mhurhangee/patent-ind-claim-en huggingface dataset:
A method for determining user inputs in a virtual or augmented reality system , comprising: capturing one or more images corresponding to a field of view of a user through a virtual or augmented reality system , the one or more images comprising at least one image of a totem , wherein the totem comprises a physical object; analyzing the one or more images to detect a movement of at least a part of the user in relation to the totem ; determining a user input based at least in part on the movement of the user in relation to the totem ; characterised in that the method further comprises the steps of: identifying multiple faces of the totem ; rendering multiple virtual interface elements on the multiple faces of the totem in response to a user rotation of the totem , wherein different faces of the totem correspond to different virtual interface elements and different software functions; selecting an application or a function based at least in part on the user input; and rendering a new virtual interface element associated with the application or function based at least in part on the selection of the application or function. capturing one or more images corresponding to a field of view of a user through a virtual or augmented reality system , the one or more images comprising at least one image of a totem , wherein the totem comprises a physical object; analyzing the one or more images to detect a movement of at least a part of the user in relation to the totem ; determining a user input based at least in part on the movement of the user in relation to the totem ; characterised in that the method further comprises the steps of: identifying multiple faces of the totem ; rendering multiple virtual interface elements on the multiple faces of the totem in response to a user rotation of the totem , wherein different faces of the totem correspond to different virtual interface elements and different software functions; selecting an application or a function based at least in part on the user input; and rendering a new virtual interface element associated with the application or function based at least in part on the selection of the application or function. identifying multiple faces of the totem ; rendering multiple virtual interface elements on the multiple faces of the totem in response to a user rotation of the totem , wherein different faces of the totem correspond to different virtual interface elements and different software functions; selecting an application or a function based at least in part on the user input; and rendering a new virtual interface element associated with the application or function based at least in part on the selection of the application or function.
A nitrogen-containing compound, having a structure shown in Formula I: wherein, L is selected from a single bond, a substituted or unsubstituted arylene group having 6-20 carbon atoms; Ar 1 and Ar 2 are the same or different, and are each independently selected from the following substituted or unsubstituted groups: an aryl group having 6 to 20 carbon atoms, and a heteroaryl group having 1 to 20 carbon atoms; the substituents of An, Ar 2 and L are the same or different, and are each independently selected from the group consisting of deuterium, nitro, hydroxy, an alkyl, a cycloalkyl, an alkenyl, an alkynyl, a heterocycloalkyl, an alkoxy, an alkylamino, an arylamino, an alkylthio, and an arylsilyl. wherein, L is selected from a single bond, a substituted or unsubstituted arylene group having 6-20 carbon atoms; Ar 1 and Ar 2 are the same or different, and are each independently selected from the following substituted or unsubstituted groups: an aryl group having 6 to 20 carbon atoms, and a heteroaryl group having 1 to 20 carbon atoms; the substituents of An, Ar 2 and L are the same or different, and are each independently selected from the group consisting of deuterium, nitro, hydroxy, an alkyl, a cycloalkyl, an alkenyl, an alkynyl, a heterocycloalkyl, an alkoxy, an alkylamino, an arylamino, an alkylthio, and an arylsilyl.
A wireless communication method executed by a user equipment, UE, of a communication system, for determining a size of transport block, TBS, when performing communication between the UE and a base station, the method comprising: determining (S610) a downlink control information, DCI, format; determining (S620), based on the DCI format, a quantity of resource elements, REs, in one resource block, occupied by a demodulation reference signal, DMRS; wherein when the DCI format is DCI format 0_0 or DCI format 1_0, the configuration type of the DMRS is DMRS configuration type 1, the quantity of symbols occupied by the DMRS is 1, and the quantity of symbols occupied by the transport block is greater than or equal to 7, the quantity of REs occupied by the DMRS is 12, 24, or 36; or when the DCI format is DCI format 0_0 or DCI format 1_0, the configuration type of the DMRS is DMRS configuration type 1, the quantity of symbols occupied by the DMRS is 1, and the quantity of symbols occupied by the transport block is less than 7, the quantity of REs occupied by the DMRS is 6, 12, or 24; and determining the TBS based on the quantity of REs occupied by the DMRS. determining (S610) a downlink control information, DCI, format; determining (S620), based on the DCI format, a quantity of resource elements, REs, in one resource block, occupied by a demodulation reference signal, DMRS; wherein when the DCI format is DCI format 0_0 or DCI format 1_0, the configuration type of the DMRS is DMRS configuration type 1, the quantity of symbols occupied by the DMRS is 1, and the quantity of symbols occupied by the transport block is greater than or equal to 7, the quantity of REs occupied by the DMRS is 12, 24, or 36; or when the DCI format is DCI format 0_0 or DCI format 1_0, the configuration type of the DMRS is DMRS configuration type 1, the quantity of symbols occupied by the DMRS is 1, and the quantity of symbols occupied by the transport block is less than 7, the quantity of REs occupied by the DMRS is 6, 12, or 24; and determining the TBS based on the quantity of REs occupied by the DMRS.
A hydroponics device comprising: a nutrient solution storage in which a nutrient solution (LQ1) is stored; a nutrient solution reservoir container into which the nutrient solution (LQ1) is supplied from the nutrient solution storage; and a cover that supports a plurality of plants (28 P1 , 28 P2 , 28 P3 , 28 P4 , 28 P5 ) to be cultivated, the cover being fixedly spaced from a liquid surface of the nutrient solution (LQ1) in the nutrient solution reservoir container , with a predetermined distance being ensured between the cover and the liquid surface, characterised in that : the plants supported by the cover respectively have taproots which are longer than the lengths of shoots of the plants, the taproots having respective tips , which respectively include rootcaps and apical meristems, wherein only the tips are immersed in the nutrient solution (LQ1) in the nutrient solution reservoir container ; the device includes an air layer that is formed between the cover and the liquid surface of the nutrient solution (LQ1) in the nutrient solution reservoir container so as to surround the taproots except for the tips of the taproots , and wherein the air layer has a predetermined height (HA). a nutrient solution storage in which a nutrient solution (LQ1) is stored; a nutrient solution reservoir container into which the nutrient solution (LQ1) is supplied from the nutrient solution storage; and a cover that supports a plurality of plants (28 P1 , 28 P2 , 28 P3 , 28 P4 , 28 P5 ) to be cultivated, the cover being fixedly spaced from a liquid surface of the nutrient solution (LQ1) in the nutrient solution reservoir container , with a predetermined distance being ensured between the cover and the liquid surface, characterised in that : the plants supported by the cover respectively have taproots which are longer than the lengths of shoots of the plants, the taproots having respective tips , which respectively include rootcaps and apical meristems, wherein only the tips are immersed in the nutrient solution (LQ1) in the nutrient solution reservoir container ; the device includes an air layer that is formed between the cover and the liquid surface of the nutrient solution (LQ1) in the nutrient solution reservoir container so as to surround the taproots except for the tips of the taproots , and wherein the air layer has a predetermined height (HA). the plants supported by the cover respectively have taproots which are longer than the lengths of shoots of the plants, the taproots having respective tips , which respectively include rootcaps and apical meristems, wherein only the tips are immersed in the nutrient solution (LQ1) in the nutrient solution reservoir container ; the device includes an air layer that is formed between the cover and the liquid surface of the nutrient solution (LQ1) in the nutrient solution reservoir container so as to surround the taproots except for the tips of the taproots , and wherein the air layer has a predetermined height (HA).
A garment comprising a grip coating located on inner and outer surfaces of a garment section so as to generate in use friction between a wearer's skin and the garment and friction between the garment and an external contact surface, the grip coating including a first array of grip elements located on the inner surface of the garment section and a second array of grip elements located on the outer surface of the garment section, the garment being characterised in that the first and second arrays are arranged relative to each other so that: the grip elements of the first and second arrays are offset relative to each other and do not overlie or overlap each other; and the grip elements of each of the arrays are interposed between grip elements of the other of the arrays. the grip elements of the first and second arrays are offset relative to each other and do not overlie or overlap each other; and the grip elements of each of the arrays are interposed between grip elements of the other of the arrays.
A replacement iduronate-2-sulfatase (I2S) protein for use in treating Hunter syndrome, wherein said protein has an amino acid sequence at least 90% homologous to SEQ ID NO:1, and a therapeutically effective dose of said protein in a range from 0.5 mg/kg to 20 mg/kg body weight in a volume of less than 5 ml is administered subcutaneously to a subject suffering from or susceptible to Hunter syndrome periodically at an administration interval such that at least one symptom or feature of Hunter syndrome is reduced in intensity, severity, or frequency, or has delayed onset.
A wind protection device for a building , having a lateral face element positioned at a distance from an inner building wall creating at least one riser shaft for air, the lateral face element being closed at lateral sides , wherein the wind protection device further comprises at least one lower air entry element connected to at least one riser shaft and at least one upper virtual ledge (140, 140', 240, 440; 620") connected to at least one riser shaft comprising an outlet opening directing the air flow from the connected riser shaft(s) to the area in front and above the respective upper virtual ledge (140, 140', 240, 440; 620"), and wherein the lateral face element comprises at least one sequence of side air entries (251, 351, 651, 651', 651", 751) connected with at least one riser shaft , characterized in that behind each sequence of side air entries (251, 351, 651, 651', 651", 751) a riser shaft separation wall (331, 631', 631", 631′′′, 731) is provided being attached below said sequence and having a free end at the uppermost air entry (251, 351, 651, 651', 651", 751) of the respective sequence . wherein the wind protection device further comprises at least one lower air entry element connected to at least one riser shaft and at least one upper virtual ledge (140, 140', 240, 440; 620") connected to at least one riser shaft comprising an outlet opening directing the air flow from the connected riser shaft(s) to the area in front and above the respective upper virtual ledge (140, 140', 240, 440; 620"), and wherein the lateral face element comprises at least one sequence of side air entries (251, 351, 651, 651', 651", 751) connected with at least one riser shaft , characterized in that behind each sequence of side air entries (251, 351, 651, 651', 651", 751) a riser shaft separation wall (331, 631', 631", 631′′′, 731) is provided being attached below said sequence and having a free end at the uppermost air entry (251, 351, 651, 651', 651", 751) of the respective sequence .
Door component with a damper device comprising two connecting units movable relative to one another for damping the movement of a door of a vehicle , the damper device comprising a magnetorheological fluid as the working fluid and comprising a cylinder unit with a first chamber and a second chamber , wherein the two chambers are separated from one another by a piston unit equipped with a damping valve , and wherein the piston unit can be transferred at least from a first position to at least one second position , wherein the damper device comprises a connector configured for coupling with a driving device , and that movement of the piston unit relative to the cylinder unit can be actively assisted by means of the coupling driving device at least from a first position to a second position , characterized in that the driving device can assist the movement of the piston unit so that, independently of the orientation of the vehicle, the same operating force is required for moving the piston unit .
A gas turbine engine component comprising: an airfoil including first and second structural airfoil segments that are bonded to each other in at least one diffusion joint , the first and second structural airfoil segments being formed of, respectively, first and second materials, wherein the first and second materials are: different base-metal metallic alloys, a metallic alloy and a ceramic-based material, or ceramic-based materials that differ by at least one of composition and microstructure, characterized in that the at least one diffusion joint is at a leading edge of the airfoil and includes a slot there through, the at least one diffusion joint at the leading edge coinciding in location with a stagnation point of the leading edge. different base-metal metallic alloys, a metallic alloy and a ceramic-based material, or ceramic-based materials that differ by at least one of composition and microstructure, characterized in that the at least one diffusion joint is at a leading edge of the airfoil and includes a slot there through, the at least one diffusion joint at the leading edge coinciding in location with a stagnation point of the leading edge.
A computer-implemented method, carried out by a vehicle data recording device in a vehicle , including the following steps: downloading (S3), from a host data collecting system , a recording target (T 0 ) for recording data along a route, at a current time t 0 , determining (S4) a plurality of routes (Ri) that the vehicle can take; for each route (Ri), generating a route encoding (ENCi) that encodes in numerical values an information on predicted values of said route (Ri) for a plurality of metrics ( v ck ), a metric ( v ck ) being a function assigning a value representing an amount of progress in achieving an elementary recording target to a piece of data; providing the route encodings (ENCi') and additional environmental information that is independent of the routes Ri to a reinforcement learning agent that selects one of the routes (Ri) in order to optimize a reward; recording data (S12) from data sources in the vehicle over time while the vehicle drives along the selected route (Rs); uploading (S13) at least part of the recording data to the host data collecting system and, in return, receiving a reward from the host data collecting system ; providing (S16) the reward to the reinforcement learning agent . downloading (S3), from a host data collecting system , a recording target (T 0 ) for recording data along a route, at a current time t 0 , determining (S4) a plurality of routes (Ri) that the vehicle can take; for each route (Ri), generating a route encoding (ENCi) that encodes in numerical values an information on predicted values of said route (Ri) for a plurality of metrics ( v ck ), a metric ( v ck ) being a function assigning a value representing an amount of progress in achieving an elementary recording target to a piece of data; providing the route encodings (ENCi') and additional environmental information that is independent of the routes Ri to a reinforcement learning agent that selects one of the routes (Ri) in order to optimize a reward; recording data (S12) from data sources in the vehicle over time while the vehicle drives along the selected route (Rs); uploading (S13) at least part of the recording data to the host data collecting system and, in return, receiving a reward from the host data collecting system ; providing (S16) the reward to the reinforcement learning agent .
An anchoring device for anchoring a floating object to an anchor structure comprising: - a first attachment suitable for being secured to said floating object; - a second attachment suitable for being secured to said anchor structure; - a damping member for damping the relative motion between said attachments and suitable for securing said first attachment to said second attachment and comprising ∘ a slide chamber , ∘ a piston suitable for sliding in said slide chamber according to a relative motion between said attachments and ∘ at least one damper suitable for damping the sliding of said piston in said slide chamber ; and - a control unit for said anchoring device comprising ∘ a measurement sensor for measuring at least one of speed and acceleration of said piston ; and ∘ a control board suitable for varying the damping of said damper according to said sliding of said piston detected by said measurement sensor ; characterised in that - said damper is an electric motor used to produce energy by exploiting the sliding of the piston and suitable for dissipating energy by opposing a reciprocal rotation between stator and rotor; and - said control board varies the damping of said damper by changing the magnetic parameters of the poles at the stator and/or rotor so as to vary the opposition to the rotation of the rotor. - a first attachment suitable for being secured to said floating object; - a second attachment suitable for being secured to said anchor structure; - a damping member for damping the relative motion between said attachments and suitable for securing said first attachment to said second attachment and comprising ∘ a slide chamber , ∘ a piston suitable for sliding in said slide chamber according to a relative motion between said attachments and ∘ at least one damper suitable for damping the sliding of said piston in said slide chamber ; and ∘ a slide chamber , ∘ a piston suitable for sliding in said slide chamber according to a relative motion between said attachments and ∘ at least one damper suitable for damping the sliding of said piston in said slide chamber ; and - a control unit for said anchoring device comprising ∘ a measurement sensor for measuring at least one of speed and acceleration of said piston ; and ∘ a control board suitable for varying the damping of said damper according to said sliding of said piston detected by said measurement sensor ; ∘ a measurement sensor for measuring at least one of speed and acceleration of said piston ; and ∘ a control board suitable for varying the damping of said damper according to said sliding of said piston detected by said measurement sensor ; - said damper is an electric motor used to produce energy by exploiting the sliding of the piston and suitable for dissipating energy by opposing a reciprocal rotation between stator and rotor; and - said control board varies the damping of said damper by changing the magnetic parameters of the poles at the stator and/or rotor so as to vary the opposition to the rotation of the rotor.
Self-climbing system for a concrete structural body , having a climbing rail and having a climbing unit which is axially movable along the climbing rail and which has a first climbing head , a second climbing head , and a linear drive connecting the first climbing head to the second climbing head , wherein the first climbing head and the second climbing head each have an actuating element which is adjustable between a climbing position (K) and a latching position (R), in particular of the climbing unit , characterized in that the actuating element of the first climbing head and the actuating element of the second climbing head are connected by a control rod , and that the control rod is designed, in predetermined positions of the linear drive , to apply a torque (D) to at least one of the actuating elements .
A washing and/or drying machine comprising: a main body portion ; a drum for receiving one or more items to be washed and/or dried, the drum arranged for rotation within the main body portion; a controller in communication with a sensor , the sensor constructed and arranged to sense position information of the drum and to provide the position information to the controller ; and an actuator constructed and arranged to cause movement of the drum ; and wherein in response to determining movement of the drum from a reference position of the drum , the controller configured to send a control signal to the actuator so as to cause the actuator to cause the drum to move towards the reference position of the drum , the reference position comprising an axis which coincides with a central rotational axis of the drum when the drum is at rest; and the movement of the drum from a reference position of the drum being in a direction perpendicular to the central rotational axis of the drum ; and characterized in that the actuator comprises an electromagnetic coil , the electromagnetic coil surrounding an actuator element , and wherein the electromagnetic coil comprises a first resilient coil, and the actuator element comprises a second resilient coil. a main body portion ; a drum for receiving one or more items to be washed and/or dried, the drum arranged for rotation within the main body portion; a controller in communication with a sensor , the sensor constructed and arranged to sense position information of the drum and to provide the position information to the controller ; and an actuator constructed and arranged to cause movement of the drum ; and wherein in response to determining movement of the drum from a reference position of the drum , the controller configured to send a control signal to the actuator so as to cause the actuator to cause the drum to move towards the reference position of the drum , the reference position comprising an axis which coincides with a central rotational axis of the drum when the drum is at rest; and the movement of the drum from a reference position of the drum being in a direction perpendicular to the central rotational axis of the drum ; and characterized in that the actuator comprises an electromagnetic coil , the electromagnetic coil surrounding an actuator element , and wherein the electromagnetic coil comprises a first resilient coil, and the actuator element comprises a second resilient coil.