mhurhangee/patent-ind-claim-en huggingface dataset:
A convertible children's walker device comprising: a seated walker portion ; and a standing walker portion ; wherein the standing walker portion is detachably mounted to the seated walker portion in a first seated-support mode wherein the standing walker portion is used in combination with the seated walker portion , and wherein the standing walker portion is detached from the seated walker portion in a standing-support mode of use independent of the seated walker portion ; characterized in that the standing walker portion comprises a front portion , left and right side portions , and an open rear section defining a generally U-shaped body having a clear space between the left and right side portions . a seated walker portion ; and a standing walker portion ; wherein the standing walker portion is detachably mounted to the seated walker portion in a first seated-support mode wherein the standing walker portion is used in combination with the seated walker portion , and wherein the standing walker portion is detached from the seated walker portion in a standing-support mode of use independent of the seated walker portion ; characterized in that the standing walker portion comprises a front portion , left and right side portions , and an open rear section defining a generally U-shaped body having a clear space between the left and right side portions .
Method for optimal use of solar energy in a building, the method comprising: - measuring the amount of local solar energy generation by means of a digital meter, - monitoring energy consumption in the building by means of the digital meter, characterized in that the method furthermore comprises - determining the difference between the energy consumption and the generated solar energy by subtracting the generated solar energy from the energy consumption which results in the available energy level (E A ), and monitoring that difference, - sending signals from the digital meter to a gateway, the signals being indicative of the available energy level (E A ), - monitoring the available energy level (E A ), and - upon monitoring that the available energy level (E A ) is below a predetermined threshold (E TH ) for at least a predetermined time duration (T SET ), sending a signal from the gateway to a first electric or electronic appliance for activating the first electric or electronic appliance, the predetermined threshold (E TH ) and the predetermined time duration (T SET ) being programmed in the gateway. - measuring the amount of local solar energy generation by means of a digital meter, - monitoring energy consumption in the building by means of the digital meter, characterized in that the method furthermore comprises - determining the difference between the energy consumption and the generated solar energy by subtracting the generated solar energy from the energy consumption which results in the available energy level (E A ), and monitoring that difference, - sending signals from the digital meter to a gateway, the signals being indicative of the available energy level (E A ), - monitoring the available energy level (E A ), and - upon monitoring that the available energy level (E A ) is below a predetermined threshold (E TH ) for at least a predetermined time duration (T SET ), sending a signal from the gateway to a first electric or electronic appliance for activating the first electric or electronic appliance, the predetermined threshold (E TH ) and the predetermined time duration (T SET ) being programmed in the gateway.
A process for removal of plastics from a lipid material, the process comprising the steps of: a) heating the lipid material, b) adding water to the lipid material, wherein the amount of added water is 0.1% to 5% (wt%) wherein the added water does not comprise an acid, c) allowing efficient contact of water and lipids to enable impurities to transfer to water phase, d) separating the lipid material from step c) by centrifugation, settling, decanting or evaporating, e) subjecting the separated lipid material from step d) to a filtration step to remove solid impurities, f) optionally subjecting the lipid material from step d) or filtrate from step e) to a post treatment to thereby remove plastics in the lipid material. a) heating the lipid material, b) adding water to the lipid material, wherein the amount of added water is 0.1% to 5% (wt%) wherein the added water does not comprise an acid, c) allowing efficient contact of water and lipids to enable impurities to transfer to water phase, d) separating the lipid material from step c) by centrifugation, settling, decanting or evaporating, e) subjecting the separated lipid material from step d) to a filtration step to remove solid impurities, f) optionally subjecting the lipid material from step d) or filtrate from step e) to a post treatment
Electrode material, preferably an inert anode material, comprising at least a metal core and a cermet material, said metal core being at least covered by said cermet material and said cermet material forming an outer layer of said electrode material which is designed to be in contact with an electrolysis bath, characterized in that : - said metal core contains at least one nickel (Ni) and iron (Fe) alloy, the proportions by weight of Ni and Fe being as follows: • 40% ≤ Ni ≤ 85%, preferably 55% ≤ Ni ≤ 80%, • 15% ≤ Fe ≤ 60%, preferably 20% ≤ Fe ≤ 45%, - said cermet material comprises at least as percentages by weight: • 45 to 80% of a nickel ferrite oxide phase of composition Ni x Fe y M z O 4 with 0.60 ≤ x ≤ 0.90; 1.90 ≤ y ≤ 2.40; 0.00 ≤ z ≤ 0.20 and M being a metal selected from aluminum (Al), cobalt (Co), chromium (Cr), manganese (Mn), titanium (Ti), zirconium (Zr), tin (Sn), vanadium (V), niobium (Nb), tantalum (Ta) and hafnium (Hf) or being a combination of these metals, • 15 to 45% of a metallic phase comprising at least one nickel-copper alloy. - said metal core contains at least one nickel (Ni) and iron (Fe) alloy, the proportions by weight of Ni and Fe being as follows: • 40% ≤ Ni ≤ 85%, preferably 55% ≤ Ni ≤ 80%, • 15% ≤ Fe ≤ 60%, preferably 20% ≤ Fe ≤ 45%, • 40% ≤ Ni ≤ 85%, preferably 55% ≤ Ni ≤ 80%, • 15% ≤ Fe ≤ 60%, preferably 20% ≤ Fe ≤ 45%, - said cermet material comprises at least as percentages by weight: • 45 to 80% of a nickel ferrite oxide phase of composition Ni x Fe y M z O 4 with 0.60 ≤ x ≤ 0.90; 1.90 ≤ y ≤ 2.40; 0.00 ≤ z ≤ 0.20 and M being a metal selected from aluminum (Al), cobalt (Co), chromium (Cr), manganese (Mn), titanium (Ti), zirconium (Zr), tin (Sn), vanadium (V), niobium (Nb), tantalum (Ta) and hafnium (Hf) or being a combination of these metals, • 15 to 45% of a metallic phase comprising at least one nickel-copper alloy. • 45 to 80% of a nickel ferrite oxide phase of composition Ni x Fe y M z O 4 with 0.60 ≤ x ≤ 0.90; 1.90 ≤ y ≤ 2.40; 0.00 ≤ z ≤ 0.20 and M being a metal selected from aluminum (Al), cobalt (Co), chromium (Cr), manganese (Mn), titanium (Ti), zirconium (Zr), tin (Sn), vanadium (V), niobium (Nb), tantalum (Ta) and hafnium (Hf) or being a combination of these metals, • 15 to 45% of a metallic phase comprising at least one nickel-copper alloy.
A pneumatic tire which has an electronic component provided therein, wherein the electronic component is provided outwards of the carcass in the tire axial direction, and the rubber member having the largest thickness in the tire axial direction among the rubber members disposed outwards of the electronic component in the tire axial direction contains 20 parts by mass or more of silica with respect to 100 parts by mass of the rubber component, characterized in that the rubber member having the largest thickness in the tire axial direction is a clinch . wherein the electronic component is provided outwards of the carcass in the tire axial direction, and the rubber member having the largest thickness in the tire axial direction among the rubber members disposed outwards of the electronic component in the tire axial direction contains 20 parts by mass or more of silica with respect to 100 parts by mass of the rubber component, characterized in that the rubber member having the largest thickness in the tire axial direction is a clinch .
A method for assembling polynucleic acids comprising: providing at least two DNA truncated parts; ligating a DNA modified linker having an internucleotide modification resistant to nuclease cleavage to both ends of each DNA truncated part to form at least two part-linker fusions; isolating the part-linker fusions using an exonuclease; and joining the isolated part-linker fusions to form a polynucleic acid sequence. providing at least two DNA truncated parts; ligating a DNA modified linker having an internucleotide modification resistant to nuclease cleavage to both ends of each DNA truncated part to form at least two part-linker fusions; isolating the part-linker fusions using an exonuclease; and joining the isolated part-linker fusions to form a polynucleic acid sequence.
A peristaltic pump for a device (V) for extracorporeal blood treatment, having - a rotor , which can be rotated about a rotor axis (R) and has a main rotor body , and - a pump housing having a receiving recess , in which the rotor is received and which has a support surface that extends arcuately around the rotor axis (R), is spaced apart radially from the rotor and is configured to support a hose segment that can be introduced radially between the rotor and the support surface , - wherein the rotor has at least one first actuation element , which is configured for manual rotary actuation of the rotor about the rotor axis (R) and which has at least one first actuation section for applying a manual rotary actuation force (F), - characterized in that the first actuation element is mounted at least indirectly on the main rotor body and at least some section or sections thereof can be moved relative to the main rotor body between a first actuation position, in which the first actuation section is spaced apart from the rotor axis (R) by a first lever arm length (H1), and a second actuation position, in which the first actuation section is spaced apart from the rotor axis (R) by a second lever arm length (H2), wherein the second lever arm length (H2) is greater than the first lever arm length (H1). - a rotor , which can be rotated about a rotor axis (R) and has a main rotor body , and - a pump housing having a receiving recess , in which the rotor is received and which has a support surface that extends arcuately around the rotor axis (R), is spaced apart radially from the rotor and is configured to support a hose segment that can be introduced radially between the rotor and the support surface , - wherein the rotor has at least one first actuation element , which is configured for manual rotary actuation of the rotor about the rotor axis (R) and which has at least one first actuation section for applying a manual rotary actuation force (F), - characterized in that the first actuation element is mounted at least indirectly on the main rotor body and at least some section or sections thereof can be moved relative to the main rotor body between a first actuation position, in which the first actuation section is spaced apart from the rotor axis (R) by a first lever arm length (H1), and a second actuation position, in which the first actuation section is spaced apart from the rotor axis (R) by a second lever arm length (H2), wherein the second lever arm length (H2) is greater than the first lever arm length (H1).
A device comprising: (a) a housing , said housing having at least one light receptacle for receiving and providing power to one or more light units ; (b) a connection for receiving power from an external power source; (c) one or more interfaces configured to connect to one or more powered devices ; (d) a power over Ethernet power sourcing device within said housing , said power over Ethernet power sourcing device operatively connected to said connection for receiving power from the external power source and selectively configured to output power and data over an Ethernet connection to one or more of said interfaces , wherein said one or more interfaces comprise one or more external peripheral bus receptacles to which one or more external powered devices may be operatively connected, the one or more external peripheral bus receptacles being located on said housing ; characterised in that the device further comprises: (e) a wireless telecommunications device within said housing , said wireless telecommunications device having a data connection to said power over Ethernet power sourcing device and a power input connection for receiving power; and (f) a microcontroller unit within said housing , said microcontroller unit having a data connection and a power connection to said power over Ethernet power sourcing device , said microcontroller unit configured for controlling the power and data channeled to said one or more interfaces of said power over Ethernet power sourcing device , wherein said one or more interfaces further comprise one or more internal peripheral bus receptacles located within said housing. (a) a housing , said housing having at least one light receptacle for receiving and providing power to one or more light units ; (b) a connection for receiving power from an external power source; (c) one or more interfaces configured to connect to one or more powered devices ; (d) a power over Ethernet power sourcing device within said housing , said power over Ethernet power sourcing device operatively connected to said connection for receiving power from the external power source and selectively configured to output power and data over an Ethernet connection to one or more of said interfaces , wherein said one or more interfaces comprise one or more external peripheral bus receptacles to which one or more external powered devices may be operatively connected, the one or more external peripheral bus receptacles being located on said housing ; (e) a wireless telecommunications device within said housing , said wireless telecommunications device having a data connection to said power over Ethernet power sourcing device and a power input connection for receiving power; and (f) a microcontroller unit within said housing , said microcontroller unit having a data connection and a power connection to said power over Ethernet power sourcing device , said microcontroller unit configured for controlling the power and data channeled to said one or more interfaces of said power over Ethernet power sourcing device , wherein said one or more interfaces further comprise one or more internal peripheral bus receptacles located within said housing.
A fluid delivery system, comprising: a variable volume container having a flexible wall ; a fluid located in said variable volume container ; an amount of gas enclosed in a volume , said amount of gas exerting an amount of pressure on an exterior surface of said flexible wall of said variable volume container ; a conduit having a flow path fluidicly coupled to said fluid located in said variable volume container ; a fluid stream generated in said flow path in response to said amount of pressure exerted by said amount of gas on said exterior surface of said flexible wall of said variable volume container ; and a microfluidic device coupled to said conduit to receive said fluid stream , wherein said amount of gas can be adjusted to generate a sufficient amount of pressure on said exterior surface of said flexible wall of said variable volume container to generate a fluid stream within the flow path of said conduit having a fluid pressure of between 0.69 bar and 13.79 bar. a variable volume container having a flexible wall ; a fluid located in said variable volume container ; an amount of gas enclosed in a volume , said amount of gas exerting an amount of pressure on an exterior surface of said flexible wall of said variable volume container ; a conduit having a flow path fluidicly coupled to said fluid located in said variable volume container ; a fluid stream generated in said flow path in response to said amount of pressure exerted by said amount of gas on said exterior surface of said flexible wall of said variable volume container ; and a microfluidic device coupled to said conduit to receive said fluid stream , wherein said amount of gas can be adjusted to generate a sufficient amount of pressure on said exterior surface of said flexible wall of said variable volume container to generate a fluid stream within the flow path of said conduit having a fluid pressure of between 0.69 bar and 13.79 bar.
A method of forming a ceramic matrix composite structure, comprising: forming at least one prepregged composite material comprising a ceramic fiber preform and a pre-ceramic matrix slurry; placing the at least one prepregged composite material over at least one surface of a tool using an advanced fiber placement apparatus to form an at least partially uncured composite material structure, the advanced fiber placement apparatus comprising: at least one reel wound with the at least one prepregged composite material ; and a placement head configured and operated to draw the at least one prepregged composite material from the at least one reel , to align and place at least a portion the at least one prepregged composite material on or over the at least one surface of the tool , to cut the prepregged composite material following placement, and to re-thread the prepregged composite material ; and exposing the at least partially uncured composite material structure at least to elevated temperatures to convert the at least partially uncured composite material structure into a ceramic matrix composite structure. forming at least one prepregged composite material comprising a ceramic fiber preform and a pre-ceramic matrix slurry; placing the at least one prepregged composite material over at least one surface of a tool using an advanced fiber placement apparatus to form an at least partially uncured composite material structure, the advanced fiber placement apparatus comprising: at least one reel wound with the at least one prepregged composite material ; and a placement head configured and operated to draw the at least one prepregged composite material from the at least one reel , to align and place at least a portion the at least one prepregged composite material on or over the at least one surface of the tool , to cut the prepregged composite material following placement, and to re-thread the prepregged composite material ; and at least one reel wound with the at least one prepregged composite material ; and a placement head configured and operated to draw the at least one prepregged composite material from the at least one reel , to align and place at least a portion the at least one prepregged composite material on or over the at least one surface of the tool , to cut the prepregged composite material following placement, and to re-thread the prepregged composite material ; and exposing the at least partially uncured composite material structure at least to elevated temperatures to convert the at least partially uncured composite material structure into a ceramic matrix composite structure.
Method of optical measurement of parameters of a froth flotation substance involved in a froth flotation process, the froth flotation substance comprising collector molecules, the collector molecules being adapted for binding to mineral particles contained within the froth flotation substance for increasing a hydrophobicity of a surface of said mineral particles, the method comprising the steps of: (a) adding in a predetermined amount indicator molecules to at least part of the froth flotation substance , i.e. the pulp, wherein said indicator molecules are adapted for specifically binding to the collector molecules within the froth flotation substance , and wherein the indicator molecules are chosen such that a binding reaction between said indicator molecules and the collector molecules involves a detectable change of an optical absorption spectrum of said indicator molecules; hereinafter (b) measuring by means of measurement light from a light emitting unit at least part of said optical absorption spectrum of said indicator molecules within the froth flotation substance ; and hereinafter (c) determining from the measured part of the optical absorption spectrum of said indicator molecules an amount or a concentration of residual collector molecules in the froth flotation substance . (a) adding in a predetermined amount indicator molecules to at least part of the froth flotation substance , i.e. the pulp, wherein said indicator molecules are adapted for specifically binding to the collector molecules within the froth flotation substance , and wherein the indicator molecules are chosen such that a binding reaction between said indicator molecules and the collector molecules involves a detectable change of an optical absorption spectrum of said indicator molecules; hereinafter (b) measuring by means of measurement light from a light emitting unit at least part of said optical absorption spectrum of said indicator molecules within the froth flotation substance ; and hereinafter (c) determining from the measured part of the optical absorption spectrum of said indicator molecules an amount or a concentration of residual collector molecules in the froth flotation substance .
A computer-implemented method that when executed on data processing hardware of a user device causes the user device to perform operations comprising: generating an automated speech recognition (ASR) request, the ASR request comprising: a speech input captured by the user device that includes a voice query; and content metadata associated with the speech input, the content metadata generated by the user device ; receiving on-device processing instructions from a server-side query processing stack ; determining whether the server-side query processing stack is overloaded; and when the server-side query processing stack is overloaded, executing the on-device processing instructions to identify one or more criteria for locally processing at least a portion of any new speech inputs captured by the user device . generating an automated speech recognition (ASR) request, the ASR request comprising: a speech input captured by the user device that includes a voice query; and content metadata associated with the speech input, the content metadata generated by the user device ; a speech input captured by the user device that includes a voice query; and content metadata associated with the speech input, the content metadata generated by the user device ; receiving on-device processing instructions from a server-side query processing stack ; determining whether the server-side query processing stack is overloaded; and when the server-side query processing stack is overloaded, executing the on-device processing instructions to identify one or more criteria for locally processing at least a portion of any new speech inputs captured by the user device .