mhurhangee/ep-ind-claims huggingface dataset:
A navigation assisting device, comprising: a hydrographic data acquiring module configured to acquire hydrographic data (D10, D12, D13) for identifying a plurality of hydrographic phenomena (53, 54, 55) in the vicinity of a predetermined ship; and an influence level calculating module configured to calculate an influence level of the plurality of hydrographic phenomena (53, 54, 55) on navigation of the predetermined ship, based on the predetermined ship, wherein the hydrographic data acquiring module is configured to acquire, as the hydrographic data (D10, D12, D13), data for identifying a surface tide of the sea and wind, wherein the influence level calculating module is characterized in that it calculates the influence level based on a synthetic vector of respective velocity vectors of the plurality of hydrographic phenomena (53, 54, 55) specified based on the hydrographic data (D10, D12, D13), wherein the synthetic vector E(x,y) is calculated using the equation E(x,y)= f{α 2 ×V tide (x,y), α 3 ×V wind (x,y)}, wherein V tide (x,y) denotes a tide velocity vector, V wind (x,y) denotes a wind velocity vector and α 2 and α 3 denote predetermined weight coefficients, and wherein the device further comprises an efficiency calculating module configured to calculate efficiency regarding the navigation of the predetermined ship, wherein the efficiency calculating module calculates the efficiency based on a relationship between a course of the predetermined ship and a direction of the synthetic vector. a hydrographic data acquiring module configured to acquire hydrographic data (D10, D12, D13) for identifying a plurality of hydrographic phenomena (53, 54, 55) in the vicinity of a predetermined ship; and an influence level calculating module configured to calculate an influence level of the plurality of hydrographic phenomena (53, 54, 55) on navigation of the predetermined ship, based on the predetermined ship, wherein the hydrographic data acquiring module is configured to acquire, as the hydrographic data (D10, D12, D13), data for identifying a surface tide of the sea and wind, wherein the influence level calculating module is characterized in that it calculates the influence level based on a synthetic vector of respective velocity vectors of the plurality of hydrographic phenomena (53, 54, 55) specified based on the hydrographic data (D10, D12, D13), wherein the synthetic vector E(x,y) is calculated using the equation E(x,y)= f{α 2 ×V tide (x,y), α 3 ×V wind (x,y)}, wherein V tide (x,y) denotes a tide velocity vector, V wind (x,y) denotes a wind velocity vector and α 2 and α 3 denote predetermined weight coefficients, and wherein the device further comprises an efficiency calculating module configured to calculate efficiency regarding the navigation of the predetermined ship, wherein the efficiency calculating module calculates the efficiency based on a relationship between a course of the predetermined ship and a direction of the synthetic vector.
A sensor device for measuring an axial force in the longitudinal pipe direction of a pipe and at least one torque with a measuring element which has an adaptor connection (3, 3'), which is connected to the pipe by means of a pipe extension piece and which can be used to firmly couple the pipe to an alignment adaptor, wherein the axial force and the torque can be introduced into the alignment adaptor by means of the measuring element and can be measured by means of strain gauges (15, 16) which are arranged at DMS measuring points (11, 12) in a sensor region between the adaptor connection and an end of the pipe extension piece which is remote from the adaptor connection, wherein the pipe extension piece with the sensor region is of tubular design, the sensor region extends from the adaptor connection to the end of the pipe extension piece and has a smaller external diameter than the end of the pipe extension piece, wherein the pipe has its end which faces the adaptor connection and which overtops the end of the pipe extension piece, which can be inserted into the pipe, toward the adaptor connection decoupled in terms of force from the sensor region and from the adaptor connection, characterized in that at least three DMS measuring points (11, 12) are arranged on the perimeter of the sensor region and that additional DMS measuring points (11, 12) are arranged on the perimeter of the sensor region (9, 9') for the purpose of ascertainment of the axial force separate from the torque measurement.
An electric wire, using an aluminium-based conductive material as a conductor wire, wherein the aluminium-based conductive material consists of 0.1 to 1.0 mass% of scandium, more than 0 to 0.2 mass% or less of zirconium, and further, as a rest part, aluminium and unavoidable impurities, the aluminium-based conductive material being formed of a metal texture having crystal grains with an average grain size of 2 μm or less and aluminium-scandium series nanoprecipitates generated in a grain boundary of the crystal grains, wherein the nanoprecipitates have an average grain size of 1 to 60 nm, wherein the metal texture contains the crystal grains of 1 μm or less at a cross sectional ratio of 15% or more, and wherein the conductor wire has a diameter of 0.05 mm or more and 0.5 mm or less.
A single-use sensor device (10; 21-23; 31-35; 40, 50, 60, 70, 90) for sensing at least one impedance measurement in a physical, physicochemical, and/or biological process (1, 20, 30), comprising means for performing at least one impedance measurement in a physical, physicochemical, and/or biological process in a biological medium, the device comprising a sensing portion in direct contact with said biological medium and a connecting portion extending toward the exterior of an enclosure, and the device comprising electrodes (E1 to E4) that extend on the sensing portion, characterized in that the sensing device is configured to be fastened through a wall of said enclosure provided for containing said biological medium so as to be an integral part thereof; in that the electrodes (E'1 to E'4) are produced by deposition of metal onto a flexible insulating support; and in that it is associated with at least one other single-use physical, physicochemical, or biochemical sensor, the device integrating the other single-use physical, physicochemical, or biochemical sensor onto the same support.
A graft attachment apparatus comprising: a fixation member comprising at least one opening, characterised in that the graft attachment apparatus is configured to be coupled with at least two separate grafts and to be utilised in a single bone tunnel, wherein the graft attachment apparatus comprises at least two separately formed filament loops (101, 102), wherein the at least one opening is configured to receive the at least two separately formed filament loops, wherein the at least two separately formed filament loops are coupled to the fixation member, wherein each of the at least two separately formed filament loops (101, 102) are continuous loops. a fixation member comprising at least one opening, characterised in that the graft attachment apparatus is configured to be coupled with at least two separate grafts and to be utilised in a single bone tunnel, wherein the graft attachment apparatus comprises at least two separately formed filament loops (101, 102), wherein the at least one opening is configured to receive the at least two separately formed filament loops, wherein the at least two separately formed filament loops are coupled to the fixation member, wherein each of the at least two separately formed filament loops (101, 102) are continuous loops.
A detergent product, in particular for textile treatment, more particularly for textile cleaning and/or for textile washing, in the format of a single-use portion pack having a film pouch comprising a plurality of pouch chambers, each of which is enclosed by at least one water-soluble film, the pouch chambers being formed by water-soluble films connected to one another in a sealing plane and separated from one another by sealing portions lying in the sealing plane, and the pouch chambers each being filled with a detergent preparation, - the film pouch having a circular or polygonal outer contour in the sealing plane and an n-fold rotational axis arranged centrally, - a plurality of pouch chambers having the number n being provided, - the pouch chambers being arranged in at least one sectional plane about the common n-fold rotational axis that is perpendicular to the sectional plane and - the pouch chambers having the same base surfaces in the sealing plane and the base surfaces being arranged in the sealing plane about the common n-fold rotational axis that is perpendicular to the sealing plane, characterized in that n ≥ 3. - the film pouch having a circular or polygonal outer contour in the sealing plane and an n-fold rotational axis arranged centrally, - a plurality of pouch chambers having the number n being provided, - the pouch chambers being arranged in at least one sectional plane about the common n-fold rotational axis that is perpendicular to the sectional plane and - the pouch chambers having the same base surfaces in the sealing plane and the base surfaces being arranged in the sealing plane about the common n-fold rotational axis that is perpendicular to the sealing plane, characterized in that n ≥ 3.
A device for a direct application of a medium in the form of a cell suspension, on tissue of a patient, said device comprising a carrier to be applied to said tissue with at least one micro-cavity for containing said medium, said micro-cavity being in direct contact with the tissue on which the said medium is to be applied for a targeted application of said medium, said device comprising at least one channel (6,6') for the supply of the at least one micro-cavity with said medium and at least one reservoir (7, 7') which allows a continuous feeding of the at least one micro-cavity with medium over time through said at least one channel (6,6').
A method of communication traffic management on a portable communication device having a computer processor (130, 160) and a network connection (210, 220, 230) to a computer server for transmitting (420;515, 550) or receiving (425, 440; 525, 545) data with the processor (130, 160) over a network, the method comprising: identifying, by a traffic manager application (320, 330, 331, 332, 333, 334, 340) running on the processor (130, 160), a first application (180, 310) running on the processor (130, 160) and delivering (420; 515) first data to or from the server over the network; and intercepting, by the traffic manager application (320, 330, 331, 332, 333, 334, 340), electronic traffic (410, 420; 510, 515, 550) of the first data to or from the first application (180, 310); characterized by controlling, by the traffic manager application (320, 330, 331, 332, 333, 334, 340), a rate of delivery (425, 435, 440; 520, 540) of the first data to or from the first application (180, 310) over a data path internal to the portable communication device between the first application (180, 310) and the traffic manager application (320, 330, 331, 332, 333, 334, 340). identifying, by a traffic manager application (320, 330, 331, 332, 333, 334, 340) running on the processor (130, 160), a first application (180, 310) running on the processor (130, 160) and delivering (420; 515) first data to or from the server over the network; and intercepting, by the traffic manager application (320, 330, 331, 332, 333, 334, 340), electronic traffic (410, 420; 510, 515, 550) of the first data to or from the first application (180, 310); characterized by controlling, by the traffic manager application (320, 330, 331, 332, 333, 334, 340), a rate of delivery (425, 435, 440; 520, 540) of the first data to or from the first application (180, 310) over a data path internal to the portable communication device between the first application (180, 310) and the traffic manager application (320, 330, 331, 332, 333, 334, 340).
Dynamic imbalanced force generator characterized in that it comprises a shaft frame having a longitudinal axis and having, in addition, • at least one support plate (11, 12, 13) of a motor (M1, M2, M3) arranged radially with respect to the longitudinal axis (X-X') of the shaft frame; and • a gear system (20, 21), wherein the shaft frame carries: • a first imbalance consisting of a mass eccentric with respect to the shaft frame and rotatably connected to the shaft frame formed by two arms (201, 202) of which one is fixed to the gear system (20, 21); • a second imbalance consisting of a mass eccentric to the shaft frame and rotatably connected to the shaft frame by an arm attached to the gear system (20, 21), wherein the second imbalance is arranged coaxially with the first imbalance between the first imbalance and the shaft frame; • at least one motor (M1, M2, M3) supported by the support plate (11, 12, 13) and engaged with at least one of the first and second imbalances (B1, B2) via the gear system (20, 21), wherein the support plate and the motor are arranged between the imbalances (B1, B2) and the shaft frame and between an arm of the first imbalance and an arm of the second imbalance. • at least one support plate (11, 12, 13) of a motor (M1, M2, M3) arranged radially with respect to the longitudinal axis (X-X') of the shaft frame; and • a gear system (20, 21), • a first imbalance consisting of a mass eccentric with respect to the shaft frame and rotatably connected to the shaft frame formed by two arms (201, 202) of which one is fixed to the gear system (20, 21); • a second imbalance consisting of a mass eccentric to the shaft frame and rotatably connected to the shaft frame by an arm attached to the gear system (20, 21), wherein the second imbalance is arranged coaxially with the first imbalance between the first imbalance and the shaft frame; • at least one motor (M1, M2, M3) supported by the support plate (11, 12, 13) and engaged with at least one of the first and second imbalances (B1, B2) via the gear system (20, 21), wherein the support plate and the motor are arranged between the imbalances (B1, B2) and the shaft frame and between an arm of the first imbalance and an arm of the second imbalance.
A crane including a traveling body, a boom supported by the traveling body, and a camera supported by the boom, in which an image is taken by the camera, comprising: a control apparatus; a display (58, 59); and a sensor for acquiring coordinates of the camera, wherein the control apparatus acquires map information in a work range of the crane, displays the map information on the display (58, 59), characterised in that the control apparatus displays the image taken by the camera at a coordinate position of the camera on the map information. a control apparatus; a display (58, 59); and a sensor for acquiring coordinates of the camera, wherein the control apparatus acquires map information in a work range of the crane, displays the map information on the display (58, 59), characterised in that the control apparatus displays the image taken by the camera at a coordinate position of the camera on the map information.
A method of producing a carbon fiber, the method comprising: a) adding an acrylonitrile-based polymer solution to a solution containing a glycol-based compound having a boiling point of 180 to 210°C to precipitate an acrylonitrile-based polymer; b) melt spinning the acrylonitrile-based polymer to obtain a spun fiber; and c) performing stabilization and carbonization on the spun fiber to obtain a carbon fiber, wherein the glycol-based compound is one or a mixture of two or more selected from the group consisting of ethylene glycol, propylene glycol, butylene glycol, pentylene glycol, and hexylene glycol; further comprising, after the a), before the b), drying the acrylonitrile-based polymer; after the drying, a content of the glycol-based compound in the acrylonitrile-based polymer is 5 to 15 wt% with respect to a total weight of the acrylonitrile-based polymer. a) adding an acrylonitrile-based polymer solution to a solution containing a glycol-based compound having a boiling point of 180 to 210°C to precipitate an acrylonitrile-based polymer; b) melt spinning the acrylonitrile-based polymer to obtain a spun fiber; and c) performing stabilization and carbonization on the spun fiber to obtain a carbon fiber, wherein the glycol-based compound is one or a mixture of two or more selected from the group consisting of ethylene glycol, propylene glycol, butylene glycol, pentylene glycol, and hexylene glycol; further comprising, after the a), before the b), drying the acrylonitrile-based polymer; after the drying, a content of the glycol-based compound in the acrylonitrile-based polymer is 5 to 15 wt% with respect to a total weight of the acrylonitrile-based polymer.
A method for distinguishing an immunized healthy subject, which is a vaccinated subject, from a non-immunized healthy subject comprising the step determining in a blood sample the presence or absence of an IgA class antibody to SEQ ID NO1, wherein the sample comprises a set of representative antibodies from the subject, and wherein the blood sample is from a human subject.
A method for wireless communication, comprising: sending a random access preamble for system access by a user equipment, UE; receiving a random access response comprising control channel resources assigned to the UE, wherein receiving the random access response comprises receiving a first message for the random access response on a control channel for a shared data channel and receiving a second message for the random access response on the shared data channel; and exchanging control information using the assigned control channel resources. sending a random access preamble for system access by a user equipment, UE; receiving a random access response comprising control channel resources assigned to the UE, wherein receiving the random access response comprises receiving a first message for the random access response on a control channel for a shared data channel and receiving a second message for the random access response on the shared data channel; and receiving a first message for the random access response on a control channel for a shared data channel and receiving a second message for the random access response on the shared data channel; and exchanging control information using the assigned control channel resources.
A monitoring system for monitoring a person in a building, wherein a monitoring device of the monitoring system comprises control means comprising information on a location permitted at a given time to the person in the building, alarm means, first sensor means for detecting motion higher than a first predetermined height, second sensor means for detecting, on a floor of the building, motion lower than a second predetermined height, and third sensor means is located adjacent to the sleeping place for detecting an arrival in a sleeping place and a departure from the sleeping place without detecting motion inside a beam of the third sensor means; when the most recent motion detection fed by the third sensor means to the control means is the arrival in the sleeping place, the control means are configured to control the alarm means to give an alarm if a predetermined first delay, beginning at the arrival in the sleeping place, has elapsed before information about the departure from the sleeping place has been received from the third sensor means; and after the third sensor means have detected the departure from the sleeping place, the control means are configured to control the alarm means to give an alarm if the control means have received no motion detections from the first sensor means and the second sensor means during a predetermined second delay; and after the third sensor means have detected the departure from the sleeping place, the control means are configured to control the alarm means to give an alarm if the control means have received no motion detections from the first sensor means during a predetermined third delay when the control means receive motion detections from the second sensor means during the predetermined second delay.
A pedestal for supporting an elevated surface comprising boards or tiles mounted on a supporting frame of battens or joists, the pedestal comprising: a) a base configured to be placed on an underlying surface; b) a carrying plate having means for engaging with a batten or joist of the elevated surface and defining means for rotatably engaging with c) an intermediate portion engaging with both the base and the carrying plate and allowing varying the distance between the base and the carrying plate along a longitudinal axis X-X; the pedestal having a predominantly tubular cross section extending around a longitudinal axis X-X that defines the center line of the pedestal, characterised in that said carrying plate comprises three distinct engaging structures each configured to engage with a batten or joist, wherein the three engaging structures are configured as mushroom like protrusions extending from the carrying plate in a direction parallel to the X-axis and are positioned in a triangular configuration, the center of the defined triangle being positioned within a circle having a center coinciding with the longitudinal axis X-X and a radius equal to 50% of the radius of the tubular cross section of the pedestal. a) a base configured to be placed on an underlying surface; b) a carrying plate having means for engaging with a batten or joist of the elevated surface and defining means for rotatably engaging with c) an intermediate portion engaging with both the base and the carrying plate and allowing varying the distance between the base and the carrying plate along a longitudinal axis X-X; the pedestal having a predominantly tubular cross section extending around a longitudinal axis X-X that defines the center line of the pedestal, characterised in that said carrying plate comprises three distinct engaging structures each configured to engage with a batten or joist, wherein the three engaging structures are configured as mushroom like protrusions extending from the carrying plate in a direction parallel to the X-axis and are positioned in a triangular configuration, the center of the defined triangle being positioned within a circle having a center coinciding with the longitudinal axis X-X and a radius equal to 50% of the radius of the tubular cross section of the pedestal.