mhurhangee/ep-ind-claims huggingface dataset:
Layer construction apparatus for the additive manufacturing of at least one component region of a component using an additive layer construction method, the apparatus comprising: - at least one coater for applying at least one powder layer of a material to a build-up and joining region; - at least one radiation source for generating at least one energy beam for layer-wise and local melting and/or sintering of the material to form a component layer by selective irradiation of the material with the at least one energy beam in accordance with a predetermined exposure strategy; and - a flow device by means of which a fluid flow can be generated over the powder layer, which for this purpose has a nozzle-like outlet opening and an inlet opening, arranged opposite the outlet opening, for the fluid, between which openings the fluid flow is generated characterized by at least one flow guide device, which comprises at least one guide element (28a, 28b) for guiding the fluid flow over at least one region of the powder layer, at least the at least one guide element (28a, 28b) of the flow guide device being arranged within a process chamber of the layer construction apparatus, the at least one guide element (28a, 28b) being designed in the manner of a wall or plate, the at least one guide element (28a, 28b) being aligned perpendicularly to the powder layer and the guide surface of the at least one guide element (28a, 28b) being arranged parallel to the fluid flow and the flow guide device comprising a drive device which can be controlled in an open-loop and/or closed-loop manner and by means of which the at least one guide element (28a, 28b) is moved relative to the powder layer when it is in the traversing path of the coater during application of a new layer of powder. - at least one coater for applying at least one powder layer of a material to a build-up and joining region; - at least one radiation source for generating at least one energy beam for layer-wise and local melting and/or sintering of the material to form a component layer by selective irradiation of the material with the at least one energy beam in accordance with a predetermined exposure strategy; and - a flow device by means of which a fluid flow can be generated over the powder layer, which for this purpose has a nozzle-like outlet opening and an inlet opening, arranged opposite the outlet opening, for the fluid, between which openings the fluid flow is generated
Method for generating (100, 300) a multicarrier signal representing data symbols, said multicarrier signal being a linear combination of subcarriers, said method comprising modulation of base signals with said data symbols, wherein each one of said base signals is a weighted sum of said subcarriers, whereby each one of said subcarriers is weighted by an element of a weighting vector, characterized in that the multiplication of a constraint matrix and the weighting vector results in an all-zero vector, wherein said constraint matrix represents constraints limiting a magnitude of said multicarrier signal's Fourier transform at frequencies outside a designated bandwidth, wherein said modulation of base signals is performed by modulation of said subcarriers with precoded symbols, wherein said precoded symbols are a result of a linear precoding of said data symbols, wherein said linear precoding is performed by multiplying a precoding matrix G with a data symbol vector including the data symbols.
An arrangement for generating electromagnetic radiation, wherein the arrangement comprises inorganic semiconductor material and organic material, wherein - a semiconductor cylinder (30, 40) composed of inorganic semiconductor material and - a charge carrier injection zone situated in the semiconductor cylinder, wherein - the charge carrier injection zone adjoins the lateral surface of the semiconductor cylinder, - the organic material is suitable for emitting electromagnetic radiation in the case of a charge carrier recombination, and - the organic material bears indirectly or directly on that section of the lateral surface of the semiconductor cylinder which is adjoined by the charge carrier injection zone and electron-hole pairs from the charge carrier injection zone of the semiconductor cylinder can enter into the organic material, preferably by non-radiative energy transfer, and excite there the emission of electromagnetic radiation by recombination, characterized in that - the charge carrier injection zone is formed by a cylinder layer arranged transversely with respect to the cylinder longitudinal axis of the semiconductor cylinder, and - the organic material forms an optically active ring bearing radially on the outside of said cylinder layer of the semiconductor cylinder. - a semiconductor cylinder (30, 40) composed of inorganic semiconductor material and - a charge carrier injection zone situated in the semiconductor cylinder, wherein - the charge carrier injection zone adjoins the lateral surface of the semiconductor cylinder, - the organic material is suitable for emitting electromagnetic radiation in the case of a charge carrier recombination, and - the organic material bears indirectly or directly on that section of the lateral surface of the semiconductor cylinder which is adjoined by the charge carrier injection zone and electron-hole pairs from the charge carrier injection zone of the semiconductor cylinder can enter into the organic material, preferably by non-radiative energy transfer, and excite there the emission of electromagnetic radiation by recombination, - the charge carrier injection zone adjoins the lateral surface of the semiconductor cylinder, - the organic material is suitable for emitting electromagnetic radiation in the case of a charge carrier recombination, and - the organic material bears indirectly or directly on that section of the lateral surface of the semiconductor cylinder which is adjoined by the charge carrier injection zone and electron-hole pairs from the charge carrier injection zone of the semiconductor cylinder can enter into the organic material, preferably by non-radiative energy transfer, and excite there the emission of electromagnetic radiation by recombination, - the charge carrier injection zone is formed by a cylinder layer arranged transversely with respect to the cylinder longitudinal axis of the semiconductor cylinder, and - the organic material forms an optically active ring bearing radially on the outside of said cylinder layer of the semiconductor cylinder.
A printed circuit board structure, comprising: a substrate; a silicone layer; a first modified silicone layer disposed between the substrate and the silicone layer; a metal layer; characterized by having a second modified silicone layer disposed between the metal layer and the silicone layer; wherein the first modified silicone layer and the second modified silicone layer are obtainable by performing the polymerization slowly for curing on the substrate and the metal layer respectively with the other side free so that the produced gas can be exhausted and the silicone layer is obtainable by thermal polymerization for curing while disposed between the modified silicone layers through which the produced gas can be exhausted. a substrate; a silicone layer; a first modified silicone layer disposed between the substrate and the silicone layer; a metal layer; characterized by having a second modified silicone layer disposed between the metal layer and the silicone layer; wherein the first modified silicone layer and the second modified silicone layer are obtainable by performing the polymerization slowly for curing on the substrate and the metal layer respectively with the other side free so that the produced gas can be exhausted and the silicone layer is obtainable by thermal polymerization for curing while disposed between the modified silicone layers through which the produced gas can be exhausted.
A user equipment, UE,, comprising: a receiver configured to receive information used for configuring locations for time-frequency resources in a downlink; and a processor configured to perform decoding of a physical downlink shared channel, wherein, the receiver is configured to receive a signal indicating that transmission to the UE in one or more of the locations for the time-frequency resources is pre-empted with an ultra-reliable low latency communication, URLLC, transmission, the signal being a signal with a radio network temporary identifier, RNTI, defined for the URLLC transmission, the transmission to the UE being an enhanced mobile broadband, eMBB, transmission or a massive machine type communication, MMTC, transmission. a receiver configured to receive information used for configuring locations for time-frequency resources in a downlink; and a processor configured to perform decoding of a physical downlink shared channel, wherein, the receiver is configured to receive a signal indicating that transmission to the UE in one or more of the locations for the time-frequency resources is pre-empted with an ultra-reliable low latency communication, URLLC, transmission, the signal being a signal with a radio network temporary identifier, RNTI, defined for the URLLC transmission, the transmission to the UE being an enhanced mobile broadband, eMBB, transmission or a massive machine type communication, MMTC, transmission.
Process to inert non-swelling clays in at least one mineral component selected from sand and/or a mineral addition intended for the preparation of a hydraulic composition, comprising adding to the hydraulic composition, to the mineral component or to another constituent of the hydraulic composition 2 to 20% by mass, relative to the mass of swelling clays and dry non-swelling clays in the sand and/or mineral addition, of an inerting mixture comprising an organic molecule having a cationic charge density which is strictly lower than 0.5 meq/g and comprising at least two atoms each being capable of forming at least one hydrogen bond.
A process for wireless communication including a communication link between a mobile device and a base station of a compact cell, said process comprising: identification of said base station by said mobile device; and establishment of said communication link, wherein said identification comprises transmission by said base station of a patterned identification signal that is characterized by at least two different time phase shifts (6, 8) relative to at least one benchmark time (7, 9) such that the combination of said different phase shifts is employed to make said identification. identification of said base station by said mobile device; and establishment of said communication link, wherein said identification comprises transmission by said base station of a patterned identification signal that is characterized by at least two different time phase shifts (6, 8) relative to at least one benchmark time (7, 9) such that the combination of said different phase shifts is employed to make said identification.
A method, performed in an electronic device, for establishing a wireless connection to a cellular network, the electronic device being configured to support a wireless connection to a plurality of cellular networks, said method comprising: obtaining a current position of the electronic device, determining, as a function of the current position, a set of available cellular networks, said set being a subset of the plurality of cellular networks that are supported by the electronic device, wherein said determining comprises comparing the current position to one or more geofences (GF I, GF II) associated with a respective set of available cellular networks, and scanning the set of available cellular networks, characterized by transmitting the current position to a server over the wireless connection, and receiving geofence data for the current position from the server over the wireless connection, said geofence data comprising the one or more current geofences (GF I, GF II) and the respective associated set of available cellular networks. obtaining a current position of the electronic device, determining, as a function of the current position, a set of available cellular networks, said set being a subset of the plurality of cellular networks that are supported by the electronic device, wherein said determining comprises comparing the current position to one or more geofences (GF I, GF II) associated with a respective set of available cellular networks, and scanning the set of available cellular networks, characterized by transmitting the current position to a server over the wireless connection, and receiving geofence data for the current position from the server over the wireless connection, said geofence data comprising the one or more current geofences (GF I, GF II) and the respective associated set of available cellular networks.
A compound of formula, or a pharmaceutically acceptable salt or stereoisomer thereof, wherein the ALK targeting ligand has a structure represented by formula (TL-1b) wherein R 9 = H or Me; wherein the linker is an alkylene chain or polyethylene glycol chain, either of which may be interrupted by, and/or terminate (at either or both termini) in at least one of - O-, -S-, -N(R')-, -C≡C-, -C -, -C O-, -OC -, -OC O-, -C(NOR')-, -C N(R')-, -C N(R')C -, -C N(R')C N(R')-, -N(R')C -, -N(R')C N(R')-, -N(R')C O-, -OC N(R')-, -C(NR')-, -N(R')C(NR')-, -C(NR')N(R')-, -N(R')C(NR')N(R')-, -OB(Me)O-, -S 2 -, -OS -, -S O-, -S -, -OS 2 -, -S 2 O-, -N(R')S 2 -, -S 2 N(R')-, -N(R')S -, -S N(R')-, -N(R')S 2 N(R')-, -N(R')S N(R')-, C 3 -C 12 carbocyclene, 3- to 12-membered heterocyclene, 5- to 12-membered heteroarylene or any combination thereof, wherein R' is H or C 1 -C 6 alkyl, wherein the interrupting and the one or both terminating groups may be the same or different; and wherein the degron has a structure represented by any one of formulas D1a-q: and wherein X is alkyl, halo, CN, CF 3, OCHF 2 or OCF 3 or the compound which is or a pharmaceutically acceptable salt or stereoisomer thereof. wherein the ALK targeting ligand has a structure represented by formula (TL-1b) wherein R 9 = H or Me; wherein the linker is an alkylene chain or polyethylene glycol chain, either of which may be interrupted by, and/or terminate (at either or both termini) in at least one of - O-, -S-, -N(R')-, -C≡C-, -C -, -C O-, -OC -, -OC O-, -C(NOR')-, -C N(R')-, -C N(R')C -, -C N(R')C N(R')-, -N(R')C -, -N(R')C N(R')-, -N(R')C O-, -OC N(R')-, -C(NR')-, -N(R')C(NR')-, -C(NR')N(R')-, -N(R')C(NR')N(R')-, -OB(Me)O-, -S 2 -, -OS -, -S O-, -S -, -OS 2 -, -S 2 O-, -N(R')S 2 -, -S 2 N(R')-, -N(R')S -, -S N(R')-, -N(R')S 2 N(R')-, -N(R')S N(R')-, C 3 -C 12 carbocyclene, 3- to 12-membered heterocyclene, 5- to 12-membered heteroarylene or any combination thereof, wherein R' is H or C 1 -C 6 alkyl, wherein the interrupting and the one or both terminating groups may be the same or different; and wherein the degron has a structure represented by any one of formulas D1a-q: and wherein X is alkyl, halo, CN, CF 3, OCHF 2 or OCF 3 or the compound which is or a pharmaceutically acceptable salt or stereoisomer thereof.
A tool for applying, smoothing, levelling and polishing plaster applied to a surface and/or for the application and smoothing of jointing compounds and decorative finishes, the tool comprising a handle and a generally rectangular tool blade mounted on the handle, characterised in that: the tool blade comprises a rectangular web member formed of flexible material having two opposite flat side surfaces and at least one straight free edge; wherein a strip of a different material is fixed to the web on one side thereof and extends along the outer part only of the web adjacent to the free edge thereof, and wherein the strip is fixed to the web by means of double sided tape. the tool blade comprises a rectangular web member formed of flexible material having two opposite flat side surfaces and at least one straight free edge; wherein a strip of a different material is fixed to the web on one side thereof and extends along the outer part only of the web adjacent to the free edge thereof, and wherein the strip is fixed to the web by means of double sided tape.
Method for producing a heat pipe, comprising the following steps, performed on a first tube made from a malleable material: • The diameter of the tube is swaged at a first end (10, 10'), and the end thus swaged is sealed closed, • A second tube (30, 30'), of a smaller diameter than the first, is inserted into the second end of the first tube (20, 20'), • The second end of the first tube is swaged around the second tube and the interface between the two tubes is sealed, • The pipe thus created is partially filled with a heat-transfer fluid, • The air contained in the pipe is removed, and • The free end of the second tube is sealed closed. • The diameter of the tube is swaged at a first end (10, 10'), and the end thus swaged is sealed closed, • A second tube (30, 30'), of a smaller diameter than the first, is inserted into the second end of the first tube (20, 20'), • The second end of the first tube is swaged around the second tube and the interface between the two tubes is sealed, • The pipe thus created is partially filled with a heat-transfer fluid, • The air contained in the pipe is removed, and • The free end of the second tube is sealed closed.
An optical connector comprising a housing and a clamp, said housing comprising at least one socket for a fibre termination, each socket having a resilient wall (32, 33) for pressing against a fibre termination inserted in the socket, and said clamp comprising at least one clamp member for sliding in a direction generally parallel to the socket between outer and inner positions with respect to the housing, characterized in that, the housing further comprises a housing side wall to a lateral side of the socket; and at least one of said clamp members is configured to slide in contact with the housing side wall on one side and with a socket resilient wall on the opposed side so that it laterally urges the socket resilient wall to grip a fibre termination in the socket during said sliding movement.
An interfering signal canceller for cancelling an interfering signal component of an input signal, having a predetermined band of frequencies, from a desired signal component of the input signal, wherein the input signal is fed to a primary path and an auxiliary path, the interfering signal canceller comprising: a voltage sensor element disposed in the primary path and fed by the input signal; a coupler disposed in the primary path and fed by the voltage sensor element; a Hartley image-reject element disposed in the auxiliary path and fed by the input signal for converting the input signal to an intermediate or baseband frequency signal; a phase slope compensator disposed in the auxiliary path after the Hartley image-reject element to phase adjust an interfering signal component of a converted input signal; an inverse Hartley image-reject element disposed in the auxiliary path after the phase slope compensator to convert the passed interfering signal component to the predetermined band of frequencies and having an output fed to the primary path. a voltage sensor element disposed in the primary path and fed by the input signal; a coupler disposed in the primary path and fed by the voltage sensor element; a Hartley image-reject element disposed in the auxiliary path and fed by the input signal for converting the input signal to an intermediate or baseband frequency signal; a phase slope compensator disposed in the auxiliary path after the Hartley image-reject element to phase adjust an interfering signal component of a converted input signal; an inverse Hartley image-reject element disposed in the auxiliary path after the phase slope compensator to convert the passed interfering signal component to the predetermined band of frequencies and having an output fed to the primary path.
Method to encapsulate a plastic material to at least a portion of the periphery of a glazing panel in a mold comprising n upper mold which comprises a body and a molding surface and a lower mold which comprises a body and a molding surface; characterized in that the method comprises at least the steps of: (a) pre-heating at least the molding surface of the upper mold to a temperature between 40°C and 90°C, and preferably between 75°C and 80°C; (b) inserting the glazing panel between the upper mold and the lower mold; (c) closing the mold to form a cavity around at least a portion of the periphery of the glazing panel formed when the mold is closed between molding surfaces (22, 32) and the glazing panel; (d) injecting a plastic material into the cavity to form a profiled joint to the glazing panel; (e) cooling at least the molding surface of the upper mold to a temperature of the surface of the encapsulation between 30°C and 50°C and (f) extracting the encapsulated glazing panel from the mold. (a) pre-heating at least the molding surface of the upper mold to a temperature between 40°C and 90°C, and preferably between 75°C and 80°C; (b) inserting the glazing panel between the upper mold and the lower mold; (c) closing the mold to form a cavity around at least a portion of the periphery of the glazing panel formed when the mold is closed between molding surfaces (22, 32) and the glazing panel; (d) injecting a plastic material into the cavity to form a profiled joint to the glazing panel; (e) cooling at least the molding surface of the upper mold to a temperature of the surface of the encapsulation between 30°C and 50°C and (f) extracting the encapsulated glazing panel from the mold.
A control device for a hybrid car traveling while powered by an engine and a power source other than the engine, the hybrid car including a first switch to be operated by a driver so as to start up a hybrid system and a second switch (1100, 1102) to be operated by the driver so as not to actuate said engine and said control device comprising: a first detecting unit detecting whether or not said first switch is operated; a second detecting unit detecting whether or not said second switch is operated; a control unit executing startup processing of the hybrid system in response to operation of said first switch; and a detecting unit detecting a request of said driver to execute said startup processing without actuating said engine in at least one case where said second switch is operated prior to operation of the first switch, the control device being characterised in that the detecting unit detects a request of said driver to execute said startup processing without actuating said engine in a case where said first switch and said second switch are operated substantially simultaneously. a first detecting unit detecting whether or not said first switch is operated; a second detecting unit detecting whether or not said second switch is operated; a control unit executing startup processing of the hybrid system in response to operation of said first switch; and a detecting unit detecting a request of said driver to execute said startup processing without actuating said engine in at least one case where said second switch is operated prior to operation of the first switch, the control device being characterised in that the detecting unit detects a request of said driver to execute said startup processing without actuating said engine in a case where said first switch and said second switch are operated substantially simultaneously.
A catalyst precursor comprising a structure wherein the entire structure is composed of gold or a gold-based alloy and the surface of the structure is modified with elemental sulfur or at least the surface of the structure is composed of gold or a gold-based alloy and the surface of the structure is modified with elemental sulfur, and a catalytic metal compound supported on the structure, wherein the catalyst precursor has peaks derived from the catalytic metal compound and also sulfur as analyzed by photoelectron spectroscopy, and wherein the peak derived from sulfur is of the sulfur 1s orbital observed within a range of 2470 eV ± 2 eV in terms of the peak top position.