mhurhangee/patent-ind-claim-en huggingface dataset:
Autonomous locomotion device, in particular autonomous lawnmower, having at least one drive unit , having at least one energy supply unit at least for supplying energy to the drive unit , having at least one vegetation sensor unit for capturing at least one vegetation characteristic variable, and having at least one open-loop and/or closed-loop control unit at least for open-loop and/or closed-loop control of the drive unit , wherein the open-loop and/or closed-loop control unit comprises a processor unit, a memory unit and an operating program stored in the memory unit and is provided at least for the purpose of controlling at least the drive unit in an open-loop and/or closed-loop manner to initiate an autonomous working process on the basis of the at least one vegetation characteristic variable, characterized in that a vegetation database is stored in the memory unit and can be used to infer an average growth of plants in a working area on the basis of the at least one captured vegetation characteristic variable, and/or the operating program of the open-loop and/or closed-loop control unit comprises at least one algorithm which can be used to calculate an average growth of plants in a working area on the basis of the at least one captured vegetation characteristic variable.
A brushless motor comprising: a stator core including an annular yoke part ; a coil ; a rotor located inward of the stator core ; and a protective member located between the yoke part and the rotor , the protective member comprising a first protective member and a second protective member housing the rotor ; the brushless motor being characterised in that : the stator core includes a plurality of teeth parts projecting from an inner circumferential surface of the yoke part ; the motor comprises an insulator that covers the yoke part and the teeth parts ; the coil is wound around the insulator that covers the teeth parts ; the rotor is located across a predetermined interval from an end of the teeth parts ; and the first protective member and the second protective member are latched to each other. a stator core including an annular yoke part ; a coil ; a rotor located inward of the stator core ; and a protective member located between the yoke part and the rotor , the protective member comprising a first protective member and a second protective member housing the rotor ; the brushless motor being characterised in that : the stator core includes a plurality of teeth parts projecting from an inner circumferential surface of the yoke part ; the motor comprises an insulator that covers the yoke part and the teeth parts ; the coil is wound around the insulator that covers the teeth parts ; the rotor is located across a predetermined interval from an end of the teeth parts ; and the first protective member and the second protective member are latched to each other. the stator core includes a plurality of teeth parts projecting from an inner circumferential surface of the yoke part ; the motor comprises an insulator that covers the yoke part and the teeth parts ; the coil is wound around the insulator that covers the teeth parts ; the rotor is located across a predetermined interval from an end of the teeth parts ; and the first protective member and the second protective member are latched to each other.
A method for identifying a network condition between a pair of network devices including a receiving device and a transmitting device , wherein the receiving device comprises a jitter buffer for storing packets received from the transmitting device via a network , the method comprising: monitoring , at the receiving device , a measure of delay in receiving media packets over the network ; monitoring , at the receiving device , a size of the jitter buffer ; the method further comprising the steps of: identifying , at the receiving device , a network condition in dependence on a change in the measure of delay and a variation in the size of the jitter buffer and sending information indicative of the condition of the network to the transmitting device ; and/or the steps of: sending information indicating the measure of network delay and the size of the jitter buffer to the transmitting device, and identifying , at the transmitting device , a network condition in dependence on a change in the measure of delay and a variation in the size of the jitter buffer . monitoring , at the receiving device , a measure of delay in receiving media packets over the network ; monitoring , at the receiving device , a size of the jitter buffer ; the method further comprising the steps of: identifying , at the receiving device , a network condition in dependence on a change in the measure of delay and a variation in the size of the jitter buffer and sending information indicative of the condition of the network to the transmitting device ; and/or the steps of: sending information indicating the measure of network delay and the size of the jitter buffer to the transmitting device, and identifying , at the transmitting device , a network condition in dependence on a change in the measure of delay and a variation in the size of the jitter buffer .
An expandable toroidal forming drum for building tyres, comprising: circumferentially consecutive sectors radially moveable between a contracted condition in which said sectors are approached with respect to a geometric rotation axis of the forming drum , and an expanded condition in which the sectors are radially moved away from said geometric axis in order to define a radially external abutment surface ("S"), wherein in the expanded condition, the abutment surface ("S") has circumferential rows of solid portions alternated with hollow portions , characterised in that the solid portions arranged along axially opposite circumferential edges of the abutment surface ("S") have a transverse size comprised between 10% and 60% of a transverse size presented by the solid portions arranged in proximity to an axial centreline plane of the abutment surface ("S") and in that said transverse size of the solid portions being detectable along the profile of the abutment surface ("S"), in a radial plane of the forming drum . circumferentially consecutive sectors radially moveable between a contracted condition in which said sectors are approached with respect to a geometric rotation axis of the forming drum , and an expanded condition in which the sectors are radially moved away from said geometric axis in order to define a radially external abutment surface ("S"), wherein in the expanded condition, the abutment surface ("S") has circumferential rows of solid portions alternated with hollow portions , characterised in that the solid portions arranged along axially opposite circumferential edges of the abutment surface ("S") have a transverse size comprised between 10% and 60% of a transverse size presented by the solid portions arranged in proximity to an axial centreline plane of the abutment surface ("S") and in that said transverse size of the solid portions being detectable along the profile of the abutment surface ("S"), in a radial plane of the forming drum .
A driving control system of an internal clutch comprising: at least one planet gear system and at least one cam ; a first control unit (C1) for switching a power input to be from a planet gear frame (A) or from an inner gear (R); the first control unit (C1) being by the cam through a first driving rod ; a second control unit (C2) for controlling a sun gear to be at a power output state (S1) or at a releasing state (S2); the second control unit (C2) being driven by the cam through a second driving rod ; and characterised by a third control unit (C3) for controlling a power output to be from a planet gear frame (A) or from an output power of an inner gear (R); the third control unit (C3) being driven by the cam through a third driving rod ; and the first driving rod , the second driving rod and the third driving rod are driven by the same cam ; the cam controls movements of the first, second and third driving rods to precisely control movements and moving sequence of the first, second and third control units, and by moving tracks of the first, second and third driving rods are one of a leftward and rightward moving track, an upward and downward moving track and a rotational moving track, and control sequences for controlling the movements of the driving rods are not overlapped. at least one planet gear system and at least one cam ; a first control unit (C1) for switching a power input to be from a planet gear frame (A) or from an inner gear (R); the first control unit (C1) being by the cam through a first driving rod ; a second control unit (C2) for controlling a sun gear to be at a power output state (S1) or at a releasing state (S2); the second control unit (C2) being driven by the cam through a second driving rod ; and characterised by a third control unit (C3) for controlling a power output to be from a planet gear frame (A) or from an output power of an inner gear (R); the third control unit (C3) being driven by the cam through a third driving rod ; and the first driving rod , the second driving rod and the third driving rod are driven by the same cam ; the cam controls movements of the first, second and third driving rods to precisely control movements and moving sequence of the first, second and third control units, and by moving tracks of the first, second and third driving rods are one of a leftward and rightward moving track, an upward and downward moving track and a rotational moving track, and control sequences for controlling the movements of the driving rods are not overlapped.
A tele-presence system , comprising: a cart , said cart includes a robot face that has a robot monitor , a robot camera , a robot speaker and a robot microphone ; and, a control station that, in use, is located in a place remote from the cart, wherein said remote control station is coupled to said robot face through a packet switched network , said remote control station includes a station monitor , a station camera , a station speaker and a station microphone ; and characterised in that the cart supports an overhead camera coupled to a boom , said overhead camera also coupled to said remote control station through said packet switched network; said robot face being supported on the cart by an articulated arm and moveable in response to commands provided by the remote control station by operating active joints in the articulated arm ; said remote control station configured to display a display user interface on said station monitor, said display user interface includes a robot field view ; and a graphical switch that allows a user to select between displaying, in said robot view field, a video image from either said robot camera or said overhead camera or simultaneously displaying a video image from said robot camera and a video image from said overhead camera. a cart , said cart includes a robot face that has a robot monitor , a robot camera , a robot speaker and a robot microphone ; and, a control station that, in use, is located in a place remote from the cart, wherein said remote control station is coupled to said robot face through a packet switched network , said remote control station includes a station monitor , a station camera , a station speaker and a station microphone ; and characterised in that the cart supports an overhead camera coupled to a boom , said overhead camera also coupled to said remote control station through said packet switched network; said robot face being supported on the cart by an articulated arm and moveable in response to commands provided by the remote control station by operating active joints in the articulated arm ; said remote control station configured to display a display user interface on said station monitor, said display user interface includes a robot field view ; and a graphical switch that allows a user to select between displaying, in said robot view field, a video image from either said robot camera or said overhead camera or simultaneously displaying a video image from said robot camera and a video image from said overhead camera.
A system for age-compensated monitoring of a patient experiencing an administration of at least one drug having anesthetic properties, the system comprising: a plurality of sensors configured to acquire physiological data from the patient while receiving the at least one drug having anesthetic properties; at least one processor configured to: receive physiological data from the plurality of sensors, wherein the physiological data is electroencephalography data; determine, from the physiological data and using a spectral estimation method, signal markers at least consistent with an apparent patient age; determine the apparent patient age based on at least one of the signal markers; and generate a report including at least the physiological data adjusted for the apparent patient age. a plurality of sensors configured to acquire physiological data from the patient while receiving the at least one drug having anesthetic properties; at least one processor configured to: receive physiological data from the plurality of sensors, wherein the physiological data is electroencephalography data; determine, from the physiological data and using a spectral estimation method, signal markers at least consistent with an apparent patient age; determine the apparent patient age based on at least one of the signal markers; and generate a report including at least the physiological data adjusted for the apparent patient age. receive physiological data from the plurality of sensors, wherein the physiological data is electroencephalography data; determine, from the physiological data and using a spectral estimation method, signal markers at least consistent with an apparent patient age; determine the apparent patient age based on at least one of the signal markers; and generate a report including at least the physiological data adjusted for the apparent patient age.
A positive electrode material for a lithium ion secondary battery, the positive electrode material comprising: core particles represented by General Formula Li X A y D Z PO 4 (here, A represents at least one element selected from the group consisting of Co, Mn, Ni, Fe, Cu, and Cr, D represents at least one element selected from the group consisting of Mg, Ca, Sr, Ba, Ti, Zn, B, Al, Ga, In, Si, Ge, Sc, and Y, 0.9 < x < 1.1, 0 < y ≤ 1, 0 ≤ z < 1, and 0.9 < y+z < 1.1); and a carbonaceous film coating a surface of the core particles, wherein in a Raman spectrum analysis of the carbonaceous film, in a case where a peak intensity of a spectrum in a wave number band of 1,200 to 1,400 cm -1 is set as a D value, a minimum intensity of the spectrum in a wave number band of 1,400 to 1,550 cm -1 is set as a V value, and a peak intensity of the spectrum in a wave number band of 1,550 to 1,700 cm -1 is set as a G value, an average value of D/G is 0.77 or more and 0.98 or less and an average value of V/G is 0.54 or more and 0.66 or less, and each of variation coefficients of the D/G and the V/G is 2% or less, wherein the Raman spectrum and the variation coefficients are measured and analyzed in accordance with the method described in the description. core particles represented by General Formula Li X A y D Z PO 4 (here, A represents at least one element selected from the group consisting of Co, Mn, Ni, Fe, Cu, and Cr, D represents at least one element selected from the group consisting of Mg, Ca, Sr, Ba, Ti, Zn, B, Al, Ga, In, Si, Ge, Sc, and Y, 0.9 < x < 1.1, 0 < y ≤ 1, 0 ≤ z < 1, and 0.9 < y+z < 1.1); and a carbonaceous film coating a surface of the core particles,
A memory device, comprising: a substrate of semiconductor material of a first conductivity type; first and second drain regions spaced apart in the substrate and having a second conductivity type different than the first conductivity type, with a continuous channel region in the substrate extending between the first and second drain regions; a first floating gate disposed over and insulated from a first portion of the channel region adjacent to the first drain region; a second floating gate disposed over and insulated from a second portion of the channel region adjacent to the second drain region; a word line gate disposed over and insulated from a third portion of the channel region between the first and second channel region portions; a first erase gate disposed over and insulated from the first drain region; a second erase gate disposed over and insulated from the second drain region; characterized in that : the first floating gate is partially disposed over and insulated from the first drain region, and the second floating gate is partially disposed over and insulated from the second drain region; the first erase gate includes a notch facing an edge of the first floating gate, and the second erase gate includes a notch facing an edge of the second floating gate; and in that the first floating gate includes a first upper surface that slopes downwardly as the first upper surface extends away from the first erase gate; and the second floating gate includes a second upper surface that slopes downwardly as the second upper surface extends away from the second erase gate. a substrate of semiconductor material of a first conductivity type; first and second drain regions spaced apart in the substrate and having a second conductivity type different than the first conductivity type, with a continuous channel region in the substrate extending between the first and second drain regions; a first floating gate disposed over and insulated from a first portion of the channel region adjacent to the first drain region; a second floating gate disposed over and insulated from a second portion of the channel region adjacent to the second drain region; a word line gate disposed over and insulated from a third portion of the channel region between the first and second channel region portions; a first erase gate disposed over and insulated from the first drain region; a second erase gate disposed over and insulated from the second drain region; characterized in that : the first floating gate is partially disposed over and insulated from the first drain region, and the second floating gate is partially disposed over and insulated from the second drain region; the first erase gate includes a notch facing an edge of the first floating gate, and the second erase gate includes a notch facing an edge of the second floating gate; and in that the first floating gate includes a first upper surface that slopes downwardly as the first upper surface extends away from the first erase gate; and the second floating gate includes a second upper surface that slopes downwardly as the second upper surface extends away from the second erase gate.
Hood-type annealing furnace for the annealing of annealing material, comprising at least one base , which comprises at least one site on which at least one batch of the annealing material can be arranged, at least one protective hood, by which the annealing material arranged on the site can be covered with formation of an annealing space enclosed by the protective hood and the site , at least one heating hood, by which the protective hood can be covered with formation of an intermediate space arranged between the heating hood and the protective hood and bounded at the bottom by the base , and at least one cooling gas system connected or connectible with the intermediate space to be in communication therewith, characterised in that the cooling gas system is connected or connectible with the intermediate space to be in communication therewith by way of at least one cooling gas outlet , which is formed at the base and is connected with the intermediate space to be in communication therewith, and at least one cooling gas inlet , which is formed at the base and is connected with the intermediate space to be in communication therewith.
Assembly, comprising a primary conductor which is arranged in a stationary manner and a device, such as a vehicle or a mobile part, which is movable relative thereto, for inductively transferring electrical energy from the primary conductor to the movable device, wherein the movable device has, in particular on the underside thereof, a secondary winding (L) which can be inductively coupled to the primary conductor, wherein a capacitor assembly is connected in parallel with the series circuit formed of the secondary winding (L) and a first capacitor (C1), said capacitor assembly comprising a second capacitor (C2) with which a third capacitor (C3) can be connected in parallel by means of a controllable switch (S), wherein the secondary winding (L) and the first, second and third capacitor (C1, C2, C3) form a resonant circuit, wherein the voltage dropping across the capacitor assembly is supplied to a rectifier (G), the output-side DC voltage of which is supplied to a voltage detection means, wherein a controller of the assembly is configured to actuate the switch (S) as a function of the DC voltage supplied to the voltage detection means, wherein a control signal of the controller for actuating the switch (S) is pulse-width-modulated, characterized in that the assembly has a voltage detection means for detecting the voltage dropping across the second capacitor, wherein the assembly is configured to determine, from a voltage characteristic of the voltage dropping across the second capacitor, a frequency of an AC current fed into the primary conductor, and in that in a first switch position of the switch (S) the resonant frequency of the resonant circuit corresponds to the frequency of the AC current fed into the primary conductor, and in another switch position of the switch (S) the resonant frequency of the resonant circuit does not correspond to the frequency of the AC current fed into the primary conductor.
A control apparatus for controlling an information equipment located in a consumer's facility , the control apparatus comprising: a reception unit configured to receive an operational instruction for the information equipment ; a transmission unit configured to transmit the operational instruction to the information equipment ; and a determination unit configured to determine a route type of the operational instruction according to whether or not the operational instruction passes through a server located outside the consumer's facility , characterized in that the determination unit is configured to determine that the route type is an inside-consumer's-facility operation when the operational instruction does not pass through the server , and that the route type is an outside-consumer's-facility operation from an outside of the consumer's facility when the operational instruction passes through the server , and the transmission unit is configured to transmit the operational instruction in a first format when the route type is the inside-consumer's-facility operation, and the transmission unit is configured to transmit the operational instruction in a second format different from the first format when the route type is the outside-consumer's-facility operation. a reception unit configured to receive an operational instruction for the information equipment ; a transmission unit configured to transmit the operational instruction to the information equipment ; and a determination unit configured to determine a route type of the operational instruction according to whether or not the operational instruction passes through a server located outside the consumer's facility , characterized in that the determination unit is configured to determine that the route type is an inside-consumer's-facility operation when the operational instruction does not pass through the server , and that the route type is an outside-consumer's-facility operation from an outside of the consumer's facility when the operational instruction passes through the server , and the transmission unit is configured to transmit the operational instruction in a first format when the route type is the inside-consumer's-facility operation, and the transmission unit is configured to transmit the operational instruction in a second format different from the first format when the route type is the outside-consumer's-facility operation.