mhurhangee/patent-ind-claim-en huggingface dataset:
A spoiler system for a land vehicle on wheels, said spoiler system comprising a wall and a connection apparatus , the latter being configured to move said wall from a first position facing a wall of said vehicle to a second position having a pre-set inclination with respect to said wall of said vehicle, said connection apparatus comprising a plurality of first brackets connected to said wall and a plurality of second brackets connectable to said wall of said vehicle, each of said first brackets being hinged by a hinge to respective said second brackets , said connection apparatus comprising selective locking means carried by at least one of said first and second plurality of brackets , said selective locking means cooperating in contact with the hinge so as to lock the relative rotation between said first and second plurality of brackets in at least two pre-set angular positions ( α 1 , α 2 ) characterized in allowing the relative rotation between said first and second plurality of brackets within said at least two angular positions ( α 1 , α 2 ) when a force having a pre-set value is applied to said wall . said connection apparatus comprising a plurality of first brackets connected to said wall and a plurality of second brackets connectable to said wall of said vehicle, each of said first brackets being hinged by a hinge to respective said second brackets , said connection apparatus comprising selective locking means carried by at least one of said first and second plurality of brackets , said selective locking means cooperating in contact with the hinge so as to lock the relative rotation between said first and second plurality of brackets in at least two pre-set angular positions ( α 1 , α 2 ) characterized in allowing the relative rotation between said first and second plurality of brackets within said at least two angular positions ( α 1 , α 2 ) when a force having a pre-set value is applied to said wall .
A polymer film (P) comprising at least one polyamide composition (PZ) which comprises the following components: (A) 2 to 30% by weight of at least one amorphous polyamide produced by polymerization of the following components: (A1) at least one dicarboxylic acid and (A2) at least one diamine; and (B) 70 to 98% by weight of at least one semicrystalline polyamide; where component (A1) comprises isophthalic acid and component (A2) comprises 2-methyl-1,5-diaminopentane, and where the percentages by weight are in each case based on the sum of the percentages by weight of components (A) and (B). (A) 2 to 30% by weight of at least one amorphous polyamide produced by polymerization of the following components: (A1) at least one dicarboxylic acid and (A2) at least one diamine; and (A1) at least one dicarboxylic acid and (A2) at least one diamine; and (B) 70 to 98% by weight of at least one semicrystalline polyamide; where component (A1) comprises isophthalic acid and component (A2) comprises 2-methyl-1,5-diaminopentane, and where the percentages by weight are in each case based on the sum of the percentages by weight of components (A) and (B).
A method of wireless communication performed by a wireless communication device , comprising: requesting, from a user equipment, UE , with which the wireless communication device is to communicate, tracking information indicating a location of the UE ; receiving, from the UE, the tracking information; determining (620; 710; 820; 1010) a location of an object relative to the wireless communication device, wherein the location is determined based at least in part on a result of processing one or more images (615; 705; 815; 905) that include the object; determining an association between the object and the UE based at least in part on the location of the object and the tracking information; configuring (635; 715; 825; 1020) at least one of a beam or a beam scan characteristic used to identify the beam to be used by the wireless communication device based at least in part on the location of the object relative to the wireless communication device ; and communicating (720; 1030) with the UE using the beam. requesting, from a user equipment, UE , with which the wireless communication device is to communicate, tracking information indicating a location of the UE ; receiving, from the UE, the tracking information; determining (620; 710; 820; 1010) a location of an object relative to the wireless communication device, wherein the location is determined based at least in part on a result of processing one or more images (615; 705; 815; 905) that include the object; determining an association between the object and the UE based at least in part on the location of the object and the tracking information; configuring (635; 715; 825; 1020) at least one of a beam or a beam scan characteristic used to identify the beam to be used by the wireless communication device based at least in part on the location of the object relative to the wireless communication device ; and communicating (720; 1030) with the UE using the beam.
Method for determining controllable process parameters (x) for a battery production system , having the following steps: - ascertaining measurement values of production parameters (A, B) in the battery production system by means of sensors , - ascertaining at least one quality value of at least one battery cell produced in the battery production system with the ascertained measurement values, wherein the quality value is associated with the measurement values, - transferring the at least one quality value and the measurement values to a computing unit , - ascertaining the dependency of the at least one quality value on the measurement values in the computing unit , - ascertaining a dependency of the at least one quality value on changed production parameters which differ in value from the measurement values, in the computing unit, wherein a machine learning method is performed in the computing unit , - ascertaining at least one controllable process parameter from the changed production parameters with an improved quality value, wherein the ascertaining takes place on the basis of a parameter optimisation for the machine learning method, wherein a Bayesian optimisation for the ascertained dependency is used as parameter optimisation, wherein measurement values with associated quality values are included in the optimisation as reference points . - ascertaining measurement values of production parameters (A, B) in the battery production system by means of sensors , - ascertaining at least one quality value of at least one battery cell produced in the battery production system with the ascertained measurement values, wherein the quality value is associated with the measurement values, - transferring the at least one quality value and the measurement values to a computing unit , - ascertaining the dependency of the at least one quality value on the measurement values in the computing unit , - ascertaining a dependency of the at least one quality value on changed production parameters which differ in value from the measurement values, in the computing unit, wherein a machine learning method is performed in the computing unit , - ascertaining at least one controllable process parameter from the changed production parameters with an improved quality value, wherein the ascertaining takes place on the basis of a parameter optimisation for the machine learning method, wherein a Bayesian optimisation for the ascertained dependency is used as parameter optimisation, wherein measurement values with associated quality values are included in the optimisation as reference points .
Blade of a turbomachine , the blade comprising a composite material with a matrix and a reinforcement comprising a mesh, the blade having a leading edge and a trailing edge , an intrados surface and an extrados surface extending from the leading edge to the trailing edge, wherein the mesh forms a three-dimensional structure extending over the majority of the thickness of the blade between the intrados surface and the extrados surface ; characterised in that the three-dimensional structure of the reinforcement is a unitary structure with rods connected together with continuity of material by connecting nodes.
An e-vaping device , comprising: a power supply configured to supply electrical power; a cartridge holder including at least first and second connectors (33-1, 33-N) electrically coupled to the power supply ; and at least first and second cartridges (22-1, 22-N) removably coupled to separate, respective connectors (33-1, 33-N) of the first and second connectors such that the first and second cartridges (22-1, 22-N) are removably electrically coupled to the power supply ; the first connector (33-1) being restricted from directly coupling with the second cartridge (22-N), and the second connector (33-N) being restricted from directly coupling with the first cartridge (22-1), wherein the first and second cartridges (22-1, 22-N) include at least one atomizer assembly and at least one vaporizer assembly defining a dispersion generator, wherein the vaporizer assembly is configured to generate a vapor via heating a pre-vapor formulation, wherein the atomizer assembly is configured to generate an aerosol via applying mechanical force to a pre-aerosol formulation, the atomizer assembly including a pressurization arrangement to apply constant pressure to a compressible tank of the atomizer assembly formed of a flexible material, an elastic material or both, the atomizer assembly also comprising a valve at an outlet of the tank and a nozzle through which the pre-aerosol formulation is released when the valve is opened. a power supply configured to supply electrical power; a cartridge holder including at least first and second connectors (33-1, 33-N) electrically coupled to the power supply ; and at least first and second cartridges (22-1, 22-N) removably coupled to separate, respective connectors (33-1, 33-N) of the first and second connectors such that the first and second cartridges (22-1, 22-N) are removably electrically coupled to the power supply ; the first connector (33-1) being restricted from directly coupling with the second cartridge (22-N), and the second connector (33-N) being restricted from directly coupling with the first cartridge (22-1), wherein the first and second cartridges (22-1, 22-N) include at least one atomizer assembly and at least one vaporizer assembly defining a dispersion generator, wherein the vaporizer assembly is configured to generate a vapor via heating a pre-vapor formulation, wherein the atomizer assembly is configured to generate an aerosol via applying mechanical force to a pre-aerosol formulation, the atomizer assembly including a pressurization arrangement to apply constant pressure to a compressible tank of the atomizer assembly formed of a flexible material, an elastic material or both, the atomizer assembly also comprising a valve at an outlet of the tank and a nozzle through which the pre-aerosol formulation is released when the valve is opened.
Device for inspection of a solar panel arrangement, comprising an optical detection device, means for moving the optical detection device with respect to a surface of the solar panel arrangement, and an evaluation unit for analysis of image data of the solar panel arrangement surface grabbed by the optical detection device, wherein the optical detection device is configured to detect alterations including environmental pollutions and defects located within the surface of the solar panel arrangement, wherein the optical detection device comprises a contact image scanner device, characterized in that the distance between the contact image scanner device and the examined surface of the solar panel arrangement ranges between 1.5 cm and 4 cm, and that a scanner enhancement arrangement configured as optical lens is provided in front of said contact image scanner device. an optical detection device, means for moving the optical detection device with respect to a surface of the solar panel arrangement, and an evaluation unit for analysis of image data of the solar panel arrangement surface grabbed by the optical detection device,
An intermediate network for a radiocommunication system comprising: - at least one first ground station (SS_1, SS_2, SS_3) designed to establish a communication link with a core network (RC), - a plurality of ground base stations (SB_1, SB_2, SB_3, SB_4, SB_5, SB_6), - at least one station placed on a high-altitude platform (SHA_1, SHA_2), configured so as to put said at least one first ground station (SS_1, SS_2) into communication with at least one ground base station (SB_1, SB_2, SB_3), - at least one network gateway housed in said at least one station placed on a high-altitude platform (SHA_1, SHA_2), said at least one station placed on a high-altitude platform (SHA_1, SHA_2) comprising a routing organ for establishing at least one route allowing a ground base station to communicate with a first ground station via a station placed on a high-altitude platform, at least one station placed on a high-altitude platform (SHA_1) being designed to establish a communication link with another station placed on a high-altitude platform (SHA_2), said communication link being a free-space optical link. - at least one first ground station (SS_1, SS_2, SS_3) designed to establish a communication link with a core network (RC), - a plurality of ground base stations (SB_1, SB_2, SB_3, SB_4, SB_5, SB_6), - at least one station placed on a high-altitude platform (SHA_1, SHA_2), configured so as to put said at least one first ground station (SS_1, SS_2) into communication with at least one ground base station (SB_1, SB_2, SB_3), - at least one network gateway housed in said at least one station placed on a high-altitude platform (SHA_1, SHA_2),
A mechanical shuffler , comprising: a base ; a receiving rack associated with the base and comprising a plurality of single-card receptacles ; a programmable computer-controlled mechanism comprising a deck-crib and a card mover associated with the deck-crib for placing each card of the deck of cards to be shuffled into a randomly selected one of the plurality of single-card receptacles in the receiving rack , to shuffle the deck of cards; a motor arranged to move the deck-crib relative to the receiving rack , wherein the receiving rack is configured to enable the cards in the plurality of single-card receptacles of the receiving rack to be removed from the plurality of single-card receptacles of the receiving rack as a complete deck or as a predetermined number of cards as a player's or dealer's hand; and a card presentation tray , wherein the shuffler is configured to present the complete deck of cards or the predetermined number of cards on the card presentation tray for removal from the shuffler by moving the card presentation tray relative to the receiving rack . a base ; a receiving rack associated with the base and comprising a plurality of single-card receptacles ; a programmable computer-controlled mechanism comprising a deck-crib and a card mover associated with the deck-crib for placing each card of the deck of cards to be shuffled into a randomly selected one of the plurality of single-card receptacles in the receiving rack , to shuffle the deck of cards; a motor arranged to move the deck-crib relative to the receiving rack , wherein the receiving rack is configured to enable the cards in the plurality of single-card receptacles of the receiving rack to be removed from the plurality of single-card receptacles of the receiving rack as a complete deck or as a predetermined number of cards as a player's or dealer's hand; and a card presentation tray , wherein the shuffler is configured to present the complete deck of cards or the predetermined number of cards on the card presentation tray for removal from the shuffler by moving the card presentation tray relative to the receiving rack .
A phase shifter, wherein the phase shifter comprises a cavity , and a fixed component , a sliding component , a control rod configured to control sliding of the sliding component , and a dielectric portion in the cavity , wherein a first strip group is disposed in the fixed component , wherein the first strip group comprises two strips ; the sliding component is located above the fixed component , and a second strip group is disposed in the sliding component , wherein the second strip group comprises two strips , the two strips of the second strip group are electrically coupled to the two strips of the first strip group respectively, and the second strip group is in a U shape; and each strip of the second strip group comprises a first strip portion(D1) and a second strip portion(D2), a width of the first strip portion(D1) is greater than a width of the second strip portion(D2), the dielectric portion is disposed around the second strip portion(D2), and a difference between an impedance formed by the dielectric portion and the second strip portion(D2) and an impedance of the first strip portion(D1) is within a first range, wherein - the dielectric portion comprises a first dielectric portion and a second dielectric portion , wherein the first dielectric portion is located above the sliding component and is within a moving range of the second strip portion(D2), and the second dielectric portion is located below the sliding component and is within the moving range of the second strip portion(D2); characterized in that , the first and second dielectric portions are arranged such that a movement of the sliding component selectively changes a dielectric constant of an environment in which the second strip portion is located. - the dielectric portion comprises a first dielectric portion and a second dielectric portion ,
Method for producing an individual flat reinforcement of a reinforced concrete component from predominantly prefabricated flat reinforcement elements , comprising at least the following steps: - Reading-in a first reinforcement plan of the future reinforced concrete component based on reinforcing steel bars and comprising a planar basic reinforcement; - Conversion of the two-dimensional basic reinforcement into a modified two-dimensional basic reinforcement , which has reinforcing steel bars that are not limited in length in such a way that there is no overlapping of bars within the two-dimensional basic reinforcement; - Calculation of a plurality of individual planar reinforcement elements from the modified planar basic reinforcement and the further reinforcement elements of the first reinforcement plan, also with modification of the individual reinforcing steel bars with regard to their number, shape, length, diameter, position, steel grade and with specification of a laying sequence to create an individual reinforcement plan; and - Modification of at least one flat reinforcement element compared to the modified flat basic reinforcement with regard to the presence, arrangement, length and diameter of at least one reinforcing steel bar with the addition of sacrificial or additional material . - Reading-in a first reinforcement plan of the future reinforced concrete component based on reinforcing steel bars and comprising a planar basic reinforcement; - Conversion of the two-dimensional basic reinforcement into a modified two-dimensional basic reinforcement , which has reinforcing steel bars that are not limited in length in such a way that there is no overlapping of bars within the two-dimensional basic reinforcement; - Calculation of a plurality of individual planar reinforcement elements from the modified planar basic reinforcement and the further reinforcement elements of the first reinforcement plan, also with modification of the individual reinforcing steel bars with regard to their number, shape, length, diameter, position, steel grade and with specification of a laying sequence to create an individual reinforcement plan; and - Modification of at least one flat reinforcement element compared to the modified flat basic reinforcement with regard to the presence, arrangement, length and diameter of at least one reinforcing steel bar with the addition of sacrificial or additional material .
An apparatus for stimulating neurons, comprising - a non-invasive stimulation unit for the application of mechanically tactile and/or thermal stimuli to the surface of the body of a patient, wherein the stimuli stimulate neurons having a pathologically synchronous and oscillatory neuronal activity; - a measuring unit for recording measured signals which reproduce a neuronal activity of the stimulated neurons; and - a control and analysis unit for controlling the stimulation unit and for analyzing the measured signals , wherein the control and analysis unit is configured such that it - controls the stimulation unit such that it scans at least a part of the surface of the body of the patient along a path and in so doing periodically applies stimuli; - selects at least two regions on the surface of the body of the patient along the path with reference to the measured signals recorded in response to the periodic application of the stimuli, with the phase synchronization between the periodic application of the stimuli and the neuronal activity of the stimulated neurons respectively having a local maximum in said regions; and - controls the stimulation unit such that it applies stimuli in a time-offset manner in the at least two selected regions, the stimuli effecting a phase reset of the neuronal activity of the stimulated neurons. - a non-invasive stimulation unit for the application of mechanically tactile and/or thermal stimuli to the surface of the body of a patient, wherein the stimuli stimulate neurons having a pathologically synchronous and oscillatory neuronal activity; - a measuring unit for recording measured signals which reproduce a neuronal activity of the stimulated neurons; and - a control and analysis unit for controlling the stimulation unit and for analyzing the measured signals , wherein the control and analysis unit is configured such that it - controls the stimulation unit such that it scans at least a part of the surface of the body of the patient along a path and in so doing periodically applies stimuli; - selects at least two regions on the surface of the body of the patient along the path with reference to the measured signals recorded in response to the periodic application of the stimuli, with the phase synchronization between the periodic application of the stimuli and the neuronal activity of the stimulated neurons respectively having a local maximum in said regions; and - controls the stimulation unit such that it applies stimuli in a time-offset manner in the at least two selected regions, the stimuli effecting a phase reset of the neuronal activity of the stimulated neurons.
A method of making one or more composite structures using flakes of graphene, graphene oxide and/or reduced graphene oxide; comprising: obtaining flat graphene, graphene oxide and/or reduced graphene oxide flakes, wherein 95% of the flat graphene, graphene oxide and/or reduced graphene oxide flakes have surface area to thickness ratios of more than 200 Angstroms; thermally functionalizing the flat graphene, graphene oxide and/or reduced graphene oxide flakes; and entraining the flat graphene, graphene oxide and/or reduced graphene oxide flakes in the host material obtaining flat graphene, graphene oxide and/or reduced graphene oxide flakes, wherein 95% of the flat graphene, graphene oxide and/or reduced graphene oxide flakes have surface area to thickness ratios of more than 200 Angstroms; thermally functionalizing the flat graphene, graphene oxide and/or reduced graphene oxide flakes; and entraining the flat graphene, graphene oxide and/or reduced graphene oxide flakes in the host material