mhurhangee/patent-ind-claim-en huggingface dataset:
A current sensing circuit comprising: a shunt resistance through which current to be sensed travels; a first differential amplifier that provides an amplified output of the voltage across the shunt resistance and that is optimized for low common mode voltages; a second differential amplifier that provides an amplified output of the voltage across the shunt resistance and that is not the first differential amplifier and that is optimized for high common mode voltages; and a switching system that delivers a current sensing signal output based on: the amplified output of the first differential amplifier and not the amplified output of the second differential amplifier when the common mode voltage of the shunt resistance is low; and the amplified output of the second differential amplifier and not the amplified output of the first differential amplifier when the common mode voltage of the shunt resistance is high, wherein the magnitude of the common mode voltage determines when and how switching by the switching system occurs. a shunt resistance through which current to be sensed travels; a first differential amplifier that provides an amplified output of the voltage across the shunt resistance and that is optimized for low common mode voltages; a second differential amplifier that provides an amplified output of the voltage across the shunt resistance and that is not the first differential amplifier and that is optimized for high common mode voltages; and a switching system that delivers a current sensing signal output based on: the amplified output of the first differential amplifier and not the amplified output of the second differential amplifier when the common mode voltage of the shunt resistance is low; and the amplified output of the second differential amplifier and not the amplified output of the first differential amplifier when the common mode voltage of the shunt resistance is high, the amplified output of the first differential amplifier and not the amplified output of the second differential amplifier when the common mode voltage of the shunt resistance is low; and the amplified output of the second differential amplifier and not the amplified output of the first differential amplifier when the common mode voltage of the shunt resistance is high, wherein the magnitude of the common mode voltage determines when and how switching by the switching system occurs.
A composition for polymerization, comprising: a monomer represented by the following Formula (I); and water, wherein a moisture content is equal to or higher than 3% by mass and less than 10% by mass, wherein R represents a hydrogen atom or a methyl group. a monomer represented by the following Formula (I); and water, wherein a moisture content is equal to or higher than 3% by mass and less than 10% by mass, wherein R represents a hydrogen atom or a methyl group.
A night vision system, comprising: first analog image intensifier tube ; an addressable display within the first analog image intensifier tube configured to create an electronically addressable output; a digital imager configured to receive an optical image and produce a plurality of digital electrical signals corresponding to the optical image; and a controller configured to produce a symbol digital electrical input onto the plurality of digital electrical signals; characterized in that the first analog image intensifier tube is configured to receive the optical image and to produce multiplied electrons from the addressable display comprising a first electron multiplier within the first analog image intensifier tube , and to also produce electrons from electron emitters on the first electron multiplier that are addressed on a pixel-by- pixel basis by the plurality of digital electrical signals. first analog image intensifier tube ; an addressable display within the first analog image intensifier tube configured to create an electronically addressable output; a digital imager configured to receive an optical image and produce a plurality of digital electrical signals corresponding to the optical image; and a controller configured to produce a symbol digital electrical input onto the plurality of digital electrical signals; characterized in that the first analog image intensifier tube is configured to receive the optical image and to produce multiplied electrons from the addressable display comprising a first electron multiplier within the first analog image intensifier tube , and to also produce electrons from electron emitters on the first electron multiplier that are addressed on a pixel-by- pixel basis by the plurality of digital electrical signals.
A nanoparticle composition comprising: a plurality of spherical-shaped nanoparticles; and a plurality of coral-shaped metal nanoparticles formed using a laser ablation process, each coral-shaped metal nanoparticle having a non-uniform cross section and a globular structure formed by multiple, non-linear strands joined together without right angles, wherein the spherical-shaped and coral-shaped nanoparticles are formed by ablating a target in heavy atmosphere to form an ejecta plume and applying an electromagnetic field to the ejecta plume, wherein the spherical-shaped nanoparticles are obtained by maintaining the electromagnetic field in a position closer to the target, and wherein the coral-shaped nanoparticles are obtained by maintaining the electromagnetic field in a position farther from the target. a plurality of spherical-shaped nanoparticles; and a plurality of coral-shaped metal nanoparticles formed using a laser ablation process, each coral-shaped metal nanoparticle having a non-uniform cross section and a globular structure formed by multiple, non-linear strands joined together without right angles, wherein the spherical-shaped and coral-shaped nanoparticles are formed by ablating a target in heavy atmosphere to form an ejecta plume and applying an electromagnetic field to the ejecta plume, wherein the spherical-shaped nanoparticles are obtained by maintaining the electromagnetic field in a position closer to the target, and wherein the coral-shaped nanoparticles are obtained by maintaining the electromagnetic field in a position farther from the target.
Use of a socket outlet (100A; 100B; 100C; 100D) to provide a pilot signal to an electric plug (200A; 200B; 200C; 200D) suitable for being plugged into the socket outlet in order to limit to a determined maximum current the current drawn by an electrical apparatus connected to said electric plug, the socket outlet (100A; 100B; 100C; 100D) presenting given intrinsic characteristics so as to be suitable for delivering continuously, and without being damaged, an electrical signal that presents said determined maximum current, said socket outlet including identification means (130A; 130B; 130C; 130D) suitable for communicating or co-operating with reader means of said electric plug (200A; 200B; 200C; 200D) so as to generate said pilot signal representative of said maximum current of said electrical signal delivered by the socket outlet without being damaged, said identification means (130A; 130B; 130C; 130D) comprising a magnet (133A; 133B; 133C; 133D) and the pilot signal being a magnetic field produced by the magnet (133A; 133B; 133C; 133D), the electrical apparatus being designed to limit the current drawn from the socket outlet to the maximal value indicated by the pilot signal.
A metallo-dielectric solar control structure comprising: a transparent substrate ; a multilayer metallo-dielectric coating formed on said transparent substrate , said multilayer metallo-dielectric coating comprising the following sequence of layers: a first transparent dielectric layer formed on said transparent substrate; a metal layer formed on said first transparent dielectric layer ; and a second transparent dielectric layer formed on said metal layer; wherein at least one of said first transparent dielectric layer and said second transparent dielectric layer is a hydrogenated metal nitride dielectric layer ; wherein said metal layer is sufficiently thin, and wherein each hydrogenated metal nitride dielectric layer comprises an effective hydrogen concentration, such that said structure exhibits transparency of at least 70% in at least a portion of the visible spectrum; and wherein one or more of said first transparent dielectric layer and said second transparent dielectric layer comprises a distribution of metallic nanoparticles. a transparent substrate ; a multilayer metallo-dielectric coating formed on said transparent substrate , said multilayer metallo-dielectric coating comprising the following sequence of layers: a first transparent dielectric layer formed on said transparent substrate; a metal layer formed on said first transparent dielectric layer ; and a second transparent dielectric layer formed on said metal layer; a first transparent dielectric layer formed on said transparent substrate; a metal layer formed on said first transparent dielectric layer ; and a second transparent dielectric layer formed on said metal layer; wherein at least one of said first transparent dielectric layer and said second transparent dielectric layer is a hydrogenated metal nitride dielectric layer ; wherein said metal layer is sufficiently thin, and wherein each hydrogenated metal nitride dielectric layer comprises an effective hydrogen concentration, such that said structure exhibits transparency of at least 70% in at least a portion of the visible spectrum; and wherein one or more of said first transparent dielectric layer and said second transparent dielectric layer comprises a distribution of metallic nanoparticles.
Belt tensioner comprising a mass body drive for a seat belt of a motor vehicle having a force limiting device, said belt tensioner comprising - a belt shaft which is rotatably mounted in at least one opening of a housing that can be fastened to the vehicle and on which the seat belt can be wound, - a tensioner drive wheel which is connected to the belt shaft for rotation therewith and has recesses which are distributed at regular intervals over the circumference, - a chain of loose mass bodies which forms the mass body drive, which mass bodies are guided in a tensioner tube and can be driven by applying pressure to the tensioner tube , - it being possible to drive the belt shaft in the winding direction of the seat belt by the driven mass bodies engaging in the recesses in the tensioner drive wheel , characterized in that - the mounting of the belt shaft in the opening of the housing is designed to be flexible in the radial direction. - a belt shaft which is rotatably mounted in at least one opening of a housing that can be fastened to the vehicle and on which the seat belt can be wound, - a tensioner drive wheel which is connected to the belt shaft for rotation therewith and has recesses which are distributed at regular intervals over the circumference, - a chain of loose mass bodies which forms the mass body drive, which mass bodies are guided in a tensioner tube and can be driven by applying pressure to the tensioner tube , - it being possible to drive the belt shaft in the winding direction of the seat belt by the driven mass bodies engaging in the recesses in the tensioner drive wheel , characterized in that - the mounting of the belt shaft in the opening of the housing is designed to be flexible in the radial direction.
Nebulizer for nebulizing a liquid , comprising: a preferably replaceable container containing multiple doses of the liquid , a fluid pump for withdrawing a dose of the liquid from the container and pressurizing the respective dose for nebulization, an air pump for pressurizing the liquid in the container to help withdrawing the liquid in doses from the container , and a housing part which can be detached from the nebulizer or opened for inserting or replacing the container , characterized in that the air pump comprises or forms a piston/cylinder arrangement for pumping air into the container to help withdrawing the liquid in doses from the container , wherein the air pump comprises a pump piston and a cylinder , wherein the pump piston is axially moveable within the cylinder , wherein the cylinder is formed by the housing part or an insert attached thereto. a preferably replaceable container containing multiple doses of the liquid , a fluid pump for withdrawing a dose of the liquid from the container and pressurizing the respective dose for nebulization, an air pump for pressurizing the liquid in the container to help withdrawing the liquid in doses from the container , and a housing part which can be detached from the nebulizer or opened for inserting or replacing the container , characterized in that the air pump comprises or forms a piston/cylinder arrangement for pumping air into the container to help withdrawing the liquid in doses from the container , wherein the air pump comprises a pump piston and a cylinder , wherein the pump piston is axially moveable within the cylinder , wherein the cylinder is formed by the housing part or an insert attached thereto.
Method for operating a radar sensor in a motor vehicle , wherein the radar sensor has at least one antenna arrangement for emitting and receiving radar signals and a processing apparatus for evaluating received radar signals, wherein the antenna arrangement is controlled to simultaneously emit and receive radar signals both in a far frequency range and a near frequency range , wherein the bandwidth of the near frequency range is greater than that of the far frequency range , wherein a spatial detection range for the frequency ranges partially overlaps and received radar signals are jointly evaluated for an overall frequency range that fully encompasses the near frequency range and the far frequency range and is continuous, wherein the overall frequency range is greater than the near frequency range , according to which received radar signals of the overall frequency range are evaluated as radar data of a higher distance resolution and received radar signals of the far frequency range are evaluated as radar data of a lower distance resolution.
A waste water treatment apparatus comprising a housing having a settling tank mounted therein adapted to receive waste water, the settling tank comprising first and second oppositely disposed end walls spaced apart by first and second oppositely disposed side walls , a longitudinal baffle or dividing wall extending inwardly from said first end wall towards said second end wall , parallel to said first and second side walls , said dividing wall terminating spaced from and adjacent said second end wall such that the dividing wall defines a flow path for the waste water through the settling tank and effectively doubles the traverse length of the waste water through the tank , the dividing wall dividing the interior of the settling tank into an inlet region and a settlement region , a skimming device being associated with said settlement region and being mounted in the settling tank to remove any FOG that settles on the surface of the waste water, a water drain 26 being provided in a downstream end of the settlement region of the settling tank for removing water from the settling tank, an inlet end of the water drain being defined by a weir which controls the water level within the settling tank , and a sediment removal system being associated with said settlement region and adapted to remove sediment collected in the bottom of the settling tank , wherein the sediment removal system comprises a sediment removal pump located in the housing adjacent the downstream end of the settlement region of the settling tank and having an inlet coupled to a sediment extraction passage extending into a sediment collection region in the bottom of the settlement region of the settling tank and adapted to draw sediment accumulated in the sediment collection region from the settling tank, a pair of parallel vertically arranged baffle plates extend across the width of the settlement region of the settling tank between the dividing wall and the second side wall of the settling tank, the baffle plates having lower edges terminating above a bottom wall of the settling tank and upper edges extending above the normal water level in the settling tank, the baffle plates being spaced apart from one another to define a cavity therebetween, wherein the inlet end of the sediment extraction passage extends into said cavity through one of said baffle plates such that said cavity defines an inlet region of the sediment extraction passage, wherein said cavity serves as a vent for the sediment removal pump and wherein the sediment extraction passage is defined by a pipe extending from the sediment removal pump into the settling tank and terminating in said cavity.
A method for releasing a context-related resource of a user equipment, comprising: determining , by a source access network node, that the user equipment is handed over from the source access network node to a target access network node through an X2 interface in a long term evolution, LTE, system; receiving , by a source intermediate node, a user equipment context release request message sent by the source access network node, wherein the user equipment context release request message carries an identifier of the user equipment and a terminating identifier, wherein the source intermediate node being a gateway between the source access network node and a core network node, and the terminating identifier indicates that the source intermediate node does not need to send the user equipment context release request message to the core network node; and releasing , by the source intermediate node, a context-related resource of the user equipment corresponding to the identifier of the user equipment. determining , by a source access network node, that the user equipment is handed over from the source access network node to a target access network node through an X2 interface in a long term evolution, LTE, system; receiving , by a source intermediate node, a user equipment context release request message sent by the source access network node, wherein the user equipment context release request message carries an identifier of the user equipment and a terminating identifier, wherein the source intermediate node being a gateway between the source access network node and a core network node, and the terminating identifier indicates that the source intermediate node does not need to send the user equipment context release request message to the core network node; and releasing , by the source intermediate node, a context-related resource of the user equipment corresponding to the identifier of the user equipment.
A computer-implemented method, executed on a computing device , comprising: associating a unique identifier with an entity , wherein the entity includes one or more of: a company, an organization, a corporation and an individual; intercepting network traffic directed toward the unique identifier via a router deployed inside of a network operated by the entity; routing, via the router , all of the network traffic out of the network operated by the entity to a private honeypot computing device associated with the entity deployed outside of the network operated by the entity; gathering information on a type of attack utilized against the private honeypot; importing the gathered information by a Security Information and Event Management , SIEM, platform; and processing the gathered information to effectuate generating a plurality of raw threat data definitions associated with the gathered information. associating a unique identifier with an entity , wherein the entity includes one or more of: a company, an organization, a corporation and an individual; intercepting network traffic directed toward the unique identifier via a router deployed inside of a network operated by the entity; routing, via the router , all of the network traffic out of the network operated by the entity to a private honeypot computing device associated with the entity deployed outside of the network operated by the entity; gathering information on a type of attack utilized against the private honeypot; importing the gathered information by a Security Information and Event Management , SIEM, platform; and processing the gathered information to effectuate generating a plurality of raw threat data definitions associated with the gathered information.
A method for use in a wireless device, for receiving one or more synchronization sequences of a synchronization signal, transmitted in a beam sweep, the method comprising: - monitoring (S11) a spectrum for synchronisation sequences; and when a first synchronisation sequence is detected then: - obtaining (S12), by analysing the content of the detected first synchronisation sequence, a timing indication defining a time of an event, wherein the timing indication corresponds to a synchronization signal index whereby the synchronization signal index enables determination of the time of an event in the receiving wireless device, wherein the time of an event comprises the time of a random access window where the wireless device is allowed to transmit an uplink, UL, signal.. - monitoring (S11) a spectrum for synchronisation sequences; and when a first synchronisation sequence is detected then: - obtaining (S12), by analysing the content of the detected first synchronisation sequence, a timing indication defining a time of an event, wherein the timing indication corresponds to a synchronization signal index whereby the synchronization signal index enables determination of the time of an event in the receiving wireless device, wherein the time of an event comprises the time of a random access window where the wireless device is allowed to transmit an uplink, UL, signal..
Lighting device for a vehicle comprising a cup-shaped housing body designed to be mounted on a vehicle body and having a front inlet opening facing in use a forward march direction of the vehicle, a transparent cover closing the front inlet opening, a plurality of first and second lighting modules arranged side by side inside the housing body facing the inlet opening and spaced apart from the inlet opening , the lighting modules being visible from the outside through the transparent cover , and an aesthetic mask to cover a first gap between the transparent cover and the light modules, the first gap extending in a substantially horizontal direction; wherein the aesthetic mask comprises: a first masking element which is connected integral and rigid with an inner surface of the transparent cover facing towards the lighting modules and overhangingly protrudes from the inner surface of the transparent cover towards the lighting modules to such an extent to cover a first part only of the fist gap , on the side of the transparent cover ; and a second masking element which is connected integral and rigid with the housing body and which is separate from, and is independent of, both the transparent cover and the first masking element overhanging therefrom; the second masking element overhangingly protruding from the lighting modules , under and beyond thereto and towards the transparent cover to hide a second part only of the first gap , on the side opposite to said transparent cover ; the first and second masking elements overlapping over each other such as to completely hide said first gap ; and wherein: i)- the first and second masking elements are spaced apart in vertical direction so as to define therebetween a second gap (G) arranged below the lighting modules and extending vertically upwards, on the side of the lighting modules; characterized in that, in combination with feature i) , : ii)- the housing body is integrally provided internally with a baffle element extending upwards at least in part within the second gap (G) and immediately below the first masking element , so as to be arranged between the second masking element and the transparent cover to shield the second masking element towards the transparent cover and below the first masking element . i)- the first and second masking elements are spaced apart in vertical direction so as to define therebetween a second gap (G) arranged below the lighting modules and extending vertically upwards, on the side of the lighting modules;