mhurhangee/patent-ind-claim-en huggingface dataset:
A headlamp control device for a vehicle , comprising: a headlamp mounted on the vehicle and configured to illuminate ahead of the vehicle in an illumination mode that is either a low beam mode or a high beam mode; a control unit that performs automatic illumination control in which the illumination mode of the headlamp is automatically switched between the low beam mode and the high beam mode based on a traveling state of the vehicle , wherein the control unit is configured so that, when an occupant of the vehicle performs a predetermined interruption operation while the illumination mode is the high beam mode during the automatic illumination control, the control unit sets the illumination mode to the low beam mode until an interruption time passes, and a target information obtaining unit configured to detect an illumination target and obtain a distance between the detected illumination target and the vehicle , the illumination target being a target of a specific type, which is located ahead of the vehicle , characterized in that the specific type is a pedestrian, wherein the control unit is configured so that, in a case where the illumination target has been detected when the interruption operation is performed while the illumination mode is the high beam mode during the automatic illumination control, the control unit sets the interruption time to a larger value as the distance between the illumination target and the vehicle is larger. a headlamp mounted on the vehicle and configured to illuminate ahead of the vehicle in an illumination mode that is either a low beam mode or a high beam mode; a control unit that performs automatic illumination control in which the illumination mode of the headlamp is automatically switched between the low beam mode and the high beam mode based on a traveling state of the vehicle , wherein the control unit is configured so that, when an occupant of the vehicle performs a predetermined interruption operation while the illumination mode is the high beam mode during the automatic illumination control, the control unit sets the illumination mode to the low beam mode until an interruption time passes, and a target information obtaining unit configured to detect an illumination target and obtain a distance between the detected illumination target and the vehicle , the illumination target being a target of a specific type, which is located ahead of the vehicle , characterized in that the specific type is a pedestrian, wherein the control unit is configured so that, in a case where the illumination target has been detected when the interruption operation is performed while the illumination mode is the high beam mode during the automatic illumination control, the control unit sets the interruption time to a larger value as the distance between the illumination target and the vehicle is larger.
Machined manhole comprising: - a structural tank which is made of concrete, which is in one piece and which has a side wall and a bottom , and - a machinable portion which is made of mortar, which is created at the bottom of said structural tank and which has a face oriented towards the opening of the structural tank , said machinable portion being hollowed out so as to form at least one cunette and, for each cunette , terraces delimiting said cunette , and in which for each end of a cunette , the side wall has pierced in it an orifice that is aligned with said end. - a structural tank which is made of concrete, which is in one piece and which has a side wall and a bottom , and - a machinable portion which is made of mortar, which is created at the bottom of said structural tank and which has a face oriented towards the opening of the structural tank , said machinable portion being hollowed out so as to form at least one cunette and, for each cunette , terraces delimiting said cunette , and in which for each end of a cunette , the side wall has pierced in it an orifice that is aligned with said end.
An apparatus for detecting a mounting state of a light pipe in a terminal, comprising: a fixture , wherein the fixture is configured to support a terminal housing , a light inlet path is formed in the fixture , an opening that is of the light inlet path and that is exposed to the fixture is opposite to a mounting position of the light pipe in the terminal housing , and the light inlet path is used to allow light transmitted by the light pipe to pass through; a light source , wherein the light source is disposed above the fixture , and is configured to emit detection light to the light pipe ; and a light detection module , wherein the light detection module is disposed in the fixture , and receives, through the light inlet path , the detection light emitted from the light source , and the light detection module is configured to determine the mounting state of the light pipe based on a luminous flux value of the detection light, characterized in that the fixture forms an inclined surface that is used to abut against the back of the terminal housing , a stopper that is used to limit a position of a bottom of the terminal housing is disposed at a lower edge of the inclined surface of the fixture , and the opening that is of the light inlet path and that is exposed to the fixture is formed at a bottom edge of the inclined surface facing the fixture . a fixture , wherein the fixture is configured to support a terminal housing , a light inlet path is formed in the fixture , an opening that is of the light inlet path and that is exposed to the fixture is opposite to a mounting position of the light pipe in the terminal housing , and the light inlet path is used to allow light transmitted by the light pipe to pass through; a light source , wherein the light source is disposed above the fixture , and is configured to emit detection light to the light pipe ; and a light detection module , wherein the light detection module is disposed in the fixture , and receives, through the light inlet path , the detection light emitted from the light source , and the light detection module is configured to determine the mounting state of the light pipe based on a luminous flux value of the detection light, characterized in that the fixture forms an inclined surface that is used to abut against the back of the terminal housing , a stopper that is used to limit a position of a bottom of the terminal housing is disposed at a lower edge of the inclined surface of the fixture , and the opening that is of the light inlet path and that is exposed to the fixture is formed at a bottom edge of the inclined surface facing the fixture .
A stent defining a lumen having a longitudinal axis , the stent comprising: a plurality of cylindrical rings spaced along the longitudinal axis , each of the cylindrical rings including a plurality of struts interconnected to form alternating apexes and troughs , each of the struts having a strut length , a main strut width , and an apex strut width ; and a plurality of flexible connectors extending between adjacent pairs of the cylindrical rings , each of the flexible connectors including a pair of connector struts having a main connector width , an apex positioned between the pair of connector struts and having an apex connector width , and a pair of ends , wherein each of the pair of ends is connected to one of the struts of the cylindrical rings at a connection location between the apexes of the strut ; characterized in that : a strut ratio of the apex strut width to the main strut width is 50% to 95%, a connector ratio of the apex connector width to the main connector width is 50% to 95%, and a connection location ratio of a length between the connection location and one of the apexes of the strut to the strut length is 60% to 90% so as to reduce foreshortening of the stent along the longitudinal axis upon radial expansion. a plurality of cylindrical rings spaced along the longitudinal axis , each of the cylindrical rings including a plurality of struts interconnected to form alternating apexes and troughs , each of the struts having a strut length , a main strut width , and an apex strut width ; and a plurality of flexible connectors extending between adjacent pairs of the cylindrical rings , each of the flexible connectors including a pair of connector struts having a main connector width , an apex positioned between the pair of connector struts and having an apex connector width , and a pair of ends , wherein each of the pair of ends is connected to one of the struts of the cylindrical rings at a connection location between the apexes of the strut ; characterized in that : a strut ratio of the apex strut width to the main strut width is 50% to 95%, a connector ratio of the apex connector width to the main connector width is 50% to 95%, and a connection location ratio of a length between the connection location and one of the apexes of the strut to the strut length is 60% to 90% so as to reduce foreshortening of the stent along the longitudinal axis upon radial expansion.
A final hatching holder for final hatching of hatching eggs , comprising a carrier body having a length and width that define a carrier body surface, in which carrier body a plurality of hatching egg accommodation openings are provided each for accommodating a hatching egg, and wherein the final hatching holder is provided with support elements (41-46) that extend away from the carrier body , such that the final hatching holder , at least during operation, can be placed on end portions of the support elements (41-46) facing away from the carrier body , said end portions thus being located at a distance from the hatching egg accommodation openings , and wherein the final hatching holder is provided with air flow means designed to effect convection by a natural flow of air along the plurality of hatching eggs . wherein the plurality of hatching egg accommodation openings each comprise a dome-shaped support wall that extends in the direction of the end portions, which support wall is provided with a vent hole in a portion of the support wall facing the end portions, and wherein the support wall is provided with a plurality of studs (12a-12d; 112a-112d) extending towards the centre of the accommodation opening so as to form a hatching egg seat, and wherein said studs (12a-12d; 112a-112d) are arranged such that, with the hatching egg in its operational position, at least one Venturi tube is formed between the hatching egg and the support wall .
A food mixing machine for mixing ingredients, the food mixing machine comprising: a base unit configured to rest on a horizontal surface; a motor positioned in the base unit ; a bowl attached to the base unit , the bowl having a longitudinal axis (L) extending at an angle that is non-parallel relative to a gravitational direction while the base unit is resting on the horizontal surface; a mixing tool positioned in the bowl , the mixing tool being operably connected to the motor to receive a torque from the motor and to move within the bowl to mix contents of the bowl ; wherein the base unit comprises a driveshaft rotatable by the motor , the driveshaft having a first longitudinal axis parallel to the longitudinal axis (L) of the bowl ; characterised in that the mixing tool is a planetary food mixing tool comprising a body engaging the driveshaft , a sun gear concentric with the first longitudinal axis, the sun gear having a first helical gear surface , a planet gear having a second longitudinal axis (K 1 ,K 2 )(J 1 ,J 2 ), the second longitudinal axis (K 1 ,K 2 )(J 1 ,J 2 ) being non-parallel to the first longitudinal axis, the planet gear having a second helical gear surface extending around the second longitudinal axis (K 1 , K 2 ) (J 1 ,J 2 ) and engaging the first helical gear surface of the sun gear , and a mixing member extending into the bowl , wherein the mixing member is connected to the planet gear and configured to move around the first longitudinal axis while rotating around the second longitudinal axis (K 1 ,K 2 ) (J 1 ,J 2 ) as the planet gear traverses the sun gear . a base unit configured to rest on a horizontal surface; a motor positioned in the base unit ; a bowl attached to the base unit , the bowl having a longitudinal axis (L) extending at an angle that is non-parallel relative to a gravitational direction while the base unit is resting on the horizontal surface; a mixing tool positioned in the bowl , the mixing tool being operably connected to the motor to receive a torque from the motor and to move within the bowl to mix contents of the bowl ; wherein the base unit comprises a driveshaft rotatable by the motor , the driveshaft having a first longitudinal axis parallel to the longitudinal axis (L) of the bowl ; characterised in that the mixing tool is a planetary food mixing tool comprising a body engaging the driveshaft , a sun gear concentric with the first longitudinal axis, the sun gear having a first helical gear surface , a planet gear having a second longitudinal axis (K 1 ,K 2 )(J 1 ,J 2 ), the second longitudinal axis (K 1 ,K 2 )(J 1 ,J 2 ) being non-parallel to the first longitudinal axis, the planet gear having a second helical gear surface extending around the second longitudinal axis (K 1 , K 2 ) (J 1 ,J 2 ) and engaging the first helical gear surface of the sun gear , and a mixing member extending into the bowl , wherein the mixing member is connected to the planet gear and configured to move around the first longitudinal axis while rotating around the second longitudinal axis (K 1 ,K 2 ) (J 1 ,J 2 ) as the planet gear traverses the sun gear .
A system of self-configuring networked media hub devices with automated configuration of peers, wherein a given media hub device is configured to provide media to a user based at least in part on configuration data used to automatically configure the given media hub device, the system comprising: a media hub device comprising one or more physical processors programmed by one or more computer program instructions to: identify one or more peer media hub devices on a wireless network ; compare an identity of each of the one or more peer media hub devices with a list of known peer media hub devices on the network ; determine that at least a first media hub device, from among the one or more peer media hub devices identified on the network, is not on the list of known peer media hub devices based on the comparison; and transmit, via the network , at least a portion of first configuration data to the first media hub device, wherein the first media hub device configures itself based on the portion of the first configuration data provided by the media hub device . identify one or more peer media hub devices on a wireless network ; compare an identity of each of the one or more peer media hub devices with a list of known peer media hub devices on the network ; determine that at least a first media hub device, from among the one or more peer media hub devices identified on the network, is not on the list of known peer media hub devices based on the comparison; and transmit, via the network , at least a portion of first configuration data to the first media hub device, wherein the first media hub device configures itself based on the portion of the first configuration data provided by the media hub device .
A sealing assembly for a mask system, characterized by comprising: a mouth cushion adapted to sealingly engage around an exterior of a patient's mouth in use, and a nasal prong insert provided to the mouth cushion , the nasal prong insert comprising a pair of nasal prongs adapted to sealingly communicate with respective nasal passages of a patient in use, wherein the nasal prong insert further comprises a bridging strap to interconnect the pair of nasal prongs . a mouth cushion adapted to sealingly engage around an exterior of a patient's mouth in use, and a nasal prong insert provided to the mouth cushion , the nasal prong insert comprising a pair of nasal prongs adapted to sealingly communicate with respective nasal passages of a patient in use, wherein the nasal prong insert further comprises a bridging strap to interconnect the pair of nasal prongs .
A method of purifying whole HCV particles, the method comprising the steps of: a) providing a cell culture supernatant comprising virus particles, b) purification and/or concentration of the cell culture supernatant, c) purification and/or concentration of the product of above step b) using steric exclusion chromatography (SXC) at alkaline pH in the range of 8-10, d) purification and/or concentration of the product of above step c) using sulphated cellulose membrane absorbers (SCMA), e) obtaining purified whole virus particles. a) providing a cell culture supernatant comprising virus particles, b) purification and/or concentration of the cell culture supernatant, c) purification and/or concentration of the product of above step b) using steric exclusion chromatography (SXC) at alkaline pH in the range of 8-10, d) purification and/or concentration of the product of above step c) using sulphated cellulose membrane absorbers (SCMA), e) obtaining purified whole virus particles.
A process for preparing polysiloxane-polycarbonate block cocondensates, in which at least one hydroxyaryl-terminated polydialkylsiloxane is reacted with at least one polycarbonate in the melt, characterized in that the process is conducted in at least two stages in a reactor combination consisting of at least one preliminary reactor and a high-viscosity reactor and a discharge unit and wherein the material temperature in the high-viscosity reactor is within the range of from 330°C to 370°C and the pressure is within the range of from 0.03 to 5 mbar.
An extraction clcancr for a floor surface comprising a portable extractor comprising a suction hose for manually suctioning fluid from the floor surface, a recovery tank interconnected to the suction hose for receiving recovered fluid from the floor surface, and a fluid delivery system for dispensing a cleaning fluid onto the floor surface, and a base adapted to be moved to perform a cleaning operation on the floor surface when the portable extractor is operably mounted to the base, the base comprising a suction nozzle juxtaposed with the floor surface; the portable extractor further comprises: a first electrical component ; a power cord electrically coupled to the first electrical component; and a first electrical connection electrically coupled to the power cord; and the base further comprises: a second electrical component ; and a second electrical connection electrically coupled to the second electrical component and adapted to be connected with the first electrical connection when the portable extractor is operably mounted to the base, such that the second electrical component is electrically interconnected to the power cord by the interconnection of the first and second electrical connections; and characterized in that the extraction cleaner further comprises: a cover positioned adjacent at least one of the first and second electrical connections, wherein the cover is movable between a first position covering the at least one of the first and second electrical connections when the portable extractor is detached from the base and a second position exposing the at least one of the first and second electrical connections when the portable extractor is moved toward the base so that the first and second electrical connections are in alignment with one another. a first electrical component ; a power cord electrically coupled to the first electrical component; and a first electrical connection electrically coupled to the power cord; and a second electrical component ; and a second electrical connection electrically coupled to the second electrical component and adapted to be connected with the first electrical connection when the portable extractor is operably mounted to the base, such that the second electrical component is electrically interconnected to the power cord by the interconnection of the first and second electrical connections; and characterized in that the extraction cleaner further comprises: a cover positioned adjacent at least one of the first and second electrical connections, wherein the cover is movable between a first position covering the at least one of the first and second electrical connections when the portable extractor is detached from the base and a second position exposing the at least one of the first and second electrical connections when the portable extractor is moved toward the base so that the first and second electrical connections are in alignment with one another.
The use of a heat exchange system for an aircraft, the heat exchange system comprising: an inlet manifold and an outlet manifold with a direction of flow being upstream at the inlet manifold and downstream at the outlet manifold; a first heat exchanger core arranged between the inlet manifold and the outlet manifold and located adjacent the inlet manifold ; a second heat exchanger core arranged downstream of the first heat exchanger core ; a third heat exchanger core arranged downstream of the second heat exchanger core and located adjacent the outlet manifold, wherein the third heat exchanger core is fluidly connected to the first heat exchanger core ; and a control system operably connected to the first heat exchanger core and the third heat exchanger core , wherein the control system is arranged to direct a fluid between the first and third heat exchanger cores ; further comprising a first fluid within the first and third heat exchanger cores and a second fluid within the second heat exchanger core ; and characterised in that the first fluid is polyalphaolefin (PAO) and the second fluid is aircraft fuel. an inlet manifold and an outlet manifold with a direction of flow being upstream at the inlet manifold and downstream at the outlet manifold; a first heat exchanger core arranged between the inlet manifold and the outlet manifold and located adjacent the inlet manifold ; a second heat exchanger core arranged downstream of the first heat exchanger core ; a third heat exchanger core arranged downstream of the second heat exchanger core and located adjacent the outlet manifold, wherein the third heat exchanger core is fluidly connected to the first heat exchanger core ; and a control system operably connected to the first heat exchanger core and the third heat exchanger core , wherein the control system is arranged to direct a fluid between the first and third heat exchanger cores ; further comprising a first fluid within the first and third heat exchanger cores and a second fluid within the second heat exchanger core ; and
An assembly for treating diesel engine exhaust gases containing nitrogen oxides (NO x ) and hydrocarbons (HC), wherein an SCR system consisting of an SCR catalyst based on a Cu ion-exchanged zeolite and of an injection device for reducing agent is disposed between an oxidation catalyst and a particulate filter, wherein the zeolite is a chabazite with a molar ratio of SiO 2 to Al 2 O 3 in the range of 5 to 100 and has a maximum lower channel width of 2.6 Å - 4.2 Å.
A wireless base station (AP1; 11) comprising a control unit configured to perform control to transmit a start frame configured to instruct another wireless base station (AP2; 11) to transmit a channel measurement format frame to a terminal device (STA1; 12) in synchronization with a corresponding channel measurement format frame transmitted by the wireless base station, to indicate a frame format of a channel measurement frame that is a frame for performing a channel measurement at the terminal device, wherein the start frame specifies a transmission stream for transmitting, by the other wireless base station, a channel measurement format frame, said transmission stream being different from that used by the wireless base station for transmitting a channel measurement format frame.