mhurhangee/patent-ind-claim-en huggingface dataset:
A method for generating white flash from a LED projector coupled to a computing system , the LED projector comprising at least one red LED, at least one green LED and at least one blue LED, the method comprising: receiving an input to switch projection mode of the LED projector to a white-light mode of projection, wherein the input is one of a direct user input and an indirect input; operating the LED projector in a first projection mode in which at least one red LED, at least one green LED and at least one blue LED are actuated in a sequential pattern to project images onto a projection surface ; switching the LED projector to the white-light mode of projection from the first projection mode based on the received input, wherein the LED projector operates on one or more projection modes; actuating, simultaneously, all LEDs of the LED projector , including the at least one red LED, at least one green LED and at least one blue LED, to generate a white flash of light in the white-light mode of projection, thereby illuminating the projection surface or an object on the projection surface ; an image capturing device coupled to the computing system capturing an image of the projection surface or an image of the object on the projection surface during the white-light mode of projection; and switching the LED projector back to the first projection mode from the white-light mode of projection after a predetermined time period. receiving an input to switch projection mode of the LED projector to a white-light mode of projection, wherein the input is one of a direct user input and an indirect input; operating the LED projector in a first projection mode in which at least one red LED, at least one green LED and at least one blue LED are actuated in a sequential pattern to project images onto a projection surface ; switching the LED projector to the white-light mode of projection from the first projection mode based on the received input, wherein the LED projector operates on one or more projection modes; actuating, simultaneously, all LEDs of the LED projector , including the at least one red LED, at least one green LED and at least one blue LED, to generate a white flash of light in the white-light mode of projection, thereby illuminating the projection surface or an object on the projection surface ; an image capturing device coupled to the computing system capturing an image of the projection surface or an image of the object on the projection surface during the white-light mode of projection; and switching the LED projector back to the first projection mode from the white-light mode of projection after a predetermined time period.
Synchronization apparatus for synchronizing head-mounted displays with a virtual world, in particular in an amusement ride , comprising - at least one head-mounted display , by means of which a virtual reality generated by a VR system can be displayed, - a base station for depositing the head-mounted display , wherein the base station comprises holding means with which the head-mounted display can be placed into the base station in a defined position and orientation, and - a display position detection apparatus for detecting the position and orientation of the head-mounted display , wherein - the synchronization apparatus is configured such that the virtual reality is synchronized with the head-mounted display , based on the position and orientation of the head-mounted display detected by the display position detection device , with reference to the position and orientation of the head-mounted display in the base station , - characterized in that the synchronization is carried out as soon as the head-mounted display is removed from the base station . - at least one head-mounted display , by means of which a virtual reality generated by a VR system can be displayed, - a base station for depositing the head-mounted display , wherein the base station comprises holding means with which the head-mounted display can be placed into the base station in a defined position and orientation, and - a display position detection apparatus for detecting the position and orientation of the head-mounted display , wherein - the synchronization apparatus is configured such that the virtual reality is synchronized with the head-mounted display , based on the position and orientation of the head-mounted display detected by the display position detection device , with reference to the position and orientation of the head-mounted display in the base station , - characterized in that the synchronization is carried out as soon as the head-mounted display is removed from the base station .
A fastening apparatus for a vehicle, comprising: a first fastener configured to be fixed to a first structure of the vehicle; a case configured to be fixed to a second structure of the vehicle and configured to have the first fastener inserted into an one side of the case ; an elevation unit installed within the case in a way to be movable up and down; a second fastener rotatably supported against the elevation unit , fastened to or separated from the first fastener in a rotation direction thereof, and moved up and down along with the elevation unit ; and a locking unit configured to interfere with a work tool that enters an another side of the case and to selectively permit a rotation of the second fastener . a first fastener configured to be fixed to a first structure of the vehicle; a case configured to be fixed to a second structure of the vehicle and configured to have the first fastener inserted into an one side of the case ; an elevation unit installed within the case in a way to be movable up and down; a second fastener rotatably supported against the elevation unit , fastened to or separated from the first fastener in a rotation direction thereof, and moved up and down along with the elevation unit ; and a locking unit configured to interfere with a work tool that enters an another side of the case and to selectively permit a rotation of the second fastener .
Filler head for a storage system comprising a body to be mounted inclined according to a predetermined angle (α) regarding the gravity direction (G), called the filling direction (F), and including a main part closed by a cover part so as to form a cavity in which a separating device is received, the filler head being configured to receive, in a cylindrical wall of the separating device extending around the filling direction (F), a distribution nozzle of a fluid with an automatic stop sensor to prevent overfilling of the filler head , the filler head being configured to be connected to a filling line and a venting line of a fluid tank and the separating device being arranged to improve the partitioning of the flow (V) coming from the venting line and the flow (F) going to the filling line , characterised in that the filler head further comprises a buffer volume in one-piece with the main part in a back portion (B) of the body so as to reduce the speed of flow (V) coming from the venting line and, in that the cylindrical wall comprises at least one recess facing the opening of the buffer volume in the back portion (B) of the body , the cylindrical wall guiding along a front portion (P) of the body , located in an opposite direction to the back portion (B) regarding the filling direction (F), any fluid outgoing from the nozzle so as to ensure: - a laminar flow (F) of the fluid outgoing from the nozzle towards the filling line in the front portion (P) of the body , and - a direct venting (V) of fluid through the recess of the cylindrical wall in the back portion (B) of the body coming from the venting line in order to be expelled outside the filler head into the ambient air, thus permitting to limit any fluid dispensing shut off during refilling stage. - a laminar flow (F) of the fluid outgoing from the nozzle towards the filling line in the front portion (P) of the body , and - a direct venting (V) of fluid through the recess of the cylindrical wall in the back portion (B) of the body coming from the venting line in order to be expelled outside the filler head into the ambient air,
A seal assembly for a gas turbine engine comprising: a seal including a seal body extending circumferentially between opposed mate faces , the seal body having a seal face that bounds a gas path (G) and an opposed impingement face ; a seal carrier extending along the impingement face ; and a seal member trapped between the seal carrier and the impingement face such that the seal member is circumferentially aligned with one of the mate faces ; characterised in that : the seal carrier includes a carrier body , defining a recess , the carrier body is seated against the impingement face to define an impingement cavity along the recess , and the carrier body defines a plurality of impingement apertures along the recess , each of the impingement apertures having a passage axis (PA) that intersects the impingement face , wherein the seal carrier is an impingement plate and the seal member is a feather seal, and the seal carrier defines an elongated channel dimensioned to receive a main body of the seal member such that the main body bounds the impingement cavity . a seal including a seal body extending circumferentially between opposed mate faces , the seal body having a seal face that bounds a gas path (G) and an opposed impingement face ; a seal carrier extending along the impingement face ; and a seal member trapped between the seal carrier and the impingement face such that the seal member is circumferentially aligned with one of the mate faces ; characterised in that : the seal carrier includes a carrier body , defining a recess , the carrier body is seated against the impingement face to define an impingement cavity along the recess , and the carrier body defines a plurality of impingement apertures along the recess , each of the impingement apertures having a passage axis (PA) that intersects the impingement face , wherein the seal carrier is an impingement plate and the seal member is a feather seal, and the seal carrier defines an elongated channel dimensioned to receive a main body of the seal member such that the main body bounds the impingement cavity .
A system of devices for introducing an interventional device into a carotid artery, the system comprising: an arterial access sheath adapted to introduce a catheter into an artery, the arterial access sheath including a sheath body sized and shaped to be introduced into a common carotid artery via a carotid artery access site, the sheath body defining an internal lumen that provides a passageway for introducing a catheter into the common carotid artery when the sheath body is positioned in the common carotid artery; an elongated first dilator positionable within the internal lumen of the sheath body, the first dilator having a tapered distal tip sized and shaped to dilate a needle puncture site to a larger diameter for insertion of the arterial access sheath into the artery, the first dilator having an internal lumen to allow the dilator to be inserted over a sheath guidewire into an artery, wherein at least a portion of the first dilator has a first bending stiffness, wherein the arterial access sheath and the first dilator can be collectively introduced into the common carotid artery; characterized in that the system further comprises a sheath stopper slideably mounted over the outside of the distal portion of the sheath body for creating a positive stop for contacting an artery wall, wherein a distal end of the sheath stopper forms an angled flange for contacting the arterial wall. an arterial access sheath adapted to introduce a catheter into an artery, the arterial access sheath including a sheath body sized and shaped to be introduced into a common carotid artery via a carotid artery access site, the sheath body defining an internal lumen that provides a passageway for introducing a catheter into the common carotid artery when the sheath body is positioned in the common carotid artery; an elongated first dilator positionable within the internal lumen of the sheath body, the first dilator having a tapered distal tip sized and shaped to dilate a needle puncture site to a larger diameter for insertion of the arterial access sheath into the artery, the first dilator having an internal lumen to allow the dilator to be inserted over a sheath guidewire into an artery, wherein at least a portion of the first dilator has a first bending stiffness, wherein the arterial access sheath and the first dilator can be collectively introduced into the common carotid artery; characterized in that the system further comprises a sheath stopper slideably mounted over the outside of the distal portion of the sheath body for creating a positive stop for contacting an artery wall, wherein a distal end of the sheath stopper forms an angled flange for contacting the arterial wall.
System composed of cooktop and monitoring device , the cooktop comprising: - a cooktop surface , - at least one heating device under the cooktop surface, - a cooktop control , wherein the monitoring device includes: - an energy store of its own, - sensor means , in order to detect a cooking vessel placed on the cooktop surface and/or its temperature and/or its size, - a communication device for communication with an operator and/or the cooktop control , wherein in the second case the cooktop control has a corresponding communication device , a drive device , with which the monitoring device is self-propelled, characterized in that the monitoring device: - is freely movable and self-propelled, - is not fixedly connected to the cooktop surface and removable from it, - is designed to move freely on the cooktop surface, - has a control of its own, - has at least one position sensor for determining a position and/or a change in position of the monitoring device on the cooktop surface. - a cooktop surface , - at least one heating device under the cooktop surface, - a cooktop control , wherein the monitoring device includes: - an energy store of its own, - sensor means , in order to detect a cooking vessel placed on the cooktop surface and/or its temperature and/or its size, - a communication device for communication with an operator and/or the cooktop control , wherein in the second case the cooktop control has a corresponding communication device , a drive device , with which the monitoring device is self-propelled, - is freely movable and self-propelled, - is not fixedly connected to the cooktop surface and removable from it, - is designed to move freely on the cooktop surface, - has a control of its own, - has at least one position sensor for determining a position and/or a change in position of the monitoring device on the cooktop surface.
A process for separating individual components of a dry or dried synthetic turf product, said synthetic turf product comprising at least a backing material, a grass fiber component and additional components, said additional components comprising, infill, and wherein said infill comprises sand and rubber, said method comprising the steps of: I) providing the infill comprising sand and rubber by the steps of: (i) downsizing the synthetic turf product into a downsized turf material; (ii) separating the downsized turf material by sieving into at least a first fraction substantially comprising a mixture of backing material and infill and a second fraction substantially comprising grass fiber component; and (iii) sieving the first fraction, said first fraction being a mixture of backing and infill, to provide a third fraction substantially comprising backing material and a fourth fraction substantially comprising sand and rubber; II) subjecting the fourth fraction substantially comprising sand and rubber to a step of separating by specific gravity to provide a low density fraction substantially comprising rubber and a high density fraction substantially comprising sand. I) providing the infill comprising sand and rubber by the steps of: (i) downsizing the synthetic turf product into a downsized turf material; (ii) separating the downsized turf material by sieving into at least a first fraction substantially comprising a mixture of backing material and infill and a second fraction substantially comprising grass fiber component; and (iii) sieving the first fraction, said first fraction being a mixture of backing and infill, to provide a third fraction substantially comprising backing material and a fourth fraction substantially comprising sand and rubber; (i) downsizing the synthetic turf product into a downsized turf material; (ii) separating the downsized turf material by sieving into at least a first fraction substantially comprising a mixture of backing material and infill and a second fraction substantially comprising grass fiber component; and (iii) sieving the first fraction, said first fraction being a mixture of backing and infill, to provide a third fraction substantially comprising backing material and a fourth fraction substantially comprising sand and rubber; II) subjecting the fourth fraction substantially comprising sand and rubber to a step of separating by specific gravity to provide a low density fraction substantially comprising rubber and a high density fraction substantially comprising sand.
A method of streaming a Virtual Reality [VR] video to a VR rendering device, wherein the VR video is represented at least in part by a plurality of streams each associated with a different view of a scene, the method comprising: - determining a view of the scene which is to be rendered by the VR rendering device; - identifying one or more of the plurality of streams which are needed to render the view of the scene, thereby identifying a subset of streams; and - effecting a streaming of the subset of streams via a network from one or more stream sources to the VR rendering device by: i) streaming the plurality of streams from the one or more stream sources to one or more forwarding nodes downstream of the one or more stream sources and upstream of the VR rendering device; and ii) selectively forwarding the subset of streams from the one or more forwarding nodes to the VR rendering device in response to the view having to be rendered by the VR rendering device; characterised in that the selectively forwarding of the subset of streams comprises the VR rendering device joining a multicast group providing the subset of streams using multicasting; wherein the one or more forwarding nodes are Software Defined Network [SDN] nodes, and the selectively forwarding of the subset of streams comprises controlling the one or more forwarding nodes using an SDN controller to forward packets of the subset of streams to the VR rendering device and/or to drop packets of other streams, wherein the multicasting is effected by each of the plurality of streams being streamed to the one or more forwarding nodes in unicast, the method further comprising: - controlling the one or more forwarding nodes to convert each of the unicast streams into a multicast stream. - determining a view of the scene which is to be rendered by the VR rendering device; - identifying one or more of the plurality of streams which are needed to render the view of the scene, thereby identifying a subset of streams; and - effecting a streaming of the subset of streams via a network from one or more stream sources to the VR rendering device by: i) streaming the plurality of streams from the one or more stream sources to one or more forwarding nodes downstream of the one or more stream sources and upstream of the VR rendering device; and ii) selectively forwarding the subset of streams from the one or more forwarding nodes to the VR rendering device in response to the view having to be rendered by the VR rendering device; i) streaming the plurality of streams from the one or more stream sources to one or more forwarding nodes downstream of the one or more stream sources and upstream of the VR rendering device; and ii) selectively forwarding the subset of streams from the one or more forwarding nodes to the VR rendering device in response to the view having to be rendered by the VR rendering device; - controlling the one or more forwarding nodes to convert each of the unicast streams into a multicast stream.
An adapter assembly , comprising: a first input shaft ; a cam housing , defining a central longitudinal axis ("X"), operably coupled to the first input shaft and defining a proximal cam slot and a distal cam slot ; a first elongate shaft having a proximal end portion received in the proximal cam slot, and a distal end portion configured to be coupled to a surgical loading unit ; a second elongate shaft having a proximal end portion received in the distal cam slot, and a distal end portion configured to be coupled to the surgical loading unit, wherein the first and second elongate shafts are configured to move in opposing first and second longitudinal directions in response to a rotation of the cam housing to articulate the surgical loading unit; and a ring gear operably coupled to the first input shaft and fixed to the cam housing, such that a rotation of the first input shaft results in a rotation of the cam housing, characterised in that the ring gear has internal teeth. a first input shaft ; a cam housing , defining a central longitudinal axis ("X"), operably coupled to the first input shaft and defining a proximal cam slot and a distal cam slot ; a first elongate shaft having a proximal end portion received in the proximal cam slot, and a distal end portion configured to be coupled to a surgical loading unit ; a second elongate shaft having a proximal end portion received in the distal cam slot, and a distal end portion configured to be coupled to the surgical loading unit, wherein the first and second elongate shafts are configured to move in opposing first and second longitudinal directions in response to a rotation of the cam housing to articulate the surgical loading unit; and a ring gear operably coupled to the first input shaft and fixed to the cam housing, such that a rotation of the first input shaft results in a rotation of the cam housing, characterised in that the ring gear has internal teeth.
A (meth)acrylic conductive material comprising a (meth)acrylic elastomer and a conductive agent, wherein the (meth)acrylic elastomer is prepared by bulk polymerizing a monomer component comprising a (meth)acrylic monomer represented by formula (I): wherein R 1 indicates a hydrogen atom or a methyl group, and R 2 indicates an alkyl group with 1 to 10 carbon atoms optionally having a hydroxyl group or a halogen atom or an alkoxyalkyl group with 2 to 12 carbon atoms optionally having a hydroxyl group, and the (meth)acrylic elastomer is characterized by a weight average molecular weight of 2 million to 3 million, and a molecular weight distribution (weight average molecular weight/number average molecular weight) of 1 to 6, wherein the weight average molecular weight and the molecular weight distribution are determined, in terms of polystyrene, using gel permeation chromatography with tetrahydrofuran as solvent, and wherein the content of the (meth)acrylic monomer represented by formula (I) in the monomer component is 95% by mass or greater. wherein R 1 indicates a hydrogen atom or a methyl group, and R 2 indicates an alkyl group with 1 to 10 carbon atoms optionally having a hydroxyl group or a halogen atom or an alkoxyalkyl group with 2 to 12 carbon atoms optionally having a hydroxyl group, and the (meth)acrylic elastomer is characterized by a weight average molecular weight of 2 million to 3 million, and a molecular weight distribution (weight average molecular weight/number average molecular weight) of 1 to 6, wherein the weight average molecular weight and the molecular weight distribution are determined, in terms of polystyrene, using gel permeation chromatography with tetrahydrofuran as solvent, and wherein the content of the (meth)acrylic monomer represented by formula (I) in the monomer component is 95% by mass or greater.