mhurhangee/patent-ind-claim-en huggingface dataset:
A lean-to-steer system for use with ride simulation comprising: a cycle mounted to a support , wherein the cycle is configured to tilt laterally during operation of the cycle ; a sensor disposed on the cycle , or mounted directly or indirectly to the cycle , wherein the sensor generates a first signal to indicate a lateral tilt of the cycle during operation; a processor providing an algorithm configured to receive the first signal and generate a second signal indicative of a right or left turn of the cycle during operation in response to the lateral tilt of the cycle , wherein the algorithm comprises at least one moving average filter configured to reduce the significance of short duration or outlying magnitude tilt signals to filter a portion of the first signal that is indicative of lateral tilt of the cycle but that is not generated in response to the right or left leaning turn of the cycle during operation; and, the second signal providing a directional input for a ride simulation interface. a cycle mounted to a support , wherein the cycle is configured to tilt laterally during operation of the cycle ; a sensor disposed on the cycle , or mounted directly or indirectly to the cycle , wherein the sensor generates a first signal to indicate a lateral tilt of the cycle during operation; a processor providing an algorithm configured to receive the first signal and generate a second signal indicative of a right or left turn of the cycle during operation in response to the lateral tilt of the cycle , wherein the algorithm comprises at least one moving average filter configured to reduce the significance of short duration or outlying magnitude tilt signals to filter a portion of the first signal that is indicative of lateral tilt of the cycle but that is not generated in response to the right or left leaning turn of the cycle during operation; and, the second signal providing a directional input for a ride simulation interface.
An RFID printer apparatus configured to arrange a plurality of RFID tags mounted with an RFID chip in an aligned state and print pattern information on each of the RFID tags while conveying the RFID tags in a predetermined conveying direction and including a thermal head in which a plurality of heating elements is provided along a direction orthogonal to the conveying direction, the apparatus comprising: acquisition means configured to acquire a mounting position of the RFID chip in the RFID tag ; reception means configured to receive label information including the pattern information and a print position of the pattern information; and print control means configured to print the pattern information on the RFID tag on a condition that the print position of the pattern information that is received by the reception means does not overlap a print preventing region when the RFID chip mounted on the mounting position that is acquired by the acquisition means moves along the conveying direction; wherein the print preventing region is set based on the mounting position of the RFID chip that is acquired by the chip position acquisition unit . acquisition means configured to acquire a mounting position of the RFID chip in the RFID tag ; reception means configured to receive label information including the pattern information and a print position of the pattern information; and print control means configured to print the pattern information on the RFID tag on a condition that the print position of the pattern information that is received by the reception means does not overlap a print preventing region when the RFID chip mounted on the mounting position that is acquired by the acquisition means moves along the conveying direction; wherein the print preventing region is set based on the mounting position of the RFID chip that is acquired by the chip position acquisition unit .
A work platform configured for use in connection with work on a wing blade for a wind energy plant, where the wing blade typically is one of three wings that together constitute a rotor, as the wings at their root ends are mounted to a hub which is mechanically connected to components in the nacelle of the wind energy plant, where the work platform is configured for working on a wing blade which is brought to a substantially vertical position, and where the work platform is further configured to be hoisted up and down from a position above the workplace from a region close to the root end of the wing or from the rotor hub, where the work platform extends vertically in relation to the substantially vertical wing and includes an upper and a lower part, wherein that the work platform is provided with space for a person and is adapted for positioning along a leading or trailing edge of a wing blade, and further including at least two individual projecting arms for contact against the surface of the wing, wherein at least one of the arms of the work platform consists of a first partial arm and one or more further partial arms including a second partial arm, where the first partial arm is provided with an articulated joint at an innermost part of the first partial arm, and is further provided with at least one articulated joint between the first partial arm and the second partial arm, and wherein the projecting arms are adapted to be pressed against the wing surface and securing the movement of the work platform, and where the individual projecting arms are provided with protective means between the first partial arm and the one or more further partial arms and the wing surface, such that at least the first and/or the second partial arm is provided with one or more contact rollers , characterised in that means for surface treatment of the wing blade is integrated in the one or more contact rollers. wherein at least one of the arms of the work platform consists of a first partial arm and one or more further partial arms including a second partial arm, where the first partial arm is provided with an articulated joint at an innermost part of the first partial arm, and is further provided with at least one articulated joint between the first partial arm and the second partial arm, and wherein the projecting arms are adapted to be pressed against the wing surface and securing the movement of the work platform, and where the individual projecting arms are provided with protective means between the first partial arm and the one or more further partial arms and the wing surface, such that at least the first and/or the second partial arm is provided with one or more contact rollers , characterised in that means for surface treatment of the wing blade is integrated in the one or more contact rollers.
A steering wheel armature cover for mounting to a steering wheel armature of a vehicle steering wheel , comprising a cover portion for closing a profile of the steering wheel armature open in cross-section, and at least one securing element for fixing the steering wheel armature cover to the steering wheel armature , characterized in that an integrally formed plug connector is provided for electrical connection to an electrical operating unit of the vehicle steering wheel and/or the cover portion includes projections on the armature side for guiding and/or securing an electric line .
A method for connection management in a 3GPP network, the method comprising: transmitting, by a user equipment , UE, a re-establishment request for a first connection of a first protocol layer in response to determining that a connection re-establishment condition is met, wherein the first protocol layer is a Layer 2 network layer, and wherein the re-establishment request for the first connection of the first protocol layer is transmitted to a first network device ; receiving, by the UE , a re-establishment response indicating if a re-establishment of the first connection of the first protocol layer is allowed; completing, by the UE , the re-establishment of the first connection of the first protocol layer when the re-establishment of the first connection of the first protocol layer is allowed, wherein a context of a second protocol layer of the UE is unchanged, wherein the second protocol layer is a Layer 3 network layer, and wherein completing the first connection of the first protocol layer comprises resetting, by the UE , a first protocol layer entity; the method being characterised by transmitting, by the UE , a re-establishment request for a second connection of the second protocol layer if the re-establishment of the first connection of the first protocol layer is not allowed. transmitting, by a user equipment , UE, a re-establishment request for a first connection of a first protocol layer in response to determining that a connection re-establishment condition is met, wherein the first protocol layer is a Layer 2 network layer, and wherein the re-establishment request for the first connection of the first protocol layer is transmitted to a first network device ; receiving, by the UE , a re-establishment response indicating if a re-establishment of the first connection of the first protocol layer is allowed; completing, by the UE , the re-establishment of the first connection of the first protocol layer when the re-establishment of the first connection of the first protocol layer is allowed, wherein a context of a second protocol layer of the UE is unchanged, wherein the second protocol layer is a Layer 3 network layer, and wherein completing the first connection of the first protocol layer comprises resetting, by the UE , a first protocol layer entity; the method being characterised by transmitting, by the UE , a re-establishment request for a second connection of the second protocol layer if the re-establishment of the first connection of the first protocol layer is not allowed.
Microstructured optical fibre for the generation of nonlinear effects and stress measurements, made of silica glass or polymer having non-enlarged spaces having cross-section close to circle of diameter d, of decreased refractive index with relative to the core area and the cladding , and enlarged spaces having cross-section close to circle of diameter D, of decreased refractive index with relative to the core area and the cladding , arranged in rings around the core area , wherein spaces are filled with gas,and are located in nodes of hexagonal lattice with lattice constant Λ, in at least one ring every-second space is enlarged, and the number of the rings of spaces is two at the minimum, the diameters D of enlarged spaces is smaller than the double lattice constant: (D<2·Λ), the diameters d of non enlarged spaces is smaller than the lattice constant (d<Λ), characterized in that the ratio of the diameter d of non-enlarged spaces to the lattice constant Λ is within the range from 0.30 to 0.45, the lattice constant Λ is within the range from 2.15 μm to 2.65 μm and the diameter D of enlarged spaces is within the range from 2.7 μm to 3.3 μm, the diameter d of non enlarged spaces is within the range From 0.9 μm to 1.1 μm, the cladding diameter (E) is within the range from 105 μm to 145 μm.
A method of attenuating porcine pseudorabies virus, comprising: a step of cultivating the pseudorabies virus adapted to cell culture, wherein the pseudorabies virus is inoculated into subcultured mammalian cells, and then subcultured for more than five passages so as to obtain the porcine pseudorabies virus strain adapted to the subcultured mammalian cells; and a step of attenuating the porcine pseudorabies virus, wherein the porcine pseudorabies virus strain adapted to the subcultured mammalian cells is inoculated into subcultured avian cells and then subcultured for more than one passage so as to obtain the attenuated strain of the porcine pseudorabies virus, wherein the genomic sequence of the attenuated strain of porcine pseudorabies virus has a serial deletion of 3455bp started from the 890th nucleotide of gl genomic sequence, of which the deleted sequence is as shown in SEQ.ID.NO.1. a step of cultivating the pseudorabies virus adapted to cell culture, wherein the pseudorabies virus is inoculated into subcultured mammalian cells, and then subcultured for more than five passages so as to obtain the porcine pseudorabies virus strain adapted to the subcultured mammalian cells; and a step of attenuating the porcine pseudorabies virus, wherein the porcine pseudorabies virus strain adapted to the subcultured mammalian cells is inoculated into subcultured avian cells and then subcultured for more than one passage so as to obtain the attenuated strain of the porcine pseudorabies virus, wherein the genomic sequence of the attenuated strain of porcine pseudorabies virus has a serial deletion of 3455bp started from the 890th nucleotide of gl genomic sequence, of which the deleted sequence is as shown in SEQ.ID.NO.1.
A component mounting apparatus configured to suck a component and mount the component on a substrate, the apparatus comprising: component supplying means for supplying the component by intermittently feeding an accommodation member , on which a plurality of accommodation sections for accommodating the component are formed, in a predetermined direction; suction position setting means for setting a position that is offset from a reference position (Rp), which is a predetermined position within the accommodation section and reference for suction of the component, in the predetermined direction toward a side to which the component moves due to inertia as a suction position (Sp) based on a difference between a dimension of the accommodation section in the predetermined direction and a dimension of the component accommodated in the accommodation section in the predetermined direction; and component mounting means for sucking the component supplied by the component supplying means at the suction position (Sp) to pick up the component from the accommodation section and mounting the component onto the substrate. component supplying means for supplying the component by intermittently feeding an accommodation member , on which a plurality of accommodation sections for accommodating the component are formed, in a predetermined direction; suction position setting means for setting a position that is offset from a reference position (Rp), which is a predetermined position within the accommodation section and reference for suction of the component, in the predetermined direction toward a side to which the component moves due to inertia as a suction position (Sp) based on a difference between a dimension of the accommodation section in the predetermined direction and a dimension of the component accommodated in the accommodation section in the predetermined direction; and component mounting means for sucking the component supplied by the component supplying means at the suction position (Sp) to pick up the component from the accommodation section and mounting the component onto the substrate.
Resectoscope with an outer tube and an inner tube arranged in the outer tube and with a transporter comprising a main body , wherein the inner tube is attached to the main body with a proximal end, wherein at least one optical system is arranged in the inner tube and the inner tube is formed as an inflow and a volume between the outer tube and the inner tube is formed as an outflow for a rinsing liquid, wherein neither the cross section of the distal area nor the cross section of the proximal area is circular, characterized in that a cross section of a distal area of the inner tube is different from a cross section of a proximal area of the inner tube .
A self-propelled device , comprising: a cutting assembly for cutting; a body for supporting the cutting assembly ; and a traveling system for driving the body to move; wherein the traveling system comprises at least: a traveling wheel ; and a wheel hub motor integrally disposed in the traveling wheel ; wherein an overall width of the self-propelled device in an axial direction (X) is 0.2 m to 1.5 m, the overall length of the self-propelled device in a direction (Y) perpendicular to the axial direction (X) is 0.5 m to 1.5 m; characterized in that a radial length (D) of the wheel hub motor is greater than or equal to 18 cm and less than or equal to 33 cm; an axial thickness (d) of the wheel hub motor is less than or equal to 3.5 cm; and the wheel hub motor is detachably mounted on a housing of the body by a connector , wherein the connector comprises a mounting hole , a first end surface facing a side of the traveling wheel , and a second end surface facing away from the side of the traveling wheel , and an inner diameter of the mounting hole mates with an outer diameter of an output shaft of the wheel hub motor . a cutting assembly for cutting; a body for supporting the cutting assembly ; and a traveling system for driving the body to move; wherein the traveling system comprises at least: a traveling wheel ; and a wheel hub motor integrally disposed in the traveling wheel ; wherein an overall width of the self-propelled device in an axial direction (X) is 0.2 m to 1.5 m, the overall length of the self-propelled device in a direction (Y) perpendicular to the axial direction (X) is 0.5 m to 1.5 m; characterized in that a radial length (D) of the wheel hub motor is greater than or equal to 18 cm and less than or equal to 33 cm; an axial thickness (d) of the wheel hub motor is less than or equal to 3.5 cm; and the wheel hub motor is detachably mounted on a housing of the body by a connector , wherein the connector comprises a mounting hole , a first end surface facing a side of the traveling wheel , and a second end surface facing away from the side of the traveling wheel , and an inner diameter of the mounting hole mates with an outer diameter of an output shaft of the wheel hub motor . a traveling wheel ; and a wheel hub motor integrally disposed in the traveling wheel ; wherein an overall width of the self-propelled device in an axial direction (X) is 0.2 m to 1.5 m, the overall length of the self-propelled device in a direction (Y) perpendicular to the axial direction (X) is 0.5 m to 1.5 m; characterized in that a radial length (D) of the wheel hub motor is greater than or equal to 18 cm and less than or equal to 33 cm; an axial thickness (d) of the wheel hub motor is less than or equal to 3.5 cm; and the wheel hub motor is detachably mounted on a housing of the body by a connector , wherein the connector comprises a mounting hole , a first end surface facing a side of the traveling wheel , and a second end surface facing away from the side of the traveling wheel , and an inner diameter of the mounting hole mates with an outer diameter of an output shaft of the wheel hub motor .
A terminal node , comprising: a transceiver module configured to communicate with an access node ; and a processor coupled to the transceiver module; characterized in that the processor is configured to: execute a first user application and obtain state information about the first user application , transmit, via the transceiver module , a request for communications from an application server, transmit, via the transceiver module , the state information about the first user application to the access node over a first application-agent cooperative communication control path established between the first user application in the terminal node and an application agent in the access node without going through a backhaul link, receive, from the access node , data associated with the first user application ; and receive through the first application-agent cooperative communication control path a set of reduced bitrate options or a set of increased bit rate options determined by the access node . a transceiver module configured to communicate with an access node ; and a processor coupled to the transceiver module; characterized in that the processor is configured to: execute a first user application and obtain state information about the first user application , transmit, via the transceiver module , a request for communications from an application server, transmit, via the transceiver module , the state information about the first user application to the access node over a first application-agent cooperative communication control path established between the first user application in the terminal node and an application agent in the access node without going through a backhaul link, receive, from the access node , data associated with the first user application ; and receive through the first application-agent cooperative communication control path a set of reduced bitrate options or a set of increased bit rate options determined by the access node . execute a first user application and obtain state information about the first user application , transmit, via the transceiver module , a request for communications from an application server, transmit, via the transceiver module , the state information about the first user application to the access node over a first application-agent cooperative communication control path established between the first user application in the terminal node and an application agent in the access node without going through a backhaul link, receive, from the access node , data associated with the first user application ; and receive through the first application-agent cooperative communication control path a set of reduced bitrate options or a set of increased bit rate options determined by the access node .
Switching arrangement comprising at least: - one support element ; - one touch-sensitive operating element ; - one mechanical switching element which is disposed between the operating element and the support element and which is able to generate a restoring force (R); and - one switching kinematics unit by way of which the operating element and the support element are repositionable relative to one another in a linear movement (L), wherein the switching kinematics unit comprises a lever (26.1) which from the tilting point thereof extends in one direction and another direction , and the tilting point of the lever (26.1) is fastened to the support element , and the lever (26.1) in the one direction is connected to the operating element in an articulated manner, the lever (26.1) in the other direction has an end portion which is provided with a toothed profile , and the switching kinematics unit comprises a further lever (26.2) which is configured so as to be complementary to the lever (26.1) and is disposed and mounted so as to be kinematically mirror-inverted to the lever (26.1), and the toothed profile of said lever engages with the toothed profile of the lever (26.1), characterized in that the mechanical switching element along the other direction is disposed between the lever (26.1) and the operating element , wherein the switching element is not disposed in the region of an end portion of the lever (26.1). - one support element ; - one touch-sensitive operating element ; - one mechanical switching element which is disposed between the operating element and the support element and which is able to generate a restoring force (R); and - one switching kinematics unit by way of which the operating element and the support element are repositionable relative to one another in a linear movement (L), wherein the switching kinematics unit comprises a lever (26.1) which from the tilting point thereof extends in one direction and another direction , and the tilting point of the lever (26.1) is fastened to the support element , and the lever (26.1) in the one direction is connected to the operating element in an articulated manner, the lever (26.1) in the other direction has an end portion which is provided with a toothed profile , and the switching kinematics unit comprises a further lever (26.2) which is configured so as to be complementary to the lever (26.1) and is disposed and mounted so as to be kinematically mirror-inverted to the lever (26.1), and the toothed profile of said lever engages with the toothed profile of the lever (26.1), characterized in that the mechanical switching element along the other direction is disposed between the lever (26.1) and the operating element , wherein the switching element is not disposed in the region of an end portion of the lever (26.1).