mhurhangee/patent-ind-claim-en huggingface dataset:
Connection system between cylindrical elements by means of an adhesive that is particularly suitable for carrying out the method according to claim 9 and which comprises: - at least a first and a second connection element ; - said first connection element comprising at least one projecting cylindrical portion suitable for being inserted in a tight-fitting manner inside at least one cylindrical housing of said second connection element ; - said projecting cylindrical portion comprising a groove arranged on the outer surface thereof for placing an adhesive for permanently connecting said projecting cylindrical portion inside said cylindrical housing, in which said first connection element comprises a through-hole that can be accessed from the outside connected linearly with said groove for inserting an adhesive by means of an adhesive injection tube , said groove extending along the outer surface of the projecting cylindrical portion without reaching the end of said projecting cylindrical portion , characterised in that the centre of the through-hole is aligned with the groove . - at least a first and a second connection element ; - said first connection element comprising at least one projecting cylindrical portion suitable for being inserted in a tight-fitting manner inside at least one cylindrical housing of said second connection element ; - said projecting cylindrical portion comprising a groove arranged on the outer surface thereof for placing an adhesive for permanently connecting said projecting cylindrical portion inside said cylindrical housing,
A sensing apparatus comprising a sensor comprising capacitive electrodes beneath a sensor surface, and a processor linked with the electrodes, wherein the apparatus comprises means for: bringing a sample with an analyte into contact with said sensor surface, measuring capacitance of the sample, and using said measurement to derive data concerning the analyte, wherein: the sensor has a CMOS architecture in which CMOS layers provide the electrodes and signal processing circuitry , the electrodes are covered by a nitride protection layer , the sensor incorporates a surface heater within a CMOS layer, the sensor includes a probe fixed on the sensor surface, said probe being selected to attach to a target NA (nucleic acid) analyte in the sample, and the measurements are made after said attachment, the sensor surface has a plurality of different sensor regions, each with a different immobilized probe, and the apparatus comprises a sealed disposable cartridge housing the sensor and a magnet to control flow of magnetic beads in the sample to attract the beads to the sensor surface. bringing a sample with an analyte into contact with said sensor surface, measuring capacitance of the sample, and using said measurement to derive data concerning the analyte, the sensor has a CMOS architecture in which CMOS layers provide the electrodes and signal processing circuitry , the electrodes are covered by a nitride protection layer , the sensor incorporates a surface heater within a CMOS layer, the sensor includes a probe fixed on the sensor surface, said probe being selected to attach to a target NA (nucleic acid) analyte in the sample, and the measurements are made after said attachment, the sensor surface has a plurality of different sensor regions, each with a different immobilized probe, and the apparatus comprises a sealed disposable cartridge housing the sensor and a magnet to control flow of magnetic beads in the sample to attract the beads to the sensor surface.
A method for guiding a towed implement (210; 510) to a desired path (215; 515) comprising: an autopilot guiding a vehicle (205; 505) towing the implement (210; 510); the autopilot first guiding the vehicle (205; 505) across the desired path (215; 515) by an offset distance that is pre-determined for the vehicle (205; 505) and implement (210; 510); and, the autopilot then guiding the vehicle (205; 505) back to the desired path (215; 515). an autopilot guiding a vehicle (205; 505) towing the implement (210; 510); the autopilot first guiding the vehicle (205; 505) across the desired path (215; 515) by an offset distance that is pre-determined for the vehicle (205; 505) and implement (210; 510); and, the autopilot then guiding the vehicle (205; 505) back to the desired path (215; 515).
An apparatus comprising a processor , a memory , and communication circuitry , the apparatus being connected to a network via its communication circuitry, the apparatus further comprising computer-executable instructions stored in the memory of the apparatus which, when executed by the processor of the apparatus, cause the apparatus to perform operations comprising: monitoring interactions between an IoT device and an IoT application ; based on the monitoring, identifying an interaction between the IoT device and an IoT application that can be adjusted, wherein identifying the interaction between the IoT device and an IoT application that can be adjusted comprises determining that a time window during which one of the IoT device of the IoT application publishes data to the apparatus is different as compared to a time window during which the other of the IoT device and the IoT application samples the data from the apparatus; generating a first instruction in response to identifying the interaction, the first instruction indicating a change in behavior for one of the IoT device or the IoT application; and issuing the first instruction to the one of the IoT device or the IoT application, so as to cause the one of the IoT device or the IoT application to change the respective behavior, thereby adjusting the interaction between the IoT device and the IoT application. monitoring interactions between an IoT device and an IoT application ; based on the monitoring, identifying an interaction between the IoT device and an IoT application that can be adjusted, wherein identifying the interaction between the IoT device and an IoT application that can be adjusted comprises determining that a time window during which one of the IoT device of the IoT application publishes data to the apparatus is different as compared to a time window during which the other of the IoT device and the IoT application samples the data from the apparatus; generating a first instruction in response to identifying the interaction, the first instruction indicating a change in behavior for one of the IoT device or the IoT application; and issuing the first instruction to the one of the IoT device or the IoT application, so as to cause the one of the IoT device or the IoT application to change the respective behavior, thereby adjusting the interaction between the IoT device and the IoT application.
A plastic molding composition comprising a thermoplastic polyester elastomer having a shore hardness (D) ranging from 40 to 55 which is measured according to ISO 868, a phosphinate salt which is aluminium diethylphosphinate, and a phosphonate component which is a polymer or oligomer prepared from diphenylmethylphosphonate and 2,2-bis(4-hydroxyphenyl)propane.
A complex spring unit (10; 20) comprising at least first (12; 22) and second (14; 24)integrally formed spring portions, wherein the first spring portion (12; 22) is arranged in use to be placed under compression, and the second spring portion (14; 24) is arranged in use to be placed under tension, during compression of the complex spring unit; characterised in that the second spring portion is a coiled tension spring and is substantially flat in a relaxed configuration.
An atomizer of an aerosol generating device, characterized in comprising: a shell , inside which a liquid storage chamber configured for storing an atomized liquid is formed, wherein the liquid storage chamber comprises an outlet, an aerosol channel extending along the longitudinal direction of the shell is formed inside the shell , the aerosol channel comprises an inlet and an air outlet , and the air outlet is located on one end of the shell ; an atomizing core, which is accommodated in the shell , wherein the outlet of the liquid storage chamber is communicated with a liquid absorption surface of the atomizing core, an atomizing surface of the atomizing core is communicated with the aerosol channel, and the atomizing core comprises an organic porous material which is, at least in part, made of a melamine resin porous material; a fixing element, which is configured for fixing the atomizing core and the shell ; a heating body , which is in contact with or adjacent to the atomizing surface; and an electrode , which is configured for connecting to the heating body and enabling the heating body to receive an electric power. a shell , inside which a liquid storage chamber configured for storing an atomized liquid is formed, wherein the liquid storage chamber comprises an outlet, an aerosol channel extending along the longitudinal direction of the shell is formed inside the shell , the aerosol channel comprises an inlet and an air outlet , and the air outlet is located on one end of the shell ; an atomizing core, which is accommodated in the shell , wherein the outlet of the liquid storage chamber is communicated with a liquid absorption surface of the atomizing core, an atomizing surface of the atomizing core is communicated with the aerosol channel, and the atomizing core comprises an organic porous material which is, at least in part, made of a melamine resin porous material; a fixing element, which is configured for fixing the atomizing core and the shell ; a heating body , which is in contact with or adjacent to the atomizing surface; and an electrode , which is configured for connecting to the heating body and enabling the heating body to receive an electric power.
A method for manufacturing carbon fibre precursor fibres comprising a lignin and a polyvinyl alcohol (PVA) and containing at least 60% by mass of lignin relative to the total mass of lignin-PVA, said method comprising making a solution of lignin and PVA in a solvent, injecting the solution containing lignin and PVA into a coagulating bath to obtain one or more fibres, containing at least 60% by mass of lignin, coagulated by wet spinning, the diameter of the precursor fibres obtained being between 1 and 1000 μm, and preferably between 10 and 100 μm.
A communication network , for enabling a service providing element to adapt delivery of a service based on a RAN-related parameter, the communication network comprising: • a Radio Access Network, RAN, node configured to obtain a RAN-related parameter, and send the RAN-related parameter to the service providing element via a core network node , • the core network node being configured to receive the RAN-related parameter from the RAN node , re-structure the RAN-related parameter into a data structure readable by the service providing element , and send the re-structured RAN-related parameter to the service providing element , and • the service providing element being configured to receive the RAN-related parameter, and adapt a service delivery parameter based on the RAN-related parameter, wherein the RAN node is configured to send the RAN-related parameter included in an uplink message to the core network node and the core network node is configured to forward the uplink message to the service providing element in a data structure readable by the service providing element ; characterized in that the RAN node is configured to send the uplink message in a General Packet Radio Service Tunneling Protocol, GTP, extension header or in a GTP payload to the core network node, and the core network node is configured to re-structure the uplink message into an IP-packet before sending it to the service providing element ; and wherein the RAN-related parameters comprise a RAN state parameter and a Discontinuous Reception, DRX, cycles parameter. • a Radio Access Network, RAN, node configured to obtain a RAN-related parameter, and send the RAN-related parameter to the service providing element via a core network node , • the core network node being configured to receive the RAN-related parameter from the RAN node , re-structure the RAN-related parameter into a data structure readable by the service providing element , and send the re-structured RAN-related parameter to the service providing element , and • the service providing element being configured to receive the RAN-related parameter, and adapt a service delivery parameter based on the RAN-related parameter,
System for taking on, changing and storing securing units for securing objects stored on a transport trailer such as motor vehicles or agricultural or forestry bulk cargo, comprising - a transport trailer for transporting objects such as motor vehicles or agricultural or forestry bulk cargo, having o a loading platform for taking on the objects , o at least one securing unit for securing the objects taken on the loading platform , and o at least one securing section , by means of which the securing unit is rendered detachably connectable to the transport trailer , characterized in that the system comprises a take-on device for taking on, changing and storing the at least one securing unit detached from the transport trailer, as well as at least one movement device having a drive mechanism for moving the securing unit between the transport trailer and the take-on device , wherein the movement device comprises a parallelogram guide which is mounted on rollers . - a transport trailer for transporting objects such as motor vehicles or agricultural or forestry bulk cargo, having o a loading platform for taking on the objects , o at least one securing unit for securing the objects taken on the loading platform , and o at least one securing section , by means of which the securing unit is rendered detachably connectable to the transport trailer , o a loading platform for taking on the objects , o at least one securing unit for securing the objects taken on the loading platform , and o at least one securing section , by means of which the securing unit is rendered detachably connectable to the transport trailer ,
A stabilizer system for supporting a medical device, the stabilizer system comprising: a platform ; a translation actuator coupled to the platform ; and a stabilizer body positioned on the platform and being translatable about the platform , the stabilizer body including a receiving member configured to engage with the translation actuator ; wherein actuation of the translation actuator passes a force to the receiving member allowing the stabilizer body to translate relative to the platform , characterised in that the platform includes a stop configured as a raised tab extending through a stop window in a base of the stabilizer body , the stop being configured to prevent translation of the stabilizer body beyond the stop . a platform ; a translation actuator coupled to the platform ; and a stabilizer body positioned on the platform and being translatable about the platform , the stabilizer body including a receiving member configured to engage with the translation actuator ; wherein actuation of the translation actuator passes a force to the receiving member allowing the stabilizer body to translate relative to the platform , characterised in that the platform includes a stop configured as a raised tab extending through a stop window in a base of the stabilizer body , the stop being configured to prevent translation of the stabilizer body beyond the stop .
A continuous process for the depolymerization and dissolution of a polymer mixture inhomogeneous with respect to the particle size and/or particle thickness by forming a monomer liquid substantially consisting of a monomer which may contain at least one reactant or solvent, comprising the steps a) introducing the inhomogeneous polymer mixture with or without at least one reactant or solvent into at least one vertical or horizontal reactor with at least one reactor inlet and at least one reactor outlet and internal fittings for forming at least two reaction zones within the reactor, b) continuous depolymerization and dissolution of the inhomogeneous polymer mixture to obtain the monomer liquid in the at least one vertical or horizontal reactor , wherein the particle size and/or particle thickness of the inhomogeneous polymer mixture is reduced continuously along the length of the reactor from the reactor inlet to the reactor outlet by depolymerization, wherein particles with small particle size and/or small particle thickness of the inhomogeneous polymer mixture are depolymerized and dissolved immediately after entry into the reactor and the monomer liquid formed is guided by the internal fittings towards the reactor outlet and at the reactor outlet discharged from the reactor, and wherein particles of large particle size and/or particle thickness of the inhomogeneous polymer mixture after entry into the reactor will be retained by the internal fittings and remain in the reactor, until these particles of the polymer mixture are depolymerized and dissolved completely. a) introducing the inhomogeneous polymer mixture with or without at least one reactant or solvent into at least one vertical or horizontal reactor with at least one reactor inlet and at least one reactor outlet and internal fittings for forming at least two reaction zones within the reactor, b) continuous depolymerization and dissolution of the inhomogeneous polymer mixture to obtain the monomer liquid in the at least one vertical or horizontal reactor , wherein the particle size and/or particle thickness of the inhomogeneous polymer mixture is reduced continuously along the length of the reactor from the reactor inlet to the reactor outlet by depolymerization,
A method for preparing a dairy dessert comprising markers, cream in an amount comprised between 10 and 80% by weight relative to the total weight of the product, sugar, eggs and optionally flavourings and containing less than 0.5% by weight relative to the total weight of the gelling and thickening product selected from flour, starch or derivatives, pectin, agar-agar and gums, said method comprising the following steps: a) the cream is pasteurised at a temperature comprised between 90°C and 120°C for a time comprised between 2 and 10 minutes; b) the heated cream from step a) is subjected to a mechanical homogenisation operation under a pressure greater than or equal to 100 bars, preferably greater than or equal to 150 bars, and less than or equal to 600 bars, preferably comprised between 150 and 400 bars; c) the markers and optionally the other ingredients are mixed, at a temperature comprised between 45°C and 55°C, with the cream obtained in step b), the pasteurisation and homogenisation conditions being selected so that the mixture obtained at the end of step c) has a viscosity, measured according to the protocol indicated in the description, greater than or equal to 70 mPa.s (cP) and less than or equal to 250 mPa.s (cP) at 70°C; then d) the mixture is subjected to a heat treatment. a) the cream is pasteurised at a temperature comprised between 90°C and 120°C for a time comprised between 2 and 10 minutes; b) the heated cream from step a) is subjected to a mechanical homogenisation operation under a pressure greater than or equal to 100 bars, preferably greater than or equal to 150 bars, and less than or equal to 600 bars, preferably comprised between 150 and 400 bars; c) the markers and optionally the other ingredients are mixed, at a temperature comprised between 45°C and 55°C, with the cream obtained in step b), the pasteurisation and homogenisation conditions being selected so that the mixture obtained at the end of step c) has a viscosity, measured according to the protocol indicated in the description, greater than or equal to 70 mPa.s (cP) and less than or equal to 250 mPa.s (cP) at 70°C; then d) the mixture is subjected to a heat treatment.
An information transmission method , comprising: accessing , by a terminal device, a serving radio access network, RAN, device; receiving , by the terminal device, an identifier of a first cluster-data function, C-DF, from the serving RAN device, wherein the serving RAN device is associated with the first C-DF, and the first C-DF is located in a radio access network and stores current data of the terminal device; and when duration in which the terminal device camps on the serving RAN device is greater than or equal to a first threshold, storing, by the terminal device, the identifier of the first C-DF. accessing , by a terminal device, a serving radio access network, RAN, device; receiving , by the terminal device, an identifier of a first cluster-data function, C-DF, from the serving RAN device, wherein the serving RAN device is associated with the first C-DF, and the first C-DF is located in a radio access network and stores current data of the terminal device; and when duration in which the terminal device camps on the serving RAN device is greater than or equal to a first threshold, storing, by the terminal device, the identifier of the first C-DF.
Charging station for telecommunication devices and other small electronic devices such as clocks, with a platform with a multiple of crosspieces (4 - 6) arranged parallel to each other, under which supply cables and plug-in connectors for connections to the appropriate charger can be laid, whereby at least one adapter serves for the connection of the telecommunication or small devices positioned on the platform with the supply cables or plug-in connectors underneath the platform , whereby the adapter can be placed and fixed with its longitudinal axis transverse to the crosspieces of the platform and having a holder for a telecommunication or small device and a fixing block to be inserted between two crosspieces of the platform and connected with the holder by means of a connection arm formed as a boom and whereby the adapter is characterised in that in addition a cover corresponding to the holder , and the fixing block is designed that can be connected to the holder and the connection arm by means of a locking mechanism.