mhurhangee/patent-ind-claim-en huggingface dataset:
A method for making pots and pans , equipped with a multi-layer coating of non-stick material, comprising: - the forming of multiple layers of coating on an inner surface of a wall delimiting a cooking cavity by cyclical repetition of a step of applying suitable covering substances and subsequent drying and baking in an oven of said layers , at least the final layer of said covering substances being obtained by using a non-stick substance; said method comprising, before the step of applying the substance for forming at least the final layer coating the cooking cavity of the pot , a step of adding as an additive edible oil or grease to the substance to be applied for forming said final layer said method being characterised in that said step of adding the additive is carried out by mixing in the liquid state, and in that said edible oil or grease is of the vegetable type, and in that said edible oil is olive oil. - the forming of multiple layers of coating on an inner surface of a wall delimiting a cooking cavity by cyclical repetition of a step of applying suitable covering substances and subsequent drying and baking in an oven of said layers , at least the final layer of said covering substances being obtained by using a non-stick substance; said method comprising, before the step of applying the substance for forming at least the final layer coating the cooking cavity of the pot , a step of adding as an additive edible oil or grease to the substance to be applied for forming said final layer said method being characterised in that said step of adding the additive is carried out by mixing in the liquid state, and in that said edible oil or grease is of the vegetable type, and in that said edible oil is olive oil.
A method for producing a low gloss polymer additive with a reduced incidence of darkening discoloration comprising: forming a mixture of a reactive polymer and a carrier polymer that is substantially immiscible with the reactive polymer; reactively extruding the mixture in the presence of a crosslinking agent and an acid catalyst, thereby crosslinking the mixture; and, cutting the crosslinked mixture using a cutting implement under conditions that reduce the temperature at the interface between the implement and the mixture, that reduce the exposure of the implement to oxygen, or both, thereby producing the low gloss polymer additive. forming a mixture of a reactive polymer and a carrier polymer that is substantially immiscible with the reactive polymer; reactively extruding the mixture in the presence of a crosslinking agent and an acid catalyst, thereby crosslinking the mixture; and, cutting the crosslinked mixture using a cutting implement under conditions that reduce the temperature at the interface between the implement and the mixture, that reduce the exposure of the implement to oxygen, or both, thereby producing the low gloss polymer additive.
An apparatus for testing conformance of rotor discs of gas turbines, comprising: a turntable , rotatable about an axis (A) and configured to support a rotor disc of a gas turbine in a measuring plane (M); an actuator , operable to rotate the turntable about the axis (A); supporting structure , supporting a first distance meter and a second distance meter on opposite sides with respect to the measuring plane (M), the distance meters both facing towards the measuring plane (M), characterised by the supporting structure being adjustable to separately set a first working distance (D1) of the first distance meter and a second working distance (D2) of the second distance meter with respect to the axis (A). a turntable , rotatable about an axis (A) and configured to support a rotor disc of a gas turbine in a measuring plane (M); an actuator , operable to rotate the turntable about the axis (A); supporting structure , supporting a first distance meter and a second distance meter on opposite sides with respect to the measuring plane (M), the distance meters both facing towards the measuring plane (M), characterised by the supporting structure being adjustable to separately set a first working distance (D1) of the first distance meter and a second working distance (D2) of the second distance meter with respect to the axis (A).
Tyre , having a cord inlay , a steel cord belt ply and a tread , wherein the tyre is rotatable about an axis of rotation in a direction of revolution and has a tyre zenith , wherein the tyre has at least one electromagnetic transmitting and receiving device , wherein the at least one electromagnetic transmitting and receiving device has at least one sensor element , wherein the at least one electromagnetic transmitting and receiving device has a piezo element , characterized in that the at least one electromagnetic transmitting and receiving device is arranged spatially between a region of the cord inlay and a first region of the tread .
An article comprising a food or beverage container, or a portion thereof, the article comprising: a metal substrate; a thermally-cured coating disposed on at least a portion of the substrate, wherein the coating was formed by baking a coating composition at a temperature of at least 150°C, and wherein, prior to bake, the coating composition comprises a polyether polymer having a beta-dicarbonyl group. a metal substrate; a thermally-cured coating disposed on at least a portion of the substrate, wherein the coating was formed by baking a coating composition at a temperature of at least 150°C, and wherein, prior to bake, the coating composition comprises a polyether polymer having a beta-dicarbonyl group.
A communication system comprising at least one radio station which includes a main radio unit and at least one associated standby radio unit ; and a user console connected via a communication network to the main radio unit of the radio station addressed by a network address of the communication network ; wherein the main radio unit and its at least one associated standby radio unit are configured to be operated in parallel and to exchange operational parameters during operation of said communication system ; wherein the main radio unit of the at least one radio station is adapted to send regular keep-alive messages to the at least one associated standby radio unit of said radio station ; wherein the at least one associated standby radio unit of the radio station is adapted to send keep-alive messages to the associated main radio unit , allowing to detect failure of the at least one associated standby radio unit ; and wherein the at least one associated standby radio unit of the at least one radio station is adapted to monitor reception of keep-alive messages from the associated main radio unit of said radio station and to detect an operation failure of the main radio unit of said radio station in case of absence of received keep-alive messages and is adapted to trigger an automatic handover of the used network address from the main radio unit of the radio station to the at least one associated standby radio unit of said radio station to maintain an uninterrupted communication between the user console and the respective radio station of said communication system . at least one radio station which includes a main radio unit and at least one associated standby radio unit ; and a user console connected via a communication network to the main radio unit of the radio station addressed by a network address of the communication network ; wherein the main radio unit and its at least one associated standby radio unit are configured to be operated in parallel and to exchange operational parameters during operation of said communication system ; wherein the main radio unit of the at least one radio station is adapted to send regular keep-alive messages to the at least one associated standby radio unit of said radio station ; wherein the at least one associated standby radio unit of the radio station is adapted to send keep-alive messages to the associated main radio unit , allowing to detect failure of the at least one associated standby radio unit ; and wherein the at least one associated standby radio unit of the at least one radio station is adapted to monitor reception of keep-alive messages from the associated main radio unit of said radio station and to detect an operation failure of the main radio unit of said radio station in case of absence of received keep-alive messages and is adapted to trigger an automatic handover of the used network address from the main radio unit of the radio station to the at least one associated standby radio unit of said radio station to maintain an uninterrupted communication between the user console and the respective radio station of said communication system .
A method for degrading (co)polymers in an extruder , comprising the steps of: a) supplying a (co)polymer into a first extrusion portion of the extruder by means of a feed opening ; b) degrading the (co)polymer under shear stress in the first extrusion portion in the presence of at least one radical former in order to produce a first degraded (co)polymer; c) transferring the first degraded (co)polymer from the first extrusion portion into a second extrusion portion of the extruder , wherein the first extrusion portion is separated from the second extrusion portion by a sealing means ; d) supplying oxygen gas into the second extrusion portion by means of a supply opening , wherein the supply opening is arranged behind the sealing means in the extrusion direction ; and e) further degrading the first degraded copolymer under shear stress in the second extrusion portion in the presence of an oxygen gas in order to produce a second degraded (co)polymer; with the proviso that the sealing means is suitable for preventing the oxygen gas from escaping out of the feed opening . a) supplying a (co)polymer into a first extrusion portion of the extruder by means of a feed opening ; b) degrading the (co)polymer under shear stress in the first extrusion portion in the presence of at least one radical former in order to produce a first degraded (co)polymer; c) transferring the first degraded (co)polymer from the first extrusion portion into a second extrusion portion of the extruder , wherein the first extrusion portion is separated from the second extrusion portion by a sealing means ; d) supplying oxygen gas into the second extrusion portion by means of a supply opening , wherein the supply opening is arranged behind the sealing means in the extrusion direction ; and e) further degrading the first degraded copolymer under shear stress in the second extrusion portion in the presence of an oxygen gas in order to produce a second degraded (co)polymer;
A system for configuring a robotic device , the system comprising: a storage rack including a plurality of slots that are each configured to hold a first coupling member, wherein the first coupling member includes a first tool; and a robotic device configured with a second coupling member, wherein the second coupling member is configured to operably engage the first coupling member to remove the first coupling member and the first tool from the storage rack, characterised in that the first coupling member is configured with an identification chip, the storage rack is configured with at least one spring loaded pin, and the identification chip is configured to engage the at least one spring loaded pin upon insertion of the first coupling member at the storage rack to provide at least one of an electrical connection indicating that the first coupling member is positioned on the storage rack and a communication link with which to communicate data. a storage rack including a plurality of slots that are each configured to hold a first coupling member, wherein the first coupling member includes a first tool; and a robotic device configured with a second coupling member, wherein the second coupling member is configured to operably engage the first coupling member to remove the first coupling member and the first tool from the storage rack, characterised in that the first coupling member is configured with an identification chip, the storage rack is configured with at least one spring loaded pin, and the identification chip is configured to engage the at least one spring loaded pin upon insertion of the first coupling member at the storage rack to provide at least one of an electrical connection indicating that the first coupling member is positioned on the storage rack and a communication link with which to communicate data.
A system, comprising: a robot cleaner 100 to search for a cleaning area to prepare a cleaning map and capture the cleaning area to generate a monitoring image; and characterized by comprising: a wireless terminal device 200 to access the robot cleaner to receive the monitoring image and the cleaning map from the robot cleaner and transmit a control command to the robot cleaner; wherein the wireless terminal device further comprises: a user interface module 240 to display the cleaning map and the monitoring image and receive the control command, and wherein the wireless terminal device is configured to display a monitoring image corresponding to the relevant monitoring area when a portion corresponding to a specific monitoring area in the cleaning map is selected while displaying the cleaning map. a robot cleaner 100 to search for a cleaning area to prepare a cleaning map and capture the cleaning area to generate a monitoring image; and characterized by comprising: a wireless terminal device 200 to access the robot cleaner to receive the monitoring image and the cleaning map from the robot cleaner and transmit a control command to the robot cleaner; wherein the wireless terminal device further comprises: a user interface module 240 to display the cleaning map and the monitoring image and receive the control command, and wherein the wireless terminal device is configured to display a monitoring image corresponding to the relevant monitoring area when a portion corresponding to a specific monitoring area in the cleaning map is selected while displaying the cleaning map. a wireless terminal device 200 to access the robot cleaner to receive the monitoring image and the cleaning map from the robot cleaner and transmit a control command to the robot cleaner; wherein the wireless terminal device further comprises: a user interface module 240 to display the cleaning map and the monitoring image and receive the control command, and wherein the wireless terminal device is configured to display a monitoring image corresponding to the relevant monitoring area when a portion corresponding to a specific monitoring area in the cleaning map is selected while displaying the cleaning map. a user interface module 240 to display the cleaning map and the monitoring image and receive the control command, and wherein the wireless terminal device is configured to display a monitoring image corresponding to the relevant monitoring area when a portion corresponding to a specific monitoring area in the cleaning map is selected while displaying the cleaning map.
An anti-PD-1 antibody comprising a heavy chain immunoglobulin polypeptide comprising SEQ ID NO:23, a light chain immunoglobulin polypeptide comprising SEQ ID NO:40, and an IgG4 heavy chain constant region (Fc).
A conduit for extending across fluid flow regions in a gas turbine engine, the conduit comprising: a first segment forming a first sidewall of the conduit, the first segment comprising a first inner surface and a first outer surface ; and a second segment forming a second sidewall of the conduit, the second segment comprising a second inner surface and a second outer surface ; wherein the first segment is coupled to the second segment such that the first inner surface and the second inner surface jointly form an inner conduit surface and the first outer surface and the second outer surface jointly form at least a portion of an outer conduit surface, wherein the outer conduit surface has an airfoil geometry, characterised in that the conduit further comprises a third segment and a fourth segment , wherein the third segment couples the first segment to the second segment and forms a leading edge portion of the airfoil geometry of the outer conduit surface, wherein the fourth segment couples the first segment to the second segment and forms a trailing edge portion of the airfoil geometry of the outer conduit surface. a first segment forming a first sidewall of the conduit, the first segment comprising a first inner surface and a first outer surface ; and a second segment forming a second sidewall of the conduit, the second segment comprising a second inner surface and a second outer surface ; wherein the first segment is coupled to the second segment such that the first inner surface and the second inner surface jointly form an inner conduit surface and the first outer surface and the second outer surface jointly form at least a portion of an outer conduit surface, wherein the outer conduit surface has an airfoil geometry, characterised in that the conduit further comprises a third segment and a fourth segment , wherein the third segment couples the first segment to the second segment and forms a leading edge portion of the airfoil geometry of the outer conduit surface, wherein the fourth segment couples the first segment to the second segment and forms a trailing edge portion of the airfoil geometry of the outer conduit surface.
A method for a vehicle configured to be remotely operated in a remote driving mode and to be operated at least partially automatically in an automated driving mode, the method comprising: monitoring, in the remote driving mode, a current traffic situation using one or more sensors; determining automated driving capabilities of the vehicle based on data related to a driving behavior of the vehicle collected in an automated driving mode, wherein the automated driving capabilities represent circumstances under which the vehicle is able to take over the control safely; predicting, based on information on the current traffic situation using a predefined motion model, a future traffic situation and predicting information on a future traffic situation for switching from the remote driving mode to the automated driving mode based on a comparison of the automated driving capabilities and the future traffic situation; determining a predicted quality of service, pQoS, of a communication link for the remote driving mode to obtain, based on the predicted quality of service, a remote operation interval for which the vehicle is at least operable in the remote driving mode; obtaining a handover duration for taking over control by the vehicle for switching from the remote driving mode to the automated driving mode; and deciding for or against switching from the remote driving mode to the automated driving mode based on the information on the future traffic situation, the remote operation interval, and the handover duration. monitoring, in the remote driving mode, a current traffic situation using one or more sensors; determining automated driving capabilities of the vehicle based on data related to a driving behavior of the vehicle collected in an automated driving mode, wherein the automated driving capabilities represent circumstances under which the vehicle is able to take over the control safely; predicting, based on information on the current traffic situation using a predefined motion model, a future traffic situation and predicting information on a future traffic situation for switching from the remote driving mode to the automated driving mode based on a comparison of the automated driving capabilities and the future traffic situation; determining a predicted quality of service, pQoS, of a communication link for the remote driving mode to obtain, based on the predicted quality of service, a remote operation interval for which the vehicle is at least operable in the remote driving mode; obtaining a handover duration for taking over control by the vehicle for switching from the remote driving mode to the automated driving mode; and deciding for or against switching from the remote driving mode to the automated driving mode based on the information on the future traffic situation, the remote operation interval, and the handover duration.
Method for manufacturing a lightweight panel, comprising the steps: - producing a fibre-reinforced base plate by embedding a fibre material in a base matrix material and mechanically bonding it to the base matrix material , - producing and applying a coating to a surface of the base plate , wherein - producing and applying the coating includes embedding ceramic particles in a layer matrix material and bonding the ceramic particles to the layer matrix material , and - applying the coating includes adhesively bonding the coating to the base plate , comprising adhesively bonding the layer matrix material to the base matrix material , wherein, in the step of producing and applying, ceramic particles comprising a metal carbide or metal oxide are introduced, and a duromer is used as the layer matrix material , characterised in that producing and applying the coating comprises applying the layer matrix material to the surface of the base plate and subsequently applying the ceramic particles to the layer matrix material , wherein the layer matrix material is not cured at least at the beginning of the application of the ceramic particles . - producing a fibre-reinforced base plate by embedding a fibre material in a base matrix material and mechanically bonding it to the base matrix material , - producing and applying a coating to a surface of the base plate , wherein - producing and applying the coating includes embedding ceramic particles in a layer matrix material and bonding the ceramic particles to the layer matrix material , and - applying the coating includes adhesively bonding the coating to the base plate , comprising adhesively bonding the layer matrix material to the base matrix material , wherein, in the step of producing and applying, ceramic particles comprising a metal carbide or metal oxide are introduced, and a duromer is used as the layer matrix material , characterised in that producing and applying the coating comprises applying the layer matrix material to the surface of the base plate and subsequently applying the ceramic particles to the layer matrix material , wherein the layer matrix material is not cured at least at the beginning of the application of the ceramic particles .
Use of uniform, rigid, spherical, nanoporous calcium phosphate particles to increase the SPF or UV-A protection in a sunscreen composition comprising a sunscreen delivery vehicle, wherein said particles have an internal surface area ranging from 10 m 2 /g to 150 m 2 /g and a porosity in the range from 30% to 85% as determined using a mercury intrusion porosimeter porosity determination protocol as described in ASTM D 4284-88, and wherein 60% or more of the particles have diameters that range from 0.01 to 20 μm.