mhurhangee/patent-ind-claim-en huggingface dataset:
A resin composition for a solar cell encapsulant that is a resin composition which is used for forming a solar cell encapsulant, the resin composition comprising: at least one kind of ethylene-polar monomer copolymer (A1) selected from an ethylene-vinyl ester copolymer and an ethylene-unsaturated carboxylic acid ester copolymer; an epoxy group-containing ethylene-based copolymer (A2) (excluding the ethylene-polar monomer copolymer (A1)); an ethylene-α-olefin copolymer (B); and a metal inactivating agent (C). at least one kind of ethylene-polar monomer copolymer (A1) selected from an ethylene-vinyl ester copolymer and an ethylene-unsaturated carboxylic acid ester copolymer; an epoxy group-containing ethylene-based copolymer (A2) (excluding the ethylene-polar monomer copolymer (A1)); an ethylene-α-olefin copolymer (B); and a metal inactivating agent (C).
A method for reducing noise in a coded aperture radar system, the radar system transmitting signals which occur in sweeps, with K sweeps utilized to cover an acquisition of a field of view and Q frequency shifts occurring during at least one sweep, the method comprising: utilizing an array of N antenna elements , the array of antenna elements each having an associated two state modulator coupled therewith; the method being characterised by coding energy received at said array according to a sequence of multibit codes, the number of unique codes in said sequence of codes being equal to N', with N' being greater than 1 and N' unique codes being repeated Q*K times during each acquisition; thereby reducing noise in said radar system compared to a coded aperture radar system having fewer than N' codes in its sequence of multibit codes. utilizing an array of N antenna elements , the array of antenna elements each having an associated two state modulator coupled therewith; the method being characterised by coding energy received at said array according to a sequence of multibit codes, the number of unique codes in said sequence of codes being equal to N', with N' being greater than 1 and N' unique codes being repeated Q*K times during each acquisition; thereby reducing noise in said radar system compared to a coded aperture radar system having fewer than N' codes in its sequence of multibit codes.
A dual-phase mouthwash composition comprising: an orally acceptable vehicle comprising a hydrophilic phase and a hydrophobic phase; a blue dye and/or a blue pigment having a blue to blue-violet color with a hue angle in the CIELAB system from 200 to 320 degrees; and a zinc lactate. an orally acceptable vehicle comprising a hydrophilic phase and a hydrophobic phase; a blue dye and/or a blue pigment having a blue to blue-violet color with a hue angle in the CIELAB system from 200 to 320 degrees; and a zinc lactate.
Method for operating a brushless electric motor , the windings (U, V, W) of which are controlled by an AC converter with the aid of six switches , wherein the AC converter comprises three outputs that are allocated to the windings (U, V, W) of the electric motor and wherein a power semiconductor switch is arranged in each case between the outputs of the AC converter and the windings (U, V, W) and wherein a detection unit for detecting defective switches , a unit for measuring the voltage at the outputs of the AC converter and a motor position angle sensor for determining the motor position angle (φ) are provided, wherein after detecting a defective switch , the AC converter is switched off by a microcontroller in such a manner that power is no longer introduced into the windings (U, V, W) of the electric motor , characterized in that the motor position angle sensor opens the power semiconductor switches in succession in a previously defined motor position angle (φ U , φ V , φ W ), wherein motor angle and motor speed information for securely opening the power semiconductor switches is generated directly from the motor position angle sensor .
Process for the production of a coated substrate comprising cellulosic fibres, the process comprising the steps of: i) providing a first substrate comprising cellulosic fibres and having a dry content of less than 50% by weight; ii) applying a coating composition to the first substrate in a total amount of over 10 g/m 2 and less than 40 g/m 2 , calculated as dry weight of the coating composition, wherein the coating composition comprises: - microfibrillated cellulose (MFC), and - a water retention agent being carboxymethyl cellulose (CMC) in an amount of at least 3% up to 8.5% by weight, calculated as dry weight and based on the dry weight of the MFC, ; and iii) mechanically dewatering the first substrate. i) providing a first substrate comprising cellulosic fibres and having a dry content of less than 50% by weight; ii) applying a coating composition to the first substrate in a total amount of over 10 g/m 2 and less than 40 g/m 2 , calculated as dry weight of the coating composition, wherein the coating composition comprises: - microfibrillated cellulose (MFC), and - a water retention agent being carboxymethyl cellulose (CMC) in an amount of at least 3% up to 8.5% by weight, calculated as dry weight and based on the dry weight of the MFC, ; and - microfibrillated cellulose (MFC), and - a water retention agent being carboxymethyl cellulose (CMC) in an amount of at least 3% up to 8.5% by weight, calculated as dry weight and based on the dry weight of the MFC, ; and iii) mechanically dewatering the first substrate.
A main bearing housing for a wind turbine comprising: a bearing arrangement , an oil sump (42,44;110) located in a floor region of the main bearing housing , the oil sump (42,44;110) comprising a floor pan (61;112) surrounded by a side wall (63;114), and including an overflow arrangement configured to permit oil to spill from the oil sump (42,44;110), wherein the overflow arrangement (74;120) comprises a spill passage (76;122) configured with a spill inlet (78;130) at or near the floor pan of the oil sump (42,44;110) and a spill outlet (80;128) located in a position that is between and spaced apart from, in the direction of gravity, each of the spill inlet (78;130) and an upper edge of the sump side wall, wherein the oil sump (42,44; 110) includes a drain passage . a bearing arrangement , an oil sump (42,44;110) located in a floor region of the main bearing housing , the oil sump (42,44;110) comprising a floor pan (61;112) surrounded by a side wall (63;114), and including an overflow arrangement configured to permit oil to spill from the oil sump (42,44;110), wherein the overflow arrangement (74;120) comprises a spill passage (76;122) configured with a spill inlet (78;130) at or near the floor pan of the oil sump (42,44;110) and a spill outlet (80;128) located in a position that is between and spaced apart from, in the direction of gravity, each of the spill inlet (78;130) and an upper edge of the sump side wall, wherein the oil sump (42,44; 110) includes a drain passage .
Energy supply for a door system , having door control electronics (7.1), a voltage source (7.2) which, during normal operation, supplies at least one electrical component (EK) of the door system with an electrical voltage, and an emergency power supply which comprises at least one electrical energy store and, during emergency operation, supplies the at least one electrical component (EK) of the door system with the electrical voltage, characterized in that the emergency power supply has a modular structure and comprises at least one independent emergency power unit which has the at least one energy store and an evaluation and control circuit on a printed circuit board and is looped into a current path between the voltage source (7.2) and the at least one electrical component (EK) of the door system , wherein the door control electronics (7.1) determine the number of electrical energy stores and the state of charge of the electrical energy stores of the emergency power supply by communicating with the at least one emergency power unit .
Cell culture insert having a hollow cylindrical housing with an upper end-face opening bordered by an edge of the opening and a lower end-face bottom embodied as a membrane, having supporting feet arranged on the bottom edge of the housing and/or on the bottom and protruding downward, with which the housing can be placed on a substrate in a tilt-proof manner at a small uniform distance of the bottom from the substrate, and having at least one carrying arm , which protrudes outward from the housing on the edge of the opening and which can be deposited on an edge of a well of a well plate , characterized in that the carrying arm is embodied as an edge suspension element and for this purpose has a supporting section running radially to the housing and a suspension section spaced from the housing , running down from the supporting section in the direction of the bottom of the housing .
A switching material comprising: (a) one or more than one polymers; (b) an electrolyte comprising: (i) a salt; and (ii) a solvent portion comprising one or more solvents; (c) one or more compounds having electrochromic and photochromic properties dispersed homogeneously through the electrolyte; and wherein the switching material is transitionable from a light state to a dark state on exposure to UV light and from a dark state to a light state with application of an electric voltage; characterised in that the one or more than one polymers are chemically crosslinked with a crosslinking agent selected from the group consisting of: an isocyanate, an epoxide, an aldehyde, and a silane, wherein the crosslinking agent comprises 0.01 wt% to 1 wt% of the switching material. (a) one or more than one polymers; (b) an electrolyte comprising: (i) a salt; and (ii) a solvent portion comprising one or more solvents; (i) a salt; and (ii) a solvent portion comprising one or more solvents; (c) one or more compounds having electrochromic and photochromic properties dispersed homogeneously through the electrolyte; and
A computer implemented method for facilitating automatically adjusting an operational parameter within a heterogeneous mesh network , the method being performed by a Self-Organizing Network, SON, module and comprising the steps of: a. receiving an environmental condition for a heterogeneous mesh network from at least one of at least two multi-RAT base stations in the heterogeneous mesh network , the at least one of the at least two multi-RAT base stations using a Wi-Fi radio for backhaul radio and a Long-Term Evolution, LTE, radio for access radio; b. storing the environmental condition in a memory; c. evaluating the environmental condition; d. determining that the at least one of the at least two multi-RAT base stations is experiencing a backlog or is nearing a capacity threshold on the access radio, based on the environmental condition; and e. instructing the at least one of the at least two multi-RAT base stations to switch the access radio to the backhaul radio and vice-versa, so that the LTE radio is used for backhaul radio and the Wi-Fi radio is used for access radio. a. receiving an environmental condition for a heterogeneous mesh network from at least one of at least two multi-RAT base stations in the heterogeneous mesh network , the at least one of the at least two multi-RAT base stations using a Wi-Fi radio for backhaul radio and a Long-Term Evolution, LTE, radio for access radio; b. storing the environmental condition in a memory; c. evaluating the environmental condition; d. determining that the at least one of the at least two multi-RAT base stations is experiencing a backlog or is nearing a capacity threshold on the access radio, based on the environmental condition; and e. instructing the at least one of the at least two multi-RAT base stations to switch the access radio to the backhaul radio and vice-versa, so that the LTE radio is used for backhaul radio and the Wi-Fi radio is used for access radio.
A system, comprising: a core network, a base station management gateway situated between a multi-radio access technology, multi-RAT, radio access network, RAN, the multi-Rat RAN including both of a 3G RAN and a non-3G RAN, and the core network, the core network including a packet core network and a circuit core network, the base station management gateway providing resource management for a nodeB in the 3G RAN and the base station management gateway providing routing and node management for a base station or access point in the non-3G RAN, wherein the base station management gateway is configured to provide radio resource control, power control, ciphering, and multiplexing of multiple users onto a transmission path for a first 3G mobile device attached to the nodeB; wherein the base station management gateway is configured to relay traffic for a second mobile device attached to the base station; and wherein the base station management gateway is configured to relay traffic to the core circuit network from both the nodeB and the non-3G RAN via an IuCS interface, and configured to relay traffic to the packet core network from both the nodeB and the non-3G RAN.
Anode suitable for physical vapor deposition processes, the surface of the anode being completely or partially covered with an adhesion-reducing thin film of high electrical conductivity, the anode being designed as a hot anode and the thin film with high electrical conductivity being suitable for high anode temperatures, characterized in that the adhesion-reducing thin film has a thickness between 0.1 μm and 3.5 μm, the adhesion-reducing thin film being a ceramic nitride layer.
An oxide fluorescent material having a composition encompassed in a compositional formula represented by the following formula : (Li 1-t M 1 t ) u (Ga 1-v M 2 v ) 5 O w :Cr x ,Ni y ,M 3 z wherein in the formula , M 1 represents at least one kind of an element selected from the group consisting of Na, K, Rb, and Cs; M 2 represents at least one kind of an element selected from the group consisting of B, Al, Sc, In, and a rare earth element; M 3 represents at least one kind of an element selected from the group consisting of Si, Ge, Sn, Ti, Zr, Hf, Bi, V, Nb, and Ta; and t, u, v, w, x, y, and z each satisfy 0 ≤ t ≤ 0.5, 0.7 ≤ u ≤ 1.6, 0 ≤ v ≤ 0.3, 7.85 ≤ w ≤ 11.5, 0.05 ≤ x ≤ 1.2, 0 ≤ y ≤ 0.5, 0.25 < x+y ≤ 1.2, y < x, and 0 ≤ z ≤ 0.5.
A method of fingerprinting devices in a cyber-physical system, the method comprising: sending a command from a master device to a field device to perform a physical operation; observing an event change at a slave device , the event change resulting from a response of the field device to the command; sending, by the slave device , a message indicating the event change; calculating an operation time of the field device based at least in part upon a time at which the message was observed; and generating a fingerprint for the field device based at least in part upon the operation time. sending a command from a master device to a field device to perform a physical operation; observing an event change at a slave device , the event change resulting from a response of the field device to the command; sending, by the slave device , a message indicating the event change; calculating an operation time of the field device based at least in part upon a time at which the message was observed; and generating a fingerprint for the field device based at least in part upon the operation time.
A vibration element like for example a sonotrode with a component (9, 9', 9") fixed thereto, wherein the vibration element has a bore and the component (9, 9', 9") has a fixing portion fitted in the bore , wherein arranged between the fixing portion and the bore is an elastic element which is arranged at least partially within a recess provided in the inside surface of the bore in such a way that the component (9, 9', 9") can be removed from the bore only by elastic deformation of the elastic element , characterised in that the fixing portion has a recess which is preferably in the form of a peripherally extending groove and in which the elastic element which is preferably an O-ring is arranged.
An information processing program executed by a computer included in an information processing apparatus for vibrating a vibrator of a device , the information processing program causing the computer to function as: vibration data generation means (81, S168, S170, S185, S187, S195, S197, S205, S207) for generating vibration data for vibrating the vibrator; function selection means (81, S169, S171, S186, S188, S196, S198, S206, S208) for, in accordance with a use form of the device, selecting a first function or a second function, wherein the use form includes a first use form in which the device including the vibrator has been detached from a main body of the information processing apparatus and is used, and a second use form in which the device including the vibrator has been attached to the main body of the information processing apparatus and is used, and wherein the function selection means selects different functions depending on whether the use form of the device is the first use form or the second use form; amplitude value setting means (81, S169, S171, S186, S188, S196, S198, S206, S208) for, based on an amplitude value (x) in the vibration data and the function selected by the function selection means, setting a new amplitude value (y); and vibration data output means (81, S172, S189, S199, S210) for outputting vibration data including the amplitude value set by the amplitude value setting means to the device. vibration data generation means (81, S168, S170, S185, S187, S195, S197, S205, S207) for generating vibration data for vibrating the vibrator; function selection means (81, S169, S171, S186, S188, S196, S198, S206, S208) for, in accordance with a use form of the device, selecting a first function or a second function, wherein the use form includes a first use form in which the device including the vibrator has been detached from a main body of the information processing apparatus and is used, and a second use form in which the device including the vibrator has been attached to the main body of the information processing apparatus and is used, and wherein the function selection means selects different functions depending on whether the use form of the device is the first use form or the second use form; amplitude value setting means (81, S169, S171, S186, S188, S196, S198, S206, S208) for, based on an amplitude value (x) in the vibration data and the function selected by the function selection means, setting a new amplitude value (y); and vibration data output means (81, S172, S189, S199, S210) for outputting vibration data including the amplitude value set by the amplitude value setting means to the device.
A robot interlocking elevator control system comprising: an autonomous vehicle autonomously moving in a building; and an elevator controller controlling operation of an elevator installed in the building and an elevator door upon boarding/alighting of the autonomous vehicle with respect to the elevator through communication with the autonomous vehicle, characterised in that the autonomous vehicle sends a platform standby signal, an under-boarding signal, a boarding completion signal, an under-alighting signal and an alighting completion signal to the elevator controller according to step in performing boarding or alighting operation with respect to the elevator, and the elevator controller selects, as an opening standby time of the elevator door, any one of a general opening standby time set for shared use of the elevator by both human passengers and robots and a robot opening standby time set for exclusive use of the elevator by the robots, and determines whether disablement of a door close button of the elevator is to be set or released, depending on reception of a signal sent from the autonomous vehicle and whether the elevator allocated to the autonomous vehicle is set to a shared mode allowing shared use of the elevator by human passengers and robots or a robot exclusive mode allowing exclusive use of the elevator by the robots. an autonomous vehicle autonomously moving in a building; and an elevator controller controlling operation of an elevator installed in the building and an elevator door upon boarding/alighting of the autonomous vehicle with respect to the elevator through communication with the autonomous vehicle, characterised in that the autonomous vehicle sends a platform standby signal, an under-boarding signal, a boarding completion signal, an under-alighting signal and an alighting completion signal to the elevator controller according to step in performing boarding or alighting operation with respect to the elevator, and the elevator controller selects, as an opening standby time of the elevator door, any one of a general opening standby time set for shared use of the elevator by both human passengers and robots and a robot opening standby time set for exclusive use of the elevator by the robots, and determines whether disablement of a door close button of the elevator is to be set or released, depending on reception of a signal sent from the autonomous vehicle and whether the elevator allocated to the autonomous vehicle is set to a shared mode allowing shared use of the elevator by human passengers and robots or a robot exclusive mode allowing exclusive use of the elevator by the robots.
An automatic electrode supply apparatus configured to automatically supply an electrode in various processes for manufacturing a secondary battery, the automatic electrode supply apparatus comprising: a first chuck splicing unit comprising a splicing portion having a traveling electrode (A) located thereon; and a second chuck splicing unit comprising a splicing portion having a standby electrode (B) located thereon, characterized in that each of the first and second chuck splicing units comprises an edge position control, EPC, sensor configured to measure a position of an edge of a corresponding one of the traveling electrode (A) and the standby electrode (B), wherein the EPC sensor can avoid distortion or fracture defect of the electrode due to the positional deviation between the traveling electrode (A) and the standby electrode (B), and wherein the EPC sensor comprises a controller configured to compensate the position of the edge of the electrode. a first chuck splicing unit comprising a splicing portion having a traveling electrode (A) located thereon; and a second chuck splicing unit comprising a splicing portion having a standby electrode (B) located thereon, characterized in that each of the first and second chuck splicing units comprises an edge position control, EPC, sensor configured to measure a position of an edge of a corresponding one of the traveling electrode (A) and the standby electrode (B), wherein the EPC sensor can avoid distortion or fracture defect of the electrode due to the positional deviation between the traveling electrode (A) and the standby electrode (B), and wherein the EPC sensor comprises a controller configured to compensate the position of the edge of the electrode.