mhurhangee/patent-ind-claim-en huggingface dataset:
A crystalline material processing method comprising: supplying emissions of a laser focused within an interior of a crystalline material of a substrate , and effecting relative lateral movement between the laser and the substrate , to form subsurface laser damage having a first subsurface laser damage pattern comprising a first plurality of substantially parallel lines ; and following formation of the first subsurface laser damage pattern, supplying laser emissions focused within the interior of the crystalline material , and effecting relative lateral movement between the laser and the substrate , to form subsurface laser damage having a second subsurface laser damage pattern comprising a second plurality of substantially parallel lines ; wherein the first subsurface laser damage pattern forms a first plurality of cracks in the interior of the crystalline material propagating laterally outward from lines of the first plurality of substantially parallel lines ; wherein the second subsurface laser damage pattern forms a second plurality of cracks in the interior of the crystalline material propagating laterally outward from lines of the second plurality of substantially parallel lines ; wherein lines of the second plurality of substantially parallel lines are interspersed among lines of the first plurality of substantially parallel lines ; and wherein at least some lines of the second plurality of substantially parallel lines do not cross any lines of the first plurality of substantially parallel lines . supplying emissions of a laser focused within an interior of a crystalline material of a substrate , and effecting relative lateral movement between the laser and the substrate , to form subsurface laser damage having a first subsurface laser damage pattern comprising a first plurality of substantially parallel lines ; and following formation of the first subsurface laser damage pattern, supplying laser emissions focused within the interior of the crystalline material , and effecting relative lateral movement between the laser and the substrate , to form subsurface laser damage having a second subsurface laser damage pattern comprising a second plurality of substantially parallel lines ; wherein the first subsurface laser damage pattern forms a first plurality of cracks in the interior of the crystalline material propagating laterally outward from lines of the first plurality of substantially parallel lines ; wherein the second subsurface laser damage pattern forms a second plurality of cracks in the interior of the crystalline material propagating laterally outward from lines of the second plurality of substantially parallel lines ; wherein lines of the second plurality of substantially parallel lines are interspersed among lines of the first plurality of substantially parallel lines ; and wherein at least some lines of the second plurality of substantially parallel lines do not cross any lines of the first plurality of substantially parallel lines .
A contact angle measurement system comprising: a housing ; a rock sample holder positioned within the housing, the holder configured to support a rock sample whose contact angle is to be measured; and a fluid dropper attached to the housing, the fluid dropper positioned relative to the holder to drop a fluid droplet on the rock sample when the rock sample is supported by the holder , the system being characterised in that it comprises a sonicator attached to the housing, the sonicator configured to generate a sound wave, the housing configured to transmit the sound wave to the fluid droplet on the rock sample, the sound wave configured to sonically remove the fluid droplet from the rock sample. a housing ; a rock sample holder positioned within the housing, the holder configured to support a rock sample whose contact angle is to be measured; and a fluid dropper attached to the housing, the fluid dropper positioned relative to the holder to drop a fluid droplet on the rock sample when the rock sample is supported by the holder , the system being characterised in that it comprises a sonicator attached to the housing, the sonicator configured to generate a sound wave, the housing configured to transmit the sound wave to the fluid droplet on the rock sample, the sound wave configured to sonically remove the fluid droplet from the rock sample.
A packet transmission method, applied to a first proxy node, wherein the method comprises: receiving a first packet, wherein the first packet comprises a segment routing header, SRH, and a destination address of the first packet is an endpoint dynamic proxy segment identifier, SID; generating a second packet based on the endpoint dynamic proxy SID, the first packet, and a first bypass SID corresponding to a second proxy node, wherein the second packet comprises the first bypass SID, control information, and the SRH of the first packet, the first bypass SID is used to identify that a destination node of the second packet is the second proxy node, the control information is used to indicate the second proxy node to store the SRH of the first packet, and the second proxy node and the first proxy node are connected to a same service function node; and sending the second packet to the second proxy node. receiving a first packet, wherein the first packet comprises a segment routing header, SRH, and a destination address of the first packet is an endpoint dynamic proxy segment identifier, SID; generating a second packet based on the endpoint dynamic proxy SID, the first packet, and a first bypass SID corresponding to a second proxy node, wherein the second packet comprises the first bypass SID, control information, and the SRH of the first packet, the first bypass SID is used to identify that a destination node of the second packet is the second proxy node, the control information is used to indicate the second proxy node to store the SRH of the first packet, and the second proxy node and the first proxy node are connected to a same service function node; and sending the second packet to the second proxy node.
A controller for a wind turbine having three rotor blades, the controller being for adjusting pitch of the three rotor blades , the controller being configured to: receive sensor data, from a flap loading sensor of each of the three rotor blades , indicative of flap loading on each of the respective rotor blades , and obtain, based on the received sensor data, a flap loading vector in a rotor coordinate frame of the wind turbine ; apply an m-blade coordinate transformation to the flap loading vector to obtain first and second mutually orthogonal components in a fixed coordinate frame of the wind turbine ; determine first and second 3P components in the fixed coordinate frame based on the obtained first and second components, the first and second 3P components being indicative of 3P frequency content of a tower of the wind turbine ; apply, using a gain-scheduled control module of the controller , a control action to the first and second 3P components to obtain respective first and second 3P control components for mitigating the 3P frequency content of the tower , wherein an activation gain for the control action is determined by the gain-scheduled control module based on a comparison of the 3P frequency to a natural frequency of the tower ; apply an inverse m-blade coordinate transformation to the first and second 3P control components to obtain pitch reference offset values for the respective rotor blades in the rotor coordinate frame; and, transmit a control signal to adjust pitch of the rotor blades based on the obtained pitch reference offset values. receive sensor data, from a flap loading sensor of each of the three rotor blades , indicative of flap loading on each of the respective rotor blades , and obtain, based on the received sensor data, a flap loading vector in a rotor coordinate frame of the wind turbine ; apply an m-blade coordinate transformation to the flap loading vector to obtain first and second mutually orthogonal components in a fixed coordinate frame of the wind turbine ; determine first and second 3P components in the fixed coordinate frame based on the obtained first and second components, the first and second 3P components being indicative of 3P frequency content of a tower of the wind turbine ; apply, using a gain-scheduled control module of the controller , a control action to the first and second 3P components to obtain respective first and second 3P control components for mitigating the 3P frequency content of the tower , wherein an activation gain for the control action is determined by the gain-scheduled control module based on a comparison of the 3P frequency to a natural frequency of the tower ; apply an inverse m-blade coordinate transformation to the first and second 3P control components to obtain pitch reference offset values for the respective rotor blades in the rotor coordinate frame; and, transmit a control signal to adjust pitch of the rotor blades based on the obtained pitch reference offset values.
A fluid guide plate , applicable in a plate heat exchanger, the fluid guide plate comprising: a first heat exchanging surface and a second heat exchanging surface correspondingly disposed at one side of the fluid guide plate ; and a plurality of heat exchanging portions , formed by recessing the first heat exchanging surface towards the second heat exchanging surface and disposed in protrusion at the second heat exchanging surface , each of the heat exchanging portions having a polygonal planar contour; characterized by that, the heat exchanging portions are arranged to form a first guide group at an upper portion of the fluid guide plate and a second guide group at a lower portion of the fluid guide plate , and wherein the heat exchanging portions of the first guide group and the heat exchanging portions of the second guide group are in a staggered arrangement. a first heat exchanging surface and a second heat exchanging surface correspondingly disposed at one side of the fluid guide plate ; and a plurality of heat exchanging portions , formed by recessing the first heat exchanging surface towards the second heat exchanging surface and disposed in protrusion at the second heat exchanging surface , each of the heat exchanging portions having a polygonal planar contour; characterized by that, the heat exchanging portions are arranged to form a first guide group at an upper portion of the fluid guide plate and a second guide group at a lower portion of the fluid guide plate , and wherein the heat exchanging portions of the first guide group and the heat exchanging portions of the second guide group are in a staggered arrangement.
A hydraulic tank for storing a hydraulic fluid with a one-piece tank housing that forms a hollow plastic body and is produced in a rotational molding process, wherein the tank housing has at least one connection opening , on which a connection element is arranged that can be separably connected to a hydraulic line, characterized in that the connection element has a plastic body that is produced in an injection molding process and welded to the tank housing .
An apparatus for generating a registered certified seal, the apparatus comprising at least one processor, and at least one memory having computer coded instructions therein, with the computer coded instructions configured to, when executed by the processor, cause the apparatus to: receive a request to generate a certified seal from an entity , wherein the request comprises a digitally signed entity certifying certificate comprising a public key of a public key-private key pair; access certifier entity data of a certification authority identified by the digitally signed entity certifying certificate; verify the digitally signed entity certifying certificate based at least in part on the certifier entity data associated with the digitally signed entity certifying certificate and accessed from the certification authority; upon verifying the digitally signed entity certifying certificate, receive seal data comprising a seal data key for the certified seal; save the seal data for the entity within a digital seal registry , wherein the digital seal registry is searchable based at least in part on at least a portion of the seal data key; receive a request to verify a sealed asset , wherein the sealed asset is generated by the entity and identifies the seal data key; query the digital seal registry based at least in part on the seal data key; and verify the sealed asset based at least in part on the seal data key. receive a request to generate a certified seal from an entity , wherein the request comprises a digitally signed entity certifying certificate comprising a public key of a public key-private key pair; access certifier entity data of a certification authority identified by the digitally signed entity certifying certificate; verify the digitally signed entity certifying certificate based at least in part on the certifier entity data associated with the digitally signed entity certifying certificate and accessed from the certification authority; upon verifying the digitally signed entity certifying certificate, receive seal data comprising a seal data key for the certified seal; save the seal data for the entity within a digital seal registry , wherein the digital seal registry is searchable based at least in part on at least a portion of the seal data key; receive a request to verify a sealed asset , wherein the sealed asset is generated by the entity and identifies the seal data key; query the digital seal registry based at least in part on the seal data key; and verify the sealed asset based at least in part on the seal data key.
A recombinant nucleic acid molecule comprising a heterologous promoter operably linked to a polynucleotide segment encoding a pesticidal protein, wherein: said pesticidal protein comprises the amino acid sequence of SEQ ID NOs: 10, 31 or 47 or said polynucleotide segment comprises SEQ ID NOs: 9, 30 or 46. said pesticidal protein comprises the amino acid sequence of SEQ ID NOs: 10, 31 or 47 or said polynucleotide segment comprises SEQ ID NOs: 9, 30 or 46.
A method comprising: accessing (S410) context information associated with a mobile device , wherein the context information is derived from one or more mobile device hardware sensors, the method further comprising: identifying (S412), using the context information , a first inferred context of the mobile device for a first time period to create first inferred calendar information ; accessing (S420) first raw calendar data (312-316) associated with a user of the mobile device and the first time period, wherein: the raw calendar data includes descriptions of events associated with a particular time; the descriptions of events include labels; and the labels are identifying information for identifying people, places, or activities associated with the particular time; identifying (S422) from the first raw calendar data (312-316), a first label from a plurality of labels in the first raw calendar data (312-316); matching (S430) the first label and the first inferred context by verifying that the first label is consistent with the first inferred context ; associating (S432) the context information and the first label based on the matching of the first label and the first inferred context ; and updating (S434) the mobile device based on the association of the context information and the first label and based on the match of the first label and the first inferred context . identifying (S412), using the context information , a first inferred context of the mobile device for a first time period to create first inferred calendar information ; accessing (S420) first raw calendar data (312-316) associated with a user of the mobile device and the first time period, wherein: the raw calendar data includes descriptions of events associated with a particular time; the descriptions of events include labels; and the labels are identifying information for identifying people, places, or activities associated with the particular time; the raw calendar data includes descriptions of events associated with a particular time; the descriptions of events include labels; and the labels are identifying information for identifying people, places, or activities associated with the particular time; identifying (S422) from the first raw calendar data (312-316), a first label from a plurality of labels in the first raw calendar data (312-316); matching (S430) the first label and the first inferred context by verifying that the first label is consistent with the first inferred context ; associating (S432) the context information and the first label based on the matching of the first label and the first inferred context ; and updating (S434) the mobile device based on the association of the context information and the first label and based on the match of the first label and the first inferred context .
A movement device for moving roller boxes, comprising: a support frame , movable along a vertical direction; a conveyor plane , solidly constrained to the support frame with respect to the movement in the vertical direction and movable with respect to the support frame along a horizontal transversal direction (X), wherein the conveyor plane is predisposed to translate objects (O) along a horizontal conveying direction (Y); two operating stations (P1, P2) flanked to one another, each of which is structured to house a roller box (B1, B2); characterised in that : it comprises a main arm , solidly constrained to the support frame , which is provided with spindles (S) rotating about rotation axes that are coplanar, horizontal and perpendicular to the conveying direction (Y); the main arm is movable along the transversal direction (X) between a first operating position and a second operating position; in the first operating position, the main arm is moved towards a first operating station (P1) so as to be able to engage with the rollers of a shelf of a first roller box (B1); in the second operating position, the main arm is moved towards a second operating station (P2), so as to be able to engage with the rollers of a shelf of a second roller box (B2). a support frame , movable along a vertical direction; a conveyor plane , solidly constrained to the support frame with respect to the movement in the vertical direction and movable with respect to the support frame along a horizontal transversal direction (X), wherein the conveyor plane is predisposed to translate objects (O) along a horizontal conveying direction (Y); two operating stations (P1, P2) flanked to one another, each of which is structured to house a roller box (B1, B2); characterised in that : it comprises a main arm , solidly constrained to the support frame , which is provided with spindles (S) rotating about rotation axes that are coplanar, horizontal and perpendicular to the conveying direction (Y); the main arm is movable along the transversal direction (X) between a first operating position and a second operating position; in the first operating position, the main arm is moved towards a first operating station (P1) so as to be able to engage with the rollers of a shelf of a first roller box (B1); in the second operating position, the main arm is moved towards a second operating station (P2), so as to be able to engage with the rollers of a shelf of a second roller box (B2). it comprises a main arm , solidly constrained to the support frame , which is provided with spindles (S) rotating about rotation axes that are coplanar, horizontal and perpendicular to the conveying direction (Y); the main arm is movable along the transversal direction (X) between a first operating position and a second operating position; in the first operating position, the main arm is moved towards a first operating station (P1) so as to be able to engage with the rollers of a shelf of a first roller box (B1); in the second operating position, the main arm is moved towards a second operating station (P2), so as to be able to engage with the rollers of a shelf of a second roller box (B2).
A chip support comprising: - a support body element , such as a card body, comprising a printed circuit , - a photovoltaic sensor at least partially transparent to visible light, extending at least partially over one face of the support body element and being electrically connected to the printed circuit by an electrical connection; - a layer or sheet of material opaque to visible light, characterised in that the layer or sheet of material opaque to visible light is located between the printed circuit and the photovoltaic sensor and at least partially masking the printed circuit, and in that said electrical connection extends through an opening in the opaque sheet or layer. - a support body element , such as a card body, comprising a printed circuit , - a photovoltaic sensor at least partially transparent to visible light, extending at least partially over one face of the support body element and being electrically connected to the printed circuit by an electrical connection; - a layer or sheet of material opaque to visible light, characterised in that the layer or sheet of material opaque to visible light is located between the printed circuit and the photovoltaic sensor and at least partially masking the printed circuit,
A method for processing a radio resource control, RRC, signaling, comprising: establishing (S103; S206; S306; S403), by a user equipment with a base station, a signaling radio bearer, SRB only between the user equipment and the base station; wherein the user equipment is served in cell aggregation of the base station and another base station, a protocol stack of the another base station only having one RRC entity; receiving (S103; S206; S306; S403), by the user equipment from the base station, a RRC reconfiguration message on the SRB only between the user equipment and the base station, wherein the RRC reconfiguration message comprises a configuration parameter generated by the one RRC entity of the another base station. establishing (S103; S206; S306; S403), by a user equipment with a base station, a signaling radio bearer, SRB only between the user equipment and the base station; wherein the user equipment is served in cell aggregation of the base station and another base station, a protocol stack of the another base station only having one RRC entity; receiving (S103; S206; S306; S403), by the user equipment from the base station, a RRC reconfiguration message on the SRB only between the user equipment and the base station, wherein the RRC reconfiguration message comprises a configuration parameter generated by the one RRC entity of the another base station.
A sweeping bucket by which a plurality of different waste products deposited on a base or a wall can be picked up and transported, comprising a ramp which acts as a filling funnel and can be used, characterised in that the ramp is integrally formed in regions on the sweeping bucket and in that the outer wall of the sweeping bucket and the ramp extend at an angle (α) of 110° to 170° to one another, a material accumulation of the sweeping bucket below the central plane being designed to be greater than a material accumulation of the sweeping bucket and of the ramp above the central plane .
A system for authorising the use of a vehicle comprising a sharing box intended to be mounted in said vehicle, means of connecting said box to means to accredit ignition keys, such accreditation means being specific to the vehicle, preferably via a CAN software bus , preferably accessible via an OBD port , and, means of recognizing the presence of an authorised user , said box comprising means of memory for storing the identification parameters of a shared key and means of authorising the use of a shared key by said user, characterised in that the means of authorising the use of the key comprise means of saving the identification parameters of the key in said means of accreditation when the use of the shared key is authorised and in order to delete the identification parameters of the key in said means of accreditation, when the use of the shared key is prohibited.