mhurhangee/patent-ind-claim-en huggingface dataset:
Method for controlling gear ratio shifts of a power unit for a motor vehicle equipped with an automatic gearbox, comprising, in assisted manual control mode: - a step of comparing the engine speed of the power unit with a maximum circuit breaker speed authorized for said unit, - a step of checking the activation by the driver of a sport driving mode, - a time delay step during which it is checked if the value of the engine speed is less than the maximum circuit breaker speed value minus a predetermined constant, and if an upshift is requested by the driver, and - a step of correcting the gear ratio engaged so that the upshift is automatically imposed, characterized in that : - the time delay is triggered if the sport driving mode has been activated and if the value of the engine speed becomes greater than the value of the maximum circuit breaker speed, - the time delay is stopped and reset to zero when the engine speed of the power unit becomes less than a predetermined reset threshold which is less than the authorized maximum circuit breaker speed, - the time delay is stopped and reset to zero on reception of an upshift instruction given by the driver, and - if the time delay has elapsed , the gear ratio engaged is corrected so that an upshift is automatically imposed after the time delay, when the sport driving mode is activated and when the engine speed of the power unit is greater than the maximum circuit breaker speed. - a step of comparing the engine speed of the power unit with a maximum circuit breaker speed authorized for said unit, - a step of checking the activation by the driver of a sport driving mode, - a time delay step during which it is checked if the value of the engine speed is less than the maximum circuit breaker speed value minus a predetermined constant, and if an upshift is requested by the driver, and - a step of correcting the gear ratio engaged so that the upshift is automatically imposed, - the time delay is triggered if the sport driving mode has been activated and if the value of the engine speed becomes greater than the value of the maximum circuit breaker speed, - the time delay is stopped and reset to zero when the engine speed of the power unit becomes less than a predetermined reset threshold which is less than the authorized maximum circuit breaker speed, - the time delay is stopped and reset to zero on reception of an upshift instruction given by the driver, and - if the time delay has elapsed , the gear ratio engaged is corrected so that an upshift is automatically imposed after the time delay, when the sport driving mode is activated and when the engine speed of the power unit is greater than the maximum circuit breaker speed.
A system for generating procedural textures on an object based on physical ink data and physical applicator data, comprising: - access to physical ink data comprising a plurality of parameters among the following: color, viscosity, temperature, drying time, chemical composition, and transparency; - access to physical applicator data comprising a plurality of parameters among the following: width, depth, thickness, profile, roughness, porosity, applicator flexibility, application force, pressure, and application temperature; - access to target object data including initial mesh data of the target objects and initial relief data of the target objects; - access to mixing rules and functions data providing a description of the process determining how a material reacts with an ink applied to the material; - access to physical data of initial textures T; - a microprocessor and control instructions ; - a pre-projection virtual rendering generation module , provided for combining the physical ink data with the physical applicator data independently of the projection mode; - a pre-projection virtual rendering (PPVR) transformation module , provided for adapting the data of this rendering to a given rendering projection mode; - a tessellation module for tessellating the target object data in order to transform relief data of the target objects into a mesh; an integrator module for the physical parameters, provided for generating a new set of textures T+1 for said one or more objects taking into account object data, data from the set of textures T, data from the tessellation module and transformed pre-projection virtual rendering data. - access to physical ink data comprising a plurality of parameters among the following: color, viscosity, temperature, drying time, chemical composition, and transparency; - access to physical applicator data comprising a plurality of parameters among the following: width, depth, thickness, profile, roughness, porosity, applicator flexibility, application force, pressure, and application temperature; - access to target object data including initial mesh data of the target objects and initial relief data of the target objects; - access to mixing rules and functions data providing a description of the process determining how a material reacts with an ink applied to the material; - access to physical data of initial textures T; - a microprocessor and control instructions ; - a pre-projection virtual rendering generation module , provided for combining the physical ink data with the physical applicator data independently of the projection mode; - a pre-projection virtual rendering (PPVR) transformation module , provided for adapting the data of this rendering to a given rendering projection mode; - a tessellation module for tessellating the target object data in order to transform relief data of the target objects into a mesh;
An uplink transmission processing method, performed by a terminal and comprising: obtaining configuration information; and stopping uplink transmission based on the obtained configuration information; characterized in that the configuration information is used to indicate uplink transmission stop information in a first absolute time period; or the configuration information is configuration information for stopping uplink transmission on a first resource; wherein the configuration information is specifically used to indicate a proportion of stoppable uplink transmissions in the first absolute time period; the configuration information for stopping uplink transmission is further used to indicate uplink transmission stop information in N time domain resources, wherein N is an integer greater than 1; the first resource is a resource, in the time domain resources, whose time granularity information is a first time granularity, or the first resource is a first bandwidth part, BWP, or a first cell; and the first time granularity is configured through at least one of following: a subcarrier spacing, a cell identifier, a cell group identifier, a BWP identifier, and an absolute time granularity. obtaining configuration information; and stopping uplink transmission based on the obtained configuration information; characterized in that the configuration information is used to indicate uplink transmission stop information in a first absolute time period; or the configuration information is configuration information for stopping uplink transmission on a first resource; wherein the configuration information is specifically used to indicate a proportion of stoppable uplink transmissions in the first absolute time period; the configuration information for stopping uplink transmission is further used to indicate uplink transmission stop information in N time domain resources, wherein N is an integer greater than 1; the first resource is a resource, in the time domain resources, whose time granularity information is a first time granularity, or the first resource is a first bandwidth part, BWP, or a first cell; and the first time granularity is configured through at least one of following: a subcarrier spacing, a cell identifier, a cell group identifier, a BWP identifier, and an absolute time granularity.
A circuit breaker , comprising: an arc chamber ; an arc chute comprising a plurality of arc plates in the arc chamber , stacked with top, medial and lower arc plates ; a line conductor in the arc chamber , the line conductor having a lower body portion and an upwardly extending arm with a free end , the arm residing above the lower body portion ; a stationary contact held by the arm of the line conductor , the stationary contact residing adjacent to the arc plates ; and a non-ferromagnetic arc runner (31, 40; 40′′′) held by the line conductor in the arc chamber , the circuit breaker characterised in that the arc runner (31, 40; 40′′′) is attached to the lower body portion of the line conductor and resides on both sides of and extends forward of the stationary contact with a portion residing under a bottom arc plate so that the portion of the arc runner (31, 40; 40′′′) residing under the bottom arc plate has a surface opposed to a bottom surface of the bottom arc plate . an arc chamber ; an arc chute comprising a plurality of arc plates in the arc chamber , stacked with top, medial and lower arc plates ; a line conductor in the arc chamber , the line conductor having a lower body portion and an upwardly extending arm with a free end , the arm residing above the lower body portion ; a stationary contact held by the arm of the line conductor , the stationary contact residing adjacent to the arc plates ; and a non-ferromagnetic arc runner (31, 40; 40′′′) held by the line conductor in the arc chamber , the circuit breaker characterised in that the arc runner (31, 40; 40′′′) is attached to the lower body portion of the line conductor and resides on both sides of and extends forward of the stationary contact with a portion residing under a bottom arc plate so that the portion of the arc runner (31, 40; 40′′′) residing under the bottom arc plate has a surface opposed to a bottom surface of the bottom arc plate .
An organometallic composition comprising an organoaluminum compound of the formula Al(CH 2 CH(Y 2 )A 2 ) 3 and an organozinc compound of the formula Zn(CH 2 CH(Y 2 )A 2 ) 2 , wherein: Y 2 at each occurrence independently is a C 1 to C 30 hydrocarbyl group; and A 2 at each occurrence independently is selected from the group consisting of wherein the endocyclic double bond in (AC) may be between any two adjacent carbon atoms that are ring members; wherein the endocyclic double bond in (AF) may be between any two adjacent carbon atoms that are ring members, and wherein the pendant methyl group of (AF) may be connected to any carbon atom that is a ring member. Y 2 at each occurrence independently is a C 1 to C 30 hydrocarbyl group; and A 2 at each occurrence independently is selected from the group consisting of wherein the endocyclic double bond in (AC) may be between any two adjacent carbon atoms that are ring members; wherein the endocyclic double bond in (AF) may be between any two adjacent carbon atoms that are ring members, and wherein the pendant methyl group of (AF) may be connected to any carbon atom that is a ring member.
System for the estimation of one or more parameters (L, D) related to the load of a vehicle, wherein said one or more parameters (L, D) related to the load of the vehicle comprise a numeric absolute value of the vehicle load (L) and/or a numeric value representing the load distribution in the vehicle (D), said system comprising: - one or more sensors for detecting one or more vehicle kinematic quantities ( z̈ , θ̇ ), suitable to generate signals representing said vehicle kinematic quantities; - one or more modules for determining one or more frequency spectra pairs (FFT1,FFT2) through a Fast Fourier Transform, each pair associated to one of said one or more vehicle kinematic quantities ( z̈ , θ̇ ), from the signal representing the respective vehicle kinematic quantity filtered in a first and in a second predetermined frequency bands through a first (BPF1) and a second (BPF2) band-pass filters; - one or more modules for determining said one or more parameters (L, D) related to the load of the vehicle from said one or more frequency spectra pairs (FFT1 ,FFT2). - one or more sensors for detecting one or more vehicle kinematic quantities ( z̈ , θ̇ ), suitable to generate signals representing said vehicle kinematic quantities; - one or more modules for determining one or more frequency spectra pairs (FFT1,FFT2) through a Fast Fourier Transform, each pair associated to one of said one or more vehicle kinematic quantities ( z̈ , θ̇ ), from the signal representing the respective vehicle kinematic quantity filtered in a first and in a second predetermined frequency bands through a first (BPF1) and a second (BPF2) band-pass filters; - one or more modules for determining said one or more parameters (L, D) related to the load of the vehicle from said one or more frequency spectra pairs (FFT1 ,FFT2).
A method for wireless communication by a user equipment, UE, comprising: transmitting , to a serving base station, BS and a non-serving BS, an uplink reference signal with an indication of a preferred downlink beam; and receiving , from the non-serving BS, a handover command based, at least in part, on the uplink reference signal. transmitting , to a serving base station, BS and a non-serving BS, an uplink reference signal with an indication of a preferred downlink beam; and receiving , from the non-serving BS, a handover command based, at least in part, on the uplink reference signal.
Imaging system using the scanning of a surface of at least one sample comprising: - a support capable of being driven in rotation about an axis (A), comprising: - a data storage area ; and - at least one housing for receiving a sample; - a reading device comprising a first reading head for reading the data stored in said storage area , comprising first means for adjusting a first light beam , said reading device further comprising: - a second head for the detecting/measurement of the light emitted by the sample under the action of a second excitation light beam , - and second means for adjusting the second excitation light beam driven by a control signal of the first means for adjusting the first light beam of said first reading head , characterised in that the second detection/measurement head comprises a fibre conveying the excitation light power and piezoelectric shims controlling the position of this fibre vertically, in the Z direction, in relation to the support . - a support capable of being driven in rotation about an axis (A), comprising: - a data storage area ; and - at least one housing for receiving a sample; - a data storage area ; and - at least one housing for receiving a sample; - a reading device comprising a first reading head for reading the data stored in said storage area , comprising first means for adjusting a first light beam , said reading device further comprising: - a second head for the detecting/measurement of the light emitted by the sample under the action of a second excitation light beam , - and second means for adjusting the second excitation light beam driven by a control signal of the first means for adjusting the first light beam of said first reading head , characterised in that the second detection/measurement head comprises a fibre conveying the excitation light power and piezoelectric shims controlling the position of this fibre vertically, in the Z direction, in relation to the support . - a second head for the detecting/measurement of the light emitted by the sample under the action of a second excitation light beam , - and second means for adjusting the second excitation light beam driven by a control signal of the first means for adjusting the first light beam of said first reading head ,
A link path calculation method applied to a 5G System Architecture-Time sensitive Network-Virtual Bridge, 5GS-TSN-VB link, comprising acquiring a topology containing a TSN bridge, the TSN bridge comprising a 5GS TSN virtual bridge and a TSN common bridge (S401); acquiring a latency parameter of a link of the TSN bridge (S402); acquiring a minimum latency Tmin achievable by the 5GS-TSN-VB as a 5GS, wherein UE connected to a listener is located at the 5GS-TSN-VB; and acquiring a maximum latency MaxLatency in service requirements (S403); calculating an optimal path and determining a sum Tc of all link latencies on the optimal path (S404); determining, according to the Tc, Tmin, and MaxLatency, a maximum latency Tmax tolerated by the 5GS-TSN-VB (S405); characterised by determining an optimal value Tmax-O of the Tmax according to the Tmax, the Tmax-O being less than or equal to the Tmax and the Tmax-O being greater than zero (S406); and sending service flow information and the Tmax-O as latency requirements to a 5GS system corresponding to the 5GS-TSN-VB, and sending the service flow information to the TSN bridge corresponding to the successfully calculated path in response to path calculation being successful (S407). acquiring a topology containing a TSN bridge, the TSN bridge comprising a 5GS TSN virtual bridge and a TSN common bridge (S401); acquiring a latency parameter of a link of the TSN bridge (S402); acquiring a minimum latency Tmin achievable by the 5GS-TSN-VB as a 5GS, wherein UE connected to a listener is located at the 5GS-TSN-VB; and acquiring a maximum latency MaxLatency in service requirements (S403); calculating an optimal path and determining a sum Tc of all link latencies on the optimal path (S404); determining, according to the Tc, Tmin, and MaxLatency, a maximum latency Tmax tolerated by the 5GS-TSN-VB (S405); characterised by determining an optimal value Tmax-O of the Tmax according to the Tmax, the Tmax-O being less than or equal to the Tmax and the Tmax-O being greater than zero (S406); and sending service flow information and the Tmax-O as latency requirements to a 5GS system corresponding to the 5GS-TSN-VB, and sending the service flow information to the TSN bridge corresponding to the successfully calculated path in response to path calculation being successful (S407).
An automatic dispenser of banknotes, wherein the automatic dispenser comprises a safe for containing the banknotes to be dispensed, a banknote dispenser arranged inside the safe for dispensing the banknotes, a management system arranged outside the safe for managing the automatic dispenser , a control system arranged inside the safe for controlling the banknote dispenser under the control of the management system , the management system having a plurality of ports for connecting thereto being adapted to providing corresponding electrical power supplies, in condition of use a part of the ports being used to connect the control system to the management system , characterized by a plurality of corresponding transmission lines extending from the verification system ending with corresponding connectors being coupled with all the ports in condition of use, a plurality of corresponding motion sensors associated with the connectors for detecting corresponding movements of the motion sensors indicative of corresponding decoupling at least partial of the connectors from the corresponding ports , a verification system arranged inside the safe comprising a power supply detector for detecting the electrical power supplies of the transmission lines being provided by the corresponding ports and a transmission system extending from the motion sensors to the verification system for transmitting corresponding indications of the movements being detected by the motion sensors to the verification system , the verification system being configured to enter an alarm condition wherein inhibits the dispensing of the banknotes according to the indications of the movements and to an indication of the electrical power supplies of the transmission lines being detected by the power supply detector , the alarm condition being entered in response to the indication of presence of the electrical power supply of one or more of the transmission lines and to the indication of absence of the electrical power supply of other one or more of the transmission lines .
Detonation method for clearance of a piece of unexploded ordnance (UXO) lying on the bottom (BO) below a water surface (WO), wherein a detonating device is transported by a submersible robot (ROV) to the piece of unexploded ordnance (UXO) and secured to it, characterized in that the detonating device lifts the piece of unexploded ordnance (UXO) from the bottom (BO) of the body of water to a position above the water surface (WO) and detonates it above the water surface (WO). wherein a detonating device is transported by a submersible robot (ROV) to the piece of unexploded ordnance (UXO) and secured to it, characterized in that the detonating device lifts the piece of unexploded ordnance (UXO) from the bottom (BO) of the body of water to a position above the water surface (WO) and detonates it above the water surface (WO).
A system comprising: an image depth prediction neural network implemented by one or more computers, wherein the image depth prediction neural network is a recurrent neural network that is configured to receive a sequence of images and, for each image in the sequence: process the image in accordance with a current internal state of the recurrent neural network to (i) update the current internal state and (ii) generate a current depth map that characterizes a current depth of the image in the sequence; and an image generation subsystem configured to, for each image in the sequence: receive the current depth map that characterizes the current depth of the image, construct, based on the current depth map and the image, a plurality of three-dimensional points, each of the plurality of 3D points corresponding to a different pixel in the image, and generate a depth output that characterizes a predicted depth of a future image in the sequence by applying one or more transformation layers to the plurality of 3D points, wherein the depth output comprises a set of values defining the topology of a scene represented by the future image in a third, depth dimension. an image depth prediction neural network implemented by one or more computers, wherein the image depth prediction neural network is a recurrent neural network that is configured to receive a sequence of images and, for each image in the sequence: process the image in accordance with a current internal state of the recurrent neural network to (i) update the current internal state and (ii) generate a current depth map that characterizes a current depth of the image in the sequence; and an image generation subsystem configured to, for each image in the sequence: receive the current depth map that characterizes the current depth of the image, construct, based on the current depth map and the image, a plurality of three-dimensional points, each of the plurality of 3D points corresponding to a different pixel in the image, and generate a depth output that characterizes a predicted depth of a future image in the sequence by applying one or more transformation layers to the plurality of 3D points, wherein the depth output comprises a set of values defining the topology of a scene represented by the future image in a third, depth dimension. receive the current depth map that characterizes the current depth of the image, construct, based on the current depth map and the image, a plurality of three-dimensional points, each of the plurality of 3D points corresponding to a different pixel in the image, and generate a depth output that characterizes a predicted depth of a future image in the sequence by applying one or more transformation layers to the plurality of 3D points, wherein the depth output comprises a set of values defining the topology of a scene represented by the future image in a third, depth dimension.
Compound E-6087 for use in the treatment of pain and inflammation associated to degenerative joint diseases or conditions in dogs, at a maintenance once a week dosage regimen from 1 to 6 mg/kg of body weight.