mhurhangee/patent-ind-claim-en huggingface dataset:
A torque measuring device comprising a case; a stator arranged in the case; a magnet distantly arranged in the stator at a predetermined gap; a sensing unit detecting a magnetic field generated from between the stator and the magnet ; and a non-magnetic stator holder , characterized in that the case includes a first case formed with a first through hole through which a first shaft passes and a second case formed with a second through hole through which a second shaft passes, the first and second case being interconnected to have a space therebetween, the stator includes a first stator and a second stator each having a ring-shaped body secured at a periphery of the stator holder , and a plurality of stator teeth bent each to be arranged at a predetermined space at the inner surface of the stator holder , and a periphery of the body is formed at a predetermined space with a plurality of fixing pins secured at a periphery of the stator holder and the plurality of fixing pins is bent each to be accommodated at the periphery of the stator holder , the stator holder is formed with a non-magnetic metal material and integrally formed with a stator fixture fixed by the stator and a shaft fixture fixed by the second shaft , the stator fixture is configured to couple the first and second stators at opposite ends of the stator fixture , and the stator fixture includes an accommodating unit protrusively formed at a periphery thereof for accommodating the body of the stator and is formed with tooth insertion holes each at a predetermined space for the state tooth to be circumferentially inserted by the stator teeth and arranged at the inner surface of the stator holder .
The method of claim 1, wherein each of said one or more decision trees comprises a plurality of nodes, each node representing a decision as to a component and/or timing of an instruction to be generated at a decision point.
A recyclable refuse collection vehicle comprising a plurality of refuse storage compartments and at least one recyclable refuse storage compartment ; the recyclable refuse storage compartment comprising an upstanding side wall which forms at least a part of a side of the recyclable refuse collection vehicle ; the upstanding side wall comprising a refuse receiving opening which is suitable for receiving recyclable refuse and delivering the recyclable refuse to the recyclable refuse storage compartment for storage until the recyclable refuse is to be unloaded from the recyclable refuse storage compartment ; the upstanding side wall further comprising a recyclable refuse discharge assembly located below the refuse receiving opening and adjacent a lowermost portion of the upstanding side wall ; with the recyclabe refuse discharge assembly comprising a refuse discharge opening and a rotatable plate hinged along a lower edge of the refuse discharge opening , the recyclable refuse storage compartment further comprising a floor , with the rotatable plate opening outwardly to form a refuse discharge chute leading from the refuse discharge opening and directing recyclable refuse to be discharged from the recyclable refuse storage compartment along the chute and away from the recyclable refuse collection vehicle , characterised in that the floor is sloped upwardly away from the recyclable refuse discharge assembly so as to urge recyclable refuse stored in the recyclable refuse storage compartment towards the recyclable refuse discharge assembly ; that the recyclable refuse discharge assembly is located to a rear of a rearmost wheel on the recyclable refuse collection vehicle ; and that the rotatable plate comprises arc-shaped side wings to prevent any refuse being discharged falling off the side of the rotatable plate .
A control device for a vehicle, the control device comprising: a display unit including a first region and a second region, wherein the first region is different from the second region; a sensing unit configured to sense contact, and lack of contact, of first and second hands with a steering wheel of the vehicle; and a processor configured to switch one of the first region or the second region of the display unit from an inactive state to an active state to permit touch input, wherein the first region corresponds to the first hand and the second region corresponds to the second hand, characterized by the processor being configured to switch one of the first region or the second region of the display unit from an inactive state to an active state to permit touch input, in response to sensing the lack of contact with the steering wheel of a corresponding one of the first and second hands. a display unit including a first region and a second region, wherein the first region is different from the second region; a sensing unit configured to sense contact, and lack of contact, of first and second hands with a steering wheel of the vehicle; and a processor configured to switch one of the first region or the second region of the display unit from an inactive state to an active state to permit touch input, wherein the first region corresponds to the first hand and the second region corresponds to the second hand, characterized by the processor being configured to switch one of the first region or the second region of the display unit from an inactive state to an active state to permit touch input, in response to sensing the lack of contact with the steering wheel of a corresponding one of the first and second hands.
An infrared radiation device comprising a body including a heat generating part and first and second metamaterial structures that are capable of radiating infrared rays having a peak wavelength of a non-Planck distribution upon receipt of thermal energy from the heat generating part , wherein the first metamaterial structure is disposed on a first surface side of the heat generating part and the second metamaterial structure is disposed on a second surface side opposite to the first surface side of the heat generating part .
An ionic liquid comprising fluorine-containing phosphate ester anions of formula below wherein Rf is a perfluoroalkyl group of 1 to 14 carbon atoms, and R 1 is a linear, branched or cyclic alkyl group of 1 to 8 carbon atoms or an aromatic hydrocarbon group of 6 to 10 carbon atoms.
Two-pole arrangement with a precharge circuit and a monitorable electrical component with at least one functional alignment as capacitor and also with a superordinate control processor with a measuring device, for interconnection in the environment of a power distribution network, wherein the monitoring, in particular for protection against an overloading, is implemented by the control processor , which records and evaluates measurement values, wherein the control processor is an integrated part of the precharge circuit, wherein within the precharge circuit a precharge resistor is connected upstream of and in series with the electrical component , which is bridged via a switch arranged in parallel with the precharge resistor , such that the electrical component and the precharge circuit are brought together in a manner permanently optimally coordinated for precharge operation and are installed as a single 2-pole system.
A composition comprising: (i) chelator in the form of ethylenediaminetetraacetic acid (EDTA), present in 0.5 to 2.0 wt.% of the composition; (ii) buffer system in the form of potassium phosphate dibasic and sodium hydroxide, present in a total amount of 10 to 20 wt.% of the composition; (iii) cleaner in the form of diethyl glycol monoethyl ether, present in 2.5 to 10 wt.% of the composition; (iv) solubilizer in the form of propylene glycol, present in 5 to 15 wt.% of the composition; and (v) diluent in the form of water, present in 45 to 80 wt.% of the composition; the composition having a pH of at least 9.5. (i) chelator in the form of ethylenediaminetetraacetic acid (EDTA), present in 0.5 to 2.0 wt.% of the composition; (ii) buffer system in the form of potassium phosphate dibasic and sodium hydroxide, present in a total amount of 10 to 20 wt.% of the composition; (iii) cleaner in the form of diethyl glycol monoethyl ether, present in 2.5 to 10 wt.% of the composition; (iv) solubilizer in the form of propylene glycol, present in 5 to 15 wt.% of the composition; and (v) diluent in the form of water, present in 45 to 80 wt.% of the composition;
Device for determining a seat bone distance, in particular for determining a bicycle saddle size, comprising a pressure sensing device for a location-dependent pressure acquisition comprising a plurality of sensor elements which are configured as conductor paths, a data acquisition device connected to the sensor elements and a data output device connected to the data acquisition device , wherein the pressure sensing device comprises a pressure-dependent resistor element , which cooperates with the sensor elements , and an electrode element , the pressure-dependent resistor element being arranged between the sensor elements and the electrode element . a pressure sensing device for a location-dependent pressure acquisition comprising a plurality of sensor elements which are configured as conductor paths, a data acquisition device connected to the sensor elements and a data output device connected to the data acquisition device , wherein the pressure sensing device comprises a pressure-dependent resistor element , which cooperates with the sensor elements , and an electrode element , the pressure-dependent resistor element being arranged between the sensor elements and the electrode element .
A process for the continuous preparation of semi-crystalline pellets of polyethylene terephthalate homopolymer or copolymer, comprising the steps: (a) forming a melt of polyethylene terephthalate homopolymer or copolymer into pellets by addition of a liquid cooling medium, and cooling to an average pellet temperature within the crystallization temperature range of the polyethylene terephthalate homopolymer or copolymer, wherein the cooling occurs before or during or after the forming into pellets; b) separating the liquid cooling medium from the pellets in a first treatment chamber , wherein the pellets have a temperature T GR and a degree of crystallization of less than 10% after leaving the first treatment chamber ; c) Crystallization of the pellets in a second treatment chamber , characterized in that fixed bed conditions are present in the second treatment chamber and the pellets are heated in the second treatment chamber by the supply of energy from outside by means of a process gas, the process gas having a temperature T Gas which is higher than the sum of the pellet temperature T GR and the temperature increase T KR occurring in the second treatment chamber as a result of released heat of crystallization, i.e. T Gas > (T GR + T KR ), and wherein the pellets at the exit from the second treatment chamber have an average temperature T PH which is higher by 10 to 90°C than the sum of the pellet temperature T GR and the temperature increase T KR occurring due to released heat of crystallization in the second treatment chamber , i.e. (T GR + T KR + 90°C) ≥ T PH ≥ (T GR + T KR + 10°C), wherein the treatment in the second treatment chamber is carried out in several stages, each stage comprising a pair of feed means and discharge means, which open into an associated collecting space, and each stage being carried out with a ratio X of the mass flows of gas (m G ) and pellets (m P ) (X = m G /m P ) of less than 1, particularly preferably less than 0.5. (a) forming a melt of polyethylene terephthalate homopolymer or copolymer into pellets by addition of a liquid cooling medium, and cooling to an average pellet temperature within the crystallization temperature range of the polyethylene terephthalate homopolymer or copolymer, wherein the cooling occurs before or during or after the forming into pellets; b) separating the liquid cooling medium from the pellets in a first treatment chamber , wherein the pellets have a temperature T GR and a degree of crystallization of less than 10% after leaving the first treatment chamber ; c) Crystallization of the pellets in a second treatment chamber ,
A method of manufacturing a conductive element during additive manufacturing of a three-dimensional object , the method being executed by an additive manufacturing system and comprising: dispensing a curable modeling material on a receiving medium to form a layer of the object ; and dispensing a conductive ink on said layer of modeling material to form a conductive element , wherein said curable modeling material is able to form the three-dimensional object on its own, and comprises a sintering inducing agent represented by the general formula: wherein: X is O or NH; Y is a substituted or unsubstituted hydrocarbon chain from 1 to 20 carbon atoms in length; R 1 is H, alkyl or cycloalkyl; Ra and Rb are each independently H, alkyl or cycloalkyl, R 2 -R 4 are each independently an alkyl; and Z is an anion. dispensing a curable modeling material on a receiving medium to form a layer of the object ; and dispensing a conductive ink on said layer of modeling material to form a conductive element , wherein said curable modeling material is able to form the three-dimensional object on its own, and comprises a sintering inducing agent represented by the general formula: wherein: X is O or NH; Y is a substituted or unsubstituted hydrocarbon chain from 1 to 20 carbon atoms in length; R 1 is H, alkyl or cycloalkyl; Ra and Rb are each independently H, alkyl or cycloalkyl, R 2 -R 4 are each independently an alkyl; and Z is an anion. X is O or NH; Y is a substituted or unsubstituted hydrocarbon chain from 1 to 20 carbon atoms in length; R 1 is H, alkyl or cycloalkyl; Ra and Rb are each independently H, alkyl or cycloalkyl, R 2 -R 4 are each independently an alkyl; and Z is an anion.
A computer implemented method for contextually based fulfillment of communication requests via a telephony platform, comprising the steps of: receiving via a telephony-based communication, at a fulfillment center , a user request for a service, wherein the user request includes a dedicated inbound identifier of a telephony system, and wherein the dedicated inbound identifier identifies a service provider capable of fulfilling the user request; extracting, at the fulfilment center, the dedicated inbound identifier from the user request; based on the extracted dedicated inbound identifier, determining, by the fulfillment center, the service provider capable of fulfilling the user request; translating the user request into one or more user intents; creating, by the fulfillment center, a contextual framework based on the user intent, wherein the contextual framework comprises a plurality of information, and wherein the plurality of information is based on the requested service; requesting additional information regarding details of the user intent to complete the contextual framework; and fulfilling the user request using the user intents when the contextual framework is complete, wherein fulfilling the user request comprises: converting the user intent into a service provider request; and sending the request to the service provider for fulfillment. receiving via a telephony-based communication, at a fulfillment center , a user request for a service, wherein the user request includes a dedicated inbound identifier of a telephony system, and wherein the dedicated inbound identifier identifies a service provider capable of fulfilling the user request; extracting, at the fulfilment center, the dedicated inbound identifier from the user request; based on the extracted dedicated inbound identifier, determining, by the fulfillment center, the service provider capable of fulfilling the user request; translating the user request into one or more user intents; creating, by the fulfillment center, a contextual framework based on the user intent, wherein the contextual framework comprises a plurality of information, and wherein the plurality of information is based on the requested service; requesting additional information regarding details of the user intent to complete the contextual framework; and fulfilling the user request using the user intents when the contextual framework is complete, wherein fulfilling the user request comprises: converting the user intent into a service provider request; and sending the request to the service provider for fulfillment. converting the user intent into a service provider request; and sending the request to the service provider for fulfillment.
Screw anchor , in particular expansion or cavity anchor, with an anchor shaft having an expansion section, wherein a sleeve is arranged at the anchor shaft for sealing the screw anchor against a wall, which sleeve comprises a flat wall abutment portion , in which a substantially circular opening is inserted, wherein a circumferential collar framing the opening is moulded-on on at least one side of the wall abutment portion and wherein the wall abutment portion and the at least one circumferential collar is produced in one piece from an elastic, waterproof sealing material, in particular a silicone or rubber material, wherein a collar merges into a bag-shaped section moulded thereon, wherein the anchor shaft is substantially arranged within the bag-shaped section , whereby a complete encapsulation of the screw anchor against the wall is achievable, characterised in that the sleeve is non-detachably connected to the anchor shaft.
A moving robot comprising: a main body for traveling an area formed by a boundary line; a traveler for moving the main body ; an obstacle detector for detecting an obstacle; and a controller configured to control the traveler so that the main body avoids the detected obstacle and is prevented from invading the boundary line and deviating outside the area, set at least transit point between a target point and a starting point to avoid the boundary line or the obstacle when the main body moves, and set a movement path which linearly connects the starting point, the transit point, and the target point to each other; wherein the controller is configured to extract a feature point based on the shape of the area, and the position and shape of the obstacle, and set the at least one transit point based on the feature point; wherein the controller is configured to set a plurality of transit candidates based on the feature point, and set any one of the plurality of transit candidates including the feature point to the transit point; characterized in that : the controller is configured to set a plurality of points spaced by a predetermined distance from the feature point to the plurality of transit candidates. a main body for traveling an area formed by a boundary line; a traveler for moving the main body ; an obstacle detector for detecting an obstacle; and a controller configured to control the traveler so that the main body avoids the detected obstacle and is prevented from invading the boundary line and deviating outside the area, set at least transit point between a target point and a starting point to avoid the boundary line or the obstacle when the main body moves, and set a movement path which linearly connects the starting point, the transit point, and the target point to each other; wherein the controller is configured to extract a feature point based on the shape of the area, and the position and shape of the obstacle, and set the at least one transit point based on the feature point; wherein the controller is configured to set a plurality of transit candidates based on the feature point, and set any one of the plurality of transit candidates including the feature point to the transit point; characterized in that : the controller is configured to set a plurality of points spaced by a predetermined distance from the feature point to the plurality of transit candidates.
A vibration energy harvester for converting mechanical vibrational energy into electrical energy, the vibration energy harvester comprising a device for generating electrical energy when subjected to mechanical vibration; characterized in that the vibration energy harvester comprises a current control circuit electrically connected to the device for providing a substantially constant output current (I out ) at an electrical output of the vibration energy harvester , wherein the current control circuit comprises: a first controllable variable resistance connected to the electrical output of the vibration energy harvester ; a second controllable variable resistance connected to the electrical output of the vibration energy harvester , the second controllable variable resistance comprising a shunt resistance between a power line and a ground line of the device; and a reference voltage generator for generating a preset reference voltage (V ref ), and an error amplifier for comparing an input voltage (V in ) from the device with the reference voltage (V ref ) for generating a first control signal for selectively adjusting the first controllable variable resistance when the input voltage (V in ) is different from the reference voltage (V ref ), wherein the current control circuit is adapted to control the first controllable variable resistance so that an input voltage (V in ) from the device is maintained at a predetermined voltage, wherein the current control circuit is adapted to control the output voltage (V out ) at the electrical output of the vibration energy harvester by varying the second controllable variable resistance so that the output voltage (V out ) does not exceed a predetermined threshold voltage. a first controllable variable resistance connected to the electrical output of the vibration energy harvester ; a second controllable variable resistance connected to the electrical output of the vibration energy harvester , the second controllable variable resistance comprising a shunt resistance between a power line and a ground line of the device; and a reference voltage generator for generating a preset reference voltage (V ref ), and an error amplifier for comparing an input voltage (V in ) from the device with the reference voltage (V ref ) for generating a first control signal for selectively adjusting the first controllable variable resistance when the input voltage (V in ) is different from the reference voltage (V ref ), wherein the current control circuit is adapted to control the first controllable variable resistance so that an input voltage (V in ) from the device is maintained at a predetermined voltage, wherein the current control circuit is adapted to control the output voltage (V out ) at the electrical output of the vibration energy harvester by varying the second controllable variable resistance so that the output voltage (V out ) does not exceed a predetermined threshold voltage.