mhurhangee/patent-ind-claim-en huggingface dataset:
A cellular glass corrosion under insulation system for an outer surface (18; 180) of a pipe (12; 120) comprising: the pipe ; a first insulation layer (14; 140) surrounding the outer surface (18; 180) of the pipe (12; 120), wherein the first insulation layer has an outer surface and an inner surface (20; 200), wherein the first insulation layer comprises cellular glass; characterised in that it also comprises a first annular space between the outer surface (18; 180) of the pipe (12; 120) and the inner surface (20; 200) of the first insulation layer (14; 140); and a first foam (22; 220) filling the first annular space (16; 160) configured to limit water intrusion into the annular space (16; 160) and attenuate sound. the pipe ; a first insulation layer (14; 140) surrounding the outer surface (18; 180) of the pipe (12; 120), wherein the first insulation layer has an outer surface and an inner surface (20; 200), wherein the first insulation layer comprises cellular glass; characterised in that it also comprises a first annular space between the outer surface (18; 180) of the pipe (12; 120) and the inner surface (20; 200) of the first insulation layer (14; 140); and a first foam (22; 220) filling the first annular space (16; 160) configured to limit water intrusion into the annular space (16; 160) and attenuate sound.
Method for navigating an industrial truck , in which pieces of information in the operating region of the industrial truck are recognized with an optical sensor , and said pieces of information are evaluated by a data processing device, and navigation instructions and/or control commands for navigating the industrial truck are created, wherein visible pieces of information which are provided for human beings and are mounted for operators in the operating region of the industrial truck are captured by the optical sensor , and the navigation instructions and/or control commands are created therefrom by means of context recognition by the data processing device for navigation purposes, wherein visible shelf lettering , provided for human beings, in the region of shelves in a warehouse are captured by the optical sensor , and the navigation instructions and/or control commands are created therefrom by the data processing device for navigation purposes, characterized in that floor markings , which are formed as visible footpath markings and lane markings provided for human beings, in the operating region of the industrial truck are captured by the optical sensor and are categorized by the data processing device, and the navigation instructions and/or control commands are created therefrom for navigation purposes, and wherein the recognized context is stored in maps that are placed in relation to existing pieces of information with respect to the operating region of the industrial truck .
A connector device comprising: a first connector section that has a waveguide for transmitting a high-frequency signal; and a second connector section including: a waveguide for transmitting a high-frequency signal, a yoke , formed of a magnetic body, disposed to cover the waveguide, and a magnet forming a magnetic circuit with the yoke, wherein the second connection section is couplable to the first connector section by an attractive force of the magnet , wherein the second connector section includes a shield member that is formed of a rubber elastic body, disposed between the yoke and the magnet , and protruded from end faces of the yoke and the magnet . a first connector section that has a waveguide for transmitting a high-frequency signal; and a second connector section including: a waveguide for transmitting a high-frequency signal, a yoke , formed of a magnetic body, disposed to cover the waveguide, and a magnet forming a magnetic circuit with the yoke, wherein the second connection section is couplable to the first connector section by an attractive force of the magnet , wherein the second connector section includes a shield member that is formed of a rubber elastic body, disposed between the yoke and the magnet , and protruded from end faces of the yoke and the magnet . a waveguide for transmitting a high-frequency signal, a yoke , formed of a magnetic body, disposed to cover the waveguide, and a magnet forming a magnetic circuit with the yoke, wherein the second connection section is couplable to the first connector section by an attractive force of the magnet , wherein the second connector section includes a shield member that is formed of a rubber elastic body, disposed between the yoke and the magnet , and protruded from end faces of the yoke and the magnet .
A method of detecting sand ingress within a wellbore , the method comprising: obtaining a sample data set, wherein the sample data set is a sample of an acoustic signal originating within a wellbore comprising a fluid, and wherein the sample data set is representative of the acoustic signal across a frequency spectrum; determining a plurality of frequency domain features of the sample data set over a plurality of depth ranges; determining a presence of sand ingress at a first depth range of the plurality of depth ranges within the wellbore based on determining that the plurality of frequency domain features over the first depth range match a sand ingress signature; determining a presence of sand migration along a second depth range of the plurality of depths within the wellbore based on determining that the plurality of frequency domain features over the second depth range match a sand migration signature; and identifying a sand ingress location from the formation as being within the second depth range . obtaining a sample data set, wherein the sample data set is a sample of an acoustic signal originating within a wellbore comprising a fluid, and wherein the sample data set is representative of the acoustic signal across a frequency spectrum; determining a plurality of frequency domain features of the sample data set over a plurality of depth ranges; determining a presence of sand ingress at a first depth range of the plurality of depth ranges within the wellbore based on determining that the plurality of frequency domain features over the first depth range match a sand ingress signature; determining a presence of sand migration along a second depth range of the plurality of depths within the wellbore based on determining that the plurality of frequency domain features over the second depth range match a sand migration signature; and identifying a sand ingress location from the formation as being within the second depth range .
An injection molding machine management system comprising: an injection molding machine configured to operate a signal lamp based on an operation state; a signal lamp information acquisition device configured to acquire information relating to the operation of the signal lamp and including an imaging device configured to capture an image of the operation of the signal lamp ; and a host management device configured to acquire the operation state of the injection molding machine based on the information sent by the signal lamp information acquisition device , wherein the injection molding machine includes a state acquisition unit configured to acquire the operation state, a lighting pattern decision unit configured to decide a lighting pattern of the signal lamp based on the acquired operation state, and a signal lamp control unit configured to operate the signal lamp in the decided lighting pattern, characterized in that the imaging device includes a lighting pattern acquisition unit configured to acquire the lighting pattern of the signal lamp , and a target state determination unit configured to determine the operation state of the injection molding machine based on the acquired lighting pattern, and the signal lamp information acquisition device is configured to transmit the operation state of the injection molding machine to the host management device . an injection molding machine configured to operate a signal lamp based on an operation state; a signal lamp information acquisition device configured to acquire information relating to the operation of the signal lamp and including an imaging device configured to capture an image of the operation of the signal lamp ; and a host management device configured to acquire the operation state of the injection molding machine based on the information sent by the signal lamp information acquisition device , wherein the injection molding machine includes a state acquisition unit configured to acquire the operation state, a lighting pattern decision unit configured to decide a lighting pattern of the signal lamp based on the acquired operation state, and a signal lamp control unit configured to operate the signal lamp in the decided lighting pattern, characterized in that the imaging device includes a lighting pattern acquisition unit configured to acquire the lighting pattern of the signal lamp , and a target state determination unit configured to determine the operation state of the injection molding machine based on the acquired lighting pattern, and the signal lamp information acquisition device is configured to transmit the operation state of the injection molding machine to the host management device .
A compliance restoration device implantable in blood vessels, comprising: a compliance balloon lumen ; a chamber support structure disposed in the compliance balloon lumen , extending between a first end and a second end of the chamber support structure characterized in that the chamber support structure is configured to expand outward through shortening of the chamber support structure from end-to-end to support an expanded volume of the compliance balloon lumen ; and wherein the the compliance restoration device also comprises a spring assembly configured to cause the chamber support structure to expand by applying a force on the first end of the chamber support structure . a compliance balloon lumen ; a chamber support structure disposed in the compliance balloon lumen , extending between a first end and a second end of the chamber support structure characterized in that the chamber support structure is configured to expand outward through shortening of the chamber support structure from end-to-end to support an expanded volume of the compliance balloon lumen ; and wherein the the compliance restoration device also comprises a spring assembly configured to cause the chamber support structure to expand by applying a force on the first end of the chamber support structure .
Method for producing a collector for a commutating device for transmitting current to an armature of an electrical machine, in particular a starter motor for an internal combustion engine, in which a contact portion of the collector and a connecting portion of the collector connected to an armature winding are connected to one another by friction stir welding using a friction stir tool in the connecting region between the portions , wherein the contact portion and the connecting portion consist of different materials, wherein the contact portion and the connecting portion are each formed rotationally symmetrically and are connected to one another along a circular connecting region , and wherein the contact portion and the connecting portion abut against one another at the end faces and the common end face forms the connecting region , wherein the contact portion and the connecting portion comprise the same outer diameter, and wherein the friction stir tool in use is located radially outside of the connecting area between the contact portion and the connecting portion .
Cannabidiol (CBD) for use in the treatment of Aicardi Syndrome, characterised in that the seizures to be treated are focal seizures evolving to secondary generalised seizures; tonic seizures; and / or tonic-clonic seizures and wherein the CBD is a synthetic compound or is present as a highly purified extract of cannabis which comprises at least 95% (w/w) CBD and less than 0.15% THC.
A coating cover with a metal structure for roofs of buildings , the coating cover comprising a plurality of slabs of substantially quadrilateral shape each of which is provided with shaped edges (A, B) that are parallel and opposite to one another intended for mutual connection between slabs that are adjacent in the longitudinal direction and are intended for the formation of a joint positioned between each of the adjacent slabs , wherein said shaped edges (A, B) comprise folds at least partially symmetrical on the two edges (A, B) and further folds that are made on at least one of the shaped edges (A) and yet further folds on at least the other one of the shaped edges (B), and wherein said shaped edges (A, B) of two adjacent slabs are joined by a bracket (S) of the coating cover having at least two recesses that are symmetrical to one another defined respectively by portions protruding upwards and folded in a reciprocally specular direction relative to a middle plane of the bracket (S) perpendicular to a base (X) of the bracket (S), in which the curves that are formed by the folds placed respectively on the edges (A, B) of the adjacent slab are housed, where said recesses of the bracket (S) are substantially parallel to the base (X) of the bracket (S), wherein said base (X) has a conformation defined by a flat surface that is intended to rest on the sub-structure of the roof to which it can be fixed by fixing elements passing through holes , and characterized in that the bracket comprises an internal rotating element (Y) and an external rotating element (Z) that rotate on an axis placed at a cylindrical portion thereof around respective cylindrical housings of the base (X), wherein the rotating elements (Z) define at least two of said recesses .
A method for guiding an autonomous aircraft , the aircraft comprising an automatic pilot , a plurality of sensors and an imaging unit , the aircraft being configured to fly over a geographic zone comprising overflight prohibited zones and a safety corridor that does not pass through said overflight prohibited zones , said imaging unit being able to photograph one or more objects of interest located in said geographic zone, the guidance method comprises a phase of real flight of the autonomous aircraft between a position of departure and a predefined position of arrival that are associated with said safety corridor , by using a given guidance law, the guidance method comprising the following steps, implemented at a given instant of said real flight phase: - determining a current state of said autonomous aircraft as a function of a plurality of input parameters comprising input parameters provided by said plurality of sensors; - determining an optimum action to be executed by using a neural network receiving said current state; - determining a plurality of control instructions compatible with said guidance law based on said optimum action to be executed; - transmitting to said automatic pilot said plurality of control instructions, which provides a new state of said autonomous aircraft ; and characterised in that the method comprises a preliminary learning phase of optimising said neutral network based on a plurality of fictitious flights of said aircraft, each of said fictitious flights comprising a succession of fictitious steps and being associated with a complexity parameter, said fictitious flights being used in said preliminary learning phase according to an ascending order of said complexity parameters. - determining a current state of said autonomous aircraft as a function of a plurality of input parameters comprising input parameters provided by said plurality of sensors; - determining an optimum action to be executed by using a neural network receiving said current state; - determining a plurality of control instructions compatible with said guidance law based on said optimum action to be executed; - transmitting to said automatic pilot said plurality of control instructions, which provides a new state of said autonomous aircraft ;
A method for forwarding packets during a S1 handover in a Long Term Evolution, LTE, system comprising: sending, by a source evolved NodeB, eNodeB, at least one first downlink packet without packet data convergence protocol serial number, PDCP SN, to a target eNodeB; sending (A2, B2, C2), by the source eNodeB, a control message to the target eNodeB through a source mobility management entity, MME, and a target MME, wherein the control message comprises an initial PDCP SN, and the initial PDCP SN is a first PDCP SN to be assigned to the at least one first downlink packets. sending, by a source evolved NodeB, eNodeB, at least one first downlink packet without packet data convergence protocol serial number, PDCP SN, to a target eNodeB; sending (A2, B2, C2), by the source eNodeB, a control message to the target eNodeB through a source mobility management entity, MME, and a target MME, wherein the control message comprises an initial PDCP SN, and the initial PDCP SN is a first PDCP SN to be assigned to the at least one first downlink packets.
A system comprising: a dissolving tank ; a spout disposed adjacently above the dissolving tank , wherein the spout is configured to convey a volume of smelt into the dissolving tank ; a disruptor configured to disrupt the volume of smelt flowing from the spout into the dissolving tank ; an agitator disposed in the dissolving tank , wherein the agitator is configured to mix the volume of smelt into a dissolving liquid in the dissolving tank ; and an ultrasonic transducer , wherein the ultrasonic transducer is configured to emit ultrasonic waves within the dissolving tank at a frequency above 20 kilohertz. a dissolving tank ; a spout disposed adjacently above the dissolving tank , wherein the spout is configured to convey a volume of smelt into the dissolving tank ; a disruptor configured to disrupt the volume of smelt flowing from the spout into the dissolving tank ; an agitator disposed in the dissolving tank , wherein the agitator is configured to mix the volume of smelt into a dissolving liquid in the dissolving tank ; and an ultrasonic transducer , wherein the ultrasonic transducer is configured to emit ultrasonic waves within the dissolving tank at a frequency above 20 kilohertz.
Sliding door, especially a cooling room sliding door, with at least one door leaf that can be moved along a running rail , with a drive for purposes of moving the door leaf along the running rail , wherein the drive has an electric motor , which drives a traction drive mechanism , and a coupling device is provided between the door leaf and the drive , which coupling device is arranged between the traction drive mechanism and the door leaf , or a holding device on the door leaf , and which has a driver element , characterised in that , the driver element is arranged on the traction mechanism side, and in that , a roller or a contact surface is provided in a fixed position, and is arranged such that, in an end position of the door, it transfers the driver element from its coupled position into a decoupled position.
A sidelink synchronization signal, SLSS, transmission method performed by a user equipment, UE, in a wireless communication system, the method comprising: receiving (S310), at a specific time, a first SLSS on first resources having a first synchronization period and a second SLSS on second resources having a second synchronization period; measuring reception power of the first SLSS and reception power of the second SLSS; and transmitting (S320) the first SLSS or the second SLSS based on the measured reception powers, wherein in case of the reception power of the first SLSS being higher than 2. the reception power of the second SLSS, the first SLSS is transmitted on the second resources after the specific time, and in case of the reception power of the second SLSS being higher than the reception power of the first SLSS, the second SLSS is transmitted on the first resources after the specific time. receiving (S310), at a specific time, a first SLSS on first resources having a first synchronization period and a second SLSS on second resources having a second synchronization period; measuring reception power of the first SLSS and reception power of the second SLSS; and transmitting (S320) the first SLSS or the second SLSS based on the measured reception powers, wherein in case of the reception power of the first SLSS being higher than 2. the reception power of the second SLSS, the first SLSS is transmitted on the second resources after the specific time, and in case of the reception power of the second SLSS being higher than the reception power of the first SLSS, the second SLSS is transmitted on the first resources after the specific time.
A compound of Formula (I): or a salt thereof, wherein: R 1 is -NH 2 or -NH(CH 3 ); each R 2 is independently F, Cl, -CN, C 1-4 alkyl, -CH 2 F, -CHF 2 , -CF 3 , -OCH 3 , or cyclopropyl; each R 4 is independently F, Cl, -CH 3 , -CH 2 F, -CHF 2 , -CF 3 , or -OCH 3 ; R 6 is hydrogen, C 1-2 alkyl, or C 1-2 fluoroalkyl; m is zero, 1, 2, or 3; and n is zero, 1, 2, or 3; with the proviso that when R 6 is hydrogen, m is 1, 2, or 3. R 1 is -NH 2 or -NH(CH 3 ); each R 2 is independently F, Cl, -CN, C 1-4 alkyl, -CH 2 F, -CHF 2 , -CF 3 , -OCH 3 , or cyclopropyl; each R 4 is independently F, Cl, -CH 3 , -CH 2 F, -CHF 2 , -CF 3 , or -OCH 3 ; R 6 is hydrogen, C 1-2 alkyl, or C 1-2 fluoroalkyl; m is zero, 1, 2, or 3; and n is zero, 1, 2, or 3; with the proviso that when R 6 is hydrogen, m is 1, 2, or 3.
An apparel item for an upper torso of a wearer configured for reduced cling perception, the apparel item comprising: at least a front portion and a back portion that together help to form the apparel item, wherein the front portion and the back portion are formed from a fabric material having a base contact level; a first set of self-standing nodes located in a first area of the apparel item, the first set of self-standing nodes projecting outward from the fabric material a first distance from the base contact level, at least a portion of the first set of self-standing nodes having a plurality of apertures ; a second set of self-standing nodes located in a second area of the apparel item, the second set of self-standing nodes projecting outward from the fabric material a second distance from the base contact level, at least a portion of the second set of self-standing nodes having a plurality of apertures ; and a third set of self-standing nodes located in a third area of the apparel item, the third set of self-standing nodes projecting inward from the fabric material a third distance from the base contact level. at least a front portion and a back portion that together help to form the apparel item, wherein the front portion and the back portion are formed from a fabric material having a base contact level; a first set of self-standing nodes located in a first area of the apparel item, the first set of self-standing nodes projecting outward from the fabric material a first distance from the base contact level, at least a portion of the first set of self-standing nodes having a plurality of apertures ; a second set of self-standing nodes located in a second area of the apparel item, the second set of self-standing nodes projecting outward from the fabric material a second distance from the base contact level, at least a portion of the second set of self-standing nodes having a plurality of apertures ; and a third set of self-standing nodes located in a third area of the apparel item, the third set of self-standing nodes projecting inward from the fabric material a third distance from the base contact level.