mhurhangee/ep-ind-claims huggingface dataset:
A method, comprising: generating (404, 414) an identifier of a mobile session for a mobile device accessing a Neutral Host Network, NHN, from a small cell operating exclusively in an unlicensed radio band, wherein the small cell supports a NHN access mode for the NHN and a PLMN access mode for at least one PLMN, and wherein the small cell is configured to broadcast a Neutral Host Access Mode Indicator, a NHN identifier of the NHN and the small cell is considered to be part of the NHN whose NHN identifier it broadcasts, and wherein the small cell is configured to broadcast a PLMN identifier of the at least one PLMN and the small cell is considered to be part of the PLMN whose PLMN identifier it broadcasts, wherein the mobile device is configured to attach to the small cell simultaneously using the PLMN and the NHN access modes, wherein at least one part of the mobile session identifier comprises a decimal format consistent with an identifier recognizable by said at least one PLMN; comparing the mobile session identifier to all previously generated mobile session identifiers currently allocated in the NHN to prevent collision and if the mobile session identifier is determined to collide with one of the previously generated mobile session identifiers, the mobile session identifier is discarded and re-generated for the mobile device. generating (404, 414) an identifier of a mobile session for a mobile device accessing a Neutral Host Network, NHN, from a small cell operating exclusively in an unlicensed radio band, wherein the small cell supports a NHN access mode for the NHN and a PLMN access mode for at least one PLMN, and wherein the small cell is configured to broadcast a Neutral Host Access Mode Indicator, a NHN identifier of the NHN and the small cell is considered to be part of the NHN whose NHN identifier it broadcasts, and wherein the small cell is configured to broadcast a PLMN identifier of the at least one PLMN and the small cell is considered to be part of the PLMN whose PLMN identifier it broadcasts, wherein the mobile device is configured to attach to the small cell simultaneously using the PLMN and the NHN access modes, wherein at least one part of the mobile session identifier comprises a decimal format consistent with an identifier recognizable by said at least one PLMN; comparing the mobile session identifier to all previously generated mobile session identifiers currently allocated in the NHN to prevent collision and if the mobile session identifier is determined to collide with one of the previously generated mobile session identifiers, the mobile session identifier is discarded and re-generated for the mobile device.
A method for controlling a walk of a robot, performed by a processor in the robot and comprising: controlling the robot to walk along walls of a room to obtain a structure and size of the room; dividing an area of the room into a plurality of regular sweeping areas and a plurality of irregular sweeping areas according to the structure and size of the room, wherein a size of the irregular sweeping area is less than a size of the regular sweeping area; controlling the robot to sweep the plurality of regular sweeping areas in a clip shaped sweeping walk mode, wherein the clip shaped sweeping walk mode comprises a spiral walk mode for sweeping the regular sweeping area and an S-shaped walk mode for walking between different regular sweeping areas, or the clip shaped sweeping walk mode comprises a spiral walk mode for sweeping the regular sweeping area and a straight line walk mode for walking between different regular sweeping areas; and controlling the robot to sweep each irregular sweeping area according to a size of each irregular sweeping area after sweeping the plurality of regular sweeping areas. controlling the robot to walk along walls of a room to obtain a structure and size of the room; dividing an area of the room into a plurality of regular sweeping areas and a plurality of irregular sweeping areas according to the structure and size of the room, wherein a size of the irregular sweeping area is less than a size of the regular sweeping area; controlling the robot to sweep the plurality of regular sweeping areas in a clip shaped sweeping walk mode, wherein the clip shaped sweeping walk mode comprises a spiral walk mode for sweeping the regular sweeping area and an S-shaped walk mode for walking between different regular sweeping areas, or the clip shaped sweeping walk mode comprises a spiral walk mode for sweeping the regular sweeping area and a straight line walk mode for walking between different regular sweeping areas; and controlling the robot to sweep each irregular sweeping area according to a size of each irregular sweeping area after sweeping the plurality of regular sweeping areas.
A compound of formula or a pharmaceutically acceptable salt or solvate thereof; wherein Ra is independently H, a straight or branched alkyl substituted or not with a halogen, lower cycloalkyl having 3 to 6 carbon atoms, straight or branched alkoxy substituted or not with a halogen, heteroaryl or halogen, Rb is H or a lower straight alkyl being a straight alkyl of 1-6 carbon atoms or a branched alkyl being a branched alkyl of 3-6 carbon atoms, Rc is H or a lower straight alkyl being a straight alkyl of 1-6 carbon atoms or a branched alkyl being a branched alkyl of 3-6 carbon atoms substituted or not with a halogen, Rd is H, halogen or an alkyl of 1 to 6 carbon atoms, ring A is an optionally substituted saturated ring attached by a carbon atom of said ring to the nitrogen atom at the C-6 position of the purine core, said ring is comprising 5 to 7 members, and is optionally comprising one or two selenium atoms as ring constituting atoms, and wherein two selenium atoms are adjacent or non-adjacent, or ring A is an optionally substituted 5 to 7 members bridged bicycloalkyl, and ring B is an optionally substituted saturated ring attached by a nitrogen atom of said ring to a carbon atom of the phenylene residue, and wherein said ring is comprising 5 to 7 members, and is optionally comprising one oxygen atom or one or two selenium atoms as ring constituting atoms, and wherein two selenium atoms are adjacent or non-adjacent, provided that at least one of ring A and ring B is comprising one or two ring constituting selenium atom. Ra is independently H, a straight or branched alkyl substituted or not with a halogen, lower cycloalkyl having 3 to 6 carbon atoms, straight or branched alkoxy substituted or not with a halogen, heteroaryl or halogen, Rb is H or a lower straight alkyl being a straight alkyl of 1-6 carbon atoms or a branched alkyl being a branched alkyl of 3-6 carbon atoms, Rc is H or a lower straight alkyl being a straight alkyl of 1-6 carbon atoms or a branched alkyl being a branched alkyl of 3-6 carbon atoms substituted or not with a halogen, Rd is H, halogen or an alkyl of 1 to 6 carbon atoms, ring A is an optionally substituted saturated ring attached by a carbon atom of said ring to the nitrogen atom at the C-6 position of the purine core, said ring is comprising 5 to 7 members, and is optionally comprising one or two selenium atoms as ring constituting atoms, and wherein two selenium atoms are adjacent or non-adjacent, or ring A is an optionally substituted 5 to 7 members bridged bicycloalkyl, and ring B is an optionally substituted saturated ring attached by a nitrogen atom of said ring to a carbon atom of the phenylene residue, and wherein said ring is comprising 5 to 7 members, and is optionally comprising one oxygen atom or one or two selenium atoms as ring constituting atoms, and wherein two selenium atoms are adjacent or non-adjacent, provided that at least one of ring A and ring B is comprising one or two ring constituting selenium atom.
A method of identifying a position of a user equipment within a wireless communication network comprising at least one radio communication station ( 110a-h) transmitting radio signals over a geographic area, the method being characterized by comprising the steps of: a) providing expected radio signal strengths ( es i,j | a-h) produced by the at least one radio communication station on each of a plurality of elementary area elements ( x i,j) in which the geographic area is subdivided; b) defining ( 202, 218, 234) an initial attenuation ( μ 1i, μ 2i, μ n-1i, μ ni) experienced by the radio signals provided by the at least one radio communication station ( 110a-h) to the user equipment whose position is to be identified; c) obtaining ( 204, 220, 236) measured radio signal strength measurements ( ms | a-h)of the radio signals provided to the user equipment whose position is to be identified; d) determining (206,208,210, 222,224,226, 238,240,242) an estimated elementary area element ( x i,j|1, x i,j|2, x i,j|(n-1), x i,j|n) corresponding to the position of the user equipment whose position is to be identified on the basis of said expected radio signal strengths ( es i,j | a-h), said initial attenuation ( μ 1i, μ 2i, μ n-1i, μ ni) and said radio signal strength measurements ( ms | a-h), and e) computing ( 216, 234, 248) a final attenuation ( μ 1f, μ 2f, μ n-1f, μ nf) on the basis of said estimated elementary area element ( x i,j|1, x i,j|2, x i,j|n), wherein the steps b) - e) are iterated at least twice, with each further iteration of the step b) which comprises defining ( 218, 234) the respective initial attenuation ( μ 2i, μ n-1i, μ ni) for said each further iteration on the basis of at least one final attenuation ( μ 1f, μ 2f, μ n-1f, μ nf) previously computed in step e) of at least one previous iteration. a) providing expected radio signal strengths ( es i,j | a-h) produced by the at least one radio communication station on each of a plurality of elementary area elements ( x i,j) in which the geographic area is subdivided; b) defining ( 202, 218, 234) an initial attenuation ( μ 1i, μ 2i, μ n-1i, μ ni) experienced by the radio signals provided by the at least one radio communication station ( 110a-h) to the user equipment whose position is to be identified; c) obtaining ( 204, 220, 236) measured radio signal strength measurements ( ms | a-h)of the radio signals provided to the user equipment whose position is to be identified; d) determining (206,208,210, 222,224,226, 238,240,242) an estimated elementary area element ( x i,j|1, x i,j|2, x i,j|(n-1), x i,j|n) corresponding to the position of the user equipment whose position is to be identified on the basis of said expected radio signal strengths ( es i,j | a-h), said initial attenuation ( μ 1i, μ 2i, μ n-1i, μ ni) and said radio signal strength measurements ( ms | a-h), and e) computing ( 216, 234, 248) a final attenuation ( μ 1f, μ 2f, μ n-1f, μ nf) on the basis of said estimated elementary area element ( x i,j|1, x i,j|2, x i,j|n),
Method for manufacturing a filter element provided with a sealing element, in which the sealing compound is introduced in the uncured state into a casting chamber between at least two tundish parts (2, 3), wherein the casting chamber is designed in such a way that sealing surfaces (11, 12, 13) are formed on the sealing element on opposite chamber walls, and that in the casting chamber or connected to the casting chamber, a compensation space is provided for spreading the sealing material, characterized in that the end face of the sealing element projecting into the compensation space differs from the sealing surfaces (11, 12, 13), wherein the compensation space and the section of the sealing element projecting into the compensation space are at a distance from the side face of the filter element facing it and a further section of the sealing element extends between the outside of the first tundish part and the side face of the filter element, which further section encloses the peripheral area of the filter element, wherein either the compensation space is disposed as a closed space within a tundish part and the quantity of uncured sealing compound introduced into the casting chamber is dimensioned in such a way, that, in the cured state, the end face of the sealing element lies at a distance from the ceiling of the closed compensation space, or the compensation space is bounded by both tundish parts (2, 3) and is designed as open space towards the top which communicates with the casting chamber.
A glove comprising: a palmar side panel and a dorsal side panel secured along each panels outer periphery with an opening therein to receive a human hand; said dorsal side panel being sized to cover the back of said hand and in conjunction with said palmar side panel defining a thumb stall and a plurality of finger stalls for receiving a thumb and fingers of a human hand; said palmar side panel including shock absorbing pads positioned to be along opposed sides of an ulnar nerve in a wrist area of a human hand, characterized in that said shock absorbing pads including a first ulnar protective pad positioned to be along the medial side of a proximal end of the metacarpal of a little finger of said human hand and at least adjacent to the pisiform in said wrist area and a second ulnar protective pad positioned to be generally between a median nerve and said ulnar nerve in said wrist area of said hand, said second ulnar protective pad positioned to be over a portion of the capitate, lunate, and hamate bones in said wrist area. a palmar side panel and a dorsal side panel secured along each panels outer periphery with an opening therein to receive a human hand; said dorsal side panel being sized to cover the back of said hand and in conjunction with said palmar side panel defining a thumb stall and a plurality of finger stalls for receiving a thumb and fingers of a human hand; said palmar side panel including shock absorbing pads positioned to be along opposed sides of an ulnar nerve in a wrist area of a human hand, characterized in that said shock absorbing pads including a first ulnar protective pad positioned to be along the medial side of a proximal end of the metacarpal of a little finger of said human hand and at least adjacent to the pisiform in said wrist area and a second ulnar protective pad positioned to be generally between a median nerve and said ulnar nerve in said wrist area of said hand, said second ulnar protective pad positioned to be over a portion of the capitate, lunate, and hamate bones in said wrist area.
A distance computing apparatus of a surrounding monitoring system for a vehicle on a road having detectable left and right lane markers corresponding to the road configuration, the monitoring system having a stereo imaging unit for stereoscopically taking a pair of images, a disparity calculating unit for calculating a disparity value of an object, and a distance calculating unit for calculating the distance to said object based on said disparity value; means for detecting the left and right lane markers in the stereo image and computing from the related disparities, their 3D world-coordinates, means for computing a lane marker model which is a parameterized function of the x and y coordinates of the left and right lane markers dependent on their z-coordinates extending in the longitudinal direction of the vehicle characterized by comprising; a means for computing the slope (a') of the road from the lane marker model, said slope (a') including an error; an approximation lines calculating means for calculating a plurality of approximation lines in the image plane of the reference image, the reference image being either the right or left image; the approximation lines corresponding to real parallel lines extending in the forward direction of the surroundings monitoring system; a vanishing point calculating means for calculating the vanishing point V2D in the reference image from a point of intersection of said approximation lines; and a means for computing a slope (a) of the road from the vertical coordinate J2VD of the vanishing point V2D further comprising a means for calculating said error of the slope as the difference a'-a of the slope (a') derived from the lane marker model and the slope (a) derived from JV2D; a transforming means for implementing an affine linear geometrical transformation of said pair of images based on a horizontal shift parameter (SHFTI) indicating a shift of at least one image in the horizontal direction; an updating means updating said horizontal shift parameter (SHFTI) based on said difference a'-a of the slope of the road whereby said distance calculating means then calculates the distance (z) to said object based on an updated value of the horizontal shift parameter (SHFTI) and based on the disparity value of the object.
An additive manufacturing device (1, 100) configured as a selective sintering device, comprising a beam generation unit for the emission of an energy beam, a raw material container and a raw material supply unit, wherein the raw material supply unit includes a raw material supply container which is filled with a raw material, wherein the raw material supply container is movable in a direction normally to the plane containing the layer of raw material for manufacture of the solid article by the additive manufacturing device, wherein a raw material distribution unit is provided for distributing the raw material to the raw material container, wherein the raw material has a raw material surface exposed to the energy beam emitted by the beam generation unit when it is operated, whereby a window element is provided for transmission of the energy beam emittable by the beam generation unit to the raw material container for manufacturing a solid article from a plurality of raw material layers, whereby the raw material comprises a powder, whereby the raw material container contains the raw material arranged in a plurality of raw material layers arranged upon each other, such that an uppermost raw material layer including a raw material surface (7, 17) is exposed to the energy beam, whereby the window element comprises a first surface and a second surface, whereby the first surface faces the beam generation unit and the second surface faces the raw material surface (7, 17), wherein the second surface is covered by a protection element, wherein the protection element is transparent for the energy beam such that in operation, the energy beam passes through the protection element, wherein the protection element is movable relative to the window element, such that the protection element can be removed or exchanged, characterized in that the protection element comprises a sheet element, which can be removably attached to the window element, wherein the protection element is configured to perform a sliding movement.
A computer-implemented method for privacy-sensitive sharing of navigation-based content between a first vehicle and at least one second vehicle, the navigation-based content including destination information of the first vehicle, the method comprising: initiating a pairing of the first vehicle with the at least one second vehicle; determining a privacy level associated with the pairing is private, the privacy level pertaining to the second vehicle's ability to access the first vehicle's navigation-based content; determining a granularity level for sharing the navigation-based content of the first vehicle with the at least one second vehicle based on the privacy level, the granularity level pertaining to the type of navigation-based content that the second vehicle can access relative to the first vehicle, the granularity level indicating that the second vehicle can access the destination information; and granting an access right to the at least one second vehicle to access the navigation-based content at the determined granularity level, wherein the at least one second vehicle is guided based on the navigation-based content of the first vehicle at the determined granularity level. initiating a pairing of the first vehicle with the at least one second vehicle; determining a privacy level associated with the pairing is private, the privacy level pertaining to the second vehicle's ability to access the first vehicle's navigation-based content; determining a granularity level for sharing the navigation-based content of the first vehicle with the at least one second vehicle based on the privacy level, the granularity level pertaining to the type of navigation-based content that the second vehicle can access relative to the first vehicle, the granularity level indicating that the second vehicle can access the destination information; and granting an access right to the at least one second vehicle to access the navigation-based content at the determined granularity level, wherein the at least one second vehicle is guided based on the navigation-based content of the first vehicle at the determined granularity level.
A method of controlling a wind turbine, the wind turbine comprising wind turbine blades attached to a rotor hub and a control system for pitching the blades relative to the rotor hub, the method comprising: - determining a wind speed; - providing a normal pitch mode of operation to control the output power of the wind turbine, comprising pitch reference values in dependence of the wind speed; - controlling the output power of the turbine according to the normal pitch mode of operation as a function of the wind speed if the wind speed is lower than a first upper level wind speed threshold, and - controlling the output power and the rotational speed of the turbine according to a modified mode of operation if the wind speed exceeds the first upper level threshold wind speed, wherein the modified mode of operation comprises decreasing the output power and the rotational speed according to predefined de-rating functions which are a function of time and independent of the wind speed and wherein, during the modified mode of operation, the output power is controlled to decrease at a first greater constant rate than a second constant rate of decreasing the rotational speed such that the output power decreases faster than the rotational speed. - determining a wind speed; - providing a normal pitch mode of operation to control the output power of the wind turbine, comprising pitch reference values in dependence of the wind speed; - controlling the output power of the turbine according to the normal pitch mode of operation as a function of the wind speed if the wind speed is lower than a first upper level wind speed threshold, and - controlling the output power and the rotational speed of the turbine according to a modified mode of operation if the wind speed exceeds the first upper level threshold wind speed,