mhurhangee/patent-ind-claim-en huggingface dataset:
Autonomously driving vehicle with a driver assistance system and a vehicle camera apparatus for capturing a surrounding region of a motor vehicle , having an image sensor device for recording at least one image of the surrounding region of the motor vehicle , having an image evaluation device , wherein, for checking for a correct headlamp state, the image evaluation device is configured to evaluate at least one variable describing the headlamp light of at least one vehicle headlamp of the own motor vehicle based on the at least one image recorded by the image sensor device , wherein, for checking for the correct headlamp state, the image evaluation device is configured to evaluate a light intensity distribution of the headlamp light of the at least one vehicle headlamp based on the at least one image , wherein the light intensity distribution is evaluated by way of the evaluation of at least two light intensity values present along a main beam direction of the headlamp light, wherein furthermore a control device is provided, wherein the control device captures information data relating to the switch-on state of the at least one vehicle headlamp, and wherein the control device transmits the information data relating to the switch-on state of the at least one vehicle headlamp to the image evaluation device via an output interface and wherein the result of the check for a correct headlamp state contributes to the determination of which vehicle speeds are currently available for an autonomously driving vehicle with the vehicle camera apparatus , wherein the vehicle speed is reduced by a driver assistance apparatus of the motor vehicle in the event of the evaluation of the incorrect headlamp state.
A cooling and heating cabinet comprising: an inner case having a storage space therein; an outer case disposed to surround the inner case, a heat insulating cavity being provided between the outer case and the inner case, and wherein the heat insulating cavity is a single vacuum cavity; a thermoelectric element module disposed in the heat insulating cavity ; a separation panel disposed inside the inner case and having a plurality of through holes , the plurality of through holes including an intake hole and a discharge hole ; an agitating part disposed between a bottom surface of the inner case and the separation panel and having a magnet and a stirring fan rotating together with the magnet; and a magnetic field generating part , disposed outside the outer case , being configured for generating a magnetic field to cause the magnet to be rotated. an inner case having a storage space therein; an outer case disposed to surround the inner case, a heat insulating cavity being provided between the outer case and the inner case, and wherein the heat insulating cavity is a single vacuum cavity; a thermoelectric element module disposed in the heat insulating cavity ; a separation panel disposed inside the inner case and having a plurality of through holes , the plurality of through holes including an intake hole and a discharge hole ; an agitating part disposed between a bottom surface of the inner case and the separation panel and having a magnet and a stirring fan rotating together with the magnet; and a magnetic field generating part , disposed outside the outer case , being configured for generating a magnetic field to cause the magnet to be rotated.
An RFID device , comprising: a reactive strap comprising a conductor enclosing an area and a radio frequency identification, RFID, chip connected to the conductor, the enclosed area defining a first opening ; and a flexible substrate attached to the conductor and comprising an inner perimeter defining a second opening , wherein the first and second openings together define a passage through both the conductor and the flexible substrate; wherein the RFID device further comprises a flexible article and an antenna , the antenna comprising a wire configured for reactively coupling with the reactive strap, wherein the reactive strap is secured to the flexible article by at least one stitch extending from a position outside of an outer perimeter of the flexible substrate over the conductor to a position within the second opening of the flexible substrate without penetrating the flexible substrate, wherein the at least one stitch is formed using the wire. a reactive strap comprising a conductor enclosing an area and a radio frequency identification, RFID, chip connected to the conductor, the enclosed area defining a first opening ; and a flexible substrate attached to the conductor and comprising an inner perimeter defining a second opening , wherein the first and second openings together define a passage through both the conductor and the flexible substrate; wherein the RFID device further comprises a flexible article and an antenna , the antenna comprising a wire configured for reactively coupling with the reactive strap, wherein the reactive strap is secured to the flexible article by at least one stitch extending from a position outside of an outer perimeter of the flexible substrate over the conductor to a position within the second opening of the flexible substrate without penetrating the flexible substrate, wherein the at least one stitch is formed using the wire.
A medical system comprising: a manipulator assembly having a plurality of links extending between an instrument holder and a proximal base , the instrument holder being configured to support an instrument having an instrument shaft extending through an access site of a patient, the manipulator assembly being configured for moving the instrument relative to the proximal base when the instrument is supported by the instrument holder , wherein the plurality of links are interconnected by a plurality of joints (J1, J2, J3, J4, J5, J6, J7, J8), and wherein the plurality of joints (J1, J2, J3, J4, J5, J6, J7, J8) provide sufficient degrees of freedom to allow a range of joint states for a given state of the instrument when the instrument is supported by the instrument holder ; characterized in further comprising a processor configured to: determine a first set of joint movements of the plurality of joints (J1, J2, J3, J4, J5, J6, J7, J8) that maintains the instrument shaft at the access site during movement of the access site , and determine a second set of joint movements of the plurality of joints (J1, J2, J3, J4, J5, J6, J7, J8) that, when combined with the first set of joint movements, maintains an orientation or a pose of at least a portion of the manipulator assembly during the movement of the access site . a manipulator assembly having a plurality of links extending between an instrument holder and a proximal base , the instrument holder being configured to support an instrument having an instrument shaft extending through an access site of a patient, the manipulator assembly being configured for moving the instrument relative to the proximal base when the instrument is supported by the instrument holder , wherein the plurality of links are interconnected by a plurality of joints (J1, J2, J3, J4, J5, J6, J7, J8), and wherein the plurality of joints (J1, J2, J3, J4, J5, J6, J7, J8) provide sufficient degrees of freedom to allow a range of joint states for a given state of the instrument when the instrument is supported by the instrument holder ; characterized in further comprising a processor configured to: determine a first set of joint movements of the plurality of joints (J1, J2, J3, J4, J5, J6, J7, J8) that maintains the instrument shaft at the access site during movement of the access site , and determine a second set of joint movements of the plurality of joints (J1, J2, J3, J4, J5, J6, J7, J8) that, when combined with the first set of joint movements, maintains an orientation or a pose of at least a portion of the manipulator assembly during the movement of the access site . determine a first set of joint movements of the plurality of joints (J1, J2, J3, J4, J5, J6, J7, J8) that maintains the instrument shaft at the access site during movement of the access site , and determine a second set of joint movements of the plurality of joints (J1, J2, J3, J4, J5, J6, J7, J8) that, when combined with the first set of joint movements, maintains an orientation or a pose of at least a portion of the manipulator assembly during the movement of the access site .
An asymmetry composite material comprising a first polymer layer , a metal porous body and a second polymer layer sequentially stacked, wherein the first polymer layer and the second polymer layer comprise different components, wherein the metal porous body comprises a first region in which a first polymer component of the first polymer layer is present and a second region in which a second polymer component of the second polymer layer is present and wherein a thickness of the first region is in a range of 0.01 to 0.99 times a thickness of the metal porous body . wherein the first polymer layer and the second polymer layer comprise different components, wherein the metal porous body comprises a first region in which a first polymer component of the first polymer layer is present and a second region in which a second polymer component of the second polymer layer is present and wherein a thickness of the first region is in a range of 0.01 to 0.99 times a thickness of the metal porous body .
A thermoplastic elastomer compound, comprising: (a) hydrogenated styrenic block copolymer; (b) 30-130 parts of an oil per one hundred parts of the copolymer; (c) 30-130 parts of a midblock tackifier per one hundred parts of the copolymer; (d) 60-200 parts of a bonding agent per one hundred parts of the copolymer for overmolding of the thermoplastic elastomer compound to a polar polymeric substrate, (e) 0-60 parts of a hardness modifier per one hundred parts of the copolymer; (f) 0-3 parts of a wax per one hundred parts of the copolymer; and (g) 0-3 parts of an anti-oxidant per one hundred parts of the copolymer; wherein the compound has a compression set of less than about 50% when tested at 70°C for 22 hours using ASTM D395 Test Method B. (a) hydrogenated styrenic block copolymer; (b) 30-130 parts of an oil per one hundred parts of the copolymer; (c) 30-130 parts of a midblock tackifier per one hundred parts of the copolymer; (d) 60-200 parts of a bonding agent per one hundred parts of the copolymer for overmolding of the thermoplastic elastomer compound to a polar polymeric substrate, (e) 0-60 parts of a hardness modifier per one hundred parts of the copolymer; (f) 0-3 parts of a wax per one hundred parts of the copolymer; and (g) 0-3 parts of an anti-oxidant per one hundred parts of the copolymer;
A transmission opportunity determining method, comprising: determining (S301), by an access point, transmission opportunity duration, wherein the transmission opportunity duration is a duration in which the access point performs frame transmission with at least two stations for a plurality of times; after the access point performs backoff and obtains a channel through contention, and initially sends a downlink frame in the transmission opportunity duration, determining (S302), by the access point, that the access point holds a transmission opportunity in the transmission opportunity duration; and after determining (S302) that the access point holds the transmission opportunity in the transmission opportunity duration, sending, by the access point, another downlink frame in the transmission opportunity duration if the access point does not receive a multiuser uplink frame in reply to the initially sent downlink frame, wherein the access point does not perform backoff before sending the another downlink frame in the transmission opportunity duration. determining (S301), by an access point, transmission opportunity duration, wherein the transmission opportunity duration is a duration in which the access point performs frame transmission with at least two stations for a plurality of times; after the access point performs backoff and obtains a channel through contention, and initially sends a downlink frame in the transmission opportunity duration, determining (S302), by the access point, that the access point holds a transmission opportunity in the transmission opportunity duration; and after determining (S302) that the access point holds the transmission opportunity in the transmission opportunity duration, sending, by the access point, another downlink frame in the transmission opportunity duration if the access point does not receive a multiuser uplink frame in reply to the initially sent downlink frame, wherein the access point does not perform backoff before sending the another downlink frame in the transmission opportunity duration.
A nerve stimulation system , comprising: a catheter extending from a proximal end to a distal end , the catheter including a lumen; a plurality of distal electrodes supported by the catheter and positioned proximate the distal end of the catheter , wherein the plurality of distal electrodes is configured for stimulating a right phrenic nerve; and a plurality of proximal electrodes supported by the catheter and positioned proximal to the plurality of distal electrodes , wherein the plurality of proximal electrodes is configured for stimulating a left phrenic nerve; wherein the plurality of distal electrodes , the plurality of proximal electrodes , or both, comprise a metal ribbon ; wherein a first portion of the metal ribbon is between a top layer and a bottom insulative layer; a second portion of the metal ribbon , is above both the top layer and the bottom insulative layer; and a third portion of the metal ribbon , between the first and second portions of the metal ribbon , passes through an aperture in the top layer. a catheter extending from a proximal end to a distal end , the catheter including a lumen; a plurality of distal electrodes supported by the catheter and positioned proximate the distal end of the catheter , wherein the plurality of distal electrodes is configured for stimulating a right phrenic nerve; and a plurality of proximal electrodes supported by the catheter and positioned proximal to the plurality of distal electrodes , wherein the plurality of proximal electrodes is configured for stimulating a left phrenic nerve; wherein the plurality of distal electrodes , the plurality of proximal electrodes , or both, comprise a metal ribbon ; wherein a first portion of the metal ribbon is between a top layer and a bottom insulative layer; a second portion of the metal ribbon , is above both the top layer and the bottom insulative layer; and a third portion of the metal ribbon , between the first and second portions of the metal ribbon , passes through an aperture in the top layer.
An azeotrope-like composition comprising (a) 1,2-trans-dichloroethylene, (b) 1,1,1,3,3-pentafluorobutane, and (c) 1,1,2,2-tetrafluoroethyl-2,2,2-trifluoroethyl ether.
A milk analysis apparatus associated with a milking equipment , configured for receiving a cassette detachably inserted into the milk analysis apparatus ; wherein the milk analysis apparatus comprises: a receiving section , configured to detachably receive the cassette ; a housing enclosing at least a part of the milk analysis apparatus ; a thermoelectric element ; an interior heat exchange element , arranged adjacent to the thermoelectric element ; a fan , arranged for circulating air inside the housing of the milk analysis apparatus ; a temperature sensor arranged inside the housing of the milk analysis apparatus ; a guided surface of the milk analysis apparatus for guiding circulating air inside the housing via the interior heat exchange element towards an outlet of the receiving section ; and a control unit configured to: determine temperature inside the housing via the temperature sensor ; compare the determined temperature with a temperature threshold limit; and adjust current provided to the thermoelectric element , based on the comparison, wherein the fan is a radial fan, arranged on the interior of the housing , for creating an airflow through the interior heat exchange element , thereby bringing the air to circulate within the housing . a receiving section , configured to detachably receive the cassette ; a housing enclosing at least a part of the milk analysis apparatus ; a thermoelectric element ; an interior heat exchange element , arranged adjacent to the thermoelectric element ; a fan , arranged for circulating air inside the housing of the milk analysis apparatus ; a temperature sensor arranged inside the housing of the milk analysis apparatus ; a guided surface of the milk analysis apparatus for guiding circulating air inside the housing via the interior heat exchange element towards an outlet of the receiving section ; and a control unit configured to: determine temperature inside the housing via the temperature sensor ; compare the determined temperature with a temperature threshold limit; and adjust current provided to the thermoelectric element , based on the comparison, wherein the fan is a radial fan, arranged on the interior of the housing , for creating an airflow through the interior heat exchange element , thereby bringing the air to circulate within the housing . determine temperature inside the housing via the temperature sensor ; compare the determined temperature with a temperature threshold limit; and adjust current provided to the thermoelectric element , based on the comparison, wherein the fan is a radial fan, arranged on the interior of the housing , for creating an airflow through the interior heat exchange element , thereby bringing the air to circulate within the housing .
A method for producing a silica aerogel blanket, the method comprising the steps of: 1) preparing a silica sol by mixing a silica precursor, alcohol, and an acidic aqueous solution; 2) producing a silica gel composite by adding a basic catalyst to the silica sol, and then depositing the silica sol added with the basic catalyst in a base material for blanket; 3) producing a hydrophobic silica aerogel by aging, surface modifying, and drying the silica gel composite, wherein the surface modifying of Step 3) is performed by adding one or more kinds of surface modifiers selected from the group consisting of trimethylchlorosilane (TMCS), hexamethyldisilazane (HMDS), methyltrimethoxysilane, trimethylethoxysilane, ethyltriethoxysilane, phenyltriethoxysilane, and polydimethylsiloxane; and 4) heat treating the hydrophobic silica aerogel at a temperature of 500 to 800°C. 1) preparing a silica sol by mixing a silica precursor, alcohol, and an acidic aqueous solution; 2) producing a silica gel composite by adding a basic catalyst to the silica sol, and then depositing the silica sol added with the basic catalyst in a base material for blanket; 3) producing a hydrophobic silica aerogel by aging, surface modifying, and drying the silica gel composite, wherein the surface modifying of Step 3) is performed by adding one or more kinds of surface modifiers selected from the group consisting of trimethylchlorosilane (TMCS), hexamethyldisilazane (HMDS), methyltrimethoxysilane, trimethylethoxysilane, ethyltriethoxysilane, phenyltriethoxysilane, and polydimethylsiloxane; and 4) heat treating the hydrophobic silica aerogel at a temperature of 500 to 800°C.
An oxidizing agent preparation for oxidatively changing the color of keratin fibers, in particular human hair, containing in an aqueous cosmetic carrier (A) hydrogen peroxide, and (B) malic acid, wherein the oxidizing agent preparation has a pH of 0.5 to 3.0. (A) hydrogen peroxide, and (B) malic acid,
A method of fabricating a thin film gas sensor device comprising: providing a substrate ; supporting a first electrode with the substrate ; supporting a second electrode with the substrate ; forming a nanostructured thin film layer ; and operably connecting the first and the second electrode to the nanostructured thin film layer , characterized in that forming the nanostructured thin film layer comprises: forming a silicon dioxide seed layer above the substrate ; structuring the seed layer by ion-milling or chemically activating the seed layer to encourage the spaced-apart nucleation of the plurality of grains of the nanostructured thin film layer ;and forming the nanostructured thin film layer from lanthanum oxide using atomic layer deposition directly on the seed layer . providing a substrate ; supporting a first electrode with the substrate ; supporting a second electrode with the substrate ; forming a nanostructured thin film layer ; and operably connecting the first and the second electrode to the nanostructured thin film layer , characterized in that forming the nanostructured thin film layer comprises: forming a silicon dioxide seed layer above the substrate ; structuring the seed layer by ion-milling or chemically activating the seed layer to encourage the spaced-apart nucleation of the plurality of grains of the nanostructured thin film layer ;and forming the nanostructured thin film layer from lanthanum oxide using atomic layer deposition directly on the seed layer . forming a silicon dioxide seed layer above the substrate ; structuring the seed layer by ion-milling or chemically activating the seed layer to encourage the spaced-apart nucleation of the plurality of grains of the nanostructured thin film layer ;and forming the nanostructured thin film layer from lanthanum oxide using atomic layer deposition directly on the seed layer .
A coextrusion feedblock for producing an extrudate, said feedblock comprising a flow adjuster , a viscosity compensation device having a flex region , an actuator in contact with said viscosity compensation device, a central extrusion conduit having a height, and a coextrusion conduit extending between said flow adjuster and said viscosity compensation device , said coextrusion conduit having a gap height, a width, and a length, said flow adjuster being rotatable to simultaneously change said gap height of said coextrusion conduit and the height of said central extrusion conduit , said actuator being adjustable to apply a force to bend said flex region and thereby adjust said gap height of said coextrusion conduit without changing said height of said central extrusion conduit , characterised in that the flex region of the viscosity compensation device is configured to bend about a first axis that is generally parallel to the width of the coextrusion conduit , and wherein the viscosity compensation device further has a plurality of flexible regions configured to bend about respective axes each lying in a plane generally orthogonal to the first axis.