mhurhangee/patent-ind-claim-en huggingface dataset:
A method for controlling the acceleration of a vehicle , said method being carried out by at least one computer embedded in said vehicle and comprising the following steps: - determination of a target acceleration value at a current time for an adaptive speed control system said vehicle , said target acceleration value being determined from data representative of a moving object at a specified distance in front of said vehicle , said data being received from at least one object detection sensor embedded in said vehicle ; - comparison of said target acceleration value with a first acceleration setpoint provided to said adaptive speed control system at a time preceding said current time; - determination of a second acceleration setpoint for said current time based on a result of said comparison , said second acceleration setpoint being a function of a comparison result between, on the one hand, said target acceleration value and, on the other hand, the first acceleration instruction modified according to a variation in acceleration, known as the shaking value, said shaking value being a function of information representative of a level of dangerousness of a situation in which said vehicle finds itself in relation to said moving object ; the method further comprising a step for controlling said adaptive speed control system based on the second acceleration setpoint. - determination of a target acceleration value at a current time for an adaptive speed control system said vehicle , said target acceleration value being determined from data representative of a moving object at a specified distance in front of said vehicle , said data being received from at least one object detection sensor embedded in said vehicle ; - comparison of said target acceleration value with a first acceleration setpoint provided to said adaptive speed control system at a time preceding said current time; - determination of a second acceleration setpoint for said current time based on a result of said comparison , said second acceleration setpoint being a function of a comparison result between, on the one hand, said target acceleration value and, on the other hand, the first acceleration instruction modified according to a variation in acceleration, known as the shaking value, said shaking value being a function of information representative of a level of dangerousness of a situation in which said vehicle finds itself in relation to said moving object ;
Method for analysing cells of a sample reacting with at least one specific marker comprising: - a step of providing a reference sample and a sample to be analysed; the method being characterized in that it further comprises: - a step of providing a set (E + ) of cells declared positive by an expert from among the cells of the sample to be analysed; - a step of determining a vector coefficient (Θ) from the sample to be analysed and from the set (E + ); - a step of determining at least one set of positive cells in the reference sample as a function of the vector coefficient (Θ); and - a step of calculating a rate of false positives in the reference sample (α) from the number of positive cells of the reference sample. - a step of providing a reference sample and a sample to be analysed; - a step of providing a set (E + ) of cells declared positive by an expert from among the cells of the sample to be analysed; - a step of determining a vector coefficient (Θ) from the sample to be analysed and from the set (E + ); - a step of determining at least one set of positive cells in the reference sample as a function of the vector coefficient (Θ); and - a step of calculating a rate of false positives in the reference sample (α) from the number of positive cells of the reference sample.
An autonomous cleaner, comprising: a body having a first housing formed at a front of the body and a second housing formed at a rear of the first housing; a brush unit installed at the first housing and configured to sweep and collect dust from a floor; a driving unit , to drive the body, comprising first and second driving wheels provided at lateral side surfaces of the second housing; a dust collecting unit installed at the second housing between the first and second driving wheels, and configured to store the dust collected by the brush unit, the dust collecting device and the driving unit being disposed in a lateral direction of the body; and a power unit installed at the second housing at a rear of the dust collecting unit. a body having a first housing formed at a front of the body and a second housing formed at a rear of the first housing; a brush unit installed at the first housing and configured to sweep and collect dust from a floor; a driving unit , to drive the body, comprising first and second driving wheels provided at lateral side surfaces of the second housing; a dust collecting unit installed at the second housing between the first and second driving wheels, and configured to store the dust collected by the brush unit, the dust collecting device and the driving unit being disposed in a lateral direction of the body; and a power unit installed at the second housing at a rear of the dust collecting unit.
A dispensing device comprising: a drive unit configured to operate a material dispenser ; a power supply configured to provide a voltage to the drive unit to operate the material dispenser ; a detector configured to detect a velocity of the material dispenser ; and a controller configured to maintain the material dispenser at a constant velocity based on the velocity detected by the detector , characterized in that the controller is programmed to terminate voltage supplied to the drive unit , when the detector detects that the velocity is less than a predetermined velocity. a drive unit configured to operate a material dispenser ; a power supply configured to provide a voltage to the drive unit to operate the material dispenser ; a detector configured to detect a velocity of the material dispenser ; and a controller configured to maintain the material dispenser at a constant velocity based on the velocity detected by the detector , characterized in that the controller is programmed to terminate voltage supplied to the drive unit , when the detector detects that the velocity is less than a predetermined velocity. velocity based on the velocity detected by the detector , characterized in that the controller is programmed to terminate voltage supplied to the drive unit , when the detector detects that the velocity is less than a predetermined velocity.
A power adapter , comprising a communication interface through which the power adapter charges a battery in an electronic device and performs a data communication with the electronic device , wherein, the power adapter comprises a main control module and an output switch module ; wherein, characterized in that , the main control module is configured to: when a conventional charging or a quick charging is performed on the battery in the electronic device , determine whether an output current of the power adapter is greater than a current threshold and determine whether an output voltage of the power adapter is greater than a voltage threshold; and when the output current of the power adapter is greater than the current threshold and/or the output voltage of the power adapter is greater than the voltage threshold, control the output switch module to turn off a direct current output of the power adapter . when a conventional charging or a quick charging is performed on the battery in the electronic device , determine whether an output current of the power adapter is greater than a current threshold and determine whether an output voltage of the power adapter is greater than a voltage threshold; and when the output current of the power adapter is greater than the current threshold and/or the output voltage of the power adapter is greater than the voltage threshold, control the output switch module to turn off a direct current output of the power adapter .
Heat exchanger for vehicles comprising: - a first radiating mass having a first side connected to a first collector comprising a mouth for entering a cooling fluid, and a second side connected to a second collector comprising a mouth for exiting the cooling fluid, - at least one second radiating mass having a first side connected to the first collector , and a second side connected to a third collector , - moreover, a first tank , having a first side connected to a base side of the second radiating mass , and a second side connected to the first collector , the heat exchanger being characterized by - a third radiating mass having a first side connected to the second collector , and a second side connected to a fourth collector , - a second tank having a first side connected to a base side of the third radiating mass , and a second side connected to the second collector ; wherein the second side of the first tank is connected to a lower portion of the first collector which is separated from an upper portion of the first collector by means of a separating septum to optimize the flow of the fluid; and the second side of the second tank is connected to a lower portion of the second collector which is separated from an upper portion of the second collector by means of a separating septum , to optimize the flow of fluid. - a first radiating mass having a first side connected to a first collector comprising a mouth for entering a cooling fluid, and a second side connected to a second collector comprising a mouth for exiting the cooling fluid, - at least one second radiating mass having a first side connected to the first collector , and a second side connected to a third collector , - moreover, a first tank , having a first side connected to a base side of the second radiating mass , and a second side connected to the first collector , the heat exchanger being characterized by - a third radiating mass having a first side connected to the second collector , and a second side connected to a fourth collector , - a second tank having a first side connected to a base side of the third radiating mass , and a second side connected to the second collector ; wherein the second side of the first tank is connected to a lower portion of the first collector which is separated from an upper portion of the first collector by means of a separating septum to optimize the flow of the fluid; and the second side of the second tank is connected to a lower portion of the second collector which is separated from an upper portion of the second collector by means of a separating septum , to optimize the flow of fluid.
A method for producing polyvinylamine crosslinked polymer particles comprising the steps: mixing and stirring a monomer solution containing N-vinylcarboxylic acid amide, a polyvinyl compound and a polymerization initiator in a salt water in a presence of a dispersant to generate monomer droplets suspension by a suspension polymerization step, then obtaining crosslinked polymer particles from the monomer droplets suspension; and subsequently hydrolyzing the crosslinked polymer particles to produce the polyvinylamine crosslinked polymer particles wherein the dispersant includes at least one dispersant of the group consisting of a polymer of (meth)acryloyloxy ethyl trimethylammonium chloride, a polymer of dimethyldiallylammonium chloride, a copolymer including a nonionic monomer and (meth)acryloyloxy ethyl trimethylammonium chloride and a copolymer including a nonionic monomer and dimethyldiallylammonium chloride. mixing and stirring a monomer solution containing N-vinylcarboxylic acid amide, a polyvinyl compound and a polymerization initiator in a salt water in a presence of a dispersant to generate monomer droplets suspension by a suspension polymerization step, then obtaining crosslinked polymer particles from the monomer droplets suspension; and subsequently hydrolyzing the crosslinked polymer particles to produce the polyvinylamine crosslinked polymer particles wherein the dispersant includes at least one dispersant of the group consisting of a polymer of (meth)acryloyloxy ethyl trimethylammonium chloride, a polymer of dimethyldiallylammonium chloride, a copolymer including a nonionic monomer and (meth)acryloyloxy ethyl trimethylammonium chloride and a copolymer including a nonionic monomer and dimethyldiallylammonium chloride.
A vehicle thermal management system comprising a refrigerant system , a first valve , a second valve , a third valve , a first unit , a second unit , a chiller , and a radiator , where the chiller is connected to the refrigerant system , and the chiller and the radiator respectively are arranged for cooling and/or heating the first unit and/or the second unit ; where in a connected mode for cooling or heating the first unit and the second unit , the first unit and the second unit are connected to each other via the first valve , the second valve , and the third valve , where the first unit and the second unit are connectable to the chiller and/or the radiator in a connected thermal control loop ; where in separated modes for cooling and/or heating the first unit and/or the second unit , the first unit and the second unit are separated from each other via the first valve , the second valve and the third valve ; characterized in that in a first separated mode the first unit is connectable to the chiller in a first separated thermal control loop and the second unit is connectable to the radiator in a second separated thermal control loop ; and in a second separated mode the first unit is connectable to the radiator in a third separated thermal control loop and the second unit is connectable to the chiller in a fourth separated thermal control loop ; where each of the first valve , the second valve and the third valve is controllable into a first valve position and a second valve position , and depending on the valve positions the connected or separated thermal control loops are formed. where in a connected mode for cooling or heating the first unit and the second unit , the first unit and the second unit are connected to each other via the first valve , the second valve , and the third valve , where the first unit and the second unit are connectable to the chiller and/or the radiator in a connected thermal control loop ; where in separated modes for cooling and/or heating the first unit and/or the second unit , the first unit and the second unit are separated from each other via the first valve , the second valve and the third valve ; characterized in that in a first separated mode the first unit is connectable to the chiller in a first separated thermal control loop and the second unit is connectable to the radiator in a second separated thermal control loop ; and in a second separated mode the first unit is connectable to the radiator in a third separated thermal control loop and the second unit is connectable to the chiller in a fourth separated thermal control loop ; where each of the first valve , the second valve and the third valve is controllable into a first valve position and a second valve position , and depending on the valve positions the connected or separated thermal control loops are formed.
An air conditioner comprising an outdoor unit and an indoor unit , wherein the outdoor unit includes: an outdoor heat exchanger ; a compressor and an outdoor fan both changeable in rotational speed; a temperature detector for detecting a temperature of the outdoor heat exchanger ; and a temperature detector for detecting an outdoor temperature, while the indoor unit includes: an indoor heat exchanger ; and an indoor fan changeable in rotational speed, whereby the air conditioner is enabled to execute a heating operation toward indoors and a defrosting operation toward the outdoor unit , characterized in that the air conditioner has a heating operation mode: that is, when the outdoor temperature reaches a predetermined first specified temperature or lower during a heating operation, the air conditioner stops the heating operation and goes to standby, in which state neither a heating operation nor a defrosting operation is executed, and thereafter, when the outdoor temperature reaches a temperature equal to or higher than a predetermined second specified temperature higher than the first specified temperature, the air conditioner executes a defrosting operation and subsequently resumes the heating operation.
A stuffed pasta food item, the food item comprising: - a stuffing dose comprising at least one of the following ingredients: meat, vegetables, fish, eggs, cheese, mushrooms; - a wrap provided with at least one sheet obtained from a dough comprising at least flour and at least one component containing water; the wrap comprising: - two side flaps joined to one another; - two central portions , at least one of which is rounded so as to define a housing for the stuffing dose ; and - at least one rib , which extends along at least one portion of the rounded central portion . - a stuffing dose comprising at least one of the following ingredients: meat, vegetables, fish, eggs, cheese, mushrooms; - a wrap provided with at least one sheet obtained from a dough comprising at least flour and at least one component containing water; the wrap comprising: - two side flaps joined to one another; - two central portions , at least one of which is rounded so as to define a housing for the stuffing dose ; and - at least one rib , which extends along at least one portion of the rounded central portion . - two side flaps joined to one another; - two central portions , at least one of which is rounded so as to define a housing for the stuffing dose ; and - at least one rib , which extends along at least one portion of the rounded central portion .
A smoke eliminator apparatus for removing smoke from a room or building comprising: a tube having a generally hollow interior , an exterior side, a top end having a first opening and a bottom end having a second opening for securing to a fire hose wherein in use a fluid moves through the second opening at the bottom end of the tube, through the interior of the tube and then out of the first opening at the top end of the tube, such that the movement of the fluid out of the first opening of the top end of the tube pulls smoke and/or heat out of a room in the direction of the fluid exiting the first opening at the top end by suction force of the fluid, and wherein the tube has a main body having a longitudinal axis and a generally U-shaped bend at the top end of the tube wherein the two legs of the u-shaped bend are generally perpendicular to the longitudinal axis defined by the main body of the tube and wherein the free end of the top end of the tube is positioned at a distance from the main body of the tube, a glass-breaking device having a generally cone-shaped tip extended out from the exterior side of the tube, located at he bottom of the u-shaped bend farthest away from the main body; wherein the generally cone-shaped tip is suitable for breaking glass or for creating a hole in a wall; and characterized by a nozzle located at an opening on a top portion of the u-shaped bend facing slightly backward and up wherein the nozzle allows the fluid to exit from the interior of the tube at a location other than the first opening at the top end of the tube. a tube having a generally hollow interior , an exterior side, a top end having a first opening and a bottom end having a second opening for securing to a fire hose wherein in use a fluid moves through the second opening at the bottom end of the tube, through the interior of the tube and then out of the first opening at the top end of the tube, such that the movement of the fluid out of the first opening of the top end of the tube pulls smoke and/or heat out of a room in the direction of the fluid exiting the first opening at the top end by suction force of the fluid, and wherein the tube has a main body having a longitudinal axis and a generally U-shaped bend at the top end of the tube wherein the two legs of the u-shaped bend are generally perpendicular to the longitudinal axis defined by the main body of the tube and wherein the free end of the top end of the tube is positioned at a distance from the main body of the tube, a glass-breaking device having a generally cone-shaped tip extended out from the exterior side of the tube, located at he bottom of the u-shaped bend farthest away from the main body; wherein the generally cone-shaped tip is suitable for breaking glass or for creating a hole in a wall; and characterized by a nozzle located at an opening on a top portion of the u-shaped bend facing slightly backward and up wherein the nozzle allows the fluid to exit from the interior of the tube at a location other than the first opening at the top end of the tube.
A method comprising: presenting, by a client device, a digital component that, when interacted with by a user of the client device, initiates a call by the client device to a phone number specified by the digital component; in response to presenting the digital component, storing, by a trusted program of the client device and in a presentation event data structure, a presentation event data element specifying the phone number and resource locator for a reporting system to which reports for the digital component are sent; detecting, by the trusted program, a phone call by the client device to a given phone number; in response to detecting the phone call, comparing the given phone number to one or more presentation event data elements stored in the presentation event data structure; determining, based on the comparing, that the given phone number matches the phone number specified by the digital component; and in response to determining that the given phone number matches the phone number specified by the digital component, transmitting, to the reporting system of the digital component, an event report indicating that the phone number specified by the digital component was called by the client device after the digital component was presented by the client device. presenting, by a client device, a digital component that, when interacted with by a user of the client device, initiates a call by the client device to a phone number specified by the digital component; in response to presenting the digital component, storing, by a trusted program of the client device and in a presentation event data structure, a presentation event data element specifying the phone number and resource locator for a reporting system to which reports for the digital component are sent; detecting, by the trusted program, a phone call by the client device to a given phone number; in response to detecting the phone call, comparing the given phone number to one or more presentation event data elements stored in the presentation event data structure; determining, based on the comparing, that the given phone number matches the phone number specified by the digital component; and in response to determining that the given phone number matches the phone number specified by the digital component, transmitting, to the reporting system of the digital component, an event report indicating that the phone number specified by the digital component was called by the client device after the digital component was presented by the client device.
An reductant dosing system for an SCR catalyst comprising an injector , a storage tank and a reductant pump arranged in a first fluid line between the storage tank and the injector for pumping reductant from the storage tank to the injector , wherein the reductant dosing system comprises pressurizing means for pressurizing the storage tank , characterized in that the system further comprises a quality sensor for sensing a urea concentration of the reductant stored in the storage tank , a pressure sensor for sensing the pressure in the storage tank and a control system for varying a pressure threshold used for controlling the pressurizing means in dependence on the urea concentration measured by the quality sensor , wherein the pressure threshold is increased with an increase in urea concentration.