mhurhangee/ep-ind-claims huggingface dataset:
A control method for an outdoor robot, the outdoor robot comprises an execution apparatus and an execution motor for driving the execution apparatus to perform a work task, wherein the control method comprises the following steps: obtaining a load parameter of the execution motor during running of the outdoor robot; obtaining a change rate parameter of a load according to the load parameter; and when it is determined that the change rate parameter of the load represents that the load increases and the change rate parameter of the load exceeds a preset threshold range, braking the execution apparatus obtaining a load parameter of the execution motor during running of the outdoor robot; obtaining a change rate parameter of a load according to the load parameter; and when it is determined that the change rate parameter of the load represents that the load increases and the change rate parameter of the load exceeds a preset threshold range, braking the execution apparatus
A voltage-controlled oscillator, comprising: a programmable current source configured to output a first current wherein each of first select signals and each of second select signals together control the first current output by the programmable current source; an inductor having a tap and being coupled to a positive-side output node and a negative side output node, wherein the tap is coupled to receive the first current; a coarse grain capacitor array coupled to the positive-side output node and the negative side output node and coupled to respectively receive the first select signals wherein each of the first select signals together control an effective capacitance from the coarse grain capacitor array; a varactor coupled to the positive-side output node and the negative side output node and coupled to receive a control voltage; wherein the varactor includes first MuGFETs (141, 142); a transconductance cell coupled to the positive-side output node and the negative side output node and having a common node; and a frequency scaled bias current source-resistor network coupled to the common node and coupled to receive the first select signals, wherein each of the first select signals together control an effective resistance for a cumulative-current path for a second current through the frequency scaled bias current source-resistor network. a programmable current source configured to output a first current wherein each of first select signals and each of second select signals together control the first current output by the programmable current source; an inductor having a tap and being coupled to a positive-side output node and a negative side output node, wherein the tap is coupled to receive the first current; a coarse grain capacitor array coupled to the positive-side output node and the negative side output node and coupled to respectively receive the first select signals wherein each of the first select signals together control an effective capacitance from the coarse grain capacitor array; a varactor coupled to the positive-side output node and the negative side output node and coupled to receive a control voltage; wherein the varactor includes first MuGFETs (141, 142); a transconductance cell coupled to the positive-side output node and the negative side output node and having a common node; and a frequency scaled bias current source-resistor network coupled to the common node and coupled to receive the first select signals, wherein each of the first select signals together control an effective resistance for a cumulative-current path for a second current through the frequency scaled bias current source-resistor network.
Connection between wall elements (1, 2) of buildings whereby, on both of the wall elements (1, 2) which are to be connected, in each case on that particular surface which faces the corresponding other wall element (2, 1), a connecting profile (3, 4, 13 14, 23, 24) is firmly anchored, - whereby the first connecting profile (3, 13, 23) is attached, in each case by means of a clamping surface (3.1, 13.1, 23.1, 23.2), to a parallel clamping surface (4.1, 14.1, 24.2, 24.1) of the second connecting profile (4, 14, 24), - whereby each clamping surface (3.1, 13.1, 23.1, 4.1, 14.1, 24.1) forms an acute angle (a) with that particular surface of the wall element (1, 2) which is connected to the connecting profile (3, 13, 23, 4, 14, 24), - whereby at least one of the two connecting profiles (3, 4, 13, 14, 23, 24) has a groove into which projects a profile wall of the other connecting profile in each case, - whereby, in the case of the connecting profile which exhibits the groove (3, 13, 14, 23, 24), the clamping surface (3.1, 13.1, 14.1, 23.1, 24.1) is located on the groove-facing side of a profile wall which laterally limits the groove, - whereby the width of the groove on the one connecting profile (3, 13, 14, 23, 24) is greater than the width of the profile wall of the other connecting profile (4, 13, 14, 23, 24) which projects into this groove, - which is characterised by the fact that the remaining width area of the groove is bridged by blocks (35 5, 15, 25,), each of which is firmly connected to one of the two connecting profiles (3, 4, 13, 14, 23, 24). - whereby the first connecting profile (3, 13, 23) is attached, in each case by means of a clamping surface (3.1, 13.1, 23.1, 23.2), to a parallel clamping surface (4.1, 14.1, 24.2, 24.1) of the second connecting profile (4, 14, 24), - whereby each clamping surface (3.1, 13.1, 23.1, 4.1, 14.1, 24.1) forms an acute angle (a) with that particular surface of the wall element (1, 2) which is connected to the connecting profile (3, 13, 23, 4, 14, 24), - whereby at least one of the two connecting profiles (3, 4, 13, 14, 23, 24) has a groove into which projects a profile wall of the other connecting profile in each case, - whereby, in the case of the connecting profile which exhibits the groove (3, 13, 14, 23, 24), the clamping surface (3.1, 13.1, 14.1, 23.1, 24.1) is located on the groove-facing side of a profile wall which laterally limits the groove, - whereby the width of the groove on the one connecting profile (3, 13, 14, 23, 24) is greater than the width of the profile wall of the other connecting profile (4, 13, 14, 23, 24) which projects into this groove, - which is characterised by the fact that the remaining width area of the groove is bridged by blocks (35 5, 15, 25,), each of which is firmly connected to one of the two connecting profiles (3, 4, 13, 14, 23, 24).
A heat sink comprising: a heat transport member having a heat receiving portion thermally connected to a heating element; a tube body connected to a heat insulating portion or a heat radiating portion of the heat transport member; and a heat radiation fin group which is thermally connected to the tube body and in which a plurality of heat radiation fins are arranged, wherein the heat transport member has an integral internal space that communicates from the heat receiving portion to a connection portion with the tube body and is sealed with a working fluid, and the internal space of the heat transport member communicates with an internal space of the tube body, a wick structure provided on the heat transport member is connected to a wick structure provided in the tube body via a connection member that is a wick member having a capillary force, and characterised in that the wick structure provided on the heat transport member, the wick structure provided in the tube body, and the wick member are different in type from each other, and the wick structure provided in the tube body is a plurality of fine grooves formed in an inner surface of the tube body. a heat transport member having a heat receiving portion thermally connected to a heating element; a tube body connected to a heat insulating portion or a heat radiating portion of the heat transport member; and a heat radiation fin group which is thermally connected to the tube body and in which a plurality of heat radiation fins are arranged, wherein the heat transport member has an integral internal space that communicates from the heat receiving portion to a connection portion with the tube body and is sealed with a working fluid, and the internal space of the heat transport member communicates with an internal space of the tube body, a wick structure provided on the heat transport member is connected to a wick structure provided in the tube body via a connection member that is a wick member having a capillary force, and characterised in that the wick structure provided on the heat transport member, the wick structure provided in the tube body, and the wick member are different in type from each other, and the wick structure provided in the tube body is a plurality of fine grooves formed in an inner surface of the tube body.
A user equipment, UE, comprising: at least one component configured to detect a time-out of a data transfer of an application and, responsive to detecting the time-out of the data transfer of the application, to deactivate one of a packet data protocol, PDP, context based on a first internet protocol addressing version and an evolved packet system, EPS, bearer based on the first internet protocol addressing version, wherein the one of the PDP context and the EPS bearer is associated with the application, and to reactivate the one of the PDP context and the EPS bearer based on a second internet protocol addressing version. at least one component configured to detect a time-out of a data transfer of an application and, responsive to detecting the time-out of the data transfer of the application, to deactivate one of a packet data protocol, PDP, context based on a first internet protocol addressing version and an evolved packet system, EPS, bearer based on the first internet protocol addressing version, wherein the one of the PDP context and the EPS bearer is associated with the application, and to reactivate the one of the PDP context and the EPS bearer based on a second internet protocol addressing version.
A method for wireless communication, the method comprising: communicating via a relay wireless communication link, the communicating comprising communications using a plurality of bearers; identifying that a packet belongs to a first bearer, the first bearer being associated with a quality of service, QoS, parameter set; configuring a header of the packet for transmission on the relay wireless communication link that is processed by a relay wireless device to convey an indication of the QoS parameter set, wherein the header is further configured to convey an indication of an allocation and retention policy, ARP, of the first bearer; and transmitting the packet comprising the configured header on the relay wireless communication link according to the QoS parameter set. communicating via a relay wireless communication link, the communicating comprising communications using a plurality of bearers; identifying that a packet belongs to a first bearer, the first bearer being associated with a quality of service, QoS, parameter set; configuring a header of the packet for transmission on the relay wireless communication link that is processed by a relay wireless device to convey an indication of the QoS parameter set, wherein the header is further configured to convey an indication of an allocation and retention policy, ARP, of the first bearer; and transmitting the packet comprising the configured header on the relay wireless communication link according to the QoS parameter set.
A capsule for use in a beverage production device, the capsule containing ingredients for producing a nutritional liquid when a liquid is fed into the capsule at an inlet face thereof, the capsule furthermore containing heat sensitive bioactive components, wherein the heat sensitive bioactive components are physically separated from at least a part of the ingredients.
A power tool comprising: a housing; a brushless motor disposed within the housing, the motor comprising a stator having a plurality of windings and a rotor; a power switch circuit that supplies power from a power source to the brushless motor; an ON/OFF switch that selectively cuts off supply of power to the motor based on a user action; and a controller configured to sense a state of the ON/OFF switch and configured to receive at least one signal associated with a phase current of the motor, detect an angular position of the rotor based on the phase current of the motor, and apply a drive signal to the power switch circuit to control a commutation of the motor based on the detected angular position of the rotor, wherein, if the supply of power to the motor is turned OFF to cause the motor to slow down and is turned back ON while the rotor speed exceeds a speed threshold, the controller electronically brakes the motor for a time interval to measure the phase current of the motor and detects the angular position of the rotor based on the measured phase current, wherein the controller is configured to determine the rotor speed based on a frequency of change in the rotor position. a housing; a brushless motor disposed within the housing, the motor comprising a stator having a plurality of windings and a rotor; a power switch circuit that supplies power from a power source to the brushless motor; an ON/OFF switch that selectively cuts off supply of power to the motor based on a user action; and a controller configured to sense a state of the ON/OFF switch and configured to receive at least one signal associated with a phase current of the motor, detect an angular position of the rotor based on the phase current of the motor, and apply a drive signal to the power switch circuit to control a commutation of the motor based on the detected angular position of the rotor, wherein, if the supply of power to the motor is turned OFF to cause the motor to slow down and is turned back ON while the rotor speed exceeds a speed threshold, the controller electronically brakes the motor for a time interval to measure the phase current of the motor and detects the angular position of the rotor based on the measured phase current, wherein the controller is configured to determine the rotor speed based on a frequency of change in the rotor position.
Method for operating a pressurised water filter, wherein a pressurised water filter is streamed by a centrate of liquid fermentation residue or slurry, wherein after filtering the centrate a biological purification of the filtered centrate happens inside the pressurised water filter, and in the pressurised water filter plant carbon is arranged as filter material, wherein the plant carbon is obtained in a preliminary step from solid substances with the following steps - providing fermentation residues or slurries, - separating the solid substances from the centrate, - drying the solid substances, - pyrolyzing the dried solid substances to produce plant carbon and - production of the plant carbon, and - supplying the plant carbon to the pressurised water filter, contained in the liquid fermentation residue or the slurry, and wherein in the centrate contained nutrients, trace elements and or organic trace elements are absorbed on the plant carbon. - providing fermentation residues or slurries, - separating the solid substances from the centrate, - drying the solid substances, - pyrolyzing the dried solid substances to produce plant carbon and - production of the plant carbon, and - supplying the plant carbon to the pressurised water filter,
A power receiver for receiving wireless power transfer from a power transfer signal from a wireless power transmitter during a power transfer phase, the power transfer signal during the power transfer phase employing a repeating time frame comprising at least a power transfer time interval for transferring power from the wireless power transmitter to the power receiver and a foreign object detection time interval assigned to foreign object detection and having a reduced power level of the power transfer signal in comparison to the power transfer time interval; the power receiver being characterized by comprising: a synchronizer configured for synchronizing a local time reference to the repeating time frame, the synchronizer being arranged to vary a setting of the local time reference to align this with the repeating time frame; a load controller configured for reducing a power level of the power transfer signal by disconnecting a load during at least part of the foreign object detection time intervals during at least part of the power transfer phase, a timing of the disconnecting being dependent on the local time reference; a mode controller configured for switching between a first operational mode and a second operational mode for the power transfer time intervals in response to a reliability measure for the synchronization, wherein different power transfer parameters are employed in the first operational mode and in the second operational mode; wherein the first and second operational modes employ different power transfer parameters by at least one of: applying a different limit for a signal level of the power transfer signal in the first and second operational modes; employing a different load of the power transfer signal in the first and second operational modes; and applying a different limit to rate of changes for power levels of the power transfer signal in the first and second operational modes. a synchronizer configured for synchronizing a local time reference to the repeating time frame, the synchronizer being arranged to vary a setting of the local time reference to align this with the repeating time frame; a load controller configured for reducing a power level of the power transfer signal by disconnecting a load during at least part of the foreign object detection time intervals during at least part of the power transfer phase, a timing of the disconnecting being dependent on the local time reference; a mode controller configured for switching between a first operational mode and a second operational mode for the power transfer time intervals in response to a reliability measure for the synchronization, wherein different power transfer parameters are employed in the first operational mode and in the second operational mode;
A computer-implemented method of block diagram modeling comprising: in a block diagram model of a dynamic system, wherein the model comprises multiple blocks, organizing for each of at least one particular one of the blocks a particular I/O buffer (100; 110) in a memory on a computer for storing data elements supplied to and/or supplied by the particular block during execution of the model, characterized in that the organizing comprises implementing for said each of the at least one of the blocks in the particular I/O buffer an addressing mode in which individual ones of the data elements in the memory are sequentially accessed during execution of the model, wherein the addressing mode is specified by at least one of: a wrap-around size, determining how the particular I/O buffer wraps around itself; and/or a starting offset, determining a relative position of a first one of the data elements in the I/O buffer with respect to a base address of the particular I/O buffer; and/or a stride factor, determining a spacing in the particular I/O buffer between sequentially accessible ones of the data elements. a wrap-around size, determining how the particular I/O buffer wraps around itself; and/or a starting offset, determining a relative position of a first one of the data elements in the I/O buffer with respect to a base address of the particular I/O buffer; and/or a stride factor, determining a spacing in the particular I/O buffer between sequentially accessible ones of the data elements.
Morphable sheet structure comprising a succession of adjacent flexible elongated rods laterally connected to each other defining a sheet structure, each rod having two ends and defining a longitudinal axis from one end to the other end; wherein the rods are grouped in pairs, and wherein: each pair of adjacent rods are connected to each other through a first connector tightly connected to a second connector complementary with the first connector, being the first connector part of one rod of said pair of adjacent rods and being the second connector part of the other rod of said pair of adjacent rods; being the first connector and the second connector slidably movable to each other in the direction of the longitudinal axis; the first connector and/or the second connector extending along the entire longitude of the rod; the flexible elongated rods are bendable or twistable along said longitudinal axis simultaneously with the sliding movement of the relative position between adjacent rods; characterized in that said morphable sheet structure is morphable from a flat or singly curved shape into a doubly curved shape with non-zero Gaussian curvature. each pair of adjacent rods are connected to each other through a first connector tightly connected to a second connector complementary with the first connector, being the first connector part of one rod of said pair of adjacent rods and being the second connector part of the other rod of said pair of adjacent rods; being the first connector and the second connector slidably movable to each other in the direction of the longitudinal axis; the first connector and/or the second connector extending along the entire longitude of the rod; the flexible elongated rods are bendable or twistable along said longitudinal axis simultaneously with the sliding movement of the relative position between adjacent rods;
A biological information obtainment device comprising: a signal decomposition unit configured to decompose a hemodynamic signal detected from an organism into a plurality of component signals; a periodicity calculation unit configured to calculate a periodicity of each of the plurality of component signals; and an identification unit configured to identify a hemodynamic element based on the periodicity, wherein the signal decomposition unit is configured to decompose a first hemodynamic signal and a second hemodynamic signal detected from at least two locations of the organism into a plurality of component signals each, and the identification unit is configured to identify the hemodynamic element based on a correlation between the periodicity of the component signals included in the first hemodynamic signal and the periodicity of the component signals included in the second hemodynamic signal and an evaluation value E of the correlation calculated through Formula using an evaluation value P A1 of the periodicity of a component signal D A1 included in a first hemodynamic signal S A, an evaluation value P B1 of the periodicity of a component signal D B1 included in a second hemodynamic signal S B, and a number N of sampling data contained in the component signals, wherein Formula comprises: E = ∑ i = 1 N P A 1 i − P B 1 i a signal decomposition unit configured to decompose a hemodynamic signal detected from an organism into a plurality of component signals; a periodicity calculation unit configured to calculate a periodicity of each of the plurality of component signals; and an identification unit configured to identify a hemodynamic element based on the periodicity, wherein the signal decomposition unit is configured to decompose a first hemodynamic signal and a second hemodynamic signal detected from at least two locations of the organism into a plurality of component signals each, and the identification unit is configured to identify the hemodynamic element based on a correlation between the periodicity of the component signals included in the first hemodynamic signal and the periodicity of the component signals included in the second hemodynamic signal and an evaluation value E of the correlation calculated through Formula using an evaluation value P A1 of the periodicity of a component signal D A1 included in a first hemodynamic signal S A, an evaluation value P B1 of the periodicity of a component signal D B1 included in a second hemodynamic signal S B, and a number N of sampling data contained in the component signals, wherein Formula comprises: E = ∑ i = 1 N P A 1 i − P B 1 i