mhurhangee/patent-ind-claim-en huggingface dataset:
A method for gain calibration at a plurality of imaging parameters for a tomosynthesis sweep, the method comprising: performing one or more tomosynthesis sweeps to acquire a plurality of tomosynthesis projection x-ray images, each of the plurality of tomosynthesis projection x-ray images associated with one of the plurality of imaging parameters; generating a high-dose x-ray image by averaging the plurality of tomosynthesis projection x-ray images; generating a high-dose gain map associated with the high-dose x-ray image; generating a plurality of low-dose gain maps, each of the plurality of low-dose gain maps associated with one of the plurality of tomosynthesis projection x-ray images associated with one of the plurality of imaging parameters; decomposing each of the plurality of low-dose gain maps into a plurality of component levels; extracting low-resolution components from the plurality of component levels for each of the plurality of low-dose gain maps; and for each of the plurality of imaging parameters, combining the high-dose gain map with the each of the low-resolution components of the low-dose gain maps to generate a final gain map for each of the plurality of imaging parameters. performing one or more tomosynthesis sweeps to acquire a plurality of tomosynthesis projection x-ray images, each of the plurality of tomosynthesis projection x-ray images associated with one of the plurality of imaging parameters; generating a high-dose x-ray image by averaging the plurality of tomosynthesis projection x-ray images; generating a high-dose gain map associated with the high-dose x-ray image; generating a plurality of low-dose gain maps, each of the plurality of low-dose gain maps associated with one of the plurality of tomosynthesis projection x-ray images associated with one of the plurality of imaging parameters; decomposing each of the plurality of low-dose gain maps into a plurality of component levels; extracting low-resolution components from the plurality of component levels for each of the plurality of low-dose gain maps; and for each of the plurality of imaging parameters, combining the high-dose gain map with the each of the low-resolution components of the low-dose gain maps to generate a final gain map for each of the plurality of imaging parameters.
Flat heating element , comprising a main body , which serves as a heating resistor, in the form of an electrically conductive, flexible flat structure which contains carbon fibres, comprising at least two electrical contact elements , which are connected in a flat manner to the main body at a distance from one another, for feeding electric current into the main body , wherein the contact areas of the contact elements are formed in such a way that they penetrate the main body , characterized in that the contact areas of the contact elements have a surface structure with a plurality of deformations which contribute to establishing a connection between the contact elements and the main body by way of penetrating the main body .
A cathepsin S inhibitor for use in a method for reducing or preventing the formation of anti-drug antibodies (ADA) against a therapeutic agent in a subject who is receiving a treatment with said therapeutic agent, wherein the therapeutic agent is a biologic.
A method for a wireless communication device, comprising: obtaining a bundle size of each control resource set, CORESET, in multiple CORESETs, wherein: resource element groups, REGs, of control channel element, CCE, of the each CORESET are bundled, according to the bundle size of the each CORESET, into one or more REG bundles, and the one or more REG bundles are mapped to physical resource elements for control channel transmission; and detecting a control channel in the multiple CORESETs according to the bundle size of the each CORESET. obtaining a bundle size of each control resource set, CORESET, in multiple CORESETs, wherein: resource element groups, REGs, of control channel element, CCE, of the each CORESET are bundled, according to the bundle size of the each CORESET, into one or more REG bundles, and the one or more REG bundles are mapped to physical resource elements for control channel transmission; and resource element groups, REGs, of control channel element, CCE, of the each CORESET are bundled, according to the bundle size of the each CORESET, into one or more REG bundles, and the one or more REG bundles are mapped to physical resource elements for control channel transmission; and detecting a control channel in the multiple CORESETs according to the bundle size of the each CORESET.
Method for producing a fibre composite material, which includes the following steps: a) one or more fibre bundles are drawn over one or more spreading devices into an impregnation chamber , so that at least two physically separated and spread fibre webs located above one another result; b) melt is supplied via horizontally aligned distributor beams , which are each arranged between two fibre webs; c) the individual fibre webs are led together such that they lie above one another and contact one another; d) the fibre webs led together are drawn through a take-off die at the end of the tool, the first shaping being carried out. a) one or more fibre bundles are drawn over one or more spreading devices into an impregnation chamber , so that at least two physically separated and spread fibre webs located above one another result; b) melt is supplied via horizontally aligned distributor beams , which are each arranged between two fibre webs; c) the individual fibre webs are led together such that they lie above one another and contact one another; d) the fibre webs led together are drawn through a take-off die at the end of the tool, the first shaping being carried out.
An organic compound represented by formula [1-1] or [1-2]: where in formula [1-1] or [1-2], R 1 to R 20 are each independently selected from a hydrogen atom, a halogen atom, a substituted or unsubstituted alkyl group, a substituted or unsubstituted alkoxy group, a substituted or unsubstituted amino group, a substituted or unsubstituted aromatic hydrocarbon group, a substituted or unsubstituted heterocyclic group, a substituted or unsubstituted aryloxy group, a silyl group, and a cyano group, wherein exactly one of R 1 to R 4 and R 6 to R 9 and exactly one of R 11 to R 14 and R 16 to R 19 is a substituted or unsubstituted amino group, and groups bonded to nitrogen atoms of the substituted or unsubstituted amino groups are optionally taken together to form a ring structure; and X 1 to X 4 are each oxygen, sulfur, selenium, or tellurium and are optionally the same or different. wherein exactly one of R 1 to R 4 and R 6 to R 9 and exactly one of R 11 to R 14 and R 16 to R 19 is a substituted or unsubstituted amino group, and groups bonded to nitrogen atoms of the substituted or unsubstituted amino groups are optionally taken together to form a ring structure; and X 1 to X 4 are each oxygen, sulfur, selenium, or tellurium and are optionally the same or different.
A method performed by a network node in a radio access network, RAN, the method comprising: providing a shared physical uplink control channel, PUCCH, resource to a plurality of user equipments, UEs, that are active on a bandwidth part, BWP; receiving a scheduling request, SR, on the shared PUCCH resource of the BWP; responsive to the SR, assigning one or more grants to one or more of the plurality of UEs that are provided with the shared PUCCH; monitoring, for a time window after assigning the one or more grants, a physical uplink shared channel, PUSCH, resource; and after receiving a transmission on the monitored PUSCH resource from a UE of the plurality of UEs, providing the UE with a dedicated PUCCH resource on the BWP. providing a shared physical uplink control channel, PUCCH, resource to a plurality of user equipments, UEs, that are active on a bandwidth part, BWP; receiving a scheduling request, SR, on the shared PUCCH resource of the BWP; responsive to the SR, assigning one or more grants to one or more of the plurality of UEs that are provided with the shared PUCCH; monitoring, for a time window after assigning the one or more grants, a physical uplink shared channel, PUSCH, resource; and after receiving a transmission on the monitored PUSCH resource from a UE of the plurality of UEs, providing the UE with a dedicated PUCCH resource on the BWP.
A grip assembly , comprising: a grip body having an upper extension, a lower extension and a connecting portion , wherein the connecting portion is disposed between, and connects, an inboard end of the upper extension and an inboard end of the lower extension, and wherein the grip body is formed from a laminated composite extending contiguously from the upper extension, through the connecting portion, to the lower extension; wherein the laminated composite has a plurality of layers, each layer of the plurality of layers extending contiguously along a length of the upper extension, around the connecting portion, and along a length of the lower extensions; wherein the grip body has a constant thickness along the length of the upper extension, around the connecting portion, and along the length of the lower extension ; wherein an inside surface of the upper extension faces, and is substantially parallel to, an inside surface of the lower extension ; wherein an inside surface of the connecting portion has a contiguous curvature between the upper extension and lower extension; characterised in that the connecting portion has protective surfaces comprising a low friction or wear resistant polyester fiber material, and wherein a first element of the protective surfaces is affixed to the inside surface of the connecting portion , and wherein a second element of the protective surfaces is spaced apart from the first element of the protective surfaces and is affixed to an edge surface of the connecting portion by chamfer on an inside edge of the connecting portion. a grip body having an upper extension, a lower extension and a connecting portion , wherein the connecting portion is disposed between, and connects, an inboard end of the upper extension and an inboard end of the lower extension, and wherein the grip body is formed from a laminated composite extending contiguously from the upper extension, through the connecting portion, to the lower extension; wherein the laminated composite has a plurality of layers, each layer of the plurality of layers extending contiguously along a length of the upper extension, around the connecting portion, and along a length of the lower extensions; wherein the grip body has a constant thickness along the length of the upper extension, around the connecting portion, and along the length of the lower extension ; wherein an inside surface of the upper extension faces, and is substantially parallel to, an inside surface of the lower extension ; wherein an inside surface of the connecting portion has a contiguous curvature between the upper extension and lower extension; characterised in that the connecting portion has protective surfaces comprising a low friction or wear resistant polyester fiber material, and wherein a first element of the protective surfaces is affixed to the inside surface of the connecting portion , and wherein a second element of the protective surfaces is spaced apart from the first element of the protective surfaces and is affixed to an edge surface of the connecting portion by chamfer on an inside edge of the connecting portion.
Cosmetic composition dispensing head comprising: - a duct for preparing and for distributing the cosmetic composition, able to be connected to at least one reservoir of at least one cosmetic product, the duct for preparing and for distributing comprising a distribution nozzle opening outside of the head and a distribution cannula mounted protruding with respect to the distribution nozzle , wherein the distribution nozzle comprises an external skirt that has an inner passage having a first transversal section on a free edge of the external skirt , the distribution cannula comprising a first portion cooperating with the external skirt , the first portion having a sealing edge engaged in a sealed manner around the external skirt, and wherein, the distribution cannula comprises a second portion protruding from the first portion, the second portion defining an inner channel for the delivery of a product, opening at an outlet of the distribution cannula, the inner channel having, at the outlet of the distribution cannula, a second transversal section different from the first transversal section, and wherein the inner passage of the external skirt has, at its free edge , a non-circular transversal section, in particular an extended transversal section. - a duct for preparing and for distributing the cosmetic composition, able to be connected to at least one reservoir of at least one cosmetic product, the duct for preparing and for distributing comprising a distribution nozzle opening outside of the head and a distribution cannula mounted protruding with respect to the distribution nozzle ,
A power car for a high-speed train, in particular for transporting passengers, said power car including a body and at least one traction motor of said body, said body comprising a roof and a floor ; the at least one traction motor being arranged under said floor, the body further comprising an equipment room defined between said roof and said floor, said technical room including: electrical equipment for controlling the at least one traction motor; and at least a first ventilation device of said electrical equipment, the power car being characterized in that the first ventilation device comprises: a first air intake sheath , forming a closed pipe between an inlet and an outlet open onto the equipment room; and a first fan arranged between the inlet and the outlet of said first sheath, so as to create an overpressure in the technical room.
A portable pipe outer diameter-chamfering apparatus in which a vertical plate and a support plate are fixed in orthogonal directions to a head of the apparatus, and a chamfering knife-blade is installed between the vertical plate and the support plate , characterized in that a vertical fixing plate is fixed to the outside of the vertical plate , a horizontal fixing plate is fixed in an orthogonal direction to the tip of the vertical fixing plate , a one-side-opened rectangular-shaped link is coupled to move upward and downward along the vertical fixing plate , a pair of circumscribing rollers which are installed to be in close contact with an outside of a pipe are installed on tips of the one-side-opened rectangular-shaped link , each one of the pair of circumscribing rollers being installed at each respective tip of the one-side-opened rectangular-shaped link, the one-side-opened rectangular-shaped link is configured to move up and down along the vertical fixing plate by a circumscribing roller adjustment screw installed on the horizontal fixing plate , a moving body is installed on the horizontal fixing plate , the moving body is configured to move up and down by an inscribing roller adjustment screw installed on the horizontal fixing plate , and an inscribing roller is installed on the moving body to be in close contact with an inside of the pipe wherein a pressing force of the inscribing roller is adjusted by a spring .
A method for forming a body, comprising: forming a three-dimensional body by electromagnetic radiation curing a mixture comprising solid particles, wherein forming includes growth of the three-dimensional body from an interface of the mixture , said interface being between an inhibition zone of the mixture and the remaining part of the mixture , the inhibition zone defined as a zone of the mixture which is distinguished from the remaining part of the mixture by the presence of an inhibitor in a concentration that avoids curing of the mixture when exposed to radiation, and forming at least one first region and at least one second region within the three-dimensional body by varying the thickness of the inhibition zone and/or translating portion , such that solid particles of the mixture can be excluded according to their size from entering the translation portion ; and wherein the at least one first region having a different density than the at least one second region with a difference in density being at least 0.05 g/cm 3 ; and the at least one first region having a first content of the solid particles, and the at least one second region comprising a second content of the solid particles, the first content of the solid particles being different than the second content of the solid particles, wherein the solid particles involved for forming the at least one first region have an average particle size (P1), and the solid particles involved for forming the at least one second region have an average particle size (P2), wherein P1>P2. forming a three-dimensional body by electromagnetic radiation curing a mixture comprising solid particles, wherein forming includes growth of the three-dimensional body from an interface of the mixture , said interface being between an inhibition zone of the mixture and the remaining part of the mixture , the inhibition zone defined as a zone of the mixture which is distinguished from the remaining part of the mixture by the presence of an inhibitor in a concentration that avoids curing of the mixture when exposed to radiation, and forming at least one first region and at least one second region within the three-dimensional body by varying the thickness of the inhibition zone and/or translating portion , such that solid particles of the mixture can be excluded according to their size from entering the translation portion ; and wherein the at least one first region having a different density than the at least one second region with a difference in density being at least 0.05 g/cm 3 ; and the at least one first region having a first content of the solid particles, and the at least one second region comprising a second content of the solid particles, the first content of the solid particles being different than the second content of the solid particles, wherein the solid particles involved for forming the at least one first region have an average particle size (P1), and the solid particles involved for forming the at least one second region have an average particle size (P2), wherein P1>P2.
A retrofitted wind turbine installation (72, 72', 72") for replacing a prior wind turbine installation of conventional design without stay cables , the prior wind turbine installation including a foundation and a wind turbine having a tower supported on the foundation and an energy generating unit , the retrofitted wind turbine installation (72, 72', 72") comprising: the foundation of the prior wind turbine installation ; and a replacement wind turbine supported by the foundation , the replacement wind turbine including a replacement tower and a replacement energy generating unit ; wherein a tower of the retrofitted wind turbine installation (72, 72', 72") is a cable-stayed tower having a plurality of stay cables connected at one end to the tower of the retrofitted wind turbine installation (72, 72', 72") at a cable mounting position and at the other end to stay cable foundations , the plurality of stay cables configured to reduce bending loads being transferred to the foundation and thereby extend an operating life of the foundation . the foundation of the prior wind turbine installation ; and a replacement wind turbine supported by the foundation , the replacement wind turbine including a replacement tower and a replacement energy generating unit ; wherein a tower of the retrofitted wind turbine installation (72, 72', 72") is a cable-stayed tower having a plurality of stay cables connected at one end to the tower of the retrofitted wind turbine installation (72, 72', 72") at a cable mounting position and at the other end to stay cable foundations , the plurality of stay cables configured to reduce bending loads being transferred to the foundation and thereby extend an operating life of the foundation .
Method for moving a patient couch as a function of a body value of a patient positioned on the patient couch for medical imaging, wherein the medical imaging takes place in an imaging modality with a recording region, wherein the patient couch can be moved within the recording region by means of a drive chain, with the following steps: - providing a body value, in particular a mass and/or physique, of the patient, - setting an operating parameter of the drive chain by means of a control unit for controlling the drive chain as a function of the body value in such a manner that a speed value of the patient couch is increased up to a predefined or body value-dependent maximum value, and possibly repeatedly setting the operating parameter so that a rocking of the patient couch during the movement of the patient couch is at least partially suppressed, and - moving the patient couch by means of the drive chain in accordance with the increased speed value to perform the medical imaging, characterised in that the body value is entered into a digital twin of the drive chain of the patient couch, wherein the digital twin digitally maps at least one operating state of the drive chain of the patient couch which influences the operating parameter and, as a function of the entered body value and the mapped operating state, ascertains the operating parameter for the setting. - providing a body value, in particular a mass and/or physique, of the patient, - setting an operating parameter of the drive chain by means of a control unit for controlling the drive chain as a function of the body value in such a manner that a speed value of the patient couch is increased up to a predefined or body value-dependent maximum value, and possibly repeatedly setting the operating parameter so that a rocking of the patient couch during the movement of the patient couch is at least partially suppressed, and - moving the patient couch by means of the drive chain in accordance with the increased speed value to perform the medical imaging,
A system comprising: a fluid conduit having a plurality of conduit supports ; a fluid nozzle for use in injectors for gas turbine engines, having a plurality of nozzle supports , the fluid nozzle being connected to the fluid conduit; and a heat shield having a plurality of apertures , the heat shield surrounding both the fluid conduit and the fluid nozzle such that the conduit supports and the nozzle supports extend through the apertures; characterized in that at least some of the apertures through the heat shield are elongated to accommodate relative thermal expansion/contraction between the fluid conduit and the heat shield. a fluid conduit having a plurality of conduit supports ; a fluid nozzle for use in injectors for gas turbine engines, having a plurality of nozzle supports , the fluid nozzle being connected to the fluid conduit; and a heat shield having a plurality of apertures , the heat shield surrounding both the fluid conduit and the fluid nozzle such that the conduit supports and the nozzle supports extend through the apertures; characterized in that at least some of the apertures through the heat shield are elongated to accommodate relative thermal expansion/contraction between the fluid conduit and the heat shield.