mhurhangee/patent-ind-claim-en huggingface dataset:
A method for constructing a component , comprising: receiving a component template comprising instructions to control the operation of a fused filament fabrication, FFF, device; depositing, by a nozzle of the FFF device, a first layer formed from first parallel abutting laid down extrusions of material in a first orientation according to the component template and second parallel abutting laid down extrusions of material in an orientation different than the first orientation, wherein the first layer is manufactured using multi-directional layering strengthening, wherein depositing the first layer of parallel abutting laid down extrusions is performed using a mandrel , wherein an end of the first parallel abutting laid down extrusions and an end of the second parallel abutting laid down extrusions join at a junction ; and depositing, by the nozzle , a second layer of parallel abutting laid down extrusions of the material in a second orientation according to a first offset angle with respect to the first orientation as provided by the component template , wherein each of the laid down extrusions is expelled from the nozzle . receiving a component template comprising instructions to control the operation of a fused filament fabrication, FFF, device; depositing, by a nozzle of the FFF device, a first layer formed from first parallel abutting laid down extrusions of material in a first orientation according to the component template and second parallel abutting laid down extrusions of material in an orientation different than the first orientation, wherein the first layer is manufactured using multi-directional layering strengthening, wherein depositing the first layer of parallel abutting laid down extrusions is performed using a mandrel , wherein an end of the first parallel abutting laid down extrusions and an end of the second parallel abutting laid down extrusions join at a junction ; and depositing, by the nozzle , a second layer of parallel abutting laid down extrusions of the material in a second orientation according to a first offset angle with respect to the first orientation as provided by the component template , wherein each of the laid down extrusions is expelled from the nozzle .
A transdermal therapeutic system having a system support , having at least one advancing element which is embedded in the system support and having at least one active substance reservoir which is elastically deformable in at least some regions and which is embedded in the advancing element , wherein the system support comprises a bearing surface on an application side of the transdermal therapeutic system which can be faced towards the skin, characterized in that the system support is configured as a concave body which delimits an interior of the system support on five sides, wherein the advancing element which can come into contact with the skin of the patient is disposed in the interior , wherein the active substance reservoir protrudes out of the advancing element from the bearing surface and wherein the advancing element comprises a swelling body which can be expanded by liquid uptake, wherein the system support is configured so as to be resistant to deformation at least in some regions.
An ultrasound system for imaging a volumetric region comprising a region of interest comprising: - a probe suitable for intracavity imaging and having an array of CMUT transducers adapted to steer ultrasound beams in a variable frequency range over the volumetric region; - a beamformer coupled to the array and adapted to control ultrasound beam steering and provide ultrasound image data of the volumetric region; - a transducer frequency controller coupled to the beamformer and adapted in operation to vary operation frequencies of the CMUT transducers within the frequency range; which frequency controller is arranged to set the operation frequency to a first frequency for the ultrasound beam steered in the volumetric region, - an image processor responsive to the ultrasound image data, based on which it is adapted to produce an ultrasound image; - a region of interest, ROI, identifier enabling to identify a region of interest on the basis of the ultrasound image data, and which identifier is adapted to generate identification data indicating the region of interest within the volumetric region; - a drive mechanism coupled to the probe and the ROI identifier which acts to move the probe during operation; wherein the transducer frequency controller is further adapted to change, based on the identification data, the operation frequency to a second frequency for the ultrasound beams steered within the region of interest, the second frequency being higher than the first frequency; and the drive mechanism is adapted to move the probe, based on the identification data, enabling a distance variation between the probe and the ROI. - a probe suitable for intracavity imaging and having an array of CMUT transducers adapted to steer ultrasound beams in a variable frequency range over the volumetric region; - a beamformer coupled to the array and adapted to control ultrasound beam steering and provide ultrasound image data of the volumetric region; - a transducer frequency controller coupled to the beamformer and adapted in operation to vary operation frequencies of the CMUT transducers within the frequency range; which frequency controller is arranged to set the operation frequency to a first frequency for the ultrasound beam steered in the volumetric region, - an image processor responsive to the ultrasound image data, based on which it is adapted to produce an ultrasound image; - a region of interest, ROI, identifier enabling to identify a region of interest on the basis of the ultrasound image data, and which identifier is adapted to generate identification data indicating the region of interest within the volumetric region; - a drive mechanism coupled to the probe and the ROI identifier which acts to move the probe during operation;
An information processing device comprising: a motion control unit that controls a motion of an autonomous mobile object , wherein the autonomous mobile object includes a wheel that can be stored inside a main body and that can be protruded to an outside of the main body, and the motion control unit keeps a standing state by making the wheel protruded to the outside of the main body and performs driving control of the wheel and attitude control of the autonomous mobile object in movement of the autonomous mobile object , and makes the autonomous mobile object remain still in a seated state during a stop thereof by storing the wheel inside the main body, characterized in that the motion control unit performs the attitude control in such a manner that the autonomous mobile object remains inclined forward for an angle θ with respect to a direction perpendicular to a travelling surface in the standing state, the motion control unit performs control in such a manner that a center of gravity of the autonomous mobile object is placed in a vertical direction with respect to a rotation axis of the wheel in the standing state, wherein the motion control unit rotates the wheel , in a transition from the seated state to the standing state, on the basis of an amount of deviation between the center of gravity of the autonomous mobile object in the vertical direction and the rotation axis. a motion control unit that controls a motion of an autonomous mobile object , wherein the autonomous mobile object includes a wheel that can be stored inside a main body and that can be protruded to an outside of the main body, and the motion control unit keeps a standing state by making the wheel protruded to the outside of the main body and performs driving control of the wheel and attitude control of the autonomous mobile object in movement of the autonomous mobile object , and makes the autonomous mobile object remain still in a seated state during a stop thereof by storing the wheel inside the main body, characterized in that the motion control unit performs the attitude control in such a manner that the autonomous mobile object remains inclined forward for an angle θ with respect to a direction perpendicular to a travelling surface in the standing state, the motion control unit performs control in such a manner that a center of gravity of the autonomous mobile object is placed in a vertical direction with respect to a rotation axis of the wheel in the standing state, wherein the motion control unit rotates the wheel , in a transition from the seated state to the standing state, on the basis of an amount of deviation between the center of gravity of the autonomous mobile object in the vertical direction and the rotation axis.
A blowby gas treatment device for an internal combustion engine with a supercharger , the internal combustion engine provided with a supercharger in an upstream side of a throttle valve in an intake passage , the blowby gas treatment device comprising: a fresh air introduction passage wherein one end of the fresh air introduction passage is connected to an upstream side of the supercharger and the other end of the fresh air introduction passage is communicated with a crankcase of the internal combustion engine ; a first blowby gas passage ; a first check valve being interposed in the fresh air introduction passage and preventing a flow from the crankcase side to the intake passage side; and a second check valve being interposed in the first blowby gas passage and preventing a flow from the intake passage side to the crankcase side ; characterized in that one end of the first blowby gas passage is connected to a venturi part provided in an upstream side of the supercharger in the intake passage and the other end of the first blowby gas passage is communicated with the crankcase . a fresh air introduction passage wherein one end of the fresh air introduction passage is connected to an upstream side of the supercharger and the other end of the fresh air introduction passage is communicated with a crankcase of the internal combustion engine ; a first blowby gas passage ; a first check valve being interposed in the fresh air introduction passage and preventing a flow from the crankcase side to the intake passage side; and a second check valve being interposed in the first blowby gas passage and preventing a flow from the intake passage side to the crankcase side ; characterized in that one end of the first blowby gas passage is connected to a venturi part provided in an upstream side of the supercharger in the intake passage and the other end of the first blowby gas passage is communicated with the crankcase .
Method for automated configuration of a communications network comprising multiple virtual local area networks, in which - for each virtual local area network, VLAN, starting from communication terminals (111-112, 121-122, 131-132) on ports of switches (2-3, 110, 120, 130) and/or routers along paths (201-203, 301-306, 401-406, 501-504) assigned to the respective VLAN, a VLAN port operating mode is respectively defined depending on the usage of the respective port by the respective VLAN, - using first VLAN port configuration tags (EOV), VLAN segment boundaries are defined, wherein inbound and outbound frames on the respective port are assigned to the same VLAN, - using second VLAN port configuration tags (VCT), limits are set for tracing the paths assigned to the respective VLAN to define the VLAN port operating modes, - using third VLAN port configuration tags (VCEO), limits for tracing the paths assigned to the respective VLAN are set only in respect of outbound frames to define the VLAN port operating modes, - the tracing of the paths assigned to the respective VLAN, and a configuration of the ports included in these paths, which is based on the definition of the VLAN port operating modes, are controlled using the VLAN port configuration tags. - for each virtual local area network, VLAN, starting from communication terminals (111-112, 121-122, 131-132) on ports of switches (2-3, 110, 120, 130) and/or routers along paths (201-203, 301-306, 401-406, 501-504) assigned to the respective VLAN, a VLAN port operating mode is respectively defined depending on the usage of the respective port by the respective VLAN, - using first VLAN port configuration tags (EOV), VLAN segment boundaries are defined, wherein inbound and outbound frames on the respective port are assigned to the same VLAN, - using second VLAN port configuration tags (VCT), limits are set for tracing the paths assigned to the respective VLAN to define the VLAN port operating modes, - using third VLAN port configuration tags (VCEO), limits for tracing the paths assigned to the respective VLAN are set only in respect of outbound frames to define the VLAN port operating modes, - the tracing of the paths assigned to the respective VLAN, and a configuration of the ports included in these paths, which is based on the definition of the VLAN port operating modes, are controlled using the VLAN port configuration tags.
An airfoil comprising: an airfoil structure defining a damping network that includes a first cavity , a second cavity , and a flow passage connecting the first and second cavities ; and a damping material configured to flow through the damping network , wherein the damping network comprises a network volume between about 10% and about 50% of the network volume is occupied by the damping material , characterised in that : the damping network further comprises a second flow passage connecting the first and second cavities , and a third flow passage connecting the flow passage and the second flow passage . an airfoil structure defining a damping network that includes a first cavity , a second cavity , and a flow passage connecting the first and second cavities ; and a damping material configured to flow through the damping network , wherein the damping network comprises a network volume between about 10% and about 50% of the network volume is occupied by the damping material , characterised in that : the damping network further comprises a second flow passage connecting the first and second cavities , and a third flow passage connecting the flow passage and the second flow passage .
A preconnectorized optical cable assembly, comprising: a cable comprising: - an optical transmission element comprising at least one optical waveguide , - a plurality of tensile elements , - a cable jacket , and at least one plug connector , the at least one plug connector being attached to an end section of the cable , thereby connectorizing the at least one optical waveguide , the at least one plug connector comprising: - a connector assembly for securing the at least one optical waveguide , - a crimp housing having a longitudinal passageway for passing the at least one optical waveguide therethrough, at least one cable clamping portion , and a connector assembly clamping portion , wherein the at least one cable clamping portion secures the plurality of tensile elements , and the connector assembly clamping portion secures a portion of the connector assembly , - at least one tensile element securing component attached to at least one of the plurality of tensile elements , - wherein the crimp housing comprises at least one groove for receiving the at least one tensile element securing component . a cable comprising: - an optical transmission element comprising at least one optical waveguide , - a plurality of tensile elements , - a cable jacket , and - an optical transmission element comprising at least one optical waveguide , - a plurality of tensile elements , - a cable jacket , and at least one plug connector , the at least one plug connector being attached to an end section of the cable , thereby connectorizing the at least one optical waveguide , the at least one plug connector comprising: - a connector assembly for securing the at least one optical waveguide , - a crimp housing having a longitudinal passageway for passing the at least one optical waveguide therethrough, at least one cable clamping portion , and a connector assembly clamping portion , wherein the at least one cable clamping portion secures the plurality of tensile elements , and the connector assembly clamping portion secures a portion of the connector assembly , - at least one tensile element securing component attached to at least one of the plurality of tensile elements , - wherein the crimp housing comprises at least one groove for receiving the at least one tensile element securing component . - a connector assembly for securing the at least one optical waveguide , - a crimp housing having a longitudinal passageway for passing the at least one optical waveguide therethrough, at least one cable clamping portion , and a connector assembly clamping portion , wherein the at least one cable clamping portion secures the plurality of tensile elements , and the connector assembly clamping portion secures a portion of the connector assembly , - at least one tensile element securing component attached to at least one of the plurality of tensile elements , - wherein the crimp housing comprises at least one groove for receiving the at least one tensile element securing component .
A jockey wheel including a telescopic column for attachment to a towed vehicle, to raise and lower a draw bar of the vehicle, wherein the column includes: a drive mechanism with a rotary input that rotates to cause the column to extend or retract; and a gear box with a rotary connector adapted to connect to and be driven by a power tool , wherein the gear box drives the input so as to provide for geared operation of the drive mechanism, wherein the rotary input is located at one end of the column and the gear box includes a housing that sits over the end of the column such that the rotary input connects with an output gear of the gear box and wherein the gear box further includes an input gear coupled to the rotary connector , characterized by the feature, that the rotary input has a square thread for receipt in a corresponding socket of the output gear and the input gear includes a square shaped socket for receipt of a bit of the power tool. a drive mechanism with a rotary input that rotates to cause the column to extend or retract; and a gear box with a rotary connector adapted to connect to and be driven by a power tool , wherein the gear box drives the input so as to provide for geared operation of the drive mechanism, wherein the rotary input is located at one end of the column and the gear box includes a housing that sits over the end of the column such that the rotary input connects with an output gear of the gear box and wherein the gear box further includes an input gear coupled to the rotary connector , characterized by the feature, that the rotary input has a square thread for receipt in a corresponding socket of the output gear and the input gear includes a square shaped socket for receipt of a bit of the power tool.
A system to reduce emissions from a communication bus in an industrial controller , the system comprising: a transmitting device including a first scrambling element , the transmitting device configured to: generate data for transmission via the communication bus ; scramble the generated data prior to transmission utilizing the first scrambling element ; encode the generated data after the data is scrambled, including inserting a plurality of idle pairs between sequential data packets configured to transmit the data , wherein a portion of the inserted idle pairs is scrambled utilizing the first scrambling element , wherein the first scrambling element periodically transmits at least four unscrambled idle pairs between scrambled idle pairs; and transmit the encoded generated data within a plurality of data packets via the communication bus ; and a receiving device configured to receive data transmitted via the communication bus , the receiving device including a second scrambling element operative to unscramble the received data, wherein the second scrambling element is synchronized with the received data. a transmitting device including a first scrambling element , the transmitting device configured to: generate data for transmission via the communication bus ; scramble the generated data prior to transmission utilizing the first scrambling element ; encode the generated data after the data is scrambled, including inserting a plurality of idle pairs between sequential data packets configured to transmit the data , wherein a portion of the inserted idle pairs is scrambled utilizing the first scrambling element , wherein the first scrambling element periodically transmits at least four unscrambled idle pairs between scrambled idle pairs; and transmit the encoded generated data within a plurality of data packets via the communication bus ; and generate data for transmission via the communication bus ; scramble the generated data prior to transmission utilizing the first scrambling element ; encode the generated data after the data is scrambled, including inserting a plurality of idle pairs between sequential data packets configured to transmit the data , wherein a portion of the inserted idle pairs is scrambled utilizing the first scrambling element , wherein the first scrambling element periodically transmits at least four unscrambled idle pairs between scrambled idle pairs; and transmit the encoded generated data within a plurality of data packets via the communication bus ; and a receiving device configured to receive data transmitted via the communication bus , the receiving device including a second scrambling element operative to unscramble the received data, wherein the second scrambling element is synchronized with the received data.
A nano-particle for use as a medicament to target and/or treat arthritic cartilage, wherein the nano-particle comprises a biocompatible hyaluronic acid polymer crosslinked by a vinyl sulfone crosslinking agent to form a crosslinked biopolymer, wherein the biocompatible hyaluronic acid polymer has a molecular weight of 10K to 1.5M and the crosslinking ratio of the biocompatible HA polymer:a vinyl sulfone is between 4:1 and 1:4 and the crosslinked biopolymer has a diameter of greater than 200nm to modulate internalization; a ligand in contact with the crosslinked biopolymer, wherein the ligand is folic acid that interacts with a folate receptor; and a detectable tag in contact with the crosslinking agent, first biocompatible polymer, the ligand or a combination thereof, wherein the detectable tag is a fluorescent dye, a radioactive tag, a metal, a nanoparticle tag or a combination thereof. a biocompatible hyaluronic acid polymer crosslinked by a vinyl sulfone crosslinking agent to form a crosslinked biopolymer, wherein the biocompatible hyaluronic acid polymer has a molecular weight of 10K to 1.5M and the crosslinking ratio of the biocompatible HA polymer:a vinyl sulfone is between 4:1 and 1:4 and the crosslinked biopolymer has a diameter of greater than 200nm to modulate internalization; a ligand in contact with the crosslinked biopolymer, wherein the ligand is folic acid that interacts with a folate receptor; and a detectable tag in contact with the crosslinking agent, first biocompatible polymer, the ligand or a combination thereof, wherein the detectable tag is a fluorescent dye, a radioactive tag, a metal, a nanoparticle tag or a combination thereof.