mhurhangee/patent-ind-claim-en huggingface dataset:
Luminous device comprising: - at least two light sources of different colour, - a light guide comprising an entrance face and an exit face and configured to transmit the light rays generated by at least two light sources from its entrance face to its exit face , the, at least two, light sources being placed beside one another, the luminous device being characterized in that the light guide has a plurality of dog-legs between its entrance face and its exit face and wherein the light guide comprises at least a first dog-leg making a first angle and having a first radius of curvature with respect to a first axis of curvature (A1) and a second dog-leg making a second angle and having a second radius of curvature with respect to a second axis of curvature (A2), the first and second axes of curvature (Al, A2) being non-parallel. - at least two light sources of different colour, - a light guide comprising an entrance face and an exit face and configured to transmit the light rays generated by at least two light sources from its entrance face to its exit face ,
A method comprising: receiving, at a mobile device, a wireless message; determining, at the mobile device at a first location, first ambient signal data, wherein the wireless message comprises (i) message content and (ii) second ambient signal data for a second location, wherein the message content corresponds to the second location; comparing, at the mobile device, the first ambient signal data and the second ambient signal data; and determining, at the mobile device, whether to present a message indicative of the message content to a user of the mobile device based at least in part on the comparison of the first ambient signal data and the second ambient signal data, wherein the wireless message comprises a wireless broadcast message, and wherein the second ambient signal data serves as a destination address for the wireless broadcast message. receiving, at a mobile device, a wireless message; determining, at the mobile device at a first location, first ambient signal data, wherein the wireless message comprises (i) message content and (ii) second ambient signal data for a second location, wherein the message content corresponds to the second location; comparing, at the mobile device, the first ambient signal data and the second ambient signal data; and determining, at the mobile device, whether to present a message indicative of the message content to a user of the mobile device based at least in part on the comparison of the first ambient signal data and the second ambient signal data, wherein the wireless message comprises a wireless broadcast message, and wherein the second ambient signal data serves as a destination address for the wireless broadcast message.
Use of a conductivity improver in a hydrocarbon composition to enhance the stability reserve of the hydrocarbon composition as measured by the hydrocarbon separability number.
An electronic smoke apparatus comprising: an airflow sensor ; a reservoir for containing vapor-able smoke flavored liquid; an electric heater to heat the vapor-able smoke flavored liquid; a switching circuit to control supply of voltage and operating power to the electric heater ; and a controller connected to the airflow sensor , the controller configured to operate the switching circuit to; supply the operating power at a boost power level in response to detecting onset or beginning of a smoking inhaling event, reduce the operating power from the boost power level to a running power level after expiration of a boost heating interval following detection of the onset or beginning of the smoking inhaling event, increase the operating power from the running power level to a power level greater than the running power level in response to detecting heavier airflow at the airflow sensor , the heavier airflow being above a level required to maintain the operating power at the running power level, and decrease the operating power from the power level greater than the running power level to the running power level in response to a decrease in the heavier airflow at the airflow sensor . an airflow sensor ; a reservoir for containing vapor-able smoke flavored liquid; an electric heater to heat the vapor-able smoke flavored liquid; a switching circuit to control supply of voltage and operating power to the electric heater ; and a controller connected to the airflow sensor , the controller configured to operate the switching circuit to; supply the operating power at a boost power level in response to detecting onset or beginning of a smoking inhaling event, reduce the operating power from the boost power level to a running power level after expiration of a boost heating interval following detection of the onset or beginning of the smoking inhaling event, increase the operating power from the running power level to a power level greater than the running power level in response to detecting heavier airflow at the airflow sensor , the heavier airflow being above a level required to maintain the operating power at the running power level, and decrease the operating power from the power level greater than the running power level to the running power level in response to a decrease in the heavier airflow at the airflow sensor . supply the operating power at a boost power level in response to detecting onset or beginning of a smoking inhaling event, reduce the operating power from the boost power level to a running power level after expiration of a boost heating interval following detection of the onset or beginning of the smoking inhaling event, increase the operating power from the running power level to a power level greater than the running power level in response to detecting heavier airflow at the airflow sensor , the heavier airflow being above a level required to maintain the operating power at the running power level, and decrease the operating power from the power level greater than the running power level to the running power level in response to a decrease in the heavier airflow at the airflow sensor .
Flexible implantable electrode arrangement comprising: an electrically insulating carrier structure comprising a first polymer material, an electrically conductive layer, wherein said electrically conductive layer is structured in order to integrally form at least one implantable electrode , at least one conductor track connected thereto, and at least one contact pad , and an electrically insulating cover layer , wherein said cover layer comprises a second polymer material and covers said electrically conductive layer at least in part, characterized in that the electrically conductive layer comprises an electrically conductive carbon fiber layer , which comprises a woven fabric, knitted fabric, or non-woven fabric. an electrically insulating carrier structure comprising a first polymer material, an electrically conductive layer, wherein said electrically conductive layer is structured in order to integrally form at least one implantable electrode , at least one conductor track connected thereto, and at least one contact pad , and an electrically insulating cover layer , wherein said cover layer comprises a second polymer material and covers said electrically conductive layer at least in part, characterized in that the electrically conductive layer comprises an electrically conductive carbon fiber layer , which comprises a woven fabric, knitted fabric, or non-woven fabric.
A pre-moulding station for a fibre moulding system for the pre-moulding of a moulded part out of environmentally degradable fibrous material for a subsequent hot pressing in a hot-pressing station in a fibre moulding process comprising - a reservoir having a pulp as liquid solution with the environmentally degradable fibrous material for a partial-moulding of the moulded part , preferably arranged as a horizontal reservoir open to the top; and - a pre-pressing station for the pre-moulding of the moulded part partial-moulded by means of a partial-moulding station by means of a suction tool with a pre-pressing pressure (VD) for reducing a proportion of the liquid solution in the moulded part and for stabilizing the shape of the moulded part , wherein the pre-pressing station is implemented as a multi-tool with a plurality of lower pre-pressing tools adapted to the suction tool as a multi-tool, wherein the suction tool is pressed onto a stationary lower pre-pressing tool, and wherein the pre-moulding station is arrangeable separate from the subsequent hot-pressing station . - a reservoir having a pulp as liquid solution with the environmentally degradable fibrous material for a partial-moulding of the moulded part , preferably arranged as a horizontal reservoir open to the top; and - a pre-pressing station for the pre-moulding of the moulded part partial-moulded by means of a partial-moulding station by means of a suction tool with a pre-pressing pressure (VD) for reducing a proportion of the liquid solution in the moulded part and for stabilizing the shape of the moulded part , wherein the pre-pressing station is implemented as a multi-tool with a plurality of lower pre-pressing tools adapted to the suction tool as a multi-tool, wherein the suction tool is pressed onto a stationary lower pre-pressing tool, and
Use of a copolymer as a biocompatible material, wherein the copolymer is defined as follows: the copolymer comprises at least one repeating unit (A) represented by formula : wherein R 1 represents a methyl group or an ethyl group, and n represents an integer of 2 to 10, and at least one repeating unit (B) represented by formula : wherein R 2 represents a linear or branched alkyl group or alkenyl group having 2 to 10 carbon atoms or a monocyclic or polycyclic alkyl group or alkenyl group having 5 to 15 carbon atoms. the copolymer comprises at least one repeating unit (A) represented by formula : wherein R 1 represents a methyl group or an ethyl group, and n represents an integer of 2 to 10, and at least one repeating unit (B) represented by formula : wherein R 2 represents a linear or branched alkyl group or alkenyl group having 2 to 10 carbon atoms or a monocyclic or polycyclic alkyl group or alkenyl group having 5 to 15 carbon atoms.
Compounds of the general formula 1 or stereoisomers thereof, wherein: R 1 = C 1 -C 4 alkyl; R 2 = H, CH 2 OCH 2 CH 2 Si(CH 3 ) 3 . R 1 = C 1 -C 4 alkyl; R 2 = H, CH 2 OCH 2 CH 2 Si(CH 3 ) 3 .
Method for producing an electric machine comprising an end winding and a housing by carrying out the following method steps: a) providing a rigid foam system , which comprises a rigid foam in a liquid first state, which can be converted to a solid second state, wherein the rigid foam comprises non-metallic particles and the rigid foam system has a larger volume in the second state than in the first state, wherein the change in volume from the first state to the second state is at least 5% and solid non-metallic particles are added to the rigid foam , b) introducing the rigid foam system into a region between the end winding and the housing of the electric machine , wherein the rigid foam system is converted from the first state to the second state and, in the second state, connects the end winding to the housing for heat dissipation purposes, wherein metallic particles are homogeneously admixed as additive with the rigid foam system to increase the thermal conductivity, wherein the concentration of the admixed metallic particles is below the percolation threshold. a) providing a rigid foam system , which comprises a rigid foam in a liquid first state, which can be converted to a solid second state, wherein the rigid foam comprises non-metallic particles and the rigid foam system has a larger volume in the second state than in the first state, wherein the change in volume from the first state to the second state is at least 5% and solid non-metallic particles are added to the rigid foam , b) introducing the rigid foam system into a region between the end winding and the housing of the electric machine , wherein the rigid foam system is converted from the first state to the second state and, in the second state, connects the end winding to the housing for heat dissipation purposes, wherein metallic particles are homogeneously admixed as additive with the rigid foam system to increase the thermal conductivity, wherein the concentration of the admixed metallic particles is below the percolation threshold.
A method for preparing polymer particles comprising the steps of: dropping a curable composition onto a substrate having a water contact angle of 150° to 170° at 25°C, on which semi-spherical engraved patterns are formed, to form droplets of the curable composition; and curing the droplets to form the polymer particles, wherein the water contact angle is measured at 25°C using a measuring device of DSA 100 of KRUSS GmbH. dropping a curable composition onto a substrate having a water contact angle of 150° to 170° at 25°C, on which semi-spherical engraved patterns are formed, to form droplets of the curable composition; and curing the droplets to form the polymer particles, wherein the water contact angle is measured at 25°C using a measuring device of DSA 100 of KRUSS GmbH.
A plant for the production of beer comprising at least one section of mashing and/or hopping having: - A tank suitable for containing a mix of liquids or liquid/s and solid parts; - At least one circulation path ; - At least one pump that causes the movement of the mix along said circulation path ; - And wherein said circulation path comprises at least one cavitation reactor configured to generate a process of hydrodynamic cavitation, the cavitation reactor being of the static type comprising a narrowing; - Said circulation path being connected to the tank in a such a manner to form a closed circulation path wherein said mix can circulate from the tank along said circulation path to direct the mix again into the tank for all the time in which the pump is maintained activated; - Characterized in that the nominal mechanical power of the pump and the diameter of the narrowing are such as to produce a number of cavitation (NC) comprised, at atmospheric pressure, between the values 0.1 and 1. - A tank suitable for containing a mix of liquids or liquid/s and solid parts; - At least one circulation path ; - At least one pump that causes the movement of the mix along said circulation path ; - And wherein said circulation path comprises at least one cavitation reactor configured to generate a process of hydrodynamic cavitation, the cavitation reactor being of the static type comprising a narrowing; - Said circulation path being connected to the tank in a such a manner to form a closed circulation path wherein said mix can circulate from the tank along said circulation path to direct the mix again into the tank for all the time in which the pump is maintained activated; - Characterized in that the nominal mechanical power of the pump and the diameter of the narrowing are such as to produce a number of cavitation (NC) comprised, at atmospheric pressure, between the values 0.1 and 1.
A roof attachment system for a vehicle, comprising: at least one mounting member having a predetermined cross section, wherein the mounting member is C-shaped; an upper flange of the mounting member shaped to match an inside surface of a roof of the vehicle, the upper flange bonded to the inside surface by a structural adhesive ; a lower flange of the mounting member bonded to an attachment flange of a body side ring assembly by a structural adhesive , where bonding the at least one mounting member connects the roof to the body side ring assembly of the vehicle, wherein the roof is a composite molded roof and the mounting member is a molded or stamped bracket. at least one mounting member having a predetermined cross section, wherein the mounting member is C-shaped; an upper flange of the mounting member shaped to match an inside surface of a roof of the vehicle, the upper flange bonded to the inside surface by a structural adhesive ; a lower flange of the mounting member bonded to an attachment flange of a body side ring assembly by a structural adhesive , where bonding the at least one mounting member connects the roof to the body side ring assembly of the vehicle, wherein the roof is a composite molded roof and the mounting member is a molded or stamped bracket.
An electrical connection box comprising: a bus bar (B) having conductivity; a housing body (MH) having an insulation property configured to store the bus bar (B) in a storing space inside the housing body (MH); a cover configured to open or close with respect to the housing body (MH) at a fully open position where the bus bar (B) is exposes to outside and a fully closed position where the bus bar (B) is blocked from the outside; and a power supply line (W1) configured to supply the bus bar (B) with electric power, wherein the housing body (MH) has a connector provided at a position exposed to the outside, the connector being configured so that a terminal (W1a) provided at a tip of the power supply line (W1) is attachable or detachable to or from the connector , the cover is provided with a restriction portion that restricts the power supply line (W1) from moving in a longitudinal direction, and tension is created on the power supply line (W1) in the longitudinal direction by the restriction portion during moving the cover from the fully closed position to the fully open position side in a state where the terminal (W1a) is connected to the connector . a bus bar (B) having conductivity; a housing body (MH) having an insulation property configured to store the bus bar (B) in a storing space inside the housing body (MH); a cover configured to open or close with respect to the housing body (MH) at a fully open position where the bus bar (B) is exposes to outside and a fully closed position where the bus bar (B) is blocked from the outside; and a power supply line (W1) configured to supply the bus bar (B) with electric power, wherein the housing body (MH) has a connector provided at a position exposed to the outside, the connector being configured so that a terminal (W1a) provided at a tip of the power supply line (W1) is attachable or detachable to or from the connector , the cover is provided with a restriction portion that restricts the power supply line (W1) from moving in a longitudinal direction, and tension is created on the power supply line (W1) in the longitudinal direction by the restriction portion during moving the cover from the fully closed position to the fully open position side in a state where the terminal (W1a) is connected to the connector .
A method for manufacturing an electrode assembly, the method comprising: a first step of preparing a plurality of radical units, each of which is manufactured by alternately stacking an electrode and a separator; a second step of stacking the plurality of radical units to manufacture an electrode stack; a winding step of surrounding at least a portion of a circumference of the electrode stack by using a winding separator that is separated from the separator constituting the electrode stack to maintain a relative distance between the radical units within the electrode stack; and a third step of pressing an outer surface of the electrode stack to manufacture an electrode assembly on which a curved surface having a curvature radius is formed on the electrode stack, wherein, in the first step, the electrode and the separator are bonded to each other at a temperature of 30 °C to 70°C, and in the third step, the electrode stack is pressed at a temperature of 60°C to 100°C. a first step of preparing a plurality of radical units, each of which is manufactured by alternately stacking an electrode and a separator; a second step of stacking the plurality of radical units to manufacture an electrode stack; a winding step of surrounding at least a portion of a circumference of the electrode stack by using a winding separator that is separated from the separator constituting the electrode stack to maintain a relative distance between the radical units within the electrode stack; and a third step of pressing an outer surface of the electrode stack to manufacture an electrode assembly on which a curved surface having a curvature radius is formed on the electrode stack, wherein, in the first step, the electrode and the separator are bonded to each other at a temperature of 30 °C to 70°C, and in the third step, the electrode stack is pressed at a temperature of 60°C to 100°C.
A method, comprising: detecting an endpoint congestion associated with a flow of packets at an egress port of a destination switch for the flow, wherein the flow corresponds to packets with one or more common header fields and is identified by a flow identifier that is unique within an input port of the egress switch; and generating an endpoint congestion notification message specific to the flow to be transmitted toward a source of the flow upon arrival of the packets at an output buffer associated with the egress port or departure of the packets from the output buffer. detecting an endpoint congestion associated with a flow of packets at an egress port of a destination switch for the flow, wherein the flow corresponds to packets with one or more common header fields and is identified by a flow identifier that is unique within an input port of the egress switch; and generating an endpoint congestion notification message specific to the flow to be transmitted toward a source of the flow upon arrival of the packets at an output buffer associated with the egress port or departure of the packets from the output buffer.
A negative electrode material comprising, as an active material, silicon flakes with a hyperporous structure, represented by the following chemical formula 1: xSi ⋅ 1 − x A where 0.5≤ x ≤1.0, and A is an impurity selected from the group consisting of Al 2 O 3 , MgO, SiO 2 , GeO 2 , Fe 2 O 3 , CaO, TiO 2 , Na 2 O, K 2 O, CuO, ZnO, NiO, Zr 2 O 3 , Cr 2 O 3 and BaO, and wherein the silicon flakes have a hyperporous structure including macropores having a pore size in the range of greater than 50 nm to 500 nm, mesopores having a pore size of greater than 2 nm to 50 nm, and micropores having a pore size of 0.5 nm to 2 nm, the pore size being determined as described in the specification. where 0.5≤ x ≤1.0, and A is an impurity selected from the group consisting of Al 2 O 3 , MgO, SiO 2 , GeO 2 , Fe 2 O 3 , CaO, TiO 2 , Na 2 O, K 2 O, CuO, ZnO, NiO, Zr 2 O 3 , Cr 2 O 3 and BaO, and wherein the silicon flakes have a hyperporous structure including macropores having a pore size in the range of greater than 50 nm to 500 nm, mesopores having a pore size of greater than 2 nm to 50 nm, and micropores having a pore size of 0.5 nm to 2 nm, the pore size being determined as described in the specification.