mhurhangee/patent-ind-claim-en huggingface dataset:
A light-beam scanning micro-spectrometry device comprising at least one light source adapted to emit an excitation light beam , a microscope objective arranged along a main optical axis of the micro-spectrometry device, the microscope objective having an object focal plane and an image focal plane , a system for moving the excitation light beam along two spatial directions (X, Y) transverse to the optical axis of the beam, the microscope objective and the movement system being adapted to move the excitation light beam on a sample and an optical system adapted to collect a light beam formed by reflection, scattering and/or transmission of the excitation light beam on the sample, and a spectrometric detection system adapted to receive the light beam formed by reflection, scattering and/or transmission, characterized in that the excitation light beam movement system comprises: a first focusing optical component (M1, L1) adapted to receive and focus the excitation light beam to a focusing point in an intermediate focal plane , another focusing optical component (M3, L3) arranged on an optical path of the beam between the intermediate focal plane and the microscope objective , the other focusing optical component (M3, L3) being adapted to form an image of the intermediate focal plane in the object focal plane or, respectively, in the image focal plane of the microscope objective , and a single scanning mirror (M2) arranged on the optical path of the excitation light beam, the scanning mirror (M2) being planar and mounted on a stage rotatable about two transverse axes of rotation, the two axes of rotation being in the plane of the scanning mirror (M2), the scanning mirror (M2) being adapted to move the focusing point along two transverse directions in the intermediate focal plane in such a way as to move the image of the focusing point along two transverse directions in the object focal plane or, respectively, in the image focal plane of the microscope objective , characterized in that the scanning mirror (M2) is arranged on the optical path of the excitation light beam between the first focusing optical component (M1, L1) and the intermediate focal plane .
A T cell activating bispecific antigen binding molecule for use in a method for treating cancer, wherein the T cell activating bispecific antigen binding molecule is used in combination with a PD-1 axis binding antagonist, wherein the T cell activating bispecific antigen binding molecule comprises at least two antigen binding moieties, one of which is a crossover Fab molecule and one of which is a conventional Fab molecule, wherein the T cell activating bispecific antigen binding molecule further comprises an Fc domain composed of a first and second subunit capable of stable association, wherein the first antigen binding molecule comprises a first antigen binding moiety capable of binding to CD3 comprising at least one heavy chain complementarity determining region (CDR) amino acid sequence selected from the group consisting of SEQ ID NO: 37, SEQ ID NO: 38 and SEQ ID NO:39 and at least one light chain CDR selected from the group of SEQ ID NO: 32, SEQ ID NO: 33, SEQ ID NO: 34, wherein the second antigen binding moiety is fused at the C-terminus of the Fab heavy chain to the N-terminus of the first or the second subunit of the Fc domain and the first antigen binding moiety is fused at the C-terminus of the Fab heavy chain to the N-terminus of the Fab heavy chain of the second antigen binding moiety, wherein the PD-1 axis binding antagonist inhibits the binding of PD-1 to its ligand binding partners, wherein the PD-1 axis binding antagonist is selected from the group consisting of an anti-PD-1 antibody, an anti-PD-L1 antibody and an anti-PD-L2 antibody.
An apparatus comprising: means for performing a communication comprising transmitting packets of a first traffic flow and packets of a second traffic flow via a first radio bearer to a second device, wherein the first radio bearer is a default data radio bearer; means for becoming aware that further packets of the second traffic flow are to be transmitted via a second radio bearer to the second device; means, based on the becoming aware, for transmitting a packet data unit via the first radio bearer to the second device, wherein the packet data unit (i) is or comprises a switch-marker signaling the end of transmitting packets of the second traffic flow via the first radio bearer and/or (ii) comprises an indication of the switch of the second traffic flow to the second radio bearer, and wherein packets of the first traffic flow continue to be transmitted via the first radio bearer; means, based on the second radio bearer being established, for transmitting the further packets of the second traffic flow via the second radio bearer to the second device. means for performing a communication comprising transmitting packets of a first traffic flow and packets of a second traffic flow via a first radio bearer to a second device, wherein the first radio bearer is a default data radio bearer; means for becoming aware that further packets of the second traffic flow are to be transmitted via a second radio bearer to the second device; means, based on the becoming aware, for transmitting a packet data unit via the first radio bearer to the second device, wherein the packet data unit (i) is or comprises a switch-marker signaling the end of transmitting packets of the second traffic flow via the first radio bearer and/or (ii) comprises an indication of the switch of the second traffic flow to the second radio bearer, and wherein packets of the first traffic flow continue to be transmitted via the first radio bearer; means, based on the second radio bearer being established, for transmitting the further packets of the second traffic flow via the second radio bearer to the second device.
Steering apparatus for motor vehicles, comprising a rotary bearing and a holding ring for the axial fixing of a rotary bearing on a rotatable component with a cylindrical outer surface onto which an inner bearing shell of the rotary bearing is mounted, wherein the holding ring comprises at least one spring tongue which lies in an axial direction resiliently against the inner bearing shell , characterized in that the holding ring comprises radially inwardly projecting elastic fixing tongues which, in the relaxed state, extend into the radial region of the rotatable component such that, when the holding ring is pushed onto the cylindrical outer surface of the rotatable component , said fixing tongues are deflected elastically in an axial direction opposite to the pushing-on direction and lie with a radial preload force against the cylindrical outer surface of the rotatable component .
A communication system comprising a base station and a communication terminal device that performs radio communication with the base station , wherein the base station configures Primary Cell, PCell, using an associated cell including both a resource for downlink and a resource for uplink, the resource for downlink being allocated to downlink communication to the communication terminal device , the resource for uplink being allocated to uplink communication from the communication terminal device , wherein the base station configures Secondary Cell, SCell, using a non-associated cell including only another resource for downlink, the another resource for downlink being allocated to downlink communication to the communication terminal device , and wherein the communication terminal device performs carrier aggregation with the PCell and the SCell, and the base station is configured to notify the communication terminal device of the Physical Cell Identity (PCI) of the SCell using the PCell. communication terminal device that performs radio communication with the base station , wherein the base station configures Primary Cell, PCell, using an associated cell including both a resource for downlink and a resource for uplink, the resource for downlink being allocated to downlink communication to the communication terminal device , the resource for uplink being allocated to uplink communication from the communication terminal device , wherein the base station configures Secondary Cell, SCell, using a non-associated cell including only another resource for downlink, the another resource for downlink being allocated to downlink communication to the communication terminal device , and wherein the communication terminal device performs carrier aggregation with the PCell and the SCell, and the base station is configured to notify the communication terminal device of the Physical Cell Identity (PCI) of the SCell using the PCell.
An X-ray imaging apparatus comprising: an X-ray generator configured to generate and radiate X-rays to an object an X-ray detector configured to detect the X-rays which have passed through the object and acquire an image signal of the object; wherein the X-ray detector is configured to acquire a plurality of image signals according to a plurality of individual energy bands; a memory to store the plurality of image signals; and a controller configured to evaluate a characteristic of the object based on one of the image signals and to generate a single energy X-ray image based on one of the image signals stored in the memory and a multiple energy X-ray image based on the plurality of image signals stored in the memory, wherein the image signal on which the single energy image is based is determined based on the evaluation result of the characteristics of the object; wherein the X-ray imaging apparatus further comprises a display and both the multiple energy X-ray image and the single X-ray image are produced and displayed on said display; and wherein the X-ray generator is configured to radiate the X-rays having an energy band set according to a type or the characteristic of the object. an X-ray generator configured to generate and radiate X-rays to an object an X-ray detector configured to detect the X-rays which have passed through the object and acquire an image signal of the object; wherein the X-ray detector is configured to acquire a plurality of image signals according to a plurality of individual energy bands; a memory to store the plurality of image signals; and a controller configured to evaluate a characteristic of the object based on one of the image signals and to generate a single energy X-ray image based on one of the image signals stored in the memory and a multiple energy X-ray image based on the plurality of image signals stored in the memory, wherein the image signal on which the single energy image is based is determined based on the evaluation result of the characteristics of the object; wherein the X-ray imaging apparatus further comprises a display and both the multiple energy X-ray image and the single X-ray image are produced and displayed on said display; and wherein the X-ray generator is configured to radiate the X-rays having an energy band set according to a type or the characteristic of the object.
A motorized antitheft device of a motor vehicle steering column comprising a bolt provided with a main bar , movable between a position for locking the column, wherein the main bar is adapted to engage a lateral appendage of the steering column and a position for unlocking the column, as well as an electric motor for driving the bolt between the unlocking position and the locking position, and a toothed wheel , said motor having an output axis and a screw disposed on the output shaft and said toothed wheel being meshed with the screw , characterized in that the bolt is mounted so as to approach the steering column in a direction parallel to the steering column, in that the toothed wheel is oriented in a plane parallel to the steering column and in that the toothed wheel comprises a face, facing the steering column, which is provided with a cam in a portion of a disc cooperating in thrust with the bolt .
A computer implemented substance concentration analysis method comprising: inducing a change in a temperature (T) of a surface of a body over time (t) by heating or cooling with an element according to a signal received by the element, then allowing temperature recovery of the surface and yielding a function for temperature (T) that varies with time (t) during the temperature recovery so as to exhibit a temperature derivative with respect to time (dT/dt); measuring the temperature (T) of the surface of the body over time (t) during the temperature recovery and calculating the dT/dt; measuring mid-infrared (MIR) radiation absorbed by or emitted from the body during the temperature recovery while the surface of the body exhibits the dT/dt; calculating a value based on the MIR radiation measurement and on the dT/dt; and calculating the concentration of the substance in the body based on a correlation with the value; wherein the measuring of MIR radiation is occurring non-continuously; characterized in that the measuring of MIR radiation does not occur during the induced change in the temperature of the surface of the body by heating or cooling with an element. inducing a change in a temperature (T) of a surface of a body over time (t) by heating or cooling with an element according to a signal received by the element, then allowing temperature recovery of the surface and yielding a function for temperature (T) that varies with time (t) during the temperature recovery so as to exhibit a temperature derivative with respect to time (dT/dt); measuring the temperature (T) of the surface of the body over time (t) during the temperature recovery and calculating the dT/dt; measuring mid-infrared (MIR) radiation absorbed by or emitted from the body during the temperature recovery while the surface of the body exhibits the dT/dt; calculating a value based on the MIR radiation measurement and on the dT/dt; and calculating the concentration of the substance in the body based on a correlation with the value; wherein the measuring of MIR radiation is occurring non-continuously; characterized in that the measuring of MIR radiation does not occur during the induced change in the temperature of the surface of the body by heating or cooling with an element.
A sliding bearing of which a cylinder inner surface supports a rotation shaft in a rotatable manner, the sliding bearing being formed of a molded member of a non-oil-impregnated resin composition that does not contain oil, wherein the resin composition contains an injection-moldable ultrahigh molecular weight polyethylene resin as a base resin, a polytetrafluoroethylene resin as an additive, and an acicular inorganic filler having Mohs hardness of 3 or less, wherein the resin composition contains 65 vol% or more of the ultrahigh molecular weight polyethylene resin, 10-25 vol% of the polytetrafluoroethylene resin, and 1-20 vol% of the acicular inorganic filler, based on the whole of the resin composition, characterised in that an average particle diameter of the polytetrafluoroethylene resin is 30 μm or less, and a Rockwell hardness / wherein the resin composition contains an injection-moldable ultrahigh molecular weight polyethylene resin as a base resin, a polytetrafluoroethylene resin as an additive, and an acicular inorganic filler having Mohs hardness of 3 or less, wherein the resin composition contains 65 vol% or more of the ultrahigh molecular weight polyethylene resin, 10-25 vol% of the polytetrafluoroethylene resin, and 1-20 vol% of the acicular inorganic filler, based on the whole of the resin composition, characterised in that an average particle diameter of the polytetrafluoroethylene resin is 30 μm or less, and a Rockwell hardness /
A pre-formuation comprising a low viscosity mixture of: a) 20-80 wt.% of at least one diacyl glycerol and/or a tocopherol; b) 20-80 wt.% of at least one phosphatidyl choline (PC); c) 5-20 wt.% of at least one biocompatible, organic mono-alcoholic solvent comprising ethanol; d) 1.2 to 20 wt.% of a polar solvent selected from water, propylene glycol, or mixtures thereof; and e) at least one somatostatin analogue; wherein the ratio of components a:b is in the range 40:60 to 54:46; wherein the pre-formulation has a viscosity in the range of 0.1 to 5000 mPas at 20 °C; wherein the pre-formulation forms, or is capable of forming, at least one liquid crystalline phase structure upon contact with excess aqueous fluid. a) 20-80 wt.% of at least one diacyl glycerol and/or a tocopherol; b) 20-80 wt.% of at least one phosphatidyl choline (PC); c) 5-20 wt.% of at least one biocompatible, organic mono-alcoholic solvent comprising ethanol; d) 1.2 to 20 wt.% of a polar solvent selected from water, propylene glycol, or mixtures thereof; and e) at least one somatostatin analogue; wherein the ratio of components a:b is in the range 40:60 to 54:46; wherein the pre-formulation has a viscosity in the range of 0.1 to 5000 mPas at 20 °C; wherein the pre-formulation forms, or is capable of forming, at least one liquid crystalline phase structure upon contact with excess aqueous fluid.
An apparatus comprising: a flexible substrate ; at least one sensor mounted on the flexible substrate arranged to provide an electrical output signal dependent upon a first parameter; at least one conductive trace provided on the flexible substrate arranged to provide a direct current path to the at least one sensor and have an electrical property dependent upon a second parameter, and arranged to provide an electrical output signal indicative of the second parameter; wherein the conductive trace is deformable and the second parameter is the deformation of the conductive trace; characterised in that the apparatus is arranged to provide a direct current signal to the at least one sensor to measure the first parameter and to provide an alternating current signal to the conductive trace to measure the second parameter. a flexible substrate ; at least one sensor mounted on the flexible substrate arranged to provide an electrical output signal dependent upon a first parameter; at least one conductive trace provided on the flexible substrate arranged to provide a direct current path to the at least one sensor and have an electrical property dependent upon a second parameter, and arranged to provide an electrical output signal indicative of the second parameter; wherein the conductive trace is deformable and the second parameter is the deformation of the conductive trace; characterised in that the apparatus is arranged to provide a direct current signal to the at least one sensor to measure the first parameter and to provide an alternating current signal to the conductive trace to measure the second parameter.
A device for ejecting shells and/or connectors from at least one chain or strip of ammunition associated with a primary and/or secondary weapon, the ejection device being mounted in an armored vehicle turret and including a plurality of geometrically and mechanically defined structural elements, making it possible, after shooting ammunition , to guide the movement of the shells and/or connectors from the inside toward the outside of said turret , along a determined path, and including means for vibrating at least part of these structural elements to favor said movement of the shells and/or connectors , said structural elements include at least one chute , characterized in that said vibrating means comprise a motor placed in any location of the chute , provided with an unbalancing mass and intended to be actuated only during shooting.
Steam turbine with nozzle group control of a control stage, having: an inflow housing portion of an inflow housing; nozzle blades of the control stage, which are attached to the inflow housing portion; a wheel disc of a control wheel, which can be rotated together with a rotor in relation to the inflow housing portion and has wheel blades , of the control stage, wherein the nozzle blades are formed and arranged in relation to the wheel blades to direct introduced steam onto the wheel blades , wherein a gap is formed between the inflow housing portion and the wheel disc ; a gap seal , which is arranged in a portion of the gap , is attached to the inflow housing portion and is formed as a brush seal , wherein the brush seal has brushes and a mount , in which the brushes are pressed; and a substantially axially running passage opening in the wheel disc, which is arranged radially between a rotor axis and the gap seal . an inflow housing portion of an inflow housing; nozzle blades of the control stage, which are attached to the inflow housing portion; a wheel disc of a control wheel, which can be rotated together with a rotor in relation to the inflow housing portion and has wheel blades , of the control stage, wherein the nozzle blades are formed and arranged in relation to the wheel blades to direct introduced steam onto the wheel blades , wherein a gap is formed between the inflow housing portion and the wheel disc ; a gap seal , which is arranged in a portion of the gap , is attached to the inflow housing portion and is formed as a brush seal , wherein the brush seal has brushes and a mount , in which the brushes are pressed; and a substantially axially running passage opening in the wheel disc, which is arranged radially between a rotor axis and the gap seal .
A field generator assembly for surgical navigation, comprising: a field generator configured to generate an electromagnetic field; an attachment member configured to attach the field generator to a body of a patient; at least one first arm (6; 8; 10) comprising a first portion (12; 14; 16) configured to be in contact with a surface of the body of the patient when the field generator is attached to the body , and a second portion (18; 20; 22) movably attached relative to the field generator ; and at least one sensor (40; 41; 44; 46) configured to measure a spatial relationship between the at least one arm (6; 8; 10) and the field generator ; characterized in that the field generator assembly is formed as an essentially symmetric component relative to the sagittal plane of the body. a field generator configured to generate an electromagnetic field; an attachment member configured to attach the field generator to a body of a patient; at least one first arm (6; 8; 10) comprising a first portion (12; 14; 16) configured to be in contact with a surface of the body of the patient when the field generator is attached to the body , and a second portion (18; 20; 22) movably attached relative to the field generator ; and a first portion (12; 14; 16) configured to be in contact with a surface of the body of the patient when the field generator is attached to the body , and a second portion (18; 20; 22) movably attached relative to the field generator ; and at least one sensor (40; 41; 44; 46) configured to measure a spatial relationship between the at least one arm (6; 8; 10) and the field generator ; characterized in that the field generator assembly is formed as an essentially symmetric component relative to the sagittal plane of the body.