mhurhangee/patent-ind-claim-en huggingface dataset:
A hydraulic rotator for rotating a tool with respect to a crane arm, the hydraulic rotator comprising: - a first attachment piece for connection to a crane arm and a second attachment piece for connection to a tool; - a stator and a rotor , the rotor being rotatably arranged inside the stator to rotate around an axial axis (A), wherein the stator comprises an inner circumferential surface , and wherein the rotor comprises vanes that are biased to extend radially outwards from vane openings in an external surface of said rotor and abut said inner circumferential surface around its whole periphery, wherein said inner circumferential surface of the stator is limited in an axial direction by a first circumferential rim arranged to be in contact with a first axial end portion of the vanes and a second circumferential rim arranged to be in contact with a second axial end portion of the vanes , to guide said vanes and to provide a sealing with respect to said vanes along both the first and the second axial end portions of the vanes , wherein a first cylindrical portion and a second cylindrical portion of the rotor circumferentially abut the inner circumferential surface of the stator above and below said first and second circumferential rims , respectively, characterised in that a track is formed between the first and second circumferential rims , such that a gap exists between the external surface of the rotor and the inner circumferential surface over the whole periphery of a central portion of the outer surface of the rotor . - a first attachment piece for connection to a crane arm and a second attachment piece for connection to a tool; - a stator and a rotor , the rotor being rotatably arranged inside the stator to rotate around an axial axis (A), wherein the stator comprises an inner circumferential surface , and wherein the rotor comprises vanes that are biased to extend radially outwards from vane openings in an external surface of said rotor and abut said inner circumferential surface around its whole periphery, wherein said inner circumferential surface of the stator is limited in an axial direction by a first circumferential rim arranged to be in contact with a first axial end portion of the vanes and a second circumferential rim arranged to be in contact with a second axial end portion of the vanes , to guide said vanes and to provide a sealing with respect to said vanes along both the first and the second axial end portions of the vanes , wherein a first cylindrical portion and a second cylindrical portion of the rotor circumferentially abut the inner circumferential surface of the stator above and below said first and second circumferential rims , respectively, characterised in that a track is formed between the first and second circumferential rims , such that a gap exists between the external surface of the rotor and the inner circumferential surface over the whole periphery of a central portion of the outer surface of the rotor .
A method for a wireless multi-point communication system supporting coordinated multi-point, CoMP, operation, the wireless communication system having multiple serving cells serving a user equipment, UE, the method comprising: if physical layer data exchanged between the UE and the multiple serving cells correspond to the content of one and the same medium access control, MAC, transport block, TB, associating a single hybrid automatic repeat request, HARQ, entity with the multiple serving cells serving the UE, wherein the single HARQ entity is configured to perform HARQ operations with each of the multiple serving cells serving the UE.
A method for predicting a transformer noise property, comprising predicting a noise property of a transformer in which a grain-oriented electrical steel sheet including a forsterite film and an insulating coating at a surface thereof is used by using a magnetostrictive property III and a magnetostrictive property VI of the transformer, shown below, magnetostrictive property III: the number of acceleration/deceleration points present in a magnetostriction velocity level dλ/dt in one period of magnetostrictive vibration, magnetostrictive property VI: the magnitude of velocity level change between adjacent magnetostriction velocity level change points in an acceleration zone or deceleration zone of magnetostrictive vibration wherein the noise property is predicted as excellent when the magnetostrictive property III is 4, and the magnetostrictive property VI has a maximum value of 3.0×10 -4 sec -1 or less, wherein the magnetostrictive properties are measured using a laser Doppler vibrometer according to the methods disclosed in the description. predicting a noise property of a transformer in which a grain-oriented electrical steel sheet including a forsterite film and an insulating coating at a surface thereof is used by using a magnetostrictive property III and a magnetostrictive property VI of the transformer, shown below, magnetostrictive property III: the number of acceleration/deceleration points present in a magnetostriction velocity level dλ/dt in one period of magnetostrictive vibration, magnetostrictive property VI: the magnitude of velocity level change between adjacent magnetostriction velocity level change points in an acceleration zone or deceleration zone of magnetostrictive vibration magnetostrictive property III: the number of acceleration/deceleration points present in a magnetostriction velocity level dλ/dt in one period of magnetostrictive vibration, magnetostrictive property VI: the magnitude of velocity level change between adjacent magnetostriction velocity level change points in an acceleration zone or deceleration zone of magnetostrictive vibration wherein the noise property is predicted as excellent when the magnetostrictive property III is 4, and the magnetostrictive property VI has a maximum value of 3.0×10 -4 sec -1 or less, wherein the magnetostrictive properties are measured using a laser Doppler vibrometer according to the methods disclosed in the description.
A method of determining corrosion inhibitor concentration in water, comprising: withdrawing a sample of water from an aqueous system, the sample of water comprising a benzimidazole-based compound; adding an acid to the sample of water; exposing the sample of water to light energy of a selected excitation wavelength; measuring an intensity of emitted light about a selected fluorescence emission wavelength; comparing the intensity of the emitted light to a standard curve, the standard curve comprising a plot of fluorescence emission intensity of the benzimidazole-based compound versus concentration of the benzimidazole-based compound; and determining the concentration of the benzimidazole-based compound in the sample of water from the standard curve. withdrawing a sample of water from an aqueous system, the sample of water comprising a benzimidazole-based compound; adding an acid to the sample of water; exposing the sample of water to light energy of a selected excitation wavelength; measuring an intensity of emitted light about a selected fluorescence emission wavelength; comparing the intensity of the emitted light to a standard curve, the standard curve comprising a plot of fluorescence emission intensity of the benzimidazole-based compound versus concentration of the benzimidazole-based compound; and determining the concentration of the benzimidazole-based compound in the sample of water from the standard curve.
An automotive propulsion system, comprising a first propulsion system and a second propulsion system, wherein the first propulsion system comprises: a first motor , a first retarder, a first disconnector , a compressor , and a second disconnector , wherein the first disconnector is disposed in the first retarder, and is configured to implement a connection or disconnection between the first motor and the first retarder, and the second disconnector is disposed between the first retarder and the compressor , and is configured to implement a connection or disconnection between the first motor and the compressor ; and the second propulsion system comprises: a second motor and a second retarder, wherein the second motor is connected to the second retarder, characterized in that the first propulsion system is a front-drive system and the second propulsion system is a rear-drive system, or the first propulsion system is a rear-drive system and the second propulsion system is a front-drive system wherein the first retarder comprises a third transmission member and a fourth transmission member , wherein the fourth transmission member is connected to the first motor by using the third transmission member , and the first disconnector is disposed between the third transmission member and the fourth transmission member , wherein the second disconnector is disposed between the third transmission member and the compressor . the first propulsion system comprises: a first motor , a first retarder, a first disconnector , a compressor , and a second disconnector , wherein the first disconnector is disposed in the first retarder, and is configured to implement a connection or disconnection between the first motor and the first retarder, and the second disconnector is disposed between the first retarder and the compressor , and is configured to implement a connection or disconnection between the first motor and the compressor ; and the second propulsion system comprises: a second motor and a second retarder, wherein the second motor is connected to the second retarder, characterized in that the first propulsion system is a front-drive system and the second propulsion system is a rear-drive system, or the first propulsion system is a rear-drive system and the second propulsion system is a front-drive system wherein the first retarder comprises a third transmission member and a fourth transmission member , wherein the fourth transmission member is connected to the first motor by using the third transmission member , and the first disconnector is disposed between the third transmission member and the fourth transmission member , wherein the second disconnector is disposed between the third transmission member and the compressor .
A device for the external fixation of bones comprising: (i) at least one external support element , (ii) a plurality of bone pins , and (iii) at least one fixing element for fixing a bone pin to the support element, characterized in that the fixing element comprises a top plate , a bottom plate , a plurality of wire elements, wherein the top plate and the bottom plate are spaced part to receive a bone pin between them, wherein the bottom plate is in contact with the support element , and wherein the wire elements are fixed into the top plate , slidingly pass through the bottom plate and are adapted to fit around the support element . (i) at least one external support element , (ii) a plurality of bone pins , and (iii) at least one fixing element for fixing a bone pin to the support element, characterized in that the fixing element comprises a top plate , a bottom plate , a plurality of wire elements, wherein the top plate and the bottom plate are spaced part to receive a bone pin between them, wherein the bottom plate is in contact with the support element , and wherein the wire elements are fixed into the top plate , slidingly pass through the bottom plate and are adapted to fit around the support element . characterized in that the fixing element comprises a top plate , a bottom plate , a plurality of wire elements, wherein the top plate and the bottom plate are spaced part to receive a bone pin between them, wherein the bottom plate is in contact with the support element , and wherein the wire elements are fixed into the top plate , slidingly pass through the bottom plate and are adapted to fit around the support element .
An LED package , comprising: an electrically insulating submount having a top surface and bottom surface ; a plurality of top electrically and thermally conductive elements that cover at least 70% of said top surface of said submount; an LED on one of said top electrically and thermally conductive elements, an electrical signal applied to said top electrically and thermally conductive elements causing said LED to emit light, said top electrically and thermally conductive elements spreading heat from said LED across a majority of said top surface of said submount; a bottom thermally conductive element directly on said bottom surface not in electrical contact with said top electrically and thermally conductive elements and conducting heat from said submount; a lens formed directly over said LED; and a protective layer extending from an edge of said lens to an edge of said top surface of said submount, said protective layer covering said top surface and said top electrically and thermally conductive elements. an electrically insulating submount having a top surface and bottom surface ; a plurality of top electrically and thermally conductive elements that cover at least 70% of said top surface of said submount; an LED on one of said top electrically and thermally conductive elements, an electrical signal applied to said top electrically and thermally conductive elements causing said LED to emit light, said top electrically and thermally conductive elements spreading heat from said LED across a majority of said top surface of said submount; a bottom thermally conductive element directly on said bottom surface not in electrical contact with said top electrically and thermally conductive elements and conducting heat from said submount; a lens formed directly over said LED; and a protective layer extending from an edge of said lens to an edge of said top surface of said submount, said protective layer covering said top surface and said top electrically and thermally conductive elements.
A fuel injector for a gas turbine, comprising: a fuel delivery tube structure disposed along a central axis of the fuel injector, the fuel delivery tube structure surrounded by a shroud ; a first fuel supply channel arranged in the fuel delivery tube structure , wherein a first fuel flows in the first fuel supply channel ; a plurality of vanes arranged between the fuel delivery tube structure and the shroud ; a radial passage in each vane, the radial passage in fluid communication with the first fuel supply channel to receive the first fuel of the first fuel supply channel and a second fuel supply channel arranged in the fuel delivery tube structure , the second fuel supply channel extending to a downstream end of the fuel delivery tube structure , wherein a second fuel flows in the second fuel supply channel , wherein a mixer with a plurality of lobes for fuel injection of the second fuel of the second fuel supply channel is arranged at the downstream end, wherein the delivery tube structure comprises coaxially disposed inner and outer tubes , characterised in that the radial passage is configured to branch into a set of axial passages each having an aperture arranged to inject the first fuel in a direction of air flow; and in that the inner tube comprises the second fuel supply channel , and wherein the first fuel supply channel is annularly disposed between the inner and the outer tubes . a fuel delivery tube structure disposed along a central axis of the fuel injector, the fuel delivery tube structure surrounded by a shroud ; a first fuel supply channel arranged in the fuel delivery tube structure , wherein a first fuel flows in the first fuel supply channel ; a plurality of vanes arranged between the fuel delivery tube structure and the shroud ; a radial passage in each vane, the radial passage in fluid communication with the first fuel supply channel to receive the first fuel of the first fuel supply channel and a second fuel supply channel arranged in the fuel delivery tube structure , the second fuel supply channel extending to a downstream end of the fuel delivery tube structure , wherein a second fuel flows in the second fuel supply channel , wherein a mixer with a plurality of lobes for fuel injection of the second fuel of the second fuel supply channel is arranged at the downstream end,
Protective enclosure for a media guide , comprising a hose , which consists of textile material and which forms a multi-chamber system with a plurality of chambers , wherein the chambers extend along the longitudinal axis of the hose , wherein a central chamber is formed for guidance of the media guide and wherein a respective protective element is guided in each of outer chambers connected with the outer circumferential surfaces of the central chamber .
Use of a curable adhesive composition precursor for bonding metal parts in manufacturing operations in the automotive industry, wherein the curable adhesive composition precursor comprises (a) a first part (A) comprising: (i) at least one diamine in an amount of from 10 to 50 wt.-% based on the total weight of part (A); (ii) at least one amine epoxy curing agent based on a phenolic lipid in an amount of from 10 to 50 wt.-% based on the total weight of part (A); (iii) at least one inorganic filler material in an amount of from 10 to 60 wt.-% based on the total amount of part (A); (b) a second part (B) comprising: (i) at least one first epoxy resin in an amount of from 15 to 60 wt.-% based on the total amount of part (B)); (ii) at least one viscosity modifier in an amount of from 1 to 25 wt.-%, based on the total weight of part (B); (iii) at least one epoxy-reactive flexibilizer in an amount of from 0.1 to 10 wt.-% based on the total amount of part (B). (a) a first part (A) comprising: (i) at least one diamine in an amount of from 10 to 50 wt.-% based on the total weight of part (A); (ii) at least one amine epoxy curing agent based on a phenolic lipid in an amount of from 10 to 50 wt.-% based on the total weight of part (A); (iii) at least one inorganic filler material in an amount of from 10 to 60 wt.-% based on the total amount of part (A); (i) at least one diamine in an amount of from 10 to 50 wt.-% based on the total weight of part (A); (ii) at least one amine epoxy curing agent based on a phenolic lipid in an amount of from 10 to 50 wt.-% based on the total weight of part (A); (iii) at least one inorganic filler material in an amount of from 10 to 60 wt.-% based on the total amount of part (A); (b) a second part (B) comprising: (i) at least one first epoxy resin in an amount of from 15 to 60 wt.-% based on the total amount of part (B)); (ii) at least one viscosity modifier in an amount of from 1 to 25 wt.-%, based on the total weight of part (B); (iii) at least one epoxy-reactive flexibilizer in an amount of from 0.1 to 10 wt.-% based on the total amount of part (B). (i) at least one first epoxy resin in an amount of from 15 to 60 wt.-% based on the total amount of part (B)); (ii) at least one viscosity modifier in an amount of from 1 to 25 wt.-%, based on the total weight of part (B); (iii) at least one epoxy-reactive flexibilizer in an amount of from 0.1 to 10 wt.-% based on the total amount of part (B).
A User Equipment, UE comprising: a processor ; and a memory in electronic communication with the processor , wherein instructions stored in the memory , when executed by the processor , cause the UE to: receive a first RRC reconfiguration message including a first information element (IE), the first IE being an information element SpCellConfig; start a timer T312, responsive to conditions that (i) a measurement report for a measurement identity for which the timer T312 has been configured is triggered and (ii) a timer T310 is running, the timer T312 being associated with a measurement configuration corresponding to a cell group; stop the timer T312, responsive to conditions that (i) the timer T312 is running, (ii) the first IE includes an information element spCellConfigDedicated, and (iii) any of the reference signal(s) that are used for radio link monitoring are reconfigured by the information element spCellConfigDedicated; and use the first IE to configure parameters for a special cell of the cell group, the cell group being either a master cell group, MCG or a secondary cell group, SCG. a processor ; and a memory in electronic communication with the processor , wherein instructions stored in the memory , when executed by the processor , cause the UE to: receive a first RRC reconfiguration message including a first information element (IE), the first IE being an information element SpCellConfig; start a timer T312, responsive to conditions that (i) a measurement report for a measurement identity for which the timer T312 has been configured is triggered and (ii) a timer T310 is running, the timer T312 being associated with a measurement configuration corresponding to a cell group; stop the timer T312, responsive to conditions that (i) the timer T312 is running, (ii) the first IE includes an information element spCellConfigDedicated, and (iii) any of the reference signal(s) that are used for radio link monitoring are reconfigured by the information element spCellConfigDedicated; and use the first IE to configure parameters for a special cell of the cell group, the cell group being either a master cell group, MCG or a secondary cell group, SCG. receive a first RRC reconfiguration message including a first information element (IE), the first IE being an information element SpCellConfig; start a timer T312, responsive to conditions that (i) a measurement report for a measurement identity for which the timer T312 has been configured is triggered and (ii) a timer T310 is running, the timer T312 being associated with a measurement configuration corresponding to a cell group; stop the timer T312, responsive to conditions that (i) the timer T312 is running, (ii) the first IE includes an information element spCellConfigDedicated, and (iii) any of the reference signal(s) that are used for radio link monitoring are reconfigured by the information element spCellConfigDedicated; and use the first IE to configure parameters for a special cell of the cell group, the cell group being either a master cell group, MCG or a secondary cell group, SCG.
A power supply control assembly, comprising: a power supply ; and an input device configured to receive a user input to switch between a plurality of operational modes associated with the power supply , said operational modes including at least (i) activating display of a level of charge of the power supply and (ii) turning on or turning off the power supply by turning on or off of an electronic switch in electrical communication with the power supply and (iii) communicating with an external device, wherein communicating with the external device comprises providing state information associated with the power supply to the external device wherein the power supply control assembly is configured to switch between the operational modes in response to a signal received at the input device. a power supply ; and an input device configured to receive a user input to switch between a plurality of operational modes associated with the power supply , said operational modes including at least (i) activating display of a level of charge of the power supply and (ii) turning on or turning off the power supply by turning on or off of an electronic switch in electrical communication with the power supply and (iii) communicating with an external device, wherein communicating with the external device comprises providing state information associated with the power supply to the external device wherein the power supply control assembly is configured to switch between the operational modes in response to a signal received at the input device.