mhurhangee/patent-ind-claim-en huggingface dataset:
A self-aligning roller bearing configured to support a main shaft of a wind power generator, the self-aligning roller bearing comprising: an inner ring ; an outer ring ; two rows of rollers interposed between a raceway surface of the inner ring and a raceway surface of the outer ring ; and a retainer configured to retain the respective rows of the rollers , wherein the raceway surface of the outer ring has a spherical shape continuously extending over the two rows of the rollers , each of the rollers having an outer peripheral surface having a cross-sectional shape matching the raceway surface of the outer ring , each of the rollers has a DLC coating having a multilayer structure on the outer peripheral surface, the DLC coating has a film thickness of 2.0 μm or larger, a base layer directly formed on the surfaces of the rollers and mainly containing Cr and WC, a mixed layer formed on the base layer and mainly containing WC and DLC, and a top layer formed on the mixed layer and mainly containing DLC, the top layer includes a gradient layer portion which is located adjacent to the mixed layer and has continuously or stepwisely increasing hardness from the side of the mixed layer , a base material of each of the rollers has an external surface having a surface roughness of Ra ≤ 0.3 and RΔq ≤ 0.05, and the DLC coating having the multilayer structure includes layers having stepwisely increasing film hardnesses such that a layer situated closer to outside has a higher hardness. an inner ring ; an outer ring ; two rows of rollers interposed between a raceway surface of the inner ring and a raceway surface of the outer ring ; and a retainer configured to retain the respective rows of the rollers , wherein the raceway surface of the outer ring has a spherical shape continuously extending over the two rows of the rollers , each of the rollers having an outer peripheral surface having a cross-sectional shape matching the raceway surface of the outer ring , each of the rollers has a DLC coating having a multilayer structure on the outer peripheral surface, the DLC coating has a film thickness of 2.0 μm or larger, a base layer directly formed on the surfaces of the rollers and mainly containing Cr and WC, a mixed layer formed on the base layer and mainly containing WC and DLC, and a top layer formed on the mixed layer and mainly containing DLC, the top layer includes a gradient layer portion which is located adjacent to the mixed layer and has continuously or stepwisely increasing hardness from the side of the mixed layer , a base material of each of the rollers has an external surface having a surface roughness of Ra ≤ 0.3 and RΔq ≤ 0.05, and the DLC coating having the multilayer structure includes layers having stepwisely increasing film hardnesses such that a layer situated closer to outside has a higher hardness.
A method for recovering a radio resource control, RRC, connection from an RRC inactive state in multi-radio access type, RAT, dual connectivity, DC, MR-DC, mode, comprising: receiving , by a terminal in a multi-radio access type, RAT, mode, a paging message triggered by a first node or a second node; determining , by a terminal, whether downlink data from a master node, MN, side arrives or downlink data from a secondary node, SN, side arrives based on first information included in the paging message, wherein the first node is an MN, the second node is an SN, the MN and the SN are part of a DC architecture and adopt different RATs; and sending , by the terminal, an RRC connection recovery message to a third node, wherein the third node is a target node, and the RRC connection recovery message includes second information and the second information is configured for the third node to determine whether the third node is an MN or an SN to correspondingly execute a key and a signaling radio bearer, SRB, recovery process on the MN side or execute a key and a SRB recovery process on the SN side. receiving , by a terminal in a multi-radio access type, RAT, mode, a paging message triggered by a first node or a second node; determining , by a terminal, whether downlink data from a master node, MN, side arrives or downlink data from a secondary node, SN, side arrives based on first information included in the paging message, wherein the first node is an MN, the second node is an SN, the MN and the SN are part of a DC architecture and adopt different RATs; and sending , by the terminal, an RRC connection recovery message to a third node, wherein the third node is a target node, and the RRC connection recovery message includes second information and the second information is configured for the third node to determine whether the third node is an MN or an SN to correspondingly execute a key and a signaling radio bearer, SRB, recovery process on the MN side or execute a key and a SRB recovery process on the SN side.
A method for generating a dynamic magnetic resonance, MR, image associated with at least one object, comprising: acquiring radial data based on a golden-angle procedure, wherein the radial data comprises a plurality of radial lines; sorting the acquired radial data into at least one time-series having a different arbitrary temporal resolution, for each temporal frame, using a specific number of radial lines for each temporal frame, wherein the arbitrary temporal resolution is based on a particular number of consecutive ones of the radial lines; and using a computer arrangement, generating the dynamic MR image for each temporal frame using a combined compressed sensing procedure and parallel imaging procedure based on the sorted data. acquiring radial data based on a golden-angle procedure, wherein the radial data comprises a plurality of radial lines; sorting the acquired radial data into at least one time-series having a different arbitrary temporal resolution, for each temporal frame, using a specific number of radial lines for each temporal frame, wherein the arbitrary temporal resolution is based on a particular number of consecutive ones of the radial lines; and using a computer arrangement, generating the dynamic MR image for each temporal frame using a combined compressed sensing procedure and parallel imaging procedure based on the sorted data.
A method for improving security of secure socket layer, SSL, communication, the method comprising: determining, by a device intermediary to a plurality of agents and one or more servers, a configuration change associated with a virtual server executing on the device , the virtual server configured as a named entity of the device that at least one agent of the plurality of agents uses to access applications hosted on a server of the one or more servers; generating, by the device , responsive to determining the configuration change associated with the virtual server, a service fingerprint for the virtual server, the service fingerprint including a domain name service, DNS, alias for a virtual internet protocol, IP, address of the virtual server, a port number of the virtual server serving a secure socket layer, SSL, certificate of the virtual server, an IP address of the virtual server and the SSL certificate of the virtual server; transmitting, by the device , the generated service fingerprint to a web service to identify whether the device is under attack; and receiving, by the device from the web service , a notification that the device is under attack, responsive to the web service comparing the generated service fingerprint with data received by the web service from an agent and responsive to the web service determining that i) the SSL certificate does not match a second SSL certificate received from the agent that attempted to establish a secure connection with the virtual server, or ii) that the IP address of the virtual server does not match a second IP address received from the agent. determining, by a device intermediary to a plurality of agents and one or more servers, a configuration change associated with a virtual server executing on the device , the virtual server configured as a named entity of the device that at least one agent of the plurality of agents uses to access applications hosted on a server of the one or more servers; generating, by the device , responsive to determining the configuration change associated with the virtual server, a service fingerprint for the virtual server, the service fingerprint including a domain name service, DNS, alias for a virtual internet protocol, IP, address of the virtual server, a port number of the virtual server serving a secure socket layer, SSL, certificate of the virtual server, an IP address of the virtual server and the SSL certificate of the virtual server; transmitting, by the device , the generated service fingerprint to a web service to identify whether the device is under attack; and receiving, by the device from the web service , a notification that the device is under attack, responsive to the web service comparing the generated service fingerprint with data received by the web service from an agent and responsive to the web service determining that i) the SSL certificate does not match a second SSL certificate received from the agent that attempted to establish a secure connection with the virtual server, or ii) that the IP address of the virtual server does not match a second IP address received from the agent.
An entrainment unit for a rotary conveyor comprising an entrainment finger as an entrainment means for conveyed material and a holding body suitable for mounting the entrainment finger to the rotary conveyor , wherein the holding body has an insertion mounting in which the entrainment finger is inserted with an end portion and comprising a securing element which secures the entrainment finger to prevent release from the insertion mounting , wherein the securing element uses a portion arranged eccentrically relative to an axis of the securing element to hold the entrainment finger in the insertion mounting , characterised in that the eccentric portion is a locking portion which engages into a recess in the entrainment finger to lock the entrainment finger in a fixed position in the insertion mounting .
A doctor blade assembly suitable for a rotogravure printing unit, the assembly comprising a doctor blade , doctor blade support means adapted to be connected to a fixed frame of the unit and to permit a reciprocating motion of the blade along a motion axis (X') parallel to the elongation direction of the blade, and drive means functionally linked with the blade to transmit said reciprocating motion thereto, characterized in that the support means comprise a pair of elastically deformable laminar members arranged between respective end regions of said blade and said fixed frame , said members extend over respective planes orthogonal to the motion axis (X') and are arranged to allow said reciprocating motion while blocking the movement of the blade along any direction perpendicular to the motion axis (X').
A wave energy extractor comprising a floating body tethered to an anchor, the floating body comprising a buoyant hull having a wave receiving channel , the wave receiving channel having a sloping base and a wave receiving opening , the sloping base extending from an end wall of the wave receiving channel, both the sloping base and the wave receiving opening being provided between opposing first and second side walls , the wave receiving channel being at least partly defined by the first and second side walls, the sloping base and the end wall, wherein at least part of the sloping base extends beneath a still water surface in a still water rest position, the wave receiving channel being configured such that incoming waves received by the channel through the wave receiving opening cause the floating body to move relative to the anchor to thereby extract wave energy, and wherein the sloping base extends upwards at a mean angle of 10° to 70° relative to the horizontal, when the wave energy extractor is at rest. the floating body comprising a buoyant hull having a wave receiving channel , the wave receiving channel having a sloping base and a wave receiving opening , the sloping base extending from an end wall of the wave receiving channel, both the sloping base and the wave receiving opening being provided between opposing first and second side walls , the wave receiving channel being at least partly defined by the first and second side walls, the sloping base and the end wall, wherein at least part of the sloping base extends beneath a still water surface in a still water rest position, the wave receiving channel being configured such that incoming waves received by the channel through the wave receiving opening cause the floating body to move relative to the anchor to thereby extract wave energy, and wherein the sloping base extends upwards at a mean angle of 10° to 70° relative to the horizontal, when the wave energy extractor is at rest.
Method for treating agricultural process water, wherein said process water is drained from an agricultural installation, wherein said drained process water is exposed during a residence time to an excess of an oxidizing reaction gas in the form of colloidal bubbles that are introduced into said process water for the purpose of decomposing waste products present therein, wherein said oxidizing reaction gas comprises ozone, wherein said process water is exposed to ultraviolet radiation after said residence time, in particular to ultraviolet light with a wavelength of about 254 nm, by which a remainder of said oxidizing reaction gas is at least largely decomposed, and wherein said process water is then redirected back to said agricultural installation.
A security element for a security document, a security paper and the like, wherein the security element has at least one color-shifting thin-layer element with at least one absorber layer , at least one reflector layer and at least one spacer layer arranged between the absorber layer and the reflector layer , wherein the at least one reflector layer has at least one recess , wherein the at least one spacer layer fully covers the at least one absorber layer and the reflector layer on mutually facing sides, wherein the spacer layer also fully covers the at least one recess in the at least one reflector layer , wherein a color shifting element consisting at least of the at least one absorber layer and the at least one spacer layer is formed in a region of the at least one recess , characterized in that the at least one absorber layer of the thin-layer element has at least one first absorber layer , which completely covers the at least one recess of the reflector layer in a plan view of the security element , and at least one second absorber layer , wherein the at least one second absorber layer has first recesses and the at least one reflector layer has second recesses , wherein the at least one second absorber layer is arranged between the at least one reflector layer and the at least one first absorber layer and the at least one spacer layer is arranged between the at least one reflector layer and the at least one first absorber layer and between the at least one reflector layer and the at least one second absorber layer .
Lateral coupling device comprising a first toothed mobile mounted so as to pivot about a first centre (O 3 ) on a mobile support , a second toothed mobile mounted so as to pivot about a second centre (O 5 ) in parallel with the first toothed mobile, and a mechanism arranged to alternately engage and decouple the first and second mobile by producing a movement of the mobile support in a plane perpendicular to the pivoting axes of the first and second toothed mobiles; characterised in that one of the first and second toothed mobiles is a play take-up mobile having a flexible toothing arrangement formed of teeth (11; 111) each having an active flank, an inactive flank and a slot (13; 113) which is open towards the top of the tooth and separates this tooth into a first (11a; 111a) and second (11b; 111b) part, the first part extending between the slot and the active flank and the second part extending between the slot and the inactive flank, the slot being arranged to provide substantially greater elasticity to the second part than to the first part, such that the second part (11b; 111b) is free to flex towards the first part (11a; 111a); and the first part (11a; 111a) of each of the teeth (11; 111) of the play take-up mobile is sufficiently higher than the second part (11b; 111b) such that, when - at the time of coupling - the play take-up mobile is positioned angularly such that, in a frame of reference linked with the play take-up mobile, the penetration path of the tip of one of the teeth of the other mobile of the first and second toothed mobiles into the toothing arrangement of the play take-up mobile intersects with the opening (19; 119) of the slot (13; 113) of one of the teeth (11; 111) of the play take-up mobile, said path likewise intersects with the tip of the first part (11a; 111a) of said tooth of the play take-up mobile.
Method for controlling a start-up process of a vehicle , comprising at least the following steps: a) activating a control sequence (R) and setting a control sequence signal (SR) before a first slip occurs, b) defining a maximum engine drive torque (M4_max) that is less than a maximum engine drive torque when the control sequence is deactivated, c) when a driving request for a start-up process is detected - c1) actuating a clutch-transmission unit with an engagement process duration (tc) greater than a standard engagement process duration (tcs) provided when the control sequence (R) is deactivated, - c2) while controlling wheel slip (ms) of the driven wheels by determining wheel speeds (n4a, n4b) of the driven wheels and at least adjusting an output drive torque (M9) at the output shaft , - c3) redefining the maximum engine drive torque (M4_max) according to the wheel slip (ms) and a driving speed (v), and d) deactivating the control sequence (R) and resetting the control sequence signal (SR) when limit values (μ_tres, v_tres) are reached. a) activating a control sequence (R) and setting a control sequence signal (SR) before a first slip occurs, b) defining a maximum engine drive torque (M4_max) that is less than a maximum engine drive torque when the control sequence is deactivated, c) when a driving request for a start-up process is detected - c1) actuating a clutch-transmission unit with an engagement process duration (tc) greater than a standard engagement process duration (tcs) provided when the control sequence (R) is deactivated, - c2) while controlling wheel slip (ms) of the driven wheels by determining wheel speeds (n4a, n4b) of the driven wheels and at least adjusting an output drive torque (M9) at the output shaft , - c3) redefining the maximum engine drive torque (M4_max) according to the wheel slip (ms) and a driving speed (v), and - c1) actuating a clutch-transmission unit with an engagement process duration (tc) greater than a standard engagement process duration (tcs) provided when the control sequence (R) is deactivated, - c2) while controlling wheel slip (ms) of the driven wheels by determining wheel speeds (n4a, n4b) of the driven wheels and at least adjusting an output drive torque (M9) at the output shaft , - c3) redefining the maximum engine drive torque (M4_max) according to the wheel slip (ms) and a driving speed (v), and d) deactivating the control sequence (R) and resetting the control sequence signal (SR) when limit values (μ_tres, v_tres) are reached.
A bispecific antibody comprising at least one anti-TNF-a antibody or antigen-binding fragment thereof and at least one anti-IL-6 antibody or antigen-binding fragment thereof, wherein the bispecific antibody comprises a chimeric or humanized anti-TNF-a IgG antibody and four chimeric or humanized antigen-binding fragments of the anti-IL-6 antibody, wherein the anti-IL-6 antibody or fragment thereof comprises the heavy chain CDR sequences CDR1 (GFTFSRFGMH, SEQ ID NO:107), CDR2 (YIGRGSSTIYYADTVKG, SEQ ID NO:108) and CDR3 (SNWDGAMDY, SEQ ID NO:109) and the light chain CDR sequences CDR1 (RASGNIHNFLA, SEQ ID NO:110), CDR2 (NAETLAD, SEQ ID NO:111) and CDR3 (QHFWSTPWT, SEQ ID NO:112) and the anti-TNF-a antibody or fragment thereof comprises the heavy chain CDR sequences CDR1 (GFWN, SEQ ID NO:113), CDR2 (YISYSGRTYYNPSLKS, SEQ ID NO:114) and CDR3 (DANYVLDY, SEQ ID NO:115) and the light chain CDR sequences CDR1 (KSSQSLLNSSTQKNYLA, SEQ ID NO:116), CDR2 (FASARES, SEQ ID NO:117) and CDR3 (QQHYRTPFT, SEQ ID NO:118).
A physical vapor deposition (PVD) system, comprising: a vacuum processing chamber comprising: a sputtering target ; a substrate support disposed within the vacuum processing chamber configured to position a substrate proximate to the sputtering target; a deposition shield disposed within the vacuum processing chamber; a processing region disposed within the vacuum processing chamber and bounded by a surface of the target, a surface of the substrate support, and an inner surface of the deposition shield; a coil portion of an electromagnet, wherein the coil portion is disposed within the vacuum processing chamber and outside the processing region; an annular structure on which the coil portion is disposed, wherein the annular structure is disposed within the vacuum processing chamber and outside of the processing region, wherein the annular structure comprises at least one conduit for transmission of a cooling liquid within the annular structure, and a cavity in which the coil portion is disposed, and wherein the at least one conduit is sealed from the coil portion; and a cover plate that fluidly separates the coil portion from a vacuum containing portion of the vacuum processing chamber. a sputtering target ; a substrate support disposed within the vacuum processing chamber configured to position a substrate proximate to the sputtering target; a deposition shield disposed within the vacuum processing chamber; a processing region disposed within the vacuum processing chamber and bounded by a surface of the target, a surface of the substrate support, and an inner surface of the deposition shield; a coil portion of an electromagnet, wherein the coil portion is disposed within the vacuum processing chamber and outside the processing region; an annular structure on which the coil portion is disposed, wherein the annular structure is disposed within the vacuum processing chamber and outside of the processing region, wherein the annular structure comprises at least one conduit for transmission of a cooling liquid within the annular structure, and a cavity in which the coil portion is disposed, and wherein the at least one conduit is sealed from the coil portion; and a cover plate that fluidly separates the coil portion from a vacuum containing portion of the vacuum processing chamber.
A method for analyzing a structure by diffuse acousto-elastic field correlation, an optical fiber comprising a plurality of measurement points, a measurement point comprising one or more sensors of fiber Bragg grating FBG type, the optical fiber being deployed in or on the structure to be analyzed, the method comprising: - the emission of light into the optical fiber; - the interrogation, substantially simultaneously, at least part of pairs of FBG sensors measuring, over time, the acousto-elastic waves at the measurement points; - the determination, by correlation of the acousto-elastic signals, for at least part of the pairs of sensors of fiber Bragg grating FBG type, of the Green's function of the structure. - the emission of light into the optical fiber; - the interrogation, substantially simultaneously, at least part of pairs of FBG sensors measuring, over time, the acousto-elastic waves at the measurement points; - the determination, by correlation of the acousto-elastic signals, for at least part of the pairs of sensors of fiber Bragg grating FBG type, of the Green's function of the structure.