mhurhangee/patent-ind-claim-en huggingface dataset:
A wind turbine blade , comprising: a blade body ; a down conductor extending along a longitudinal direction of the blade body ; and at least a pair of magnetic field sensors (30, 30A to 30H) disposed inside the blade body and at opposite positions across the down conductor , a pair of magnetic field sensors (30, 30A to 30H) being configured to detect a local magnetic field at each of the positions, wherein at least the pair of magnetic field sensors (30, 30A to 30H) includes: a pair of first sensors which are disposed at opposite positions across the down conductor and on a first axis passing through an installation position of the down conductor in a cross section intersecting the longitudinal direction; and a pair of second sensors which are disposed at opposite positions across the down conductor and on a second axis passing through the installation position and is orthogonal to the first axis in the cross section. a blade body ; a down conductor extending along a longitudinal direction of the blade body ; and at least a pair of magnetic field sensors (30, 30A to 30H) disposed inside the blade body and at opposite positions across the down conductor , a pair of magnetic field sensors (30, 30A to 30H) being configured to detect a local magnetic field at each of the positions, wherein at least the pair of magnetic field sensors (30, 30A to 30H) includes: a pair of first sensors which are disposed at opposite positions across the down conductor and on a first axis passing through an installation position of the down conductor in a cross section intersecting the longitudinal direction; and a pair of second sensors which are disposed at opposite positions across the down conductor and on a second axis passing through the installation position and is orthogonal to the first axis in the cross section. a pair of first sensors which are disposed at opposite positions across the down conductor and on a first axis passing through an installation position of the down conductor in a cross section intersecting the longitudinal direction; and a pair of second sensors which are disposed at opposite positions across the down conductor and on a second axis passing through the installation position and is orthogonal to the first axis in the cross section.
- Muscle exercising device, in particular for deep back muscles, comprising a lower support base, an upper plate supporting a vertical force by the head of a patient, means for mounting the upper support plate on the lower support base arranged so that the upper support plate extends above and opposite the lower support base at an adjustable determined distance, the mounting means comprising a column head and a column foot are disengageable and arranged so that the device assumes a deployed configuration for use or a folded configuration for storage, where said upper plate has a flat lower surface, parallel to the lower base adapted to enable the top of the skull to be supported and pressure to be exerted by extension of the dorsal muscles and where the barycentre of the lower base is located vertically above the barycentre of the upper plate .
Shielding sleeve for contacting shielding elements between lines and plug connectors, having a spring region with a multiplicity of spring elements , and having a sleeve region with a cylindrical and at least regional circumferential extent, wherein the spring region and the sleeve region are formed in one piece, wherein the spring elements are formed in a roof-shaped arrangement by at least two spring limbs , wherein the at least one spring element has a third spring limb such that the roof-shaped arrangement of the spring element is supplemented to form an at least regionally closed triangle, wherein the third spring limb is in the form of an element with a linearly continuing longitudinal extent of the sleeve region , characterized in that the spring elements have a rounding at an end such that a sliding relative movement and support of the respective spring element at an abutment surface of the sleeve region is assisted, wherein the roof-shaped arrangement of the at least one spring element has a convexity in its gable portion.
A feeding assembly comprising a track along which components can be moved, said track comprising a sloped surface and a ledge , wherein said sloped surface slopes in a direction which is perpendicular to the direction which the components move along the track so that the components are maintained in a tilted orientation as they move along the track ; a pickup platform which comprises a pocket which can receive components from said track ; wherein the feeding assembly further comprise a pivot on which the pickup platform can be selectively rotated between a first position and second position, wherein in its first position the pocket is aligned with the track and the pocket is parallel with the sloped surface of the track , so that a component can move from the track into the pocket of the pickup platform , and in its second position the pocket is in a horizontal orientation, characterized in that an outlet is provided at an end of the track which is adjacent to the pickup platform , and wherein said outlet is fluidly connected to a vacuum generating means which can be selectively operated to generate a vacuum, and wherein said outlet is positioned such that a component which has reached the said end of the track will overlay said outlet . a track along which components can be moved, said track comprising a sloped surface and a ledge , wherein said sloped surface slopes in a direction which is perpendicular to the direction which the components move along the track so that the components are maintained in a tilted orientation as they move along the track ; a pickup platform which comprises a pocket which can receive components from said track ; wherein the feeding assembly further comprise a pivot on which the pickup platform can be selectively rotated between a first position and second position, wherein in its first position the pocket is aligned with the track and the pocket is parallel with the sloped surface of the track , so that a component can move from the track into the pocket of the pickup platform , and in its second position the pocket is in a horizontal orientation, characterized in that an outlet is provided at an end of the track which is adjacent to the pickup platform , and wherein said outlet is fluidly connected to a vacuum generating means which can be selectively operated to generate a vacuum, and wherein said outlet is positioned such that a component which has reached the said end of the track will overlay said outlet .
A method of simultaneously preparing RNA and DNA libraries in a single compartment from a sample, comprising: providing a sample comprising DNA and RNA, wherein the RNA comprises a 3' polyA tail; tagmenting the DNA with a 3' polyA tail using transposomes with polyA transposons; contacting the sample in a single compartment with a polyT capture probe configured to hybridize to the 3' polyA tail of the RNA and the DNA, wherein the capture probe comprises a first common sequence (CS1); hybridizing the capture probe to the RNA and to the DNA, thereby simultaneously capturing DNA and RNA; converting the RNA to cDNA; and simultaneously generating a cDNA library and a gDNA library. providing a sample comprising DNA and RNA, wherein the RNA comprises a 3' polyA tail; tagmenting the DNA with a 3' polyA tail using transposomes with polyA transposons; contacting the sample in a single compartment with a polyT capture probe configured to hybridize to the 3' polyA tail of the RNA and the DNA, wherein the capture probe comprises a first common sequence (CS1); hybridizing the capture probe to the RNA and to the DNA, thereby simultaneously capturing DNA and RNA; converting the RNA to cDNA; and simultaneously generating a cDNA library and a gDNA library.
A heterocyclic-substituted pyridinopyrimidinone derivative, that has the following Formula I or a pharmaceutically acceptable salt thereof: Wherein, R 1 represents hydrogen, C 1 -C 3 alkyl, or C 3 -C 7 cycloalkyl; R 2 represents C 1 -C 5 alkyl,or C 3 -C 7 cycloalkyl; R 3 and R 4 independently represent- hydrogen, C 1 -C 3 alkyl, C 3 -C 7 cycloalkyl, acetyl, halogen, trifluoromethyl, cyano or CONR 5 R 6 ; or R 3 , R 4 together with the carbon atom to which they are attached form a C 3 -C 7 aliphatic ring; R 5 and R 6 independently represents hydrogen or methyl; X represents O, or S; n is 0 or 1. R 1 represents hydrogen, C 1 -C 3 alkyl, or C 3 -C 7 cycloalkyl; R 2 represents C 1 -C 5 alkyl,or C 3 -C 7 cycloalkyl; R 3 and R 4 independently represent- hydrogen, C 1 -C 3 alkyl, C 3 -C 7 cycloalkyl, acetyl, halogen, trifluoromethyl, cyano or CONR 5 R 6 ; or R 3 , R 4 together with the carbon atom to which they are attached form a C 3 -C 7 aliphatic ring; R 5 and R 6 independently represents hydrogen or methyl; X represents O, or S; n is 0 or 1.
Skin-mountable medical device comprising a patch portion with a contact surface facing the skin of a patient during use, a process unit particularly formed by a sensor or medication delivery set attached to the patch portion , and a plaster kit for securing the patch portion to the skin , wherein the plaster kit has a primary pad adapted to releasably adhere to at least a section of a peripheral skin surface surrounding the contact surface , wherein the plaster kit further comprises at least one auxiliary pad which is connectable or connected to the patch portion and adapted to functionally replace the primary pad after a wearing time, wherein the patch portion is configured to remain affixed to the skin while the primary pad is replaced, wherein the contact surface of the patch portion is fixedly connected to a base pad or is construed to adhere directly to the skin, characterized in that the primary pad is configured, on one of its sides, to be applied to the skin, and, on the other one of its sides, carrying an auxiliary pad in a layered configuration, wherein the auxiliary pad is bendably connected to a rim of the patch portion and forms a flap to uncover the primary pad for removal, and the primary pad is delimited by a tear-off perforation .
A spectacle lens, comprising a lens substrate including a blue light absorbing compound, and a multilayer film including a metal layer having a film thickness of 1.0-10.0 nm, wherein - the blue light cut ratio C b is ≥ 21.0%, - the average reflectance in the range of 400-500 nm measured on the object-side surface is ≤ 1.00%, and - the average reflectance in the range of 400-500 nm measured on the eyeball-side surface is ≤ 1.00%; wherein C b is calculated as C b = 1-τ b , with τ b being a weighted transmittance of blue light in the range of 380-500 nm, calculated by the equation τ b = ∫ 380 nm 500 nm τ λ ⋅ WB λ ⋅ dλ ∫ 380 nm 500 nm WB λ ⋅ dλ wherein τ(λ) is the transmittance at the wavelength λ nm and WB(λ) is a weighting function calculated by the equation WB(λ) = E sλ ( λ ) · B (A) wherein E sλ (λ) is the spectral irradiance of sunlight and B(λ) is a blue light hazard function, and E sλ (λ) , B (λ) and WB (λ) are described in Annex C of JIS T 7333:2005. - the blue light cut ratio C b is ≥ 21.0%, - the average reflectance in the range of 400-500 nm measured on the object-side surface is ≤ 1.00%, and - the average reflectance in the range of 400-500 nm measured on the eyeball-side surface is ≤ 1.00%; wherein C b is calculated as C b = 1-τ b , with τ b being a weighted transmittance of blue light in the range of 380-500 nm, calculated by the equation τ b = ∫ 380 nm 500 nm τ λ ⋅ WB λ ⋅ dλ ∫ 380 nm 500 nm WB λ ⋅ dλ wherein τ(λ) is the transmittance at the wavelength λ nm and WB(λ) is a weighting function calculated by the equation WB(λ) = E sλ ( λ ) · B (A) wherein E sλ (λ) is the spectral irradiance of sunlight and B(λ) is a blue light hazard function, and E sλ (λ) , B (λ) and WB (λ) are described in Annex C of JIS T 7333:2005.
An excavator comprising: a lower traveling body ; an upper turning body turnably mounted to the lower traveling body ; an actuator configured to drive a driven part including the lower traveling body and the upper turning body ; and a power storage device mounted in the upper turning body and configured to serve as an energy source for driving the actuator, wherein the power storage device includes a plurality of power storage modules stacked in a vertical direction, each of the plurality of power storage modules including a power storage part (BMD) and a housing configured to house the power storage part (BMD), the housings of power storage modules among the plurality of power storage modules that are adjacent to each other in the vertical direction, are coupled to each other, the housing includes an accommodating part (19H1) configured to accommodate the power storage part (BMD) and having an upper portion that is open, a lid (19H2) configured to close the upper portion of the accommodating part (19H1) that is open, and a plurality of first bolts (BLT1) configured to fasten the lid (19H2) to the accommodating part (19H1) in the vertical direction, the housings of the power storage modules that are adjacent to each other in the vertical direction are coupled by a plurality of second bolts (BLT2) fastened in the vertical direction, and in the housing , fastening holes (FH22, FH23) configured to fasten the plurality of second bolts (BLT2) are provided between fastening holes (FH11, FH12) to which two adjacent ones of the first bolts (BLT1) are fastened. a lower traveling body ; an upper turning body turnably mounted to the lower traveling body ; an actuator configured to drive a driven part including the lower traveling body and the upper turning body ; and a power storage device mounted in the upper turning body and configured to serve as an energy source for driving the actuator, wherein the power storage device includes a plurality of power storage modules stacked in a vertical direction, each of the plurality of power storage modules including a power storage part (BMD) and a housing configured to house the power storage part (BMD), the housings of power storage modules among the plurality of power storage modules that are adjacent to each other in the vertical direction, are coupled to each other, the housing includes an accommodating part (19H1) configured to accommodate the power storage part (BMD) and having an upper portion that is open, a lid (19H2) configured to close the upper portion of the accommodating part (19H1) that is open, and a plurality of first bolts (BLT1) configured to fasten the lid (19H2) to the accommodating part (19H1) in the vertical direction, the housings of the power storage modules that are adjacent to each other in the vertical direction are coupled by a plurality of second bolts (BLT2) fastened in the vertical direction, and in the housing , fastening holes (FH22, FH23) configured to fasten the plurality of second bolts (BLT2) are provided between fastening holes (FH11, FH12) to which two adjacent ones of the first bolts (BLT1) are fastened.
Vehicle pane having a plurality of integrated electro-optical elements (10 1 ,10 2 ,10 3, ...10 N ), wherein the electro-optical elements (10 1 ,10 2 ,10 3 ,...10 N ) have a common supply voltage, wherein the integrated electro-optical elements (10 1 ,10 2 ,10 3 ,...10 N ) can be controlled individually by logical control units (30;30 1 ,30 2 ,30 3 ...30 N ), wherein each electro-optical element (10 1 ,10 2 ,10 3 ,...10 N ) is addressed individually, such that the electro-optical elements (10 1 ,10 2 ,10 3 ,...10 N ) can change the optical properties of the pane at the respective location, wherein the control units (30;30 1 ,30 2 ,30 3 ...30 N ) are arranged in an intermediate layer of the vehicle pane, wherein a first logical interface for feeding in the common supply voltage and a second logical interface for feeding in a common control signal are provided for controlling the electro-optical elements (10 1 ,10 2 ,10 3 ,...10 N ) and for providing the common supply voltage, wherein, downstream from the second logical interface , the common control signal is converted into control signals for the control of the integrated electro-optical elements (10 1 ,10 2 ,10 3 ,...10 N ) individually, wherein a physical interface configured as plug connector is arranged on one of the outer faces of the pane , wherein the physical interface for the first logical interface and the second logical interface has, together, 3 or 4 electrical connections.
A power control device in a local area network, the device comprising: a storage unit configured to store control instruction effect information including a plurality of control instructions for load devices possessed by a consumer's facility and a predicted power reduction amount for each of the plurality of control instructions; an instruction acquisition unit configured to acquire a power reduction instruction from an energy management system server configured to communicate with a plurality of power control devices respectively located in a plurality of independent local area networks; a control instruction creation unit configured to extract control instructions and create a combination of some or all of the extracted control instructions which have predicted power reduction amounts that satisfy, in total, the power reduction instruction, based on the predicted power reduction amount included in the control instruction effect information; and a control unit configured to execute the some or all of the plurality of control instructions in the combination and, based on the power reduction amount due to execution of the control instructions, update the predicted power reduction amount included in the control instruction effect information stored in the storage unit . a storage unit configured to store control instruction effect information including a plurality of control instructions for load devices possessed by a consumer's facility and a predicted power reduction amount for each of the plurality of control instructions; an instruction acquisition unit configured to acquire a power reduction instruction from an energy management system server configured to communicate with a plurality of power control devices respectively located in a plurality of independent local area networks; a control instruction creation unit configured to extract control instructions and create a combination of some or all of the extracted control instructions which have predicted power reduction amounts that satisfy, in total, the power reduction instruction, based on the predicted power reduction amount included in the control instruction effect information; and a control unit configured to execute the some or all of the plurality of control instructions in the combination and, based on the power reduction amount due to execution of the control instructions, update the predicted power reduction amount included in the control instruction effect information stored in the storage unit .
A silicone-polyether copolymer having the formula X-Y, wherein X is a silicone moiety having one of formulas (I)-(III): wherein each R 1 is an independently selected substituted or unsubstituted hydrocarbyl group having from 1 to 18 carbon atoms; each R 2 is an independently selected substituted or unsubstituted hydrocarbyl group having from 1 to 18 carbon atoms; each D 1 is an independently selected divalent hydrocarbon group having from 2 to 18 carbon atoms; each subscript a is independently 0 or 1; subscript f is 0 or 1; subscript t is ≥0; and subscript u is >0; and wherein Y is a polyether moiety. wherein each R 1 is an independently selected substituted or unsubstituted hydrocarbyl group having from 1 to 18 carbon atoms; each R 2 is an independently selected substituted or unsubstituted hydrocarbyl group having from 1 to 18 carbon atoms; each D 1 is an independently selected divalent hydrocarbon group having from 2 to 18 carbon atoms; each subscript a is independently 0 or 1; subscript f is 0 or 1; subscript t is ≥0; and subscript u is >0; and wherein Y is a polyether moiety.
A method for identifying a radio link failure by a user equipment, UE, in a third generation partnership project, 3GPP, long term evolution, LTE, wireless communication system, the method comprising: receiving a message including a MeasObjectEUTRA information element, IE, including a length of a first timer from a network; starting the first timer if an entering condition related to an event is satisfied and a second timer related to the radio link failure is running; and determining that the radio link failure occurs if the first timer expires, wherein whether the entering condition related to the event is satisfied is identified based on measurement result of the UE. receiving a message including a MeasObjectEUTRA information element, IE, including a length of a first timer from a network; starting the first timer if an entering condition related to an event is satisfied and a second timer related to the radio link failure is running; and determining that the radio link failure occurs if the first timer expires, wherein whether the entering condition related to the event is satisfied is identified based on measurement result of the UE.
Nebuliser with an aerosol generator , a nebulising chamber , a reservoir for storing liquid to be nebulised, and an outlet , wherein the reservoir is configured to dispense the liquid to the aerosol generator , wherein the aerosol generator is configured to generate liquid droplets and mix these with gas and thus generate aerosol and dispense aerosol into the nebulising chamber , and the outlet is configured to allow the aerosol to be drawn from the nebulising chamber , wherein a wetting surface is provided in the nebulising chamber which is designed to be wetted by the liquid and is configured in such a way that liquid droplets which reach the wetting surface attach themselves to the wetting surface so that a liquid film is formed, wherein the wetting surface is provided on a plastics component, characterised in that the nebulising chamber further has a filter surface for filtering out liquid droplets, wherein larger liquid droplets strike against this and smaller liquid droplets are directed past it, and the filter surface has the wetting surface and is arranged in an area intended for the aerosol to change direction. a nebulising chamber , a reservoir for storing liquid to be nebulised, and an outlet , wherein the reservoir is configured to dispense the liquid to the aerosol generator , wherein the aerosol generator is configured to generate liquid droplets and mix these with gas and thus generate aerosol and dispense aerosol into the nebulising chamber , and the outlet is configured to allow the aerosol to be drawn from the nebulising chamber , wherein a wetting surface is provided in the nebulising chamber which is designed to be wetted by the liquid and is configured in such a way that liquid droplets which reach the wetting surface attach themselves to the wetting surface so that a liquid film is formed, wherein the wetting surface is provided on a plastics component, characterised in that the nebulising chamber further has a filter surface for filtering out liquid droplets, wherein larger liquid droplets strike against this and smaller liquid droplets are directed past it, and the filter surface has the wetting surface and is arranged in an area intended for the aerosol to change direction.