mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus comprising: a plurality of radio ports (A, B, C, D) for interconnection with radio circuits, a plurality of antenna ports (A', B', C', D') for interconnection with antennas, interconnection circuitry configured to enable interconnection of each of one or more radio ports to different non-overlapping sets of the antenna ports, said interconnection circuitry comprises a cascade arrangement of selection circuits , each selection circuit comprising two first ports and two second ports , said cascade arrangement comprising a first tier comprising a single selection circuit that has a second port interconnected to a first one of the first ports of a first selection circuit in a second, lower order tier and a different, second port interconnected to a first one of the first ports of a second selection circuit in the second, lower order tier, wherein two of the radio ports (A, C) are interconnected to the first ports of the selection circuit in the first tier, a third radio port (B) is interconnected to a second of the first ports of a first one of the selection circuits 60 in the second tier and a fourth radio port (D) is interconnected to a second one of the first ports of the second selection circuit in the second tier, the second ports of the first selection circuit in the second tier and the second ports of the second selection circuit 60 in the second tier are interconnected to the plurality of antenna ports, (A', B', C', D'). a plurality of radio ports (A, B, C, D) for interconnection with radio circuits, a plurality of antenna ports (A', B', C', D') for interconnection with antennas, interconnection circuitry configured to enable interconnection of each of one or more radio ports to different non-overlapping sets of the antenna ports, said interconnection circuitry comprises a cascade arrangement of selection circuits , each selection circuit comprising two first ports and two second ports , said cascade arrangement comprising a first tier comprising a single selection circuit that has a second port interconnected to a first one of the first ports of a first selection circuit in a second, lower order tier and a different, second port interconnected to a first one of the first ports of a second selection circuit in the second, lower order tier, wherein two of the radio ports (A, C) are interconnected to the first ports of the selection circuit in the first tier, a third radio port (B) is interconnected to a second of the first ports of a first one of the selection circuits 60 in the second tier and a fourth radio port (D) is interconnected to a second one of the first ports of the second selection circuit in the second tier, the second ports of the first selection circuit in the second tier and the second ports of the second selection circuit 60 in the second tier are interconnected to the plurality of antenna ports, (A', B', C', D').
An automated system for separating a layer from a layer assembly, the layer assembly comprising a backing layer and a material layer , the automated system comprising: an automated machine having a controller and an end effector ; and a separating tool attached to the end effector of the automated machine , the separating tool including, a displacing member configured to establish a void between the backing layer and the material layer by displacing a portion of the backing layer , the displacing member further comprising a displacing member outer face , and a securing member configured to establish a mechanical connection with a displaced portion of the backing layer , wherein the end effector comprises a vacuum roller configured to lift at least a portion of the layer assembly, wherein the vacuum roller is attached to a movable component via an attachment structure , wherein a support arm is secured to the attachment structure and mounts a perforated drum , wherein the perforated drum is rotated at the command of the controller by a servo motor , wherein positioning and functioning input for the end effector is provided to the controller from affixed sensors ; and wherein the separating tool is coupled to the vacuum roller in a selected location able to be brought into contact with the layer assembly. an automated machine having a controller and an end effector ; and a separating tool attached to the end effector of the automated machine , the separating tool including, a displacing member configured to establish a void between the backing layer and the material layer by displacing a portion of the backing layer , the displacing member further comprising a displacing member outer face , and a securing member configured to establish a mechanical connection with a displaced portion of the backing layer , a displacing member configured to establish a void between the backing layer and the material layer by displacing a portion of the backing layer , the displacing member further comprising a displacing member outer face , and a securing member configured to establish a mechanical connection with a displaced portion of the backing layer , wherein the end effector comprises a vacuum roller configured to lift at least a portion of the layer assembly, wherein the vacuum roller is attached to a movable component via an attachment structure , wherein a support arm is secured to the attachment structure and mounts a perforated drum , wherein the perforated drum is rotated at the command of the controller by a servo motor , wherein positioning and functioning input for the end effector is provided to the controller from affixed sensors ; and wherein the separating tool is coupled to the vacuum roller in a selected location able to be brought into contact with the layer assembly.
Optoelectronic light emitting device (1R; 1R', 1G) comprising: - a light emitting diode configured to emit a first radiation, and - a conversion layer (20R; 20R', 20G) which extends above the light emitting diode and which is configured to convert a part at least of the first radiation into a second radiation, by photoluminescence, the conversion layer being delimited laterally by a lateral surface , the conversion layer (20R; 20R', 20G) comprising at least one planar quantum well configured to emit the second radiation, - a diffraction grating (30R; 30R', 30G), configured to extract a part at least of the second radiation from the conversion layer, the diffraction grating being etched on an upper face of the conversion layer, - the device further comprising a lateral reflector having a reflective surface which extends transversally with respect to the conversion layer (20R; 20R', 20G), facing a part at least of the lateral surface of the conversion layer, the reflective surface of the reflector and the lateral surface of the conversion layer (20R; 20R', 20G) being separated from each other by a material having an optical index n 2 , characterized in that a distance (d R , d G ) separating the reflective surface of the reflector from the lateral surface of the conversion layer is comprised between λ/(n 2 ×40) and λ/(n 2 ×2) where λ is the average wavelength of the second radiation. - a light emitting diode configured to emit a first radiation, and - a conversion layer (20R; 20R', 20G) which extends above the light emitting diode and which is configured to convert a part at least of the first radiation into a second radiation, by photoluminescence, the conversion layer being delimited laterally by a lateral surface , the conversion layer (20R; 20R', 20G) comprising at least one planar quantum well configured to emit the second radiation, - a diffraction grating (30R; 30R', 30G), configured to extract a part at least of the second radiation from the conversion layer, the diffraction grating being etched on an upper face of the conversion layer, - the device further comprising a lateral reflector having a reflective surface which extends transversally with respect to the conversion layer (20R; 20R', 20G), facing a part at least of the lateral surface of the conversion layer, the reflective surface of the reflector and the lateral surface of the conversion layer (20R; 20R', 20G) being separated from each other by a material having an optical index n 2 ,
An anti-CD25 antibody for use in the treatment of cancer in a human subject, wherein the antibody is a human IgG2 antibody and depletes CD25+ cells and depletes tumor-infiltrating regulatory T-cells.
Method for industrial centrifugal separation of packaged food waste , using a centrifugal separator , into a first stream mainly constituted of biomass and a second stream mainly constituted of plastic packaging materials, characterized in that the moisture content of the first stream is detected and regulated as a function of the detected moisture content of the first stream , in order to obtain a first stream comprising a solids content of between 20% and 30%.
A ventilation device for heated rooms located in a building, through which exhaust air from the interior of the room is led to the outside of the building and fresh air is led from the outside of the building into the interior of the room, containing a counter flow heat exchanger vertically installed in a wall of the building, via which the exhaust air provides heat to the fresh air , the device, on the room side, in the upper part of the device, having an outlet for exhaust air to be brought to the outside of the building, and, in the lower part, having an inlet for supply air coming from the outside of the building, characterized in that the counter flow heat exchanger contains channels extending from above from the exhaust air inlet downwards to an exhaust air outlet placed in the lower region of the ventilation device for the flow of the exhaust air , and in counter-parallel direction contains adjoining channels extending upwards from below from a fresh air inlet located in the lower region of the ventilation device, and contains a supply air inlet channel extending from top to bottom to the inlet for the flow of fresh air , the channels being formed by air-impermeable lamellae ribbed in the direction of flow.
Method for writing data in a memory (MEM) of a contactless transponder (TRSP), the memory being a non-volatile static random-access memory including memory points (PTM) each comprising a volatile memory cell (FF) and a non-volatile memory cell (EE), the method comprising a protocol phase (PP) comprising a reception of data (DAT), and a storage of the data received (LTCH) in the volatile memory cells (FF) of the memory, and, at the end of the protocol phase (PP), a write phase (WP) comprising a single write cycle (NVWR) recording the data received and stored in the volatile memory cells (FF), in the non-volatile memory cells (EE) of the respective memory points.
A receiver for a Multiple Input Multiple Output, MIMO, communications system, comprising: a shift and scale module configured to receive a signal y through two or more antennas and transform the signal y into a complex vector y s ; a linear receiver module configured to perform a linear operation on the complex vector y s using a matrix P to generate a complex z vector, wherein the matrix P is generated using a lattice reduction algorithm performed on a channel matrix for a MIMO channel; and a list generator module configured to receive the complex z vector from the linear receiver module and the matrix P and to generate a list of possible data vectors and metrics from the received signal by scaling a matrix of complex integer approximations of the complex components of the vector z, wherein the list is generated by operations in the complex domain. a shift and scale module configured to receive a signal y through two or more antennas and transform the signal y into a complex vector y s ; a linear receiver module configured to perform a linear operation on the complex vector y s using a matrix P to generate a complex z vector, wherein the matrix P is generated using a lattice reduction algorithm performed on a channel matrix for a MIMO channel; and a list generator module configured to receive the complex z vector from the linear receiver module and the matrix P and to generate a list of possible data vectors and metrics from the received signal by scaling a matrix of complex integer approximations of the complex components of the vector z, wherein the list is generated by operations in the complex domain.
An antenna apparatus comprising: an antenna module that includes a first slot antenna that is configured to transmit or receive a first wireless signal, a first feed element that is configured to supply power to the first slot antenna, a second slot antenna that is configured to transmit or receive a second wireless signal having a polarization direction orthogonal to a polarization direction of the first wireless signal, and a second feed element that is configured to supply power to the second slot antenna; a metal plate that includes a first slot configured as a propagation channel for the first wireless signal, and a second slot a longitudinal direction of which is orthogonal to a longitudinal direction of the first slot and configured as a propagation channel for the second wireless signal; a shield , wherein the shield is mounted on the antenna module, and wherein the shield is provided with one or more holes ; and a speaker or microphone , wherein the speaker or the microphone is connected to the shield. an antenna module that includes a first slot antenna that is configured to transmit or receive a first wireless signal, a first feed element that is configured to supply power to the first slot antenna, a second slot antenna that is configured to transmit or receive a second wireless signal having a polarization direction orthogonal to a polarization direction of the first wireless signal, and a second feed element that is configured to supply power to the second slot antenna; a first slot antenna that is configured to transmit or receive a first wireless signal, a first feed element that is configured to supply power to the first slot antenna, a second slot antenna that is configured to transmit or receive a second wireless signal having a polarization direction orthogonal to a polarization direction of the first wireless signal, and a second feed element that is configured to supply power to the second slot antenna; a metal plate that includes a first slot configured as a propagation channel for the first wireless signal, and a second slot a longitudinal direction of which is orthogonal to a longitudinal direction of the first slot and configured as a propagation channel for the second wireless signal; a shield , wherein the shield is mounted on the antenna module, and wherein the shield is provided with one or more holes ; and a speaker or microphone , wherein the speaker or the microphone is connected to the shield. a first slot configured as a propagation channel for the first wireless signal, and a second slot a longitudinal direction of which is orthogonal to a longitudinal direction of the first slot and configured as a propagation channel for the second wireless signal; a shield , wherein the shield is mounted on the antenna module, and wherein the shield is provided with one or more holes ; and a speaker or microphone , wherein the speaker or the microphone is connected to the shield.
A power compartment, comprising: a compartment ; an engine , arranged in the compartment and having a cooling liquid flow path for cooling liquid to circulate; a radiator , arranged in the compartment and communicating with the cooling liquid flow path of the engine ; a ventilation port , arranged on the compartment to introduce air for exchanging heat with the radiator or discharge the air which has exchanged heat with the radiator ; characterized in that it further comprises a noise-reducing unit , arranged on the ventilation port and comprising a first grille , a second grille and a first elastic part , wherein the first grille and the second grille are stacked along a thickness direction of a wall of the compartment , a distance between the second grille and the first grille is adjustable, the first elastic part configured to push the first grille towards the second grille , the first grille comprises a plurality of first air ports arranged in parallel and a first solid part located between the two adjacent first air ports , the second grille comprises a plurality of second air ports arranged in parallel and a second solid part located between the two adjacent second air ports , and a projection of each second air opening in a plane vertical to a thickness direction partially or all overlaps a projection of the first solid part in the plane, so that air from each second air opening drives the first grille away from the second grille . a compartment ; an engine , arranged in the compartment and having a cooling liquid flow path for cooling liquid to circulate; a radiator , arranged in the compartment and communicating with the cooling liquid flow path of the engine ; a ventilation port , arranged on the compartment to introduce air for exchanging heat with the radiator or discharge the air which has exchanged heat with the radiator ; characterized in that it further comprises a noise-reducing unit , arranged on the ventilation port and comprising a first grille , a second grille and a first elastic part , wherein the first grille and the second grille are stacked along a thickness direction of a wall of the compartment , a distance between the second grille and the first grille is adjustable, the first elastic part configured to push the first grille towards the second grille , the first grille comprises a plurality of first air ports arranged in parallel and a first solid part located between the two adjacent first air ports , the second grille comprises a plurality of second air ports arranged in parallel and a second solid part located between the two adjacent second air ports , and a projection of each second air opening in a plane vertical to a thickness direction partially or all overlaps a projection of the first solid part in the plane, so that air from each second air opening drives the first grille away from the second grille .
Handrail mountable on a guide element for moving walkways, escalators or the like, wherein the handrail has a substantially constant cross-section along its profile direction (C), wherein the handrail comprises: a carcass which can be arranged on the guide element, and a cover ply arranged on the carcass , wherein the cover ply comprises a thermoplastic elastomer, wherein the carcass has a primary ply facing the cover ply and a tension element which extends in the profile direction (C) of the handrail , and wherein the carcass comprises a secondary ply so that the tension element is inserted between the primary ply and the secondary ply , characterized in that the primary ply is formed from a rubberized fabric, in particular vulcanized, wherein the primary ply comprises chloroprene rubber, natural rubber, styrene-butadiene rubber and/or polybutadiene rubber. a carcass which can be arranged on the guide element, and a cover ply arranged on the carcass , wherein the cover ply comprises a thermoplastic elastomer, wherein the carcass has a primary ply facing the cover ply and a tension element which extends in the profile direction (C) of the handrail , and wherein the carcass comprises a secondary ply so that the tension element is inserted between the primary ply and the secondary ply , characterized in that the primary ply is formed from a rubberized fabric, in particular vulcanized, wherein the primary ply comprises chloroprene rubber, natural rubber, styrene-butadiene rubber and/or polybutadiene rubber.
An underbody camera adapted to be mounted to a vehicle to capture image data beneath the vehicle and around wheels of the vehicle , the underbody camera comprising a mounting bracket coupled to the vehicle , a camera housing coupled to the mounting bracket and formed to include an interior camera compartment , the camera housing including an outer camera shell , a camera mount having an inner camera shell arranged to at least partially extend through a rear opening of the outer camera shell and an attachment plate configured to engage the outer camera shell and cover the rear opening , and a protective lens arranged to lie between a portion of the outer camera shell and the camera mount and to cover a front opening of the outer camera shell opposite the rear opening , and a camera coupled to the camera mount and arranged to lie within the interior camera compartment between the protective lens and attachment plate of the camera mount . a mounting bracket coupled to the vehicle , a camera housing coupled to the mounting bracket and formed to include an interior camera compartment , the camera housing including an outer camera shell , a camera mount having an inner camera shell arranged to at least partially extend through a rear opening of the outer camera shell and an attachment plate configured to engage the outer camera shell and cover the rear opening , and a protective lens arranged to lie between a portion of the outer camera shell and the camera mount and to cover a front opening of the outer camera shell opposite the rear opening , and a camera coupled to the camera mount and arranged to lie within the interior camera compartment between the protective lens and attachment plate of the camera mount .
A system comprising a dynamic sleeve insert and an auxiliary structure; wherein the dynamic sleeve insert comprises: a second part of first two-part anti-rotation means on an inner surface thereof; and a first part of a second two-part anti-rotation means on an outer surface thereof; wherein the inner surface accommodates substantial translation of a first part of the first two-part anti-rotation means; wherein the first part of the second two-part anti-rotation means is functionally complementary to the auxiliary structure comprising an inner surface including opposing arcuate portions defining a maximum diameter and opposing reactive portions making up a second part of the second two-part anti-rotation means; and wherein the second two-part anti-rotation means accommodates greater than nominal lateral translation between the dynamic sleeve insert and the auxiliary structure prior to but not after final engagement with or between at least two work pieces; and wherein the outer surface includes opposing arcuate portions defining a maximum diameter and reactive portions that make up the first part of the second two-part anti-rotation means. a second part of first two-part anti-rotation means on an inner surface thereof; and a first part of a second two-part anti-rotation means on an outer surface thereof; wherein the inner surface accommodates substantial translation of a first part of the first two-part anti-rotation means; wherein the first part of the second two-part anti-rotation means is functionally complementary to the auxiliary structure comprising an inner surface including opposing arcuate portions defining a maximum diameter and opposing reactive portions making up a second part of the second two-part anti-rotation means; and wherein the second two-part anti-rotation means accommodates greater than nominal lateral translation between the dynamic sleeve insert and the auxiliary structure prior to but not after final engagement with or between at least two work pieces; and wherein the outer surface includes opposing arcuate portions defining a maximum diameter and reactive portions that make up the first part of the second two-part anti-rotation means.