mhurhangee/ep-ind-claims huggingface dataset:
Fastening arrangement for an aircraft, for fastening a module on at least one fastening rail, having a blocking device, wherein the blocking device has at least one sliding block for fastening the blocking device in the fastening rail, having an arresting device for clamping the at least one sliding block in the fastening rail, characterized in that the fastening arrangement has a sliding-strip portion for connecting the fastening arrangement to the module, wherein the sliding-strip portion is arranged in a displaceable manner on the blocking device and can be arrested by the arresting device, and in that the fastening arrangement comprises the at least one fastening rail, wherein the fastening rail is designed in the form of a T-slot rail with spaced-apart abutment regions for the sliding block, and in that the sliding-strip portion can be adjusted in a stepless manner relative to the blocking device, or in that the sliding-strip portion can be adjusted in steps relative to the blocking device, wherein the smallest possible adjustment distance is smaller than a unit spacing or an average distance between the spaced-apart abutment regions in the fastening rail, and therefore the fastening arrangement has pre-selection of the position on the fastening rail by virtue of the blocking device being inserted into the fastening rail by way of the sliding block, but provides for position adjustment via the displacement of the sliding-strip portion.
An optical device comprising: a waveguide; a first diffraction grating receiving at least a portion of light incident on the waveguide; and a second diffraction grating receiving a light diffracted from the first diffraction grating, wherein the first diffraction grating and the second diffraction grating are provided in or on the waveguide, the light diffracted from the second diffraction grating is diffracted in three-dimensional directions, and at least a portion of the light diffracted in the three-dimensional directions is output to an outside of the waveguide, characterized in that: the second diffraction grating includes gratings of a pattern based on directions of grating vectors corresponding to sides of a polyhedron inscribed in a sphere. a waveguide; a first diffraction grating receiving at least a portion of light incident on the waveguide; and a second diffraction grating receiving a light diffracted from the first diffraction grating, wherein the first diffraction grating and the second diffraction grating are provided in or on the waveguide, the light diffracted from the second diffraction grating is diffracted in three-dimensional directions, and at least a portion of the light diffracted in the three-dimensional directions is output to an outside of the waveguide, characterized in that: the second diffraction grating includes gratings of a pattern based on directions of grating vectors corresponding to sides of a polyhedron inscribed in a sphere.
A Subscriber Identity Module, SIM, (124, 200) comprising: a storage configured to store a plurality of subscriber identities associated with a mobile network device hosting the apparatus wherein the plurality of subscriber identities comprise a voice-call continuity, VCC, subscriber identity and a non-VCC subscriber identity; and an identity manager coupled to the storage and hosted by the mobile network device, the identity manager configured to: detect a location update event; access a network to retrieve one or more capabilities of the network, in response to the detection of the location update event; determine a plurality of call-continuity parameters based at least in part, on the one or more capabilities of the network, wherein at least one of the one or more capabilities of the network is indicative of whether the network supports voice-call continuity, VCC; select (508, 516, 524) one or both of the VCC subscriber identity or the non-VCC subscriber identity, of the plurality of subscriber identities, based at least in part on the determined call-continuity parameters; and register (508, 516, 524) the selected subscriber identities with a database associated with the network. a storage configured to store a plurality of subscriber identities associated with a mobile network device hosting the apparatus wherein the plurality of subscriber identities comprise a voice-call continuity, VCC, subscriber identity and a non-VCC subscriber identity; and an identity manager coupled to the storage and hosted by the mobile network device, the identity manager configured to: detect a location update event; access a network to retrieve one or more capabilities of the network, in response to the detection of the location update event; determine a plurality of call-continuity parameters based at least in part, on the one or more capabilities of the network, wherein at least one of the one or more capabilities of the network is indicative of whether the network supports voice-call continuity, VCC; select (508, 516, 524) one or both of the VCC subscriber identity or the non-VCC subscriber identity, of the plurality of subscriber identities, based at least in part on the determined call-continuity parameters; and register (508, 516, 524) the selected subscriber identities with a database associated with the network. detect a location update event; access a network to retrieve one or more capabilities of the network, in response to the detection of the location update event; determine a plurality of call-continuity parameters based at least in part, on the one or more capabilities of the network, wherein at least one of the one or more capabilities of the network is indicative of whether the network supports voice-call continuity, VCC; select (508, 516, 524) one or both of the VCC subscriber identity or the non-VCC subscriber identity, of the plurality of subscriber identities, based at least in part on the determined call-continuity parameters; and register (508, 516, 524) the selected subscriber identities with a database associated with the network.
A method for generating the depth map of a scene, comprising: projecting a structured light pattern with a first density onto the scene to obtain a first depth map; segmenting the scene into at least one area based on the depth information in the first depth map; and projecting a structured light pattern with a second density which is different from the first density onto the scene by adapting the density of the light pattern to the at least one area of the scene to obtain a second depth map of the scene. projecting a structured light pattern with a first density onto the scene to obtain a first depth map; segmenting the scene into at least one area based on the depth information in the first depth map; and projecting a structured light pattern with a second density which is different from the first density onto the scene by adapting the density of the light pattern to the at least one area of the scene to obtain a second depth map of the scene.
An optical measurement apparatus for holding a liquid sample by narrowing a gap between a first light-transmission surface arranged on a horizontal sample stage and a second light-transmission surface arranged on a window plate holder parallel to the sample stage, and for measuring light transmitted through the light-transmission surfaces (11, 22) and the liquid sample, comprising: a wiping mechanism comprising: a supporting element (33, 53A, 53B) having upper and lower surfaces to which a wipe material (40, 43A, 43B) for wiping off the liquid sample can be attached; a moving mechanism (34, 37, 41) for moving the supporting element (33, 53A, 53B) between a position within the gap between the two light-transmission surfaces (11, 22) and a position outside this gap; characterized in that the window plate holder is adapted to hold an upper one of the two light-transmission surfaces (11, 22), to move upward when a measurement is completed and to move downward when the supporting element (33, 53A, 53B) reaches the position within the gap between the two light-transmission surfaces (11, 22) so that the two light-transmission surfaces (11, 22) come in contact with the upper and lower surfaces of the supporting element (33, 53A, 53B), respectively. a wiping mechanism comprising: a supporting element (33, 53A, 53B) having upper and lower surfaces to which a wipe material (40, 43A, 43B) for wiping off the liquid sample can be attached; a moving mechanism (34, 37, 41) for moving the supporting element (33, 53A, 53B) between a position within the gap between the two light-transmission surfaces (11, 22) and a position outside this gap; a supporting element (33, 53A, 53B) having upper and lower surfaces to which a wipe material (40, 43A, 43B) for wiping off the liquid sample can be attached; a moving mechanism (34, 37, 41) for moving the supporting element (33, 53A, 53B) between a position within the gap between the two light-transmission surfaces (11, 22) and a position outside this gap; the window plate holder is adapted to hold an upper one of the two light-transmission surfaces (11, 22), to move upward when a measurement is completed and to move downward when the supporting element (33, 53A, 53B) reaches the position within the gap between the two light-transmission surfaces (11, 22) so that the two light-transmission surfaces (11, 22) come in contact with the upper and lower surfaces of the supporting element (33, 53A, 53B), respectively.
A method for firing a green honeycomb ceramic body in a kiln, the method comprising: a) heating the green honeycomb ceramic body from room temperature to a first temperature that is from 250°C to 650°C at a first heating rate that is from 75°C/hr to 125°C/hr; b) heating the green honeycomb ceramic body from the first temperature to a second temperature that is from 650°C to 950°C at a second heating rate that is less than the first heating rate, wherein the second heating rate is from 10°C/hr to 50°C/hr; c) heating the green honeycomb ceramic body from the second temperature to a hold temperature that is greater than the second temperature at a third heating rate that is less than or equal to the first heating rate; and d) holding the green honeycomb ceramic body at the hold temperature to remove residual carbon, wherein the green honeycomb ceramic body has a diameter of from 22.86 cm (9 inches) to 38.1 cm (15 inches), and an aspect ratio of from 0.50 to 2.00. a) heating the green honeycomb ceramic body from room temperature to a first temperature that is from 250°C to 650°C at a first heating rate that is from 75°C/hr to 125°C/hr; b) heating the green honeycomb ceramic body from the first temperature to a second temperature that is from 650°C to 950°C at a second heating rate that is less than the first heating rate, wherein the second heating rate is from 10°C/hr to 50°C/hr; c) heating the green honeycomb ceramic body from the second temperature to a hold temperature that is greater than the second temperature at a third heating rate that is less than or equal to the first heating rate; and d) holding the green honeycomb ceramic body at the hold temperature to remove residual carbon, wherein the green honeycomb ceramic body has a diameter of from 22.86 cm (9 inches) to 38.1 cm (15 inches), and an aspect ratio of from 0.50 to 2.00.
A collapsible medical device comprising a cylindrical central segment and distal and proximal end segments (202, 204), each of said segments (214; 202, 204) having a plurality of braided metal strands exhibiting an expanded, preset configuration where the distal and proximal end segments (202, 204) comprise disk members having diameters ("B") greater than that of the central segment ("C"), the disk members being integrally attached to opposed ends of the central segment, one or two disk members being attached by connecting segments of a diameter ("E") less than that of the central segment ("C"), whereby the disk member and central segment can articulate about the connecting segment, the central segment surrounding an inner cylindrical layer of braided metal strands.
A combustor liner panel attachment assembly comprising: a liner structure formed of multiple liner panels extending from a first end to a second end, and circumferentially to partially define a combustion zone; a stationary structure; and a spring element located adjacent to a portion of the liner structure and operatively coupled to the stationary structure, the spring element having a recessed segment; wherein the liner structure includes a protrusion feature extending radially outwardly from the liner structure, the protrusion feature disposed within the recessed segment of the spring element to axially retain the liner structure; and characterised in that: a metal fastener extends through a portion of the liner structure and through a portion of the spring element to secure the liner structure and the spring element together with a metal nut. a liner structure formed of multiple liner panels extending from a first end to a second end, and circumferentially to partially define a combustion zone; a stationary structure; and a spring element located adjacent to a portion of the liner structure and operatively coupled to the stationary structure, the spring element having a recessed segment; wherein the liner structure includes a protrusion feature extending radially outwardly from the liner structure, the protrusion feature disposed within the recessed segment of the spring element to axially retain the liner structure; and characterised in that: a metal fastener extends through a portion of the liner structure and through a portion of the spring element to secure the liner structure and the spring element together with a metal nut.
A pre-stretcher (100; 200; 300; 400; 500) for a thermoforming device and configured for pre-stretching a polymeric material by moving along a first direction relative to the polymeric material, the pre-stretcher comprising: a body having a central axis parallel to the first direction, wherein the body is divided into an inner body part and an outer body part based on a position of those parts relative to the central axis; wherein the inner body part is made at least partially from a first material or material composition having a first coefficient of thermal conductivity and a first coefficient of friction relative to the polymeric material; wherein the outer body part is made at least partially from a second material or material composition having a second coefficient of thermal conductivity and a second coefficient of friction relative to the polymeric material being different from the first coefficient of thermal conductivity and/or the first coefficient of friction, respectively; characterized in that the first material and second material are syntactic foam, wherein the syntactic foam is composed of hollow microspheres and a binding agent for binding the hollow microspheres; wherein the first and second material have a different coefficient of thermal conductivity and/or friction due to the amount of microspheres, the size and/or thickness of the microspheres, and/or the type of binding agent used in the first and second material being different. a body having a central axis parallel to the first direction, wherein the body is divided into an inner body part and an outer body part based on a position of those parts relative to the central axis; wherein the inner body part is made at least partially from a first material or material composition having a first coefficient of thermal conductivity and a first coefficient of friction relative to the polymeric material; wherein the outer body part is made at least partially from a second material or material composition having a second coefficient of thermal conductivity and a second coefficient of friction relative to the polymeric material being different from the first coefficient of thermal conductivity and/or the first coefficient of friction, respectively; characterized in that the first material and second material are syntactic foam, wherein the syntactic foam is composed of hollow microspheres and a binding agent for binding the hollow microspheres; wherein the first and second material have a different coefficient of thermal conductivity and/or friction due to the amount of microspheres, the size and/or thickness of the microspheres, and/or the type of binding agent used in the first and second material being different.
Magnetic field generator (10; 100; 110; 120) comprising at least one assembly of anisotropic permanent magnets (30; 31) arranged to create a magnetic flux and defining an air gap inside which the said magnetic flux is concentrated, - the said assembly of magnets comprising a first element and a second element mounted facing one another, symmetrically with respect to an axis (A-A) perpendicular to the transverse axis (B-B) of the said air gap, - each of the said first and second elements comprising at least three permanent magnets (30; 31), and - the said first and the said second element of the said assembly of magnets being arranged substantially in one and the same plane, and at least partially respectively surrounded by magnetic field closure members (51, 52), the said permanent magnets of the said first and second elements of the said assembly of magnets being for the most part made up of blocks in the form of rectangular parallelepipeds, in that they are arranged substantially over two opposite circular arcs in three regions, a central region arranged facing the said air gap, a first lateral region arranged on one side of the said central region, and a second lateral region arranged on the other side of the said central region, the said permanent magnets of the said first and second lateral regions having an opposite magnetization direction with respect to the said axis (A-A) perpendicular to the transverse axis (B-B) of the said air gap, and in that at least two pieces of ferromagnetic material and, constituting a magnetic flux concentrator, are arranged, on either side of the said air gap, respectively between the permanent magnets of the said first lateral regions of the first and the second element of the assembly of magnets, which are arranged on one side of the said central region, and between the permanent magnets of the said second lateral regions of the first and the second element of the assembly of magnets, which are arranged on the other side of the said central region. - the said assembly of magnets comprising a first element and a second element mounted facing one another, symmetrically with respect to an axis (A-A) perpendicular to the transverse axis (B-B) of the said air gap, - each of the said first and second elements comprising at least three permanent magnets (30; 31), and - the said first and the said second element of the said assembly of magnets being arranged substantially in one and the same plane, and at least partially respectively surrounded by magnetic field closure members (51, 52),
An article for use as an abrasive, comprising: a backing; a frontfill disposed on the backing; a make coat disposed over the frontfill; abrasive grains disposed on or within the make coat; a size coat disposed on the abrasive grains and make coat, wherein at least one of the frontill, the make coat and the size coat comprises a polymeric formulation, characterized in that fibrillated fibers are dispersed in at least one of the frontfill, make coat, size coat, or combinations thereof, and in that the abrasive grains disposed on the make coat have a rake angle of greater than 45 degrees from the average mean plane. a backing; a frontfill disposed on the backing; a make coat disposed over the frontfill; abrasive grains disposed on or within the make coat; a size coat disposed on the abrasive grains and make coat, wherein at least one of the frontill, the make coat and the size coat comprises a polymeric formulation, characterized in that fibrillated fibers are dispersed in at least one of the frontfill, make coat, size coat, or combinations thereof, and in that the abrasive grains disposed on the make coat have a rake angle of greater than 45 degrees from the average mean plane.
A permutation group-based channel rendezvous method for a multi-antenna cognitive radio network, wherein different users which need rendezvous in the network at least have one common available channel, and the rendezvous process comprises: Channel numbers are mapped as elements in permutation groups, and channel hopping sequences of different antennas within one period are mapped as sequences of different elements in finite groups; under the condition that the number of channels in the cognitive radio network is even, the elements in the permutation groups are vertexes of a regular polyhedron and the channel hopping sequences of different antennas are constructed through permutation groups obtained by rotating the regular polyhedron by different angles according to different types and different directions of axes of symmetry; under the condition that the number of the channels in the cognitive radio network is odd, the elements in the permutation groups are vertexes of a regular polygon and the channel hopping sequences of different antennas are constructed through permutation groups obtained by rotating the regular polygon by different angles according to different types of axes of symmetry and successively sustained left/right cyclical rotation; through limited time slots, the common available channel appears in the same time slot of the different users to achieve channel rendezvous. Channel numbers are mapped as elements in permutation groups, and channel hopping sequences of different antennas within one period are mapped as sequences of different elements in finite groups; under the condition that the number of channels in the cognitive radio network is even, the elements in the permutation groups are vertexes of a regular polyhedron and the channel hopping sequences of different antennas are constructed through permutation groups obtained by rotating the regular polyhedron by different angles according to different types and different directions of axes of symmetry; under the condition that the number of the channels in the cognitive radio network is odd, the elements in the permutation groups are vertexes of a regular polygon and the channel hopping sequences of different antennas are constructed through permutation groups obtained by rotating the regular polygon by different angles according to different types of axes of symmetry and successively sustained left/right cyclical rotation; through limited time slots, the common available channel appears in the same time slot of the different users to achieve channel rendezvous.
A Network structure comprising a plurality of Passive Optical Networks, PONs, constituting at least a part of a backhaul network for supporting a Radio Access Network, in which a number of radio base stations (RBSs) are connected to optical networks units, ONUs, of said network structure, wherein the ONUs of said network structure are grouped between different PONs of said network structure, wherein ONUs of a different PON are interconnected passively through a remote node of the network structure in order to separate inter base station traffic of X2 interfaces from uplink and downlink data traffic of S1 interface heading from/to a core network via an optical line terminal, OLT, the network structure is characterized in that the remote node comprises a power splitter having one uplink side and one downlink side, wherein ports of the downlink side are connected to ONUs of the RBSs and ports of the uplink side are at least connected to the OLT of their own PON and an isolator for enabling broadcasting of said uplink inter base station traffic from one or more ONUs of the network structure, the isolator connecting ports on the uplink side of the power splitter and wherein the power splitter of the PON is physically connected to a power splitter of at least one other PON via fibre for enabling broadcasting of said uplink inter base station traffic between one or more ONUs of said PON and at least one other PON of the PONs structure.