mhurhangee/ep-ind-claims huggingface dataset:
A paraben-free chemical solution for wet wipe, the chemical solution containing water, a non-ionic surface active agent and a preservative, wherein the non-ionic surface-active agent is selected from a polyoxyethylene alkyl ether; the preservative is selected from benzoic acid; iodopropynyl butyl carbamate; polyaminopropyl biguanide; ethylene diaminetetraacetic acid disodium salt dehydrate; benzalkonium chloride; and a mixture of two or more thereof; the chemical solution additionally contains a solubilizer for one or more of the preservatives; the chemical solution contains water in an amount of at least 99% by mass and the non-ionic surface active agent in an amount of 0.001-0.003% by mass; the product of chemical solution film thickness and chemical solution surface tension is at least 810 um.mN/m and wherein the film thickness of the chemical solution is measured by: dropping 0.03 ml of the chemical solution on a glass slide measuring 26 mm by 90 mm, and 1 mm thick with a pipette, gently placing another glass slide of the same size thereon without the application of pressure, allowing the glass slides to stand for 30 seconds, and measuring the chemical solution film thickness interposed between the glass slides by magnified observation with a microscope from a position immediately lateral to the glass slides. dropping 0.03 ml of the chemical solution on a glass slide measuring 26 mm by 90 mm, and 1 mm thick with a pipette, gently placing another glass slide of the same size thereon without the application of pressure, allowing the glass slides to stand for 30 seconds, and measuring the chemical solution film thickness interposed between the glass slides by magnified observation with a microscope from a position immediately lateral to the glass slides.
A solid state circuit breaker assembly, comprising: a first non-scalable module including: a controller; and a current sensor electrically connected to the controller; a second non-scalable module including at least one contact configured to be connected to a power supply; and at least one scalable module including: a transistor; a transient voltage suppression device; and a circuit board electrically connected to the transistor and the transient voltage suppression device; wherein the scalable module is configured to be electrically and mechanically connected between the first non-scalable module and the second non-scalable module, wherein the first non-scalable module, the second non-scalable module, and the at least one scalable module are configured to be modular such that additional scalable modules are configured to be connected to the solid state circuit breaker assembly between the first non-scalable module and the second non-scalable module to scale up the voltage and/or current capability of the solid state circuit breaker assembly. a first non-scalable module including: a controller; and a current sensor electrically connected to the controller; a controller; and a current sensor electrically connected to the controller; a second non-scalable module including at least one contact configured to be connected to a power supply; and at least one scalable module including: a transistor; a transient voltage suppression device; and a circuit board electrically connected to the transistor and the transient voltage suppression device; wherein the scalable module is configured to be electrically and mechanically connected between the first non-scalable module and the second non-scalable module, a transistor; a transient voltage suppression device; and a circuit board electrically connected to the transistor and the transient voltage suppression device; wherein the scalable module is configured to be electrically and mechanically connected between the first non-scalable module and the second non-scalable module, wherein the first non-scalable module, the second non-scalable module, and the at least one scalable module are configured to be modular such that additional scalable modules are configured to be connected to the solid state circuit breaker assembly between the first non-scalable module and the second non-scalable module to scale up the voltage and/or current capability of the solid state circuit breaker assembly.
Software-based method for detecting arterial parameters of a human being, wherein a pulse curve is measured on the human being, wherein an electro-hydraulic arterial model, an analogue, is formed as a simulation model, wherein the pulse curve is compared with simulated pulse curves of a simulation model of the analogue and various parameters of the simulation model are varied until the pulse curve of the simulation model matches the measured pulse curve to an intended approximation, and wherein the arterial parameters are output, characterised in that the simulation model is formed by connecting multiple Windkessel elements consisting of capacitors C, ohmic resistors R and inductors L in series, wherein 711 of these Windkessel elements are used with R, L and C values back-calculated to a 1 cm Windkessel element segment length.
An alignment device for regulating the position of a component of a turbomachine with respect to a baseplate of the turbomachine, wherein the alignment device includes at least a first bolt, a second bolt and a third bolt, each bolt (3a,3b,1) including a regulating screw (30a, 30b, 30c) respectively coupled with a threaded through hole in said component, each threaded through hole defining a respective alignment axis (X, Y, Z) for said component, each screw having a respective axial end which is susceptible of contacting said baseplate for defining the position of the component along each axis (X, Y, Z) respectively, each bolt (3a,3b,1) including a blocking nut (4a, 4b, 4c) for respectively blocking said regulating screws in said threaded holes; the alignment device further including a fourth fixing screw which is screwable in a threaded hole of the baseplate for fixing said component to the baseplate; wherein one of the regulating screws of one of said bolts has a through hole coaxial with the respective alignment axis for housing said fourth fixing screw.
A method of managing execution of tasks by at least one processor unit of a computer system, the processor unit operating in computation periods, and the method comprising the steps of: • associating time-related execution characteristics with each task, the time-related execution characteristics including a flag indicating the possibility of determining, a priori, a theoretical time for the end of the task in a nominal execution mode, wherein execution of the highest priority task is launched by the sequencer in a given computation period, and the task is finished in the computation period corresponding to the theoretical end-of-task time and a flag indicating the possibility of an extended execution mode whereby execution of the task can continue beyond the theoretical end-of-execution time; and • when a task is being executed at the theoretical end-of-execution time, launching an execution continuation algorithm in the presence of the flag indicating the possibility of extended mode, or launching an error processing algorithm in the absence of such a flag; the method comprising a step of storing, in a memory and for each task, the number of executions already carried out in extended mode and wherein the execution algorithm makes provision for the execution to be continued in the extended mode if the number of executions is less than a threshold and for an error processing algorithm to be launched if said number of executions is not less than said threshold. • associating time-related execution characteristics with each task, the time-related execution characteristics including a flag indicating the possibility of determining, a priori, a theoretical time for the end of the task in a nominal execution mode, wherein execution of the highest priority task is launched by the sequencer in a given computation period, and the task is finished in the computation period corresponding to the theoretical end-of-task time and a flag indicating the possibility of an extended execution mode whereby execution of the task can continue beyond the theoretical end-of-execution time; and • when a task is being executed at the theoretical end-of-execution time, launching an execution continuation algorithm in the presence of the flag indicating the possibility of extended mode, or launching an error processing algorithm in the absence of such a flag;
Cover for a swimming pool, said cover comprising a plurality of roof elements (100a, 100a', 100b and 100c) that are mobile in translation so as to pass from an open position to a closed position, said roof elements (100a, 100a', 100b and 100c) forming a structure having transverse profiles (110, 120) whose ends are connected by edge profiles (130, 140) that rest on the ground and move thereon by means of rollers fitted to said edges (130, 140), said structure supporting at least one roof panel, said ground being fitted with sole plates (300, 300') for guiding the translation of the mobile roof elements (100a, 100a', 100b and 100c), being preformed from a guiding surface (310, 310', 320'), each roller being connected to a support connecting this roller to the edge by means of another pivot connection of which the axis is parallel to the axis of rotation of the roller, said support being preformed from a contact surface that comes into contact with the preformed guiding surface in said guiding sole plates, CHARACTERIZED IN THAT said support supports two rollers and its axis of rotation is arranged between the two supported rollers, said support is arranged in a casing that is attached to the inner face of the edge profile of the roof element (100a, 100a'), an elastic module being interposed between said pivoting support and said casing so as to hold it at rest in a given angular position.
A gas turbine engine component, comprising: a pressure side comprising an interior surface; a suction side comprising an interior surface; a trailing edge portion; a plurality of suction side and pressure side impingement orifices disposed in the trailing edge portion, wherein each suction side impingement orifice is configured to direct an impingement jet at an acute angle onto an elongated target area that encompasses a tip of a chevron within a chevron arrangement formed in the suction side interior surface; wherein each pressure side impingement orifice is configured to direct an impingement jet at an acute angle onto a target area that encompasses a tip of a chevron within a chevron arrangement formed in the pressure side interior surface; wherein at least one of said chevron arrangements comprises a plurality of chevrons, and wherein the tip of each chevron of the plurality of chevrons being disposed in the respective target area and wings of the chevron of the plurality of chevrons forming at least one groove there between in which spent cooling air flows. a pressure side comprising an interior surface; a suction side comprising an interior surface; a trailing edge portion; a plurality of suction side and pressure side impingement orifices disposed in the trailing edge portion, wherein each suction side impingement orifice is configured to direct an impingement jet at an acute angle onto an elongated target area that encompasses a tip of a chevron within a chevron arrangement formed in the suction side interior surface; wherein each pressure side impingement orifice is configured to direct an impingement jet at an acute angle onto a target area that encompasses a tip of a chevron within a chevron arrangement formed in the pressure side interior surface; wherein at least one of said chevron arrangements comprises a plurality of chevrons, and wherein the tip of each chevron of the plurality of chevrons being disposed in the respective target area and wings of the chevron of the plurality of chevrons forming at least one groove there between in which spent cooling air flows.
A railway milling system, comprising: a rail car including at least one positioning assembly; and at least one milling module supported by the rail car and including a motor and a milling plate, wherein the milling plate further comprises a circular plate body having a milling side and a connecting side on opposed sides of the circular plate body, the milling side including a plurality of milling blades positioned on a perimeter edge of the milling side, wherein each milling blade presents an angled milling surface for individually engaging the track surface; wherein the positioning assembly is configured to selectively position the milling plate with respect to a track surface either to engage the rail track with at least two milling blades, the at least two milling blades being positioned on opposite sides of the milling plate and the rail track bisecting the milling plate, or to engage the rail track with the rail track intersecting the milling plate proximate to a periphery of the milling plate. a rail car including at least one positioning assembly; and at least one milling module supported by the rail car and including a motor and a milling plate, wherein the milling plate further comprises a circular plate body having a milling side and a connecting side on opposed sides of the circular plate body, the milling side including a plurality of milling blades positioned on a perimeter edge of the milling side, wherein each milling blade presents an angled milling surface for individually engaging the track surface; wherein the positioning assembly is configured to selectively position the milling plate with respect to a track surface either to engage the rail track with at least two milling blades, the at least two milling blades being positioned on opposite sides of the milling plate and the rail track bisecting the milling plate, or to engage the rail track with the rail track intersecting the milling plate proximate to a periphery of the milling plate.
A lithium secondary battery comprising an electrolyte, wherein the electrolyte comprises: a first electrolyte layer facing a negative electrode; and a second electrolyte layer present on the first electrolyte layer, wherein the first electrolyte layer has a higher ion conductivity than the second electrolyte layer; wherein a difference in ion conductivity between the first electrolyte layer and the second electrolyte layer is 10 to 100 times; wherein the electrolyte further comprises one or more electrolyte layers present on the second electrolyte layer; and wherein among the one or more electrolyte layers formed on the second electrolyte layer, the electrolyte layer facing a positive electrode has higher ion conductivity than the second electrolyte layer, wherein the ion conductivity is measured in accordance with the section "Experimental Example 1: Evaluation of the performance of the electrolyte" of the description. wherein a difference in ion conductivity between the first electrolyte layer and the second electrolyte layer is 10 to 100 times; wherein the electrolyte further comprises one or more electrolyte layers present on the second electrolyte layer; and wherein among the one or more electrolyte layers formed on the second electrolyte layer, the electrolyte layer facing a positive electrode has higher ion conductivity than the second electrolyte layer, wherein the ion conductivity is measured in accordance with the section "Experimental Example 1: Evaluation of the performance of the electrolyte" of the description.
A process for preparing a granular starch which rapidly disperses and swells to form a viscous paste when added to water having a temperature not higher than from 20°C to 25°C and which, when 15 grams of the said granular starch are dispersed in one go in 500 ml still mineral water having a temperature of at least 95°C and the dispersion is stirred for 1 minute and then poured onto a sieve of 355 μm, shows no lump formation and which develops its full viscosity in less than 30 seconds at a concentration of at least 3% when dispersed in water at a temperature of at 95°C, wherein the process comprises the steps: a) subjecting a starch to a1) bleaching with a reagent that is capable of forming active chlorine under alkaline conditions; a2) n-alkenyl-succinylation by reaction with an n-alkenylsuccinic anhydride; b) spray-cooking/drying the starch obtained from step a); wherein the order of steps a1) and a2) is interchangeable or wherein steps a1) and a2) occur simultaneously, and wherein the process does not comprise a viscosity reduction step. a) subjecting a starch to a1) bleaching with a reagent that is capable of forming active chlorine under alkaline conditions; a2) n-alkenyl-succinylation by reaction with an n-alkenylsuccinic anhydride; a1) bleaching with a reagent that is capable of forming active chlorine under alkaline conditions; a2) n-alkenyl-succinylation by reaction with an n-alkenylsuccinic anhydride; b) spray-cooking/drying the starch obtained from step a); wherein the order of steps a1) and a2) is interchangeable or wherein steps a1) and a2) occur simultaneously, and wherein the process does not comprise a viscosity reduction step.
A double sided spray mop comprising: a body comprising a universal joint body part, a bottle opening with a bottle coupler receiver and a body lever; a cleaning head comprising a bottom head, a top head, a universal joint cleaning head part configured to allow the cleaning head to be rotated so that either the bottom head or top head is placed against a surface for cleaning and coupled to the universal joint body part, and a spray tube between the bottom head and the top head, the spray tube terminating with a nozzle for delivery of a cleaning solution; a pump in fluid communication with the bottle coupler receiver and the nozzle; and a pole connected to the cleaning head. a body comprising a universal joint body part, a bottle opening with a bottle coupler receiver and a body lever; a cleaning head comprising a bottom head, a top head, a universal joint cleaning head part configured to allow the cleaning head to be rotated so that either the bottom head or top head is placed against a surface for cleaning and coupled to the universal joint body part, and a spray tube between the bottom head and the top head, the spray tube terminating with a nozzle for delivery of a cleaning solution; a pump in fluid communication with the bottle coupler receiver and the nozzle; and a pole connected to the cleaning head.
A ring seal assembly for a gas turbine engine comprising: a first ring seal; and a second ring seal separated axially from the first ring seal by a spring, wherein the second ring seal includes a first inner circumferential surface, and an interference feature extending radially inward from the first inner circumferential surface to a second inner circumferential surface, characterised in that: the first ring seal is symmetrical with respect to a radially extending plane. a first ring seal; and a second ring seal separated axially from the first ring seal by a spring, wherein the second ring seal includes a first inner circumferential surface, and an interference feature extending radially inward from the first inner circumferential surface to a second inner circumferential surface,
Posture rehabilitation apparatus for an user in upright position and in the gait cycle adapted to the rehabilitation of alterations of the locomotor system caused by rheumatic and traumatic diseases, comprising a rectangular-shaped platform adapted to offer housing to two portions and (2") having an identical shape and extension adapted to receive the user subject of the apparatus in an upright position and/or in the gait cycle, said portions and (2") respectively comprising the basis and (6") reversibly respectively fixed to said portions and (2") and adapted to respectively sustain a left support matching the left foot of the subject and a right support (7") matching the right foot of the subject, said left support and said right support (7") respectively having the profile of the left foot and the profile of the right foot; characterised in that it comprises a belt with elastic band adapted to be worn by the user subject of the apparatus and having a opening/closing system with Velcro and at least one fixing point adapted for the connection of at least one elastic cord adapted to connect said belt, worn by the subject, with supports present on the apparatus, said apparatus having at least one support to be arranged at the lower part and/or laterally to the subject and fixed at a predetermined height due to a telescopic rod system, comprising at least two telescoping rods adapted to fix said supports at a predetermined height and optionally fix at least one reference axis arranged at the medial and/or lateral side of the user and adapted to facilitate the latter to execute the rehabilitation operation; the apparatus permitting to the anatomic structures, and preferably to the feet of the subject, a high number of degrees of freedom of movement, said apparatus having the left support and the right support (7") arranged by the respective bases and (6") at a predetermined height and each being divided into two transverse portions, said left support being transversely divided into the left forefoot profiled portion and into the left rearfoot profiled portion (8") and said right support (7") being transversely divided into the right forefoot profiled portion and into the right rearfoot profiled portion (9") and the portion being moveable with respect to the portion (8"), and the portion moveable with respect to the portion (9"), said two pairs of portions and (8") and and (9") each having - on the lower surfaces thereof - a cylindrical rod with respect to whose longitudinal barycentric axis said portions and (8") and and (9") are free to perform the typical helical movement of the foot.
A method for transferring an object data set stored in a data storage area of a lower server to an upper server (18, 19, 20, 21), the lower server and the upper server being installed in a server cluster comprising at least one upper server, and the servers being arranged in vertically staggered server levels E1, E2, E3, E4, the unique allocation of the object data set to a specific object being performed either by addressing the server data storage area with an access data set stored in an access data storage area of an RFID data carrier attached to the object or by transferring the object data set from a data storage area of the RFID data carrier to an allocated data storage area of the lower server, transferal of the object data set to the upper server being performed by accessing the data storage area of the lower server, characterised in that the lower server has a plurality of object data or object data sets (31, 32, 33, 34, 35) allocated to an object, the object data being uniquely allocated to one object by means of an RFID data carrier and the object data sets being uniquely allocated to a plurality of different objects by means of a corresponding number of RFID data carriers, only the lower server providing access to all of the object data or object data sets, and the upper servers each providing access only to defined object data or object data sets in such a manner that the higher a server is arranged in the vertical server cluster, the higher the number of authorised users of that server is.