mhurhangee/patent-ind-claim-en huggingface dataset:
Floating support comprising at least one float and a stabilizing system, comprising at least three liquid reserves and at least three connection tubes , said liquid reserves being distributed in such a way that, in plan view, the centres of said liquid reserves are arranged on at least two separate straight lines, and said connection tubes connecting said liquid reserves for free circulation of said liquid between said liquid reserves , said connection tubes connect all of said liquid reserves to one another, at least one of said connection tubes comprises active restriction means for restricting the passage of said liquid that make it possible to partially hinder/limit the free circulation of the liquid, said connection tubes are arranged at the lower part of said liquid reserves , said reserves of said liquid comprise a gas in their upper parts and at least one pipe for passage of said gas connects at least two liquid reserves , and at least one liquid reserve comprises a connection with a gas from the external environment.
Lighting device for a motor vehicle headlamp, which lighting device comprises the following: - at least two light sources for emitting at least two light beams in a first emission direction (X1), preferably exactly two light sources , the at least two light sources each being designed as at least one light-emitting diode, - a first deflection device with a deflection surface which is set up to deflect at least part of the respective light beam of each of the at least two light sources in a second emission direction (X2), the deflection surface of the first deflection device being designed as a hyperbolic, parabolic or ellipsoidal reflector, and - a second deflecting device with a plurality of independently controllable and movable deflecting elements for deflecting at least a part of the light beam of the light beam deflected by the first deflecting device into a third radiation direction (X3) and for generating a light distribution in front of the lighting device , characterized in that the illumination device comprises at least two expansion optics with a focal point (F1), preferably precisely two expansion optics , each light source being assigned precisely one expansion optic which is set up to expand the light beam emitted by the light source in the direction of the first emission direction (X1), wherein the expanded light beams partially overlap, and wherein the at least two light sources are arranged in the direction of the first radiation direction (X1) between the at least one expansion optics and the focal point (F1) of the expansion optics . - at least two light sources for emitting at least two light beams in a first emission direction (X1), preferably exactly two light sources , the at least two light sources each being designed as at least one light-emitting diode, - a first deflection device with a deflection surface which is set up to deflect at least part of the respective light beam of each of the at least two light sources in a second emission direction (X2), the deflection surface of the first deflection device being designed as a hyperbolic, parabolic or ellipsoidal reflector, and - a second deflecting device with a plurality of independently controllable and movable deflecting elements for deflecting at least a part of the light beam of the light beam deflected by the first deflecting device into a third radiation direction (X3) and for generating a light distribution in front of the lighting device ,
A combination cooking range comprising: one or more burners ; and a fluidic temperature control device including, a heater controller , and a temperature sensor ; wherein the fluidic temperature control device is releasably attachable to a container , and wherein the temperature sensor is configured to control the heater controller to modulate a heat output of the one or more burners; characterised in that the fluid temperature control device includes a fluid agitation device and a heating element ; wherein the temperature sensor is configured to control the heater controller to independently modulate heat output of the heating element; and the temperature sensor is further configured to actuate the fluid agitation device. one or more burners ; and a fluidic temperature control device including, a heater controller , and a temperature sensor ; wherein the fluidic temperature control device is releasably attachable to a container , and wherein the temperature sensor is configured to control the heater controller to modulate a heat output of the one or more burners; characterised in that the fluid temperature control device includes a fluid agitation device and a heating element ; wherein the temperature sensor is configured to control the heater controller to independently modulate heat output of the heating element; and the temperature sensor is further configured to actuate the fluid agitation device.
A method of authenticating a mobile device in a second network, the mobile device already being authenticated in a first network, the method comprising, at a first authentication device in the first network; prior to generating an authentication master key, receiving (S18) at a first authentication node a request for the authentication master key, the request including a second nonce generated by the mobile device, wherein the request is received from a second authentication device in the second network and wherein the first network is a 3GPP network and the second network is a Wireless Local Area Network; generating (S15) the authentication master key associated with the mobile device using a first nonce generated by the first authentication device and the second nonce generated by the mobile device; sending (S16) the generated authentication master key to the second authentication device in the second network; and wherein the generated authentication master key is used (S17) by the second authentication device to authenticate the mobile device in the second network, wherein the authentication master key is a Pairwise Master Key.
A radio communication system comprising: user equipment (UE); one or more call control apparatuses for performing call control; and a plurality of Network Slice instances for processing user data, wherein the user equipment (UE) includes a first communication processor adapted to transmit, to the one or more call control apparatuses , an access request signal including identifying information for identifying one Network Slice instance of the plurality of Network Slice instances and an access destination identifier indicating a communication destination of the user data, wherein the one or more call control apparatuses include a second communication processor adapted to transmit the access destination identifier to the one Network Slice instance identified by the identifying information, and wherein the one Network Slice instance includes a setting unit adapted to establish a communication path of the user data between the communication destination indicated by the access destination identifier and the user equipment (UE). user equipment (UE); one or more call control apparatuses for performing call control; and a plurality of Network Slice instances for processing user data, wherein the user equipment (UE) includes a first communication processor adapted to transmit, to the one or more call control apparatuses , an access request signal including identifying information for identifying one Network Slice instance of the plurality of Network Slice instances and an access destination identifier indicating a communication destination of the user data, wherein the one or more call control apparatuses include a second communication processor adapted to transmit the access destination identifier to the one Network Slice instance identified by the identifying information, and wherein the one Network Slice instance includes a setting unit adapted to establish a communication path of the user data between the communication destination indicated by the access destination identifier and the user equipment (UE).
An instant self-heating container , comprising: an outer housing with an open upper end and a closed lower end; a lid attached to the open upper end of the outer housing , the lid comprising a dispenser aperture and an activator chamber ; a piercer disposed inside the activator chamber of the lid ; a reactant disposed inside the outer housing at the closed lower end of the outer housing ; a contents container with a lower end and a sealed upper end and disposed inside the outer housing above the reactant , the contents container containing contents to be heated; characterized by a conduit in fluid communication between the lower end of the contents container and the dispenser aperture of the lid . an outer housing with an open upper end and a closed lower end; a lid attached to the open upper end of the outer housing , the lid comprising a dispenser aperture and an activator chamber ; a piercer disposed inside the activator chamber of the lid ; a reactant disposed inside the outer housing at the closed lower end of the outer housing ; a contents container with a lower end and a sealed upper end and disposed inside the outer housing above the reactant , the contents container containing contents to be heated; characterized by a conduit in fluid communication between the lower end of the contents container and the dispenser aperture of the lid .
A navigation system comprising: a tracker including an infrared, IR, transmitter , an IR receiver , one or more tracking markers , and one or more inertial sensors configured to generate inertial data; and a localization device including an IR receiver , an IR transmitter , and one or more tracking sensors and with the localization device being configured to utilize IR communication according to a first modulation method to: detect a position of the one or more tracking markers of the tracker with the one or more tracking sensors; and communicate, using the IR transmitter, with the IR receiver of the tracker to manage an operating parameter of the tracker; and wherein the localization device is configured to utilize IR communication according to a second modulation method different from the first modulation method to: wirelessly receive, with the IR receiver, the inertial data generated by the tracker and transmitted by the IR transmitter of the tracker in accordance with the managed operating parameter of the tracker.
An embolization coil formed by joining together at least four structural elements arranged in different planes, wherein the at least four structural elements include at least two C-shaped elements , at least one O-shaped element and at least one Ω-shaped element , and wherein the at least two C-shaped elements are arranged in two adjacent planes and are sequentially joined together to form an S-shaped structure, characterized in that the at least two C-shaped elements and the at least one Ω-shaped element are open loops each having an opening and wherein the opening of the Ω-shaped element is smaller than the opening of the C-shaped element .
A composition comprising purified SipA for use in a method of preventing or treating cancer in a mammalian subject in need thereof.
A process for preparing a one component translucent room temperature vulcanisable (RTV) silicone composition comprising the steps of : (i) chain extending a silanol terminated polydiorganosiloxane (ai) by reacting it with a diacetamidosilane chain extender (aii) to form a chain-extended silanol terminated polydiorganosiloxane intermediate (aiii); (ii) reacting the chain-extended silanol terminated polydiorganosiloxane intermediate (aiii) of step (i) with one or more polyalkoxy silane(s) (aiv) of the structure (R 2 -O) (4-b) -Si-R 1 b where b is 0, 1 or 2, R 2 is an alkyl group which may be linear or branched having from 1 to 15 carbons and R 1 may be any suitable group i.e. a monovalent hydrocarbon radical such as R 2 , cycloalkyl groups; alkenyl groups, aryl groups; aralkyl groups aminoalkyl groups, (meth)acrylate groups, glycidyl ether groups and groups obtained by replacing all or part of the hydrogen in the preceding organic groups with halogen; in the presence of a basic end-capping catalyst (av) to form a chain-extended alkoxy end-capped polydiorganosiloxane polymer reaction product (a); (iii) introducing a cross-linker (b), reinforcing silica filler (c) which has optionally been hydrophobically treated, one or more adhesion promoters (e) and one or more tin-based condensation catalysts (f) into the chain-extended alkoxy end-capped polydiorganosiloxane polymer (a); in any suitable order to form a mixture; (iv) Vacuum stripping the mixture of step (iii), and (v) Introducing one or more moisture scavengers (d). (i) chain extending a silanol terminated polydiorganosiloxane (ai) by reacting it with a diacetamidosilane chain extender (aii) to form a chain-extended silanol terminated polydiorganosiloxane intermediate (aiii); (ii) reacting the chain-extended silanol terminated polydiorganosiloxane intermediate (aiii) of step (i) with one or more polyalkoxy silane(s) (aiv) of the structure (R 2 -O) (4-b) -Si-R 1 b where b is 0, 1 or 2, R 2 is an alkyl group which may be linear or branched having from 1 to 15 carbons and R 1 may be any suitable group i.e. a monovalent hydrocarbon radical such as R 2 , cycloalkyl groups; alkenyl groups, aryl groups; aralkyl groups aminoalkyl groups, (meth)acrylate groups, glycidyl ether groups and groups obtained by replacing all or part of the hydrogen in the preceding organic groups with halogen; in the presence of a basic end-capping catalyst (av) to form a chain-extended alkoxy end-capped polydiorganosiloxane polymer reaction product (a); (iii) introducing a cross-linker (b), reinforcing silica filler (c) which has optionally been hydrophobically treated, one or more adhesion promoters (e) and one or more tin-based condensation catalysts (f) into the chain-extended alkoxy end-capped polydiorganosiloxane polymer (a); in any suitable order to form a mixture; (iv) Vacuum stripping the mixture of step (iii), and (v) Introducing one or more moisture scavengers (d).
A DC-to-DC power converter , comprising: - at least two energy buffer units , wherein each energy buffer unit comprises a capacitor and is further configured to receive a first-type voltage component and to respectively produce an output voltage Vb at an output of the DC-to-DC power converter ; and - at least one energy exchanger , wherein the at least one energy exchanger is comprised between two energy buffer units and is configured to exchange energy between two energy buffer units , wherein the at least one energy exchanger is based on a resonant balancer circuitry, wherein the resonant balancer circuitry has a configuration comprising four switches, one resonant capacitor and an inductor, and wherein the resonant capacitor and the inductor are excitable to exchange energy between the capacitors of said energy buffer units . - at least two energy buffer units , wherein each energy buffer unit comprises a capacitor and is further configured to receive a first-type voltage component and to respectively produce an output voltage Vb at an output of the DC-to-DC power converter ; and - at least one energy exchanger , wherein the at least one energy exchanger is comprised between two energy buffer units and is configured to exchange energy between two energy buffer units , wherein the at least one energy exchanger is based on a resonant balancer circuitry, wherein the resonant balancer circuitry has a configuration comprising four switches, one resonant capacitor and an inductor, and wherein the resonant capacitor and the inductor are excitable to exchange energy between the capacitors of said energy buffer units .
A process to convert di-rhamnolipid to mono-rhamnolipid, using an α-L-rhamnosidase enzyme which has a sequence identity of at least 70% with either SEQ ID. 1 or SEQ. ID 2.
A compact cigarette manufacturing machine comprising: a housing enclosing a material chamber , the material chamber having a bottom surface and an open end for receiving materials to be filled in a cigarette tube; a filling pipe disposed on the housing to define a filling tip, wherein the filling pipe extends into a filling cavity , wherein the filling cavity is in communication with the material chamber through an opening of the bottom surface of the material chamber ; a loading element assembled with the housing and slidable along the bottom surface of the material chamber , wherein the loading element is operable to load the materials into the filling cavity through the opening of the bottom surface ; a pusher disposed below the material chamber and operable to move horizontally toward or away form the push spoon in order to compress the materials, characterized by a push spoon slidably disposed inside the filling cavity , wherein the push spoon is operable to deliver the materials in the filling cavity into the cigarette tube when the cigarette tube is loaded on the filling tip; and a presser assembled with the housing and operable to press the materials loaded in the filling cavity . a housing enclosing a material chamber , the material chamber having a bottom surface and an open end for receiving materials to be filled in a cigarette tube; a filling pipe disposed on the housing to define a filling tip, wherein the filling pipe extends into a filling cavity , wherein the filling cavity is in communication with the material chamber through an opening of the bottom surface of the material chamber ; a loading element assembled with the housing and slidable along the bottom surface of the material chamber , wherein the loading element is operable to load the materials into the filling cavity through the opening of the bottom surface ; a pusher disposed below the material chamber and operable to move horizontally toward or away form the push spoon in order to compress the materials, characterized by a push spoon slidably disposed inside the filling cavity , wherein the push spoon is operable to deliver the materials in the filling cavity into the cigarette tube when the cigarette tube is loaded on the filling tip; and a presser assembled with the housing and operable to press the materials loaded in the filling cavity .
An ultrasound device comprising a transducer housing and a non-phased, two-dimensional transducer array comprising a plurality of transducer elements , wherein flush with a front surface of the housing are faces or footprints of the transducer elements , adapted to transmit and receive ultrasound, the device being configured for - generating (S638) a spatial map of all blood vessels (108-112) having a size greater than a minimum size in a region of insonation, based on determining for each transducer element whether each voxel under the footprint of the transducer element has vessel flow information, based on Doppler power detected (S628) by the said transducer element ; - based on said map and responsive to said generating (S638), interrogating a blood vessel, from among said blood vessels, to derive (S644) flow characteristics of said vessel; and - responsive to the deriving (S644) and based on the derived characteristics, anatomically identifying (S648) said vessel. - generating (S638) a spatial map of all blood vessels (108-112) having a size greater than a minimum size in a region of insonation, based on determining for each transducer element whether each voxel under the footprint of the transducer element has vessel flow information, based on Doppler power detected (S628) by the said transducer element ; - based on said map and responsive to said generating (S638), interrogating a blood vessel, from among said blood vessels, to derive (S644) flow characteristics of said vessel; and - responsive to the deriving (S644) and based on the derived characteristics, anatomically identifying (S648) said vessel.
A method of in vitro diagnosing of intracranial hemorrhagic (ICH) stroke in human and differential diagnosing from acute ischemic stroke based on analysis sera levels of the following 5 quantitative peptides: Glu-Phe-Val-Ser-Glu-Thr-Glu-Ser-Arg-Gly-Ser-Glu, Thr-Glu-Thr-Gln-Glu-Lys-Asn-Pro-Leu-Pro-Ser-Lys-Glu-Thr, Lys-Thr-Glu-Thr-Gln-Glu-Lys-Asn-Pro-Leu-Pro-Ser-Lys-Glu-Thr, Arg-Ile-His-Trp-Glu-Ser-Ala-Ser, Ser-Tyr-Ser-Lys-Gln-Phe-Thr-Ser-Ser-Thr-Ser-Tyr-Asn-Arg-Gly are increased 16 folds or more in sera of ICH patients as compared with individuals without stroke and patients with acute ischemic stroke, wherein peptides are detected and measured in serum samples.
A welding device for a secondary battery current collector, comprising: a welding head ; and an anvil block , wherein a welding station is disposed between the welding head and the anvil block , and the welding head is configured to weld a foil to a portion of a composite current collector at the welding station; wherein the welding device is configured to continuously weld the foil to the portion of the composite current collector at the welding station; wherein the welding head is configured as an ultrasonic welding head, the ultrasonic welding head being in rolling contact with the anvil block ; wherein the ultrasonic welding head and the anvil block are respectively configured as cylinders so as to rotate with respect to each other; and wherein a plurality of extrusion welding teeth is arranged on an outer circumferential face of one of the ultrasonic welding head and the anvil block . a welding head ; and an anvil block , wherein a welding station is disposed between the welding head and the anvil block , and the welding head is configured to weld a foil to a portion of a composite current collector at the welding station; wherein the welding device is configured to continuously weld the foil to the portion of the composite current collector at the welding station; wherein the welding head is configured as an ultrasonic welding head, the ultrasonic welding head being in rolling contact with the anvil block ; wherein the ultrasonic welding head and the anvil block are respectively configured as cylinders so as to rotate with respect to each other; and wherein a plurality of extrusion welding teeth is arranged on an outer circumferential face of one of the ultrasonic welding head and the anvil block .
A method for synthesizing a nano-sized mesoporous beta zeolite, the method comprising: mixing silica, a source of aluminum, and tetraethylammonium hydroxide to form an aluminosilicate fluid gel; drying the aluminosilicate fluid gel to form a dried gel mixture; subjecting the dried gel mixture to hydrothermal treatment to produce a zeolite precursor; adding cetyltrimethylammonium bromide (CTAB) to the zeolite precursor under alkaline conditions to form a templated mixture; subjecting the templated mixture to hydrothermal treatment to prepare a CTAB-templated zeolite; washing the CTAB-templated zeolite with distilled water; separating the CTAB-templated zeolite by centrifugation; and drying and calcining the CTAB-templated zeolites to produce the nano-sized mesoporous beta zeolite in a proton form. mixing silica, a source of aluminum, and tetraethylammonium hydroxide to form an aluminosilicate fluid gel; drying the aluminosilicate fluid gel to form a dried gel mixture; subjecting the dried gel mixture to hydrothermal treatment to produce a zeolite precursor; adding cetyltrimethylammonium bromide (CTAB) to the zeolite precursor under alkaline conditions to form a templated mixture; subjecting the templated mixture to hydrothermal treatment to prepare a CTAB-templated zeolite; washing the CTAB-templated zeolite with distilled water; separating the CTAB-templated zeolite by centrifugation; and drying and calcining the CTAB-templated zeolites to produce the nano-sized mesoporous beta zeolite in a proton form.