mhurhangee/patent-ind-claim-en huggingface dataset:
An optical encoder and motor assembly, comprising: a motor and brake device, the motor and brake device including a motor shaft that rotates or remains stationary based on operation of the motor and brake device; a motor and brake housing at least partially enclosing the motor and brake device, the motor and brake housing including at least one cavity aligned with the motor shaft ; an encoder housing at least partially received in the at least one cavity , the encoder housing including an opening ; an encoder shaft supported partially within the encoder housing and partially extending through the opening of the encoder housing , the encoder shaft being associated with the motor shaft so that the encoder shaft rotates relative to the encoder housing as the motor shaft rotates; an encoder disk secured to the encoder shaft , the encoder disk rotating with the encoder shaft , the encoder disk being within the encoder housing , the encoder disk including a plurality of holes in the encoder disk ; and at least one detector within the encoder housing , the at least one detector being situated relative to the encoder disk to detect rotary movement of the encoder disk , wherein the encoder disk comprises at least one plurality of reflective members in a selected pattern on one side of the encoder disk ; wherein the at least one detector detects the rotary movement of the encoder disk by detecting radiation reflected from the reflective members ; and wherein the plurality of holes are condensation-reducing features. a motor and brake device, the motor and brake device including a motor shaft that rotates or remains stationary based on operation of the motor and brake device; a motor and brake housing at least partially enclosing the motor and brake device, the motor and brake housing including at least one cavity aligned with the motor shaft ; an encoder housing at least partially received in the at least one cavity , the encoder housing including an opening ; an encoder shaft supported partially within the encoder housing and partially extending through the opening of the encoder housing , the encoder shaft being associated with the motor shaft so that the encoder shaft rotates relative to the encoder housing as the motor shaft rotates; an encoder disk secured to the encoder shaft , the encoder disk rotating with the encoder shaft , the encoder disk being within the encoder housing , the encoder disk including a plurality of holes in the encoder disk ; and at least one detector within the encoder housing , the at least one detector being situated relative to the encoder disk to detect rotary movement of the encoder disk , wherein the encoder disk comprises at least one plurality of reflective members in a selected pattern on one side of the encoder disk ; wherein the at least one detector detects the rotary movement of the encoder disk by detecting radiation reflected from the reflective members ; and wherein the plurality of holes are condensation-reducing features.
Motor vehicle, in particular motorhome , having a chassis supporting a body with at least two axles , and having a transport receptable arranged in the body with a receiving floor , wherein the receiving floor is designed to be retractable and extendable relative to the body for the purpose of loading and unloading with an object , for example a passenger car , and wherein the receiving floor loaded with the object is lifted by means of a lifting device within the transport receptable after retraction, characterized in that the lifting device reaches through the receiving floor, wherein the lifting device is releasably locked to the receiving floor and as a result the receiving floor is mounted in a floating manner relative to the lifting device such that a relative movement is permitted between the receiving floor and the lifting device . the lifting device reaches through the receiving floor, wherein the lifting device is releasably locked to the receiving floor and as a result the receiving floor is mounted in a floating manner relative to the lifting device such that a relative movement is permitted between the receiving floor and the lifting device .
A portable electronic device comprising: a housing ; a first touch-sensitive screen technology sub-system effective to detect user input for a touch-sensitive screen supported by the housing , the first touch-sensitive screen technology sub-system configured to have an active state and an inactive state; a second touch-sensitive screen technology sub-system effective to detect user input for the touch-sensitive screen supported by the housing , the second touch-sensitive screen technology sub-system configured to have an inactive state and an active state, wherein the second touch-sensitive screen technology sub-system is in the inactive state while the first touch-sensitive screen technology sub-system is in the active state; at least one sensor supported by the housing , the at least one sensor for detecting a predetermined environmental condition, wherein the second touch-sensitive screen technology sub-system is configured to change from the inactive state to the active state and the first touch-sensitive screen technology sub-system is configured to change from the active state to the inactive state in response to the at least one sensor detecting the predetermined environmental condition, and wherein the second touch-sensitive screen technology sub-system is configured to provide a different sensitivity level than the first touch-sensitive screen technology sub-system under the predetermined environmental condition. a housing ; a first touch-sensitive screen technology sub-system effective to detect user input for a touch-sensitive screen supported by the housing , the first touch-sensitive screen technology sub-system configured to have an active state and an inactive state; a second touch-sensitive screen technology sub-system effective to detect user input for the touch-sensitive screen supported by the housing , the second touch-sensitive screen technology sub-system configured to have an inactive state and an active state, wherein the second touch-sensitive screen technology sub-system is in the inactive state while the first touch-sensitive screen technology sub-system is in the active state; at least one sensor supported by the housing , the at least one sensor for detecting a predetermined environmental condition, wherein the second touch-sensitive screen technology sub-system is configured to change from the inactive state to the active state and the first touch-sensitive screen technology sub-system is configured to change from the active state to the inactive state in response to the at least one sensor detecting the predetermined environmental condition, and wherein the second touch-sensitive screen technology sub-system is configured to provide a different sensitivity level than the first touch-sensitive screen technology sub-system under the predetermined environmental condition.
An apparatus comprising: an optical arrangement comprising at least one light guide element, an image source and an exit pupil , wherein the exit pupil is configured to be positioned proximate to an eye of a user to enable a user to view an image from the image source; wherein the at least one light guide element comprises at least one diffraction grating ; and characterized in that the apparatus is configured to control a size and location of the exit pupil of the optical arrangement, in response to a determination of a size and location of a pupil of the eye of the user, to align the exit pupil and the pupil of the eye of the user when the user is moving the eye .. an optical arrangement comprising at least one light guide element, an image source and an exit pupil , wherein the exit pupil is configured to be positioned proximate to an eye of a user to enable a user to view an image from the image source; wherein the at least one light guide element comprises at least one diffraction grating ; and characterized in that the apparatus is configured to control a size and location of the exit pupil of the optical arrangement, in response to a determination of a size and location of a pupil of the eye of the user, to align the exit pupil and the pupil of the eye of the user when the user is moving the eye ..
A construction machine in which a pair of boss parts coupled via a boss pipe are fixed to an end portion of a first structural body , a coupling pin is rotatably supported in bushes provided in the respective boss parts , and a pair of brackets of a second structural body are coupled to opposite ends of the coupling pin protruding from outer surfaces of the respective boss parts , respectively, the construction machine comprising: an inner pipe fitted onto the coupling pin on an inner circumferential side of the boss pipe , having opposite ends facing inner ends of the respective bushes , respectively, and defining, between the inner pipe and an outer circumferential surface of the coupling pin , a grease passage having an annular cross section and extending in an axial direction, a pair of side plates each forming an annular shape to close a gap formed between an end portion of the inner pipe and an end portion of the boss pipe , and defining, between each side plate and an inner surface of each boss part , each of grease chambers communicating with each other via the grease passage , characterized by further comprising a grease supply pipe disposed between both the side plates , and having a base end welded to an outer circumferential surface of the inner pipe , an interior communicating with the grease passage , and a tip end exposed to an exterior via a hole extending through the boss pipe . an inner pipe fitted onto the coupling pin on an inner circumferential side of the boss pipe , having opposite ends facing inner ends of the respective bushes , respectively, and defining, between the inner pipe and an outer circumferential surface of the coupling pin , a grease passage having an annular cross section and extending in an axial direction, a pair of side plates each forming an annular shape to close a gap formed between an end portion of the inner pipe and an end portion of the boss pipe , and defining, between each side plate and an inner surface of each boss part , each of grease chambers communicating with each other via the grease passage , characterized by further comprising a grease supply pipe disposed between both the side plates , and having a base end welded to an outer circumferential surface of the inner pipe , an interior communicating with the grease passage , and a tip end exposed to an exterior via a hole extending through the boss pipe .
A method for manufacturing an electrode for a secondary battery, comprising the steps of: (i) preparing a first electrode mixture for primary coating and a second electrode mixture for secondary coating; (ii) coating the first electrode mixture onto an electrode current collector and carrying out drying; and (iii) coating the second electrode mixture onto the first electrode mixture and carrying out drying in such a manner that a drying rate of the second electrode mixture is lower than the drying rate of the first electrode mixture in step (ii), wherein the first electrode mixture and the second electrode mixture have the same ingredients and compositional ratio, each of the drying rates of the first electrode mixture and the second electrode mixture is 0.1-30 mg/sec, and the drying rate of the second electrode mixture is 30-50% of the drying rate of the first electrode mixture. (i) preparing a first electrode mixture for primary coating and a second electrode mixture for secondary coating; (ii) coating the first electrode mixture onto an electrode current collector and carrying out drying; and (iii) coating the second electrode mixture onto the first electrode mixture and carrying out drying in such a manner that a drying rate of the second electrode mixture is lower than the drying rate of the first electrode mixture in step (ii), wherein the first electrode mixture and the second electrode mixture have the same ingredients and compositional ratio, each of the drying rates of the first electrode mixture and the second electrode mixture is 0.1-30 mg/sec, and the drying rate of the second electrode mixture is 30-50% of the drying rate of the first electrode mixture. wherein the first electrode mixture and the second electrode mixture have the same ingredients and compositional ratio, each of the drying rates of the first electrode mixture and the second electrode mixture is 0.1-30 mg/sec, and the drying rate of the second electrode mixture is 30-50% of the drying rate of the first electrode mixture.
A chimeric antigen receptor (CAR) polypeptide, comprising an antigen binding domain, a transmembrane domain, an intracellular signaling domain, and a co-stimulatory signaling region, characterized in that the antigen binding domain is a single-chain variable fragment (scFv) of an antibody that specifically binds CS1.
A negative electrode for a lithium secondary battery, the negative electrode comprising a negative electrode collector and a negative electrode active material layer formed on the negative electrode collector, wherein the negative electrode active material layer comprises: a negative electrode active material which includes a SiO x composite containing Mg, wherein 0<x<2; a line-type conductive agent as a first conductive agent; and at least one of a point-type conductive agent and a flaky graphite-based conductive agent, as a second conductive agent, wherein an amount of the first conductive agent is in a range of 0.5 wt% to 1.7 wt% based on a total weight of the negative electrode active material layer, and a product of an amount in wt% and a BET specific surface area in m 2 /g of the second conductive agent has a value of 100 or less, wherein the line-type conductive agent comprises at least one selected from carbon nanotubes (CNTs) and carbon nanofibers, and wherein the point-type conductive agent comprises at least one carbon black selected from the group consisting of acetylene black, Ketjen black, channel black, furnace black, lamp black, and thermal black. a negative electrode active material which includes a SiO x composite containing Mg, wherein 0<x<2; a line-type conductive agent as a first conductive agent; and at least one of a point-type conductive agent and a flaky graphite-based conductive agent, as a second conductive agent, wherein an amount of the first conductive agent is in a range of 0.5 wt% to 1.7 wt% based on a total weight of the negative electrode active material layer, and a product of an amount in wt% and a BET specific surface area in m 2 /g of the second conductive agent has a value of 100 or less, wherein the line-type conductive agent comprises at least one selected from carbon nanotubes (CNTs) and carbon nanofibers, and wherein the point-type conductive agent comprises at least one carbon black selected from the group consisting of acetylene black, Ketjen black, channel black, furnace black, lamp black, and thermal black.
A double container system of the bottle-in-bottle type, which is essentially composed of a plastic polymer, comprising a container and a further inner container, for packaging under pressure of continuum filling products, including fluids, resp. where appropriate discontinuous filling products such as foam, pastes, cream, or also powders, said container comprising a neck part with a pouring opening at its top, a body section , which is adjacent thereto and which forms the body of said container , and a separate base part that is attached to said container body by means of a joint, and a closure for closing the top section, wherein an inner container is provided in said container , which inner container is completely enclosed in said container and which inner container is in turn attached with a joint to said base part of said container , thereby forming a double container system wherein the inner container is supported additionally by said container ; and characterized in that the system is arranged such that said container is placed under a pressure p1 and said inner container is placed under internal pressure p2, wherein both pressures p1 and p 2 are higher than atmospheric pressure, p2 is higher than p1, and the inner container is provided such as to withstand a residual pressure Δp which is equal to the positive difference between the higher pressure p2 in the inner container and the lower counter-pressure p1 in said container .
An intraocular lens comprising a polymeric material, the polymeric material comprising: butyl acrylate present in the amount from 2% to 20% by volume, trifluoroethyl methacrylate present in the amount from 10% to 35% by volume, and phenylethyl acrylate present in the amount from 50% to 80% by volume, wherein the intraocular lens further comprises an adhesive, wherein the adhesive comprises a first component that comprises monomers that are present in the polymeric material and a second component, wherein the first component is about 55% to about 80% by volume of the adhesive. butyl acrylate present in the amount from 2% to 20% by volume, trifluoroethyl methacrylate present in the amount from 10% to 35% by volume, and phenylethyl acrylate present in the amount from 50% to 80% by volume, wherein the intraocular lens further comprises an adhesive, wherein the adhesive comprises a first component that comprises monomers that are present in the polymeric material and a second component, wherein the first component is about 55% to about 80% by volume of the adhesive.
A lighthouse , comprising a mast device and a lighting device mounted on the mast device , wherein the lighthouse further comprises: a main body comprising a box body and a top cover , wherein the top cover is arranged on a top of the box body , the top cover and the box body define a receiving chamber, and the top cover is movable or detachable relative to the box body to open or close the receiving chamber, and a power supply assembly comprising a solar module , characterized in that the box body has a drawing port provided in a side wall thereof, the drawing port being in communication with the receiving chamber, and the solar module is movable between a position in which the solar module is received in the receiving chamber and a position in which the solar module is drawn out of the receiving chamber through the drawing port. a main body comprising a box body and a top cover , wherein the top cover is arranged on a top of the box body , the top cover and the box body define a receiving chamber, and the top cover is movable or detachable relative to the box body to open or close the receiving chamber, and a power supply assembly comprising a solar module , characterized in that the box body has a drawing port provided in a side wall thereof, the drawing port being in communication with the receiving chamber, and the solar module is movable between a position in which the solar module is received in the receiving chamber and a position in which the solar module is drawn out of the receiving chamber through the drawing port.
A redundant module for decoupling short-circuit currents in a redundant voltage supply, comprising at least two power supply units, with a number of inputs (IN1, IN2) corresponding at least to the number of the power supply units, and with a control and regulation device, wherein each input (IN1, IN2) is routed via a separate current path to a common current node of an output (OUT) for providing an output current, and wherein each current path defines a decoupling section, in which the path currents flowing through a current path can be controlled symmetrically, and wherein each decoupling section has associated therewith at least one measuring element which is adapted for measuring the input voltage and the input current, and an adjusting element (R1, R2) which is adapted for regulating current, voltage and/or power, wherein the measuring elements and the adjusting elements are connected to the control and regulation device; wherein the regulation device is connected to the adjusting element (R1, R2) of each current path, wherein the regulation device is adapted to regulate a current balance between the current paths by setting a minimum resistance value at that adjusting element which has the lowest voltage applied at its input (IN1, IN2); and wherein the current of the path with the smallest input voltage defines the target value for the regulation, and wherein the input voltages at the inputs of the redundancy module are continuously monitored so that in the event of a failure or short circuit of a power supply unit, the current is switched off by the associated decoupling path.
An in vitro method for detecting a C10orf54 protein in a sample comprising contacting the sample with an isolated antibody or antigen-binding fragment thereof comprising - a heavy chain variable domain comprising the following three CDRs, respectively CDR-H1 having the sequence SEQ ID NO: 1302, CDR-H2 having the sequence SEQ ID NO: 1365 and CDR-H3 having the sequence SEQ ID NO: 1402, and - a light chain variable domain comprising the following three CDRs, respectively CDR-L1 having the sequence SEQ ID NO: 1455, CDR-L2 having the sequence SEQ ID NO: 1103 and CDR-L3 having the sequence SEQ ID NO: 1505, wherein the antibody or antigen-binding fragment thereof is conjugated or recombinantly fused to a detectable agent. - a heavy chain variable domain comprising the following three CDRs, respectively CDR-H1 having the sequence SEQ ID NO: 1302, CDR-H2 having the sequence SEQ ID NO: 1365 and CDR-H3 having the sequence SEQ ID NO: 1402, and - a light chain variable domain comprising the following three CDRs, respectively CDR-L1 having the sequence SEQ ID NO: 1455, CDR-L2 having the sequence SEQ ID NO: 1103 and CDR-L3 having the sequence SEQ ID NO: 1505,
An isolated IL-1β specific antigen binding protein comprising the following CDRs: - a heavy chain variable region that includes the CDRs H1 = DYYWS, H2 = EIDHSGSTNYNPSLKS, H3 = ASPSSGWTLDY; and - a light chain variable region that includes the CDRs L1 = GDKLGDKFAF, L2 = LDNKRPS, L3 = YAWADTYEV. - a heavy chain variable region that includes the CDRs H1 = DYYWS, H2 = EIDHSGSTNYNPSLKS, H3 = ASPSSGWTLDY; and - a light chain variable region that includes the CDRs L1 = GDKLGDKFAF, L2 = LDNKRPS, L3 = YAWADTYEV.