mhurhangee/patent-ind-claim-en huggingface dataset:
A method for cross-referencing forensic snapshots over time, the method comprising: receiving a first snapshot of a computing device at a first time and a second snapshot of the computing device at a second time; applying a pre-defined filter to the first snapshot and the second snapshot, wherein the pre-defined filter includes a list of files that are to be extracted from each snapshot; subsequent to applying the pre-defined filter, identifying differences in the list of files extracted from the first snapshot and the second snapshot; creating a change map for the computing device that comprises the differences in the list of files over a period of time, wherein the period of time comprises the first time and the second time; retrieving, for the first snapshot and the second snapshot, metadata that indicates states of the computing device at the first time and the second time; determining a first performance score based on a state of the computing device at the first time and a second performance score based on a state of the computing device at the second time; determining a change differential between the first performance score and the second performance score; marking a time point corresponding to the second time in the change map if the change differential is greater than a threshold change differential; and outputting the change map in a user interface. receiving a first snapshot of a computing device at a first time and a second snapshot of the computing device at a second time; applying a pre-defined filter to the first snapshot and the second snapshot, wherein the pre-defined filter includes a list of files that are to be extracted from each snapshot; subsequent to applying the pre-defined filter, identifying differences in the list of files extracted from the first snapshot and the second snapshot; creating a change map for the computing device that comprises the differences in the list of files over a period of time, wherein the period of time comprises the first time and the second time; retrieving, for the first snapshot and the second snapshot, metadata that indicates states of the computing device at the first time and the second time; determining a first performance score based on a state of the computing device at the first time and a second performance score based on a state of the computing device at the second time; determining a change differential between the first performance score and the second performance score; marking a time point corresponding to the second time in the change map if the change differential is greater than a threshold change differential; and outputting the change map in a user interface.
A direct drive wiper system, the system comprising: a motor operably coupled to a wiper assembly to drive one or more wiper arms of the wiper assembly; a gearbox , wherein an input to the gearbox is coupled to the motor and an output of the gearbox is coupled to the wiper assembly, wherein the gearbox is configured to convert an input from the motor to an output to drive the wiper assembly; and a brake and stopper mechanism coupled to the gearbox and the wiper assembly, and characterised in that . the gearbox is a magnetic gearbox , wherein the magnetic gearbox comprises an outer ring , an inner ring , and an interface , wherein the interface comprises pole-pieces that are disposed between the outer ring and the inner ring. a motor operably coupled to a wiper assembly to drive one or more wiper arms of the wiper assembly; a gearbox , wherein an input to the gearbox is coupled to the motor and an output of the gearbox is coupled to the wiper assembly, wherein the gearbox is configured to convert an input from the motor to an output to drive the wiper assembly; and a brake and stopper mechanism coupled to the gearbox and the wiper assembly, and characterised in that . the gearbox is a magnetic gearbox , wherein the magnetic gearbox comprises an outer ring , an inner ring , and an interface , wherein the interface comprises pole-pieces that are disposed between the outer ring and the inner ring.
A demising wall , comprising: two structural insulated panels, called SIPs, wherein each of the SIPs is configured to span between a floor and a ceiling of a building unit, and wherein the two SIPs are spaced apart to define an interstitial space between the SIPs; a second hat channel coupled between the two SIPs, which is configured to maintain the interstitial space and nest over a first hat channel of the demising wall configured to be coupled to the floor; and a fourth hat channel coupled to a ceiling end of the demising wall such that a third hat channel of the demising wall configured to be affixed to the ceiling can be nested therewithin, wherein the fourth hat channel is deeper than the third hat channel such that a gap is defined between the third and fourth hat channels in a nested position, and wherein: each of the SIPs includes an interior surface having a magnesium oxide board and an exterior surface having a fibre cement board . two structural insulated panels, called SIPs, wherein each of the SIPs is configured to span between a floor and a ceiling of a building unit, and wherein the two SIPs are spaced apart to define an interstitial space between the SIPs; a second hat channel coupled between the two SIPs, which is configured to maintain the interstitial space and nest over a first hat channel of the demising wall configured to be coupled to the floor; and a fourth hat channel coupled to a ceiling end of the demising wall such that a third hat channel of the demising wall configured to be affixed to the ceiling can be nested therewithin, wherein the fourth hat channel is deeper than the third hat channel such that a gap is defined between the third and fourth hat channels in a nested position, and wherein: each of the SIPs includes an interior surface having a magnesium oxide board and an exterior surface having a fibre cement board .
Equipment for killing or weakening plants and other organisms, which comprises a conveying device for moving the equipment, a high voltage source and an applicator which is electrically connected to the high voltage source, wherein the applicator is provided with a sensor-guided height adjusting device, characterized in that the applicator comprises at least one belt which is guided over spaced rollers as a continuous belt.
Receiving device for a pulsed radiofrequency signal, comprising an amplitude detection filter having at least one electronic semiconductor detection component and a filter having a capacitive component , characterised in that it comprises a desaturation circuit connected at the output of the amplitude detection filter , the desaturation circuit being adapted to drain an electric current from said capacitive component when a measured physical quantity from among the current or the voltage of the radiofrequency signal (RF in ) exceeds a predetermined reference value, said electronic semiconductor detection component having a first quadratic operating zone (Z 1 ) characterised by a first threshold voltage (V 1 ), and at least a second linear operating zone (Z 2 ) characterised by a second threshold voltage (V 2 ) greater than the first threshold voltage (V 1 ), said predetermined reference value being chosen as a function of the first threshold voltage (V 1 ) and/or of the second threshold voltage (V 2 ).
Method for processing acoustic signals in order to detect one or more sound sources in a sound scene, the method comprising: - obtaining a plurality (D) of signals which are representative of the sound scene, captured by a plurality of microphones with predefined positions, - on the basis of the signals captured by the microphones and of the positions of the microphones, applying a quantification of directional measurements of sound intensity and establishing a corresponding map of acoustic activity in a space in which the sound sources are located, said space being of size N, characterized in that the method further comprises: - constructing at least one vector basis of a size smaller than N, - projecting the map of acoustic activity along at least one axis of the vector basis, and - searching for at least one local peak of acoustic activity in the projection of the map, an identified local peak corresponding to the presence of a sound source in the scene. - obtaining a plurality (D) of signals which are representative of the sound scene, captured by a plurality of microphones with predefined positions, - on the basis of the signals captured by the microphones and of the positions of the microphones, applying a quantification of directional measurements of sound intensity and establishing a corresponding map of acoustic activity in a space in which the sound sources are located, said space being of size N, - constructing at least one vector basis of a size smaller than N, - projecting the map of acoustic activity along at least one axis of the vector basis, and - searching for at least one local peak of acoustic activity in the projection of the map, an identified local peak corresponding to the presence of a sound source in the scene.
Integrity monitoring system for runtime integrity monitoring of at least one control device with - the at least one control device connected to sensors and/or actuators and comprising an automation device for collecting operating state data of the control device , - an integrity monitoring unit that is detachably connectable directly to the control device in order to monitor the integrity status of the control device on the basis of operating state data transferred from the automation device to the integrity monitoring unit , wherein the integrity monitoring unit is embodied to transfer requirements for type and scope of the operating state data to the control device . - the at least one control device connected to sensors and/or actuators and comprising an automation device for collecting operating state data of the control device , - an integrity monitoring unit that is detachably connectable directly to the control device in order to monitor the integrity status of the control device on the basis of operating state data transferred from the automation device to the integrity monitoring unit , wherein the integrity monitoring unit is embodied to transfer requirements for type and scope of the operating state data to the control device .
A controller for controlling behavior of a straddle-type vehicle , the controller comprising: an acquisition section that acquires trigger information during travel of the straddle-type vehicle ; and an execution section that initiates a control mode according to the trigger information, in the control mode, behavior control operation to make the straddle-type vehicle automatically decelerate or automatically accelerate being performed, characterized in that the acquisition section further acquires yaw rate information of the traveling straddle-type vehicle , in the control mode, the execution section changes the behavior control operation according to the yaw rate information, which is acquired by the acquisition section , and in the control mode, at an initiation of the automatic deceleration or the automatic acceleration, or during the execution of the automatic deceleration or the automatic acceleration, the execution section changes a second-order differential value of a vehicle body speed according to the yaw rate information. an acquisition section that acquires trigger information during travel of the straddle-type vehicle ; and an execution section that initiates a control mode according to the trigger information, in the control mode, behavior control operation to make the straddle-type vehicle automatically decelerate or automatically accelerate being performed, characterized in that the acquisition section further acquires yaw rate information of the traveling straddle-type vehicle , in the control mode, the execution section changes the behavior control operation according to the yaw rate information, which is acquired by the acquisition section , and in the control mode, at an initiation of the automatic deceleration or the automatic acceleration, or during the execution of the automatic deceleration or the automatic acceleration, the execution section changes a second-order differential value of a vehicle body speed according to the yaw rate information. in the control mode, the execution section changes the behavior control operation according to the yaw rate information, which is acquired by the acquisition section , and in the control mode, at an initiation of the automatic deceleration or the automatic acceleration, or during the execution of the automatic deceleration or the automatic acceleration, the execution section changes a second-order differential value of a vehicle body speed according to the yaw rate information.
Method for printing a three-dimensional light-guiding structure by depositing a plurality of droplets of printing material along a printing direction (A) onto a substrate , wherein the droplets of printing material are deposited such that the droplets form a layer of printing material on the substrate , wherein the droplets of printing material are deposited by at least one nozzle onto the substrate and/or onto the layer of printing material, wherein the at least one nozzle is adjusted such that the distance between the at least one nozzle and -- the layer of the printing material or -- the substrate is mainly constant along the printing direction (A) while depositing the printing material onto the substrate , wherein the printing head comprises a plurality of nozzles arranged along the printing direction (A), wherein the plurality of nozzles are configured such that the droplets of printing material are deposited onto the substrate , wherein the plurality of nozzles are moved during the movement of the printing head , wherein the printing head is rotatable about an axis perpendicular to the printing direction (A) and parallel to a main plane of the substrate , characterized in that the printing head is rotated such that the distance between each nozzle and the layer of the printing material or the substrate corresponds to each other while depositing the printing material. -- the layer of the printing material or -- the substrate is mainly constant along the printing direction (A) while depositing the printing material onto the substrate , wherein the printing head comprises a plurality of nozzles arranged along the printing direction (A), wherein the plurality of nozzles are configured such that the droplets of printing material are deposited onto the substrate , wherein the plurality of nozzles are moved during the movement of the printing head , wherein the printing head is rotatable about an axis perpendicular to the printing direction (A) and parallel to a main plane of the substrate , characterized in that the printing head is rotated such that the distance between each nozzle and the layer of the printing material or the substrate corresponds to each other while depositing the printing material.
A positive electrode plate, comprising: a positive electrode current collector, a positive electrode active material layer disposed on at least one surface of the positive electrode current collector, and a safety layer disposed between the positive electrode active material layer and the positive electrode current collector; wherein the safety layer comprises a binding substance, a conductive substance, and a special sensitive substance; wherein each molecule of the special sensitive substance comprises monosaccharide structural units, and carbonate groups and/or phosphate groups; and at least part of the carbonate groups and/or phosphate groups are bonded to two or more of the monosaccharide structural units. a positive electrode current collector, a positive electrode active material layer disposed on at least one surface of the positive electrode current collector, and a safety layer disposed between the positive electrode active material layer and the positive electrode current collector; wherein the safety layer comprises a binding substance, a conductive substance, and a special sensitive substance; wherein each molecule of the special sensitive substance comprises monosaccharide structural units, and carbonate groups and/or phosphate groups; and at least part of the carbonate groups and/or phosphate groups are bonded to two or more of the monosaccharide structural units.
A computer-implemented method of displaying an assembly (A) of digitally modeled objects (RO, HO) in a three-dimensional scene, the method comprising the steps of: a) acquiring an input from a user for defining at least one object (RO) of the assembly as being revealable; b) generating, from three-dimensional digital models of the objects, a graphical representation of the assembly as seen from a point of view, wherein said revealable object (RO) is located at least partially behind at least another object (HO), called hiding object; and displaying said graphical representation; c) using a graphical tool (RC, RC1, RC2) for selecting a region of said graphical representation of the assembly, called a revealing zone (RZ, RZ1, RZ2); and d) rendering a three-dimensional scene comprising a three-dimensional representation of the assembly as seen from said point of view, wherein a portion of the revealable object located behind the hiding object and comprised within the revealing zone is shown by transparency through said hiding object, while portions of the revealable object located behind the hiding object and not comprised within the revealing zone are not visible, and the portions of objects not defined as being revealable and located behind the hiding object, comprised within the revealing zone or not, are not visible. a) acquiring an input from a user for defining at least one object (RO) of the assembly as being revealable; b) generating, from three-dimensional digital models of the objects, a graphical representation of the assembly as seen from a point of view, wherein said revealable object (RO) is located at least partially behind at least another object (HO), called hiding object; and displaying said graphical representation; c) using a graphical tool (RC, RC1, RC2) for selecting a region of said graphical representation of the assembly, called a revealing zone (RZ, RZ1, RZ2); and d) rendering a three-dimensional scene comprising a three-dimensional representation of the assembly as seen from said point of view, wherein a portion of the revealable object located behind the hiding object and comprised within the revealing zone is shown by transparency through said hiding object, while portions of the revealable object located behind the hiding object and not comprised within the revealing zone are not visible, and the portions of objects not defined as being revealable and located behind the hiding object, comprised within the revealing zone or not, are not visible.
A camera module comprising a scanning Tele camera (STC) , the STC comprising: an object side optical path folding element O-OPFE for folding a first optical path OP1 to a second optical path OP2; an image side optical path folding element I-OPFE for folding OP2 to a third optical path OP3; an I-OPFEactuator ; a lens ; a lens actuator; and an image sensor ; characterized by further comprising: an O-OPFE actuator ; wherein STC has a STC native field-of-view n-FOV T , wherein the O-OPFE actuator is configured to rotate the O-OPFE around a first axis and the I-OPFE actuator is configured to rotate the I-OPFE around a second axis for scanning a scene with the n-FOV T , wherein the lens actuator is configured to move the lens for focusing along a third axis, and wherein the first axis is perpendicular to the second axis and parallel to the third axis, and wherein the camera module is divided into a first region having a module region height H M and a second region having a shoulder region height H S < H M , the lens having a maximum aperture height H A , all heights being measured along OP1, wherein H S < H A + 3mm. an object side optical path folding element O-OPFE for folding a first optical path OP1 to a second optical path OP2; an image side optical path folding element I-OPFE for folding OP2 to a third optical path OP3; an I-OPFEactuator ; a lens ; a lens actuator; and an image sensor ; characterized by further comprising: an O-OPFE actuator ; wherein STC has a STC native field-of-view n-FOV T , wherein the O-OPFE actuator is configured to rotate the O-OPFE around a first axis and the I-OPFE actuator is configured to rotate the I-OPFE around a second axis for scanning a scene with the n-FOV T , wherein the lens actuator is configured to move the lens for focusing along a third axis, and wherein the first axis is perpendicular to the second axis and parallel to the third axis, and wherein the camera module is divided into a first region having a module region height H M and a second region having a shoulder region height H S < H M , the lens having a maximum aperture height H A , all heights being measured along OP1, wherein H S < H A + 3mm. an O-OPFE actuator ; wherein STC has a STC native field-of-view n-FOV T , wherein the O-OPFE actuator is configured to rotate the O-OPFE around a first axis and the I-OPFE actuator is configured to rotate the I-OPFE around a second axis for scanning a scene with the n-FOV T , wherein the lens actuator is configured to move the lens for focusing along a third axis, and wherein the first axis is perpendicular to the second axis and parallel to the third axis, and wherein the camera module is divided into a first region having a module region height H M and a second region having a shoulder region height H S < H M , the lens having a maximum aperture height H A , all heights being measured along OP1, wherein H S < H A + 3mm.