mhurhangee/ep-ind-claims huggingface dataset:
A method to manage, at a centralized controller entity, control plane functions on behalf of a distributed gateway entity that manages user plane functions and Internet protocol addresses for a host that is linked with a distributed gateway entity via a first host-specific tunnel, comprising: controlling the distributed gateway entity in terms of Internet protocol address management via a second host-specific tunnel on the basis of the managed Internet protocol addresses for the host comprising: receiving from the distributed gateway entity, Router Solicitation messages that are separated from inspected traffic of the host linked with the distributed gateway entity, and allocating an IPv6 prefix for the host, and sending Router Advertisement messages in the second tunnel to the distributed gateway entity back to the host. controlling the distributed gateway entity in terms of Internet protocol address management via a second host-specific tunnel on the basis of the managed Internet protocol addresses for the host comprising: receiving from the distributed gateway entity, Router Solicitation messages that are separated from inspected traffic of the host linked with the distributed gateway entity, and allocating an IPv6 prefix for the host, and receiving from the distributed gateway entity, Router Solicitation messages that are separated from inspected traffic of the host linked with the distributed gateway entity, and allocating an IPv6 prefix for the host, and sending Router Advertisement messages in the second tunnel to the distributed gateway entity back to the host.
A medical device, comprising: a shaft; a first tool extending from a distal end of the shaft; and a control assembly coupled to the shaft, the control assembly including: a console, a first grip extending proximally from the console; a second grip extending proximally from the console: a first deflection actuator configured to deflect the first tool about a longitudinal axis of the first tool; characterized by a first actuation assembly extending from the first deflection actuator to the first tool, wherein: the first actuation assembly includes an actuating member extending through one or more lumens of the first actuation assembly; the first actuation assembly further includes a first elongate member, and a second elongate member coupled to a distal end of the first elongate member, and the actuating member extends through respective lumens of the first elongate member and the second elongate member. a shaft; a first tool extending from a distal end of the shaft; and a control assembly coupled to the shaft, the control assembly including: a console, a first grip extending proximally from the console; a second grip extending proximally from the console: a first deflection actuator configured to deflect the first tool about a longitudinal axis of the first tool; characterized by a first actuation assembly extending from the first deflection actuator to the first tool, wherein: the first actuation assembly includes an actuating member extending through one or more lumens of the first actuation assembly; the first actuation assembly further includes a first elongate member, and a second elongate member coupled to a distal end of the first a console, a first grip extending proximally from the console; a second grip extending proximally from the console: a first deflection actuator configured to deflect the first tool about a longitudinal axis of the first tool; characterized by a first actuation assembly extending from the first deflection actuator to the first tool, wherein: the first actuation assembly includes an actuating member extending through one or more lumens of the first actuation assembly; the first actuation assembly further includes a first elongate member, and a second elongate member coupled to a distal end of the first a first deflection actuator configured to deflect the first tool about a longitudinal axis of the first tool; characterized by a first actuation assembly extending from the first deflection actuator to the first tool, wherein: the first actuation assembly includes an actuating member extending through one or more lumens of the first actuation assembly; the first actuation assembly further includes a first elongate member, and a second elongate member coupled to a distal end of the first the first actuation assembly includes an actuating member extending through one or more lumens of the first actuation assembly; the first actuation assembly further includes a first elongate member, and a second elongate member coupled to a distal end of the first elongate member, and the actuating member extends through respective lumens of the first elongate member and the second elongate member.
A method of cleaning a region in an industrial environment using at least one industrial robot (12; 12a-12g), the method comprising: - obtaining radiation from the region by means of a sensor device (26; 26a, 26b); - providing sensor data based on the radiation, the sensor data being indicative of a cleanliness of one or more surfaces (60a-60c) in the region; and - performing a cleaning process to clean the region, the cleaning process comprising applying cleaning media (34a, 34b) from a cleaning device to the one or more surfaces (60a-60c), and the cleaning process being performed based on the sensor data, wherein the industrial robot (12, 12a-12g) carries the sensor device (26; 26a, 26b) and/or the cleaning device. - obtaining radiation from the region by means of a sensor device (26; 26a, 26b); - providing sensor data based on the radiation, the sensor data being indicative of a cleanliness of one or more surfaces (60a-60c) in the region; and - performing a cleaning process to clean the region, the cleaning process comprising applying cleaning media (34a, 34b) from a cleaning device to the one or more surfaces (60a-60c), and the cleaning process being performed based on the sensor data,
A layer system for the formation of a surface layer on a surface of a substrate, in particular on the surface of a shaping tool, characterized in that the layer system includes at least one first surface layer of the composition - (V 97 Zr 3) α β - (V 97 Zr 3) α (N 50 C 50) β - (V 95 Ni 5) α (N 65 C 30 O 5) β - (V 96 Ce 4) α (N 25 C 65 O 10) β - (V 97 Zr 1 Si 1 B 1) α β, with the sum of all atoms in the layer (α + β) = 100 at%, where 40 ≤ α ≤ 80 at% applies. - (V 97 Zr 3) α β - (V 97 Zr 3) α (N 50 C 50) β - (V 95 Ni 5) α (N 65 C 30 O 5) β - (V 96 Ce 4) α (N 25 C 65 O 10) β - (V 97 Zr 1 Si 1 B 1) α β, with the sum of all atoms in the layer (α + β) = 100 at%, where 40 ≤ α ≤ 80 at% applies.
A flame retardant composition, comprising: 55% to 85% by weight of a blended matrix, the blended matrix comprising: a compatibilizer; a polyolefin component; and a nitrogen-containing polymer component, the nitrogen-containing polymer component having a melting temperature of less than 240 °C; and 15% to 45% by weight of a flame retardant package distributed within the blended matrix, the flame retardant package comprising: an acid source; a carbon source; a polyoxometalate ionic liquid; and a synergist. 55% to 85% by weight of a blended matrix, the blended matrix comprising: a compatibilizer; a polyolefin component; and a nitrogen-containing polymer component, the nitrogen-containing polymer component having a melting temperature of less than 240 °C; and a compatibilizer; a polyolefin component; and a nitrogen-containing polymer component, the nitrogen-containing polymer component having a melting temperature of less than 240 °C; and 15% to 45% by weight of a flame retardant package distributed within the blended matrix, the flame retardant package comprising: an acid source; a carbon source; a polyoxometalate ionic liquid; and a synergist. an acid source; a carbon source; a polyoxometalate ionic liquid; and a synergist.
A system for ultrasonic bonding of elastic laminates comprising: a rotating roll having an axis of rotation and an exterior surface, the exterior surface formed radially about the axis of rotation of the rotating roll and comprising one or more roll anchoring mechanisms, and a removable shell layer comprising one or more patterned segments configured to removably attach to at least a portion of the exterior surface of the rotating roll, wherein the one or more patterned segments comprise a plurality of shell channels (152, 154, 156, 158) formed through the removable shell layer to form a pattern, and the one or more patterned segments comprising an anchoring mechanism configured to anchor and fasten each patterned segment to at least one of the one or more roll anchoring mechanisms of the rotating roll. a rotating roll having an axis of rotation and an exterior surface, the exterior surface formed radially about the axis of rotation of the rotating roll and comprising one or more roll anchoring mechanisms, and a removable shell layer comprising one or more patterned segments configured to removably attach to at least a portion of the exterior surface of the rotating roll, wherein the one or more patterned segments comprise a plurality of shell channels (152, 154, 156, 158) formed through the removable shell layer to form a pattern, and the one or more patterned segments comprising an anchoring mechanism configured to anchor and fasten each patterned segment to at least one of the one or more roll anchoring mechanisms of the rotating roll.
A non-burning type flavor inhaler comprising: an atomizing unit having an atomizer configured to atomize an aerosol source without burning, a flavor source provided on a mouthpiece side compared to the atomizing unit, an acid source configured to release an acid, an aerosol flow path configured to guide an aerosol generated from the atomizing unit to the mouthpiece side, and an acid flow path configured to guide the acid released from the acid source to the mouthpiece side without passing through the atomizer, wherein the aerosol flow path includes at least a first flow path configured to guide the aerosol to the mouthpiece side while passing through the flavor source, and the acid flow path is a flow path configured to guide an acid to the mouthpiece side while passing through the flavor source. an atomizing unit having an atomizer configured to atomize an aerosol source without burning, a flavor source provided on a mouthpiece side compared to the atomizing unit, an acid source configured to release an acid, an aerosol flow path configured to guide an aerosol generated from the atomizing unit to the mouthpiece side, and an acid flow path configured to guide the acid released from the acid source to the mouthpiece side without passing through the atomizer, wherein the aerosol flow path includes at least a first flow path configured to guide the aerosol to the mouthpiece side while passing through the flavor source, and the acid flow path is a flow path configured to guide an acid to the mouthpiece side while passing through the flavor source.
Cosmetic composition for the oxidant-free and mordant-free dyeing of keratinous fibers, in particular human hair, with natural dyes, containing: i. at least one coloring extract from a dye wood, ii. Water, iii. a buffer system selected from a mixture of a moderately strong or weak acid with its conjugate or corresponding base (or the respective salt) and a mixture of a moderately strong or weak base with its conjugate or corresponding acid, iv. wherein the composition has a pH value in the range of 3 - 5.9, measured at 20°C, wherein the composition contains no mordant selected from the salts magnesium, calcium, aluminum, transition metals and lanthanides, no cysteine, no N-acetylcysteine, no oxidation dye precursor and no fatty substances which have a water solubility of at most 0.01 g/l at 20°C. i. at least one coloring extract from a dye wood, ii. Water, iii. a buffer system selected from a mixture of a moderately strong or weak acid with its conjugate or corresponding base (or the respective salt) and a mixture of a moderately strong or weak base with its conjugate or corresponding acid, iv. wherein the composition has a pH value in the range of 3 - 5.9, measured at 20°C,
A capacitive transducer, comprising an element which has multiple kinds of cells including first cell group and second cell group, each cell comprising: a first electrode (8, 32); and a vibrating film (13, 14) comprising a second electrode (11, 12, 36), the second electrode (11, 12, 36) being opposed to the first electrode (8, 32) with a gap (9, 38) therebetween; wherein the multiple kinds of cells have different ratios of an area of one of the first electrode (8, 32) and the second electrode (11, 12, 36) to an area of the gap (9, 38) when viewed from a normal direction of the vibrating film (13, 14), wherein the first electrodes (8, 32) or the second electrodes (11, 12, 36) in the multiple kinds of cells are electrically connected together, characterized in that the vibrating films of the first cell group each have a larger spring constant than the vibrating films of the second cell group, and the ratio of the area of the one of the first electrode and the second electrode to the area of the gap in a cell of the first cell group is larger than the ratio of the area of the one of the first electrode and the second electrode to the area of the gap in a cell of the second cell group. a first electrode (8, 32); and a vibrating film (13, 14) comprising a second electrode (11, 12, 36), the second electrode (11, 12, 36) being opposed to the first electrode (8, 32) with a gap (9, 38) therebetween; wherein the multiple kinds of cells have different ratios of an area of one of the first electrode (8, 32) and the second electrode (11, 12, 36) to an area of the gap (9, 38) when viewed from a normal direction of the vibrating film (13, 14), wherein the first electrodes (8, 32) or the second electrodes (11, 12, 36) in the multiple kinds of cells are electrically connected together, characterized in that the vibrating films of the first cell group each have a larger spring constant than the vibrating films of the second cell group, and the ratio of the area of the one of the first electrode and the second electrode to the area of the gap in a cell of the first cell group is larger than the ratio of the area of the one of the first electrode and the second electrode to the area of the gap in a cell of the second cell group.
A method of operating a kitchen appliance, the method comprising the steps of: receiving at a processor a stored sequence of user settings and a stored sequence of a recorded parameter; segmenting at the processor the stored sequence of the recorded parameter into preparation segments, the stored sequence of recorded parameter being segmented by detecting changes in the stored sequence of the recorded parameter; applying at the processor the stored sequence of user settings to the kitchen appliance; with a sensor, sensing a sensed parameter while the stored sequence of user settings is applied to the kitchen appliance; determining at the processor a difference between the sensed parameter and a corresponding recorded parameter of the stored sequence of the recorded parameter; and if the determined difference between the sensed parameter and the corresponding recorded parameter exceeds a difference threshold, adjusting at the processor at least one user setting applied. receiving at a processor a stored sequence of user settings and a stored sequence of a recorded parameter; segmenting at the processor the stored sequence of the recorded parameter into preparation segments, the stored sequence of recorded parameter being segmented by detecting changes in the stored sequence of the recorded parameter; applying at the processor the stored sequence of user settings to the kitchen appliance; with a sensor, sensing a sensed parameter while the stored sequence of user settings is applied to the kitchen appliance; determining at the processor a difference between the sensed parameter and a corresponding recorded parameter of the stored sequence of the recorded parameter; and if the determined difference between the sensed parameter and the corresponding recorded parameter exceeds a difference threshold, adjusting at the processor at least one user setting applied.
An electronic device comprising an RF-LDMOS transistor and a protection circuit for the RF-LDMOS transistor, the protection circuit comprising: - an input terminal (Ni) coupled to a drain terminal (Drn) of the RF-LDMOS transistor, - a clipping node (Nc), - a rectifying element (D1, D2) connected with its anode terminal to the input terminal (Ni) and with its cathode terminal to the clipping node (Nc), - a clipping circuit coupled to the clipping node (Nc) for substantially keeping the voltage on the clipping node (Nc) at a predefined reference voltage for keeping the rectifying element (D1,D2) inversely biased during normal mode of operation of the RF-LDMOS transistor, wherein the predefined reference voltage is designed to be larger than the operation voltage on the drain terminal (Drn) and lower than a trigger voltage of a parasitic bipolar transistor that is inherently present in the RF-LDMOS transistor, and - a capacitance (Ct) coupled between the clipping node (Nc) and a further reference voltage terminal (Gnd), wherein, during normal RF operation, the voltage across the capacitance (Ct) is substantially equal to the predefined reference voltage (Vref). - an input terminal (Ni) coupled to a drain terminal (Drn) of the RF-LDMOS transistor, - a clipping node (Nc), - a rectifying element (D1, D2) connected with its anode terminal to the input terminal (Ni) and with its cathode terminal to the clipping node (Nc), - a clipping circuit coupled to the clipping node (Nc) for substantially keeping the voltage on the clipping node (Nc) at a predefined reference voltage for keeping the rectifying element (D1,D2) inversely biased during normal mode of operation of the RF-LDMOS transistor, wherein the predefined reference voltage is designed to be larger than the operation voltage on the drain terminal (Drn) and lower than a trigger voltage of a parasitic bipolar transistor that is inherently present in the RF-LDMOS transistor, and - a capacitance (Ct) coupled between the clipping node (Nc) and a further reference voltage terminal (Gnd), wherein, during normal RF operation, the voltage across the capacitance (Ct) is substantially equal to the predefined reference voltage (Vref).
Method for the quantitative and/or qualitative determination of virus particles containing at least one binding site for a capture molecule and at least one binding site for a probe comprising the following steps: a) immobilising capture molecules on a substrate, b) contacting the virus particles with the capture molecules, wherein the capture molecules are covalently bound to the substrate, c) immobilising the virus particles on the substrate by binding to capture molecules, d) contacting the virus particles with the probes; and e) binding the probes to the virus particles, wherein the probes comprise a virus particle-affine molecule or molecule part which recognises and binds to a binding site of the virus particle, wherein said probes are capable of emitting a specific signal, and steps b) and d) may occur simultaneously or d) may occur prior to b), wherein a spatially resolved determination of the probe signal is carried out, wherein the detection is carried out by means of spatially resolving fluorescence microscopy, wherein TIRF is used for detection. a) immobilising capture molecules on a substrate, b) contacting the virus particles with the capture molecules, wherein the capture molecules are covalently bound to the substrate, c) immobilising the virus particles on the substrate by binding to capture molecules, d) contacting the virus particles with the probes; and e) binding the probes to the virus particles, wherein the probes comprise a virus particle-affine molecule or molecule part which recognises and binds to a binding site of the virus particle, wherein said probes are capable of emitting a specific signal, and steps b) and d) may occur simultaneously or d) may occur prior to b), wherein a spatially resolved determination of the probe signal is carried out, wherein the detection is carried out by means of spatially resolving fluorescence microscopy, wherein TIRF is used for detection.
A Pseudomonas fluorescens cell comprising: at least one nucleic acid construct encoding a recombinant polypeptide operably linked to a carbon source inducible promoter selected from the group consisting of: (a) the nucleotide sequence set forth in SEQ ID NO: 9; (b) the nucleotide sequence set forth in SEQ ID NO 12; (c) a nucleotide sequence having at least 95% sequence identity with the nucleotide sequence set forth in SEQ ID NO: 9; and (d) a nucleotide sequence having at least 95% sequence identity to the nucleotide sequence set forth in SEQ ID NO: 12; wherein the Pseudomonas fluorescens cell has been genetically altered to inhibit the metabolism or degradation of mannitol; and wherein the nucleic acid construct further comprises a nucleic acid sequence that acts as an mtl activator protein binding region. (a) the nucleotide sequence set forth in SEQ ID NO: 9; (b) the nucleotide sequence set forth in SEQ ID NO 12; (c) a nucleotide sequence having at least 95% sequence identity with the nucleotide sequence set forth in SEQ ID NO: 9; and (d) a nucleotide sequence having at least 95% sequence identity to the nucleotide sequence set forth in SEQ ID NO: 12; wherein the Pseudomonas fluorescens cell has been genetically altered to inhibit the metabolism or degradation of mannitol; and wherein the nucleic acid construct further comprises a nucleic acid sequence that acts as an mtl activator protein binding region.
Cooling device for a synthetic thread, in particular a twisted thread within a texturing zone, having an elongated cooling body, which has an open cooling groove for guiding the thread, the cooling groove being connected via a metering opening in the groove base (4.1, 4.2) to a metering device for supplying a cooling fluid, characterized in that the cooling body has at a thread inlet at least one ceramic insert (3.1), which forms a rippled groove base (4.1) within the cooling groove and on the surface of which the thread can be led with contact, the metering opening being assigned to the ceramic insert (3.1).
A layer system comprising - at least one adhesion promoter layer (2a, 2b); and - a plurality of functional layers (3, 4, 5, 6) arranged on the at least one adhesion promoter layer (2a, 2b), wherein each functional layer (3, 4, 5, 6) comprises a first nanolayer (3a, 4a, 5a, 6a) made of a first metal nitride comprising a first metal component and a metallic second nanolayer (3b, 4b, 5b, 6b), wherein each functional layer (3, 4, 5, 6) has a layer thickness d in the range from 1 to 100 nm, wherein the metallic second nanolayer (3b, 4b, 5b, 6b) is formed from at least one metal from the group comprising copper, palladium, silver, platinum, iridium and gold, characterised in that the first metal nitride of the first nanolayer (3a, 4a, 5a, 6a) is formed by molybdenum nitride MoN. - at least one adhesion promoter layer (2a, 2b); and - a plurality of functional layers (3, 4, 5, 6) arranged on the at least one adhesion promoter layer (2a, 2b), wherein each functional layer (3, 4, 5, 6) comprises a first nanolayer (3a, 4a, 5a, 6a) made of a first metal nitride comprising a first metal component and a metallic second nanolayer (3b, 4b, 5b, 6b), wherein each functional layer (3, 4, 5, 6) has a layer thickness d in the range from 1 to 100 nm, wherein the metallic second nanolayer (3b, 4b, 5b, 6b) is formed from at least one metal from the group comprising copper, palladium, silver, platinum, iridium and gold, characterised in that the first metal nitride of the first nanolayer (3a, 4a, 5a, 6a) is formed by molybdenum nitride MoN.