mhurhangee/patent-ind-claim-en huggingface dataset:
An active vent airbag system , comprising: an airbag having an active vent; a first inflator ; a second inflator ; a first hose operably coupling the first inflator to the airbag , wherein initiation of the first inflator releases gas into the airbag from the first inflator via the first hose to inflate the airbag ; and characterized in that a second hose operably coupling the second inflator to the active vent, wherein the active vent remains closed during initial inflation of the airbag via the first hose , and wherein initiation of the second inflator after initial inflation of the airbag releases gas into the second hose to open the active vent and reduce pressure within the airbag . an airbag having an active vent; a first inflator ; a second inflator ; a first hose operably coupling the first inflator to the airbag , wherein initiation of the first inflator releases gas into the airbag from the first inflator via the first hose to inflate the airbag ; and characterized in that a second hose operably coupling the second inflator to the active vent, wherein the active vent remains closed during initial inflation of the airbag via the first hose , and wherein initiation of the second inflator after initial inflation of the airbag releases gas into the second hose to open the active vent and reduce pressure within the airbag .
A method, comprising: configuring, by a network element , a user equipment to perform measurements on a secondary cell group, according to activity in the secondary cell group and to perform measurements on a master cell group, according to activity in the secondary cell group, wherein the configuring comprises requiring the user equipment to perform increased measurements on the master cell group when a discontinuous reception inactivity timer is running on the secondary cell group. configuring, by a network element , a user equipment to perform measurements on a secondary cell group, according to activity in the secondary cell group and to perform measurements on a master cell group, according to activity in the secondary cell group, wherein the configuring comprises requiring the user equipment to perform increased measurements on the master cell group when a discontinuous reception inactivity timer is running on the secondary cell group.
A dental cleaning appliance comprising: a handle ; a fluid reservoir for storing a working fluid, the fluid reservoir being at least partially delimited by a wall and a movable member which is moveable relative to the wall to vary the volume of the fluid reservoir ; a fluid delivery system for receiving working fluid from the fluid reservoir , and for delivering the working fluid to the teeth of a user; and an expansion chamber located adjacent to the moveable member and which increases in volume as the volume of the fluid reservoir decreases, through movement of the moveable member relative to the wall , as working fluid is supplied to the fluid delivery system , the expansion chamber being open to the atmosphere to receive ambient air as the volume of the expansion chamber increases; wherein the moveable member comprises a diaphragm which is expandable in response to a pressure difference across the surfaces thereof, the wall surrounding the diaphragm. a handle ; a fluid reservoir for storing a working fluid, the fluid reservoir being at least partially delimited by a wall and a movable member which is moveable relative to the wall to vary the volume of the fluid reservoir ; a fluid delivery system for receiving working fluid from the fluid reservoir , and for delivering the working fluid to the teeth of a user; and an expansion chamber located adjacent to the moveable member and which increases in volume as the volume of the fluid reservoir decreases, through movement of the moveable member relative to the wall , as working fluid is supplied to the fluid delivery system , the expansion chamber being open to the atmosphere to receive ambient air as the volume of the expansion chamber increases; wherein the moveable member comprises a diaphragm which is expandable in response to a pressure difference across the surfaces thereof, the wall surrounding the diaphragm.
A method for forming a brushless DC electric motor comprising in the following order: providing a hollow magnet having a multi-pole configuration; providing an injection mold having a collet and first and second mold members ; wherein the collet is received between the first and second mold members and wherein the collet is secured to a portion of the mold for movement therewith; inserting the hollow magnet into the collet ; inserting an output member into a cavity in the mold ; receiving the rotor output member through the hollow magnet orienting the output member concentric with an outer surface of the hollow magnet; positioning the first and second mold members in a closed position, overmolding a plastic material onto an interior surface of the hollow magnet thereby coupling the output member to the hollow magnet; and inserting a rotor into a stator , the rotor comprising the hollow magnet, the output member and the plastic material that is overmolded onto the interior surface of the hollow magnet. providing a hollow magnet having a multi-pole configuration; providing an injection mold having a collet and first and second mold members ; wherein the collet is received between the first and second mold members and wherein the collet is secured to a portion of the mold for movement therewith; inserting the hollow magnet into the collet ; inserting an output member into a cavity in the mold ; receiving the rotor output member through the hollow magnet orienting the output member concentric with an outer surface of the hollow magnet; positioning the first and second mold members in a closed position, overmolding a plastic material onto an interior surface of the hollow magnet thereby coupling the output member to the hollow magnet; and inserting a rotor into a stator , the rotor comprising the hollow magnet, the output member and the plastic material that is overmolded onto the interior surface of the hollow magnet.
A medical image processing apparatus comprising: an emphasis processing unit that is configured to emphasize a position of a region of interest included in a plurality of medical images sequentially displayed on a display unit , wherein the medical images are endoscopic images; and a transition time setting unit that is configured to set a transition time in accordance with a feature quantity of the region of interest, wherein the emphasis processing unit is configured to emphasize the position of the region of interest at a first emphasis level and, after the transition time has elapsed from emphasis at the first emphasis level, emphasize the position of the region of interest at a second emphasis level relatively lower than the first emphasis level. an emphasis processing unit that is configured to emphasize a position of a region of interest included in a plurality of medical images sequentially displayed on a display unit , wherein the medical images are endoscopic images; and a transition time setting unit that is configured to set a transition time in accordance with a feature quantity of the region of interest, wherein the emphasis processing unit is configured to emphasize the position of the region of interest at a first emphasis level and, after the transition time has elapsed from emphasis at the first emphasis level, emphasize the position of the region of interest at a second emphasis level relatively lower than the first emphasis level.
A vehicle comprising: - a chassis which has a longitudinal axis (A2) and which is supported by wheels ; - a cab mounted on the chassis , the cab including two side walls ; - a wind deflecting assembly comprising at least two side deflector panels , each side deflector panel having a front edge linked to a rear portion of the corresponding side wall of the cab and a rear edge , and extending vertically over at least part of the height of the rear portion of the corresponding side wall of the cab ; - a camera monitoring system , which includes a camera arranged on a supporting arm mounted on the cab , to provide a captured image of an area located rearward of the cab ; characterized in that the vehicle further comprises at least one lighting device which is mounted on a side deflector panel and which includes at least one IR emitting light source . - a chassis which has a longitudinal axis (A2) and which is supported by wheels ; - a cab mounted on the chassis , the cab including two side walls ; - a wind deflecting assembly comprising at least two side deflector panels , each side deflector panel having a front edge linked to a rear portion of the corresponding side wall of the cab and a rear edge , and extending vertically over at least part of the height of the rear portion of the corresponding side wall of the cab ; - a camera monitoring system , which includes a camera arranged on a supporting arm mounted on the cab , to provide a captured image of an area located rearward of the cab ;
An apparatus for cardiac hemodynamic optimization and monitoring, comprising: a self-expanding body having a proximal end and a distal end; a prosthetic heart valve disposed in the body; a tether extending from the proximal end of the body; and an electrode coupled to the tether, the electrode being in electrical communication with a pulse generator configured to deliver electrical signals to the electrode; and an apical pad configured to couple to a proximal end portion of the tether wherein the electrode is coupled to an upper surface of the apical pad . a self-expanding body having a proximal end and a distal end; a prosthetic heart valve disposed in the body; a tether extending from the proximal end of the body; and an electrode coupled to the tether, the electrode being in electrical communication with a pulse generator configured to deliver electrical signals to the electrode; and an apical pad configured to couple to a proximal end portion of the tether wherein the electrode is coupled to an upper surface of the apical pad .
A microfluidic device with a capillary driven plasma separation means, comprising a porous membrane with an upper surface adapted to receive a blood sample and a lower surface, a laterally extending support structure having a hydrophilic surface, wherein the lower surface of the porous membrane and the hydrophilic surface of the support structure are configured so that the surfaces intersect in an acute angle and that a lateral capillary flow of filtered fluid is formed in the proximity of the intersection of the surfaces, thereby gradually filling the space between said diverging surfaces, and a capillary channel configured to receive and accommodate the lateral capillary flow arriving from the space between the diverging surfaces, the capillary channel comprising a channel cover and a channel bottom from the laterally extending support structure, wherein a part of the lower surface of the porous membrane is arranged on top of the channel cover, wherein the porous membrane diagonally extends between the channel bottom and the channel cover forming a capillary wedge structure ).
A drinking straw comprising an elongate tubular body of an insoluble material, having an internal coating comprising a modified cellulose-based matrix containing an active agent dispersed within the matrix, the body sized to allow a carrier liquid to be drawn therethrough such that passage of the carrier liquid causes the matrix to progressively release the active agent into the carrier liquid to be consumed by a drinker, wherein the coating has a thickness of less than 1mm.
A nuclear reactor , comprising a vessel which houses a core , immersed in a primary fluid, F, for cooling the core and comprising a bundle of fuel elements which extend along respective parallel longitudinal axes, A, and which are provided, between respective active parts and respective heads , with expanders acting radially in direction perpendicular to said axes (A); the expanders comprising low thermal expansion elements mechanically coupled to high thermal expansion elements , the low thermal expansion elements being made of a first material having a first thermal expansion coefficient and the high thermal expansion elements being made of a second material having a second thermal expansion coefficient, greater than the first thermal expansion coefficient; the low thermal expansion elements engaging alternatively with the high thermal expansion elements to amplify the radial expansion of respective terminal elements of the expanders which, when a predetermined temperature is exceeded, engage with each other to space the fuel elements from one another and radially expand the core ; wherein each fuel element is provided with a plurality of expanders which project radially from a shaft of the fuel element and are angularly spaced around the axis, A, of the fuel element .
A lens comprising: • a first region ; • a second region ; the first region having a depth relative to the second region; and • a plurality of nanostructures formed on a surface of the first region each of the plurality of nanostructures having a lateral width , the nanostructures spaced apart from another by a spacing , wherein the lateral width of the first region is at least one wavelength at the red end of the visible spectrum and the spacing is smaller than approximately one wavelength at the blue end of the visible spectrum; wherein the refractive index of the first region is different to the refractive index of the second region due to the plurality of nanostructures contained by the first region ; and wherein the plurality of nanostructures formed in the first region extend away from a base of the first region , characterized in that the first region comprises a series of concentric annular regions with a second region disposed between each adjacent pair of concentric annular regions. • a first region ; • a second region ; the first region having a depth relative to the second region; and • a plurality of nanostructures formed on a surface of the first region each of the plurality of nanostructures having a lateral width , the nanostructures spaced apart from another by a spacing , wherein the lateral width of the first region is at least one wavelength at the red end of the visible spectrum and the spacing is smaller than approximately one wavelength at the blue end of the visible spectrum; wherein the refractive index of the first region is different to the refractive index of the second region due to the plurality of nanostructures contained by the first region ; and wherein the plurality of nanostructures formed in the first region extend away from a base of the first region , characterized in that the first region comprises a series of concentric annular regions with a second region disposed between each adjacent pair of concentric annular regions.
Printed circuit produced with uniplanar technology, comprising transmission lines belonging to a printed surface and printed on a dielectric substrate (52; 101), the printed circuit constituting a radiofrequency power divider comprising a single divider block having an input channel (55; 105) and three output channels (56; 106), the transmission lines having the topology of a coplanar waveguide, the input channel comprising two metal earthing strips and a first central metal strip of a constant width, said printed circuit being characterised in that each output channel comprises two metal earthing strips and a second central metal strip that widens over an outer portion of the output channel.
Device for testing a traction capability or a load condition of an elevator installation , wherein the elevator installation has at least one cable pull guided via a traction pulley , via which an elevator car and a counterweight belonging to the elevator car are movable, wherein the elevator installation is operated by means of a drive engaging the traction pulley , the device further comprising: - a first measuring unit for detecting a first signal characterizing a slip and/or a load between the cable pull and the traction pulley , - a second measuring unit for detecting a second signal characterizing an electrical operating parameter of the drive , characterized in that upon detection of a slip and/or a load between the cable pull and the traction pulley , a trigger signal is generated in the first measuring unit for the second measuring unit , and - based on the second signal, an evaluation means generates a signal characterizing the traction capability and/or load of the elevator installation . - a first measuring unit for detecting a first signal characterizing a slip and/or a load between the cable pull and the traction pulley , - a second measuring unit for detecting a second signal characterizing an electrical operating parameter of the drive , - based on the second signal, an evaluation means generates a signal characterizing the traction capability and/or load of the elevator installation .
Conveyor grate for conveying bulk material, like cement clinker, in a conveying direction , wherein the conveyor grate has - at least two conveying means , - at least one motor (M) for advancing the at least two conveying means at the same time in the conveying direction and for retracting the at least two conveying means, characterized in that , a first of the at least two conveying means is selectively coupled via a first clutch to the motor (M) and a second of the at least two conveying means is selectively coupled via a second clutch to the same motor (M), wherein selectively coupled expresses that the coupling can be established by closing the respective clutch and as well that the coupling can be released by opening the respective clutch. - at least two conveying means , - at least one motor (M) for advancing the at least two conveying means at the same time in the conveying direction and for retracting the at least two conveying means,
A transformer comprising: a magnetic core having an inner space; a coil unit disposed within the magnetic core and including a primary coil and a secondary coil in which layers formed with conductive patterns are laminated; and a base configured to receive the magnetic core and the coil unit, wherein a portion of the base is inserted into and disposed in the coil unit to be interposed between an output terminal coupled to the secondary coil and the magnetic core, wherein the coil unit includes: a first part including the output terminal ; a second part including a pattern part formed with the conductive patterns and an input terminal coupled to the primary coil; and a slit configured to separate the first part and second part and be curved to a direction of the first part, and to receive the portion of the base. a magnetic core having an inner space; a coil unit disposed within the magnetic core and including a primary coil and a secondary coil in which layers formed with conductive patterns are laminated; and a base configured to receive the magnetic core and the coil unit, wherein a portion of the base is inserted into and disposed in the coil unit to be interposed between an output terminal coupled to the secondary coil and the magnetic core, wherein the coil unit includes: a first part including the output terminal ; a second part including a pattern part formed with the conductive patterns and an input terminal coupled to the primary coil; and a slit configured to separate the first part and second part and be curved to a direction of the first part, and to receive the portion of the base. a first part including the output terminal ; a second part including a pattern part formed with the conductive patterns and an input terminal coupled to the primary coil; and a slit configured to separate the first part and second part and be curved to a direction of the first part, and to receive the portion of the base.
Filter arrangement having a filter element and having a filter housing for accommodating the filter element , comprising the filter element with a filter frame , with a corrugated bellows composed of filter medium which is accommodated in the filter frame , and with a seal which runs around the outside of the filter frame , wherein at least one filter-side mechanical coding element is integrated in the seal , and the filter-side coding element is in the form of a depression in the seal, in particular in the form of a groove, notch or channel, wherein the seal has a reduced height in the region of the filter-side coding element , wherein at least one housing-side mechanical coding element is integrated in the filter housing , and the filter-side coding element and the housing-side coding element together form a coding device, characterized in that the seal is in the form of a radial seal, and the filter housing has on its inner side a step in the form of a peripheral shoulder , which forms an axial bearing surface for the seal . the filter-side coding element is in the form of a depression in the seal, in particular in the form of a groove, notch or channel, wherein the seal has a reduced height in the region of the filter-side coding element , wherein at least one housing-side mechanical coding element is integrated in the filter housing , and the filter-side coding element and the housing-side coding element together form a coding device, characterized in that the seal is in the form of a radial seal, and the filter housing has on its inner side a step in the form of a peripheral shoulder , which forms an axial bearing surface for the seal .
A control device adapted to control a robot including a robot arm provided with a force detection section , the control device comprising: a control section adapted to operate the robot arm to move a screw gauge which is disposed on a tip side of the force detection section of the robot arm , used for an inspection of a screw hole , and has a screw part , to make the screw part have contact with the screw hole , and then detect force applied to the screw gauge using the force detection section to perform force control in a direction perpendicular to a direction of an axis of the screw hole based on detection information of the force detection section , and operate the robot arm to move the screw gauge , wherein the control section is configured to stop the force control in the direction of the axis on the robot in at least a part of a zone when inserting the screw part into the screw hole in the subsequent step after making the screw part have contact with the screw hole . a control section adapted to operate the robot arm to move a screw gauge which is disposed on a tip side of the force detection section of the robot arm , used for an inspection of a screw hole , and has a screw part , to make the screw part have contact with the screw hole , and then detect force applied to the screw gauge using the force detection section to perform force control in a direction perpendicular to a direction of an axis of the screw hole based on detection information of the force detection section , and operate the robot arm to move the screw gauge , wherein operate the robot arm to move a screw gauge which is disposed on a tip side of the force detection section of the robot arm , used for an inspection of a screw hole , and has a screw part , to make the screw part have contact with the screw hole , and then detect force applied to the screw gauge using the force detection section to perform force control in a direction perpendicular to a direction of an axis of the screw hole based on detection information of the force detection section , and operate the robot arm to move the screw gauge , wherein the control section is configured to stop the force control in the direction of the axis on the robot in at least a part of a zone when inserting the screw part into the screw hole in the subsequent step after making the screw part have contact with the screw hole .