mhurhangee/ep-ind-claims huggingface dataset:
A device-to-device, D2D, bearer establishment method, comprising: receiving a D2D mode indication requested by an application function entity or a proximity service server for a source user equipment, wherein the D2D mode indication comprises a first D2D connection establishment mode or a second D2D connection establishment mode; and according to the D2D mode indication, when a D2D connection can be established successfully, establishing the D2D connection for the source user equipment; and according to the D2D mode indication, when the D2D connection cannot be established successfully, establishing a common connection for the source user equipment if the D2D mode indication is the first D2D connection establishment mode, characterised by feeding back a connection establishment failure response to the application function entity or the proximity service server if the D2D mode indication is the second D2D connection establishment mode. receiving a D2D mode indication requested by an application function entity or a proximity service server for a source user equipment, wherein the D2D mode indication comprises a first D2D connection establishment mode or a second D2D connection establishment mode; and according to the D2D mode indication, when a D2D connection can be established successfully, establishing the D2D connection for the source user equipment; and according to the D2D mode indication, when the D2D connection cannot be established successfully, establishing a common connection for the source user equipment if the D2D mode indication is the first D2D connection establishment mode, characterised by feeding back a connection establishment failure response to the application function entity or the proximity service server if the D2D mode indication is the second D2D connection establishment mode.
A method of protecting diverse applications (a1...an) stored on an integrated circuit, comprising: issuing, for each application (a1...an), a different challenge (c1...cn) to a PUF device in order to derive a unique PUF response (p1...pn) for each application (a1...an); generating, for each application (a1...an), different helper data (h1...hn) using the corresponding PUF response (p1...pn) and a respective application key (k1...kn) and; scrambling the values of the binary codes corresponding to the integrated circuit's instruction set by using the corresponding helper data (h1...hn) for each application (a1...an); encrypting each application (a1...an) with the respective application key (k1...kn) subsequent to scrambling; or reconstructing, for the respective application (a1...an), the respective application key (k1...kn) based on the corresponding PUF response (p1...pn) and the corresponding helper data (h1...hn); decrypting the respective application (a1...an) with the corresponding application key (k1...kn); performing a check-sum verification subsequent to decrypting the respective application (a1...an) and; during execution of the respective application (a1...an), wherein said helper data (h1...hn) are used to provide a modified compiler tool-chain comprising an instruction set with said scrambled binary codes which represent the available instructions, loading the helper data (h1...hn) in the compiler tool-chain in order to generate a correct unique instruction set in order to de-scramble the instruction set used for compiling the application (a1...an). issuing, for each application (a1...an), a different challenge (c1...cn) to a PUF device in order to derive a unique PUF response (p1...pn) for each application (a1...an); generating, for each application (a1...an), different helper data (h1...hn) using the corresponding PUF response (p1...pn) and a respective application key (k1...kn) and; scrambling the values of the binary codes corresponding to the integrated circuit's instruction set by using the corresponding helper data (h1...hn) for each application (a1...an); encrypting each application (a1...an) with the respective application key (k1...kn) subsequent to scrambling; or reconstructing, for the respective application (a1...an), the respective application key (k1...kn) based on the corresponding PUF response (p1...pn) and the corresponding helper data (h1...hn); decrypting the respective application (a1...an) with the corresponding application key (k1...kn); performing a check-sum verification subsequent to decrypting the respective application (a1...an) and; during execution of the respective application (a1...an), wherein said helper data (h1...hn) are used to provide a modified compiler tool-chain comprising an instruction set with said scrambled binary codes which represent the available instructions, loading the helper data (h1...hn) in the compiler tool-chain in order to generate a correct unique instruction set in order to de-scramble the instruction set used for compiling the application (a1...an).
A pipette, which comprises a cylinder and, as an extension thereof, a tip part through which an air channel leads to the cylinder and on the outer end on its outer surface of which a tube-like tip container can be attached with friction joint, characterized in that the tip part comprises a structure, which at least on the attachment area of the tip container has a surface layer and inside thereof a body part more flexible than the surface layer so that the structure yields when the tip container is attached.
A method of fabricating a thermoelectric device, the method comprising: disposing a metal layer (312; 412) on a dielectric layer (310; 410) to form a sub-assembly; forming patterned circuits on the metal layer (312; 412); forming blind vias in the dielectric layer (310; 410); fabricating first thermoelectric elements in a first series of blind vias; and fabricating second thermoelectric elements in a second series of blind vias to form thermoelectric units with the first thermoelectric elements and the patterned circuits, wherein the sub-assembly is configured to be joined to an adjacent sub-assembly along a first direction, characterised in that fabricating the first and second thermoelectric elements (332, 334) comprises aligning the first and second thermoelectric elements (332, 334) of each thermoelectric unit in a second direction substantially perpendicular to the first direction. disposing a metal layer (312; 412) on a dielectric layer (310; 410) to form a sub-assembly; forming patterned circuits on the metal layer (312; 412); forming blind vias in the dielectric layer (310; 410); fabricating first thermoelectric elements in a first series of blind vias; and fabricating second thermoelectric elements in a second series of blind vias to form thermoelectric units with the first thermoelectric elements and the patterned circuits,
A Diels-Alder adduct of a trans -cyclooctene with a tetrazine, wherein the adduct bears a substituent labeled with a radionuclide and wherein the substituent is a substituent on the trans -cyclooctene residue of the Diels-Alder adduct.
A polycrystalline ultrahard abrasive material comprising ultrahard abrasive particles in a matrix material, the ultrahard abrasive particles being selected from the group comprising diamond, cubic boron nitride, silicon carbide, silicon nitride, boron carbide and boron suboxide (B 6 O), or combinations thereof; and the matrix having an average matrix or binder thickness of less than 0.5 μm preferably between 0.1 and 0.5μm and a standard deviation of 0.5 μm or less, preferably between 0.1 μm and 0.5μm, more preferably between 0.1μm and 0.45μm, and characterised by a continuous titanium nitride and tantalum nitride matrix.
A Stirling cycle engine, comprising: an expansion volume structure defining an expansion volume (Ve); a compression volume structure defining a compression volume (Vc); a gas spring coupling volume structure defining a gas spring coupling volume; a first reciprocating assembly comprising an expansion piston (Pe) configured to reciprocate within the expansion volume (Ve) and an expander gas spring piston rigidly connected to the expansion piston (Pe) and configured to reciprocate within the gas spring coupling volume; and a second reciprocating assembly comprising a compression piston (Pc) configured to reciprocate within the compression volume (Pc) and a compressor gas spring piston rigidly connected to the compression piston (Pc) and configured to reciprocate within the gas spring coupling volume, wherein: the gas spring coupling volume structure and the first and second reciprocating assemblies are configured such that power is transferred in use from the expansion piston (Pe) to the compression piston (Pc) via the gas spring coupling volume, characterized in that: the first and second reciprocating assemblies are configured such that, in use, movement of the expander gas spring piston is parallel to, but not coaxial with, movement of the compressor gas spring piston. an expansion volume structure defining an expansion volume (Ve); a compression volume structure defining a compression volume (Vc); a gas spring coupling volume structure defining a gas spring coupling volume; a first reciprocating assembly comprising an expansion piston (Pe) configured to reciprocate within the expansion volume (Ve) and an expander gas spring piston rigidly connected to the expansion piston (Pe) and configured to reciprocate within the gas spring coupling volume; and a second reciprocating assembly comprising a compression piston (Pc) configured to reciprocate within the compression volume (Pc) and a compressor gas spring piston rigidly connected to the compression piston (Pc) and configured to reciprocate within the gas spring coupling volume, wherein: the gas spring coupling volume structure and the first and second reciprocating assemblies are configured such that power is transferred in use from the expansion piston (Pe) to the compression piston (Pc) via the gas spring coupling volume, characterized in that: the first and second reciprocating assemblies are configured such that, in use, movement of the expander gas spring piston is parallel to, but not coaxial with, movement of the compressor gas spring piston. the gas spring coupling volume structure and the first and second reciprocating assemblies are configured such that power is transferred in use from the expansion piston (Pe) to the compression piston (Pc) via the gas spring coupling volume, characterized in that: the first and second reciprocating assemblies are configured such that, in use, movement of the expander gas spring piston is parallel to, but not coaxial with, movement of the compressor gas spring piston.
A welding system, comprising: - a welding power supply configured to provide welding power; - a weld cable coupled to the power supply and configured to transmit the welding power; - a welding torch coupled to the weld cable and configured to apply the welding power to produce a welding arc; and - a magnetic field sensor disposed on the weld cable, characterized in that the magnetic field sensor is disposed proximate to the welding torch and configured to detect a signal representative of a current in the weld cable proximate to the welding torch, wherein the welding power supply comprises control circuitry configured to adjust the welding power based at least in part on a signal received from the magnetic field sensor. - a welding power supply configured to provide welding power; - a weld cable coupled to the power supply and configured to transmit the welding power; - a welding torch coupled to the weld cable and configured to apply the welding power to produce a welding arc; and - a magnetic field sensor disposed on the weld cable, characterized in that the magnetic field sensor is disposed proximate to the welding torch and configured to detect a signal representative of a current in the weld cable proximate to the welding torch, wherein the welding power supply comprises control circuitry configured to adjust the welding power based at least in part on a signal received from the magnetic field sensor.
Height-adjustable room divider, comprising a planar wall element, comprising a holding device for holding the wall element, comprising a first articulation, which is provided between the holding device and the wall element and by means of which the wall element is pivotable between at least one first position and at least one second position, the wall element comprising a frame and a material fabric which is tensioned between the frame, characterised in that the frame comprises further articulations which are arranged and formed in such a way that the frame is reversibly plastically shapable.
A surgical closure device, comprising: a housing comprising a longitudinal axis, a first end, a second end opposite the first end, a slot at the second end of the housing, and a receiving portion at the second end of the housing and spaced apart from the slot; and a grasping member comprising a proximal end, a distal end opposite the proximal end, and a tine at the distal end of the grasping member, the grasping member passing through the slot in the housing and configured for movement relative to the housing such that the tine can engage the receiving portion of the housing, wherein the grasping member further comprises a main body portion that passes through the slot in the housing, wherein the main body portion of the grasping member includes a first side edge and a second side edge opposite the first side edge; and wherein the tine of the grasping member is located on an end portion of the grasping member, the end portion protruding outwardly from the main body portion of the grasping member, and the end portion of the grasping member including a base that is spaced a fixed distance apart from the tine, characterised by each of the first and second side edges having a plurality of protrusions (121, 123) extending outwardly therefrom, wherein the protrusions (121, 123) engage the housing to retain the tine of the grasping member in a fixed relationship relative to the receiving portion of the housing; and the receiving portion of the housing and the tine of the grasping member being complementarily shaped. a housing comprising a longitudinal axis, a first end, a second end opposite the first end, a slot at the second end of the housing, and a receiving portion at the second end of the housing and spaced apart from the slot; and a grasping member comprising a proximal end, a distal end opposite the proximal end, and a tine at the distal end of the grasping member, the grasping member passing through the slot in the housing and configured for movement relative to the housing such that the tine can engage the receiving portion of the housing, wherein the grasping member further comprises a main body portion that passes through the slot in the housing, wherein the main body portion of the grasping member includes a first side edge and a second side edge opposite the first side edge; and wherein the tine of the grasping member is located on an end portion of the grasping member, the end portion protruding outwardly from the main body portion of the grasping member, and the end portion of the grasping member including a base that is spaced a fixed distance apart from the tine, characterised by each of the first and second side edges having a plurality of protrusions (121, 123) extending outwardly therefrom, wherein the protrusions (121, 123) engage the housing to retain the tine of the grasping member in a fixed relationship relative to the receiving portion of the housing; and the receiving portion of the housing and the tine of the grasping member being complementarily shaped.
A hub for a wind turbine, comprising a continuous shell forming a hollow body with a main shaft flange adapted to connect the hub to a main shaft, the hollow body being assembled from at least two hub parts (2, 3) connected to each other via one or more connection portions, each hub part being casted from a castable material; one or more blade flanges, each blade flange being adapted to connect the hub to a wind turbine blade, at least one blade flange and/or the main shaft flange comprising a section forming part of one of the hub parts and a section forming part of another hub part; and at least one blade flange reinforcement element (14, 15) arranged at the one or more blade flange, wherein the blade flange reinforcement element comprises a circular plate element. a continuous shell forming a hollow body with a main shaft flange adapted to connect the hub to a main shaft, the hollow body being assembled from at least two hub parts (2, 3) connected to each other via one or more connection portions, each hub part being casted from a castable material; one or more blade flanges, each blade flange being adapted to connect the hub to a wind turbine blade, at least one blade flange and/or the main shaft flange comprising a section forming part of one of the hub parts and a section forming part of another hub part; and at least one blade flange reinforcement element (14, 15) arranged at the one or more blade flange, wherein the blade flange reinforcement element comprises a circular plate element.
A method, comprising: receiving (102, 402), by a virtual gateway, a message destined for a target virtual machine of a plurality of virtual machines; characterised in that the method further comprises the virtual gateway: identifying (104, 404) a community-of-interest (214, 216, 222, 224) corresponding to the target virtual machine; encrypting (106, 406) the message with a key assigned to the identified community-of- interest (214, 216, 222, 224); and transmitting the encrypted message to the target virtual machine. receiving (102, 402), by a virtual gateway, a message destined for a target virtual machine of a plurality of virtual machines; characterised in that the method further comprises the virtual gateway: identifying (104, 404) a community-of-interest (214, 216, 222, 224) corresponding to the target virtual machine; encrypting (106, 406) the message with a key assigned to the identified community-of- interest (214, 216, 222, 224); and transmitting the encrypted message to the target virtual machine. identifying (104, 404) a community-of-interest (214, 216, 222, 224) corresponding to the target virtual machine; encrypting (106, 406) the message with a key assigned to the identified community-of- interest (214, 216, 222, 224); and transmitting the encrypted message to the target virtual machine.
A computer-implemented method comprising: importing, by a computing system, character rig data and character animation data associated with a virtual character, wherein the character animation data includes a set of vertex offset data detailing offsets for each vertex in a character model for every frame of an animation for simulating a complex character rig deformation in real-time based on a deformation of a simplified rig; determining, by the computing system, a first animation to be applied to the virtual character based on the character rig data and the character animation data; determining, by the computing system, a nonverbal communication animation to be applied to the virtual character simultaneously with the first animation, wherein the nonverbal communication animation is determined based on a user input; slicing, by the computing system, the set of vertex offset data into a plurality of chunks of frames to be asynchronously streamed to a graphical processing unit, wherein each chunk of the plurality of chunks of frames is scheduled to queue and stream as needed by the graphical processing unit; and animating, by the computing system, the virtual character in real-time based on the first animation, the nonverbal communication animation, and the chunks. importing, by a computing system, character rig data and character animation data associated with a virtual character, wherein the character animation data includes a set of vertex offset data detailing offsets for each vertex in a character model for every frame of an animation for simulating a complex character rig deformation in real-time based on a deformation of a simplified rig; determining, by the computing system, a first animation to be applied to the virtual character based on the character rig data and the character animation data; determining, by the computing system, a nonverbal communication animation to be applied to the virtual character simultaneously with the first animation, wherein the nonverbal communication animation is determined based on a user input; slicing, by the computing system, the set of vertex offset data into a plurality of chunks of frames to be asynchronously streamed to a graphical processing unit, wherein each chunk of the plurality of chunks of frames is scheduled to queue and stream as needed by the graphical processing unit; and animating, by the computing system, the virtual character in real-time based on the first animation, the nonverbal communication animation, and the chunks.
A method for configuring special subframes in a wireless communication system, comprising: identifying a time period for an extended clear channel assessment "ECCA" operation; and determining a guard period portion included in a special subframe of a frame structure based on the identified time period. identifying a time period for an extended clear channel assessment "ECCA" operation; and determining a guard period portion included in a special subframe of a frame structure based on the identified time period.
A ceramic matrix composite hanger assembly, comprising: a CMC hanger sleeve having a first CMC hanger sleeve leg (72, 172) and a second CMC hanger sleeve leg (74, 174), said first and second CMC hanger sleeve legs spaced apart at a radial inward end; a CMC flowpath panel (80, 180) disposed between said first and second CMC hanger sleeve legs at said radial inward end; a spacing between a radial outer end of said first and second CMC hanger sleeve legs; and, a cooling air flowpath (68, 168) passing through said CMC hanger sleeve and cooling said flowpath panel, characterized in that the CMC flowpath panel (80, 180) is manufactured as a separate part and comprises shoulders (82, 182, 84, 184); and wherein said first leg (72, 172) and said second leg (74, 174) has a surface for engaging the shoulder (82, 182, 84, 184) of said flowpath panel (80,180). a CMC hanger sleeve having a first CMC hanger sleeve leg (72, 172) and a second CMC hanger sleeve leg (74, 174), said first and second CMC hanger sleeve legs spaced apart at a radial inward end; a CMC flowpath panel (80, 180) disposed between said first and second CMC hanger sleeve legs at said radial inward end; a spacing between a radial outer end of said first and second CMC hanger sleeve legs; and, a cooling air flowpath (68, 168) passing through said CMC hanger sleeve and cooling said flowpath panel, characterized in that the CMC flowpath panel (80, 180) is manufactured as a separate part and comprises shoulders (82, 182, 84, 184); and wherein said first leg (72, 172) and said second leg (74, 174) has a surface for engaging the shoulder (82, 182, 84, 184) of said flowpath panel (80,180).
A multispectral filtering matrix for an electromagnetic wave, the matrix including at least a first (E 1) and a second (E 2) optoelectronic element, each optoelectronic element (E i) comprising a colour filter (F i) and a photoelectric transducer (T i) facing said filter (F i), each colour filter (F i) forming a Fabry-Perot cavity including a first reflective layer (C r1i), a second reflective layer (Cr 2i) and a Fabry-Perot cavity layer of dielectric material (C FPi) between the first reflective layer (Cr 1i) and the second reflective layer (C r2i), the layer of dielectric material (C FPi) including: - a lower surface (S inf_i), in contact with the first reflective layer (Cr1i); the lower surface (S inf_i) being curved; - an upper surface (S sup_i) in contact with the second reflective layer (C r1i), the upper surface (S sup_i) being curved; the thicknesses of the two layers of dielectric material of the two colour filters being different. - a lower surface (S inf_i), in contact with the first reflective layer (Cr1i); the lower surface (S inf_i) being curved; - an upper surface (S sup_i) in contact with the second reflective layer (C r1i), the upper surface (S sup_i) being curved;