mhurhangee/patent-ind-claim-en huggingface dataset:
A depth camera, comprising: a processor, a plurality of light emitting elements, and at least two ToF sensors; a composite irradiation range of the plurality light emitting elements covering a composite field of view of the at least two ToF sensors, wherein, the processor is configured to generate a modulation signal and a demodulation signal, and output the modulation signal to each light emitting element, output the demodulation signal to each ToF sensor, and receive depth data input by each ToF sensor, perform data fusion processing on all the received depth data to generate combined depth data, and obtain a combined depth map based on the combined depth data; each light emitting element is configured to receive a modulation signal input by the processor, modulate its own light signal with the modulation signal, and transmit a modulated light signal to an object within its own irradiation range; each ToF sensor is configured to receive a demodulation signal input by the processor, receive a modulated light signal reflected back by an object within its own field of view, demodulate the received light signal with the demodulation signal to generate depth data, and output the generated depth data to the processor, characterized in that all of the light emitting elements use the same modulation signal to modulate light signals, and all ToF sensors use the same demodulation signal corresponding to the modulation signal to demodulate modulated light signals. the processor is configured to generate a modulation signal and a demodulation signal, and output the modulation signal to each light emitting element, output the demodulation signal to each ToF sensor, and receive depth data input by each ToF sensor, perform data fusion processing on all the received depth data to generate combined depth data, and obtain a combined depth map based on the combined depth data; each light emitting element is configured to receive a modulation signal input by the processor, modulate its own light signal with the modulation signal, and transmit a modulated light signal to an object within its own irradiation range; each ToF sensor is configured to receive a demodulation signal input by the processor, receive a modulated light signal reflected back by an object within its own field of view, demodulate the received light signal with the demodulation signal to generate depth data, and output the generated depth data to the processor, characterized in that all of the light emitting elements use the same modulation signal to modulate light signals, and all ToF sensors use the same demodulation signal corresponding to the modulation signal to demodulate modulated light signals.
Method for managing interactions via a communication network between a first communicating object (A) and a second communicating object (B) linked by a link connecting at least one function of the first object to at least one function of the second object, the network including a set of communicating objects, the method comprising in the first object: - the storage of at least one execution agreement (AC) relating to a link between two objects of said set of objects: - the activation of the link connecting a function of the first object to a function of the second object, said activation comprising: - access to an execution agreement relating to said link connecting a function of the first object (A) to a function of the second object (B), comprising the search in the other communicating objects of the network for parts of said agreement not stored in the first object, and the storage in the first object of said parts found in at least one other object of the network; - executing said execution agreement relating to the link connecting a function of the first object to a function of the second object. - the storage of at least one execution agreement (AC) relating to a link between two objects of said set of objects: - the activation of the link connecting a function of the first object to a function of the second object, said activation comprising: - access to an execution agreement relating to said link connecting a function of the first object (A) to a function of the second object (B), comprising the search in the other communicating objects of the network for parts of said agreement not stored in the first object, and the storage in the first object of said parts found in at least one other object of the network; - executing said execution agreement relating to the link connecting a function of the first object to a function of the second object. - access to an execution agreement relating to said link connecting a function of the first object (A) to a function of the second object (B), comprising the search in the other communicating objects of the network for parts of said agreement not stored in the first object, and the storage in the first object of said parts found in at least one other object of the network; - executing said execution agreement relating to the link connecting a function of the first object to a function of the second object.
A method comprising: measuring a wind speed for a location upwind of a wind turbine ; damping, based on a first average ( v 1 ) from the measured wind speed, oscillations of the structure relative to a first steady-state deflection T d ( v 1 ); determining a second average wind speed ( v 2 ) from the measured wind speed; predicting, using the measured wind speed, a changed steady-state deflection T d ( v 2 ) of a structure of the wind turbine once wind from the location is incident on the wind turbine; wherein predicting the changed steady-state deflection is responsive to the second average wind speed differing from the first average wind speed; and damping oscillations of the structure relative to the changed steady-state deflection; wherein the method comprises: estimating, using the measured wind speed, a time series of values for a control signal of the wind turbine; optimizing the time series of values according to a cost function that penalizes deflections of the structure relative to the changed steady-state deflection, wherein damping oscillations of the structure comprises generating the control signal with the optimized time series of values. measuring a wind speed for a location upwind of a wind turbine ; damping, based on a first average ( v 1 ) from the measured wind speed, oscillations of the structure relative to a first steady-state deflection T d ( v 1 ); determining a second average wind speed ( v 2 ) from the measured wind speed; predicting, using the measured wind speed, a changed steady-state deflection T d ( v 2 ) of a structure of the wind turbine once wind from the location is incident on the wind turbine; wherein predicting the changed steady-state deflection is responsive to the second average wind speed differing from the first average wind speed; and damping oscillations of the structure relative to the changed steady-state deflection; wherein the method comprises: estimating, using the measured wind speed, a time series of values for a control signal of the wind turbine; optimizing the time series of values according to a cost function that penalizes deflections of the structure relative to the changed steady-state deflection, wherein damping oscillations of the structure comprises generating the control signal with the optimized time series of values. estimating, using the measured wind speed, a time series of values for a control signal of the wind turbine; optimizing the time series of values according to a cost function that penalizes deflections of the structure relative to the changed steady-state deflection, wherein damping oscillations of the structure comprises generating the control signal with the optimized time series of values.
Work device having a drive unit and an operator control handle , wherein the operator control handle is connected to the drive unit via electrical lines (L1, L2, L3, L4), wherein an electrical line (L1, L2, L3, L4) is attached to a first electrical connection point on the operator control handle and to a second electrical connection point on the drive unit , characterized in that , in addition to the electrical line (L1, L2, L3, L4) connected to the electrical connection points, a securing cable running between the operator control handle and the drive unit is provided, wherein one end section of the securing cable is mechanically fixed to the operator control handle and the other end section of the securing cable is mechanically attached to the drive unit , wherein the electrical line (L1, L2, L3, L4) is guided together with the securing cable in such a way that the securing cable forms a pull-off prevention means of the electrical line (L1, L2, L3, L4).
A mechanical interface for the coupling of a module to a module carrier or for the coupling of two modules comprising a first interface component , a second interface component , wherein the interface components are complementary to each other, a positioning means for the repeatable positioning of the second interface component and the first interface component relative to one another in a predetermined position and a holding means for holding the second interface component at the first interface component , wherein the interface has a data transmission means for transmitting data between the first interface component and the second interface component and a power transmission means for transmitting electrical power between the first interface component and the second interface component , at least one of the interface components has a microcontroller, and the microcontroller is designed for storing data, characterized in that coupling classes are defined in the microcontroller, and that the coupling class is stored for the respective module to be coupled to the interface or for the module carrier, so that the module or the module carrier becomes identifiable and can be checked for compatibility or incompatibility with the work process and / or further module carriers or modules and tools.
A method for controlling, by a hypervisor , access to physical resources during execution of a virtual machine , the method comprising: allocating , by a hypervisor , to a virtual disk in a virtual machine , an amount of access to at least one physical disk ; determining , by the hypervisor , that a level of utilization of the at least one physical disk exceeds a threshold; selecting, by the hypervisor , based on the determination and said threshold, an action from a plurality of predefined actions for limiting access to the at least one physical disk , wherein said action corresponds to said threshold and, the actions are defined in a file, and wherein said file contains a mapping between a threshold and a type of limitation to impose, and wherein the selected action allows for continued access by the virtual disk to the at least one physical disk ; and performing , by the hypervisor , in response to the determination, the selected action to limit access by the virtual disk to the at least one physical disk . allocating , by a hypervisor , to a virtual disk in a virtual machine , an amount of access to at least one physical disk ; determining , by the hypervisor , that a level of utilization of the at least one physical disk exceeds a threshold; selecting, by the hypervisor , based on the determination and said threshold, an action from a plurality of predefined actions for limiting access to the at least one physical disk , wherein said action corresponds to said threshold and, the actions are defined in a file, and wherein said file contains a mapping between a threshold and a type of limitation to impose, and wherein the selected action allows for continued access by the virtual disk to the at least one physical disk ; and performing , by the hypervisor , in response to the determination, the selected action to limit access by the virtual disk to the at least one physical disk .
A composition comprising a graft copolymer that comprises: (i) a backbone comprising an alpha-1,3-glucan ether compound that has a degree of substitution of about 0.001 to about 3.0, and (ii) one or more alpha-1,3-glucan side chains comprising at least about 50% alpha-1,3 glycosidic linkages; wherein the alpha-1,3-glucan ether compound comprises an ether-linked carboxyalkyl group. (i) a backbone comprising an alpha-1,3-glucan ether compound that has a degree of substitution of about 0.001 to about 3.0, and (ii) one or more alpha-1,3-glucan side chains comprising at least about 50% alpha-1,3 glycosidic linkages;
Milling tool having a base body that comprises a centre axis (M) and said base body comprises a clamping area and an operational area , wherein the operational area comprises an end face and a circumferential surface that connects - when viewed in the axial direction - to the end face , wherein at least four geometrically defined cutting edges are arranged on the circumferential surface , wherein in each case two - when viewed in the circumferential direction - directly adjacent cutting edges are spaced from one another by means of a dividing angle (α, β, γ, δ, ε), wherein the operational area - when viewed along the centre axis - comprises a first dividing area in which all the dividing angles (α, β, γ, δ, ε) are different from one another, characterised in that all the cutting edges comprise in each case precisely one interruption along their extent, wherein all the interruptions - when viewed in the axial direction - are arranged offset with respect to one another.
Detergent portioning unit, comprising a) a dimensionally stable gel body comprising a bottom side, a top side and a shell surface connecting the bottom side and the top side, b) a coating substance in the form of two tablets which cover the underside and the upper side of the dimensionally stable gel body, wherein i) at least one of the tablets has a bottom side and a top side, which are connected to each other by a shell surface, and ii) this tablet has at least one spatial diagonal which connects two points lying opposite one another on the outer surface of the tablet, the density of the tablet changing at least twice along the spatial diagonal in such a way that the density initially increases and then decreases again, and iii) said tablet is further adhered on its underside to the dimensionally stable gel body, wherein iv) the upper surface of this tablet has an indentation whose depth is between 1% and 40% of the height of the tablet. a) a dimensionally stable gel body comprising a bottom side, a top side and a shell surface connecting the bottom side and the top side, b) a coating substance in the form of two tablets which cover the underside and the upper side of the dimensionally stable gel body, wherein i) at least one of the tablets has a bottom side and a top side, which are connected to each other by a shell surface, and ii) this tablet has at least one spatial diagonal which connects two points lying opposite one another on the outer surface of the tablet, the density of the tablet changing at least twice along the spatial diagonal in such a way that the density initially increases and then decreases again, and iii) said tablet is further adhered on its underside to the dimensionally stable gel body, wherein iv) the upper surface of this tablet has an indentation whose depth is between 1% and 40% of the height of the tablet. i) at least one of the tablets has a bottom side and a top side, which are connected to each other by a shell surface, and ii) this tablet has at least one spatial diagonal which connects two points lying opposite one another on the outer surface of the tablet, the density of the tablet changing at least twice along the spatial diagonal in such a way that the density initially increases and then decreases again, and iii) said tablet is further adhered on its underside to the dimensionally stable gel body, wherein iv) the upper surface of this tablet has an indentation whose depth is between 1% and 40% of the height of the tablet.
A system , comprising: a camera to capture an image of a zone of operation including a plurality of users ; a plurality of microphones arranged around a perimeter of the zone of operation to receive ambient sounds; a plurality of speakers to output an audio signal to suppress the ambient sounds; and a processor in communication with the camera , the plurality of microphones and the plurality of speakers , wherein the processor identifies a location for each of the plurality of users within the zone of operation based on the image that is captured, determines a direction and a frequency of the ambient sounds for each one of the plurality of users , and generates the audio signal based on the determined direction and the frequency of the ambient sounds for each one of the plurality of users , the audio signal directed towards the identified locations. a camera to capture an image of a zone of operation including a plurality of users ; a plurality of microphones arranged around a perimeter of the zone of operation to receive ambient sounds; a plurality of speakers to output an audio signal to suppress the ambient sounds; and a processor in communication with the camera , the plurality of microphones and the plurality of speakers , wherein the processor identifies a location for each of the plurality of users within the zone of operation based on the image that is captured, determines a direction and a frequency of the ambient sounds for each one of the plurality of users , and generates the audio signal based on the determined direction and the frequency of the ambient sounds for each one of the plurality of users , the audio signal directed towards the identified locations.
An assembly comprising a box and a lid for closing the box , the box having a base and a staking stud projecting from the base, the lid including in its thickness a through passage having a broad segment opening out into an outside surface of the lid , and a narrow segment opening out into an inside surface of the lid , the box and the lid being arranged in such a manner that, when the lid closes the box , the inside surface of the lid rests on the base of the box and the staking stud extends through the narrow segment and into the broad segment of the through passage in order to be melted during a staking operation so that a melted portion of the staking stud extends in the broad segment and secures the box and the lid together, the base of the box including an energy guide extending in the proximity of the staking stud in order to be in contact with the inside surface of the lid and in order to melt during the staking operation so as to secure the base of the box together with the inside surface of the lid, the staking stud having an enlargement presenting a diameter (D1) greater than the diameter (D2) of the narrow segment of the through passage, and in that the energy guide extends around the staking stud with the exception of an angular fraction .
A fluid delivery pod comprising: a first surface ; a second surface that opposes the first surface; a reservoir body intermediate the first and the second surfaces , wherein the reservoir body is configured to house a fluid; an outlet port in fluid communication with the reservoir body ; a heating structure within the reservoir body and being electrically conductive to wirelessly receive inductive energy from an energy source that is external to the fluid reservoir body to heat at least a portion of the fluid within the reservoir body; and a valve assembly that is operative to, in response to an application of compression forces on the opposing first and the second surfaces , dispense at least a portion of the heated fluid through the outlet port ; wherein the heating structure is a conductive tube having a length that is based on a specific heat capacity of the fluid housed in the reservoir body ; wherein the valve assembly includes a lower chamber and the conductive heating tube is positioned around at least a portion of the lower chamber of the valve assembly ; and wherein the conductive heating tube has longitudinal edges which are welded or crimped to be joined. a first surface ; a second surface that opposes the first surface; a reservoir body intermediate the first and the second surfaces , wherein the reservoir body is configured to house a fluid; an outlet port in fluid communication with the reservoir body ; a heating structure within the reservoir body and being electrically conductive to wirelessly receive inductive energy from an energy source that is external to the fluid reservoir body to heat at least a portion of the fluid within the reservoir body; and a valve assembly that is operative to, in response to an application of compression forces on the opposing first and the second surfaces , dispense at least a portion of the heated fluid through the outlet port ; wherein the heating structure is a conductive tube having a length that is based on a specific heat capacity of the fluid housed in the reservoir body ; wherein the valve assembly includes a lower chamber and the conductive heating tube is positioned around at least a portion of the lower chamber of the valve assembly ; and wherein the conductive heating tube has longitudinal edges which are welded or crimped to be joined.
A turbomachine combustion assembly, comprising a turbomachine combustion chamber , and an injector for starting the turbomachine combustion chamber, disposed on a wall of the combustion chamber and opening thereinto through an orifice of the wall, the starting injector including: - a fuel injection circuit , - a fuel ignition circuit , comprising a fuel injector supplied by the fuel injection circuit , and a plug for igniting the injected fuel, - a partitioned enclosure comprising a first compartment in which the ignition of the fuel by the plug is carried out, and a second compartment separated from the first one by a thermally conductive partition , the assembly being characterized in that the first compartment communicates with the second compartment so that all the ignited fuel is discharged from the injector through the opening of the second compartment , and - a main circuit for starting the combustion, including at least one fuel injector supplied by said fuel injection circuit and opening into the second compartment of the enclosure by being disposed so as to inject the fuel against said wall . - a fuel injection circuit , - a fuel ignition circuit , comprising a fuel injector supplied by the fuel injection circuit , and a plug for igniting the injected fuel, - a partitioned enclosure comprising a first compartment in which the ignition of the fuel by the plug is carried out, and a second compartment separated from the first one by a thermally conductive partition , - a main circuit for starting the combustion, including at least one fuel injector supplied by said fuel injection circuit and opening into the second compartment of the enclosure by being disposed so as to inject the fuel against said wall .
A transfer apparatus comprising: a rod-shaped member including a magnetic material; a driving device configured to rotate the rod-shaped member about a central axis of the rod-shaped member ; a movable portion facing part of a side surface of the rod-shaped member, the movable portion including a magnetic material and being configured to move along the central axis of the rod-shaped member when the driving device rotates the rod-shaped member ; a movable bearing capable of being coupled to the movable portion by a magnetic force, the movable bearing receiving a load from the rod-shaped member and being movable along the central axis of the rod-shaped member in association with a movement of the movable portion ; and a decoupling mechanism configured to decouple the movable bearing coupled by the magnetic force from the movable portion .