mhurhangee/ep-ind-claims huggingface dataset:
A method executed by an apparatus, the method comprising: receiving characteristics of first signals generated by one or more environmental sensors at a mobile device; receiving characteristics of second signals generated by one or more environmental sensors at a reference device (118, 120) at a known location; comparing said characteristics of said first signals with said characteristics of said second signals that were generated at regular intervals; determining that said mobile device is at least proximate to said known location based, at least in part, on said comparison; and further comprising transmitting a request to said reference device (118, 120) in response to said receiving said characteristics of said first signals, wherein said characteristics of said second signals are received in response to said transmitted request. receiving characteristics of first signals generated by one or more environmental sensors at a mobile device; receiving characteristics of second signals generated by one or more environmental sensors at a reference device (118, 120) at a known location; comparing said characteristics of said first signals with said characteristics of said second signals that were generated at regular intervals; determining that said mobile device is at least proximate to said known location based, at least in part, on said comparison; and further comprising transmitting a request to said reference device (118, 120) in response to said receiving said characteristics of said first signals, wherein said characteristics of said second signals are received in response to said transmitted request.
Laminated pane, at least comprising: - an outer pane and an inner pane, which are connected to one another via an intermediate layer, and - at least one light-diffusing glass fiber, which is suitable for emitting light by diffusion via its side wall along its extension length, and which consists of at least one glass fiber core surrounded by one or more layers that are arranged in the form of a sheath around the glass fiber core and that have a plurality of diffusion centers in the form of nanopores or nanoparticles, the glass fiber being arranged at least in portions between the intermediate layer and the outer pane and/or between the intermediate layer and the inner pane. - an outer pane and an inner pane, which are connected to one another via an intermediate layer, and - at least one light-diffusing glass fiber, which is suitable for emitting light by diffusion via its side wall along its extension length, and which consists of at least one glass fiber core surrounded by one or more layers that are arranged in the form of a sheath around the glass fiber core and that have a plurality of diffusion centers in the form of nanopores or nanoparticles, the glass fiber being arranged at least in portions between the intermediate layer and the outer pane and/or between the intermediate layer and the inner pane.
A method of wireless communication performed by an integrated access and backhaul, IAB, node, comprising: transmitting, to a parent node of the IAB node, full-duplex, FD, information based at least in part on a transmit power value for an FD mode; receiving an FD resource allocation for the IAB node, wherein the FD resource allocation identifies a resource to be used for a first communication link with the parent node in the FD mode and a second communication link with a child node of the IAB node or an access link to a User Equipment, UE, in the FD mode, and wherein the FD resource allocation is based at least in part on the FD information; and communicating on the first communication link and the second communication link in accordance with the FD resource allocation. transmitting, to a parent node of the IAB node, full-duplex, FD, information based at least in part on a transmit power value for an FD mode; receiving an FD resource allocation for the IAB node, wherein the FD resource allocation identifies a resource to be used for a first communication link with the parent node in the FD mode and a second communication link with a child node of the IAB node or an access link to a User Equipment, UE, in the FD mode, and wherein the FD resource allocation is based at least in part on the FD information; and communicating on the first communication link and the second communication link in accordance with the FD resource allocation.
A method for limiting blade pitch, said method comprising: providing a brake assembly that is actuatable to limit blade pitch; providing a limit stop assembly including a stop wheel and a traveler (180,186) movable relative to the stop wheel; and coupling the limit stop assembly to the brake assembly such that the limit stop assembly actuates the brake assembly when the traveler engages the stop wheel; characterized in that the method further comprises: providing a motor (258,278) configured to adjust a position of the traveler relative to the stop wheel; providing a sensor (290,292) configured to detect a position of the traveler (180,186); and providing a system controller configured to at least one of communicate with the sensor to monitor a position of the traveler and actuate the motor to adjust the position of the traveler relative to the stop wheel. providing a brake assembly that is actuatable to limit blade pitch; providing a limit stop assembly including a stop wheel and a traveler (180,186) movable relative to the stop wheel; and coupling the limit stop assembly to the brake assembly such that the limit stop assembly actuates the brake assembly when the traveler engages the stop wheel; characterized in that the method further comprises: providing a motor (258,278) configured to adjust a position of the traveler relative to the stop wheel; providing a sensor (290,292) configured to detect a position of the traveler (180,186); and providing a system controller configured to at least one of communicate with the sensor to monitor a position of the traveler and actuate the motor to adjust the position of the traveler relative to the stop wheel. providing a motor (258,278) configured to adjust a position of the traveler relative to the stop wheel; providing a sensor (290,292) configured to detect a position of the traveler (180,186); and providing a system controller configured to at least one of communicate with the sensor to monitor a position of the traveler and actuate the motor to adjust the position of the traveler relative to the stop wheel.
An integrated electrostatic sensor for detecting charged dust particles in an engine, the sensor comprising: an outer housing; an electrode configured within the outer housing, wherein the electrode has an impedance of greater than 1 G-Ohm, the electrode comprising a first end and a second end separated by a predetermined length, the second end comprising a sensing face that is substantially flush with an edge of the outer housing, configured such that electrons within the electrode move as charged dust particles flow past the sensing face; an amplifier configured within the outer housing and electrically coupled to the electrode, wherein the amplifier has a leakage current of from about 1 femtoampere to 5 femtoamperes, the amplifier configured to detect electron movement as a function of dust level; and a circuit board configured within the outer housing and electrically coupled to the amplifier, the circuit board configured to send one or more signals to a controller of the engine indicative of the dust level. an outer housing; an electrode configured within the outer housing, wherein the electrode has an impedance of greater than 1 G-Ohm, the electrode comprising a first end and a second end separated by a predetermined length, the second end comprising a sensing face that is substantially flush with an edge of the outer housing, configured such that electrons within the electrode move as charged dust particles flow past the sensing face; an amplifier configured within the outer housing and electrically coupled to the electrode, wherein the amplifier has a leakage current of from about 1 femtoampere to 5 femtoamperes, the amplifier configured to detect electron movement as a function of dust level; and a circuit board configured within the outer housing and electrically coupled to the amplifier, the circuit board configured to send one or more signals to a controller of the engine indicative of the dust level.
A method for producing molded bodies from a hydraulically settable mixture, the method comprising the steps of: - Providing at least a mesh structure; - Filling the mesh structure with a hydraulically settable mixture, to which an admixture is added prior to filling, the admixture comprising a setting accelerator, the hydraulically settable mixture being a concrete composition or a mortar composition, whereby during filling the hydraulically settable mixture is conveyed through a conduit, wherein the admixture is admixed with the hydraulically settable mixture at a section of said conduit, and wherein said section comprises a tubular cavity for conducting the hydraulically settable mixture along an intended flow direction; - and overspraying the outside of the mesh structure with a sprayed concrete; characterized in that a static flow-influencing element projects into the cavity, on which there is an opening leading into the cavity for the introduction of the admixture. - Providing at least a mesh structure; - Filling the mesh structure with a hydraulically settable mixture, to which an admixture is added prior to filling, the admixture comprising a setting accelerator, the hydraulically settable mixture being a concrete composition or a mortar composition, whereby during filling the hydraulically settable mixture is conveyed through a conduit, wherein the admixture is admixed with the hydraulically settable mixture at a section of said conduit, and wherein said section comprises a tubular cavity for conducting the hydraulically settable mixture along an intended flow direction; - and overspraying the outside of the mesh structure with a sprayed concrete;
A cathode active material composition including particle 1 represented by Chemical Formula 1 below and particle 2 represented by Chemical Formula 2 below: [Chemical Formula 1] Li a1 Ni x1 Co y1 Mn z1 M 1-x1-y1-z1 O 2 [Chemical Formula 2] Li a2 Ni x2 Co y2 Mn z2 M 1-x2-y2-z2 O 2 wherein 0.6≤x1≤0.99, 0.59≤x2≤0.98, 0.5≤a1≤1.5, 0.5≤a2≤1.5, 0.0≤y1≤0.3, 0.0≤y2≤0.3, 0.0≤z1≤0.3, 0.0≤z2≤0.3, 0.0≤1-x1-y1-z1≤0.3, and 0.0≤1-x2-y2-z2≤0.3, and M is one or more elements selected from the group consisting of B, Ba, Ce, Cr, F, Mg, Al, Cr, V, Ti, Fe, Zr, Zn, Si, Y, Nb, Ga, Sn, Mo, W, P, Sr, and combinations thereof, and wherein: the particle 1 represented by Chemical Formula 1 has a size greater than the particle 2 represented by Chemical Formula 2; and x1 and x2 satisfy the condition of 0.01≤x1-x2≤0.4. wherein 0.6≤x1≤0.99, 0.59≤x2≤0.98, 0.5≤a1≤1.5, 0.5≤a2≤1.5, 0.0≤y1≤0.3, 0.0≤y2≤0.3, 0.0≤z1≤0.3, 0.0≤z2≤0.3, 0.0≤1-x1-y1-z1≤0.3, and 0.0≤1-x2-y2-z2≤0.3, and M is one or more elements selected from the group consisting of B, Ba, Ce, Cr, F, Mg, Al, Cr, V, Ti, Fe, Zr, Zn, Si, Y, Nb, Ga, Sn, Mo, W, P, Sr, and combinations thereof, and wherein: the particle 1 represented by Chemical Formula 1 has a size greater than the particle 2 represented by Chemical Formula 2; and x1 and x2 satisfy the condition of 0.01≤x1-x2≤0.4. the particle 1 represented by Chemical Formula 1 has a size greater than the particle 2 represented by Chemical Formula 2; and x1 and x2 satisfy the condition of 0.01≤x1-x2≤0.4.
Microfluidic filter chamber comprising a filter, a venting channel, an inlet channel and an outlet channel, wherein the filter is inserted between the inlet channel and the outlet channel, wherein the venting channel branches off from the inlet channel, wherein the flow through the microfluidic filter chamber is able to be regulated by means of a valve in the venting channel, wherein the venting channel opens into the outlet channel, and the inlet channel and the outlet channel have a widened channel portion in the form of a variable funnel-like cross-sectional surface, which has a larger cross section towards the filter, and wherein the widened channel portion before the filter has a venting channel which opens into the outlet channel.
A method for discharging fluid for applying the fluid into a mask on a circular workpiece of electronic component, the method comprising using a fluid discharge device including a head unit, the head unit including a tank capable of storing the fluid and provided with a first heater, and a discharge head (3, 3a, 3b, 3c), to discharge the fluid from a discharge nozzle by reciprocating the discharge head (3, 3a, 3b, 3c) with respect to the workpiece, after sucking air or the fluid in the mask from a suction port, wherein the head unit has a longitudinal width shorter than a diameter of the workpiece, the discharge head (3, 3a, 3b, 3c) has the suction port for sucking a substance in the mask on the workpiece formed on a forward side of a traveling direction of the discharge head (3, 3a, 3b, 3c), and the discharge nozzle for discharging the fluid formed on a backward side of the traveling direction, and a second heater is provided at a lower end of the discharge nozzle. using a fluid discharge device including a head unit, the head unit including a tank capable of storing the fluid and provided with a first heater, and a discharge head (3, 3a, 3b, 3c), to discharge the fluid from a discharge nozzle by reciprocating the discharge head (3, 3a, 3b, 3c) with respect to the workpiece, after sucking air or the fluid in the mask from a suction port, wherein the head unit has a longitudinal width shorter than a diameter of the workpiece, the discharge head (3, 3a, 3b, 3c) has the suction port for sucking a substance in the mask on the workpiece formed on a forward side of a traveling direction of the discharge head (3, 3a, 3b, 3c), and the discharge nozzle for discharging the fluid formed on a backward side of the traveling direction, and a second heater is provided at a lower end of the discharge nozzle.
A method for controlling photovoltaic power generation, applied to a photovoltaic power generation system, wherein the photovoltaic power generation system comprises at least one photovoltaic string and a control device, the photovoltaic string comprises at least one photovoltaic module, each photovoltaic module comprises a photovoltaic unit and an optimizer that is connected to the photovoltaic unit, and the photovoltaic unit comprises at least one photovoltaic component, and comprising: periodically sending, by the control device, an output voltage reference value update instruction to the optimizer of the at least one photovoltaic module, wherein the output voltage reference value update instruction is used to instruct the optimizer to update an output voltage reference value; and receiving, by the optimizer, the output voltage reference value update instruction, and updating the output voltage reference value according to the output voltage reference value update instruction; wherein the output voltage reference value update instruction is a status parameter identifier, and the status parameter identifier is used to instruct the optimizer to update the output voltage reference value based on a preset adjustment coefficient; or the output voltage reference value update instruction carries an adjustment coefficient determined by the control device, so that the optimizer updates, after receiving the output voltage reference value update instruction, the output voltage reference value based on the adjustment coefficient. periodically sending, by the control device, an output voltage reference value update instruction to the optimizer of the at least one photovoltaic module, wherein the output voltage reference value update instruction is used to instruct the optimizer to update an output voltage reference value; and receiving, by the optimizer, the output voltage reference value update instruction, and updating the output voltage reference value according to the output voltage reference value update instruction; wherein the output voltage reference value update instruction is a status parameter identifier, and the status parameter identifier is used to instruct the optimizer to update the output voltage reference value based on a preset adjustment coefficient; or the output voltage reference value update instruction carries an adjustment coefficient determined by the control device, so that the optimizer updates, after receiving the output voltage reference value update instruction, the output voltage reference value based on the adjustment coefficient.
A method of forming a transparent conductive film that is a thin film containing a crystalline metal oxide as a main component on a glass substrate by a thermal decomposition method, comprising: forming an undercoating film containing silicon oxide as a main component on the glass substrate forming the transparent conductive film composed of fluorine-containing tin oxide by supplying a first raw material containing a tin chloride through a first coater while keeping a surface temperature of the glass substrate at 620 to 750 °C, wherein the thickness of the transparent conductive film is 500 to1000 nm and the film deposition rate for the transparent conductive film is 3500 nm/min or greater; and prior to the forming of the transparent conductive film, forming on the undercoating film, at a film deposition rate slower than a film deposition rate for the transparent conductive film, a buffer layer that is a metal-containing thin film consisting of tin oxide by a thermal decomposition method including supplying a second raw material including a tin chloride through a second coater, wherein the thickness of the buffer layer is 10 to 250 nm, wherein the transparent conductive film is formed directly on the buffer layer. forming an undercoating film containing silicon oxide as a main component on the glass substrate forming the transparent conductive film composed of fluorine-containing tin oxide by supplying a first raw material containing a tin chloride through a first coater while keeping a surface temperature of the glass substrate at 620 to 750 °C, wherein the thickness of the transparent conductive film is 500 to1000 nm and the film deposition rate for the transparent conductive film is 3500 nm/min or greater; and prior to the forming of the transparent conductive film, forming on the undercoating film, at a film deposition rate slower than a film deposition rate for the transparent conductive film, a buffer layer that is a metal-containing thin film consisting of tin oxide by a thermal decomposition method including supplying a second raw material including a tin chloride through a second coater, wherein the thickness of the buffer layer is 10 to 250 nm, wherein the transparent conductive film is formed directly on the buffer layer.
An information processing apparatus comprising first communication means for communicating with a first communication apparatus, and second communication means for wirelessly communicating with each of one or more wireless communication apparatuses, the information processing apparatus further comprising: acquisition means configured to acquire via the first communication means from the first communication apparatus an apparatus ID that is held by the first communication apparatus and that is used for identifying one of the one or more wireless communication apparatuses to or from which the second communication means transmits or receives data; and control means configured to control the second communication means to transmit or receive the data to or from the one of the one or more wireless communication apparatuses that is identified by the apparatus ID acquired by the acquisition means. acquisition means configured to acquire via the first communication means from the first communication apparatus an apparatus ID that is held by the first communication apparatus and that is used for identifying one of the one or more wireless communication apparatuses to or from which the second communication means transmits or receives data; and control means configured to control the second communication means to transmit or receive the data to or from the one of the one or more wireless communication apparatuses that is identified by the apparatus ID acquired by the acquisition means.
Insulating glass element for a glass façade, at least having: 1.1. a glazing, in the form of triple glazing, having an inner pane, a middle pane and an outer pane, wherein at least one spacer is arranged at each border in each case between the inner pane, the middle pane and the outer pane, and in each case forms an intermediate space (8i, 8a), 1.2. at least one fastening element, which engages into one of the intermediate spaces (8i, 8a) in order to fasten the insulating glass element to a fastening surface, characterized by 1.3. at least one securing clamp, which at one end engages into the intermediate space between the inner pane and the middle pane and at the other end engages into at least one groove in the outer pane. 1.1. a glazing, in the form of triple glazing, having an inner pane, a middle pane and an outer pane, wherein at least one spacer is arranged at each border in each case between the inner pane, the middle pane and the outer pane, and in each case forms an intermediate space (8i, 8a), 1.2. at least one fastening element, which engages into one of the intermediate spaces (8i, 8a) in order to fasten the insulating glass element to a fastening surface, characterized by 1.3. at least one securing clamp, which at one end engages into the intermediate space between the inner pane and the middle pane and at the other end engages into at least one groove in the outer pane.
A compound of Formula I wherein: Q is X is hydrogen or C R 4; Z is N or N + →O - and W is O; R 1 is hydrogen or alkyl, substituted with 0, 1 or multiple R 7; R 2 is methyl; R 3 is aryl or a saturated cyclic carbon chain, optionally substituted with 0, 1 or multiple R 7; R 4 is alkoxy or benzyloxy, each optionally substituted with 0, 1, or multiple R 7; R 5 is hydrogen, alkoxy, or halo, each optionally substituted with 0,1, or multiple R 7; R 6 is hydrogen, -C R 8, or -CH 2 OC R 8; R 7 is hydrogen, alkyl, halo, or, alkoxy, each optionally substituted with 0, 1, or multiple R 9; R 8 is alkyl, alkoxy, or aryl, each optionally substituted with 0, 1, or multiple R 7; R 9 is hydrogen, or halo; and R 10 is hydrogen or alkyl, each substituted with 0, 1 or multiple R 7, wherein term "alkyl" refers to a branched, unbranched, or saturated cyclic carbon chain. Q is X is hydrogen or C R 4; Z is N or N + →O - and W is O; R 1 is hydrogen or alkyl, substituted with 0, 1 or multiple R 7; R 2 is methyl; R 3 is aryl or a saturated cyclic carbon chain, optionally substituted with 0, 1 or multiple R 7; R 4 is alkoxy or benzyloxy, each optionally substituted with 0, 1, or multiple R 7; R 5 is hydrogen, alkoxy, or halo, each optionally substituted with 0,1, or multiple R 7; R 6 is hydrogen, -C R 8, or -CH 2 OC R 8; R 7 is hydrogen, alkyl, halo, or, alkoxy, each optionally substituted with 0, 1, or multiple R 9; R 8 is alkyl, alkoxy, or aryl, each optionally substituted with 0, 1, or multiple R 7; R 9 is hydrogen, or halo; and R 10 is hydrogen or alkyl, each substituted with 0, 1 or multiple R 7, wherein term "alkyl" refers to a branched, unbranched, or saturated cyclic carbon chain.