mhurhangee/patent-ind-claim-en huggingface dataset:
A tetravalent antigen binding complex having agonist activity for OX40, the complex comprising four antigen binding domains that bind OX40, wherein each of the four antigen binding domains comprises an antibody heavy chain variable (VH) domain and an antibody light chain variable (VL) domain, wherein (a) the complex comprises one or more antigen binding domains that bind a first epitope of OX40 and one or more antigen binding domains that bind a second epitope of OX40, and wherein the first and second epitopes of OX40 are different and/or (b) the antigen binding domains that bind the first epitope do not cross-compete for binding OX40 with the antigen binding domains that bind the second epitope; wherein the complex comprises two antibody heavy chain polypeptides and two antibody light chain polypeptides; wherein each of the antibody heavy chain polypeptides comprises: VH 1 -L 1 -VH 2 -L 2 -CH 1 -hinge-CH 2 -CH 3 [I]; wherein each of the antibody light chain polypeptides comprises: VL 1 -L 3 -VL 2 -L 4 -CL [II]; wherein each of the antibody heavy chain polypeptides associates with one antibody light chain polypeptide such that VH 1 and VL 1 form an antigen binding domain that binds the first epitope of OX40 and VH 2 and VL 2 form an antigen binding domain that binds the second epitope of OX40; and wherein VH 1 is a first antibody heavy chain variable domain, VH 2 is a second antibody heavy chain variable domain, VL 1 is a first antibody light chain variable domain, VL 2 is a second antibody light chain variable domain, CL is an antibody light chain constant domain, CH 1 is an antibody first heavy chain constant domain, hinge is an antibody hinge region, CH 2 is an antibody second heavy chain constant domain, CH 3 is an antibody third heavy chain constant domain, and L 1 , L 2 , L 3 , and L 4 are amino acid linkers.
A nacelle , comprising an exhaust and a pylon , the exhaust comprising a nozzle , the nozzle including a curved portion that is configured to shift flow of gas exiting through the exhaust in a direction that counteracts deflection of the flow by the pylon attached to the nacelle , wherein: the nozzle is disposed around a body and flow of the gas between the nozzle and the body is bounded by an outer flow surface on the nozzle and an inner flow surface on the body ; a first distance D1 between a first point P1 on the outer flow surface and a second point P2 on the inner flow surface is longer than a second distance D2 between a third point P3 on the outer flow surface and a fourth point P4 on the body ; the pylon attached to the nacelle , being closer to the first point P1 than the third point P3; and exhaust of the gas outputted from the nozzle is shifted in the direction (V) counteracting deflection of the gas away from the pylon and caused by the pylon during flight and/or take-off of an aircraft propelled using the nozzle . the nozzle is disposed around a body and flow of the gas between the nozzle and the body is bounded by an outer flow surface on the nozzle and an inner flow surface on the body ; a first distance D1 between a first point P1 on the outer flow surface and a second point P2 on the inner flow surface is longer than a second distance D2 between a third point P3 on the outer flow surface and a fourth point P4 on the body ; the pylon attached to the nacelle , being closer to the first point P1 than the third point P3; and exhaust of the gas outputted from the nozzle is shifted in the direction (V) counteracting deflection of the gas away from the pylon and caused by the pylon during flight and/or take-off of an aircraft propelled using the nozzle .
A sensor element comprising a diamond which is n-type phosphorus-doped and contains one or more nitrogen-vacancy centers in a crystal structure, characterized in that a ratio of 12 C in carbon atoms forming the crystal of the diamond is more than 99%, and a concentration of phosphorus contained in the crystal of the diamond is 1 × 10 15 cm -3 or more and 1 × 10 18 cm -3 or less, wherein the nitrogen-vacancy centers contained in the diamond each have a sensitivity of less than 3.1 nTHz -1/2 to an alternate magnetic field and a sensitivity of less than 20 nTHz -1/2 to a constant magnetic field.
An air filter comprising an active element and a housing structure for said active element, said housing structure comprising an air inlet and an air outlet, said active element comprising or consisting of (i) a polymer foam and (ii) an adsorbent material, wherein the polymer foam comprises metal particles and the polymer comprises or consists of polyimide, and wherein the metal particles are present in an amount of greater than 30 wt% to 80 wt%, e.g. 50 wt% or 60 wt% to 80 wt% based on the weight of the filled polymer foam, and further wherein the metal particles are selected from one or any combination of copper, zinc, silver, potassium, selenium, titanium, gold, palladium, platinum, which may be present as metals, metal compounds or metal alloys or any combination thereof, and the polymer foam is obtained using a blowing agent.
An inspection lighting device configured to irradiate inspection light onto an inspection object (W), the inspection lighting device comprising: a surface light source for emitting inspection light; a lens disposed between the surface light source and the inspection object (W) and configured to form on the inspection object (W) an irradiation solid angle of light that is emitted from the surface light source and irradiated onto the inspection object (W) as the inspection light; characterized by a first filtering means (F1) disposed between the surface light source and the lens and in front of a focus position or behind the focus position or at the focus position of the lens , the first filtering means (F1) comprising a plurality of portions (F11, F12, F13) each transmitting only light having specific optical attributes, the first filtering means (F1) being configured to form a plurality of solid angle regions having different optical attributes within the irradiation solid angle of inspection light irradiated onto each point on the inspection object (W), wherein a shape, a size, or an inclination of the solid angle regions, and an optical attribute such as a wavelength band, a polarization state, or a light amount can be set. a surface light source for emitting inspection light; a lens disposed between the surface light source and the inspection object (W) and configured to form on the inspection object (W) an irradiation solid angle of light that is emitted from the surface light source and irradiated onto the inspection object (W) as the inspection light; characterized by a first filtering means (F1) disposed between the surface light source and the lens and in front of a focus position or behind the focus position or at the focus position of the lens , the first filtering means (F1) comprising a plurality of portions (F11, F12, F13) each transmitting only light having specific optical attributes, the first filtering means (F1) being configured to form a plurality of solid angle regions having different optical attributes within the irradiation solid angle of inspection light irradiated onto each point on the inspection object (W), wherein a shape, a size, or an inclination of the solid angle regions, and an optical attribute such as a wavelength band, a polarization state, or a light amount can be set.
A method for preparing an aldehyde, the method comprising: forming a reaction product comprising an aldehyde by reacting an olefin-based compound with a synthetic gas in a hydroformylation reactor under a catalyst for a hydroformylation reaction; introducing the reaction product comprising the aldehyde to a vaporizer ; separating low-boiling point components of the reaction product to an upper part of a vaporizer catch pot comprised in the vaporizer , and separating highboiling point components of the reaction product to a lower part of the vaporizer catch pot ; and recirculating at least a portion of the low-boiling point components separated to the upper part of the vaporizer catch pot to the vaporizer catch pot , wherein a weight of the low-boiling point components recirculated to the vaporizer catch pot is from 0.1 times to 10 times a weight of the high-boiling point components separated to the lower part of the vaporizer catch pot , wherein the high-boiling point components separated to the lower part of the vaporizer catch pot comprises an aldehyde dimer and the catalyst for a hydroformylation reaction, wherein the high-boiling point components separated to the lower part of the vaporizer catch pot is recirculated to the hydroformylation reactor , and wherein, based on a total weight of the high-boiling point components separated to the lower part of the vaporizer catch pot , a content of the aldehyde dimer is 10% by weight or less. forming a reaction product comprising an aldehyde by reacting an olefin-based compound with a synthetic gas in a hydroformylation reactor under a catalyst for a hydroformylation reaction; introducing the reaction product comprising the aldehyde to a vaporizer ; separating low-boiling point components of the reaction product to an upper part of a vaporizer catch pot comprised in the vaporizer , and separating highboiling point components of the reaction product to a lower part of the vaporizer catch pot ; and recirculating at least a portion of the low-boiling point components separated to the upper part of the vaporizer catch pot to the vaporizer catch pot , wherein a weight of the low-boiling point components recirculated to the vaporizer catch pot is from 0.1 times to 10 times a weight of the high-boiling point components separated to the lower part of the vaporizer catch pot , wherein the high-boiling point components separated to the lower part of the vaporizer catch pot comprises an aldehyde dimer and the catalyst for a hydroformylation reaction, wherein the high-boiling point components separated to the lower part of the vaporizer catch pot is recirculated to the hydroformylation reactor , and wherein, based on a total weight of the high-boiling point components separated to the lower part of the vaporizer catch pot , a content of the aldehyde dimer is 10% by weight or less.
A complex comprising calcium phosphate particles having an average primary particle size of 5 μm or less adhered to the surface of a fiber, wherein 15% or more of the surface of the fiber is covered by the calcium phosphate.
Housing contacting system of a control device, comprising the following: - a housing cover and a base element which together define an interior of the control device; and - a printed circuit board having a front side and a rear side , wherein a conductive surface layer is formed on the rear side and the printed circuit board is arranged in the interior , characterized by : - a spring element which is at least partially electrically conductive and is arranged between the conductive surface layer and the base element under spring prestress in order to implement rear-side contacting of the printed circuit board , wherein the spring element is firmly fixed on the base element at least in respect of lateral movement parallel to the printed circuit board and rests loosely on the rear side of the printed circuit board , and the printed circuit board on the rear side has a tin-plated surface i.e. surface layer. - a housing cover and a base element which together define an interior of the control device; and - a printed circuit board having a front side and a rear side , wherein a conductive surface layer is formed on the rear side and the printed circuit board is arranged in the interior , - a spring element which is at least partially electrically conductive and is arranged between the conductive surface layer and the base element under spring prestress in order to implement rear-side contacting of the printed circuit board , wherein the spring element is firmly fixed on the base element at least in respect of lateral movement parallel to the printed circuit board and rests loosely on the rear side of the printed circuit board , and the printed circuit board on the rear side has a tin-plated surface i.e. surface layer.
A glass plate production method comprising: preparing a glass material having a first main surface and a second main surface opposite to each other; irradiating the first main surface of the glass material with a laser to form an in-plane void region having a plurality of voids arranged on the first main surface , and forming a plurality of internal void rows in a virtual end face , each of the internal void rows having one void or two or more voids arranged from the in-plane void region toward the second main surface of the glass material , the virtual end face including the in-plane void region having the plurality of voids ; and chemically strengthening the glass material having the internal void rows formed therein, characterised in that in the in-plane void region , the diameter of the voids falls within a range of 0.2 to 10 μm, and an interval between the adjacent voids falls within a range of 1 to 20 μm. preparing a glass material having a first main surface and a second main surface opposite to each other; irradiating the first main surface of the glass material with a laser to form an in-plane void region having a plurality of voids arranged on the first main surface , and forming a plurality of internal void rows in a virtual end face , each of the internal void rows having one void or two or more voids arranged from the in-plane void region toward the second main surface of the glass material , the virtual end face including the in-plane void region having the plurality of voids ; and chemically strengthening the glass material having the internal void rows formed therein,
User Equipment , UE, for a Radio Access Network, the UE being adapted for transmitting acknowledgement signaling pertaining to downlink data, the downlink data comprising one or more downlink data elements; wherein the acknowledgement signaling has an uplink signaling format comprising one or more acknowledgement substructures, each of the substructures carrying acknowledgement information pertaining to a downlink data element; wherein further each of the acknowledgment substructures is mapped to a different of the downlink data elements based on at least one acknowledgement position indication provided in downlink control signaling received by the UE ; the acknowledgement position indication comprising a timing indication; the timing indication indicating a slot for transmitting the acknowledgement signaling; the acknowledgement position indication further comprising a resource selection indication indicating a Physical Uplink Control Channel, PUCCH, resource for transmitting the acknowledgement signaling, the PUCCH resource being a time-frequency resource and being selected by the resource selection indication from a pool of resources configured to the UE to be available for transmitting the acknowledgement signaling in the slot indicated by the timing indication; wherein the timing indication is reused to select a sub-resource within the PUCCH resource selected by the resource selection indication; and wherein further resources of the configured pool of resources for transmitting the acknowledgement signaling have different associated formats for transmission of the acknowledgement signaling or different payload size. the acknowledgement position indication comprising a timing indication; the timing indication indicating a slot for transmitting the acknowledgement signaling; the acknowledgement position indication further comprising a resource selection indication indicating a Physical Uplink Control Channel, PUCCH, resource for transmitting the acknowledgement signaling, the PUCCH resource being a time-frequency resource and being selected by the resource selection indication from a pool of resources configured to the UE to be available for transmitting the acknowledgement signaling in the slot indicated by the timing indication; wherein the timing indication is reused to select a sub-resource within the PUCCH resource selected by the resource selection indication; and wherein further resources of the configured pool of resources for transmitting the acknowledgement signaling have different associated formats for transmission of the acknowledgement signaling or different payload size.
A blender base comprising: a base frame ; a motor housing supported by said base frame ; an outer shell connected to said base frame ; a pedestal supported by said motor housing , the pedestal comprising at least one post connected to at least one connection portion of said motor housing ; wherein said pedestal is configured to receive and support a blender container thereon; a bottom gasket positioned beneath said motor housing and between said motor housing and said base frame , wherein said motor housing is isolated from direct contact with said base frame by said bottom gasket ; and at least one upper gasket positioned above said motor housing and between said motor housing and said at least one post ,wherein said motor housing is isolated from direct connection with said outer shell and/or said pedestal by said at least one upper gasket or said bottom gasket . a base frame ; a motor housing supported by said base frame ; an outer shell connected to said base frame ; a pedestal supported by said motor housing , the pedestal comprising at least one post connected to at least one connection portion of said motor housing ; wherein said pedestal is configured to receive and support a blender container thereon; a bottom gasket positioned beneath said motor housing and between said motor housing and said base frame , wherein said motor housing is isolated from direct contact with said base frame by said bottom gasket ; and at least one upper gasket positioned above said motor housing and between said motor housing and said at least one post ,wherein said motor housing is isolated from direct connection with said outer shell and/or said pedestal by said at least one upper gasket or said bottom gasket .
A servo system , comprising: a servo motor ; a servo driver supplying a driving current to the servo motor to drive the servo motor ; and an information processing device sending an operation command signal of the servo motor to the servo driver , wherein a gain adjustment for adjusting a gain in control of the servo motor is performed based on the operation command signal from the information processing device , characterized in that : the servo system further comprises a movement range limiting device that prevents the servo motor from moving beyond a permissible range by returning a position of the servo motor to a predetermined start position in the gain adjustment, the gain adjustment comprises a gain adjustment process of adjusting the gain by repeatedly moving the servo motor between the start position and a predetermined movement position while changing the gain, and the movement range limiting device returns the servo motor to the start position at the start of the gain adjustment process, or when the servo motor is stopped in the middle of the gain adjustment process. a servo motor ; a servo driver supplying a driving current to the servo motor to drive the servo motor ; and an information processing device sending an operation command signal of the servo motor to the servo driver , wherein a gain adjustment for adjusting a gain in control of the servo motor is performed based on the operation command signal from the information processing device , characterized in that : the servo system further comprises a movement range limiting device that prevents the servo motor from moving beyond a permissible range by returning a position of the servo motor to a predetermined start position in the gain adjustment, the gain adjustment comprises a gain adjustment process of adjusting the gain by repeatedly moving the servo motor between the start position and a predetermined movement position while changing the gain, and the movement range limiting device returns the servo motor to the start position at the start of the gain adjustment process, or when the servo motor is stopped in the middle of the gain adjustment process. the servo system further comprises a movement range limiting device that prevents the servo motor from moving beyond a permissible range by returning a position of the servo motor to a predetermined start position in the gain adjustment, the gain adjustment comprises a gain adjustment process of adjusting the gain by repeatedly moving the servo motor between the start position and a predetermined movement position while changing the gain, and the movement range limiting device returns the servo motor to the start position at the start of the gain adjustment process, or when the servo motor is stopped in the middle of the gain adjustment process.
A primary optical component for an automotive-vehicle lighting module, of the type including at least one light-entrance member having a light-ray entrance face and a corrective portion having a light-ray exit face, the corrective portion being arranged so as to correct the geometric aberrations of light rays issued from the entrance member, the light-entrance member and the corrective portion forming an integral structure bounded by surfaces including an admission surface through which the light-entrance member opens onto the corrective portion via a zone of junction , and an exit surface , the exit surface forming the exit face of the corrective portion and having a convex shape, characterized in that said integral structure is further bounded by an intermediate surface , said intermediate surface forming a reflective surface arranged to reflect rays issued from the light-entrance member toward the exit surface of the corrective portion and having a profile arranged to reflect the light rays by total internal reflection so as to treat said geometric aberrations of light rays issued from the entrance member, the zone of junction of the entrance member being oriented toward the intermediate surface so that all of the rays issued from the entrance member are targeted on the intermediate surface directly. the light-entrance member and the corrective portion forming an integral structure bounded by surfaces including an admission surface through which the light-entrance member opens onto the corrective portion via a zone of junction , and an exit surface , the exit surface forming the exit face of the corrective portion and having a convex shape, characterized in that said integral structure is further bounded by an intermediate surface , said intermediate surface forming a reflective surface arranged to reflect rays issued from the light-entrance member toward the exit surface of the corrective portion and having a profile arranged to reflect the light rays by total internal reflection so as to treat said geometric aberrations of light rays issued from the entrance member, the zone of junction of the entrance member being oriented toward the intermediate surface so that all of the rays issued from the entrance member are targeted on the intermediate surface directly.