mhurhangee/patent-ind-claim-en huggingface dataset:
A path detection method, wherein the method comprises: generating , by a first network device, a first request packet used for path detection, wherein the first request packet comprises a label stack and a time to live, TTL, an initial quantity of layers of the label stack matches an initial value of the TTL, and the initial value of the TTL is equal to a hop count from the first network device to a second network device on a to-be-detected path, wherein the second network device is an intermediate node on the to-be-detected path; and sending , by the first network device, the first request packet to the second network device, wherein the first request packet is used to instruct the second network device to directly send a first response packet to the first network device when the first request packet is received and a value of the TTL carried in the first request packet is 0 after being reduced by 1, and the first response packet reaches the first network device through an internet protocol IP route, wherein the first response packet is controlled, based on the first request packet, to directly flow through the IP route on a backhaul. generating , by a first network device, a first request packet used for path detection, wherein the first request packet comprises a label stack and a time to live, TTL, an initial quantity of layers of the label stack matches an initial value of the TTL, and the initial value of the TTL is equal to a hop count from the first network device to a second network device on a to-be-detected path, wherein the second network device is an intermediate node on the to-be-detected path; and sending , by the first network device, the first request packet to the second network device, wherein the first request packet is used to instruct the second network device to directly send a first response packet to the first network device when the first request packet is received and a value of the TTL carried in the first request packet is 0 after being reduced by 1, and the first response packet reaches the first network device through an internet protocol IP route, wherein the first response packet is controlled, based on the first request packet, to directly flow through the IP route on a backhaul.
A building panel adapted to be mounted at a ceiling or wall of a room so that a framework of the building panel has a room-facing side and a building-facing side , wherein a textile is extended over the room-facing side of the framework , the textile having a first surface facing the framework and a second surface generally visible from said room, characterised in that a mesh is laminated onto the first surface of the textile , in that the mesh is attached to the framework by means of a number of connectors , and in that each connector has a first end in the form of a gripper inserted between a part of the mesh and the textile and a second end attached to the framework .
A network slice management method, wherein the method comprises: obtaining , by a first management unit , isolation-sharing requirement information of a network slice, wherein the obtaining, by a first management unit , isolation-sharing requirement information of the network slice comprises: receiving , by the first management unit , a service request message, wherein the service request message carries isolation-sharing requirement information of a service; or the service request message carries second indication information, the second indication information is used to obtain a service descriptor, and the service descriptor comprises the isolation-sharing requirement information of the service; and determining , by the first management unit , an isolation-sharing level of the network slice based on the isolation-sharing requirement information of the service, wherein the network slice is used to provide the service, wherein the isolation-sharing level of the network slice indicates different degrees of isolation of the network slice including sharing, exclusivity, isolation, application isolation, soft isolation and hard isolation; and sending , by the first management unit , a network slice management request message to a second management unit , wherein the network slice management request message carries the isolation-sharing level of the network slice, and the network slice management request message is used to instruct the second management unit to select, create, configure, or request, based on the isolation-sharing level of the network slice, to configure the network slice. receiving , by the first management unit , a service request message, wherein the service request message carries isolation-sharing requirement information of a service; or the service request message carries second indication information, the second indication information is used to obtain a service descriptor, and the service descriptor comprises the isolation-sharing requirement information of the service; and determining , by the first management unit , an isolation-sharing level of the network slice based on the isolation-sharing requirement information of the service, wherein the network slice is used to provide the service, wherein the isolation-sharing level of the network slice indicates different degrees of isolation of the network slice including sharing, exclusivity, isolation, application isolation, soft isolation and hard isolation; and sending , by the first management unit , a network slice management request message to a second management unit , wherein the network slice management request message carries the isolation-sharing level of the network slice, and the network slice management request message is used to instruct the second management unit to select, create, configure, or request, based on the isolation-sharing level of the network slice, to configure the network slice.
An aerial work platform , comprising: - a working platform (30; 130) comprising a floor (31; 131) and a guardrail , and - an elevating structure for moving the working platform (30; 130) in height, the elevating structure comprising an extensible mast via which the working platform (30; 130) is supported, the elevating structure supporting the working platform only by one side of the working platform, and characterized in that the aerial work platform further comprises at least three force sensors (41 to 44) interposed between the elevating structure and the working platform via which the elevating structure fully supports the weight of the working platform (30; 130), wherein: - the force sensors (41 to 44) are arranged in a fixed spatial relationship to each other, - the force sensors (41 to 44) are arranged so that, in orthogonal projection on a plane corresponding to the floor of the working platform, the force sensors are all located on the same side of a median line (Y) of the floor (31; 131) of the working platform which is the one located towards the side of the working platform (30; 130) by which it is supported by the elevating structure, and - each of the force sensors (41 to 44) is adapted to measure the load exerted on it only in the vertical direction by the working platform (30; 130) when the floor (31; 131) of the working platform extends horizontally. - a working platform (30; 130) comprising a floor (31; 131) and a guardrail , and - an elevating structure for moving the working platform (30; 130) in height, the elevating structure comprising an extensible mast via which the working platform (30; 130) is supported, the elevating structure supporting the working platform only by one side of the working platform, and - the force sensors (41 to 44) are arranged in a fixed spatial relationship to each other, - the force sensors (41 to 44) are arranged so that, in orthogonal projection on a plane corresponding to the floor of the working platform, the force sensors are all located on the same side of a median line (Y) of the floor (31; 131) of the working platform which is the one located towards the side of the working platform (30; 130) by which it is supported by the elevating structure, and - each of the force sensors (41 to 44) is adapted to measure the load exerted on it only in the vertical direction by the working platform (30; 130) when the floor (31; 131) of the working platform extends horizontally.
A method for investigating intra- and/or intermolecular interactions involving RNA, comprising the steps of: a) synthesizing a RNA/DNA heteroduplex (RDH) comprising a RNA strand (RS) of interest paired to a DNA strand (DS), each of said strands having a first and a second end ; b) binding a first end of the DNA strand and a corresponding first end of the RNA strand to a first element (DB1) of a nanoscale manipulating device (OTA), and a second end of the DNA strand to a second element (DB2) of the nanoscale manipulating device, leaving a second end of the RNA strand free; c) moving the first and second elements of the manipulating device apart from each other, stretching the DNA strand and causing the RNA strand to peel off the heteroduplex, while measuring a force-displacement relationship (FDR, FDR1); and d) moving the first and second elements of the nanoscale manipulating device towards each other, allowing the DNA strand to relax and causing the RNA strand to bind again to it, while continuing measuring the force-displacement relationship (FDR, FDR2); wherein at least one of step c) and d) is carried out while controlling said moving of the first and second elements of the manipulating device in such a way that an end-to-end distance of the heteroduplex varies according to a predetermined time law, the force-displacement relationship measured during steps c) and d) providing information on intra- and/or intermolecular interactions involving the RNA strand. a) synthesizing a RNA/DNA heteroduplex (RDH) comprising a RNA strand (RS) of interest paired to a DNA strand (DS), each of said strands having a first and a second end ; b) binding a first end of the DNA strand and a corresponding first end of the RNA strand to a first element (DB1) of a nanoscale manipulating device (OTA), and a second end of the DNA strand to a second element (DB2) of the nanoscale manipulating device, leaving a second end of the RNA strand free; c) moving the first and second elements of the manipulating device apart from each other, stretching the DNA strand and causing the RNA strand to peel off the heteroduplex, while measuring a force-displacement relationship (FDR, FDR1); and d) moving the first and second elements of the nanoscale manipulating device towards each other, allowing the DNA strand to relax and causing the RNA strand to bind again to it, while continuing measuring the force-displacement relationship (FDR, FDR2);
A resin composition containing an epoxy resin, a curing agent, and an inorganic filler, the epoxy resin including a phosphorus-containing epoxy resin, the curing agent including dicyandiamide, the inorganic filler including: a silica-treated magnesium hydroxide that is a magnesium hydroxide subjected to surface treatment with silica; and aluminum hydroxide, total content of the silica-treated magnesium hydroxide and the aluminum hydroxide falling within a range from 30 parts by mass to 80 parts by mass with respect to 100 parts by mass in total of the epoxy resin and the curing agent. the curing agent including dicyandiamide, the inorganic filler including: a silica-treated magnesium hydroxide that is a magnesium hydroxide subjected to surface treatment with silica; and aluminum hydroxide, total content of the silica-treated magnesium hydroxide and the aluminum hydroxide falling within a range from 30 parts by mass to 80 parts by mass with respect to 100 parts by mass in total of the epoxy resin and the curing agent.
Household appliance for treatment of laundry, with a receiving container for laundry, wherein the receiving container is mounted such that it can rotate in the household appliance , a drive unit for driving the receiving container , a control unit for actuating the drive unit , a pump unit for recirculation pumping and/or drain pumping the fluid present during a cleaning and/or drying procedure in such a manner that, in a filtering phase, the fluid can be guided through a filter unit to filter fibres substantially released from the laundry during the cleaning and/or drying procedure, characterised in that the control unit is embodied such that the receiving container is in a rest position during the filtering phase, wherein the rest position of the receiving container is actuated in such a manner that a braking of the receiving container takes place along a predetermined braking curve according to a predefinable reduction of the speed, whereby it is possible to achieve a gentle braking of the receiving container , which in turn is beneficial for the laundry to be treated. a receiving container for laundry, wherein the receiving container is mounted such that it can rotate in the household appliance , a drive unit for driving the receiving container , a control unit for actuating the drive unit , a pump unit for recirculation pumping and/or drain pumping the fluid present during a cleaning and/or drying procedure in such a manner that, in a filtering phase, the fluid can be guided through a filter unit to filter fibres substantially released from the laundry during the cleaning and/or drying procedure, characterised in that the control unit is embodied such that the receiving container is in a rest position during the filtering phase, wherein the rest position of the receiving container is actuated in such a manner that a braking of the receiving container takes place along a predetermined braking curve according to a predefinable reduction of the speed, whereby it is possible to achieve a gentle braking of the receiving container , which in turn is beneficial for the laundry to be treated.
A method of protein analysis in a urine sample, including preparation of the urine sample and protein detection, characterized in that the step of preparation of the urine sample for analysis includes mixing the sample without centrifugation, and protein detection is performed for whole urine, wherein the proteins are IgG antibodies and complement component C3 and analysis comprises monitoring changes in IgG antibody and complement component C3 levels, in whole urine collected from a patient after kidney transplantation procedure, wherein an increase in IgG antibody and complement component C3 levels, in time indicates a risk of transplant rejection, and decrease in IgG antibody and complement component C3 levels in time indicates a probable transplant acceptance; and wherein the urine sample after collection is stored in a glass container and SDS is added to the urine sample before analysis to a concentration of around 1% (v/v); and wherein the analysis is performed in an ex vivo diagnosis of the immunological kidney transplant rejection, wherein protein detection is performed with a Western blot technique. and wherein the urine sample after collection is stored in a glass container and SDS is added to the urine sample before analysis to a concentration of around 1% (v/v); and wherein the analysis is performed in an ex vivo diagnosis of the immunological kidney transplant rejection, wherein protein detection is performed with a Western blot technique.
Power supply including at least one power module , where each power module includes a first plate-like heat sink (2.1), a second plate-like heat sink (2.2), a first PCB (3.1) and a power circuit, where the plate-like heat sinks (2.1, 2.2) are arranged in parallel at a distance and the first PCB (3.1) is arranged between the plate-like heat sinks (2.1, 2.2), and where the power circuit includes a planar transformer with windings and a magnetic core wherein the windings are formed by traces on the first PCB (3.1) and wherein the magnetic core is thermally connected to at least one of the plate-like heat sinks (2.1, 2.2), characterised in that it includes at least one second PCB (3.2) arranged in parallel to the first PCB (3.1) and that the second PCB (3.2) is arranged between the plate-like heat sinks and wherein the first PCB (3.1) is arranged in parallel to the plate-like heat sinks (2.1, 2.2) such that air for convection cooling may flow between the plate-like heat sinks.
A method of recycling composite materials by means of electrohydraulic comminution, in which a) a composite material is provided in a container with fluid medium, which composite material comprises at least one glass, at least one semiconductor and at least one polymer, b) by means of a pulsed current source, the composite material is subjected to electrical impulse discharges between at least two electrodes of an underwater radio path of a container at an operating voltage in the range from 30 to 50 kV and a pulse energy per electrode from 200 to 1500 J, whereby a separation of the glass from the remaining composite material takes place, and c) the glass is separated from the remaining composite material by at least one physical separation step. a) a composite material is provided in a container with fluid medium, which composite material comprises at least one glass, at least one semiconductor and at least one polymer, b) by means of a pulsed current source, the composite material is subjected to electrical impulse discharges between at least two electrodes of an underwater radio path of a container at an operating voltage in the range from 30 to 50 kV and a pulse energy per electrode from 200 to 1500 J, whereby a separation of the glass from the remaining composite material takes place, and c) the glass is separated from the remaining composite material by at least one physical separation step.
A lighting component comprising: - an optical volume including a light injection region , at least one reflective or transflective outer major surface and an output major surface , the output major surface adjacent one or more distal edges of the at least one reflective or transflective outer major surface ; and - a first switchable diffuser disposed at least partially within the optical volume , the first switchable diffuser having at least a first state and a second state, the first state characterized by a first haze and the second state characterized by a second haze different from the first haze, - wherein the at least one reflective or transflective outer major surface defines opposing boundaries of the optical volume , - wherein the first switchable diffuser includes a plurality of independently addressable regions , each region independently capable of being in the first state or in the second state, and - wherein the at least one reflective or transflective outer major surface includes a plurality of zones having a reflective property that varies from zone to zone, the zones being in correspondence with said addressable regions . - an optical volume including a light injection region , at least one reflective or transflective outer major surface and an output major surface , the output major surface adjacent one or more distal edges of the at least one reflective or transflective outer major surface ; and - a first switchable diffuser disposed at least partially within the optical volume , the first switchable diffuser having at least a first state and a second state, the first state characterized by a first haze and the second state characterized by a second haze different from the first haze, - wherein the at least one reflective or transflective outer major surface defines opposing boundaries of the optical volume , - wherein the first switchable diffuser includes a plurality of independently addressable regions , each region independently capable of being in the first state or in the second state, and - wherein the at least one reflective or transflective outer major surface includes a plurality of zones having a reflective property that varies from zone to zone, the zones being in correspondence with said addressable regions .
Protection method of a piece of equipment : - provide a protection device comprising: ∘ a frame provided with a plate , ∘ a fall detection system configured to detect a downward movement of the frame representative of tilting of the frame and to emit a fall signal, ∘ a fixing device configured to fix the equipment onto the plate of the protection device , - detect a downward movement of the frame representative of tilting and emit a fall signal by means of the fall detection system , - inflate at least one casing designed to surround the piece of equipment on receipt of the fall signal by means of the inflation device , the at least one casing being fixed to the frame , the at least one casing comprising a first sub-casing and a second sub-casing , the first sub-casing being inflated before the second sub-casing , inflation of the first sub-casing pushing the second sub-casing away from the frame before the second sub-casing is inflated. - provide a protection device comprising: ∘ a frame provided with a plate , ∘ a fall detection system configured to detect a downward movement of the frame representative of tilting of the frame and to emit a fall signal, ∘ a fixing device configured to fix the equipment onto the plate of the protection device , ∘ a frame provided with a plate , ∘ a fall detection system configured to detect a downward movement of the frame representative of tilting of the frame and to emit a fall signal, ∘ a fixing device configured to fix the equipment onto the plate of the protection device , - detect a downward movement of the frame representative of tilting and emit a fall signal by means of the fall detection system , - inflate at least one casing designed to surround the piece of equipment on receipt of the fall signal by means of the inflation device , the at least one casing being fixed to the frame , the at least one casing comprising a first sub-casing and a second sub-casing , the first sub-casing being inflated before the second sub-casing , inflation of the first sub-casing pushing the second sub-casing away from the frame before the second sub-casing is inflated.
A device at a spinning preparation machine, in particular at a carding machine (K) or roller card, with a clothed cylinder and at least one neighbouring working element , wherein the cylinder and the working element cooperate in a working distance (a), comprising a regulating device , which acts upon a bearing (M 1 ) of the cylinder or a bearing (M 2 ) of the working element , in order to set respectively to set, respectively adjust the working distance (a) between the cylinder and the working element when the spinning preparation machine is in operation, characterized in that the regulating device includes at least one shape memory alloy element (SMA-element 110) in the shape of an elongate bar or elongate bushing, wherein the SMA-element is calibrated in that it includes a predetermined change in length at a temperature change.
A treatment portion probe for treating a subject, which, in a manner capable of transmitting ultrasonic vibration, is operably connectable to a vibrator of a treatment device , the vibrator being capable of ultrasonically vibrating, and the treatment portion probe has a second resonance frequency that is higher than a first resonance frequency of a front mass portion of the treatment device , wherein a proximal end surface of the treatment portion probe is adapted to connect to a distal end surface of the front mass portion in a non-threaded manner by a pressing force at a connection portion (B), where the connection portion (B) serves as an antinode position when vibrating at the first resonance frequency, characterized in that the treatment portion probe satisfies a relationship of the first resonance frequency < the second resonance frequency < the first resonance frequency + 1.5 kHz. a proximal end surface of the treatment portion probe is adapted to connect to a distal end surface of the front mass portion in a non-threaded manner by a pressing force at a connection portion (B), where the connection portion (B) serves as an antinode position when vibrating at the first resonance frequency, characterized in that the treatment portion probe satisfies a relationship of the first resonance frequency < the second resonance frequency < the first resonance frequency + 1.5 kHz.