mhurhangee/ep-ind-claims huggingface dataset:
Method of protecting a container against impacts, the container presenting a body that is terminated at one end by a bottom and at the other end by a transition portion leading to a neck, the method comprising the steps of: putting a bottom cup into place on the container to cover the bottom of the container and project laterally from the body of the container; putting a top cup (6; 60) into place on the container pressing against the transition portion of the container in order to project laterally from the body of the container; being characterized in that the method comprise the step of: covering the assembly with the help of a sleeve of heat-shrink material; and heat-shrinking the sleeve. putting a bottom cup into place on the container to cover the bottom of the container and project laterally from the body of the container; putting a top cup (6; 60) into place on the container pressing against the transition portion of the container in order to project laterally from the body of the container; covering the assembly with the help of a sleeve of heat-shrink material; and heat-shrinking the sleeve.
A process for the production of a precultivated lawn with a light structure, comprising: - a ground preparing phase, for the preparation of an appropriate sowing bed; - a phase of sowing or planting of vegetal species for lawn, grass coverings or flower coverings; - a first phase of growing, for the growth of a uniform grass covering; - a collecting phase of said grass covering in the form of lawn rolls or equivalent single turfs, characterized in that the process comprises: - a washing phase of the lawn rolls, or of the equivalent single turfs, arranged for removing the earthy material, forming the substratum of natural growing, from the roots of the surface lawn; - an emplacement phase of the washed lawn rolls, or of the equivalent single turfs, onto a synthetic growing substratum; - a second growing phase, for determining the taking root of the root apparatus of the washed lawn rolls, or of the equivalent single turfs, onto said synthetic growing substratum; - a storing and/or transport phase of the finished product and/or following emplacement of the same. - a ground preparing phase, for the preparation of an appropriate sowing bed; - a phase of sowing or planting of vegetal species for lawn, grass coverings or flower coverings; - a first phase of growing, for the growth of a uniform grass covering; - a collecting phase of said grass covering in the form of lawn rolls or equivalent single turfs, - a washing phase of the lawn rolls, or of the equivalent single turfs, arranged for removing the earthy material, forming the substratum of natural growing, from the roots of the surface lawn; - an emplacement phase of the washed lawn rolls, or of the equivalent single turfs, onto a synthetic growing substratum; - a second growing phase, for determining the taking root of the root apparatus of the washed lawn rolls, or of the equivalent single turfs, onto said synthetic growing substratum; - a storing and/or transport phase of the finished product and/or following emplacement of the same.
Use of a refrigerating machine oil composition in a compressor for a refrigerator in which a sliding surface of at least a part of constitutional members of the compressor is coated with a lubrication film-forming composition containing a nitrogen-containing resin having a heat distortion temperature of 100 °C or higher as measured according to ASTM D648 as a binder, and a solid lubricant, said refrigerating machine oil composition comprising a base oil made of a polyoxyalkylene glycol having a kinematic viscosity of from 3 to 50 mm 2 /s as measured at 100 °C, and at least one compound selected from the group consisting of those compounds represented by the following general formulae to which is contained in an amount of from 0.01 to 1% by mass on the basis of a total amount of the refrigerating machine oil composition: R 1 -CO-NR 2 R 3 wherein R 1 is an alkyl group having 6 to 30 carbon atoms or an alkenyl group having 6 to 30 carbon atoms; and R 2 and R 3 are each independently a hydrogen atom, a hydrocarbon group having 1 to 10 carbon atoms, a nitrogen- containing hydrocarbon group having 1 to 10 carbon atoms or an oxygen-containing hydrocarbon group having 1 to 10 carbon atoms; R 4 -CO-NR 5 -R 6 -COO-X wherein R 4 is an alkyl group having 6 to 30 carbon atoms or an alkenyl group having 6 to 30 carbon atoms; R 5 is a hydrogen atom or an alkyl group having 1 to 4 carbon atoms; R 6 is an alkylene group having 1 to 8 carbon atoms; and X is a hydrogen atom, an alkali metal atom, a hydrocarbon group having 1 to 30 carbon atoms, a nitrogen- containing hydrocarbon group having 1 to 30 carbon atoms or an oxygen-containing hydrocarbon group having 1 to 30 carbon atoms; and R 7 -NR 8 R 9 wherein R 7 is an alkyl group having 6 to 30 carbon atoms or an alkenyl group having 6 to 30 carbon atoms; and R 8 and R 9 are each independently a hydrogen atom or an alkyl group having 1 to 4 carbon atoms.
A method of inhibiting maturation of the gonads of both male and female juvenile fish which comprises administering to said juvenile fish an antigenic peptide or a vector comprising nucleic acid encoding an antigenic peptide, said antigenic peptide being a 10 to 40 amino acid fragment of a target protein within the gonads and causing an immune response against that target protein and thereby inhibiting maturation of the gonads, wherein said target protein is selected from the group consisting of lymphocyte antigen 75 (CD205/Ly75), insulin-like growth factor 3, growth differentiation factor 9 and gonadal soma-derived growth factor (GSDF), a juvenile fish being a young form of a species that is not yet sexually mature but phenotypically resembles an adult form.
A method for controlling an industrial robot, the method being performed by a robot controller system, the robot controller system comprising a local part connected to an industrial robot and a remote cloud part connectable to the local part, the local part comprising a first real-time partition and a second non-real-time partition, wherein the first real-time partition is operating on a real-time operating system, and the second non-real-time partition operating on general purpose operating system, and the method comprising the steps of: storing a local cache of a complete file system of the robot controller system in the second non-real-time partition, wherein the complete file system comprises an operating system including drivers, a root file system, a robot controller application and user and system data; storing the complete file system in the remote cloud part; and controlling the industrial robot in real time from the first real-time partition. storing a local cache of a complete file system of the robot controller system in the second non-real-time partition, wherein the complete file system comprises an operating system including drivers, a root file system, a robot controller application and user and system data; storing the complete file system in the remote cloud part; and controlling the industrial robot in real time from the first real-time partition.
A spacer assembly for a rotor assembly of a gas turbine engine, the assembly comprising: an endwall segment having a non-axisymmetric flowpath surface, wherein a perimeter of the non-axisymmetric flowpath surface includes a forward edge, an aft edge, a suction side edge and a pressure side edge, and an underside surface opposite the non-axisymmetric flowpath surface; a first depression formed along the non-axisymmetric flowpath surface adjoining the suction side edge; a second depression formed along the non-axisymmetric flowpath surface adjoining the pressure side edge; characterised by a stiffening rib formation located on the underside surface, wherein the stiffening rib formation includes a central rib extending axially along the underside surface between the first and second depressions (106, 108), and a plurality of additional ribs (104B, 104C, 104D) extending laterally from the central ribs along the underside surface, and wherein each of the plurality of additional ribs (104B, 104C, 104D) form an acute angle with respect to the central rib. an endwall segment having a non-axisymmetric flowpath surface, wherein a perimeter of the non-axisymmetric flowpath surface includes a forward edge, an aft edge, a suction side edge and a pressure side edge, and an underside surface opposite the non-axisymmetric flowpath surface; a first depression formed along the non-axisymmetric flowpath surface adjoining the suction side edge; a second depression formed along the non-axisymmetric flowpath surface adjoining the pressure side edge; characterised by a stiffening rib formation located on the underside surface, wherein the stiffening rib formation includes a central rib extending axially along the underside surface between the first and second depressions (106, 108), and a plurality of additional ribs (104B, 104C, 104D) extending laterally from the central ribs along the underside surface, and wherein each of the plurality of additional ribs (104B, 104C, 104D) form an acute angle with respect to the central rib.
An optical apparatus comprising: a semiconductor substrate; and a supermode filtering waveguide, SFW, emitter (125, 400) disposed on the semiconductor substrate, the SFW emitter comprising: a first optical waveguide; a spacer layer; a second optical waveguide spaced apart from the first optical waveguide by the spacer layer, characterized by that the second optical waveguide is evanescently coupled with the first optical waveguide and configured, in conjunction with the first waveguide, to selectively propagate only a first mode of a plurality of optical modes; and an optically active region disposed in one of the first optical waveguide and the second optical waveguide. a semiconductor substrate; and a supermode filtering waveguide, SFW, emitter (125, 400) disposed on the semiconductor substrate, the SFW emitter comprising: a first optical waveguide; a spacer layer; a second optical waveguide spaced apart from the first optical waveguide by the spacer layer, characterized by that the second optical waveguide is evanescently coupled with the first optical waveguide and configured, in conjunction with the first waveguide, to selectively propagate only a first mode of a plurality of optical modes; and an optically active region disposed in one of the first optical waveguide and the second optical waveguide. a first optical waveguide; a spacer layer; a second optical waveguide spaced apart from the first optical waveguide by the spacer layer, characterized by that the second optical waveguide is evanescently coupled with the first optical waveguide and configured, in conjunction with the first waveguide, to selectively propagate only a first mode of a plurality of optical modes; and an optically active region disposed in one of the first optical waveguide and the second optical waveguide.
Low-deck articulated rail vehicle, particularly a tramway vehicle, in either a two cars (A, B) with three bogies (1, 2) configuration or extended by at least one car and at least one bogie, wherein the low-deck articulated rail vehicle is equipped with one rotatable end bogie arranged under each of the front and rear end of the rail vehicle, and by at least one middle bogie between two adjacent cars, while each of the adjacent cars is rotatably connected through its own pivot point with the at least one middle bogie, the low-deck articulated rail vehicle further comprising primary and secondary suspensions, pairs of individually mounted wheels, drives, disc brakes and track brakes, wherein the drives, the disc brakes and the track brakes are located at the outer sides of the individually mounted wheels with respect to the rail vehicle longitudinal axis, and the primary and secondary suspensions are located in the space between the pairs of individually mounted wheels, which allows the floor to be at low standard level, whereby low floor standard level is in the range of 350 mm to 450 mm above the rail, and wherein over the bogies, the level is slightly elevated compared to the rest of the passenger space, whereby the floor levels of the rail vehicle are connected with a barrier free transition consisting of gradually elevated ramps, whereby standard passing width of the vehicle is met, and whereby minimal standard passing width is 600 mm.
A fusion splicing apparatus for fusion-splicing end faces (1 a, 3a) of a pair of optical fibers (1, 3) to each other, comprising: a reflector that is arranged between the end faces (1 a, 3a) of the pair of optical fibers (1, 3) that are faced toward and spaced away from each other and is movable, on a predetermined axis extending orthogonal to axes of the optical fibers (1, 3), between a first position to reflect an image of a first one of the end faces, a second position to reflect an image of a second one of the end faces (1 a, 3a), and a third position moved out of between the end faces of the pair of optical fibers; and a first imaging part that takes the image of the first end face (1 a) reflected by the reflector in the first position and a second imaging part that takes the image of the second end face reflected by the reflector in the second position; a reflector that is arranged between the end faces (1 a, 3a) of the pair of optical fibers (1, 3) that are faced toward and spaced away from each other and is movable, on a predetermined axis extending orthogonal to axes of the optical fibers (1, 3), between a first position to reflect an image of a first one of the end faces, a second position to reflect an image of a second one of the end faces (1 a, 3a), and a third position moved out of between the end faces of the pair of optical fibers; and a first imaging part that takes the image of the first end face (1 a) reflected by the reflector in the first position and a second imaging part that takes the image of the second end face reflected by the reflector in the second position;
A method for estimating grain size of a metallic object by means of a laser ultrasonic measurement equipment comprising a generation laser, a detection laser and a detector, the method comprising: - providing a laser pulse onto a surface of the object by the generation laser such that an ultrasonic pulse is generated in the object and such that an ultrasonic vibration is immediately generated on the surface, - measuring at least a first subsequent ultrasonic echo from the object by use of the detection laser and the detector, which ultrasonic echo is an echo from the ultrasonic pulse generated in the object, characterized in that the method further comprises: - measuring the ultrasonic vibration which is immediately generated on the surface, by use of the detection laser and the detector, and - estimating the grain size by use of an ultrasonic attenuation parameter based on the measured at least first subsequent ultrasonic echo, whereby the grain size is estimated by using the measured ultrasonic vibration which is immediately generated on the surface as reference to the measured at least first subsequent ultrasonic echo, whereby the reference is provided by comparing a spectral amplitude based on the measured at least first subsequent ultrasonic echo with a spectral amplitude based on the measured ultrasonic vibration which is immediately generated on the surface. - providing a laser pulse onto a surface of the object by the generation laser such that an ultrasonic pulse is generated in the object and such that an ultrasonic vibration is immediately generated on the surface, - measuring at least a first subsequent ultrasonic echo from the object by use of the detection laser and the detector, which ultrasonic echo is an echo from the ultrasonic pulse generated in the object, characterized in that the method further comprises: - measuring the ultrasonic vibration which is immediately generated on the surface, by use of the detection laser and the detector, and - estimating the grain size by use of an ultrasonic attenuation parameter based on the measured at least first subsequent ultrasonic echo, whereby the grain size is estimated by using the measured ultrasonic vibration which is immediately generated on the surface as reference to the measured at least first subsequent ultrasonic echo, whereby the reference is provided by comparing a spectral amplitude based on the measured at least first subsequent ultrasonic echo with a spectral amplitude based on the measured ultrasonic vibration which is immediately generated on the surface.
A data processing system comprising: a processing unit; at least one bus coupled to the processing unit; at least one subsystem coupled to the at least one bus; a memory (157, 159) coupled to the at least one bus; a power controller coupled to the processing unit, to control power supplied to the processing unit and the at least one subsystem; wherein the memory is configured to store data representing a future action for the at least one subsystem and the processing unit, the future action being scheduled to be executed at a time for the future action; wherein the processing unit is configured to adjust a timer indicating the time for the future action by a latency value which represents a period of time between when full power is applied to the processing unit or the at least one subsystem and when the processing unit or the at least one subsystem is stabilized and ready to operate after having been powered up from a reduced power state; and wherein the power controller is configured to assert an interrupt responsive to the timer to supply power to one or more of the processing unit and the at least one subsystem at the adjusted time for the future action. a processing unit; at least one bus coupled to the processing unit; at least one subsystem coupled to the at least one bus; a memory (157, 159) coupled to the at least one bus; a power controller coupled to the processing unit, to control power supplied to the processing unit and the at least one subsystem; wherein the memory is configured to store data representing a future action for the at least one subsystem and the processing unit, the future action being scheduled to be executed at a time for the future action; wherein the processing unit is configured to adjust a timer indicating the time for the future action by a latency value which represents a period of time between when full power is applied to the processing unit or the at least one subsystem and when the processing unit or the at least one subsystem is stabilized and ready to operate after having been powered up from a reduced power state; and wherein the power controller is configured to assert an interrupt responsive to the timer to supply power to one or more of the processing unit and the at least one subsystem at the adjusted time for the future action.
A gas compressor comprising: a compressor main body that compresses gas; a motor that drives and rotates the compressor main body; an inverter that changes a rotational speed of the motor; a check valve that is arranged downstream of the compressor main body; pressure detection means that detects a load-side pressure downstream of the check valve; and a controller that controls an output frequency from the inverter according to the pressure detected by the pressure detection means, characterized in that the controller performs control to generate and keep compressed gas with a predetermined pressure by control of increasing and decreasing the frequency, and in a case where a specific frequency is included in a frequency at which to generate the compressed gas with the predetermined pressure, the controller increases or decreases the output frequency from the inverter when the pressure detected by the pressure detection means reaches a pressure which is higher or lower than the predetermined pressure by a certain pressure margin and which corresponds to a frequency not including the specific frequency. a compressor main body that compresses gas; a motor that drives and rotates the compressor main body; an inverter that changes a rotational speed of the motor; a check valve that is arranged downstream of the compressor main body; pressure detection means that detects a load-side pressure downstream of the check valve; and a controller that controls an output frequency from the inverter according to the pressure detected by the pressure detection means, characterized in that the controller performs control to generate and keep compressed gas with a predetermined pressure by control of increasing and decreasing the frequency, and in a case where a specific frequency is included in a frequency at which to generate the compressed gas with the predetermined pressure, the controller increases or decreases the output frequency from the inverter when the pressure detected by the pressure detection means reaches a pressure which is higher or lower than the predetermined pressure by a certain pressure margin and which corresponds to a frequency not including the specific frequency.
A fluid delivery system for an apparatus for making flow-injection based sensing measurements comprising: a flow cell from which sensing measurements can be taken; a first holding line; a second holding line; a probe through which a plurality of samples are introduced into the fluid delivery system; a first multi-port valve having a first position and a second position, wherein the first multi-port valve is in fluid flow communication with the probe, the first holding line, and the second holding line; and a second multi-port valve having a first position and a second position, wherein the second multi-port valve is in fluid flow communication with the first multi-port valve and the flow cell; and wherein, when the first multi-port valve is in the first position and the second multi-port valve is in the second position, one of the samples can be introduced from the first holding line to the flow cell simultaneously with another of the samples being introduced from the probe to the second holding line; and, when the first multi-port valve is in the second position and the second multi-port valve is in the second position, one of the samples can be introduced from the second holding line to the flow cell simultaneously with another of the samples being introduced from the probe to the first holding line. a flow cell from which sensing measurements can be taken; a first holding line; a second holding line; a probe through which a plurality of samples are introduced into the fluid delivery system; a first multi-port valve having a first position and a second position, wherein the first multi-port valve is in fluid flow communication with the probe, the first holding line, and the second holding line; and a second multi-port valve having a first position and a second position, wherein the second multi-port valve is in fluid flow communication with the first multi-port valve and the flow cell; and wherein, when the first multi-port valve is in the first position and the second multi-port valve is in the second position, one of the samples can be introduced from the first holding line to the flow cell simultaneously with another of the samples being introduced from the probe to the second holding line; and, when the first multi-port valve is in the second position and the second multi-port valve is in the second position, one of the samples can be introduced from the second holding line to the flow cell simultaneously with another of the samples being introduced from the probe to the first holding line.
A cycling garment comprising a lower trousers portion and an upper portion, wherein said upper portion comprises an X-shaped shoulder suspension member, comprising four legs (4 to 7) extending from a point of said suspension member, each one of said four legs has an end (4a to 7a) attached to a waist line of said trousers portion, said point being in the front or back of the cycling garment, said legs are made of an elastic material and have a width of no more than 30 mm, and said suspension member has no panel between said legs (4 - 7), characterised by said X-shaped member being integrally formed from a fabric panel.