mhurhangee/patent-ind-claim-en huggingface dataset:
A method implemented in a wireless communication system including a first wireless network and a second wireless network for performing handoff of a mobile wireless device from the first wireless network to the second wireless network , the method comprising: receiving, by the first wireless network, coverage information associated with the mobile wireless device, wherein the received coverage information includes a physical location of the mobile wireless device; determining, by the first wireless network, that the second wireless network is capable of providing coverage for the mobile wireless device at a present location of the mobile wireless device based, at least in part, on the received coverage information, wherein the determining includes determining that the mobile wireless device is not currently covered by the second wireless network; transmitting, by the first wireless network, a handoff request to the second wireless network based, at least in part, on the determination that the second wireless network is capable of providing coverage for the mobile wireless device at the present location of the mobile wireless device; and adapting , by the second wireless network, a coverage area of the second wireless network to provide coverage for the mobile wireless device based, at least in part, on the handoff request. receiving, by the first wireless network, coverage information associated with the mobile wireless device, wherein the received coverage information includes a physical location of the mobile wireless device; determining, by the first wireless network, that the second wireless network is capable of providing coverage for the mobile wireless device at a present location of the mobile wireless device based, at least in part, on the received coverage information, wherein the determining includes determining that the mobile wireless device is not currently covered by the second wireless network; transmitting, by the first wireless network, a handoff request to the second wireless network based, at least in part, on the determination that the second wireless network is capable of providing coverage for the mobile wireless device at the present location of the mobile wireless device; and adapting , by the second wireless network, a coverage area of the second wireless network to provide coverage for the mobile wireless device based, at least in part, on the handoff request.
A method for measuring an Aβ peptide, comprising: mixing i) a blood sample comprising an Aβ (amyloid β) peptide and ii) an antibody that specifically binds to the Aβ peptide, to form a complex of the Aβ peptide and the antibody; releasing the Aβ peptide from the complex with a basic solution comprising an organic solvent; and measuring the released Aβ peptide by mass spectrometry. mixing i) a blood sample comprising an Aβ (amyloid β) peptide and ii) an antibody that specifically binds to the Aβ peptide, to form a complex of the Aβ peptide and the antibody; releasing the Aβ peptide from the complex with a basic solution comprising an organic solvent; and measuring the released Aβ peptide by mass spectrometry.
A kit of parts for use in the removal of calculus from a tooth comprising: a component A comprising at least 1.0 M hydrogen peroxide or a hydrogen peroxide precursor or hydrogen peroxide adduct capable of producing at least 1.0 M hydrogen peroxide; a component B comprising a non-enzymatic, hydrogen peroxide decomposition catalyst for generating oxygen gas, wherein when component B comprises an iodate precursor, the iodate precursor is present in an amount greater than 0.05 M, wherein when component B comprises a Fe(III) complex, the Fe(III) complex is present in an amount of at least 0.02 M; and wherein the kit of parts is to be employed in a method comprising: applying a component A to the tooth; applying a component B to the tooth; wherein components A and B are to be applied simultaneously or sequentially to the tooth, thereby generating oxygen gas to soften and/or loosen at least part of the calculus on the tooth; and removing at least a part of the calculus from the tooth. a component A comprising at least 1.0 M hydrogen peroxide or a hydrogen peroxide precursor or hydrogen peroxide adduct capable of producing at least 1.0 M hydrogen peroxide; a component B comprising a non-enzymatic, hydrogen peroxide decomposition catalyst for generating oxygen gas, wherein when component B comprises an iodate precursor, the iodate precursor is present in an amount greater than 0.05 M, wherein when component B comprises a Fe(III) complex, the Fe(III) complex is present in an amount of at least 0.02 M; and wherein the kit of parts is to be employed in a method comprising: applying a component A to the tooth; applying a component B to the tooth; wherein components A and B are to be applied simultaneously or sequentially to the tooth, thereby generating oxygen gas to soften and/or loosen at least part of the calculus on the tooth; and removing at least a part of the calculus from the tooth. applying a component A to the tooth; applying a component B to the tooth; wherein components A and B are to be applied simultaneously or sequentially to the tooth, thereby generating oxygen gas to soften and/or loosen at least part of the calculus on the tooth; and removing at least a part of the calculus from the tooth.
A computer implemented magnetic resonance imaging MRI visualization method, the method comprising identifying a location of a thermally induced lesion in an MRI image by: deriving a spatial pattern of MRI pixel values , which represents the lesion as it is expected to appear in the MRI image , as a function of thermal energy applied in creating the lesion; matching the MRI image with the spatial pattern of pixel values ; finding a local maximum value in the matched MRI image ; and presenting a location of the local maximum value in the matched MRI image as the location of the lesion. deriving a spatial pattern of MRI pixel values , which represents the lesion as it is expected to appear in the MRI image , as a function of thermal energy applied in creating the lesion; matching the MRI image with the spatial pattern of pixel values ; finding a local maximum value in the matched MRI image ; and presenting a location of the local maximum value in the matched MRI image as the location of the lesion.
An analysis system for identifying a heat source position inside a measurement object (SD), the analysis system comprising: an applying unit configured to apply an AC signal to the measurement object (SD); a light detection unit configured to detect light from the measurement object (SD) due to said applied AC signal and outputting a detection signal; and an analysis unit configured to identify the heat source position based on the detection signal; wherein the applying unit is configured to apply the AC signal according to a trigger signal with a predetermined lock-in cycle to apply the AC signal with an amplitude in an OFF period of the lock-in cycle that is smaller than in an ON period of the lock-in cycle, characterized in that the applying unit is further configured to cause a frequency of the AC signal to be higher than a frequency of the trigger signal. an applying unit configured to apply an AC signal to the measurement object (SD); a light detection unit configured to detect light from the measurement object (SD) due to said applied AC signal and outputting a detection signal; and an analysis unit configured to identify the heat source position based on the detection signal; wherein the applying unit is configured to apply the AC signal according to a trigger signal with a predetermined lock-in cycle to apply the AC signal with an amplitude in an OFF period of the lock-in cycle that is smaller than in an ON period of the lock-in cycle, characterized in that the applying unit is further configured to cause a frequency of the AC signal to be higher than a frequency of the trigger signal.
1. Method for obtaining a multilayer adsorbent filtering item, the method comprising: - coating a porous activated carbon support disposed on a non-woven polyester fibre felt, constituting a first layer with a mixture (A), wherein the mixture (A) contains water, a liquid silicone polymer, and low-foam surfactants, constituting a second layer; next, - coating the second layer with a mixture (B) prepared from potassium permanganate salt and low-foam surfactant in an acidic aqueous medium, thereby forming a third layer; and finally, - drying such that a multilayer adsorbent filtering item is obtained, wherein the liquid silicone polymer is dimethylpolysiloxane and the low-foam surfactants are ethoxylated alcohols. - coating a porous activated carbon support disposed on a non-woven polyester fibre felt, constituting a first layer with a mixture (A), wherein the mixture (A) contains water, a liquid silicone polymer, and low-foam surfactants, constituting a second layer; next, - coating the second layer with a mixture (B) prepared from potassium permanganate salt and low-foam surfactant in an acidic aqueous medium, thereby forming a third layer; and finally, - drying such that a multilayer adsorbent filtering item is obtained, wherein the liquid silicone polymer is dimethylpolysiloxane and the low-foam surfactants are ethoxylated alcohols.
Drive for opening and closing a window sash, a door leaf or the like, having a motorized drive unit which can be integrated in the profile of the window frame or door frame and which, to actuate the window sash or door leaf, interacts with a force transmission element which is flexurally rigid on one side, in particular a chain, which is provided, at its end which can be connected to the sash/leaf, to an end piece which can be fixed in a force transmission element lock which can be integrated in the sash/leaf profile, wherein the end piece of the force transmission element can be fixed in the force transmission element lock via a latching connection and the force transmission element lock is configured in such a way that, in the normal situation, both for motorized opening and closing of the sash/leaf, and when the sash/leaf is closed, the end piece of the force transmission element can be fixed in the force transmission element lock by the latching connection and, for the emergency situation, when the sash/leaf is closed, the latching connection can be manually released from outside by applying a pressing force (F) by means of a tool , in particular a screwdriver or the like, which can be guided through an opening provided in the sash/leaf profile, to free the end piece of the force transmission element, characterized in that the latching connection comprises two mutually opposite bolts or the like which are each mounted so as to be axially displaceable in the force transmission element lock , which bolts extend from mutually opposite sides in a receiving region of the force transmission element lock for the end piece of the force transmission element, are preloaded resiliently towards one another and, to fix the end piece of the force transmission element in the receiving region , can be latched from the two mutually opposite sides into an opening of the end piece of the force transmission element.
Sensor for body monitoring system comprising at least one substrate intended to come into contact with the skin, and at least one microneedle, the microneedle being mounted fixedly on the substrate, the substrate comprising an open channel which surrounds the base of the microneedle, the microneedle having a central axis of symmetry, and the channel having a minimum height (h) in the direction of the central axis greater than 20 μm, and having a minimum width greater than 200 μm in a direction radial to the central axis , the channel forming a cavity in which the microneedle is housed, the substrate comprising at least one open passage defined by the substrate and providing a connection between the channel and the outside so as to renew the air surrounding the base of one or more microneedles .
A device comprising: an endoscope ; an image sensor array, wherein a portion of the image sensor array includes an array of three coplanar sensors disposed to image a plurality of overlapping fields of view (FOV 1 , FOV 2 , FOV 3 ) adjacent to the endoscope, each sensor including a pixel array that is separate from the pixel arrays of other sensors (S 11 -S 33 ); a light source disposed to illuminate the field of view; a display device configured to display images of multiple objects , from the imaged fields of view (FOV 1 , FOV 2 , FOV 3 ); and a controller configured to, select (402.2) at least one region of interest (ROI) within any of the imaged fields of view and to determine three-dimensional locations of two or more of the displayed objects from within the at least one ROI based upon image information captured using the position of pixels of the three coplanar sensors of the image sensor array on which said two or more displayed objects are projected (401-405, 402.3-402.6) and, in response to user input , to display a numerical distance (d Instr Trgt) between the two or more displayed objects within the imaged field of view on the display device , based on the determined three-dimensional locations of the two or more displayed objects. an endoscope ; an image sensor array, wherein a portion of the image sensor array includes an array of three coplanar sensors disposed to image a plurality of overlapping fields of view (FOV 1 , FOV 2 , FOV 3 ) adjacent to the endoscope, each sensor including a pixel array that is separate from the pixel arrays of other sensors (S 11 -S 33 ); a light source disposed to illuminate the field of view; a display device configured to display images of multiple objects , from the imaged fields of view (FOV 1 , FOV 2 , FOV 3 ); and a controller configured to, select (402.2) at least one region of interest (ROI) within any of the imaged fields of view and to determine three-dimensional locations of two or more of the displayed objects from within the at least one ROI based upon image information captured using the position of pixels of the three coplanar sensors of the image sensor array on which said two or more displayed objects are projected (401-405, 402.3-402.6) and, in response to user input , to display a numerical distance (d Instr Trgt) between the two or more displayed objects within the imaged field of view on the display device , based on the determined three-dimensional locations of the two or more displayed objects.
A method of wireless communication, comprising: Determining , by a user equipment , UE, having a plurality of panels , a nominal number of active panels; Indicating the nominal number of active panels to a base station ; Mapping , by the UE , a number of panel identifiers equal to the nominal number of active panels to an actual number of active panels of the plurality of panels ; Determining , by the UE , to autonomously change an activation status of one or more of the plurality of panels ; Remapping the number of panel identifiers to a new number of actual active panels; Receiving , from the base station , a downlink control information, DCI, scheduling a communication based on one of the panel identifiers; Determining a panel for the communication based on the mapping; and communicating according to the DCI using the determined panel . Determining , by a user equipment , UE, having a plurality of panels , a nominal number of active panels; Indicating the nominal number of active panels to a base station ; Mapping , by the UE , a number of panel identifiers equal to the nominal number of active panels to an actual number of active panels of the plurality of panels ; Determining , by the UE , to autonomously change an activation status of one or more of the plurality of panels ; Remapping the number of panel identifiers to a new number of actual active panels; Receiving , from the base station , a downlink control information, DCI, scheduling a communication based on one of the panel identifiers; Determining a panel for the communication based on the mapping; and communicating according to the DCI using the determined panel .
Method for recognising a user whose body is able to retransmit, in the form of an electromagnetic wave (R), a received electromagnetic signal (A), the method being implemented by a transceiver device (M), and comprising the following steps implemented by the device: - transmission (E1) of a pulsed electromagnetic signal (A) ; - obtaining (E2) of an electromagnetic signal retransmitted by his or her body (R) when the user is in proximity to the device, said signal being a function of the pulsed signal transmitted; - comparison (E7) of the retransmitted electromagnetic signal (R) with at least one reference signal of the user; - recognition (E9) of the user as a function of the result of said comparison step (E7); the method being characterised in that said pulsed electromagnetic signal (A) is a near-field electromagnetic signal of the Near Field Communication type. - transmission (E1) of a pulsed electromagnetic signal (A) ; - obtaining (E2) of an electromagnetic signal retransmitted by his or her body (R) when the user is in proximity to the device, said signal being a function of the pulsed signal transmitted; - comparison (E7) of the retransmitted electromagnetic signal (R) with at least one reference signal of the user; - recognition (E9) of the user as a function of the result of said comparison step (E7);
Radiofrequency, RF, generator , arranged to generate an RF output in particular for a plasma application, comprising: at least one cooling element having an upper surface and a lower surface ; at least one DC power supply ; at least one power stage arranged to amplify an RF signal and connected to the upper surface of the at least one cooling element , wherein the power stage comprises one or more power amplifiers ; a driver arranged to supply the power amplifier of the at least one power stage , wherein the driver is connected to the upper surface of the at least one cooling element ; and wherein the at least one DC power supply is connected by a busbar with the power amplifier and the driver , wherein the at least one DC power supply is arranged to supply a DC voltage V busbar to the power amplifier and the driver via the busbar ; characterized in that the busbar comprises a damping network comprising a plurality of capacitors connected between ground and the busbar and configured to shape transients on V busbar . at least one cooling element having an upper surface and a lower surface ; at least one DC power supply ; at least one power stage arranged to amplify an RF signal and connected to the upper surface of the at least one cooling element , wherein the power stage comprises one or more power amplifiers ; a driver arranged to supply the power amplifier of the at least one power stage , wherein the driver is connected to the upper surface of the at least one cooling element ; and wherein the at least one DC power supply is connected by a busbar with the power amplifier and the driver , wherein the at least one DC power supply is arranged to supply a DC voltage V busbar to the power amplifier and the driver via the busbar ; characterized in that the busbar comprises a damping network comprising a plurality of capacitors connected between ground and the busbar and configured to shape transients on V busbar .
Method for operating a wind farm comprising at least two wind turbines , which each have a de-icing system for the rotor blades of the respective wind turbine , characterized in that the alteration of the activation state of the de-icing systems of the wind turbines of the wind farm is controlled in a coordinated manner, and comprises the steps: a) evaluating the operating state of at least one pilot wind turbine selected from the wind turbines of the wind farm ; b) altering the activation state of the de-icing system in the case of the at least one pilot wind turbine ; c) evaluating over again the operating state of the at least one pilot wind turbine ; and d) if an improvement is ascertained in the evaluation of the operating state in the case of at least one pilot wind turbine , altering the activation state of the de-icing system of at least one further wind turbine of the wind farm . a) evaluating the operating state of at least one pilot wind turbine selected from the wind turbines of the wind farm ; b) altering the activation state of the de-icing system in the case of the at least one pilot wind turbine ; c) evaluating over again the operating state of the at least one pilot wind turbine ; and d) if an improvement is ascertained in the evaluation of the operating state in the case of at least one pilot wind turbine , altering the activation state of the de-icing system of at least one further wind turbine of the wind farm .
A powder composition comprising zinc oxide and a silicone surfactant comprising a co-modified organopolysiloxane represented by the following general formula , having more than 30 wt% of content of hydrocarbon group of R 2 having from 6 to 30 carbons which is calculated by weight ratio of R 2 group to total molecular weight of the co-modified organopolysiloxane represented by said structural formula : wherein, in the general formula , R 1 is a monovalent hydrocarbon group having from 1 to 30 carbons, or a hydrogen atom; R 2 is a straight or branched monovalent hydrocarbon group having from 6 to 30 carbons; and Q is a hydrophilic group consisting of a polyoxyalkylene group represented by structural formula below: -(C 2 H 4 O) r -(C 3 H 6 O) s -R 3 wherein, R 3 is a hydrogen atom or an alkyl group having from 1 to 4 carbons, r is a number in a range of 0 to 100, s is a number in a range of 0 to 50, and r+s is a number in a range of 3 to 100; R is a group selected from R 1 , R 2 , and Q; provided that, when n3=0, at least one R is Q; (n1+n2+n3) is a number in a range of 40 to 75; n1 is a number in a range of 1 to 65; n2 is a number in a range of 3 to 20; and n3 is a number in a range of 0 to 5. wherein, in the general formula , R 1 is a monovalent hydrocarbon group having from 1 to 30 carbons, or a hydrogen atom; R 2 is a straight or branched monovalent hydrocarbon group having from 6 to 30 carbons; and Q is a hydrophilic group consisting of a polyoxyalkylene group represented by structural formula below: -(C 2 H 4 O) r -(C 3 H 6 O) s -R 3 wherein, R 3 is a hydrogen atom or an alkyl group having from 1 to 4 carbons, r is a number in a range of 0 to 100, s is a number in a range of 0 to 50, and r+s is a number in a range of 3 to 100; R is a group selected from R 1 , R 2 , and Q; provided that, when n3=0, at least one R is Q; (n1+n2+n3) is a number in a range of 40 to 75; n1 is a number in a range of 1 to 65; n2 is a number in a range of 3 to 20; and n3 is a number in a range of 0 to 5.
A wheel assembly to be coupled to a hub of a vehicle , the wheel assembly comprising: an inner rim to be coupled to the hub of the vehicle; an outer rim surrounding the hub; a plurality of gas springs operatively coupled between said inner rim and said outer rim to provide a gas suspension for relative movement between said inner rim and said outer rim ; and an outer ring coupled to said outer rim, the wheel assembly being characterized in that said outer ring defines a closeable gap with adjacent interior portions of said inner rim to define a mechanical stop to limit relative movement of said inner rim and outer rim . an inner rim to be coupled to the hub of the vehicle; an outer rim surrounding the hub; a plurality of gas springs operatively coupled between said inner rim and said outer rim to provide a gas suspension for relative movement between said inner rim and said outer rim ; and an outer ring coupled to said outer rim, the wheel assembly being characterized in that said outer ring defines a closeable gap with adjacent interior portions of said inner rim to define a mechanical stop to limit relative movement of said inner rim and outer rim .