mhurhangee/ep-ind-claims huggingface dataset:
A surveillance system for an offshore infrastructure comprising: an unmanned vehicle for inspecting the offshore infrastructure; an unmanned surface vessel comprising: - an environmental sensor system to measure one or more environmental parameters; - a carrying area to carry the unmanned vehicle; and a controller configured to: - obtain the one or more environmental parameters from the environmental sensor system; characterized in that the controller is further configured to: - obtain one or more operational parameters of the offshore infrastructure; - compare each of the operational parameters to an expected value; and - determine, based on the comparison, to inspect the offshore infrastructure with the unmanned vehicle. an unmanned vehicle for inspecting the offshore infrastructure; an unmanned surface vessel comprising: - an environmental sensor system to measure one or more environmental parameters; - a carrying area to carry the unmanned vehicle; and - an environmental sensor system to measure one or more environmental parameters; - a carrying area to carry the unmanned vehicle; and a controller configured to: - obtain the one or more environmental parameters from the environmental sensor system; - obtain the one or more environmental parameters from the environmental sensor system; characterized in that the controller is further configured to: - obtain one or more operational parameters of the offshore infrastructure; - compare each of the operational parameters to an expected value; and - determine, based on the comparison, to inspect the offshore infrastructure with the unmanned vehicle. - obtain one or more operational parameters of the offshore infrastructure; - compare each of the operational parameters to an expected value; and - determine, based on the comparison, to inspect the offshore infrastructure with the unmanned vehicle.
A computer implemented method for generating data representative of a pixel beam in an object space of a 4D, 4-dimensional, light-field optical acquisition system, a pixel beam being a pencil of rays of light that reaches at least one pixel of a sensor of said 4D light-field optical acquisition system when propagating through an entrance pupil of said 4D light-field optical acquisition system, the pixel beam being represented by a hyperboloid of one sheet supported by two sections, one being the conjugate of said at least one pixel and the other being said entrance pupil, the method comprising: - acquiring a collection of rays of light, each ray of light of said collection being representative of a pixel beam, and at least a first parameter defining said conjugate of said at least one pixel; - obtaining intersection data defining intersections of a ray representative of the pixel beam with a plurality of given reference planes, said reference planes being parallel to one another and corresponding to different depths in the object space; - obtaining ray diagram parameters defining the graphical representation of the intersection data in a 2D ray diagram, and - associating said ray diagram parameters with the at least first parameter defining said conjugate of said at least one pixel to provide data representative of said pixel beam. - acquiring a collection of rays of light, each ray of light of said collection being representative of a pixel beam, and at least a first parameter defining said conjugate of said at least one pixel; - obtaining intersection data defining intersections of a ray representative of the pixel beam with a plurality of given reference planes, said reference planes being parallel to one another and corresponding to different depths in the object space; - obtaining ray diagram parameters defining the graphical representation of the intersection data in a 2D ray diagram, and - associating said ray diagram parameters with the at least first parameter defining said conjugate of said at least one pixel to provide data representative of said pixel beam.
A method for cleaning a memory, characterized by comprising: determining a preset level corresponding to a detected non-fluent state; determining a cleaning mode corresponding to the preset level; and cleaning an application program running in the memory according to the cleaning mode; wherein determining the preset level corresponding to the detected non-fluent state comprises: when occurrence of first non-fluency of an electronic device is detected, determining that the preset level corresponding to the detected non-fluent state is a first level; counting a number of occurrences of the non-fluent state of the electronic device within a set time period from a time point corresponding to the occurrence of the first non-fluency; determining whether the number is greater than or equal to a preset number threshold value corresponding to a second level or not; and when the number is greater than or equal to the preset number threshold value, determining that the preset level corresponding to the detected non-fluent state is the second level. determining a preset level corresponding to a detected non-fluent state; determining a cleaning mode corresponding to the preset level; and cleaning an application program running in the memory according to the cleaning mode; wherein determining the preset level corresponding to the detected non-fluent state comprises: when occurrence of first non-fluency of an electronic device is detected, determining that the preset level corresponding to the detected non-fluent state is a first level; counting a number of occurrences of the non-fluent state of the electronic device within a set time period from a time point corresponding to the occurrence of the first non-fluency; determining whether the number is greater than or equal to a preset number threshold value corresponding to a second level or not; and when the number is greater than or equal to the preset number threshold value, determining that the preset level corresponding to the detected non-fluent state is the second level. when occurrence of first non-fluency of an electronic device is detected, determining that the preset level corresponding to the detected non-fluent state is a first level; counting a number of occurrences of the non-fluent state of the electronic device within a set time period from a time point corresponding to the occurrence of the first non-fluency; determining whether the number is greater than or equal to a preset number threshold value corresponding to a second level or not; and when the number is greater than or equal to the preset number threshold value, determining that the preset level corresponding to the detected non-fluent state is the second level.
A method of manufacturing a hub unit bearing including: supporting a hub main body; caulking the hub main body, to which an inner wheel (12a, 12b) and an outer wheel are attached, in a caulking step in which caulking processing of an axial end portion of the hub main body is performed while rotationally driving the outer wheel with respect to the hub main body in a manufacturing device, wherein the method is characterized in that: in the manufacturing device, after the caulking step has ended, a pre-load determination step is performed, in which a change in rotation speed of the outer wheel is measured while the outer wheel is rotated only by inertia with respect to the hub main body and whether or not the pre-load of the hub unit bearing falls within an appropriate range is determined on the basis of the measured change in the rotation speed. supporting a hub main body; caulking the hub main body, to which an inner wheel (12a, 12b) and an outer wheel are attached, in a caulking step in which caulking processing of an axial end portion of the hub main body is performed while rotationally driving the outer wheel with respect to the hub main body in a manufacturing device,
An in-vehicle sensor mounting structure comprising: an in-vehicle sensor; a bracket that holds the in-vehicle sensor, the bracket being fixed to an inner wall of a vehicle interior, the bracket includes an abutment portion that abuts the inner wall of the vehicle interior and extends along the inner wall of the vehicle interior; and a first spring portion fixed to the in-vehicle sensor on a first surface and located between the in-vehicle sensor and the abutment portion, wherein the bracket includes a first restricting portion that restricts movement of the in-vehicle sensor in a direction away from the inner wall of the vehicle interior, a wall portion that faces the in-vehicle sensor in a perpendicular direction to the direction away from the inner wall of the vehicle interior, and a second restricting portion that restricts movement of the in-vehicle sensor in a direction away from the wall portion, wherein the wall portion faces the second restricting portion via the in-vehicle sensor and the first spring portion applies force to the in-vehicle sensor in the direction away from the inner wall of the vehicle interior, the in-vehicle sensor mounting structure further comprising a second spring portion fixed to the in-vehicle sensor on a second surface and located between the in-vehicle sensor and the wall portion, and the second spring portion applies force to the in-vehicle sensor in the direction away from the wall portion. an in-vehicle sensor; a bracket that holds the in-vehicle sensor, the bracket being fixed to an inner wall of a vehicle interior, the bracket includes an abutment portion that abuts the inner wall of the vehicle interior and extends along the inner wall of the vehicle interior; and a first spring portion fixed to the in-vehicle sensor on a first surface and located between the in-vehicle sensor and the abutment portion, wherein the bracket includes a first restricting portion that restricts movement of the in-vehicle sensor in a direction away from the inner wall of the vehicle interior, a wall portion that faces the in-vehicle sensor in a perpendicular direction to the direction away from the inner wall of the vehicle interior, and a second restricting portion that restricts movement of the in-vehicle sensor in a direction away from the wall portion, wherein the wall portion faces the second restricting portion via the in-vehicle sensor and the first spring portion applies force to the in-vehicle sensor in the direction away from the inner wall of the vehicle interior, the in-vehicle sensor mounting structure further comprising a second spring portion fixed to the in-vehicle sensor on a second surface and located between the in-vehicle sensor and the wall portion, and the second spring portion applies force to the in-vehicle sensor in the direction away from the wall portion.
A root end assembly for incorporating a plurality of fastening members into the root end of a wind turbine blade shell part, the root end assembly comprising: a mounting plate comprising a first surface, an opposing second surface and a plurality of apertures extending through the mounting plate from the first surface to the second surface, a plurality of sheath members, each sheath member being disposed in a respective aperture of the plurality of apertures, a plurality of connection members, each connection member being received in a respective sheath member of the plurality of sheath members, the plurality of fastening members, each fastening member being releasably attached to a respective connection member of the plurality of connection members such that the fastening members extend substantially normal to the first surface of the mounting plate, wherein at least a subset of the apertures is dimensioned for allowing translational movement of the sheath members in the respective apertures. a mounting plate comprising a first surface, an opposing second surface and a plurality of apertures extending through the mounting plate from the first surface to the second surface, a plurality of sheath members, each sheath member being disposed in a respective aperture of the plurality of apertures, a plurality of connection members, each connection member being received in a respective sheath member of the plurality of sheath members, the plurality of fastening members, each fastening member being releasably attached to a respective connection member of the plurality of connection members such that the fastening members extend substantially normal to the first surface of the mounting plate, wherein at least a subset of the apertures is dimensioned for allowing translational movement of the sheath members in the respective apertures.
A robot hand comprising: a base part; a plurality of finger connection parts provided on the base part; and a plurality of finger modules respectively connected to the plurality of finger connection parts so as to grasp an object, characterized in that: some of the plurality of finger connection parts are directly connected to the base part and some of the plurality of finger connection parts are not directly connected to the base part; among the plurality of finger connection parts, finger connection parts (23; 25) directly connected to the base part are respectively connected to adjacent finger connection parts (21; 27) not directly connected to the base part by roll joints such that each pair of the finger connection parts (21, 23; 25, 27) connected by the roll joints is driven together with respect to the base part by a motor of the finger connection part (23; 25) directly connected to the base part; and the finger connection parts (21; 27) not directly connected to the base part and adjacent to the finger connection parts (23; 25) directly connected to the base part each have a motor by which they are driven separately from the finger connection parts (23; 25) directly connected to the base part so that the plurality of finger modules performs symmetrical grasping. a base part; a plurality of finger connection parts provided on the base part; and a plurality of finger modules respectively connected to the plurality of finger connection parts so as to grasp an object, some of the plurality of finger connection parts are directly connected to the base part and some of the plurality of finger connection parts are not directly connected to the base part; among the plurality of finger connection parts, finger connection parts (23; 25) directly connected to the base part are respectively connected to adjacent finger connection parts (21; 27) not directly connected to the base part by roll joints such that each pair of the finger connection parts (21, 23; 25, 27) connected by the roll joints is driven together with respect to the base part by a motor of the finger connection part (23; 25) directly connected to the base part; and the finger connection parts (21; 27) not directly connected to the base part and adjacent to the finger connection parts (23; 25) directly connected to the base part each have a motor by which they are driven separately from the finger connection parts (23; 25) directly connected to the base part so that the plurality of finger modules performs symmetrical grasping.
A system for coating profiles, comprising: - several treatment stations for treating the profiles, among which at least one coating station is equipped with spray guns for dispensing an electrostatically charged powder coating; - first detection means for detecting first data concerning dimensions and shape of said profiles; - first storage media for storing second data concerning said powder coating, which shall be used for coating said profiles; - second storage media for storing third data concerning a set of sample profiles; and - comparison means for comparing said first, second and third data so as to generate commands adapted to vary operating parameters for said guns, characterized in that said detection means are configured to detect the dimensions of said profiles so as to modify a hooking distance X between said profiles along a conveyor chain, and said detection means are configured to detect thicknesses of said profiles so as to act upon respective members and to modify a speed of the conveyor chain and a temperature of a polymerization oven, and said detection means are configured to detect a complexity of a section so as to vary pre-treatment and coating parameters for said profiles. - several treatment stations for treating the profiles, among which at least one coating station is equipped with spray guns for dispensing an electrostatically charged powder coating; - first detection means for detecting first data concerning dimensions and shape of said profiles; - first storage media for storing second data concerning said powder coating, which shall be used for coating said profiles; - second storage media for storing third data concerning a set of sample profiles; and - comparison means for comparing said first, second and third data so as to generate commands adapted to vary operating parameters for said guns, characterized in that said detection means are configured to detect the dimensions of said profiles so as to modify a hooking distance X between said profiles along a conveyor chain, and said detection means are configured to detect thicknesses of said profiles so as to act upon respective members and to modify a speed of the conveyor chain and a temperature of a polymerization oven, and said detection means are configured to detect a complexity of a section so as to vary pre-treatment and coating parameters for said profiles.
A method for producing a magnetic resonant frequency absorber, the method comprising: processing a metamaterial, wherein the metamaterial is constructed from a dielectric material with a first dielectric constant, to construct a specific geometric form factor; encapsulating the geometric form factor constructed from the metamaterial in an insulating matrix with a second dielectric constant; and mixing the encapsulated geometric form factor constructed from the metamaterial with a polymeric powder coating causing phase cancellation of reflected and emergent electromagnetic waves. processing a metamaterial, wherein the metamaterial is constructed from a dielectric material with a first dielectric constant, to construct a specific geometric form factor; encapsulating the geometric form factor constructed from the metamaterial in an insulating matrix with a second dielectric constant; and mixing the encapsulated geometric form factor constructed from the metamaterial with a polymeric powder coating causing phase cancellation of reflected and emergent electromagnetic waves.
Turbomachine turbine, notably for an aircraft engine, comprising a rotor, a stator and a labyrinth seal, said rotor comprising a stage of movable vanes with a root disposed at the tip end of said movable vanes, and the stator comprising a sealing ring carried by a casing of said stator, said sealing ring comprising a rigid substrate and an abradable structure, said seal being formed by said abradable structure directed towards wipers (4, 5) of said root and being disposed around an axis of said turbomachine, said abradable being annular and preferably sectored and comprising in an outer layer delimited by a free end facing wipers (4, 5), and provided with partitions (31, 32) delimiting cells, regions (33, 34, 35) formed by annular bands juxtaposed to succeed one another in a direction of the axis, each of said band having a different wear resistance, characterized in that said regions are at least three, said wear resistances being progressively lower in the downstream direction along the axis, the cells are rectangular, the partitions of the cells are oriented at an angle comprised between 30 and 60° relative to the direction of the axis. the band of most wear resistance cells being placed in front of said wipers (4,5) according to their axial location at cruising speed of the engine, the band of less wear resistance cells being located downstream of the previous ones in being placed in front of the positions presumed to have been reached by said wipers (4,5) during the engine re-ignition speeds, and the band of medium cells being intermediate.
Method for preparing polyalkoxylated polycarboxylates wherein the following are caused to react in the presence of water and a catalyst at a temperature of between 120 and 250°C: - at least one polycarboxylic acid obtained by polymerization of at least one unsaturated carboxylic acid; and - at least one polyether carrying a free hydroxyl group capable of reacting with a carboxylic function of the said polycarboxylic acid, the said method being characterized in that the catalyst is an alkaline or alkaline-earth salt of a strong protic acid. - at least one polycarboxylic acid obtained by polymerization of at least one unsaturated carboxylic acid; and - at least one polyether carrying a free hydroxyl group capable of reacting with a carboxylic function of the said polycarboxylic acid,
An energy converting device for converting mechanical energy in the form of external physical force into electrical energy by utilizing the changes in the contact angle and the contact area of a liquid including: a lower electrode substrate and an upper electrode substrate, wherein a gap between the lower and upper electrode substrate (420, 410) is varying by an external physical force; an conductive liquid whose contact angle and contact area with at least one from said electrode substrates (410, 420) are varying in accordance with the changes in the gap between said electrode substrates (410, 420), a layer is formed by stacking an inorganic material layer and an organic material layer on the lower electrode substrate and/or the upper electrode substrate to perform depolarizing function for the conductive liquid and said layer is formed on at least one of the electrode substrates (410, 420) wherein electrical energy is generated in accordance with the changes in said contact angle and said contact area and a flexible partition for isolating the inside and the outside of the device is further included between said lower electrode substrate and said upper electrode substrate whereby the flexible partition has restoring force, wherein shape change occurs by an external physical force, and restores its original shape when the external physical force is removed characterized in that a hydrophile material layer is stacked on said layer. a lower electrode substrate and an upper electrode substrate, wherein a gap between the lower and upper electrode substrate (420, 410) is varying by an external physical force; an conductive liquid whose contact angle and contact area with at least one from said electrode substrates (410, 420) are varying in accordance with the changes in the gap between said electrode substrates (410, 420), a layer is formed by stacking an inorganic material layer and an organic material layer on the lower electrode substrate and/or the upper electrode substrate to perform depolarizing function for the conductive liquid and said layer is formed on at least one of the electrode substrates (410, 420) wherein electrical energy is generated in accordance with the changes in said contact angle and said contact area and a flexible partition for isolating the inside and the outside of the device is further included between said lower electrode substrate and said upper electrode substrate whereby the flexible partition has restoring force, wherein shape change occurs by an external physical force, and restores its original shape when the external physical force is removed characterized in that a hydrophile material layer is stacked on said layer.