mhurhangee/patent-ind-claim-en huggingface dataset:
Safety system for a power tool , comprising: - a radio-electric signal generator , arranged for generating a radio-electric signal (s(t)), - the power tool being arranged to be carried by a limb of the user , said power tool comprising - a machining member , - a support member , - an actuator connected to the machining member , - an antenna, said antenna being fastened onto said machining member and/or onto said support member , - a calculation module , characterized in that said radio-electric signal generator is electrically coupled to said user so as to inject into the user's body said radio-electric signal (s(t)), said radio-electric signal (s(t)) being then transmitted by said user in the form of an electromagnetic signal, in that said antenna is arranged for receiving said electromagnetic signal, and in that - said calculation module is arranged for determining a distance between the user and said machining member on the basis of a radio-electric signal (s'(t)) corresponding to said electromagnetic signal received by said antenna, and for modifying the speed of said actuator based on this distance. - a radio-electric signal generator , arranged for generating a radio-electric signal (s(t)), - the power tool being arranged to be carried by a limb of the user , said power tool comprising - a machining member , - a support member , - an actuator connected to the machining member , - an antenna, said antenna being fastened onto said machining member and/or onto said support member , - a machining member , - a support member , - an actuator connected to the machining member , - an antenna, said antenna being fastened onto said machining member and/or onto said support member , - a calculation module , characterized in that said radio-electric signal generator is electrically coupled to said user so as to inject into the user's body said radio-electric signal (s(t)), said radio-electric signal (s(t)) being then transmitted by said user in the form of an electromagnetic signal, in that said antenna is arranged for receiving said electromagnetic signal, and in that characterized in that said radio-electric signal generator is electrically coupled to said user so as to inject into the user's body said radio-electric signal (s(t)), said radio-electric signal (s(t)) being then transmitted by said user in the form of an electromagnetic signal, in that said antenna is arranged for receiving said electromagnetic signal, and in that - said calculation module is arranged for determining a distance between the user and said machining member on the basis of a radio-electric signal (s'(t)) corresponding to said electromagnetic signal received by said antenna, and for modifying the speed of said actuator based on this distance.
A method for configuring a control channel by a base station for inter-cell interference coordination, ICIC, in an orthogonal frequency division multiple access, OFDMA, system, comprising: determining a resource block, RB, to be used for configuring control channels; configuring the control channels by mapping the control channels in a data channel region within the RB; and transmitting the configured control channels, wherein configuring the control channels comprises mapping the control channels in units of resource element groups, REGs, the REGs being formed by binding four contiguous resource elements, REs, excluding REs mapped to reference signals, RSs, in the data channel region within the same RB; wherein configuring the control channels comprises after mapping all REGs in one RB, continuing the control channel mapping in a next RB in a time-domain preferred manner, and wherein an REG is formed only with REs in one symbol when a demodulation reference signal, DRS, does not exist within the one symbol, and the REG is formed by binding contiguous REs across two symbols to form a square when the DRS exists within the two symbols. determining a resource block, RB, to be used for configuring control channels; configuring the control channels by mapping the control channels in a data channel region within the RB; and transmitting the configured control channels, wherein configuring the control channels comprises mapping the control channels in units of resource element groups, REGs, the REGs being formed by binding four contiguous resource elements, REs, excluding REs mapped to reference signals, RSs, in the data channel region within the same RB; wherein configuring the control channels comprises after mapping all REGs in one RB, continuing the control channel mapping in a next RB in a time-domain preferred manner, and wherein an REG is formed only with REs in one symbol when a demodulation reference signal, DRS, does not exist within the one symbol, and the REG is formed by binding contiguous REs across two symbols to form a square when the DRS exists within the two symbols.
A drive circuit of a recording head having a recording element, the drive circuit supplying a load element for recording operation of the recording element with an output signal (Vout) of electric power according to operation of the load element, and the drive circuit comprising: a voltage amplifier that amplifies a voltage of an analog drive waveform signal for operation of the recording element to generate a drive voltage signal (Vd), wherein the voltage amplifier includes amplifiers (311, 311a, 312, 312a-312d), and characterized in that among the amplifiers (311, 311a, 312, 312a-312d), at least one of subsequent-stage amplifiers which are a second and subsequent amplifiers from an upstream side includes a signal feedback unit that returns a signal to be output to an input side of the subsequent-stage amplifiers. a voltage amplifier that amplifies a voltage of an analog drive waveform signal for operation of the recording element to generate a drive voltage signal (Vd), wherein the voltage amplifier includes amplifiers (311, 311a, 312, 312a-312d), and characterized in that among the amplifiers (311, 311a, 312, 312a-312d), at least one of subsequent-stage amplifiers which are a second and subsequent amplifiers from an upstream side includes a signal feedback unit that returns a signal to be output to an input side of the subsequent-stage amplifiers.
A method for reducing the rolling oil load of a roller strip conveyed through a roll gap of a roller mill , a wiper being used in this method which is arranged on a strip exit side of the roller mill and is provided with a wiper edge for being contacted to a roller surface of an upper work roll delimiting the roll gap , characterized in that the wiper is altered in its relative arrangement to the roller surface in dependence of a parameter influencing the rolling process or the rolled result for forming a conveyor gap , which has a gap width d, for rolling oil adhering to the roller surface .
A method for extracting a protein of interest from a precipitate, comprising: a. mixing the precipitate with a liquid in a first tank to form a suspension having a first dilution factor; b. feeding the suspension into a first filtration unit comprising a dynamic filter element adapted to produce a first retentate and a first permeate enriched with the protein of interest; c. diluting the suspension in the first tank by adding liquid to a second dilution factor, optionally by streaming the first retentate into the first tank; and d. recovering the first permeate enriched with the protein of interest in a second tank . a. mixing the precipitate with a liquid in a first tank to form a suspension having a first dilution factor; b. feeding the suspension into a first filtration unit comprising a dynamic filter element adapted to produce a first retentate and a first permeate enriched with the protein of interest; c. diluting the suspension in the first tank by adding liquid to a second dilution factor, optionally by streaming the first retentate into the first tank; and d. recovering the first permeate enriched with the protein of interest in a second tank .
The adjustable pedestal structure of the bed which can be placed under the sleeping platform of the bed and is arranged to support it, by means of which the height position of the sleeping platform of the bed and the longitudinal tilt position of the bed can be adjusted, which adjustable pedestal structure consists of the foot structure and the axle fixedly connected thereto and having a mounting flange and of the three structural parts connected to each other supported by the foot structure, wherein of the three structural parts, the lower structural part consists of the rotation cylinder inside which the axle connected to the foot structure is located and the lever arms connected to the rotation cylinder and the axle having a mounting flange and connected to the lever arms to opposite ends of the rotation cylinder and the middle structural part consists of the rotation cylinder inside which the axle of the lower structural part is located and the lever arms connected to the rotation cylinder and the axle having a mounting flange and connected to the lever arms to opposite ends of the rotation cylinder and the upper structural part consist of the rotation cylinder inside which the axle of the middle structural part is located and the lever arms connected to the rotating cylinder, to which the sleeping platform frame structure of the bed is connectable, characterized in that the adjustable pedestal structure comprises linear actuators (15a,b) and gas springs assisting its electrically operated adjustment mechanisms, of which the gas springs connected to the foot structure and to the lever arms of the lower structural part move the lower structural part of the adjustable pedestal structure, the gas springs connected to the lever arms of the lower structural part and to the lever arms of the middle structural part move the middle structural part of the adjustable pedestal structure and the gas springs connected to the lever arms of the middle structural part and to the lever arms of the upper structural part move the upper structural part of the adjustable pedestal structure, and the motor housings of the linear actuators acting as the adjusting motors of the pedestal structure are connected to the mounting flange of the axle connected to the foot structure , to the mounting flange of the axle of the lower structural part and to the mounting flange of the axle of the middle structural part of the pedestal structure.
Arrangement of cable bundles , in particular for a rail vehicle, the arrangement comprising a first, a second, and at least one further cable bundle , one of the cable bundles being arranged between two further cable bundles in at least one subsection, characterised in that in the at least one subsection of the arrangement, at least one of the cable bundles , but not all of the cable bundles , has at least one EMC shielding element, the cable bundle arranged between the two further cable bundles forming a shielding cable bundle and the two further cable bundles each forming an edge cable bundle , the shielding cable bundle having an EMC shielding element, and a diameter of the shielding cable bundle being larger than a diameter of the edge cable bundles .
A neutron detector allowing measurement of neutrons at different energy ranges, comprising • a detector configured to measure neutrons, • a detector measuring chamber in which the detector is located, • a liquid moderator storage chamber in which liquid moderator is stored, • liquid moderator transfer openings that are located on the ceiling of the liquid moderator storage chamber and configured to allow the liquid contained in the liquid moderator storage chamber to pass into the detector measurement chamber • and an electronic control unit, characterized by comprising • a solid moderator movement chamber comprising solid moderators wherein the solid moderators can move in the vertical axis, • a solid moderator motion lever configured to enable the solid moderators to move in the vertical axis in the solid moderator movement chamber , • a liquid moderator movement path that is connected to the liquid moderator storage chamber , and is movable in vertical axis and configured to enable the liquid moderator to pass through the transfer openings to the detector measuring chamber , • a sheath configured to Prevent gamma radiation by surrounding the detector , • slide gaps configured to allow the solid moderators to move in as a result of a movement of the solid moderator motion lever in the vertical axis. • a detector configured to measure neutrons, • a detector measuring chamber in which the detector is located, • a liquid moderator storage chamber in which liquid moderator is stored, • liquid moderator transfer openings that are located on the ceiling of the liquid moderator storage chamber and configured to allow the liquid contained in the liquid moderator storage chamber to pass into the detector measurement chamber • and an electronic control unit, characterized by comprising • a solid moderator movement chamber comprising solid moderators wherein the solid moderators can move in the vertical axis, • a solid moderator motion lever configured to enable the solid moderators to move in the vertical axis in the solid moderator movement chamber , • a liquid moderator movement path that is connected to the liquid moderator storage chamber , and is movable in vertical axis and configured to enable the liquid moderator to pass through the transfer openings to the detector measuring chamber , • a sheath configured to Prevent gamma radiation by surrounding the detector , • slide gaps configured to allow the solid moderators to move in as a result of a movement of the solid moderator motion lever in the vertical axis.
A method comprising: identifying a coarse waypoint (406; 506, 508, 510, 512, 514, 516) for a vehicle ; determining a trajectory (402; 522; 526) for the vehicle from a current location of the vehicle to the coarse waypoint (406; 506, 508, 510, 512, 514, 516); selecting one or more fine waypoints (412, 414, 416, 418; 518, 520) along the trajectory (402; 522; 526); communicating commands to a movement control system to maneuver the vehicle from the current location to the coarse waypoint (406; 506, 508, 510, 512, 514, 516) and passing through each of the one or more fine waypoints (412, 414, 416, 418; 518, 520); and capturing video via a camera system of the vehicle while the vehicle maneuvers from the current location to the coarse waypoint (406; 506, 508, 510, 512, 514, 516), characterized by the trajectory (402; 522; 526) reducing sudden changes in direction of movement of the vehicle by reducing j erk by minimizing a third derivative of the trajectory and/or by reducing snap of the vehicle by minimizing a fourth derivative of the trajectory, reducing sudden changes in speed of the vehicle by minimizing the first derivative of the trajectory, and reducing sudden changes in the vehicle acceleration by minimizing the second derivative of the trajectory. identifying a coarse waypoint (406; 506, 508, 510, 512, 514, 516) for a vehicle ; determining a trajectory (402; 522; 526) for the vehicle from a current location of the vehicle to the coarse waypoint (406; 506, 508, 510, 512, 514, 516); selecting one or more fine waypoints (412, 414, 416, 418; 518, 520) along the trajectory (402; 522; 526); communicating commands to a movement control system to maneuver the vehicle from the current location to the coarse waypoint (406; 506, 508, 510, 512, 514, 516) and passing through each of the one or more fine waypoints (412, 414, 416, 418; 518, 520); and capturing video via a camera system of the vehicle while the vehicle maneuvers from the current location to the coarse waypoint (406; 506, 508, 510, 512, 514, 516), characterized by the trajectory (402; 522; 526) reducing sudden changes in direction of movement of the vehicle by reducing j erk by minimizing a third derivative of the trajectory and/or by reducing snap of the vehicle by minimizing a fourth derivative of the trajectory, reducing sudden changes in speed of the vehicle by minimizing the first derivative of the trajectory, and reducing sudden changes in the vehicle acceleration by minimizing the second derivative of the trajectory.
A glass furnace comprising: a furnace melt chamber to contain a glass melt having a top surface; and a batch feeder to receive glass batch material and feed said material to the furnace melt chamber below the level of the glass melt top surface, characterized in a motor having an output shaft for driving the batch feeder in the form of a screw conveyor; and a high thermal resistance joint coupling the output shaft to the screw conveyor. a furnace melt chamber to contain a glass melt having a top surface; and a batch feeder to receive glass batch material and feed said material to the furnace melt chamber below the level of the glass melt top surface, characterized in a motor having an output shaft for driving the batch feeder in the form of a screw conveyor; and a high thermal resistance joint coupling the output shaft to the screw conveyor.
A metallic fastener element comprising a coupling head portion and a tape holding portion extending rearward in an element length direction from one end of the coupling head portion , in which the coupling head portion includes a flat plate portion formed to be thinner than the tape holding portion via a step portion , a central projecting portion protruded on a center part in an element width direction on each of an upper surface and a lower surface of the flat plate portion , and a right and left pair of coupling convex portions protruded in front of the central projecting portions on the upper surface and the lower surface of the flat plate portion , an insertion groove portion is provided between the right and left coupling convex portions , and right and left insertion concave portions are provided on both right and left sides of the central projecting portion and between the right and left coupling convex portions and the tape holding portion , being characterized in that the right and left coupling convex portions are disposed on an inner side in the element width direction to be apart from right and left outer side edges on each of the upper surface and the lower surface of the flat plate portion , the coupling head portion includes a raised portion disposed between the right and left coupling convex portions and rising from each of the upper surface and the lower surface of the flat plate portion , and the raised portion is connected to the central projecting portion and the right and left coupling convex portions . the right and left coupling convex portions are disposed on an inner side in the element width direction to be apart from right and left outer side edges on each of the upper surface and the lower surface of the flat plate portion , the coupling head portion includes a raised portion disposed between the right and left coupling convex portions and rising from each of the upper surface and the lower surface of the flat plate portion , and the raised portion is connected to the central projecting portion and the right and left coupling convex portions .
A dark circle detection and evaluation method, comprising: obtaining (S110) a to-be-processed image; extracting (S120) a dark circle region of interest from the to-be-processed image, wherein the extracting a dark circle region of interest from the to-be-processed image comprises: removing an eyelash region from the to-be-processed image; and extracting the dark circle region of interest from the to-be-processed image from which the eyelash region is removed; performing (S130) color clustering on the dark circle region of interest to obtain n types of colors in the dark circle region of interest, wherein n is a positive integer; recognizing (S140) a dark circle region in the dark circle region of interest based on the n types of colors; and obtaining (S150) a dark circle evaluation result based on the dark circle region, wherein the obtaining a dark circle evaluation result based on the dark circle region comprises: extracting a feature of the dark circle region, wherein the feature comprises at least one of a contrast of the dark circle region, an area of the dark circle region, or a variance of the dark circle region; and evaluating, based on the feature, a severity of dark circles by using a pattern recognition method. obtaining (S110) a to-be-processed image; extracting (S120) a dark circle region of interest from the to-be-processed image, wherein the extracting a dark circle region of interest from the to-be-processed image comprises: removing an eyelash region from the to-be-processed image; and extracting the dark circle region of interest from the to-be-processed image from which the eyelash region is removed; removing an eyelash region from the to-be-processed image; and extracting the dark circle region of interest from the to-be-processed image from which the eyelash region is removed; performing (S130) color clustering on the dark circle region of interest to obtain n types of colors in the dark circle region of interest, wherein n is a positive integer; recognizing (S140) a dark circle region in the dark circle region of interest based on the n types of colors; and obtaining (S150) a dark circle evaluation result based on the dark circle region, wherein the obtaining a dark circle evaluation result based on the dark circle region comprises: extracting a feature of the dark circle region, wherein the feature comprises at least one of a contrast of the dark circle region, an area of the dark circle region, or a variance of the dark circle region; and evaluating, based on the feature, a severity of dark circles by using a pattern recognition method. extracting a feature of the dark circle region, wherein the feature comprises at least one of a contrast of the dark circle region, an area of the dark circle region, or a variance of the dark circle region; and evaluating, based on the feature, a severity of dark circles by using a pattern recognition method.