mhurhangee/patent-ind-claim-en huggingface dataset:
Device (DISP) for detecting anomalies by acoustic analysis of an aircraft (AERO) turbine engine (TURBO), the device (DISP) is not on board and the device (DISP)comprising: - at least one mobile module (MOD) comprising: ∘ directional acquisition means (MDAC) to acquire acoustic signals from the turbine engine (TURBO); ∘ means (MDTT) of processing said signals, adapted to generate a damage report (RAP_END); ∘ means (MDTM) of transmitting said damage report (RAP_END); - a server (SERV) capable of exchanging data with the at least one module (MOD), said server (SERV) comprising: ∘ means of reception (MDR) of the damage report (RAP_END); ∘ storage means (MDS) adapted to store said damage report (RAP_END), characterised in that , when the aircraft (AERO) is moving, a slaving means (MDAS) adjust the orientation of a sensor (CAP) depending on the position and trajectory of the aircraft (AERO). - at least one mobile module (MOD) comprising: ∘ directional acquisition means (MDAC) to acquire acoustic signals from the turbine engine (TURBO); ∘ means (MDTT) of processing said signals, adapted to generate a damage report (RAP_END); ∘ means (MDTM) of transmitting said damage report (RAP_END); ∘ directional acquisition means (MDAC) to acquire acoustic signals from the turbine engine (TURBO); ∘ means (MDTT) of processing said signals, adapted to generate a damage report (RAP_END); ∘ means (MDTM) of transmitting said damage report (RAP_END); - a server (SERV) capable of exchanging data with the at least one module (MOD), said server (SERV) comprising: ∘ means of reception (MDR) of the damage report (RAP_END); ∘ storage means (MDS) adapted to store said damage report (RAP_END), ∘ means of reception (MDR) of the damage report (RAP_END); ∘ storage means (MDS) adapted to store said damage report (RAP_END),
An ice detecting system for a wind turbine , the system comprising: a wind sensor comprising a heating element configured to set a temperature of the wind sensor based on an adjustable parameter; characterized by a controller configured to: monitor the adjustable parameter over a period of time; determine a likelihood that water is disposed on the wind sensor based on monitoring the adjustable parameter over the period of time; and activate at least one of an anti-icing system and a deicing system based on the likelihood. a wind sensor comprising a heating element configured to set a temperature of the wind sensor based on an adjustable parameter; characterized by a controller configured to: monitor the adjustable parameter over a period of time; determine a likelihood that water is disposed on the wind sensor based on monitoring the adjustable parameter over the period of time; and activate at least one of an anti-icing system and a deicing system based on the likelihood. monitor the adjustable parameter over a period of time; determine a likelihood that water is disposed on the wind sensor based on monitoring the adjustable parameter over the period of time; and activate at least one of an anti-icing system and a deicing system based on the likelihood.
Process for producing an aluminium-doped chelate resin containing iminodiacetic acid groups and containing functional groups of the formula (I) characterized in that a.) monomer droplets composed of at least one monovinylaromatic compound and at least one polyvinylaromatic compound and at least one porogen and at least one initiator are converted to a crosslinked bead polymer, b.) the crosslinked bead polymer from step a) is phthalimidomethylated with phthalimide derivatives and the phthalimide derivative is used in this reaction in a ratio of 0.7 mol to 1.7 mol per mole of bead polymer, c.) the phthalimidomethylated bead polymer from step b) is converted to aminomethylated bead polymer with a first substitution level by phthalimidomethyl groups of 0.6 to 1.5 and d.) the aminomethylated bead polymer from step c) is reacted with chloroacetic acid or salts thereof to give chelate resins having iminodiacetic acid groups having a functionalization level of the amino groups with acetic acid groups of 1.4 to 1.65 and the molar ratio of chloroacetic acid or salts thereof is 1.8:1 to 2.5:1 based on the amount of the aminomethylated bead polymer used and e.) the chelate resin containing iminodiacetic acid groups from step d) is contacted with an aluminium salt solution of a trivalent aluminium ion. a.) monomer droplets composed of at least one monovinylaromatic compound and at least one polyvinylaromatic compound and at least one porogen and at least one initiator are converted to a crosslinked bead polymer, b.) the crosslinked bead polymer from step a) is phthalimidomethylated with phthalimide derivatives and the phthalimide derivative is used in this reaction in a ratio of 0.7 mol to 1.7 mol per mole of bead polymer, c.) the phthalimidomethylated bead polymer from step b) is converted to aminomethylated bead polymer with a first substitution level by phthalimidomethyl groups of 0.6 to 1.5 and d.) the aminomethylated bead polymer from step c) is reacted with chloroacetic acid or salts thereof to give chelate resins having iminodiacetic acid groups having a functionalization level of the amino groups with acetic acid groups of 1.4 to 1.65 and the molar ratio of chloroacetic acid or salts thereof is 1.8:1 to 2.5:1 based on the amount of the aminomethylated bead polymer used and e.) the chelate resin containing iminodiacetic acid groups from step d) is contacted with an aluminium salt solution of a trivalent aluminium ion.
A method in a communication device for executing a software updating process within the communication device, the method comprising: - initiating a data capturing procedure, using at least one sensor which is accessible to the communication device, in response to determining, based on internal analysis, without considering any user interaction, that software updating is required; - comparing data acquired during the initiated data capturing procedure to predefined conditions for initiating a software updating process; - initiating the software updating process within the communication device in response to determining , by the communication device, during the comparing , that the environment of the at least one sensor or the at least one sensor has been manipulated such that the acquired data is forced_to fall within a specific interval, pattern or in a specific way in relation to a threshold value. - initiating a data capturing procedure, using at least one sensor which is accessible to the communication device, in response to determining, based on internal analysis, without considering any user interaction, that software updating is required; - comparing data acquired during the initiated data capturing procedure to predefined conditions for initiating a software updating process; - initiating the software updating process within the communication device in response to determining , by the communication device, during the comparing , that the environment of the at least one sensor or the at least one sensor has been manipulated such that the acquired data is forced_to fall within a specific interval, pattern or in a specific way in relation to a threshold value.
An insertion system comprising an insertion device for delivery of a mesh carrier into a body of a patient and additionally comprising the mesh carrier , wherein the insertion device comprises: an elongate member having a proximal end portion , a distal end portion , and defining a lumen therethrough; a stylet having a distal end portion and a proximal end portion , and being configured to move from a first position to a second position, the distal end portion being configured to removably couple the mesh carrier thereto, the distal end portion being coupled to the mesh carrier when the stylet is in its first position, the elongate member being configured to contact the mesh carrier and decouple the mesh carrier from the distal end portion of the stylet when the stylet is moved from its first position to its second position, wherein the distal end portion of the stylet defines a ridge configured to be disposed outside of and contact a distal end portion of the mesh carrier . an elongate member having a proximal end portion , a distal end portion , and defining a lumen therethrough; a stylet having a distal end portion and a proximal end portion , and being configured to move from a first position to a second position, the distal end portion being configured to removably couple the mesh carrier thereto, the distal end portion being coupled to the mesh carrier when the stylet is in its first position, the elongate member being configured to contact the mesh carrier and decouple the mesh carrier from the distal end portion of the stylet when the stylet is moved from its first position to its second position, wherein the distal end portion of the stylet defines a ridge configured to be disposed outside of and contact a distal end portion of the mesh carrier .
A secure communication method, wherein receiver (B) sends a reference signal (s ref ) to transmitter (A) for channel estimation and wherein N corresponds to total number of complex data symbols; characterized by comprising the steps of: a. Selecting the first m point out of M number of peak-points from the frequency selective channel between transmitter (A) and receiver (B), where in points correspond to subcarriers and where in M < N, b. Creating an artificial channel, F b ∈ C N × 1 , by using the selected m points, c. Creating a new channel, H b ∈ C N × 1 , by cascading receiver's (B) channel, A b ∈ C N × 1 , with the artificial channel, F b ; as H b = A b ⊙ F b , d. Selecting peak points from the cascaded channel, H b , e. Quantization of the selected subcarriers which their gains are corresponds to the peak points from cascaded channel by transmitter (A) and receiver (B) to construct a binary key (B b ), f. Converting the binary key (B b ) into a complex key (C b ), g. Reshaping the complex key (C b ) to the closest multiplication of N. a. Selecting the first m point out of M number of peak-points from the frequency selective channel between transmitter (A) and receiver (B), where in points correspond to subcarriers and where in M < N, b. Creating an artificial channel, F b ∈ C N × 1 , by using the selected m points, c. Creating a new channel, H b ∈ C N × 1 , by cascading receiver's (B) channel, A b ∈ C N × 1 , with the artificial channel, F b ; as H b = A b ⊙ F b , d. Selecting peak points from the cascaded channel, H b , e. Quantization of the selected subcarriers which their gains are corresponds to the peak points from cascaded channel by transmitter (A) and receiver (B) to construct a binary key (B b ), f. Converting the binary key (B b ) into a complex key (C b ), g. Reshaping the complex key (C b ) to the closest multiplication of N.
A pneumatic tire with a 3D kerf element, comprising: one or more 3D kerf elements ; and a tire having a tread and a shoulder formed at a side surface of the tread , wherein the tread has: one or more grooves that are sunken toward a center of the tread and are formed in a circumferential direction of the tire ; one or more kerf grooves that are sunken toward the center of the tread and are formed in a central axis direction of the tire ; and one or more blocks which are divided by the one or more grooves and the one or more kerf grooves , wherein the one or more 3D kerf elements come into close contact with and are fixed between the one or more blocks as being inserted into the one or more kerf grooves , wherein a top surface of the 3D kerf elements has a wave shape which bends alternately one or more times, the top surface being parallel to a surface of the tread , characterized in that the 3D kerf elements have a trapezoid shape in the depth direction from the surface of the tread . one or more 3D kerf elements ; and a tire having a tread and a shoulder formed at a side surface of the tread , wherein the tread has: one or more grooves that are sunken toward a center of the tread and are formed in a circumferential direction of the tire ; one or more kerf grooves that are sunken toward the center of the tread and are formed in a central axis direction of the tire ; and one or more blocks which are divided by the one or more grooves and the one or more kerf grooves , one or more grooves that are sunken toward a center of the tread and are formed in a circumferential direction of the tire ; one or more kerf grooves that are sunken toward the center of the tread and are formed in a central axis direction of the tire ; and one or more blocks which are divided by the one or more grooves and the one or more kerf grooves , wherein the one or more 3D kerf elements come into close contact with and are fixed between the one or more blocks as being inserted into the one or more kerf grooves , wherein a top surface of the 3D kerf elements has a wave shape which bends alternately one or more times, the top surface being parallel to a surface of the tread , characterized in that the 3D kerf elements have a trapezoid shape in the depth direction from the surface of the tread .
A process for the preparation of an anticholinergic agent, wherein the process is carried out in continuous flow mode using a solvent consisting of one or more polar protic solvents.
A method of preparing a compound having a backbone structure according to formula (I), wherein G is OH or CO 2 H, or ethers, esters or anhydrides thereof from biomass-derived compounds, comprising reacting a biomass-derived compound having a backbone structure according to formula (II): with a compound with formula (III): wherein X is O and z is 0, or X is N and z is 1, wherein R 1 and R 2 are each independently an optionally substituted and/or heteroatom containing hydrocarbyl group or a link to a heterogeneous support, and R 2 can also be hydrogen, to give a compound with a backbone structure according to formula (IV): and reacting the compound with a backbone structure according to formula (IV) with a dienophile to give a compound with a backbone structure according to formula (V): and converting said compound into the compound of formula (I) by hydrolysis to yield the compound of formula (I) wherein G is CHO ( i.e. an aldehyde) and further by decarbonylation to yield the compound of formula (I), wherein G is OH ( i.e. a phenol), or further by oxidation to yield the compound of formula (I) wherein G is CO 2 H ( i.e. a carboxylic acid). wherein G is OH or CO 2 H, or ethers, esters or anhydrides thereof from biomass-derived compounds, comprising reacting a biomass-derived compound having a backbone structure according to formula (II): with a compound with formula (III): wherein X is O and z is 0, or X is N and z is 1, wherein R 1 and R 2 are each independently an optionally substituted and/or heteroatom containing hydrocarbyl group or a link to a heterogeneous support, and R 2 can also be hydrogen, to give a compound with a backbone structure according to formula (IV): and reacting the compound with a backbone structure according to formula (IV) with a dienophile to give a compound with a backbone structure according to formula (V): and converting said compound into the compound of formula (I) by hydrolysis to yield the compound of formula (I) wherein G is CHO ( i.e. an aldehyde) and further by decarbonylation to yield the compound of formula (I), wherein G is OH ( i.e. a phenol), or further by oxidation to yield the compound of formula (I) wherein G is CO 2 H ( i.e. a carboxylic acid).
A method , comprising: determining a topological profile of individual nodes in a shared-media communication network, wherein the network uses a directed acyclic graph, DAG, for routing packets; determining a respective likelihood of the nodes in the network to become a root of a floating topology based on the topological profiles, wherein the floating topology is a sub-topology of a main topology that is disconnected from the main topology; and providing instructions to nodes in the network involved in the formation of the floating topology based on the respective likelihoods; wherein the provided instructions comprise at least one of: instructions to activate a keepalive exchange; and instructions to modify a routing topology to avoid nodes. instructions to activate a keepalive exchange; and instructions to modify a routing topology to avoid nodes.
Method in which an obstacle detection arrangement is used to detect obstacles in a hazardous area in front of the rail vehicle , wherein a target value (Sw.Soll, Aufl.Soll) for a variable which characterises the performance of the obstacle detection arrangement is determined and wherein an actual value (Sw.Ist, Aufl.Ist) of the variable which characterises the performance of the obstacle detection arrangement is determined, characterised in that a value (Sw.Ist) corresponding to the currently existing technical visibility distance of the obstacle detection arrangement is provided as an actual value, and a value (Sw.Soll) corresponding to the currently required technical visibility distance for obstacle detection is provided as a target value and/or a value (Aufl.Ist) corresponding to the currently existing technical resolution of the obstacle detection arrangement is provided as an actual value, and a value (Aufl.Soll) corresponding to the currently required technical resolution for obstacle detection is provided as a target value.
A medical chewing gum comprising gum base polymers and nicotine, the gum base polymers comprising polyvinyl acetate and vinyl laurate-vinyl acetate copolymer in an amount of more than 90% by weight, wherein the gum base polymers include 20 - 95% by weight of polyvinyl acetate and 5 - 80% by weight of vinyl laurate-vinyl acetate copolymer, and wherein the chewing gum contains no polyterpene resins and no resins based on gum rosin, wood rosin or tall oil resin. the gum base polymers comprising polyvinyl acetate and vinyl laurate-vinyl acetate copolymer in an amount of more than 90% by weight, wherein the gum base polymers include 20 - 95% by weight of polyvinyl acetate and 5 - 80% by weight of vinyl laurate-vinyl acetate copolymer, and wherein the chewing gum contains no polyterpene resins and no resins based on gum rosin, wood rosin or tall oil resin.
A method (S1800) of video decoding in a decoder, comprising: receiving (S1810) a first syntax element in a coded video bit stream, the first syntax element indicating a maximum allowed number of merge candidates in a set of coding blocks in the coded video bit stream; setting (S1820) a maximum allowed number of triangular prediction mode, TPM, candidates for the set of coding blocks based on a second syntax element when the second syntax element is received, otherwise setting the maximum allowed number of TPM candidates based on the first syntax element; and when a current coding block in the set of coding blocks is coded in a triangular prediction mode, constructing (S1830) a triangular prediction candidate list of the current coding block based on a number of TPM candidates, the number of TPM candidates on the triangular prediction candidate list being less than or equal to the maximum allowed number of TPM candidates. receiving (S1810) a first syntax element in a coded video bit stream, the first syntax element indicating a maximum allowed number of merge candidates in a set of coding blocks in the coded video bit stream; setting (S1820) a maximum allowed number of triangular prediction mode, TPM, candidates for the set of coding blocks based on a second syntax element when the second syntax element is received, otherwise setting the maximum allowed number of TPM candidates based on the first syntax element; and when a current coding block in the set of coding blocks is coded in a triangular prediction mode, constructing (S1830) a triangular prediction candidate list of the current coding block based on a number of TPM candidates, the number of TPM candidates on the triangular prediction candidate list being less than or equal to the maximum allowed number of TPM candidates.
Clothes dryer comprising a process air circuit for process air for drying laundry to be dried, a first coolant circuit for a first coolant and a second coolant circuit for a second coolant, the first and second coolant circuits each having an evaporator , a compressor which is fluidically connected to the evaporator , a condenser which is fluidically connected to the compressor , and a throttle which is fluidically connected to the condenser , the throttle of the first coolant circuit being fluidically connected to the evaporator of the first coolant circuit and the throttle of the second coolant circuit being fluidically connected to the evaporator of the second coolant circuit , and the evaporator of the first coolant circuit and the condenser of the second coolant circuit each being arranged in the process air circuit in a heat-transferring manner so as to transfer heat with the process air, characterised in that the condenser of the first coolant circuit and the evaporator of the second coolant circuit are in direct heat-transfer connection, the condenser of the first coolant circuit and the evaporator of the second coolant circuit being arranged outside the process air circuit .