mhurhangee/patent-ind-claim-en huggingface dataset:
Device for the radio communication with MIMO protocol between a plurality of transceiver antennas of radio frequency signals and a single transceiver antenna of said radio frequency signals, the device comprises: - a plurality of input ports operatively connected to said plurality of transceiver antennas ; - an output port operatively connected to an output antenna adapted to communicate with said single transceiver antenna ; - processing means operatively connected to said input ports and to said output port and configured to process said radio frequency signals coming from said plurality of transceiver antennas to obtain at least one output signal adapted to be transmitted from said output antenna towards said single transceiver antenna , wherein said processing means comprise: - dividing means operatively connected to each of said input ports and adapted to divide each of said radio frequency signals coming from each of said transceiver antennas into a plurality of replicas of said radio frequency signals; - attenuator means operatively connected to said dividing means and adapted to attenuate the intensity of the signal of each of said replicas; - retarding means operatively connected to said attenuator means and adapted to introduce a delay time to the signal of each of said replicas; - recombining means operatively connected to said retarding means and to said output antenna and adapted to recombine said replicas of each of said attenuated and delayed radio frequency signals to obtain said output signal. - a plurality of input ports operatively connected to said plurality of transceiver antennas ; - an output port operatively connected to an output antenna adapted to communicate with said single transceiver antenna ; - processing means operatively connected to said input ports and to said output port and configured to process said radio frequency signals coming from said plurality of transceiver antennas to obtain at least one output signal adapted to be transmitted from said output antenna towards said single transceiver antenna , wherein said processing means comprise: - dividing means operatively connected to each of said input ports and adapted to divide each of said radio frequency signals coming from each of said transceiver antennas into a plurality of replicas of said radio frequency signals; - attenuator means operatively connected to said dividing means and adapted to attenuate the intensity of the signal of each of said replicas; - retarding means operatively connected to said attenuator means and adapted to introduce a delay time to the signal of each of said replicas; - recombining means operatively connected to said retarding means and to said output antenna and adapted to recombine said replicas of each of said attenuated and delayed radio frequency signals to obtain said output signal.
A method of constructing a non-pneumatic wheel comprising: securing a plurality of spokes around the outer circumference of a hub ; positioning an at least one spoke support at the radially outer end of each spoke such that the at least one spoke support holds the radially outer end of each spoke in a radially outward annular orientation; placing an outer annular band concentrically over the radially outer ends of the spokes ; characterized by the method further comprising: bonding the spokes to the outer annular band ; contracting the at least one spoke support radially inward; and separating the at least one spoke supports from the non-pneumatic wheel . securing a plurality of spokes around the outer circumference of a hub ; positioning an at least one spoke support at the radially outer end of each spoke such that the at least one spoke support holds the radially outer end of each spoke in a radially outward annular orientation; placing an outer annular band concentrically over the radially outer ends of the spokes ; bonding the spokes to the outer annular band ; contracting the at least one spoke support radially inward; and
A near infrared absorbing fine particle dispersion liquid, comprising: a solvent of one or more kinds selected from vegetable oils and vegetable oil-derived compounds; near infrared absorbing fine particles of one or more kinds selected from 10 mass% more and 25 mass% or less of a composite tungsten oxide expressed by M x W y O z (M is an element of one or more kinds selected from H, He, alkali metal, alkaline earth metal. rare earth element, Mg, Zr, Cr, Mn, Fe, Ru, Co, Rh, Ir, Ni, Pd, Pt, Cu, Ag, Au, Zn, Cd, Al, Ga, In, Tl, Si, Ge, Sn, Pb, Sb, B, F, P, S, Se, Br, Te, Ti, Nb, V, Mo, Ta, Re, Be, Hf, Os, Bi, and I, W is tungsten, O is oxygen, satisfying 0.001 ≤ x / y ≤ 1, and 2. 2 ≤ z / y ≤ 3.0), or tungsten oxide having a Magneli phase expressed by a general formula W y O z (W is tungsten, O is oxygen, satisfying 2.45 ≤ z / y ≤ 2.999); and a dispersant soluble in the solvent and having a fatty acid in its structure, wherein a viscosity is 180 mPa.s or less. a solvent of one or more kinds selected from vegetable oils and vegetable oil-derived compounds; near infrared absorbing fine particles of one or more kinds selected from 10 mass% more and 25 mass% or less of a composite tungsten oxide expressed by M x W y O z (M is an element of one or more kinds selected from H, He, alkali metal, alkaline earth metal. rare earth element, Mg, Zr, Cr, Mn, Fe, Ru, Co, Rh, Ir, Ni, Pd, Pt, Cu, Ag, Au, Zn, Cd, Al, Ga, In, Tl, Si, Ge, Sn, Pb, Sb, B, F, P, S, Se, Br, Te, Ti, Nb, V, Mo, Ta, Re, Be, Hf, Os, Bi, and I, W is tungsten, O is oxygen, satisfying 0.001 ≤ x / y ≤ 1, and 2. 2 ≤ z / y ≤ 3.0), or tungsten oxide having a Magneli phase expressed by a general formula W y O z (W is tungsten, O is oxygen, satisfying 2.45 ≤ z / y ≤ 2.999); and a dispersant soluble in the solvent and having a fatty acid in its structure, wherein a viscosity is 180 mPa.s or less.
An elongated medical device for electro-anatomic mapping and suitable for intravascular insertion, said device comprising a flexible elongated body having a distal portion with a distal end and a proximal portion , and an electrode assembly located at the distal portion , the electrode assembly comprising - a plurality of at least x=4 support arms , wherein x is evenly divisible by the number 2, each support arm having a proximal end part , a distal end part and a main part between the proximal end part and the distal end part , the plurality of at least x=4 support arms comprising first and second neighboring support arms (81.1, 81.2) forming pairs of neighboring support arms , and - a plurality of electrodes arranged on the support arms for collecting electrophysiological data, the plurality of at least x=4 support arms being configured to have a first condition (UC), where the plurality of at least x=4 support arms is arranged in a bundle, and a second condition (EC), where the plurality of at least x=4 support arms is expanded, forming a basket type structure , characterized in that , each first and second neighboring support arms (81.1, 81.2) are combined at their proximal end parts to form united end parts , such that all pairs of neighboring support arms are united at their proximal end parts , and that each second and first neighboring support arms (81.2, 81.1) are combined at their distal end parts , to form united end parts , such that all pairs of neighboring support arms are united at their distal end parts , and wherein each support arm is combined at its distal end part with a different neighboring support arm than at its proximal end part . - a plurality of at least x=4 support arms , wherein x is evenly divisible by the number 2, each support arm having a proximal end part , a distal end part and a main part between the proximal end part and the distal end part , the plurality of at least x=4 support arms comprising first and second neighboring support arms (81.1, 81.2) forming pairs of neighboring support arms , and - a plurality of electrodes arranged on the support arms for collecting electrophysiological data, the plurality of at least x=4 support arms being configured to have a first condition (UC), where the plurality of at least x=4 support arms is arranged in a bundle, and a second condition (EC), where the plurality of at least x=4 support arms is expanded, forming a basket type structure , characterized in that , each first and second neighboring support arms (81.1, 81.2) are combined at their proximal end parts to form united end parts , such that all pairs of neighboring support arms are united at their proximal end parts , and that each second and first neighboring support arms (81.2, 81.1) are combined at their distal end parts , to form united end parts , such that all pairs of neighboring support arms are united at their distal end parts , and wherein each support arm is combined at its distal end part with a different neighboring support arm than at its proximal end part .
A method for determining a path maximum transmission unit MTU P(n) size for transmission paths between edge nodes in a data communications network and for updating routing tables associated with routing and/or switching devices in said edge nodes, which are linked together with link interfaces L(i) constituting transmission paths P(n) for data packet transmission, each link interface L(i) having a link interface maximum transmission unit MTU L(i) size, said method comprises the steps of: - Acquiring a link interface maximum transmission unit MTU L(i) size for a link interface L(i) (S310); - Updating the routing table by calculating the path maximum transmission unit MTU P(n) size for each destination wherein the link interface L(i) for the acquired link interface maximum transmission unit MTU L(i) size is involved (S320), wherein the updating comprises: - Calculating and selecting for each one of said destinations the lowest link interface maximum transmission unit MTU L(i) size of the link interfaces L(i) constituting a transmission path P(n) to said destination as the calculated maximum transmission unit MTU P(n) size (S322); - Storing the calculated maximum transmission unit MTU P(n) size for the destination in the routing table (S324). - Acquiring a link interface maximum transmission unit MTU L(i) size for a link interface L(i) (S310); - Updating the routing table by calculating the path maximum transmission unit MTU P(n) size for each destination wherein the link interface L(i) for the acquired link interface maximum transmission unit MTU L(i) size is involved (S320), wherein the updating comprises: - Calculating and selecting for each one of said destinations the lowest link interface maximum transmission unit MTU L(i) size of the link interfaces L(i) constituting a transmission path P(n) to said destination as the calculated maximum transmission unit MTU P(n) size (S322); - Storing the calculated maximum transmission unit MTU P(n) size for the destination in the routing table (S324). - Calculating and selecting for each one of said destinations the lowest link interface maximum transmission unit MTU L(i) size of the link interfaces L(i) constituting a transmission path P(n) to said destination as the calculated maximum transmission unit MTU P(n) size (S322); - Storing the calculated maximum transmission unit MTU P(n) size for the destination in the routing table (S324).
A drivetrain system comprising: a first drive gear arranged on an axis , wherein the first drive gear is driven by a first motor, and a second drive gear arranged on the axis, wherein the second drive gear is driven by a second motor, characterised in that the first drive gear comprises a first extension along the axis; and the second drive gear comprises a second extension along the axis, wherein the second extension is arranged radially within and axially overlaps the first extension ; a bearing arranged between the first drive gear and the second drive gear, wherein the bearing interfaces to the first extension and to the second extension . a first drive gear arranged on an axis , wherein the first drive gear is driven by a first motor, and a second drive gear arranged on the axis, wherein the second drive gear is driven by a second motor, characterised in that the first drive gear comprises a first extension along the axis; and the second drive gear comprises a second extension along the axis, wherein the second extension is arranged radially within and axially overlaps the first extension ; a bearing arranged between the first drive gear and the second drive gear, wherein the bearing interfaces to the first extension and to the second extension .
An axle assembly for a motor vehicle , the axle assembly comprising: a carrier housing having a main body and a pinion nose extending from said main body ; a differential assembly positioned within and rotatably coupled to said carrier housing ; said differential assembly comprising a case , a ring gear coupled to said case , a plurality of pinion gears rotatably coupled to said case and a plurality of side gears rotatably coupled to said case , each of said side gears being in meshing engagement with each of said pinion gears ; and a pinion shaft in meshing engagement with said ring gear , said pinion shaft extending along a longitudinal axis through an aperture extending through said pinion nose to a position exterior of said housing , wherein a pinion seal is positioned between the pinion shaft and an interior surface of the pinion nose, characterized in that it further comprises a deflector circumferentially extending across at least a portion of an outer surface of said pinion nose , said deflector is operable to direct foreign materials present on the outer surface of the pinion nose away from the pinion seal. a carrier housing having a main body and a pinion nose extending from said main body ; a differential assembly positioned within and rotatably coupled to said carrier housing ; said differential assembly comprising a case , a ring gear coupled to said case , a plurality of pinion gears rotatably coupled to said case and a plurality of side gears rotatably coupled to said case , each of said side gears being in meshing engagement with each of said pinion gears ; and a pinion shaft in meshing engagement with said ring gear , said pinion shaft extending along a longitudinal axis through an aperture extending through said pinion nose to a position exterior of said housing , wherein a pinion seal is positioned between the pinion shaft and an interior surface of the pinion nose,
Assembly of a fuel chute and a liquid agent chute , the chutes extending at least partially parallel to each other from a respective filling opening, the assembly being provided with securing means (3 to 6, 6a) of the two chutes between them, so that, at a distance from the filling openings, the securing means (3 to 6, 6a) are produced, on the one hand, by a double clip passing through a first tab carried by a portion of one or secured to a first chute among the fuel chutes and liquid agent and a portion of one or integral with a second chute among the fuel and liquid agent chutes and, on the other hand, by a second tab secured to a portion of or secured to the second chute penetrating into at least one groove carried by the periphery of a portion of or secured to the first chute , the first and second legs being spaced from each other.
Solvent-free, photocrosslinkable writing ink, advantageously for a pen, comprising, in percentage by weight relative to the total weight of the ink: a- between 40 and 75% of a photocrosslinkable acrylate and/or methacrylate oligomer; b- between 1 and 55% of a photocrosslinkable acrylate and/or methacrylate monomer; c- between 0.5 and 6% of a photoinitiator; d- between 1 and 10% of a dye, advantageously a basic dye; and e- between 0 and 10% of an additive. a- between 40 and 75% of a photocrosslinkable acrylate and/or methacrylate oligomer; b- between 1 and 55% of a photocrosslinkable acrylate and/or methacrylate monomer; c- between 0.5 and 6% of a photoinitiator; d- between 1 and 10% of a dye, advantageously a basic dye; and e- between 0 and 10% of an additive.
A mechanical circulatory support system comprising: an implantable blood pump ; an external controller configured to supply power to the implantable blood pump and including an external controller input connector ; a battery module comprising a housing and one or more battery cells disposed within the housing; and a connector cable configured to removably couple the external controller input connector to the battery module , wherein the connector cable comprises electrical conductors configured to transfer power from the one or more battery cells to the external controller and an optical fiber to transfer data between the external controller and the battery module , characterized in that the battery module comprises a battery module input connector configured to receive electrical power from another battery module and/or a charging unit. an implantable blood pump ; an external controller configured to supply power to the implantable blood pump and including an external controller input connector ; a battery module comprising a housing and one or more battery cells disposed within the housing; and a connector cable configured to removably couple the external controller input connector to the battery module , wherein the connector cable comprises electrical conductors configured to transfer power from the one or more battery cells to the external controller and an optical fiber to transfer data between the external controller and the battery module , characterized in that the battery module comprises a battery module input connector configured to receive electrical power from another battery module and/or a charging unit.
A sailing assembly, comprising a first floating structure (S1) comprising at least two hulls (F1, F1'; F11, F11' F12, F12') delimiting a space (E1) therebetween, and a photovoltaic arrangement (PH1) occupying a substantial part of the footprint of the first floating structure, and a second floating structure (S2) provided with an electric thruster (P2) and a battery (B2), means for separably assembling the two floating structures, the assembly comprising electrical connection means between the photovoltaic arrangement of the first floating structure and the battery of the second floating structure, characterized in that the second floating structure can be selectively used either to move the two structures (S1, S2) and allow them to navigate with directional guidance, or as an autonomous motorized marine craft.
An interior part combined structure obtained by combining a first interior part with a second interior part , the first interior part including a first base and a design material attached to the first base so as to cover at least a part of a surface of the first base , the second interior part including a second base provided so as to cover an end part of the first base , wherein: the design material is a woven fabric woven by using synthetic resin fibers and side emission type optical fibers as warps or wefts; the side emission type optical fibers each include one end part to which a light source is connected; the one end part includes an end surface facing a light emitting part of the light source , characterized in that the second base includes a bent end part ; and the bent end part includes an end surface brought into contact with or facing the design material . the design material is a woven fabric woven by using synthetic resin fibers and side emission type optical fibers as warps or wefts; the side emission type optical fibers each include one end part to which a light source is connected; the one end part includes an end surface facing a light emitting part of the light source , characterized in that the second base includes a bent end part ; and the bent end part includes an end surface brought into contact with or facing the design material .
Hybrid tailgate for a vehicle, comprising: • a thermoplastic inner structure forming the carrier frame of the tailgate having a tailgate window opening for a window glazing part of the tailgate, and • at least one composite reinforcement part to reinforce the carrier frame, wherein the composite reinforcement part is connected to and forms an integral unit with the thermoplastic inner structure at a first surface and enclosing the tailgate window opening , wherein the composite reinforcement part comprises: a top reinforcement part for strengthening a top part of the inner structure; a pair of D-pillar reinforcement parts for strengthening the D-pillar of the inner structure, wherein the top reinforcement part is connected to each of the pair of D-pillar reinforcement part at the ends of the top reinforcement part; a ribbing structure extending from the first surface, and which ribbing structure forms a continuous load path in the inner structure surrounding the tailgate window opening ; characterized in that the composite reinforcement part comprises: a pair of further reinforcement parts, each connected to and extending from each of the D-pillar reinforcement parts to a lock receiving portion of the inner structure. • a thermoplastic inner structure forming the carrier frame of the tailgate having a tailgate window opening for a window glazing part of the tailgate, and • at least one composite reinforcement part to reinforce the carrier frame, a top reinforcement part for strengthening a top part of the inner structure; a pair of D-pillar reinforcement parts for strengthening the D-pillar of the inner structure, wherein the top reinforcement part is connected to each of the pair of D-pillar reinforcement part at the ends of the top reinforcement part; a ribbing structure extending from the first surface, and which ribbing structure forms a continuous load path in the inner structure surrounding the tailgate window opening ; characterized in that the composite reinforcement part comprises: a pair of further reinforcement parts, each connected to and extending from each of the D-pillar reinforcement parts to a lock receiving portion of the inner structure.
An electrosurgical device , comprising: a housing defining an interior bore ; a shaft telescopically moveable in the interior bore of the housing , wherein the shaft comprises a proximal portion in the housing and a distal portion that extends outwardly from the housing ; an electrosurgical blade coupled to the shaft ; and a helical conductor coiled around the proximal portion of the shaft and configured to supply electrosurgical energy from an electrosurgical generator to the electrosurgical blade , wherein a proximal end of the helical conductor is coupled to the proximal portion of the shaft and a distal end of the helical conductor is fixedly coupled to the housing such that when the shaft z telescopically moves relative to the housing : (i) a position of a distal end of the helical conductor remains fixed relative to the housing and (ii) a position of a proximal end of the helical conductor translates relative to the housing . a housing defining an interior bore ; a shaft telescopically moveable in the interior bore of the housing , wherein the shaft comprises a proximal portion in the housing and a distal portion that extends outwardly from the housing ; an electrosurgical blade coupled to the shaft ; and a helical conductor coiled around the proximal portion of the shaft and configured to supply electrosurgical energy from an electrosurgical generator to the electrosurgical blade , wherein a proximal end of the helical conductor is coupled to the proximal portion of the shaft and a distal end of the helical conductor is fixedly coupled to the housing such that when the shaft z telescopically moves relative to the housing : (i) a position of a distal end of the helical conductor remains fixed relative to the housing and (ii) a position of a proximal end of the helical conductor translates relative to the housing .