mhurhangee/patent-ind-claim-en huggingface dataset:
A laser lancing device , comprising: a main body ; a laser resonator located within the main body and configured to generate a laser and output the laser forwards; a beam barrel located in front of the laser resonator and including at least one lens unit fixed therein; a window barrel located in front of the beam barrel and connected to the main body ; a cap part connected to the front of the window barrel and brought into contact with an irradiation target area; a fan unit communicating with the cap part and induce flow of air; and a communication pipe of which one end is connected to the fan unit and the other end is connected to the cap part ; and a contact sensor located in front of the window barrel ; wherein the cap part includes a cap main body including an opening and a supporting surface to be supported on a contact point along the periphery of the opening , characterized in that the cap main body includes a sensor hole through which the contact sensor penetrates. a main body ; a laser resonator located within the main body and configured to generate a laser and output the laser forwards; a beam barrel located in front of the laser resonator and including at least one lens unit fixed therein; a window barrel located in front of the beam barrel and connected to the main body ; a cap part connected to the front of the window barrel and brought into contact with an irradiation target area; a fan unit communicating with the cap part and induce flow of air; and a communication pipe of which one end is connected to the fan unit and the other end is connected to the cap part ; and a contact sensor located in front of the window barrel ; wherein the cap part includes a cap main body including an opening and a supporting surface to be supported on a contact point along the periphery of the opening , characterized in that the cap main body includes a sensor hole through which the contact sensor penetrates.
An organic solvent dispersion of titanium oxide particles in a content of 10% by weight or more in an organic solvent except methanol and ethanol, wherein the titanium oxide particles are surface-treated with a surface treating agent comprising a silane coupling agent having the general formula (I) (RO) n -Si-X 4·n (I) wherein R is an alkyl group having carbon atoms of 1-4, n is 2 or 3, X is an alkyl, a fluoroalkyl, a vinyl or a (meth)acryloyloxyalkyl group, and 12-hydroxystearic acid, wherein the titanium oxide particles are surface-treated with 1-40 parts by weight of the silane coupling agent and 1-80 parts by weight of 12-hydroxystearic acid each in relation to 100 parts by weight of the titanium oxide particles, wherein the titanium oxide particles in the organic solvent have a D50 in a range of 1 to 30 nm, and wherein the organic solvent dispersion has a transmittance of 2% or more at a wavelength of 500 nm and a transmittance of 70% or more at a wavelength of 800 nm, a viscosity of 10 mPa·s or less at a temperature of 25°C immediately after production while the increase in the viscosity is 40 mPa·s or less seven days after production as compared to that of the dispersion immediately after production.
An in vitro or ex vivo method for preparing stem cells; characterized in that it comprises a step of isolating the stem cells from an isolated chorionic trophoblast layer without villi.
An active blade tip clearance control system for a gas turbine engine, comprising: an actuator ; a blade outer air seal segment; a case wall portion defining an aperture configured to receive the actuator , wherein the actuator is configured to move the blade outer air seal segment, and the actuator is insertable to an installed position within the aperture through a radially outer side of the case wall portion; wherein the actuator , in order to move the blade outer air seal segment, is moveable between a radially inner position and a radially outer position, and the actuator is configured to move to the radially outer position in response to an increase in pressure in a cavity (A) formed between a pedestal of the actuator and the case wall portion; and further comprising a cap received within the aperture to limit radial outward movement of the actuator from the aperture . an actuator ; a blade outer air seal segment; a case wall portion defining an aperture configured to receive the actuator , wherein the actuator is configured to move the blade outer air seal segment, and the actuator is insertable to an installed position within the aperture through a radially outer side of the case wall portion; wherein the actuator , in order to move the blade outer air seal segment, is moveable between a radially inner position and a radially outer position, and the actuator is configured to move to the radially outer position in response to an increase in pressure in a cavity (A) formed between a pedestal of the actuator and the case wall portion; and further comprising a cap received within the aperture to limit radial outward movement of the actuator from the aperture .
An aircraft comprising: an electrical system installed on the aircraft; an electronic controller in signal communication with the electrical system, the electronic controller including a main processor and a multi-core processor , the multi-core processor including at least one control core in signal communication with the electrical system to control power delivered thereto, and at least one prognostics core configured to process and analyze prognostics and diagnostics data of the electrical system independently from operation of the control core; and a prognostics and health monitoring, PHM, system located remotely from the electronic controller, characterised in that the aircraft comprises a wireless device in signal communication with the at least one prognostics core to receive the prognostics and diagnostics data therefrom, and wherein the PHM system is configured to wirelessly receive the prognostics and diagnostics data, wherein the at least one prognostics core includes a wired interface configured to establish a wired connection between the wireless device and the at least one prognostics core; and wherein the wireless device is located externally from the electronic controller, and includes a wired connector configured to facilitate and connection and disconnection with the at least one prognostics core. an electrical system installed on the aircraft; an electronic controller in signal communication with the electrical system, the electronic controller including a main processor and a multi-core processor , the multi-core processor including at least one control core in signal communication with the electrical system to control power delivered thereto, and at least one prognostics core configured to process and analyze prognostics and diagnostics data of the electrical system independently from operation of the control core; and a prognostics and health monitoring, PHM, system located remotely from the electronic controller, characterised in that the aircraft comprises a wireless device in signal communication with the at least one prognostics core to receive the prognostics and diagnostics data therefrom, and wherein the PHM system is configured to wirelessly receive the prognostics and diagnostics data, wherein the at least one prognostics core includes a wired interface configured to establish a wired connection between the wireless device and the at least one prognostics core; and wherein the wireless device is located externally from the electronic controller, and includes a wired connector configured to facilitate and connection and disconnection with the at least one prognostics core.
A freestanding micrometer for measuring dimensions of a cylindrical body , the freestanding micrometer comprising: a housing ; means for supporting the housing relative to an arcuate surface of the cylindrical body , the supporting means comprising at least two wheels having axes of rotation that are vertically oriented so that engaging the arcuate surface of the cylindrical body with the two wheels causes inward-facing edges of the two wheels to contact the arcuate surface at two points that respectively define two terminals spaced apart by a length of a chord lying in a cross-section plane of the cylindrical body ; measurement means mounted to the housing for contacting a surface point of the cylindrical body located within the length of the chord of the cylindrical body ; and means for determining the diameter of the cylindrical body based on the length of the chord determined by the distance between the inward-facing edges of the two wheels and a chord distance (d) between the chord and the surface point contacted by the measurement means ascertained with an output of the measurement means . a housing ; means for supporting the housing relative to an arcuate surface of the cylindrical body , the supporting means comprising at least two wheels having axes of rotation that are vertically oriented so that engaging the arcuate surface of the cylindrical body with the two wheels causes inward-facing edges of the two wheels to contact the arcuate surface at two points that respectively define two terminals spaced apart by a length of a chord lying in a cross-section plane of the cylindrical body ; measurement means mounted to the housing for contacting a surface point of the cylindrical body located within the length of the chord of the cylindrical body ; and means for determining the diameter of the cylindrical body based on the length of the chord determined by the distance between the inward-facing edges of the two wheels and a chord distance (d) between the chord and the surface point contacted by the measurement means ascertained with an output of the measurement means .
A humanized antibody that specifically binds complement component C1s, wherein the antibody comprises a VH region comprising the amino acid sequence set forth in SEQ ID NO: 14 and a VL region comprising the amino acid sequence set forth in SEQ ID NO: 22.
A wind turbine tower comprising a plurality of annular segments axially aligned with each other, at least one of the annular segments comprising a plurality of assembled sectors made of precast concrete, adjacent sectors of this segment being assembled by clamping devices and each segment comprising at the interface of adjacent sectors shear keys cast with the sectors, the sectors comprising recesses for accommodating the shear keys , characterised in that these recesses opening out onto the intrados of the sectors in the assembled state.
A method comprising: sharing an access key from a control-plane serving gateway , SGW-C, to a plurality of user-plane serving gateways , SGW-Us; allocating a plurality of Fully Qualified Tunnel Endpoint Identifiers, FQTEIDs, associated with a user equipment, UE, session; generating an access token for the UE session based, at least in part, on the access key and the plurality of FQTEIDs; and appending the access token to user-plane packets for the UE session. sharing an access key from a control-plane serving gateway , SGW-C, to a plurality of user-plane serving gateways , SGW-Us; allocating a plurality of Fully Qualified Tunnel Endpoint Identifiers, FQTEIDs, associated with a user equipment, UE, session; generating an access token for the UE session based, at least in part, on the access key and the plurality of FQTEIDs; and appending the access token to user-plane packets for the UE session.
Fish farming system comprising: a ring- or polygonal shaped, semi-submersible floating collar being operable between at least two different semi-submerged positions by ballasting and de-ballasting, a submersible enclosure for fish, the enclosure suspended from and supported by the floating collar , an inner structure fixed to and extending inwardly from the floating collar , the inner structure comprising a ring- or polygonal shaped inner structure part , a roof arranged to close a top section of the enclosure , and a gap or an opening provided between the inner structure and the floating collar at regular intervals about an outer circumference or outer sides of the inner structure , or as a continuous gap or opening between the inner structure part and the floating collar , characterised in that the enclosure comprises a net fixed to and suspended from the inner structure , the roof is fixed to the inner structure and arranged enclosed by the inner structure part and arranged to close a first opening defined by the inner structure part , and the inner structure comprises a second opening into the enclosure . a ring- or polygonal shaped, semi-submersible floating collar being operable between at least two different semi-submerged positions by ballasting and de-ballasting, a submersible enclosure for fish, the enclosure suspended from and supported by the floating collar , an inner structure fixed to and extending inwardly from the floating collar , the inner structure comprising a ring- or polygonal shaped inner structure part , a roof arranged to close a top section of the enclosure , and a gap or an opening provided between the inner structure and the floating collar at regular intervals about an outer circumference or outer sides of the inner structure , or as a continuous gap or opening between the inner structure part and the floating collar , characterised in that the enclosure comprises a net fixed to and suspended from the inner structure , the roof is fixed to the inner structure and arranged enclosed by the inner structure part and arranged to close a first opening defined by the inner structure part , and the inner structure comprises a second opening into the enclosure .
An electrode for a user wearable apparatus ; the electrode comprising: a conductive part comprising conductive material, wherein the conductive part is configured to provide electrical connection to electronic components of the user wearable apparatus, and an opening (302, 1111-1115) in the conductive part configured to provide an optical connection to electronic components of the user wearable apparatus through the electrode, characterized in that the opening comprises at least two optically separated light-passing elements (801, 802, 901-903) configured to provide the optical connection through the opening in the electrode, wherein one of the optically separated light-passing elements is configured for being operatively connected to and extends from the opening to a light source of an optical sensor of the user wearable apparatus, and another one of the optically separated light-passing elements is configured for being operatively connected to and extends from the opening to a light detector of the optical sensor of the user wearable apparatus, wherein the light-passing element (801, 802, 901-903) is a light fiber. a conductive part comprising conductive material, wherein the conductive part is configured to provide electrical connection to electronic components of the user wearable apparatus, and an opening (302, 1111-1115) in the conductive part configured to provide an optical connection to electronic components of the user wearable apparatus through the electrode, characterized in that the opening comprises at least two optically separated light-passing elements (801, 802, 901-903) configured to provide the optical connection through the opening in the electrode, wherein one of the optically separated light-passing elements is configured for being operatively connected to and extends from the opening to a light source of an optical sensor of the user wearable apparatus, and another one of the optically separated light-passing elements is configured for being operatively connected to and extends from the opening to a light detector of the optical sensor of the user wearable apparatus, wherein the light-passing element (801, 802, 901-903) is a light fiber.
A method comprising: manufacturing, by a first entity , an integrated circuit 'IC' for use in a device ; providing the IC to a second entity for manufacturing the device using the IC, the IC having a unique identifier 'UID' and secret key derivation data 'KDD' ; and providing a secure memory to a third entity , the secure memory having secret key derivation parameters configured to enable the generation of a product specific parameter 'PSP' , the PSP for being uploaded to the IC, wherein the secure memory enables the third entity to prepare one of a signed public key certificate or a certificate signing request using the UID, wherein the PSP enables the IC to generate a private key, and wherein the public key certificate and the private key are for verifying the authenticity of the device, wherein the first, second, and third entities are different entities, the method further comprising: enabling the receipt of a device configuration parameter arranged to generate the private key inside the IC, arranged to generate the private key inside the secure memory, and arranged to generate the signed public key certificate; and enabling the storage of the device configuration parameter inside the secure memory and inside the IC, wherein the device configuration parameter is used for the generation of the signed public key certificate, and wherein the device configuration parameter is used in the device for one or more of enabling/disabling a debug mode, enabling/disabling a secure boot, enabling/disabling encryption of a memory element, and enabling/disabling a modification of device configuration. manufacturing, by a first entity , an integrated circuit 'IC' for use in a device ; providing the IC to a second entity for manufacturing the device using the IC, the IC having a unique identifier 'UID' and secret key derivation data 'KDD' ; and providing a secure memory to a third entity , the secure memory having secret key derivation parameters configured to enable the generation of a product specific parameter 'PSP' , the PSP for being uploaded to the IC, enabling the receipt of a device configuration parameter arranged to generate the private key inside the IC, arranged to generate the private key inside the secure memory, and arranged to generate the signed public key certificate; and enabling the storage of the device configuration parameter inside the secure memory and inside the IC,
A shunt current sensing circuit comprising: a shunt resistor (R shunt ) for receiving a shunt current (I shunt ); a filtering stage connected to said shunt resistor (R shunt ) and comprising a first amplifier (U1), the filtering stage being configured to filter said shunt current (I shunt ); and an amplification stage connected to said filtering stage and comprising a current sense amplifier (U2) being configured to receive said filtered shunt current from said filtering stage and to sense said filtered shunt current to produce an output voltage (V out ); wherein said filtering stage is configured to filter said shunt current (I shunt ) such that the waveform of said output voltage (V out ) produced by said current sense amplifier (U2) is substantially proportional to said shunt current (I shunt ). a shunt resistor (R shunt ) for receiving a shunt current (I shunt ); a filtering stage connected to said shunt resistor (R shunt ) and comprising a first amplifier (U1), the filtering stage being configured to filter said shunt current (I shunt ); and an amplification stage connected to said filtering stage and comprising a current sense amplifier (U2) being configured to receive said filtered shunt current from said filtering stage and to sense said filtered shunt current to produce an output voltage (V out ); wherein said filtering stage is configured to filter said shunt current (I shunt ) such that the waveform of said output voltage (V out ) produced by said current sense amplifier (U2) is substantially proportional to said shunt current (I shunt ).
A burner for a combustion of a gaseous fuel in a shaft furnace, mainly for a heat processing of minerals in a granular form, where the burner is intended for placement in a burner chamber in a sheath of the shaft furnace and it has a supply pipe which is connected to a source of the gaseous fuel; the supply pipe is ended by a nozzle which is placed outside an edge zone through which the burner chamber is connected to an inside of the shaft furnace, whereby, in use, a forced air supply for the combustion is led to the burner chamber and whereby the burner includes a separation insert which is mounted onto the supply pipe , the separation insert has a the- first end and a second end , where the first end is on the side of the source of the gaseous fuel, wherein the separation insert is mounted onto the supply pipe by its first end in such a way that the nozzle is inside the separation insert ; the second end of the separation insert reaches to the edge zone of the burner; a gap for a flow of an air towards the shaft furnace is between the separation insert and the inner surface of the shaft furnace, whereby the air supply is led inside the separation insert and to an outer surface of the separation insert , whereby between the supply pipe and the separation insert at least one opening for the combustion air is produced, whereby this opening connects the forced air supply with the inner space of the separation insert , characterised by the fact that the opening for the combustion air has variable geometry.
Method for measuring a quantity of liquid in a liquid-insulated electrical component comprising a main tank and an expansion tank fluidly connected with the main tank , the method comprising: measuring a first pressure (P 1 ) of the liquid at a first point in the main tank ; measuring a second pressure (P 2 ) of the liquid at a second point in the main tank , the second point being at a height (H) above the first point; measuring a third pressure (P 3 ) of the liquid at a third point in the expansion tank ; and determining the quantity of liquid in the liquid-insulated electrical component based on the first pressure (P 1 ), the second pressure (P 2 ) and the third pressure (P 3 ). measuring a first pressure (P 1 ) of the liquid at a first point in the main tank ; measuring a second pressure (P 2 ) of the liquid at a second point in the main tank , the second point being at a height (H) above the first point; measuring a third pressure (P 3 ) of the liquid at a third point in the expansion tank ; and determining the quantity of liquid in the liquid-insulated electrical component based on the first pressure (P 1 ), the second pressure (P 2 ) and the third pressure (P 3 ).
An oral care composition comprising: (a) a first composition comprising a silica abrasive and a first zinc compound, wherein the first zinc compound is zinc citrate; and (b) a second composition comprising a calcium carbonate abrasive and a second zinc compound, wherein the second zinc compound is zinc oxide; wherein the oral care composition is a striped dentifrice comprising a main dentifrice material and a stripe dentifrice material, the first composition being the stripe dentifrice material and the second composition being the main dentifrice material, and wherein the oral care composition further comprises from 0.1 to 1.75 weight % of a tartar control agent, based on the total weight of the oral care composition, wherein the concentration of tartar control agent in the second composition is less than 0.05 weight %, based on the weight of the second composition. (a) a first composition comprising a silica abrasive and a first zinc compound, wherein the first zinc compound is zinc citrate; and (b) a second composition comprising a calcium carbonate abrasive and a second zinc compound, wherein the second zinc compound is zinc oxide;