mhurhangee/ep-ind-claims huggingface dataset:
Swivel joint comprising an external cylindrical element having a first external connection end, an internal cylindrical element having a second external connection end, and bearing means arranged between said external cylindrical element and said internal cylindrical element so as to identify a relative rotation axis (x); a gasket being provided between said external cylindrical element and said internal cylindrical element; characterised in that said internal cylindrical element protruding in a radial direction with respect to said external cylindrical element making a radial seat for said gasket. a gasket being provided between said external cylindrical element and said internal cylindrical element; characterised in that said internal cylindrical element protruding in a radial direction with respect to said external cylindrical element making a radial seat for said gasket.
A cleaning device for cleaning a street light head comprising: - a cleaning box, an outer periphery of which is defined by at least a first shell and a second shell opposed to each other, the first and the second shells (2a, 2b) delimiting a hollow inside space of the cleaning box, and the first shell and/or the second shell being configured to move from an open position in which the cleaning box is open and configured to allow the street light head to be positioned inside the cleaning box, to a cleaning position in which the cleaning box is closed; - an actuator device configured to move the first shell and/or the second shell between the open position and the closed position; and - a washing means arranged in the hollow inside space and configured to clean the street light head characterized in that - the hollow inside space is adapted to accommodate the entire street light head; and - the cleaning box comprises sealing means configured to avoid liquid projection outside the cleaning box when the cleaning box is in the cleaning position. - a cleaning box, an outer periphery of which is defined by at least a first shell and a second shell opposed to each other, the first and the second shells (2a, 2b) delimiting a hollow inside space of the cleaning box, and the first shell and/or the second shell being configured to move from an open position in which the cleaning box is open and configured to allow the street light head to be positioned inside the cleaning box, to a cleaning position in which the cleaning box is closed; - an actuator device configured to move the first shell and/or the second shell between the open position and the closed position; and - a washing means arranged in the hollow inside space and configured to clean the street light head - the hollow inside space is adapted to accommodate the entire street light head; and - the cleaning box comprises sealing means configured to avoid liquid projection outside the cleaning box when the cleaning box is in the cleaning position.
A catheter comprising: an elongated catheter body having a proximal end and a distal end; a balloon electrode assembly (25, 125, 525) distal of the catheter body, the balloon electrode assembly having at least an inner balloon member (24, 124, 224, 424) and an outer balloon member (23, 123, 223, 423) covering at least a portion of the inner balloon member, and at least one electrode (26, 226, 326) on an outer surface of the outer balloon member; a tubing extending through the catheter body, the tubing defining a lumen (21, 137, 457, 340, 341) adapted to pass fluid into the inner balloon member for expansion of the inner balloon member, wherein the outer balloon member (23, 123, 223, 423) is adapted for expansion in response to expansion of the inner balloon member (24, 124, 224, 424); and characterized by a pressure sensing assembly embodied in a joint, the joint comprising a resilient member, wherein the pressure sensing assembly is responsive to axial displacement and angular deflection of a portion of the catheter distal of the joint relative to a portion of the catheter proximal of the joint. an elongated catheter body having a proximal end and a distal end; a balloon electrode assembly (25, 125, 525) distal of the catheter body, the balloon electrode assembly having at least an inner balloon member (24, 124, 224, 424) and an outer balloon member (23, 123, 223, 423) covering at least a portion of the inner balloon member, and at least one electrode (26, 226, 326) on an outer surface of the outer balloon member; a tubing extending through the catheter body, the tubing defining a lumen (21, 137, 457, 340, 341) adapted to pass fluid into the inner balloon member for expansion of the inner balloon member, wherein the outer balloon member (23, 123, 223, 423) is adapted for expansion in response to expansion of the inner balloon member (24, 124, 224, 424); and characterized by a pressure sensing assembly embodied in a joint, the joint comprising a resilient member, wherein the pressure sensing assembly is responsive to axial displacement and angular deflection of a portion of the catheter distal of the joint relative to a portion of the catheter proximal of the joint.
An apparatus configured to be employed within a Network Manager, comprising one or more processors configured to: output a request to a network Element Manager to create a Virtualized Network Function PM job to collect VNF Performance Measurement data; process a set of Virtualized Network Function PM data associated with a VNF, wherein the set of VNF PM data is received from the EM; output a request to the EM to create a Virtualization Resource PM job to collect VR PM data from a VR used by the VNF; process a set of VR PM data received from the EM; make a determination whether to restart the VNF, based on the processed set of VR PM data and the processed set of VNF PM data; and output a request to a network function virtualization orchestrator (NFVO) to restart the VNF based on a determination to restart the VR. output a request to a network Element Manager to create a Virtualized Network Function PM job to collect VNF Performance Measurement data; process a set of Virtualized Network Function PM data associated with a VNF, wherein the set of VNF PM data is received from the EM; output a request to the EM to create a Virtualization Resource PM job to collect VR PM data from a VR used by the VNF; process a set of VR PM data received from the EM; make a determination whether to restart the VNF, based on the processed set of VR PM data and the processed set of VNF PM data; and output a request to a network function virtualization orchestrator (NFVO) to restart the VNF based on a determination to restart the VR.
A primary lens unit for light modules, including: - a primary lens element (32, 90) for forming a desired intermediate light distribution from the light of a light source, the primary lens element (32, 90) including a mounting portion for mounting the primary lens element (32, 90) in the primary lens unit as well as including a plurality of light-guiding portions, which each extend between a light entry face for inputting light into the light-guiding portion and a light exit face for outputting light from the primary lens element (32, 90); - a carrier element, on which the mounting portion for mounting the primary lens element (32, 90) rests; and characterized in that it is embodied in such a way that the light-guiding portions extend in contactless fashion to the carrier element; the primary lens unit is furthermore characterized in that it includes: - a cover plate, which has a plurality of guide holes and which is embodied and located such that the light-guiding portion extends through the guide holes and are thereby mounted. - a primary lens element (32, 90) for forming a desired intermediate light distribution from the light of a light source, the primary lens element (32, 90) including a mounting portion for mounting the primary lens element (32, 90) in the primary lens unit as well as including a plurality of light-guiding portions, which each extend between a light entry face for inputting light into the light-guiding portion and a light exit face for outputting light from the primary lens element (32, 90); - a carrier element, on which the mounting portion for mounting the primary lens element (32, 90) rests; and characterized in that it is embodied in such a way that the light-guiding portions extend in contactless fashion to the carrier element; the primary lens unit is furthermore characterized in that it includes: - a cover plate, which has a plurality of guide holes and which is embodied and located such that the light-guiding portion extends through the guide holes and are thereby mounted.
A method of installing a cable into a duct, characterised in that the method comprises: inserting subducting (1, 42) into the duct by installing it by inverse inflation, supplying compressed gas to the subducting (1, 42) provided within the duct to inflate the subducting, receiving the cable into the subducting via the action of the compressed gas forced through the subducting; and decreasing the cross-sectional area of the subducting containing the cable, so as to reduce the volume occupied by the subducting in the duct. inserting subducting (1, 42) into the duct by installing it by inverse inflation, supplying compressed gas to the subducting (1, 42) provided within the duct to inflate the subducting, receiving the cable into the subducting via the action of the compressed gas forced through the subducting; and decreasing the cross-sectional area of the subducting containing the cable, so as to reduce the volume occupied by the subducting in the duct.
An intracardiac rotary pump having a pressure sensor and an external control device controlling the rotational speed of a motor driving the pump, characterized by - a table or a curve of desired pressure minimum values (ΔP S) as a function of the rotational speed (n) of the pump for a functional pressure sensor, - means for determining an actual pressure minimum value (ΔP I) of the pressure measured by the pressure sensor at a respective rotational speed of the pump, - means for determining the drift of the pressure sensor from the difference between the actual pressure minimum value (ΔP I) and the desired pressure minimum value (ΔP S) corresponding to the respective speed, - means for correcting respective subsequently measured pressure values by determining a drift correction value for the subsequently measured pressure values on the basis of the determined difference from the correction of the drift of the pressure sensor while the rotary pump is running. - a table or a curve of desired pressure minimum values (ΔP S) as a function of the rotational speed (n) of the pump for a functional pressure sensor, - means for determining an actual pressure minimum value (ΔP I) of the pressure measured by the pressure sensor at a respective rotational speed of the pump, - means for determining the drift of the pressure sensor from the difference between the actual pressure minimum value (ΔP I) and the desired pressure minimum value (ΔP S) corresponding to the respective speed, - means for correcting respective subsequently measured pressure values by determining a drift correction value for the subsequently measured pressure values on the basis of the determined difference from the correction of the drift of the pressure sensor while the rotary pump is running.
A trailering support device that performs trailering for loading a hull onto a trailer, the trailering support device comprising one or more controllers configured to function as: a vessel steering controller configured to perform automatic vessel steering control so as to move the hull toward the trailer; an estimation unit configured to estimate, based on a content of the automatic vessel steering control, a position of the hull at a predetermined timing after start of the automatic vessel steering control and an azimuth of the hull at the predetermined timing; a detector configured to detect the position of the hull, a steering angle of the hull, and the azimuth of the hull; characterised in that the trailering support device further comprises a determination unit configured to respectively compare the position and the azimuth which are estimated by the estimation unit with the position and the azimuth which are detected by the detector at the predetermined timing, and to determine, based on a comparison result, whether the loading of the hull onto the trailer is performable or not performable; and a notifier configured to notify, in a case where the determination unit determines that the loading of the hull onto the trailer is not performable, of an effect that the loading of the hull onto the trailer is not performable. a vessel steering controller configured to perform automatic vessel steering control so as to move the hull toward the trailer; an estimation unit configured to estimate, based on a content of the automatic vessel steering control, a position of the hull at a predetermined timing after start of the automatic vessel steering control and an azimuth of the hull at the predetermined timing; a detector configured to detect the position of the hull, a steering angle of the hull, and the azimuth of the hull; a determination unit configured to respectively compare the position and the azimuth which are estimated by the estimation unit with the position and the azimuth which are detected by the detector at the predetermined timing, and to determine, based on a comparison result, whether the loading of the hull onto the trailer is performable or not performable; and a notifier configured to notify, in a case where the determination unit determines that the loading of the hull onto the trailer is not performable, of an effect that the loading of the hull onto the trailer is not performable.
Method for preparing a colloidal solution of titanium oxide nanoparticles, characterised in that it comprises (a) dissolving a precursor of titanium oxide, called the "precursor", in a solvent of the precursor, said solvent of the precursor comprising at least water and propylene carbonate, said precursor of titanium oxide being chosen from titanium aqua-oxo chloride, TiOSO 4, TiCl 4, TiF 4, TiOF 2, and a titanium alkoxide in an acidic medium, and (b) chemically converting said precursor to titanium oxide and the propylene carbonate to a colloidal solution solvent by hydrolysis, the water being consumed, wholly or in part, by the chemical conversion of the propylene carbonate, and said propylene carbonate being converted, wholly or in part, to a third solvent by hydrolysis, to form titanium oxide nanoparticles dispersed in the colloidal solution solvent comprising at least the third solvent, and optionally water and propylene carbonate, said colloidal solution having a dynamic viscosity of between 4 and 54 cP at 20°C and 101,325 Pa, the viscosity being controlled by stopping the step of chemical conversion of the solvent of the precursor.
Interface module, comprising: - a gesture sensor, capable of detecting and interpreting the execution of a gesture by a user in a detection space, said detection space comprising an active zone (za) and a dead zone ( zm), - a pressure sensor capable of detecting a pressure exerted by the user, - a control unit configured to execute at least one command on the basis of the detected and interpreted gesture, wherein: - the gesture sensor is configured to detect whether the gesture is made in a distal or proximal position relative to a gesture distance defining a gesture boundary between the active zone ( za) and the dead zone ( zm), - and in that the control unit is configured to at least partially ignore a detected gesture if the gesture is executed at least partially in the dead zone ( zm), said gesture then being interpreted as an approach movement for pressing on the pressure sensor. - a gesture sensor, capable of detecting and interpreting the execution of a gesture by a user in a detection space, said detection space comprising an active zone (za) and a dead zone ( zm), - a pressure sensor capable of detecting a pressure exerted by the user, - a control unit configured to execute at least one command on the basis of the detected and interpreted gesture, - the gesture sensor is configured to detect whether the gesture is made in a distal or proximal position relative to a gesture distance defining a gesture boundary between the active zone ( za) and the dead zone ( zm), - and in that the control unit is configured to at least partially ignore a detected gesture if the gesture is executed at least partially in the dead zone ( zm), said gesture then being interpreted as an approach movement for pressing on the pressure sensor.
Single- or multi-phase phosphate-free detergent or cleaning agent tablet, characterized in that the phase or one of the phases, based on its total weight, contains a) 15 to 89.8% by weight of sodium carbonate and/or sodium hydrogen carbonate b) 10 to 84.8% by weight of citrate c) 0.05 to 20% by weight of polymer having washing or cleaning activity, is free of bleaching agent, and contains less than 1% by weight of citric acid, based on the total weight of the phase, wherein the polymer c) having washing or cleaning activity encompasses a polymer from the group of amphoteric polymers. a) 15 to 89.8% by weight of sodium carbonate and/or sodium hydrogen carbonate b) 10 to 84.8% by weight of citrate c) 0.05 to 20% by weight of polymer having washing or cleaning activity,
A steel wire mesh for supporting walls of mines and other subterranean constructions, which mesh comprises - a number of parallel first mesh wires (1, 1'), which are arranged at a first distance from each other, - a number of parallel second mesh wires (2, 2'), which are arranged at a second distance from each other, perpendicular to the first mesh wires (1, 1'), wherein the said first and second mesh wires are attached to each other at the intersections of the mesh wires, preferably by welding, characterised in that the steel wire mesh comprises third mesh wires (3, 3') which are parallel to the first mesh wires(1, 1'), wherein an individual third mesh wire (3, 3') is arranged at a distance from an individual first mesh wire(1, 1'), the distance between the third mesh wire and the first mesh (1, 1') wire being 2-15 mm, preferably 5-10 mm, and wherein the number of third mesh wires (3, 3') is smaller than the number of first mesh wires (1, 1'). - a number of parallel first mesh wires (1, 1'), which are arranged at a first distance from each other, - a number of parallel second mesh wires (2, 2'), which are arranged at a second distance from each other, perpendicular to the first mesh wires (1, 1'), wherein the said first and second mesh wires are attached to each other at the intersections of the mesh wires, preferably by welding, characterised in that the steel wire mesh comprises third mesh wires (3, 3') which are parallel to the first mesh wires(1, 1'), wherein an individual third mesh wire (3, 3') is arranged at a distance from an individual first mesh wire(1, 1'), the distance between the third mesh wire and the first mesh (1, 1') wire being 2-15 mm, preferably 5-10 mm, and wherein the number of third mesh wires (3, 3') is smaller than the number of first mesh wires (1, 1').
A digital filter bank having a number J of stages, where J is an integer and J > 2, wherein for each integer j such that 1 ≤ j ≤ J, the j-th stage comprises: • a plurality of filtering units (20, 21) operating in parallel and each receiving an input signal of the j-th stage, wherein the plurality of filtering units of the j-th stage includes one low-pass filtering unit and at least one band-pass filtering unit, said at least one band-pass filtering unit using complex filtering coefficients; and • following each band-pass filtering unit of the j-th stage, a respective modulus processing unit for generating a processed real signal as a function of squared moduli of complex output values of said band-pass filtering unit, wherein the input signal of the first stage is a digital signal supplied to the digital filter bank, and wherein for 1 < j ≤ J, the input signal of the j-th stage includes the processed real signal generated by said at least one modulus processing unit of the (j-1)-th stage. • a plurality of filtering units (20, 21) operating in parallel and each receiving an input signal of the j-th stage, wherein the plurality of filtering units of the j-th stage includes one low-pass filtering unit and at least one band-pass filtering unit, said at least one band-pass filtering unit using complex filtering coefficients; and • following each band-pass filtering unit of the j-th stage, a respective modulus processing unit for generating a processed real signal as a function of squared moduli of complex output values of said band-pass filtering unit,
A method for producing graphite oxide, the method comprising: preparing a graphite slurry by mixing graphite with sulfuric acid (1 st step); introducing the graphite slurry to a micro-channel part having one or more micro-channel arranged in order (2 nd step); preparing a permanganate sulfuric acid solution by adding permanganate supplied from a permanganate supply unit into a pre-mixer in which sulfuric acid is continuously injected, adding the prepared permanganate sulfuric acid solution into the micro-channel and mixing them to obtain a reaction mixture (3rd step); adding water to the reaction mixture of the 3 rd step and mixing them (4 th step); adding an aqueous hydrogen peroxide solution to the reaction mixture of the 4 th step and mixing them to terminate an oxidation reaction (5 th step); washing and separating the graphite oxide from the reaction mixture of the 5 th step (6 th step); and drying the graphite oxide obtained after 6 th step (7 th step), wherein the 1 st to 5 th steps are carried out continuously, wherein the 3rd step is performed while a temperature ranging from about 0°C to about 54°C is maintained; and wherein the aqueous hydrogen peroxide solution is in a range of from about 1% by weight to about 10% by weight. preparing a graphite slurry by mixing graphite with sulfuric acid (1 st step); introducing the graphite slurry to a micro-channel part having one or more micro-channel arranged in order (2 nd step); preparing a permanganate sulfuric acid solution by adding permanganate supplied from a permanganate supply unit into a pre-mixer in which sulfuric acid is continuously injected, adding the prepared permanganate sulfuric acid solution into the micro-channel and mixing them to obtain a reaction mixture (3rd step); adding water to the reaction mixture of the 3 rd step and mixing them (4 th step); adding an aqueous hydrogen peroxide solution to the reaction mixture of the 4 th step and mixing them to terminate an oxidation reaction (5 th step); washing and separating the graphite oxide from the reaction mixture of the 5 th step (6 th step); and drying the graphite oxide obtained after 6 th step (7 th step), wherein the 1 st to 5 th steps are carried out continuously, wherein the 3rd step is performed while a temperature ranging from about 0°C to about 54°C is maintained; and wherein the aqueous hydrogen peroxide solution is in a range of from about 1% by weight to about 10% by weight.