mhurhangee/patent-ind-claim-en huggingface dataset:
An isolated antibody or antibody fragment capable of binding sialyl-di-Lewis a , wherein the antibody or antibody fragment comprises the following six CDRs: a) GFTFNTYA (CDRH1), IRSKSNNYAT (CDRH2) and VGYGSGGNY (CDRH3), and b) QSLLNSGNQKNY (CDRL1), WAS (CDRL2) and QNDYSSPFT (CDRL3), wherein the antibody or antibody fragment is specific for sialyl-di-Lewis a and sialyl-Lewis a-x . a) GFTFNTYA (CDRH1), IRSKSNNYAT (CDRH2) and VGYGSGGNY (CDRH3), and b) QSLLNSGNQKNY (CDRL1), WAS (CDRL2) and QNDYSSPFT (CDRL3),
A distributed bootstrap input circuit for an analog-to-digital converter (ADC), comprising: a first and second bootstrap circuit , the first bootstrap circuit receiving an input signal for an input sampling network and the second bootstrap circuit receiving the input signal for a flash ADC network, each including at least one first switch for connecting electrical power to a first terminal of at least one capacitor ; at least one second switch for connecting a second terminal of the at least one capacitor to the input signal to be sampled; at least one third switch for connecting the first terminal of the at least one capacitor to the control gate of at least one sampling network input switch , wherein the third switch is a thick oxide semiconductor switch; at least one fourth switch for connecting the gate of the at least one sampling network input switch with ground; at least one fifth switch for connecting the second terminal of the at least one capacitor to ground, and wherein each bootstrap circuit comprises a negligible parasitic capacitive load , wherein the parasitic capacitive load is a capacitance at the gate of the sampling network input switch , and the at least one capacitor and the at least one third switch are configured to provide for a time constant that is small enough to improve a switching time and increase a sampling time. a first and second bootstrap circuit , the first bootstrap circuit receiving an input signal for an input sampling network and the second bootstrap circuit receiving the input signal for a flash ADC network, each including at least one first switch for connecting electrical power to a first terminal of at least one capacitor ; at least one second switch for connecting a second terminal of the at least one capacitor to the input signal to be sampled; at least one third switch for connecting the first terminal of the at least one capacitor to the control gate of at least one sampling network input switch , wherein the third switch is a thick oxide semiconductor switch; at least one fourth switch for connecting the gate of the at least one sampling network input switch with ground; at least one fifth switch for connecting the second terminal of the at least one capacitor to ground, and wherein each bootstrap circuit comprises a negligible parasitic capacitive load , wherein the parasitic capacitive load is a capacitance at the gate of the sampling network input switch , and the at least one capacitor and the at least one third switch are configured to provide for a time constant that is small enough to improve a switching time and increase a sampling time.
A method for producing a high-octane component of motor fuels from olefin-containing gas mixtures, characterized in that the olefm-containing mixture is oxidized with nitrous oxide in a gas phase in a flow mode at a temperature of 300 to 550°C and a pressure of 101 to 10133 kPa (1 to 100 atm), followed by an isolation of a product mixture as the high-octane component.
A bearing mechanism , comprising: a housing which has a cylindrical shape and has a fitted groove formed on an inner circumferential surface thereof; a bush bearing mounted to the inner circumferential surface of the housing ; and a shaft supported by the bush bearing , wherein the bush bearing has a cylindrical bush main body , and a flange section configured to project outward from the bush main body in a radial direction thereof and to be fitted into the fitted groove , the flange section is provided with a plate-shaped section ) and a protruding section configured to protrude from the plate-shaped section to one side in an axial direction (X) of the bush main body , and has a fitting margin in the axial direction (X) with respect to the fitted groove in the housing , and wherein the protruding section comes into contact with a surface which forms the fitted groove in the housing and is positioned at said one side in the axial direction (X), and wherein the plate-shaped section has a part, which is configured to come into contact with a surface which forms the fitted groove in the housing and is positioned at another side in the axial direction (X), characterized in that in a state in which the protruding section is in contact with the surface which forms the fitted groove in the housing , the plate-shaped section is bendingly deformed. a housing which has a cylindrical shape and has a fitted groove formed on an inner circumferential surface thereof; a bush bearing mounted to the inner circumferential surface of the housing ; and a shaft supported by the bush bearing , wherein the bush bearing has a cylindrical bush main body , and a flange section configured to project outward from the bush main body in a radial direction thereof and to be fitted into the fitted groove , the flange section is provided with a plate-shaped section ) and a protruding section configured to protrude from the plate-shaped section to one side in an axial direction (X) of the bush main body , and has a fitting margin in the axial direction (X) with respect to the fitted groove in the housing , and wherein the protruding section comes into contact with a surface which forms the fitted groove in the housing and is positioned at said one side in the axial direction (X), and wherein the plate-shaped section has a part, which is configured to come into contact with a surface which forms the fitted groove in the housing and is positioned at another side in the axial direction (X),
A travel assisting method for a vehicle having a processor, comprising: generating a vehicle speed command value for controlling a vehicle speed of a subject vehicle based on vehicle information of the subject vehicle; calculating the vehicle speed command value at a predetermined time ahead of a current time based on information of a feature existing ahead of the subject vehicle in a travelling direction, as a look-ahead vehicle speed command value; and controlling the subject vehicle based on the look-ahead vehicle speed command value, wherein the processor: detects a lighting state of a traffic light located around the subject vehicle and included in the feature; characterized in that when the lighting state indicates a stop instruction, sets the predetermined time longer than that when the lighting state indicates an instruction other than the stop instruction. generating a vehicle speed command value for controlling a vehicle speed of a subject vehicle based on vehicle information of the subject vehicle; calculating the vehicle speed command value at a predetermined time ahead of a current time based on information of a feature existing ahead of the subject vehicle in a travelling direction, as a look-ahead vehicle speed command value; and controlling the subject vehicle based on the look-ahead vehicle speed command value, wherein the processor: detects a lighting state of a traffic light located around the subject vehicle and included in the feature; characterized in that when the lighting state indicates a stop instruction, sets the predetermined time longer than that when the lighting state indicates an instruction other than the stop instruction. detects a lighting state of a traffic light located around the subject vehicle and included in the feature; characterized in that when the lighting state indicates a stop instruction, sets the predetermined time longer than that when the lighting state indicates an instruction other than the stop instruction.
A method of aligning a light projector and an electronic model in an environment, the method comprising: placing the light projector in the environment; projecting a visible scan-box to mark a portion of the environment to be captured in an intensity image by the light projector; acquiring the intensity image of the portion of the environment at a predetermined scan resolution; identifying a plurality of point targets in the environment in the intensity image; associating the plurality of point targets with a plurality of points in the electronic model; aligning the light projector to the electronic model based at least in part on the plurality of point targets and the plurality of points; measuring an angle rotation of the light projector with at least one sensor; and realigning the light projector to the electronic model based at least in part on the measured angle of rotation. placing the light projector in the environment; projecting a visible scan-box to mark a portion of the environment to be captured in an intensity image by the light projector; acquiring the intensity image of the portion of the environment at a predetermined scan resolution; identifying a plurality of point targets in the environment in the intensity image; acquiring the intensity image of the portion of the environment at a predetermined scan resolution; identifying a plurality of point targets in the environment in the intensity image; associating the plurality of point targets with a plurality of points in the electronic model; aligning the light projector to the electronic model based at least in part on the plurality of point targets and the plurality of points; measuring an angle rotation of the light projector with at least one sensor; and realigning the light projector to the electronic model based at least in part on the measured angle of rotation. measuring an angle rotation of the light projector with at least one sensor; and realigning the light projector to the electronic model based at least in part on the measured angle of rotation.
A surgical instrument comprising: a displacement member configured to translate within the surgical instrument; a motor coupled to the displacement member to translate the displacement member; a control circuit coupled to the motor; a position sensor coupled to the control circuit, the position sensor configured to monitor a position of the displacement member; and wherein the control circuit is configured to: determine a velocity of the displacement member via the position sensor; and cause a display to present an indicia that is indicative of the velocity of the displacement member, wherein a portion of the display occupied by the indicia corresponds to the velocity of the displacement member; wherein the indicia is a first indicia, the control circuit is further configured to: provide a set point velocity to the motor, the motor set point configured to cause the motor to drive the displacement member at a motor velocity; characterized in that the control circuit is further configured to: cause the display to present a second indicia indicative of the motor set point velocity. a displacement member configured to translate within the surgical instrument; a motor coupled to the displacement member to translate the displacement member; a control circuit coupled to the motor; a position sensor coupled to the control circuit, the position sensor configured to monitor a position of the displacement member; and wherein the control circuit is configured to: determine a velocity of the displacement member via the position sensor; and cause a display to present an indicia that is indicative of the velocity of the displacement member, wherein a portion of the display occupied by the indicia corresponds to the velocity of the displacement member; wherein the indicia is a first indicia, the control circuit is further configured to: provide a set point velocity to the motor, the motor set point configured to cause the motor to drive the displacement member at a motor velocity;
A method for controlling a communication network to deliver traffic to and/or from an end node , the method performed by a network node and comprising: receiving information indicating a user-controllable selection at the end node to have at least some of the end node's traffic delivered by the network with a low priority level that is lower than a high priority level; responsive to selection of said low priority level, controlling the communication network to deliver at least some of the end node's traffic with said low priority level and awarding one or more tokens to the end node for use of said low priority level; receiving information indicating a user-controllable selection at the end node to have at least some of the end node's traffic delivered by the network with the high priority level; responsive to selection of said high priority level, redeeming one or more tokens awarded to the end node for use of said high priority level and controlling the communication network to deliver at least some of the end node's traffic with said high priority level; and deciding whether to offer said low priority level for selection at the end node based on whether a congestion level in at least a part of the network exceeds a defined threshold. receiving information indicating a user-controllable selection at the end node to have at least some of the end node's traffic delivered by the network with a low priority level that is lower than a high priority level; responsive to selection of said low priority level, controlling the communication network to deliver at least some of the end node's traffic with said low priority level and awarding one or more tokens to the end node for use of said low priority level; receiving information indicating a user-controllable selection at the end node to have at least some of the end node's traffic delivered by the network with the high priority level; responsive to selection of said high priority level, redeeming one or more tokens awarded to the end node for use of said high priority level and controlling the communication network to deliver at least some of the end node's traffic with said high priority level; and deciding whether to offer said low priority level for selection at the end node based on whether a congestion level in at least a part of the network exceeds a defined threshold.
A turning method for a computerized numerical control lathe comprising the steps of: - providing a cutting tool comprising a coupling portion , an intermediate portion and a cutting portion , the intermediate portion extending between the coupling portion and the cutting portion , a longitudinal center axis of the coupling portion defining a tool rotational axis (R1), the intermediate portion extending along a longitudinal center axis (A1) thereof, the cutting portion comprising a top surface , the top surface facing away from the coupling portion , the cutting portion comprising a first nose portion , the first nose portion comprising a first cutting edge , a second cutting edge , and a convex nose cutting edge connecting the first and second cutting edges ; - providing a metal work piece ; - rotating the metal work piece around a work piece rotational axis (R2); - setting the tool rotational axis (R1) perpendicular to or substantially perpendicular to the work piece rotational axis (R2); - making a first pass such that the first cutting edge is active and such that the second cutting edge is inactive, - making a second pass such that the first cutting edge is inactive and such that the second cutting edge is active, where the second pass is in a longitudinally or radially opposite or substantially opposite direction to the first pass ; and - rotating the turning tool around the tool rotational axis (R1) during the first pass and/or during the second pass and/or after the first pass but prior to the second pass . - providing a cutting tool comprising a coupling portion , an intermediate portion and a cutting portion , the intermediate portion extending between the coupling portion and the cutting portion , a longitudinal center axis of the coupling portion defining a tool rotational axis (R1), the intermediate portion extending along a longitudinal center axis (A1) thereof, the cutting portion comprising a top surface , the top surface facing away from the coupling portion , the cutting portion comprising a first nose portion , the first nose portion comprising a first cutting edge , a second cutting edge , and a convex nose cutting edge connecting the first and second cutting edges ; - providing a metal work piece ; - rotating the metal work piece around a work piece rotational axis (R2); - setting the tool rotational axis (R1) perpendicular to or substantially perpendicular to the work piece rotational axis (R2); - making a first pass such that the first cutting edge is active and such that the second cutting edge is inactive, - making a second pass such that the first cutting edge is inactive and such that the second cutting edge is active, where the second pass is in a longitudinally or radially opposite or substantially opposite direction to the first pass ; and - rotating the turning tool around the tool rotational axis (R1) during the first pass and/or during the second pass and/or after the first pass but prior to the second pass .
A manufacturing method of a turbine rotor having a turbine blade rotor made of a material containing heat-resistant metal and a rotor shaft made of a material containing carbon steel which are connected to each other by butt welding, characterized in that the manufacturing method comprises the steps of: welding a joint portion of the turbine blade rotor and the rotor shaft by irradiation with a first beam for one revolution or two revolutions from a starting point of welding at the joint portion in a prescribed rotating direction; and after the welding, tempering a prescribed range of a rotor shaft side including the joint portion by irradiation with a second beam from the starting point of welding in the prescribed rotating direction over an entire angular position A defined by a formula or , when B as an angular region of completion of welding being 90°, as follows: A = 360 ° − B or A = 720 ° − B welding a joint portion of the turbine blade rotor and the rotor shaft by irradiation with a first beam for one revolution or two revolutions from a starting point of welding at the joint portion in a prescribed rotating direction; and after the welding, tempering a prescribed range of a rotor shaft side including the joint portion by irradiation with a second beam from the starting point of welding in the prescribed rotating direction over an entire angular position A defined by a formula or , when B as an angular region of completion of welding being 90°, as follows: A = 360 ° − B or A = 720 ° − B
An ultrasound diagnosis apparatus comprising: a communicator connected with a plurality of different wireless probes (201-204) through a wireless communication method by receiving pairing reception signals from the plurality of wireless ultrasound probes (201-204); a controller configured to control the communicator to wirelessly connect the ultrasound diagnosis apparatus with the plurality of wireless ultrasound probes (201-204) and to wirelessly receive status information regarding the connected plurality of wireless ultrasound probes (201-204); and a display configured to display a user interface, 'UI', indicating the received status information comprising at least one of an identification, `ID', a wireless communication frequency, a connection type, a supported application, a wireless communication method, a communication status, battery charging information, a remaining battery capacity, and a time left for use with respect to each of the plurality of wireless ultrasound probes (201-204); wherein the communicator comprises wireless communication modules (111-114) respectively paired one-to-one with the plurality of wireless ultrasound probes (201-204) and data communication modules configured to respectively transmit and receive ultrasound image data to and from the plurality of wireless ultrasound probes (201-204). a communicator connected with a plurality of different wireless probes (201-204) through a wireless communication method by receiving pairing reception signals from the plurality of wireless ultrasound probes (201-204); a controller configured to control the communicator to wirelessly connect the ultrasound diagnosis apparatus with the plurality of wireless ultrasound probes (201-204) and to wirelessly receive status information regarding the connected plurality of wireless ultrasound probes (201-204); and a display configured to display a user interface, 'UI', indicating the received status information comprising at least one of an identification, `ID', a wireless communication frequency, a connection type, a supported application, a wireless communication method, a communication status, battery charging information, a remaining battery capacity, and a time left for use with respect to each of the plurality of wireless ultrasound probes (201-204); wherein the communicator comprises wireless communication modules (111-114) respectively paired one-to-one with the plurality of wireless ultrasound probes (201-204) and data communication modules configured to respectively transmit and receive ultrasound image data to and from the plurality of wireless ultrasound probes (201-204).