mhurhangee/patent-ind-claim-en huggingface dataset:
Method for determining evasion trajectories for a collision-free evasion maneuver by motor vehicles , wherein, by means of a control device : - trajectory data which describe a set of possible driving trajectories of the motor vehicle are received from at least one trajectory generator for each motor vehicle and - a particular evasion trajectory is determined for each motor vehicle , on the basis of its set of possible driving trajectories such that the collision-free evasion maneuver results from the combination of the determined evasion trajectories , - in a classification step for each motor vehicle , the driving trajectories of its set are classified into groups , each of which comprises a plurality of the driving trajectories , and each group is represented by a single particular group trajectory , - wherein a predetermined number of groups is determined per set , the number of groups is determined on the basis of a remaining time until the collision and/or until the planned initiation of the evasion maneuver, and - in at least one combination step, one of the group trajectories of each of the motor vehicles is selected in each case and, on the basis of the selected group trajectories , a coordinated driving maneuver of the motor vehicles resulting therefrom is checked to determine whether the driving maneuver satisfies a predetermined optimization criterion , and - the evasion trajectories are determined on the basis of the group trajectories of such a combination step in which the optimization criterion is met. - trajectory data which describe a set of possible driving trajectories of the motor vehicle are received from at least one trajectory generator for each motor vehicle and - a particular evasion trajectory is determined for each motor vehicle , on the basis of its set of possible driving trajectories such that the collision-free evasion maneuver results from the combination of the determined evasion trajectories , - in a classification step for each motor vehicle , the driving trajectories of its set are classified into groups , each of which comprises a plurality of the driving trajectories , and each group is represented by a single particular group trajectory , - wherein a predetermined number of groups is determined per set , the number of groups is determined on the basis of a remaining time until the collision and/or until the planned initiation of the evasion maneuver, and - in at least one combination step, one of the group trajectories of each of the motor vehicles is selected in each case and, on the basis of the selected group trajectories , a coordinated driving maneuver of the motor vehicles resulting therefrom is checked to determine whether the driving maneuver satisfies a predetermined optimization criterion , and - the evasion trajectories are determined on the basis of the group trajectories of such a combination step in which the optimization criterion is met.
A molding based on a monolithic organic aerogel having a density in the range from 60 to 300 kg/m 3 , a thermal conductivity in the range from 12 to 17.8 mW/m*K, measured according to DIN EN 12667:2001-05 at 10°C and 101 325 Pa, and more than 30 Vol.-% of pores with a diameter of less than 150 nm and more than 20 Vol.-% of pores with a diameter of less than 27 nm, based on the total pore volume, and determined using the Barret-Joyner-Halenda method, wherein the molding is in the form of a sheet with a thickness in the range from 100 μm to 10 mm.
A method programmed in a non-transitory memory of a device comprising: generating geometry images from a point cloud; placing the geometry images on a 2D canvas characterized by filling empty spaces on the 2D canvas with a padding method which considers a 3D position of newly added points due to lossy compression of an occupancy map; wherein the padding method comprises a search in a 3D space for a value that, when reconstructed, is as close as possible to the point cloud; wherein the search in the 3D space starts at an initial value which is determined based on depth values of neighboring points that belong to the original point cloud; and wherein the padding method selects the 3D position around the initial 3D position with the smallest 3D distance to the point cloud and fills the empty spaces with the reconstructed value. generating geometry images from a point cloud; placing the geometry images on a 2D canvas characterized by filling empty spaces on the 2D canvas with a padding method which considers a 3D position of newly added points due to lossy compression of an occupancy map; wherein the padding method comprises a search in a 3D space for a value that, when reconstructed, is as close as possible to the point cloud; wherein the search in the 3D space starts at an initial value which is determined based on depth values of neighboring points that belong to the original point cloud; and wherein the padding method selects the 3D position around the initial 3D position with the smallest 3D distance to the point cloud and fills the empty spaces with the reconstructed value.
A sensing module , comprising: a sample loading layer comprising at least a sample loading aperture into which a sample may be loaded; a sensing layer being configured to receive light and turn it into electrical signals; an optical resonance layer located between the sample loading layer and the sensing layer , wherein the sample loading aperture exposes a part of the optical resonance layer and is configured to load samples , wherein the optical resonance of the optical resonance layer is provided by an optically resonant structure on the surface of the optical resonance layer and the optically resonant structure is located at the bottom of the sample loading aperture; and a light source, configured to provide an excitation light (L1, L6) to the optical resonance layer through the sample loading layer , wherein the light source illuminates the sample loading aperture and the optically resonant structure , and wherein the sensing module satisfies: λ/ n wg ≦Λ≦λ, wherein λ is the wavelength of the excitation light (L1, L6), n wg is the refractive index of the optical resonance layer , and A is the period of the optically resonant structure , wherein the light source is a laser and the excitation light (L1, L6) strikes the optically resonant structure at a resonance angle (α), and the excitation light (L1, L6) excites waveguide-mode resonance in the optically resonant structure . a sample loading layer comprising at least a sample loading aperture into which a sample may be loaded; a sensing layer being configured to receive light and turn it into electrical signals; an optical resonance layer located between the sample loading layer and the sensing layer , wherein the sample loading aperture exposes a part of the optical resonance layer and is configured to load samples , wherein the optical resonance of the optical resonance layer is provided by an optically resonant structure on the surface of the optical resonance layer and the optically resonant structure is located at the bottom of the sample loading aperture; and a light source, configured to provide an excitation light (L1, L6) to the optical resonance layer through the sample loading layer , wherein the light source illuminates the sample loading aperture and the optically resonant structure , and wherein the sensing module satisfies: λ/ n wg ≦Λ≦λ, wherein λ is the wavelength of the excitation light (L1, L6), n wg is the refractive index of the optical resonance layer , and A is the period of the optically resonant structure , wherein the light source is a laser and the excitation light (L1, L6) strikes the optically resonant structure at a resonance angle (α), and the excitation light (L1, L6) excites waveguide-mode resonance in the optically resonant structure .
A resin panel comprising a back wall ; a front wall facing the back wall with a gap to form a hollow part therebetween; peripheral walls joining peripheries of the front wall and the back wall , and plural ribs formed by having portions of the back wall depressed toward the front wall and welded to the inner surface of the front wall , and the resin panel constructed without using a reinforcing material unit and without a decorative member , wherein the resin panel has an external shape which measures about 1080 mm × 510mm, and has contact surfaces along the entire periphery, wherein the back wall , the front wall and the ribs are configured by mold-clamping, in a split mold, a first molten resin in a molten state and incorporating a plate-shaped filler, which constitutes the back wall , and a second molten resin in a molten state and incorporating a plate-shaped filler, which constitutes the front wall , the first molten resin and the second molten resin having been extruded and flowed out from an extrusion apparatus, the longitudinal direction (3a1) of the ribs is perpendicular to the direction of flow (T) of the first molten resin and the second molten resin, wherein the ribs are formed to be separated from each other in a direction that is perpendicular (R) to the direction of flow (T) of the resin, and the ribs that are formed to be separated from each other are formed jaggedly and alternately in the direction of flow (T) of the resin, and wherein the first and second molten resins are each a mixed resin of polypropylene resin and polyethylene resin. wherein the back wall , the front wall and the ribs are configured by mold-clamping, in a split mold, a first molten resin in a molten state and incorporating a plate-shaped filler, which constitutes the back wall , and a second molten resin in a molten state and incorporating a plate-shaped filler, which constitutes the front wall , the first molten resin and the second molten resin having been extruded and flowed out from an extrusion apparatus, the longitudinal direction (3a1) of the ribs is perpendicular to the direction of flow (T) of the first molten resin and the second molten resin, wherein the ribs are formed to be separated from each other in a direction that is perpendicular (R) to the direction of flow (T) of the resin, and the ribs that are formed to be separated from each other are formed jaggedly and alternately in the direction of flow (T) of the resin, and
Method for connecting opposing modules of a modular blade, each opposing module comprising inserts housed by machining inside the opposing modules , the connection between inserts being made through a single bolt per pair of facing inserts , each bolt comprising two threaded ends configured to be threaded in the inserts of the modules , the method comprises the following steps: - manufacture of modules where the creation of threads on the inserts is done as a final step following facing of the connection surface of these modules , - insertion of bolts into one of the modules , - precision positioning of the other module against said one of the modules , - turning the bolts so that the bolts penetrate the other module leaving a gap between the modules , - separating the modules so that the gap increases, and - pre-tensioning all the bolts by inserting a spacer over each bolt in the increased gap between the modules after the spacers have being compressed. - manufacture of modules where the creation of threads on the inserts is done as a final step following facing of the connection surface of these modules , - insertion of bolts into one of the modules , - precision positioning of the other module against said one of the modules , - turning the bolts so that the bolts penetrate the other module leaving a gap between the modules , - separating the modules so that the gap increases, and - pre-tensioning all the bolts by inserting a spacer over each bolt in the increased gap between the modules after the spacers have being compressed.
Fastening device for fastening a seat shell to a chair frame , wherein the fastening device comprises - a screw , - a fastening adapter , - a nut cooperating with the screw , and - an adhesive , wherein the fastening adapter has - a recess for receiving a screw head of the screw , - in the recess , a through-hole through which a screw shaft of the screw can be guided by the fastening adapter , and - a support surface which extends at least partially around the recess and on which the adhesive can be applied or is applied, characterized in that - the through-hole has a three-sided or multi-sided cross-section, wherein a lower portion of the screw head or an end portion of the screw shaft facing the screw head has a cross-section corresponding to the through-hole , and - the through-hole is designed such that the screw guided through the through-hole is secured against rotation relative to the through-hole. - a screw , - a fastening adapter , - a nut cooperating with the screw , and - an adhesive , - a recess for receiving a screw head of the screw , - in the recess , a through-hole through which a screw shaft of the screw can be guided by the fastening adapter , and - a support surface which extends at least partially around the recess and on which the adhesive can be applied or is applied, - the through-hole has a three-sided or multi-sided cross-section, wherein a lower portion of the screw head or an end portion of the screw shaft facing the screw head has a cross-section corresponding to the through-hole , and - the through-hole is designed such that the screw guided through the through-hole is secured against rotation relative to the through-hole.
Cannabidiol for use in a method of treating irritability in autism spectrum disorder in a subject, wherein the method comprises transdermally administering an effective amount of cannabidiol (CBD) to the subject.
A method of forming an isoparaffin composition, the method comprising: providing (a) unsaturated alkyl esters and (b) low-molecular-weight olefins comprising C 2 -C 18 olefins; reacting the unsaturated alkyl esters and the low-molecular-weight olefins in the presence of a metathesis catalyst to form a metathesis product comprising metathesized esters and metathesized olefins, wherein the metathesized olefins comprise 9-octadecene; separating at least a portion of the metathesized olefins from the metathesis product to form a separated olefin composition, wherein the separated olefin composition comprises 9-octadecene; isomerizing the one or more linear internal olefins comprised by the separated separated olefin composition to form a isomerized olefin composition, wherein the isomerized olefin composition comprises one or more branched olefins; and hydrogenating the one or more branched olefins comprised by the isomerized olefin composition to form an isoparaffin composition. providing (a) unsaturated alkyl esters and (b) low-molecular-weight olefins comprising C 2 -C 18 olefins; reacting the unsaturated alkyl esters and the low-molecular-weight olefins in the presence of a metathesis catalyst to form a metathesis product comprising metathesized esters and metathesized olefins, wherein the metathesized olefins comprise 9-octadecene; separating at least a portion of the metathesized olefins from the metathesis product to form a separated olefin composition, wherein the separated olefin composition comprises 9-octadecene; isomerizing the one or more linear internal olefins comprised by the separated separated olefin composition to form a isomerized olefin composition, wherein the isomerized olefin composition comprises one or more branched olefins; and hydrogenating the one or more branched olefins comprised by the isomerized olefin composition to form an isoparaffin composition.
A method for user identity authentication of a peer device joining a peer-to-peer overlay network , comprising: a credential server of the overlay network receiving a registered user identity from a joining peer device , wherein the credential server is a central server that all peers in the overlay network trust; the credential server verifying the registered user identity with an identity provider ; and upon receiving, at the credential server , successful verification of the registered user identity from the identity provider , the credential server issuing to the joining peer device a signed certificate for use by an authenticated peer device in the overlay network to authenticate the registered user identity of the joining peer device , wherein the signed certificate is signed by a private key of the credential server . a credential server of the overlay network receiving a registered user identity from a joining peer device , wherein the credential server is a central server that all peers in the overlay network trust; the credential server verifying the registered user identity with an identity provider ; and upon receiving, at the credential server , successful verification of the registered user identity from the identity provider , the credential server issuing to the joining peer device a signed certificate for use by an authenticated peer device in the overlay network to authenticate the registered user identity of the joining peer device , wherein the signed certificate is signed by a private key of the credential server .
A gas spring and spacer assembly for securement along an associated structural component (ASC) having an associated projection extending therefrom, said gas spring and spacer assembly comprising: a first end member; a second end member disposed in longitudinally-spaced relation to said first end member and including a first surface facing away from said first end member; a flexible wall secured between said first and second end members and at least partially defining a spring chamber therebetween; and a spacer adapted to support said second end member in spaced relation to the associated structural component (ASC) having the associated projection , said spacer comprising: a first side adapted to abuttingly interengage the associated end member such that lateral loads acting on the associated end member can be transferred to said spacer ; an opposing second side adapted to abuttingly engage the associated structural component (ASC); and a recess accessible from along said second side and adapted to cooperatively receive the associated projection for transferring laterally-acting loads from the associated end member to the associated structural component (ASC). a first end member; a second end member disposed in longitudinally-spaced relation to said first end member and including a first surface facing away from said first end member; a flexible wall secured between said first and second end members and at least partially defining a spring chamber therebetween; and a spacer adapted to support said second end member in spaced relation to the associated structural component (ASC) having the associated projection , said spacer comprising: a first side adapted to abuttingly interengage the associated end member such that lateral loads acting on the associated end member can be transferred to said spacer ; an opposing second side adapted to abuttingly engage the associated structural component (ASC); and a recess accessible from along said second side and adapted to cooperatively receive the associated projection for transferring laterally-acting loads from the associated end member to the associated structural component (ASC). a first side adapted to abuttingly interengage the associated end member such that lateral loads acting on the associated end member can be transferred to said spacer ; an opposing second side adapted to abuttingly engage the associated structural component (ASC); and a recess accessible from along said second side and adapted to cooperatively receive the associated projection for transferring laterally-acting loads from the associated end member to the associated structural component (ASC).
Household appliance device, in particular hob device, having at least one ferrite element , which is provided for concentrating a magnetic flux supplied by a coil , and which has at least one proportion of MnO, wherein the ferrite element has at least one proportion of NiO, characterised in that the ferrite element has a mass proportion of at least 0.5% of NiO, wherein the ferrite element has a mass proportion of at most 10% of NiO.
A method for handover between access points in a wireless LAN environment, the method comprising: when a terminal equipment performs information transmission with a first access point AP on a first frequency band, determining, by the terminal equipment , whether the terminal equipment needs to establish a connection with a second AP, wherein an operating frequency band of the second AP is a second frequency band; when the terminal equipment determines that the terminal equipment needs to establish the connection with the second AP, determining, by the terminal equipment , whether the first AP and the second AP are corresponding to a same dual-band radio access device; when the terminal equipment determines that the first AP and the second AP are corresponding to the same dual-band radio access device, sending, by the terminal equipment , a connection request to the second AP when maintaining a protocol layer connection with the first AP, wherein the connection request is used to request to establish a connection with the second AP; and if the terminal equipment receives a success message that is fed back according to the connection request and that is sent by the second AP, establishing, by the terminal equipment , the connection with the second AP, wherein the protocol layer refers to TCP/IP, wherein the determining, by the terminal equipment , whether the first AP and the second AP are corresponding to a same dual-band radio access device comprises: determining, by the terminal equipment according to a relationship between a basic service set identifier BSSID of the first AP and a BSSID of the second AP, whether the first AP and the second AP are corresponding to the same dual-band radio access device; or determining, by the terminal equipment according to a relationship between a Media Access Control MAC address of a default gateway of the first AP and a MAC address of a default gateway of the second AP, whether the first AP and the second AP are corresponding to the same dual-band radio access device; wherein - the relationship between the basic service set identifier BSSID of the first AP and the BSSID of the second AP refers to a partial or complete matching of the BSSIDs and - the relationship between the Media Access Control MAC address of the default gateway of the first AP and the MAC address of the default gateway of the second AP refers to a partial or complete matching of the addresses. - the relationship between the basic service set identifier BSSID of the first AP and the BSSID of the second AP refers to a partial or complete matching of the BSSIDs and - the relationship between the Media Access Control MAC address of the default gateway of the first AP and the MAC address of the default gateway of the second AP refers to a partial or complete matching of the addresses.