mhurhangee/patent-ind-claim-en huggingface dataset:
A method for manufacturing a body of a railway vehicle, comprising the steps of: - providing two side faces and a transverse structure selected from among an upper pavilion and a body bottom ; - applying one definitive outer surface coating on both side faces and the transverse structure ; - welding the transverse structure to both side faces ; each welding of each side face to the transverse structure comprising the following steps: - making a first weld directly between the side face and the transverse structure , - positioning an intercalating element , having two edges, between the side face and the transverse structure , above the first weld , and - making two complementary welds , on the one hand between the side face and an edge of the intercalating element and on the other hand between the transverse structure and the other edge of the intercalating element characterized in that the step of applying the definitive outer surface coating on both side faces and the transverse structure isolated is carried out before the welding step, the method comprising a step for adhesively bonding a trim element covering the two complementary welds and jutting out on either side of both complementary welds , the trim element leaving two exposed areas on the outer faces , located on either side of the two complementary welds . - providing two side faces and a transverse structure selected from among an upper pavilion and a body bottom ; - applying one definitive outer surface coating on both side faces and the transverse structure ; - welding the transverse structure to both side faces ; - making a first weld directly between the side face and the transverse structure , - positioning an intercalating element , having two edges, between the side face and the transverse structure , above the first weld , and - making two complementary welds , on the one hand between the side face and an edge of the intercalating element and on the other hand between the transverse structure and the other edge of the intercalating element
A humanized anti-CD40 antibody having a variable heavy chain and a variable light chain comprising the amino acid sequences of SEQ ID NO:53 and SEQ ID NO:52, respectively, wherein the antibody comprises a human immunoglobulin Fc region and wherein the antibody is an IgG1 antibody.
A method of determining the position of at least one fixed cartography token of an automaton, said token comprising a base comprising a lateral surface and an end face , a stud of smaller cross-section than the base projecting from the end face of the base , said stud comprising an end face opposite the base , said method comprising the steps consisting in: (a) moving a movable member until it contacts a first zone of the lateral surface of the base , (b) moving the movable member until it contacts a second zone of the lateral surface of the base , (c) moving the movable member until it contacts the end face of the stud , (d) moving the movable member until it contacts the end face of the base , (e) deducing therefrom the coordinates (XO, YO, ZO) of at least one point of the cartography token with respect to the movable member , the method comprising at least one step of searching for the cartography token consisting in moving the movable member so as to scan a determined zone along a defined trajectory , until it contacts the lateral surface of the base , the position of the movable member along a longitudinal axis (Z) of the token remaining unchanged during the searching step, and in that if the movable member is not in contact with the lateral surface of the base of the cartography token during a searching step, then another searching step is executed, at a different position of the movable member along the longitudinal axis (Z) of the token . (a) moving a movable member until it contacts a first zone of the lateral surface of the base , (b) moving the movable member until it contacts a second zone of the lateral surface of the base , (c) moving the movable member until it contacts the end face of the stud , (d) moving the movable member until it contacts the end face of the base , (e) deducing therefrom the coordinates (XO, YO, ZO) of at least one point of the cartography token with respect to the movable member ,
A toy gearbox comprising: a gear support construction; at least one gear shaft rotatably supported by the gear support construction and having at least one spline; at least one gear wheel rotatably arranged on the gear shaft; a first clutch member being attached to the gear wheel and rotatably arranged on the gear shaft; a second clutch member comprising a driving ring being fixed against rotation about and slidably arranged on the gear shaft and comprising a guide member and at least one claw clutch for selectively engaging or disengaging with the first clutch member and thereby engaging or disengaging the gear wheel from rotating along with the gear shaft; characterised by a gear shifter engaging with the guide member of the axially slidable driving ring and being configured for axially sliding the second clutch member on the gear shaft, wherein the gear shifter comprises an axial cam arranged on a gear shifter axle being mounted in the gear support construction and having an axis of symmetry extending parallel with the gear shaft, and so that the guide member on the axially slidable driving ring engages with the axial cam. a gear support construction; at least one gear shaft rotatably supported by the gear support construction and having at least one spline; at least one gear wheel rotatably arranged on the gear shaft; a first clutch member being attached to the gear wheel and rotatably arranged on the gear shaft; a second clutch member comprising a driving ring being fixed against rotation about and slidably arranged on the gear shaft and comprising a guide member and at least one claw clutch for selectively engaging or disengaging with the first clutch member and thereby engaging or disengaging the gear wheel from rotating along with the gear shaft; characterised by a gear shifter engaging with the guide member of the axially slidable driving ring and being configured for axially sliding the second clutch member on the gear shaft, wherein the gear shifter comprises an axial cam arranged on a gear shifter axle being mounted in the gear support construction and having an axis of symmetry extending parallel with the gear shaft, and so that the guide member on the axially slidable driving ring engages with the axial cam.
Body part for a motor vehicle, comprising: - a transparent or translucent element comprising a first surface intended to be turned outwards of the vehicle, and a second surface opposite to the first surface , said second surface comprising at least one relief area and a non-relief area ; - at least one first coating being at least partly absent from the relief area and covering the non-relief area of the transparent or translucent element ; characterized in that it includes: - at least one second coating covering the first coating and the relief area , the second coating having a colour different from the colour of the first coating . - a transparent or translucent element comprising a first surface intended to be turned outwards of the vehicle, and a second surface opposite to the first surface , said second surface comprising at least one relief area and a non-relief area ; - at least one first coating being at least partly absent from the relief area and covering the non-relief area of the transparent or translucent element ; characterized in that it includes: - at least one second coating covering the first coating and the relief area , the second coating having a colour different from the colour of the first coating . - at least one second coating covering the first coating and the relief area , the second coating having a colour different from the colour of the first coating .
Method for compressed air blasting using at least one solid blasting agent in order to treat at least one surface , in particular in order to clean the at least one surface from contamination , wherein at least one lightweight granulate with lightweight granulate particles is used as the at least one solid blasting agent, wherein the lightweight granulate particles are expanded particles, wherein at least the lightweight granulate particles are suctioned off and recycled after they have struck the at least one surface , characterised in that the at least one lightweight granulate comprises closed-cell expanded perlite sand , wherein a predominant proportion of the suctioned-off lightweight granulate particles is undestroyed. wherein at least the lightweight granulate particles are suctioned off and recycled after they have struck the at least one surface , characterised in that the at least one lightweight granulate comprises closed-cell expanded perlite sand , wherein a predominant proportion of the suctioned-off lightweight granulate particles is undestroyed.
A method for imaging in real time the propagation of a mechanical wave (W1, W2) in an acoustically propagative medium and in non-clinical settings, wherein it comprises steps of: a) emitting of a mechanical wave (W1, W2) in an acoustically propagative medium , using an acoustic source being placed in an emission region of the acoustically propagative medium , b) measuring voltage signal waveform values at a reception region , using an acoustic measurement unit , said acoustic measurement unit including a sensor array comprising an array of individual sensors arranged along an orientation axis (Y11), and being placed at the reception region , said measurement comprising the simultaneous acquisition, by at least a sub-group of the sensors of the sensor array , of voltage signal waveform values at the reception region , for successive instants in time, c) calculating acoustic field values in the acoustically propagative medium , between the emission region and the reception region , using a reconstruction algorithm implemented in a signal processing unit , and the signal waveform values measured during step b), d) generating an image, using an image generation device and using the calculated acoustic field values. a) emitting of a mechanical wave (W1, W2) in an acoustically propagative medium , using an acoustic source being placed in an emission region of the acoustically propagative medium , b) measuring voltage signal waveform values at a reception region , using an acoustic measurement unit , said acoustic measurement unit including a sensor array comprising an array of individual sensors arranged along an orientation axis (Y11), and being placed at the reception region , said measurement comprising the simultaneous acquisition, by at least a sub-group of the sensors of the sensor array , of voltage signal waveform values at the reception region , for successive instants in time, c) calculating acoustic field values in the acoustically propagative medium , between the emission region and the reception region , using a reconstruction algorithm implemented in a signal processing unit , and the signal waveform values measured during step b), d) generating an image, using an image generation device and using the calculated acoustic field values.
Method for determining the position and/or orientation of a spectacle lens having permanent marks on a holder , comprising: providing a detected apparent location of the permanent marks on the spectacle lens , determining the position and/or orientation of the spectacle lens on the basis of the apparent location of the permanent marks and mark-independent additional information, wherein the apparent location of the permanent marks differs from a real location of the permanent marks on account of light refraction by the spectacle lens, characterized by detecting the apparent location of the permanent marks on the spectacle lens , eccentrically illuminating the spectacle lens , detecting a location of at least one reflection (40A to 40F; 60A to 60F) caused by the eccentrically illuminating process on the spectacle lens, wherein the mark-independent additional information comprises the apparent location of the at least one reflection. providing a detected apparent location of the permanent marks on the spectacle lens , determining the position and/or orientation of the spectacle lens on the basis of the apparent location of the permanent marks and mark-independent additional information, wherein the apparent location of the permanent marks differs from a real location of the permanent marks on account of light refraction by the spectacle lens, characterized by detecting the apparent location of the permanent marks on the spectacle lens , eccentrically illuminating the spectacle lens , detecting a location of at least one reflection (40A to 40F; 60A to 60F) caused by the eccentrically illuminating process on the spectacle lens, wherein the mark-independent additional information comprises the apparent location of the at least one reflection.
A method of wireless communication by a user equipment, UE, comprising: receiving , from a base station, a plurality of channel state information reference signals, CSI-RS, through a plurality of beams transmitted by the base station, each of the plurality of beams corresponding to a respective antenna port of a plurality of antenna ports of the base station, the plurality of beams include a first number of beams; receiving through radio resource control, RRC, signaling or a physical downlink control channel, PDCCH, from the base station an indication of a second number of beams out of the received plurality of beams about which CSI-RS information should be fed back to the base station, wherein the second number of beams is less than the first number of beams; performing wideband channel estimation and selecting one or more beams based on the wideband channel estimation, and then performing narrowband channel estimation for each beam of the selected one or more beams and selecting one or more resource blocks based on the narrowband channel estimation from the plurality of antenna ports based on the plurality of CSI-RS; and transmitting, to the base station, a feedback signal including the CSI-RS information about the selected one or more beams, and the selected one or more resource blocks. receiving , from a base station, a plurality of channel state information reference signals, CSI-RS, through a plurality of beams transmitted by the base station, each of the plurality of beams corresponding to a respective antenna port of a plurality of antenna ports of the base station, the plurality of beams include a first number of beams; receiving through radio resource control, RRC, signaling or a physical downlink control channel, PDCCH, from the base station an indication of a second number of beams out of the received plurality of beams about which CSI-RS information should be fed back to the base station, wherein the second number of beams is less than the first number of beams; performing wideband channel estimation and selecting one or more beams based on the wideband channel estimation, and then performing narrowband channel estimation for each beam of the selected one or more beams and selecting one or more resource blocks based on the narrowband channel estimation from the plurality of antenna ports based on the plurality of CSI-RS; and transmitting, to the base station, a feedback signal including the CSI-RS information about the selected one or more beams, and the selected one or more resource blocks.
Fiber optic high-security network for connecting a plurality of security-critical computers or other communication devices of a country whose communication capability is to be ensured, comprising: Fibers of the fiber optic high security network laid parallel to fibers of a fiber optic basic network formed of fiber optic cables laid along rails of a rail network in cable guide systems of the rail network already existing at the time of laying the fibers, thus forming a fiber optic base network laid along rails interconnecting localities within which rails of the rail network lie, wherein the fiber optic base network is part of a publicly accessible telecommunications network, and wherein further the fiber optic high security network is not part of a publicly accessible telecommunications network. Fibers of the fiber optic high security network laid parallel to fibers of a fiber optic basic network formed of fiber optic cables laid along rails of a rail network in cable guide systems of the rail network already existing at the time of laying the fibers, thus forming a fiber optic base network laid along rails interconnecting localities within which rails of the rail network lie, wherein the fiber optic base network is part of a publicly accessible telecommunications network, and wherein further the fiber optic high security network is not part of a publicly accessible telecommunications network.
A method for generating an image that depicts blood flow in a subject's vasculature using an ultrasound imaging system, the steps of the method comprising: (a) acquiring ultrasound signal data from a field-of-view in a subject; (b) dividing the acquired ultrasound data into a plurality of ultrasound data submatrices each corresponding to a subvolume of the field-of-interest; (c) performing a low-rank matrix decomposition on each ultrasound data submatrix, thereby generating decomposed data that includes decomposed matrix values for each ultrasound data submatrix; (d) estimating at least one of a low-order cutoff value based on the decomposed data or a high-order cutoff value based on the decomposed data, wherein the low-order cutoff value differentiates signals attributable to tissue from signals attributable to blood flow and the high-order cutoff value differentiates signals attributable to blood flow from signal attributable to noise; (e) extracting signals that are attributable to blood flow in the subject's vasculature from each ultrasound data submatrix using the at least one of the low-order cutoff value or high-order cutoff value; and (f) combining the extracted signals to generate an image that depicts blood flow in the subject's vasculature in the field-of-view. (a) acquiring ultrasound signal data from a field-of-view in a subject; (b) dividing the acquired ultrasound data into a plurality of ultrasound data submatrices each corresponding to a subvolume of the field-of-interest; (c) performing a low-rank matrix decomposition on each ultrasound data submatrix, thereby generating decomposed data that includes decomposed matrix values for each ultrasound data submatrix; (d) estimating at least one of a low-order cutoff value based on the decomposed data or a high-order cutoff value based on the decomposed data, wherein the low-order cutoff value differentiates signals attributable to tissue from signals attributable to blood flow and the high-order cutoff value differentiates signals attributable to blood flow from signal attributable to noise; (e) extracting signals that are attributable to blood flow in the subject's vasculature from each ultrasound data submatrix using the at least one of the low-order cutoff value or high-order cutoff value; and (f) combining the extracted signals to generate an image that depicts blood flow in the subject's vasculature in the field-of-view.
A datacenter owned by a mobile virtual network operator, MVNO, and comprising: a gateway configured to connect first wireless communication facilities owned by a first mobile network operator, first MNO, and second wireless communication facilities owned by a second mobile network operator, second MNO; and a processor configured to construct a virtual core network , wherein the virtual core network implemented within the datacenter provides mobile communication functions by using the first and second wireless communication facilities connected via the gateway ; wherein the gateway is configured to: terminate a bearer related to communication from one of the mobile terminals to be connected to the virtual core network via the first wireless communication facilities ; terminate a bearer related to communication from one of the mobile terminals to be connected to the virtual core network via the second wireless communication facilities ; and transfer traffic from the first wireless communication facilities and the second wireless communication facilities through the terminated bearers to the constructed virtual core network of the MVNO. a gateway configured to connect first wireless communication facilities owned by a first mobile network operator, first MNO, and second wireless communication facilities owned by a second mobile network operator, second MNO; and a processor configured to construct a virtual core network , wherein the virtual core network implemented within the datacenter provides mobile communication functions by using the first and second wireless communication facilities connected via the gateway ; wherein the gateway is configured to: terminate a bearer related to communication from one of the mobile terminals to be connected to the virtual core network via the first wireless communication facilities ; terminate a bearer related to communication from one of the mobile terminals to be connected to the virtual core network via the second wireless communication facilities ; and transfer traffic from the first wireless communication facilities and the second wireless communication facilities through the terminated bearers to the constructed virtual core network of the MVNO. terminate a bearer related to communication from one of the mobile terminals to be connected to the virtual core network via the first wireless communication facilities ; terminate a bearer related to communication from one of the mobile terminals to be connected to the virtual core network via the second wireless communication facilities ; and transfer traffic from the first wireless communication facilities and the second wireless communication facilities through the terminated bearers to the constructed virtual core network of the MVNO.