mhurhangee/patent-ind-claim-en huggingface dataset:
A method for analyzing microscopy data , comprising the steps of a. receiving, by a processor , microscopy data obtained from a sample comprising a plurality of emitters which emit emittance light in response to excitation light, wherein the microscopy data comprise emittance light intensities for a plurality of pixels , b. determining, by the processor for each of the pixels a relative contribution to a plurality of channels (A, B, C) representing emittance light emitted by different species of the emitters , c. displaying, by a display device , the microscopy data in at least one histogram comprising a first axis representing the relative contributions to at least one of the channels (A, B, C), wherein the histogram displays numbers of pixels assigned to a plurality of classes indicating respective ranges of the relative contribution to the plurality of channels (A, B, C), d. displaying, by the display device , a manipulation tool , e. receiving, by an input device , a user input indicating a manipulation of the manipulation tool to select a subset of the microscopy data from the histogram or to adjust the relative contribution to the channels (A, B, C) by determining weights based on the relative contributions to the channels (A, B, C), and scaling the intensities of the pixels by the weights, and f. displaying, by the display device at least one image based on the selected subset of the microscopy data and/or the adjusted relative contributions to the channels (A, B, C). a. receiving, by a processor , microscopy data obtained from a sample comprising a plurality of emitters which emit emittance light in response to excitation light, wherein the microscopy data comprise emittance light intensities for a plurality of pixels , b. determining, by the processor for each of the pixels a relative contribution to a plurality of channels (A, B, C) representing emittance light emitted by different species of the emitters , c. displaying, by a display device , the microscopy data in at least one histogram comprising a first axis representing the relative contributions to at least one of the channels (A, B, C), wherein the histogram displays numbers of pixels assigned to a plurality of classes indicating respective ranges of the relative contribution to the plurality of channels (A, B, C), d. displaying, by the display device , a manipulation tool , e. receiving, by an input device , a user input indicating a manipulation of the manipulation tool to select a subset of the microscopy data from the histogram or to adjust the relative contribution to the channels (A, B, C) by determining weights based on the relative contributions to the channels (A, B, C), and scaling the intensities of the pixels by the weights, and f. displaying, by the display device at least one image based on the selected subset of the microscopy data and/or the adjusted relative contributions to the channels (A, B, C).
An assembly comprising: a gas turbine engine comprising: a gas generator portion; a power turbine section arranged fluidly downstream from the gas generator portion, the power turbine mechanically disconnected from the gas generator portion; a power turbine rotor locking assembly comprising: a rotor shaft; an aft rotor stage surrounding the rotor shaft; a locknut torqued to the rotor shaft; and a plurality of torque resistance features located on an aft side of the aft rotor stage; and a tooling fixture having a plurality of corresponding torque resistance features, the corresponding torque resistance features selectively engageable with the torque resistance features of the aft rotor stage to resist circumferential movement during assembly and disassembly of the locknut with the rotor shaft, the aft rotor stage defining a circumferential cutout on an aft side of the aft rotor stage, the circumferential cutout at least partially defined by a flange ; characterized by the plurality of torque resistance features on the aft side of the aft rotor stage are a plurality of radial tabs extending inwardly from the flange; and the plurality of corresponding torque resistance features of the tooling fixture are a plurality of slots selectively engageable with the radial tabs of the aft rotor stage to resist circumferential movement during assembly and disassembly of the locknut with the rotor shaft. a gas turbine engine comprising: a gas generator portion; a power turbine section arranged fluidly downstream from the gas generator portion, the power turbine mechanically disconnected from the gas generator portion; a gas generator portion; a power turbine section arranged fluidly downstream from the gas generator portion, the power turbine mechanically disconnected from the gas generator portion; a power turbine rotor locking assembly comprising: a rotor shaft; an aft rotor stage surrounding the rotor shaft; a locknut torqued to the rotor shaft; and a plurality of torque resistance features located on an aft side of the aft rotor stage; and a rotor shaft; an aft rotor stage surrounding the rotor shaft; a locknut torqued to the rotor shaft; and a plurality of torque resistance features located on an aft side of the aft rotor stage; and a tooling fixture having a plurality of corresponding torque resistance features, the corresponding torque resistance features selectively engageable with the torque resistance features of the aft rotor stage to resist circumferential movement during assembly and disassembly of the locknut with the rotor shaft, the aft rotor stage defining a circumferential cutout on an aft side of the aft rotor stage, the circumferential cutout at least partially defined by a flange ; characterized by the plurality of torque resistance features on the aft side of the aft rotor stage are a plurality of radial tabs extending inwardly from the flange; and the plurality of corresponding torque resistance features of the tooling fixture are a plurality of slots selectively engageable with the radial tabs of the aft rotor stage to resist circumferential movement during assembly and disassembly of the locknut with the rotor shaft.
An inhibitor of the valosin-containing protein (VCP inhibitor) for use in the prophylaxis and/or treatment of a neurodegenerative disease not based on a protein folding disorder, wherein the disease is an eye disease, characterized in that the eye disease is age-related macular degeneration (AMD) or diabetic retinopathy (DR).
A helmet comprising: a shell ; and at least one force redirection member disposed between the shell and a head when the helmet is worn, the at least one force redirection member being configured to redirect a force impacting on the shell to a direction different from the original direction of the impact on the shell ; characterised in that the at least one force redirection member comprises a body having an incident surface which is disposed at an acute angle relative to the tangent of the surface of the helmet overlying the force redirection member . a shell ; and at least one force redirection member disposed between the shell and a head when the helmet is worn, the at least one force redirection member being configured to redirect a force impacting on the shell to a direction different from the original direction of the impact on the shell ; characterised in that the at least one force redirection member comprises a body having an incident surface which is disposed at an acute angle relative to the tangent of the surface of the helmet overlying the force redirection member .
A SPINK2 mutant peptide which inhibits the protease activity of human HTRA1 wherein the peptide comprises: (a) an amino acid sequence shown in any one of SEQ ID NOs: 24, 23, 25 to 27, 9, 15, 3, 5, 7, 11, 13, 17, 19, 21, 28 and 29 (Figures 36, 35, 37 to 39, 21, 27, 15, 17, 19, 23, 25, 29, 31, 33, 40 and 41); or (b) an amino acid sequence which is derived from the amino acid sequence of (a) by the deletion of 1 to 15 amino acids. (a) an amino acid sequence shown in any one of SEQ ID NOs: 24, 23, 25 to 27, 9, 15, 3, 5, 7, 11, 13, 17, 19, 21, 28 and 29 (Figures 36, 35, 37 to 39, 21, 27, 15, 17, 19, 23, 25, 29, 31, 33, 40 and 41); or (b) an amino acid sequence which is derived from the amino acid sequence of (a) by the deletion of 1 to 15 amino acids.
Use of an aqueous suspension of solid particles of a calcium-magnesium compound of formula (A) nCa(OH) 2 .mCaCO 3 .aMgO.bMg(OH) 2 .cMgCO 3. I, wherein n, m, a and b represent molar coefficients for the calcium-magnesium compound in suspension in the aqueous phase such that - n+m = x represents the proportion of calcium phase present in the calcium-magnesium compound and where 0 < x ≤ 1 - a+b+c = y represents the proportion of magnesium phase present in the calcium-magnesium compound and where 0 < y ≤ 1 - x/y represents the ratio of the calcium phase to the magnesium phase I represents all various additional compounds as an agent regulating the breaking of a cationic bitumen emulsion. n, m, a and b represent molar coefficients for the calcium-magnesium compound in suspension in the aqueous phase such that - n+m = x represents the proportion of calcium phase present in the calcium-magnesium compound and where 0 < x ≤ 1 - a+b+c = y represents the proportion of magnesium phase present in the calcium-magnesium compound and where 0 < y ≤ 1 - x/y represents the ratio of the calcium phase to the magnesium phase - n+m = x represents the proportion of calcium phase present in the calcium-magnesium compound and where 0 < x ≤ 1 - a+b+c = y represents the proportion of magnesium phase present in the calcium-magnesium compound and where 0 < y ≤ 1 - x/y represents the ratio of the calcium phase to the magnesium phase I represents all various additional compounds as an agent regulating the breaking of a cationic bitumen emulsion.
Axle system , in particular commercial vehicle axle system, comprising an arm , in particular a trailing arm, and an air spring and at least one axle load determining system , wherein the axle load determining system , in particular for a commercial vehicle, comprises a force transmission element and a sensor unit , wherein the force transmission element is a holding block , wherein the sensor unit has at least one sensor , wherein the force transmission element has a first mounting area and a second mounting area , wherein the first mounting area is indirectly and/or directly fixed or can be fixed at a vehicle frame of a vehicle, in particular of a commercial vehicle, characterized in that the sensor unit is designed to determine and/or record a force transmitted via the force transmission element between the first mounting area and the second mounting area , in particular in a support direction (AR), wherein the arm is indirectly and/or directly arranged on the second mounting area of the force transmission element . comprising an arm , in particular a trailing arm, and an air spring and at least one axle load determining system , wherein the axle load determining system , in particular for a commercial vehicle, comprises a force transmission element and a sensor unit , wherein the force transmission element is a holding block , wherein the sensor unit has at least one sensor , wherein the force transmission element has a first mounting area and a second mounting area , wherein the first mounting area is indirectly and/or directly fixed or can be fixed at a vehicle frame of a vehicle, in particular of a commercial vehicle, characterized in that the sensor unit is designed to determine and/or record a force transmitted via the force transmission element between the first mounting area and the second mounting area , in particular in a support direction (AR), wherein the arm is indirectly and/or directly arranged on the second mounting area of the force transmission element .
A sealing arrangement for sealing between a first stage nozzle and a plurality of aft frames on a transition duct of a turbine, the turbine having a central axis, a radial direction perpendicular to the central axis and a circumferential direction extending around the central axis, the arrangement comprising: a first seal which is circumferentially oriented, the first seal comprising a forward surface , an aft surface , and a wing extending radially inward at an oblique angle to the radial direction; a second seal which is circumferentially oriented adjacent to the first seal , the second seal comprising a forward surface , an aft surface , and a wing extending radially inward at an oblique angle to the radial direction, the second seal radially and axially aligned with the first seal , the wing of the second seal opposing the wing of the first seal and circumferentially spaced from the wing of the first seal ; and a radially orientated side seal disposed between the first seal and the second seal ; characterised in that the side seal comprises a forward face and an aft face , a first wing extending radially outward at an oblique angle to the radial direction and a second wing extending radially outward at an oblique angle to the radial direction; wherein the first wing of the side seal sealingly interfaces with the wing of the first seal and the second wing of the side seal sealingly interfaces with the wing of the second seal . a first seal which is circumferentially oriented, the first seal comprising a forward surface , an aft surface , and a wing extending radially inward at an oblique angle to the radial direction; a second seal which is circumferentially oriented adjacent to the first seal , the second seal comprising a forward surface , an aft surface , and a wing extending radially inward at an oblique angle to the radial direction, the second seal radially and axially aligned with the first seal , the wing of the second seal opposing the wing of the first seal and circumferentially spaced from the wing of the first seal ; and a radially orientated side seal disposed between the first seal and the second seal ; characterised in that the side seal comprises a forward face and an aft face , a first wing extending radially outward at an oblique angle to the radial direction and a second wing extending radially outward at an oblique angle to the radial direction; wherein the first wing of the side seal sealingly interfaces with the wing of the first seal and the second wing of the side seal sealingly interfaces with the wing of the second seal .
Electric linear drive for a gear rack of a hydraulic valve , having: - a stepping motor , wherein the stepping motor has a rotor axle , - a holding plate , - a motor output gear wheel , and - a gearing with at least one gear shaft having two gear wheels , and a bearing arrangement , wherein the holding plate , the stepping motor with the motor output gear wheel and the gearing form a drive unit which, together with a basic housing , forms an overall housing , wherein the overall housing has an opening for inserting a gear rack , and wherein a gear axle of the gear shaft is arranged in a direction parallel to the rotor axle , wherein a first gear wheel meshes with the motor output gear wheel , wherein a second gear wheel can be brought into engagement with the gear rack , which can be inserted via the opening , of a device to be driven, characterized in that the rotor axle is arranged perpendicularly to the direction of the lowest extent of the overall housing and perpendicularly to the gear rack to be driven. - a stepping motor , wherein the stepping motor has a rotor axle , - a holding plate , - a motor output gear wheel , and - a gearing with at least one gear shaft having two gear wheels , and a bearing arrangement , wherein the holding plate , the stepping motor with the motor output gear wheel and the gearing form a drive unit which, together with a basic housing , forms an overall housing , wherein the overall housing has an opening for inserting a gear rack , and wherein a gear axle of the gear shaft is arranged in a direction parallel to the rotor axle , wherein a first gear wheel meshes with the motor output gear wheel , wherein a second gear wheel can be brought into engagement with the gear rack , which can be inserted via the opening , of a device to be driven, characterized in that the rotor axle is arranged perpendicularly to the direction of the lowest extent of the overall housing and perpendicularly to the gear rack to be driven. wherein the holding plate , the stepping motor with the motor output gear wheel and the gearing form a drive unit which, together with a basic housing , forms an overall housing , wherein the overall housing has an opening for inserting a gear rack , and wherein a gear axle of the gear shaft is arranged in a direction parallel to the rotor axle , wherein a first gear wheel meshes with the motor output gear wheel , wherein a second gear wheel can be brought into engagement with the gear rack , which can be inserted via the opening , of a device to be driven, characterized in that the rotor axle is arranged perpendicularly to the direction of the lowest extent of the overall housing and perpendicularly to the gear rack to be driven.
A building automation system control apparatus comprising: building automation system control logic configured to receive signaling from entities connected to a building automation system and to cause transmission of control signaling to the entities connected to the building automation system, wherein the building automation system control logic comprises elevator control logic as an integral part to directly control an elevator system comprising one or more elevators; the building automation system control logic being configured to take into account signaling received from the entities connected to the building automation system when controlling the elevator system with the elevator control logic ; and the building automation system control logic being configured to take into account signaling received from the elevator system when controlling the entities connected to the building automation system. building automation system control logic configured to receive signaling from entities connected to a building automation system and to cause transmission of control signaling to the entities connected to the building automation system, wherein the building automation system control logic comprises elevator control logic as an integral part to directly control an elevator system comprising one or more elevators; the building automation system control logic being configured to take into account signaling received from the entities connected to the building automation system when controlling the elevator system with the elevator control logic ; and the building automation system control logic being configured to take into account signaling received from the elevator system when controlling the entities connected to the building automation system.
A porous carbon membrane having as a loaded component alcohol, ether, or ketone loaded in a pore, or on a surface and in the pore thereof, wherein the loaded component forms a wedge-shaped steric barrier in the pore, and by removing the loaded component by a heating treatment at 300°C for one hour, a water permeation flux becomes 200% or less of that before the heating treatment, and an ethanol permeation flux becomes 200% or more of that before the heating treatment, the permeation flux being measured at a fed liquid temperature of 70°C and a permeation side pressure of 6.7 kPa (50 Torr).
A method suitable for a multi-mode device: establishing a first call through a first network; and receiving a second call through a second network that is independent of the first network, the method being characterised by comprising: identifying the second network; determining whether the second call is high or low priority based on the identification of the second network; in response to determining that the second call is high priority, injecting a call waiting alert indicating which network the second call is coming from into the first call; and in response to determining that the second call is low priority, sending the second call to voicemail. establishing a first call through a first network; and receiving a second call through a second network that is independent of the first network, the method being characterised by comprising: identifying the second network; determining whether the second call is high or low priority based on the identification of the second network; in response to determining that the second call is high priority, injecting a call waiting alert indicating which network the second call is coming from into the first call; and in response to determining that the second call is low priority, sending the second call to voicemail. identifying the second network; determining whether the second call is high or low priority based on the identification of the second network; in response to determining that the second call is high priority, injecting a call waiting alert indicating which network the second call is coming from into the first call; and in response to determining that the second call is low priority, sending the second call to voicemail.
A method for storing components of a virtual disk as objects in an object store comprising a plurality of physical storage devices housed in a plurality of host computers , the method comprising: receiving a profile for creation of the virtual disk , wherein the profile specifies storage properties desired for an intended use of the virtual disk by a virtual machine ; generating a virtual disk blueprint based on the profile, wherein the virtual disk blueprint describes a storage organization for the virtual disk that addresses redundancy or performance requirements corresponding to the profile; determining a set of the physical storage devices that can store a plurality of components (220 x ) of the virtual disk in a manner that satisfies the storage organization; requesting the host computers that house the determined set of physical storage devices to allocate storage locations in the set of physical storage devices for the corresponding component objects (220 x ) of the virtual disk ; and upon receiving confirmations that the storage locations have been allocated by the respective host computers , updating a database with mappings of the allocated storage locations to the corresponding component objects (220 x ). receiving a profile for creation of the virtual disk , wherein the profile specifies storage properties desired for an intended use of the virtual disk by a virtual machine ; generating a virtual disk blueprint based on the profile, wherein the virtual disk blueprint describes a storage organization for the virtual disk that addresses redundancy or performance requirements corresponding to the profile; determining a set of the physical storage devices that can store a plurality of components (220 x ) of the virtual disk in a manner that satisfies the storage organization; requesting the host computers that house the determined set of physical storage devices to allocate storage locations in the set of physical storage devices for the corresponding component objects (220 x ) of the virtual disk ; and upon receiving confirmations that the storage locations have been allocated by the respective host computers , updating a database with mappings of the allocated storage locations to the corresponding component objects (220 x ).
A method for preparation of a cationic arabinoxylan, comprising the steps of: Dissolving an arabinoxylan and 0.5-4.0wt%, preferably 2.0-2.8wt%, of a strong alkali into water; Adding a quaternizing agent with the molar ratio of the quaternizing agent and anhydroxylose unit of the arabinoxylan being from 0.2:1 to 5:1, preferably 2:1 to 4:1, and reacting for 2-8h,preferably 4-7h, at 20-65°C, preferably 20-35°C; and Separating the cationic arabinoxylan as reaction product. Dissolving an arabinoxylan and 0.5-4.0wt%, preferably 2.0-2.8wt%, of a strong alkali into water; Adding a quaternizing agent with the molar ratio of the quaternizing agent and anhydroxylose unit of the arabinoxylan being from 0.2:1 to 5:1, preferably 2:1 to 4:1, and reacting for 2-8h,preferably 4-7h, at 20-65°C, preferably 20-35°C; and Separating the cationic arabinoxylan as reaction product.