mhurhangee/ep-ind-claims huggingface dataset:
Actuating element with corona illumination, having a handle, having a horizontal actuating surface with a circumferential edge of the handle, which edge projects in the direction facing away from the actuating surface, and having a light source which is arranged in the housing interior and whose light is guidable to the annular gap via a ring-like light guide corresponding to the edge of the handle and through said annular gap radially outwards towards the outside of the housing wall, having electrical and/or electronic components arranged in the housing interior, wherein the handle is linearly movable in a stationary housing from a raised non-actuating position to a lowered actuating position by manually acting on its horizontal actuating surface, and the circumferential edge of the handle forms an annular gap between its end facing away from the actuating surface and a housing wall, said annular gap leading radially outwards to the housing exterior surrounding the handle in order to move the handle linearly from the housing interior underneath the actuating surface, characterized in that the ring-like light guide has an annular wall which extends in the direction of linear movement of the handle and through which the housing interior having the light source and the electrical and/or electronic components is separated from the region of the end of the annular gap directed towards the housing interior, wherein an annular duct, which opens outwards at its lower end, is formed between the annular wall and the housing surrounding the annular wall, and wherein light guide and annular wall are embodied in one piece.
Floor panel, wherein this floor panel comprises at least a substrate and a decor provided thereon, wherein said substrate substantially consists of thermoplastic material and possibly filler materials, characterized in that the substrate encloses at least two directly interlinked glass fiber cloths.
A facility state monitoring method of monitoring a state of a facility on the basis of a time series signal (102, 103) that the facility outputs, the method including performing for each cycle of a predetermined period of time the steps of: assigning an operation pattern label for each of a plurality of fixed intervals, within the predetermined period of time, on the basis of the time series signal; selecting learning data on the basis of the operation pattern label for each fixed interval, wherein the selection includes the steps of: setting as a search object a label which is the same as the operation pattern label; loading operation pattern label management data for the facility from a database; searching for the search object, and recording the result of the search; confirming whether a number of pieces of searched data in the operation pattern label management data reaches a previously defined number; creating a normal model on the basis of the selected learning data when it has been confirmed that the number of pieces of searched data in the operation pattern label management data reached the previously defined number; calculating an anomaly measure on the basis of the time series signal and the normal model; and discriminating whether the state of the facility is anomaly or normal on the basis of the calculated anomaly measure. assigning an operation pattern label for each of a plurality of fixed intervals, within the predetermined period of time, on the basis of the time series signal; selecting learning data on the basis of the operation pattern label for each fixed interval, wherein the selection includes the steps of: setting as a search object a label which is the same as the operation pattern label; loading operation pattern label management data for the facility from a database; searching for the search object, and recording the result of the search; confirming whether a number of pieces of searched data in the operation pattern label management data reaches a previously defined number; setting as a search object a label which is the same as the operation pattern label; loading operation pattern label management data for the facility from a database; searching for the search object, and recording the result of the search; confirming whether a number of pieces of searched data in the operation pattern label management data reaches a previously defined number; creating a normal model on the basis of the selected learning data when it has been confirmed that the number of pieces of searched data in the operation pattern label management data reached the previously defined number; calculating an anomaly measure on the basis of the time series signal and the normal model; and discriminating whether the state of the facility is anomaly or normal on the basis of the calculated anomaly measure.
A gas adsorbent comprising inorganic porous bodies, and at least a water-soluble acid hydrazide compound and a compound having a thiol group, with the latter compounds being supported on the former bodies, wherein the term "water-soluble" refers to the property of dissolving 5 mass% or more, i.e. 5 g/100 g, of the acid hydrazide compound in neutral water at a temperature of 25°C.
Plug connector (10, 10', 10"), in particular a high current plug connector, comprising an inner conductor contact (20, 120) for carrying current, an outer conductor part (40, 140) and an insulating part (30, 130) which keeps the inner conductor contact (20, 120) spaced apart from the outer conductor part (40, 140), wherein a resiliently compressible damping element (50, 51) is provided on the plug connector such that, when a complementary mating plug connector (100, 100') is plugged into the plug connector (10, 10', 10") in an insertion direction, it is resiliently compressible, characterised in that, when the mating plug connector is plugged in, the damping element (50, 51) directly or indirectly applies pressure in the insertion direction on the inner conductor contact and/or on the insulating part and thereby reduces a movability of the insulating part (30, 130) relative to the inner conductor contact (20, 120) and/or relative to the outer conductor part (40, 140).
Vessel of the type comprising at least one missile launching container and at least one shaft for receiving the latter, characterised in that the launching container is received in the shaft with controlled lateral and axial clearance, in that the upper portion of the side wall of the container is provided with means for centring/guiding same in the shaft; and in that the lower end includes a container-bearing base associated with a supporting base of the vessel by means of shock-filtering set-point damping means including at least one damping assembly with metal windings (11, 12) associated with set-point break strips (17, 18) mounted pre-tensioned between the two bases (8, 9).
A medical port, wherein the port comprises a main channel with a lumen for leading a first fluid through the port, having a secondary channel mouth of a secondary channel for adding a second fluid into the main channel, wherein the port comprises at least one housing element and at least one actuating element arranged such that it can be transferred relative to the housing element from a first position to a second position, wherein the port comprises a sealing portion arranged to be rotatable when transferring the actuating element from a position to the other between a first position of the sealing portion in which the sealing portion doesn't close or cover the secondary channel mouth, in other words an open position, and a second position of the sealing portion in which the sealing portion closes or covers the secondary channel mouth, in other words a closed position. characterized in that, the sealing portion comprises a sealing lug which projects beyond the sealing portion in the axial direction of the latter, wherein the sealing lug is arranged to be moved on a rotation curve from a first position to a second position on the rotation curve when the actuating element is rotated, or when the actuating element is transferring from a position to the other, wherein the sealing lug doesn't close or cover the secondary channel mouth in the first position, and wherein the sealing lug closes or covers the secondary channel mouth in the second position.
A resistance spot welding method comprising performing actual welding to squeeze, by a pair of electrodes, a sheet combination with a sheet thickness ratio of more than 3 in which a thin sheet is overlapped on at least one face of two or more overlapping thick sheets, and passing a current while applying an electrode force to join the sheet combination, wherein in the actual welding, a pattern of the current and the electrode force is divided into two or more steps including a first step and a second step to perform welding, and an electrode force F1 in the first step and an electrode force F2 in the second step satisfy a relationship F1 > F2, and characterized in that a cooling time between current passage in the first step and current passage in the second step in the actual welding is more than 5 cycles and time units are expressed by the number of cycles at 50 Hz.
An energy recovery system comprising: a first Shape-Memory Alloy or Negative Thermal Expansion core and adapted to convert movement of the core into energy in response to a first temperature; a second Shape-Memory Alloy or Negative Thermal Expansion core in fluid communication with the first core and adapted to convert movement of the second core into energy in response to a second temperature; a first fluid at a first temperature; a second fluid at a second temperature; the energy recovery system being characterised in that: an inlet and an outlet are adapted for receiving and discharging said first and second fluids; wherein the energy recovery system comprises a mixing chamber area where said first and second fluids are present at different temperatures for each core; wherein said first and second fluid at said first and second temperatures activate the first and the second cores (50,40) correspondingly to the progressively changing temperature of said first and second fluids and said first fluid at a first temperature is used to pre-heat the second core before the second is applied at the second temperature to said second core. a first Shape-Memory Alloy or Negative Thermal Expansion core and adapted to convert movement of the core into energy in response to a first temperature; a second Shape-Memory Alloy or Negative Thermal Expansion core in fluid communication with the first core and adapted to convert movement of the second core into energy in response to a second temperature; a first fluid at a first temperature; a second fluid at a second temperature; the energy recovery system being characterised in that: an inlet and an outlet are adapted for receiving and discharging said first and second fluids; wherein the energy recovery system comprises a mixing chamber area where said first and second fluids are present at different temperatures for each core; wherein said first and second fluid at said first and second temperatures activate the first and the second cores (50,40) correspondingly to the progressively changing temperature of said first and second fluids and said first fluid at a first temperature is used to pre-heat the second core before the second is applied at the second temperature to said second core. an inlet and an outlet are adapted for receiving and discharging said first and second fluids; wherein the energy recovery system comprises a mixing chamber area where said first and second fluids are present at different temperatures for each core; wherein said first and second fluid at said first and second temperatures activate the first and the second cores (50,40) correspondingly to the progressively changing temperature of said first and second fluids and said first fluid at a first temperature is used to pre-heat the second core before the second is applied at the second temperature to said second core.
A method of managing network traffic in a telecommunications network, the telecommunications network having a plurality of network slices, a controller, a processor and a User Equipment,UE, wherein the UE is allocated to a first network slice and the UE generates a network communication, the method comprising the steps of: monitoring, by the processor, a suitability of the first network slice to process the network communication; identifying, by the processor, a second network slice that is suitable for processing the network communication; and in response to identifying, by the processor, lack of suitability of the first network slice to process the network communication, redirecting, by the controller, the network communication to the second network slice so as to process the network communication by means of the second network slice; characterised in that: said redirecting is performed whilst the UE remains allocated to the first network slice. monitoring, by the processor, a suitability of the first network slice to process the network communication; identifying, by the processor, a second network slice that is suitable for processing the network communication; and in response to identifying, by the processor, lack of suitability of the first network slice to process the network communication, redirecting, by the controller, the network communication to the second network slice so as to process the network communication by means of the second network slice; characterised in that: said redirecting is performed whilst the UE remains allocated to the first network slice.
Process for extraction, functionalization and volatilization of non-volatile organic molecules present in a solid medium, comprising the following steps: (a) taking a solid soil sample; (b) placing the sample under a pressure P d of 0.1 to 200 kPa; (c) raising the temperature of the sample, over the course of less than 30 seconds, from the temperature of the environment to a temperature T d ranging from 250°C to 600°C; (d) maintaining the sample at the temperature T d for a period D d of less than 15 minutes; (e) decreasing the temperature of the sample, over the course of less than 30 seconds, from the temperature T d to the temperature T f ranging from 50°C to 100°C; (f) adding to the sample at least one functionalizing agent and at least one solvent, and maintaining the sample at the temperature T f for a period D f of less than 1 hour; and (g) heating the sample at a temperature T v ranging from 140°C to 300°C for a period D v of less than 1 hour, which causes volatilization of the functionalized organic molecules extracted from the soil sample. (a) taking a solid soil sample; (b) placing the sample under a pressure P d of 0.1 to 200 kPa; (c) raising the temperature of the sample, over the course of less than 30 seconds, from the temperature of the environment to a temperature T d ranging from 250°C to 600°C; (d) maintaining the sample at the temperature T d for a period D d of less than 15 minutes; (e) decreasing the temperature of the sample, over the course of less than 30 seconds, from the temperature T d to the temperature T f ranging from 50°C to 100°C; (f) adding to the sample at least one functionalizing agent and at least one solvent, and maintaining the sample at the temperature T f for a period D f of less than 1 hour; and (g) heating the sample at a temperature T v ranging from 140°C to 300°C for a period D v of less than 1 hour, which causes volatilization of the functionalized organic molecules extracted from the soil sample.
An optical article comprising: a polymerized lens comprising at least one polymer; and a lens component configured to impart reduced light transmittance over a plurality of wavelength regions, comprising: a first light transmittance-reducing dye configured to impart a first region of reduced light transmittance located between about 460 nanometers and 510 nanometers; a second light transmittance-reducing dye configured to impart a second region of reduced light transmittance located between about 570 nanometers and 600 nanometers; and a third light transmittance-reducing dye configured to impart a third region of reduced light transmittance located between about 670 nanometers and 715 nanometers; wherein a resulting average transmission from 460 nanometers to 510 nanometers less than 60%; a resulting average transmission from 570 nanometers to 600 nanometers less than 75%; and a resulting average transmission from 670 nanometers to 715 nanometers less than 80%. characterized in that a resulting total transmission TvD65 is greater than 68%. a polymerized lens comprising at least one polymer; and a lens component configured to impart reduced light transmittance over a plurality of wavelength regions, comprising: a first light transmittance-reducing dye configured to impart a first region of reduced light transmittance located between about 460 nanometers and 510 nanometers; a second light transmittance-reducing dye configured to impart a second region of reduced light transmittance located between about 570 nanometers and 600 nanometers; and a third light transmittance-reducing dye configured to impart a third region of reduced light transmittance located between about 670 nanometers and 715 nanometers; a first light transmittance-reducing dye configured to impart a first region of reduced light transmittance located between about 460 nanometers and 510 nanometers; a second light transmittance-reducing dye configured to impart a second region of reduced light transmittance located between about 570 nanometers and 600 nanometers; and a third light transmittance-reducing dye configured to impart a third region of reduced light transmittance located between about 670 nanometers and 715 nanometers; a resulting average transmission from 460 nanometers to 510 nanometers less than 60%; a resulting average transmission from 570 nanometers to 600 nanometers less than 75%; and a resulting average transmission from 670 nanometers to 715 nanometers less than 80%. characterized in that a resulting total transmission TvD65 is greater than 68%.
Metal cord with three concentric layers (C1, C2, C3) of M+N+P construction, comprising a first layer or core of diameter d c made up of M wire(s) of diameter d 1, around which core are wound together as a helix at a pitch p 2, as a second layer, N wires of diameter d 2, around which second layer are wound together as a helix at a pitch p 3, as a third layer, P wires of diameter d 3, in which at least some of the gaps in the cord, situated on the one hand between the core and the N wires of the second layer and between the core wires themselves when M is greater than 1 and, on the other hand, between the N wires of the second layer and the P wires of the third layer, contain rubber or a rubber composition, characterized in that the said rubber is an unsaturated thermoplastic elastomer.
A method for treating an effluent polluted with ammonia, characterised in that it comprises the following steps: - recovering a gaseous effluent polluted with ammonia issuing from the fermentation of organic matter, from sewerage-plant sludge, from animal husbandry or from surface-treatment plants, - absorbing the gaseous ammonia contained in the effluent by washing with nitric acid, so as to obtain an ammonium nitrate solution, - adding a basic solution to the ammonium nitrate solution so as to cause the evaporation of ammonia and obtain nitrate salts, this step being performed at a pressure below atmospheric pressure, and - absorbing the evaporated ammonia in a gas-liquid contactor in order to produce an alkali solution. - recovering a gaseous effluent polluted with ammonia issuing from the fermentation of organic matter, from sewerage-plant sludge, from animal husbandry or from surface-treatment plants, - absorbing the gaseous ammonia contained in the effluent by washing with nitric acid, so as to obtain an ammonium nitrate solution, - adding a basic solution to the ammonium nitrate solution so as to cause the evaporation of ammonia and obtain nitrate salts, this step being performed at a pressure below atmospheric pressure, and - absorbing the evaporated ammonia in a gas-liquid contactor in order to produce an alkali solution.
An intelligent somatosensory full-balanced electric vehicle, comprising: - a first wheel and a second wheel of same size; - an axle; - a motor arranged between the two wheels, wherein the first wheel is coaxially connected to the motor via said axle, wherein a first end of said axle is provided with a first post which is provided with a first foot rest located at an outer side of the first wheel; - a control system and - a power supply; wherein the second wheel is coaxially connected to said motor via said axle; wherein both the control system and the power supply are arranged inside a body housing and located above the wheels, or one of the control system and the power supply is located between the two wheels and the other one is located above the wheels; and wherein a second end of said axle is provided with a second post which is provided with a second foot rest located at an outer side of the second wheel. - a first wheel and a second wheel of same size; - an axle; - a motor arranged between the two wheels, wherein the first wheel is coaxially connected to the motor via said axle, wherein a first end of said axle is provided with a first post which is provided with a first foot rest located at an outer side of the first wheel; - a control system and - a power supply;
Process for producing biofuels comprising the steps of a. in a first step, the production of biofuels from organisms selected from macroalgae, microalgae, ethanol-producing algae and/or archaea, with the formation of biomass, and b. in a second step, the conversion of the biomass from the first step into low-molecular-weight compounds in a reactor containing microorganisms found in the rumen of ruminants, characterized in that the first step is an aerobic process and the second step is an anaerobic process, and that the first aerobic step is separated from the second anaerobic step by a device that allows diffusion of the metabolites formed in the second step into the first step. a. in a first step, the production of biofuels from organisms selected from macroalgae, microalgae, ethanol-producing algae and/or archaea, with the formation of biomass, and b. in a second step, the conversion of the biomass from the first step into low-molecular-weight compounds in a reactor containing microorganisms found in the rumen of ruminants,