing during the first rise ; d) identifying the first component and/or detecting a concentration of the first component of the substance sample on the basis of the first rise in conductivity detected in step c) and the field strength prevailing at that time, characterised in that the first pole is surrounded at least in part by the second pole and that the electromagnetic field is generated by way of a high-frequency generator , which is connected to the first pole . a) providing the detector in an active operating state and supplying the substance sample to a measurement cell ; b) generating an electromagnetic field with an adjustable field strength in the measurement cell and detecting a conductivity between a first and a second pole of the measurement cell ; c) detecting a first rise in conductivity between the first and second poles and a field strength prevailing during the first rise ; d) identifying the first component and/or detecting a concentration of the first component of the substance sample on the basis of the first rise in conductivity detected in step c) and the field strength prevailing at that time,
An optoelectronic code reading apparatus comprising at least one camera-based code reader (12a-b) having an image sensor (20a-b) for recording image data from a reading zone (16a-b) and a control and evaluation unit that comprises a decoding unit (22a-b) for locating code zones in the image data and for reading their code content and a filter unit to determine whether a multiple reading has taken place in which a plurality of codes (34a-b) of different content were read, characterized in that the filter unit furthermore is configured to check the geometry of the code zones in the case of a multiple reading in order to decide which of the plurality of read codes is a valid code and which code is an accidentally read code .
Method for producing a raw wire from a first metal strip and at least one further metal strip by roll profiling, wherein the first metal strip and the at least one further metal strip are formed from different metals having different yield strength, wherein a shell is formed from the first metal strip by the roll profiling in multiple passes by means of multiple roll stands (G1, G2), said shell in the final shape completely surrounding the at least one further metal strip in the circumferential direction, characterized in that , by means of a first group (G1) of roll stands, in multiple passes, firstly exclusively only the first metal strip is formed to give a preliminary shape and then, in a second group (G2) of roll stands, the first metal strip and the at least one further metal strip are formed together to give a final shape, wherein, by means of the roll stands of the first group (G1) for forming the first metal strip into the preliminary shape, a trough shape is formed from the first metal strip as viewed in cross section perpendicular to the longitudinal direction of the metal strip and then the at least one further metal strip is introduced into the interior of the trough shape so as to contact the bottom region of the trough shape, after which the first metal strip and the at least one further metal strip are formed together in clamping connection to one another by the second group (G2) of roll stands.
Method for interaction of a wireless communication device with an identification unit , the wireless communication device being connected with said identification unit , the wireless communication device further operating within a cellular network by means of said identification unit , said identification unit being configured to carry information representing a subscription for operating a wireless communication device in the cellular network, the wireless communication device and the identification unit being adapted to provide each a set of capabilities of operation within the cellular network, wherein the method comprises the following steps performed by the wireless communication device : - determining a first set of information representing the capabilities of the wireless communication device , - determining a second set of information representing the capabilities of the identification unit , wherein the set of capabilities comprises at least one out of: - capability to support a group of radio access technologies, and/or - capability to support a set of services within a certain radio access technology, - analysing the first and the second set of information for differences, - carrying out measures for handling of differences, in case differences have been detected at the analysing step. - determining a first set of information representing the capabilities of the wireless communication device , - determining a second set of information representing the capabilities of the identification unit , - capability to support a group of radio access technologies, and/or - capability to support a set of services within a certain radio access technology, - analysing the first and the second set of information for differences, - carrying out measures for handling of differences, in case differences have been detected at the analysing step.
A user apparatus configured to perform communication with a base station in a mobile communication system, wherein a common search space and a user specific search space are multiplexed in the frequency direction in each of a plurality of predetermined time frames in a predetermined physical downlink control channel transmitted from the base station, the user apparatus comprising: a monitoring control unit configured to monitor, for each : said predetermined time frame, only one of the common search space and the user specific search space in the predetermined physical downlink control channel, wherein monitoring comprises receiving, demodulating and trying blind decoding, wherein the user apparatus is bandwidth restricted with respect to the system's bandwidth. a monitoring control unit configured to monitor, for each : said predetermined time frame, only one of the common search space and the user specific search space in the predetermined physical downlink control channel, wherein monitoring comprises receiving, demodulating and trying blind decoding, wherein the user apparatus is bandwidth restricted with respect to the system's bandwidth.
A method of operating a rotary drilling subassembly, the method comprising: rotating a tool housing of the rotary drilling subassembly at a first rate of rotation; flowing drilling fluid through a turbine to rotate an upper disk of a valve at a second rate of rotation relative to the tool housing , wherein the second rate of rotation is substantially equivalent to, but in the opposite direction of, the first rate of rotation; and driving an electrical generator with the turbine to convert kinetic energy from the turbine to electric energy for storage by a power source . rotating a tool housing of the rotary drilling subassembly at a first rate of rotation; flowing drilling fluid through a turbine to rotate an upper disk of a valve at a second rate of rotation relative to the tool housing , wherein the second rate of rotation is substantially equivalent to, but in the opposite direction of, the first rate of rotation; and driving an electrical generator with the turbine to convert kinetic energy from the turbine to electric energy for storage by a power source .
An electronic device comprising: a display panel having a front surface and a rear surface opposing the front surface, and comprising a plurality of light emitting areas (PXA) each of which is disposed on the front surface and is configured to display light; a light sensing module disposed on the rear surface and comprising a light detection element; a lattice filter disposed between the display panel and the light sensing module , and comprising a plurality of light transmission parts (TOP) spaced apart from one another on the rear surface; and a protection layer (PL) disposed between the display panel and the lattice filter and covering the rear surface of the display panel , wherein the rear surface of the protection layer (PL) faces the lattice filter characterized in that the rear surface of the protection layer (PL) comprises a plurality of uneven portions, the protection layer (PL) has an organic material, and the lattice filter contacts the protection layer (PL) and is disposed along the plurality of uneven portions. a display panel having a front surface and a rear surface opposing the front surface, and comprising a plurality of light emitting areas (PXA) each of which is disposed on the front surface and is configured to display light; a light sensing module disposed on the rear surface and comprising a light detection element; a lattice filter disposed between the display panel and the light sensing module , and comprising a plurality of light transmission parts (TOP) spaced apart from one another on the rear surface; and a protection layer (PL) disposed between the display panel and the lattice filter and covering the rear surface of the display panel , wherein the rear surface of the protection layer (PL) faces the lattice filter characterized in that the rear surface of the protection layer (PL) comprises a plurality of uneven portions, the protection layer (PL) has an organic material, and the lattice filter contacts the protection layer (PL) and is disposed along the plurality of uneven portions.