mhurhangee/patent-ind-claim-en huggingface dataset:
Method for regulating connectivity for a plurality of connected objects, said connected objects belonging to sub-networks connected to a main network via connection gateways (GW1, GW2, GW3), said method being implemented by a fluidification module , said method comprising: - a step of collecting connection data from the plurality of connected objects (IoT1, IoT3); - a step of analyzing the collected connection data so as to identify a plurality of availability time periods, each of the availability time periods corresponding to a time interval during which one or more connected objects will be able to access the main network; - a step of receiving at least one connection request message (Q1) from an object (IoT1, IoT2, IoT3) connected to the main network, said connection request message comprising characteristics data of the required connection; and - a step of regulating connection of the plurality of objects connected to the main network according to the availability time periods and the characteristics data of the required connection. - a step of collecting connection data from the plurality of connected objects (IoT1, IoT3); - a step of analyzing the collected connection data so as to identify a plurality of availability time periods, each of the availability time periods corresponding to a time interval during which one or more connected objects will be able to access the main network; - a step of receiving at least one connection request message (Q1) from an object (IoT1, IoT2, IoT3) connected to the main network, said connection request message comprising characteristics data of the required connection; and - a step of regulating connection of the plurality of objects connected to the main network according to the availability time periods and the characteristics data of the required connection.
A method for wireless communication, comprising: transmitting , to a base station, a random access message using a first set of resources; receiving , in response to the random access message, one or more downlink beam reference signals scrambled with respective downlink scrambling sequences of a set of downlink scrambling sequences, the set of downlink scrambling sequences selected from a plurality of sets of downlink scrambling sequences based at least in part on the first set of resources; transmitting channel feedback information based at least in part on measurements of the one or more downlink beam reference signals; identifying a set of uplink scrambling sequences for one or more uplink beam reference signals from a plurality of sets of uplink scrambling sequences; and transmitting the one or more uplink beam reference signals scrambled with respective ones of the set of uplink scrambling sequences. transmitting , to a base station, a random access message using a first set of resources; receiving , in response to the random access message, one or more downlink beam reference signals scrambled with respective downlink scrambling sequences of a set of downlink scrambling sequences, the set of downlink scrambling sequences selected from a plurality of sets of downlink scrambling sequences based at least in part on the first set of resources; transmitting channel feedback information based at least in part on measurements of the one or more downlink beam reference signals; identifying a set of uplink scrambling sequences for one or more uplink beam reference signals from a plurality of sets of uplink scrambling sequences; and transmitting the one or more uplink beam reference signals scrambled with respective ones of the set of uplink scrambling sequences.
An aqueous dispersion of polymeric particles prepared through emulsion polymerization using monomers comprising: i) 0.1 to 20% by weight of at least one ethylenically unsaturated monomer containing an anchor functionality and a moiety containing poly(oxyethylene), wherein the anchor functionality is selected from the group consisting of phosphoric acid, phosphate, ammonium salts, amine, and hydroxyl groups; ii) 0 to 20% by weight of at least one ethylenically unsaturated monomer with a carboxylic acid functionality; and iii) 60 to 99.9% by weight of at least one ethylenically unsaturated monomer other than monomers i) and ii), wherein the weight% is relative to the total weight of the monomers i), ii) and iii); and wherein the polymeric particles have a glass transition temperature of at least 50°C. i) 0.1 to 20% by weight of at least one ethylenically unsaturated monomer containing an anchor functionality and a moiety containing poly(oxyethylene), wherein the anchor functionality is selected from the group consisting of phosphoric acid, phosphate, ammonium salts, amine, and hydroxyl groups; ii) 0 to 20% by weight of at least one ethylenically unsaturated monomer with a carboxylic acid functionality; and iii) 60 to 99.9% by weight of at least one ethylenically unsaturated monomer other than monomers i) and ii),
A light emitting device having an anode, a cathode, a first organic layer disposed between the anode and the cathode and a second organic layer disposed between the anode and the cathode, wherein, said first organic layer is a layer containing a compound (T) in which the absolute value of the difference between the energy level at the lowest triplet excited state and the energy level at the lowest singlet excited state is 0.5 eV or less and not containing a phosphorescent metal complex, said second organic layer is a layer containing a crosslinked body of a polymer compound containing a crosslink constitutional unit; said first organic layer and said second organic layer are adjacent; characterized in that the energy level at the lowest triplet excited state of the polymer compound is 2.25 eV or more when determined by dissolving the polymer compound in xylene at a concentration of 3.0% by mass, using the resultant xylene solution to form a film on a glass substrate by a drop cast method, vacuum-drying at room temperature to form a film of the polymer compound, and measuring the phosphorescent emission spectrum of the film of the polymer compound at 77 K. said first organic layer is a layer containing a compound (T) in which the absolute value of the difference between the energy level at the lowest triplet excited state and the energy level at the lowest singlet excited state is 0.5 eV or less and not containing a phosphorescent metal complex, said second organic layer is a layer containing a crosslinked body of a polymer compound containing a crosslink constitutional unit; said first organic layer and said second organic layer are adjacent; characterized in that the energy level at the lowest triplet excited state of the polymer compound is 2.25 eV or more when determined by dissolving the polymer compound in xylene at a concentration of 3.0% by mass, using the resultant xylene solution to form a film on a glass substrate by a drop cast method, vacuum-drying at room temperature to form a film of the polymer compound, and measuring the phosphorescent emission spectrum of the film of the polymer compound at 77 K.
A control apparatus for controlling a robot , the robot including a movable unit (A) and a force detection unit detecting a force applied to the movable unit (A), the control apparatus comprising: a control unit for executing control of the robot ; and a receiving unit for receiving an object coordinate system (WC) set for an object (WK) from a user, wherein the control unit is configured to perform a first control mode (M01) identified as direct teaching in which the movable unit (A) is moved and rotated according to the detected force while the force is detected by the force detection unit , characterized in that the control unit is further configured to perform, when a predetermined condition is fulfilled, a second control mode (M02) identified as automatic alignment in which, when a relative angle between a predetermined first axis of a moving coordinate system (HC) set for the movable unit (A) and a predetermined second axis of the object coordinate system (WC) is smaller than an angle threshold value (Ath), the movable unit (A) is rotated to make a magnitude of the relative angle closer to zero, and wherein the predetermined condition is either an origin (oh) of the moving coordinate system (HC), wherein a tool center point (TCP) is in a position within a distance threshold value (Lthm) from an origin (om) of an apparatus coordinate system (MC), or is the origin (oh) of the moving coordinate system (HC), wherein the tool center point (TCP) is in a position within a distance threshold value (Lthw) from an origin (ow) of the work coordinate system WC. a control unit for executing control of the robot ; and a receiving unit for receiving an object coordinate system (WC) set for an object (WK) from a user, wherein the control unit is configured to perform a first control mode (M01) identified as direct teaching in which the movable unit (A) is moved and rotated according to the detected force while the force is detected by the force detection unit , characterized in that the control unit is further configured to perform, when a predetermined condition is fulfilled, a second control mode (M02) identified as automatic alignment in which, when a relative angle between a predetermined first axis of a moving coordinate system (HC) set for the movable unit (A) and a predetermined second axis of the object coordinate system (WC) is smaller than an angle threshold value (Ath), the movable unit (A) is rotated to make a magnitude of the relative angle closer to zero, and wherein the predetermined condition is either an origin (oh) of the moving coordinate system (HC), wherein a tool center point (TCP) is in a position within a distance threshold value (Lthm) from an origin (om) of an apparatus coordinate system (MC), or is the origin (oh) of the moving coordinate system (HC), wherein the tool center point (TCP) is in a position within a distance threshold value (Lthw) from an origin (ow) of the work coordinate system WC.
A layer system for use in an acoustic module, comprising: (a) a fleece material, and (b) a felt layer of wool felt which is applied at least partially on the fleece material and connected therewith in an edge region, wherein connecting is performed by welding such that the layer system comprises three-dimensionally rounded material edges. (a) a fleece material, and (b) a felt layer of wool felt which is applied at least partially on the fleece material and connected therewith in an edge region, wherein connecting is performed by welding such that the layer system comprises three-dimensionally rounded material edges.
Method for predicting a failure (F) of at least one sensor , especially, for measuring at least one parameter (P) of a mobile unit , characterised in that the method comprises at least the following steps: - providing as input data (D) for a machine learning system discrete conditional information (I) of the at least one sensor at several time points (t1, t2), wherein the at least one sensor is a sensor selected out of the group consisting of: a radar sensor and a laser measurement device; wherein the discrete conditional information (I) refers to a signal strength (S) of the at least one sensor , wherein these time points (t1, t2) are such time points at which the discrete conditional information (I) of the at least one sensor has changed and - evaluating the input data (D) by using the machine learning system and thus predicting the failure (F) of the at least one sensor by using the machine learning system . - providing as input data (D) for a machine learning system discrete conditional information (I) of the at least one sensor at several time points (t1, t2), wherein the at least one sensor is a sensor selected out of the group consisting of: a radar sensor and a laser measurement device; wherein the discrete conditional information (I) refers to a signal strength (S) of the at least one sensor , wherein these time points (t1, t2) are such time points at which the discrete conditional information (I) of the at least one sensor has changed and - evaluating the input data (D) by using the machine learning system and thus predicting the failure (F) of the at least one sensor by using the machine learning system .
A method performed by a wireless device for receiving positioning assistance data from a network node , wherein the wireless device and the network node operate in a wireless communications network , and wherein the method comprises: - receiving , from the network node , scheduling information comprising information about radio resources that are to provide scheduling information of a positioning System Information Broadcast, SIB, which received scheduling information is different from scheduling information of non-positioning SIB; - using the radio resources for receiving , from the network node , scheduling information of the positioning SIB; and - receiving , from the network node and in accordance with the received scheduling information of the positioning SIB, one or more positioning SIBs comprising positioning assistance data; - determining whether or not the positioning assistance data of the received one or more positioning SIBs is same in a second cell as in a first cell, wherein the positioning assistance data of the one or more positioning SIBs are associated with a respective indication, which indicates a categorization of the positioning assistance data in dependence of its change rate, and wherein the determining of whether or not the positioning assistance data of the received one or more positioning SIBs is same comprises determining the positioning assistance data to be same when being associated with same respective indication. - receiving , from the network node , scheduling information comprising information about radio resources that are to provide scheduling information of a positioning System Information Broadcast, SIB, which received scheduling information is different from scheduling information of non-positioning SIB; - using the radio resources for receiving , from the network node , scheduling information of the positioning SIB; and - receiving , from the network node and in accordance with the received scheduling information of the positioning SIB, one or more positioning SIBs comprising positioning assistance data; - determining whether or not the positioning assistance data of the received one or more positioning SIBs is same in a second cell as in a first cell, wherein the positioning assistance data of the one or more positioning SIBs are associated with a respective indication, which indicates a categorization of the positioning assistance data in dependence of its change rate, and wherein the determining of whether or not the positioning assistance data of the received one or more positioning SIBs is same comprises determining the positioning assistance data to be same when being associated with same respective indication.
An aircraft comprising: ductwork including: a fresh air intake disposed to draw air from offboard the aircraft , a cabin recirculation vent disposed to draw air from an aircraft cabin , a riser defining a return conduit disposed to convey air from the cabin recirculation vent and join the fresh air intake , and an overhead outlet vent connected to the riser and disposed to expel air into the cabin , the overhead outlet vent being connected to the riser downstream of where the riser joins the fresh air intake , characterized by a thermoelectric heat pump having a first side and a second side , the first side in thermal contact with the return conduit that transfers heat to the second side upon application of an electrical input; and an exhaust defining an exhaust conduit joined with the ductwork and disposed to expel air from the aircraft cabin offboard the aircraft , and the second side is in thermal contact with the exhaust conduit and transfers heat to the exhaust conduit . a fresh air intake disposed to draw air from offboard the aircraft , a cabin recirculation vent disposed to draw air from an aircraft cabin , a riser defining a return conduit disposed to convey air from the cabin recirculation vent and join the fresh air intake , and an overhead outlet vent connected to the riser and disposed to expel air into the cabin , the overhead outlet vent being connected to the riser downstream of where the riser joins the fresh air intake , characterized by a thermoelectric heat pump having a first side and a second side , the first side in thermal contact with the return conduit that transfers heat to the second side upon application of an electrical input; and an exhaust defining an exhaust conduit joined with the ductwork and disposed to expel air from the aircraft cabin offboard the aircraft , and the second side is in thermal contact with the exhaust conduit and transfers heat to the exhaust conduit .
A lighting system, comprising: microarray lens ; light source at the light incoming side of the microarray lens and anti-dazzle light cover above the front end of the light outgoing side ; wherein the microarray lens is an asymmetric Fresnel lens, wherein the surface of the light outgoing side of the microarray lens is provided with several strips with different structures distributed up and down crosswise, characterized in that at least one of the strips is formed from top to bottom with a positive curvature towards the lower end of the microarray lens , and at least one other of the strips is formed towards the upper end of the microarray lens with positive curvature, and at least yet another one of the strips is formed towards the lower end of the microarray lens with negative curvature. microarray lens ; light source at the light incoming side of the microarray lens and anti-dazzle light cover above the front end of the light outgoing side ; wherein the microarray lens is an asymmetric Fresnel lens, wherein the surface of the light outgoing side of the microarray lens is provided with several strips with different structures distributed up and down crosswise, characterized in that at least one of the strips is formed from top to bottom with a positive curvature towards the lower end of the microarray lens , and at least one other of the strips is formed towards the upper end of the microarray lens with positive curvature, and at least yet another one of the strips is formed towards the lower end of the microarray lens with negative curvature.
A hydrostatic seal assembly , comprising: a primary seal configured to maintain a selected gap between the primary seal and a rotating component , the primary seal including: a seal support ; a seal shoe ; and one or more seal beams operably connecting the seal support to the seal shoe , the one or more seal beams configured as spring elements integral with the seal shoe to allow radial movement of the seal shoe relative to the seal support ; and a seal carrier including a radial outer wall configured to radially position the primary seal , the seal carrier configured for a non-contact relationship with the seal shoe during operation of the hydrostatic seal assembly ; and an aft wall extending radially inwardly from the radial outer wall ; characterized in that the aft wall entirely radially overlaps the seal support, and does not radially overlap the one or more seal beams. a seal support ; a seal shoe ; and one or more seal beams operably connecting the seal support to the seal shoe , the one or more seal beams configured as spring elements integral with the seal shoe to allow radial movement of the seal shoe relative to the seal support ; and a seal carrier including a radial outer wall configured to radially position the primary seal , the seal carrier configured for a non-contact relationship with the seal shoe during operation of the hydrostatic seal assembly ; and an aft wall extending radially inwardly from the radial outer wall ; characterized in that the aft wall entirely radially overlaps the seal support, and does not radially overlap the one or more seal beams.
Autonomous apparatus for cooking food comprising a support body with a fixed container , said support body being associated with a lid of the openable type, wherein the apparatus further comprises a second container contained in said first fixed container , wherein said second container is at least partly replaceable and selectively interchangeable between at least a second container of a first type at least partly replaceable, open at the top and with a closed bottom , and a second container of a second type at least partly replaceable, open at the top and with an at least partly holed bottom , the apparatus further comprising at least a heating resistance located above said at least partly replaceable second container and associated in a substantially and at least partly coplanar manner, with a rotor body comprising a rotor , said rotor body being configured to at least send a stream of air directly toward the bottom of the at least partly replaceable second container , wherein said rotor body is also configured to at least partly recover a stream of recovery air between one edge of said at least partly replaceable second container and the external lateral periphery of said rotor body , said edge and said external lateral periphery together defining between them a recovery channel for said stream of recovery air , wherein said external lateral periphery of said rotor body is smaller than said edge of said second container , wherein said rotor body has a lower exit aperture directly facing the upper aperture of said at least partly replaceable second container and a plurality of recovery mouths to recover the stream of recovery air cooperating with around the axis of said rotor , characterized in that said rotor body comprises a dividing wall defining an upper chamber to recover the air and a lower chamber , wherein said upper chamber has said plurality of recovery mouths and is configured to receive said stream of recovery air entering through said plurality of recovery mouths and said lower chamber is configured to house at least said rotor and said heating resistance .