mhurhangee/patent-ind-claim-en huggingface dataset:
A method of disinfecting a surface comprising contacting said surface with a composition comprising (i) an organic surfactant comprising a blend of saturated and unsaturated fatty acid salts selected from C 4 -C 24 saturated and unsaturated fatty acid salts, such that the blend comprises at least land up to 6% C 6 -C 10 fatty acids salts, and at least 30% C 12 -C 14 fatty acid salts; and an organic acid selected from the group consisting of citric acid, tartaric acid, lactic acid and malic acid or (ii) an organic surfactant derived from the saponification of one or more natural oils and comprising at least 1 and up to 6% caproic, caprylic and capric acid salts, and at least 30% lauric and myristic acid salts; and an organic acid selected from the group consisting of citric acid, tartaric acid, lactic acid and malic acid and wherein a biofilm is present on the surface. (i) an organic surfactant comprising a blend of saturated and unsaturated fatty acid salts selected from C 4 -C 24 saturated and unsaturated fatty acid salts, such that the blend comprises at least land up to 6% C 6 -C 10 fatty acids salts, and at least 30% C 12 -C 14 fatty acid salts; and an organic acid selected from the group consisting of citric acid, tartaric acid, lactic acid and malic acid or (ii) an organic surfactant derived from the saponification of one or more natural oils and comprising at least 1 and up to 6% caproic, caprylic and capric acid salts, and at least 30% lauric and myristic acid salts; and an organic acid selected from the group consisting of citric acid, tartaric acid, lactic acid and malic acid and wherein a biofilm is present on the surface.
Copper-tin continuous casting alloy which is lead-free, i.e. lead is not actively added as an alloying element and an impurity-related residual amount of lead of at most 0.10 wt.% is present, in particular for the production of machine parts or gear parts, such as in particular gear wheels, worm wheels, bushings or linear guide parts, or for the production of fittings for the conduction of fluids, comprising 3.0 - 8.0 wt.% tin, 1.5 - 6.0 wt.% zinc, 0.1 - 1.8 wt.% indium, 0.2 - 0.8 wt.% sulfur, wherein the sum of the weight percentage of tin and zinc is 5.0 - 12.0 wt.%, wherein the sum of the weight percentage of indium and sulfur is 0.5 - 2.0 wt.%, and further optionally comprising the following alloying elements up to 0.20 wt.% iron, up to 2.5 wt.% nickel, up to 0.30 wt.% antimony, up to 0.50 wt.% manganese, up to 0.3 wt.% phosphorus, and impurity-related elements in each case up to at most 0.10 wt.% and in total up to at most 0.5 wt.%, and the remainder copper. 3.0 - 8.0 wt.% tin, 1.5 - 6.0 wt.% zinc, 0.1 - 1.8 wt.% indium, 0.2 - 0.8 wt.% sulfur, wherein the sum of the weight percentage of tin and zinc is 5.0 - 12.0 wt.%, wherein the sum of the weight percentage of indium and sulfur is 0.5 - 2.0 wt.%, and further optionally comprising the following alloying elements up to 0.20 wt.% iron, up to 2.5 wt.% nickel, up to 0.30 wt.% antimony, up to 0.50 wt.% manganese, up to 0.3 wt.% phosphorus, and impurity-related elements in each case up to at most 0.10 wt.% and in total up to at most 0.5 wt.%, and the remainder copper.
A chemical mechanical polishing composition comprising: ceria-coated inorganic oxide particles; at least one polysorbate-type surfactant; at least one non-ionic organic molecule having multiple hydroxyl functional groups in the same molecule; water-soluble solvent; and optionally biocide; and optionally pH adjuster; wherein the composition has a pH selected from the group consisting of 3 to 10, 4 to 9, and 4.5 to 7.5. ceria-coated inorganic oxide particles; at least one polysorbate-type surfactant; at least one non-ionic organic molecule having multiple hydroxyl functional groups in the same molecule; water-soluble solvent; and optionally biocide; and optionally pH adjuster; wherein the composition has a pH selected from the group consisting of 3 to 10, 4 to 9, and 4.5 to 7.5.
Method for the control of a household appliance by a control apparatus , wherein the method comprises the following steps: - determining an operating parameter of the household appliance during an operating cycle by a detection facility ; - determining , on the basis of the determined operating parameter, a degree of achievement of a result to be obtained by the operating cycle of the household appliance by a processing facility ; and - outputting the determined degree of achievement by an output apparatus , characterised in that the result comprises one of a cleaning or a hygiene action and in that the operating cycle comprises a sequence of a plurality of treatment phases (210 - 230) and a premature transition from one treatment phase (210 - 230) to another can be controlled by a user . - determining an operating parameter of the household appliance during an operating cycle by a detection facility ; - determining , on the basis of the determined operating parameter, a degree of achievement of a result to be obtained by the operating cycle of the household appliance by a processing facility ; and - outputting the determined degree of achievement by an output apparatus , characterised in that the result comprises one of a cleaning or a hygiene action and in that the operating cycle comprises a sequence of a plurality of treatment phases (210 - 230) and a premature transition from one treatment phase (210 - 230) to another can be controlled by a user .
A computer system comprising a first processor unit , a second processor unit , and a processor synchronization system , said processor synchronization system comprising an internal synchronizer running on the first processor unit , wherein the internal synchronizer is configured to: communicate with an external synchronizer to determine whether an undesired amount of skew is present between the first processor unit and the second processor unit in communication with the external synchronizer , and selectively direct the first processor unit to perform an action without generating a needed result such that an undesired amount of skew between the first processor unit and the second processor unit is reduced when the undesired amount of skew is present, wherein the action removes a pre-scheduled idle time from the first processor unit , and wherein the first processor unit and the second processor unit are associated with each other for a high integrity mode in which integrity checks are performed on corresponding messages generated by the first processor unit and the second processor unit . communicate with an external synchronizer to determine whether an undesired amount of skew is present between the first processor unit and the second processor unit in communication with the external synchronizer , and selectively direct the first processor unit to perform an action without generating a needed result such that an undesired amount of skew between the first processor unit and the second processor unit is reduced when the undesired amount of skew is present, wherein the action removes a pre-scheduled idle time from the first processor unit , and wherein the first processor unit and the second processor unit are associated with each other for a high integrity mode in which integrity checks are performed on corresponding messages generated by the first processor unit and the second processor unit .
A sample preparation cartridge comprising: a filtration inlet well ; a filtration outlet well ; a filter ; a multi-way valve ; and a syringe , the syringe comprising: a barrel for receiving a fluid; a piston slidably located within the barrel; and an orifice for fluid flow into and out of the barrel , under the action of the piston , wherein the barrel is selectively fluidly connected to the multi-way valve via the orifice, wherein the filter is for filtering a fluid received from the barrel , wherein the filtration inlet well is selectively fluidly connected to the multi-way valve and wherein the filtration outlet well is selectively fluidly connected to the multi-way valve via the filter . a filtration inlet well ; a filtration outlet well ; a filter ; a multi-way valve ; and a syringe , the syringe comprising: a barrel for receiving a fluid; a piston slidably located within the barrel; and an orifice for fluid flow into and out of the barrel , under the action of the piston , a barrel for receiving a fluid; a piston slidably located within the barrel; and an orifice for fluid flow into and out of the barrel , under the action of the piston , wherein the barrel is selectively fluidly connected to the multi-way valve via the orifice, wherein the filter is for filtering a fluid received from the barrel , wherein the filtration inlet well is selectively fluidly connected to the multi-way valve and wherein the filtration outlet well is selectively fluidly connected to the multi-way valve via the filter .
A gas cushion device comprising: a cylinder ; a piston slidably fitted in the cylinder; a gas (G) enclosed in the cylinder to energize the piston; and an oil feeding mechanism configured to feed a lubricating oil (L) to a fitting portion (F1) between the cylinder and the piston, characterised in that an inner surface of the cylinder and an outer surface of the piston at the fitting portion (F1) are fitted in an interference fit state. a cylinder ; a piston slidably fitted in the cylinder; a gas (G) enclosed in the cylinder to energize the piston; and an oil feeding mechanism configured to feed a lubricating oil (L) to a fitting portion (F1) between the cylinder and the piston, characterised in that an inner surface of the cylinder and an outer surface of the piston at the fitting portion (F1) are fitted in an interference fit state.
A structure for mounting an LED thereon, comprising: a co-fired ceramic material ; and a leadframe structure , on the co-fired ceramic material, the leadframe structure including a portion thereof that integrates the leadframe structure with the co-fired ceramic material, wherein the portion of the leadframe structure is co-fired with the co-fired ceramic material, and the portion integrates the leadframe structure with the co-fired ceramic material so that constituent elements of the leadframe structure and the co-fired ceramic material mix with one another, wherein the leadframe structure comprises a protruding portion (805; 900; 1105) that extends beneath the upper surface of the co-fired ceramic material and is recessed within the co-fired ceramic material. a co-fired ceramic material ; and a leadframe structure , on the co-fired ceramic material, the leadframe structure including a portion thereof that integrates the leadframe structure with the co-fired ceramic material, wherein the portion of the leadframe structure is co-fired with the co-fired ceramic material, and the portion integrates the leadframe structure with the co-fired ceramic material so that constituent elements of the leadframe structure and the co-fired ceramic material mix with one another, wherein the leadframe structure comprises a protruding portion (805; 900; 1105) that extends beneath the upper surface of the co-fired ceramic material and is recessed within the co-fired ceramic material.
A method of manufacturing an absorbent structure comprising a substrate layer and superabsorbent particles, said method comprising the steps of: - providing an essentially endless substrate layer of fibrous non-woven material which is heat sensitive, wherein the non-woven material comprises binder fibres consisting of sheath-core bicomponent fibres, and carrier fibres consisting of polyester fibres; - applying heat to said substrate layer , wherein the substrate layer is heated to a temperature of between 80°C and 120°C such that an available volume for accommodating superabsorbent particles within the substrate layer is increased; and - depositing superabsorbent particles on said substrate layer . - providing an essentially endless substrate layer of fibrous non-woven material which is heat sensitive, wherein the non-woven material comprises binder fibres consisting of sheath-core bicomponent fibres, and carrier fibres consisting of polyester fibres; - applying heat to said substrate layer , wherein the substrate layer is heated to a temperature of between 80°C and 120°C such that an available volume for accommodating superabsorbent particles within the substrate layer is increased; and - depositing superabsorbent particles on said substrate layer .
A device control method, comprising: receiving (S11), by a main control device, a control instruction; sending (S12), by the main control device, a first signal to candidate controlled devices according to the control instruction; receiving (S13), by the main control device, second signals sent by the candidate controlled devices in response to the first signal, wherein the second signals carry transmit power values of the candidate controlled devices; determining (S14), by the main control device, a candidate controlled device corresponding to a minimum signal attenuation value as a target controlled device according to received power values for receiving the second signals by the main control device and the transmit power values of the candidate controlled devices carried in the second signals; and sending (S15), by the main control device, the control instruction to the target controlled device. receiving (S11), by a main control device, a control instruction; sending (S12), by the main control device, a first signal to candidate controlled devices according to the control instruction; receiving (S13), by the main control device, second signals sent by the candidate controlled devices in response to the first signal, wherein the second signals carry transmit power values of the candidate controlled devices; determining (S14), by the main control device, a candidate controlled device corresponding to a minimum signal attenuation value as a target controlled device according to received power values for receiving the second signals by the main control device and the transmit power values of the candidate controlled devices carried in the second signals; and sending (S15), by the main control device, the control instruction to the target controlled device.
A nanofluidic device for geometrical particle immobilization and trapping, preferably but not limited to, for rapid and multiplexed serological antibody detection, comprising: a) a channel wall defining by its surrounding structure a channel having a trapping section of decreasing cross-sectional area as seen in a flow direction of a fluid comprising the particles to be trapped dependent on their geometry; b) said trapping section being penetrated by a plurality of support columns; said columns supporting the channel wall from collapsing; c) said plurality of column supports are formed as free-standing columns in the material of the channel wall. a) a channel wall defining by its surrounding structure a channel having a trapping section of decreasing cross-sectional area as seen in a flow direction of a fluid comprising the particles to be trapped dependent on their geometry; b) said trapping section being penetrated by a plurality of support columns; said columns supporting the channel wall from collapsing; c) said plurality of column supports are formed as free-standing columns in the material of the channel wall.
Drilling device, in particular for directionally guided horizontal drilling, having a drilling ramp , having at least one anchoring means for anchoring the drilling device in the ground , wherein the anchoring means is introducible into the ground along an anchoring axis, wherein at least one connecting element protruding laterally from the drilling ramp is provided, and wherein the anchoring means is connected to the connecting element, characterized in that the connecting element has a cylindrical lateral surface which is partially enclosed by a connecting region of the anchoring means , wherein the connecting region has an opening, complementary to the cylindrical lateral surface of the connecting element , with a round cross section. having a drilling ramp , having at least one anchoring means for anchoring the drilling device in the ground , wherein the anchoring means is introducible into the ground along an anchoring axis, wherein at least one connecting element protruding laterally from the drilling ramp is provided, and wherein the anchoring means is connected to the connecting element, characterized in that the connecting element has a cylindrical lateral surface which is partially enclosed by a connecting region of the anchoring means , wherein the connecting region has an opening, complementary to the cylindrical lateral surface of the connecting element , with a round cross section.
A method of creating a passivation layer on an Anodic Alloy anode in an Al-air cell, the method comprising: providing to the Al-air cell an aqueous alkaline electrolyte containing an alkali metal or ammonium oxoanion salt additive at a concentration in the range 0.001-0.1M; controlling the operational conditions of the Al-air cell to a specific point, that comprises controlling at least two of the parameters: a specific temperature of the electrolyte, a specific negative potential of the anode with respect to the electrolyte and a specific current density drawn from the anode; when the operational condition parameters stabilize decreasing the drawn electrical current density from the Al-air cell to a first low current density thereby causing momentary lowering of the anode potential below a first negative voltage and a momentary raise of evolution rate of H 2 from the electrolyte followed, after a first period of time, by sharp drop of the H 2 evolution rate; and when the level of H 2 evolution stabilizes at low values and no later than a second period of time from the time the level of H 2 evolution rate lowered, drawing from the Al-air cell operational current. providing to the Al-air cell an aqueous alkaline electrolyte containing an alkali metal or ammonium oxoanion salt additive at a concentration in the range 0.001-0.1M; controlling the operational conditions of the Al-air cell to a specific point, that comprises controlling at least two of the parameters: a specific temperature of the electrolyte, a specific negative potential of the anode with respect to the electrolyte and a specific current density drawn from the anode; when the operational condition parameters stabilize decreasing the drawn electrical current density from the Al-air cell to a first low current density thereby causing momentary lowering of the anode potential below a first negative voltage and a momentary raise of evolution rate of H 2 from the electrolyte followed, after a first period of time, by sharp drop of the H 2 evolution rate; and when the level of H 2 evolution stabilizes at low values and no later than a second period of time from the time the level of H 2 evolution rate lowered, drawing from the Al-air cell operational current.
An attachment bracket for fastening a heat shield panel of a wheel assembly to a radially inner surface of a wheel, the bracket having an essentially Z-shaped structure comprising an attachment part in a first plane and a wheel connector part defining an outer contact surface in a second plane arranged to form, in use, a surface contact with the wheel when the heat shield panel is located in position relative to the wheel, where the first and second planes are essentially parallel but spaced apart in the axial direction of the wheel, and characterised by , the attachment part defining two inner contact surfaces in said first plane each shaped to form, in use, a surface contact with the radially outer surface of the heat shield panel, and a sloping connector part extending from the first plane to the second plane connecting a first end of the attachment part to a first end of the wheel connector part.
A furrow covering and levelling device for use with an agricultural soil cultivation machine , including a longitudinal frame device , which extends transversely to a travelling direction (F) of the agricultural soil cultivation machine , a plurality of tine elements , which are mounted along the frame device and with their respective lower free ends in an operating position (BP) of the agricultural soil cultivation machine , can be brought into contact with an area of arable land (A), wherein in the operating position (BP) of the agricultural soil cultivation machine , peripheral tine elements , which are mounted on the frame device on the very left or very right on an edge of the frame device or adjoining thereto, with their lower free ends protrude over the edge of the frame device in the direction of its longitudinal extent, characterised in that at least one peripheral tine element in a portion adjoining its mounting on the frame device is formed rod-shaped, wherein this peripheral tine element , emanating from the operating position (BP) of the agricultural soil cultivation machine , can be twisted about a preferentially upright-extending longitudinal axis (L) of a rod-shaped portion in order to thereby achieve for the agricultural soil cultivation machine a transport position (TP), in which the lower free end of the peripheral tine element does not laterally protrude over the associated edge of the frame device and/or is oriented in the direction of a centre (M) of the frame device .
An aircraft sensor network , the sensor network comprising: a plurality of wireless nodes (110A-C, 120A); wherein a first wireless node of the plurality of wireless nodes (110A-C, 120A) is arranged to receive, from a remote computing device located outside of an aircraft in which the aircraft sensor network is located in use, one or more replacement cryptographic keys and a control message to replace at least one of one or more cryptographic keys currently in use with at least one of the one or more replacement cryptographic keys, and to communicate the one or more replacement cryptographic keys to at least one other wireless node of the plurality of wireless nodes (110A-C, 120A) via a secure communications channel ; wherein the at least one other wireless node is arranged to perform an operation on the basis of the control message, the operation comprising a configuration operation to use at least one of the one or more replacement cryptographic keys in place of the at least one of one or more cryptographic keys currently in use; and wherein the first wireless node and the at least one other wireless node are located in a landing gear of the aircraft . a plurality of wireless nodes (110A-C, 120A); wherein a first wireless node of the plurality of wireless nodes (110A-C, 120A) is arranged to receive, from a remote computing device located outside of an aircraft in which the aircraft sensor network is located in use, one or more replacement cryptographic keys and a control message to replace at least one of one or more cryptographic keys currently in use with at least one of the one or more replacement cryptographic keys, and to communicate the one or more replacement cryptographic keys to at least one other wireless node of the plurality of wireless nodes (110A-C, 120A) via a secure communications channel ; wherein the at least one other wireless node is arranged to perform an operation on the basis of the control message, the operation comprising a configuration operation to use at least one of the one or more replacement cryptographic keys in place of the at least one of one or more cryptographic keys currently in use; and wherein the first wireless node and the at least one other wireless node are located in a landing gear of the aircraft .