mhurhangee/ep-ind-claims huggingface dataset:
A method for operating a securing device used for securing a cargo item that can form a cargo unit while the cargo item is locked on a load carrier or on a vehicle by means of at least one securing device, a measuring device for a tension force of the at least one securing device being arranged on the at least one securing device, the measuring device containing a data-processing system comprising a device for transmitting signals to a central data-processing system, whereby the data-processing system being wirelessly connected to the central data-processing system, whereby the at least one securing device being pre-registered in the central data-processing system with the identification of the respective data-processing system, the standard tension force and/or a visually perceptible feature as parameter table 3, comprising the following steps: S1: establishing and storing a target value (value 1) of a pre-tensioning force per cargo item, taking into account a coefficient of friction of the loading surface, the weight of the cargo item, and the applicable cargo securing standard in the central data-processing system as parameter table 1; S2: establishing and storing at least one target value of an item of location data and a position, specifically of at least one planned unloading point per cargo item, in the central data-processing system as parameter table 2; S3: calculating a suggestion, per cargo item, based on value 1 in parameter table 1 associated with the respective cargo item and on the still available at least one securing device according to parameter table 3, for the individual at least one securing device to be used for the cargo item, and storing this suggestion in data table X; S4: securing the cargo item by means of the at least one suggested securing device; S5: detecting the pre-tensioning force (value A) of the at least one used securing device by the individual measuring device in the central data-processing system as data table A; S6: checking whether the sum of the values A per cargo item from data table A corresponds to value 1 of the same cargo item from parameter table 1, and if the pre-tensioning force is not achieved, generating an information data and repeating the steps starting from step S3, and if the pre-tensioning force is achieved, sending a data confirming that said cargo item has been secured in line with the applicable standard to the central data-processing system; S7: updating data table A with new values determined by the measuring device at controlled time intervals, wherein the central data-processing system compares the sum of the values A per cargo item with value 1 of the same cargo item during transport and, based on a potential decrease in pre-tensioning force in the at least one securing device and taking into account a pre-programmable time safety margin, a data is sent to the central data-processing system in order to re-tension the respective at least one securing device within a time safety margin.
Wheel axle assembly for a wheel of a bicycle, including a hollow wheel axle arranged for being attached to dropouts of a frame of the bicycle, wherein the wheel axle assembly includes a first torque transfer member having a first axially toothed profile arranged for engaging a second axially toothed profile at the frame at one of the dropouts, characterized by a form-locking connection between the first torque transfer member and the wheel axle, movably coupling the first torque transfer member to the wheel axle for allowing the first torque transfer member to move in axial direction of the wheel axle, for transferring torque from the wheel axle via the first and second axially toothed profiles to the frame. wherein the wheel axle assembly includes a first torque transfer member having a first axially toothed profile arranged for engaging a second axially toothed profile at the frame at one of the dropouts, characterized by a form-locking connection between the first torque transfer member and the wheel axle, movably coupling the first torque transfer member to the wheel axle for allowing the first torque transfer member to move in axial direction of the wheel axle, for transferring torque from the wheel axle via the first and second axially toothed profiles to the frame.
A process for the preparation of a compound of formula {[(diene)Ru(OOCR 1) 2] n v} wherein n is 1 or 2; v is 0, 1 or 2; S is a coordinated molecule of a polar aprotic solvent or water; "diene" represents a linear or branched C 4 -C 15 hydrocarbon group comprising two carbon-carbon double bonds or a cyclic C 7 -C 20 hydrocarbon group comprising two carbon-carbon double bonds; and R 1 represents: - a hydrogen atom; - a pyridyl group; - a phenyl group optionally substituted by one to five halogen atoms and/or C 1-4 alkyl or alkoxyl groups; or - a C 1-18 alkyl or alkenyl group optionally halogenated; optionally substituted by one phenyl group, the phenyl group being optionally substituted by one to five halogen atoms and/or by C 1-4 alkyl or alkoxyl groups; and optionally comprising one or two OH, amino, ether or thioether functional groups; comprising the step of reacting a precursor compound of formula [(diene)Ru(Cl) 2] wherein "diene" has the same meaning as defined in formula; in the presence of a carboxylate (R 1 COO) m M, wherein R 1 is as defined above and M is an alkaline (m is 1) or alkaline earth (m is 2) cation, and said reaction is carried out in a polar aprotic solvent and under inert atmosphere. wherein n is 1 or 2; v is 0, 1 or 2; S is a coordinated molecule of a polar aprotic solvent or water; "diene" represents a linear or branched C 4 -C 15 hydrocarbon group comprising two carbon-carbon double bonds or a cyclic C 7 -C 20 hydrocarbon group comprising two carbon-carbon double bonds; and R 1 represents: - a hydrogen atom; - a pyridyl group; - a phenyl group optionally substituted by one to five halogen atoms and/or C 1-4 alkyl or alkoxyl groups; or - a C 1-18 alkyl or alkenyl group optionally halogenated; optionally substituted by one phenyl group, the phenyl group being optionally substituted by one to five halogen atoms and/or by C 1-4 alkyl or alkoxyl groups; and optionally comprising one or two OH, amino, ether or thioether functional groups; - a hydrogen atom; - a pyridyl group; - a phenyl group optionally substituted by one to five halogen atoms and/or C 1-4 alkyl or alkoxyl groups; or - a C 1-18 alkyl or alkenyl group optionally halogenated; optionally substituted by one phenyl group, the phenyl group being optionally substituted by one to five halogen atoms and/or by C 1-4 alkyl or alkoxyl groups; and optionally comprising one or two OH, amino, ether or thioether functional groups; optionally halogenated; optionally substituted by one phenyl group, the phenyl group being optionally substituted by one to five halogen atoms and/or by C 1-4 alkyl or alkoxyl groups; and optionally comprising one or two OH, amino, ether or thioether functional groups;
A method for manufacturing a three-dimensional object with an additive manufacturing system, comprising: - providing a support material comprising more than 50 % wt. of a semi-crystalline polyamide [polyamide] having a melting point, as determined according to ASTM D3418, of at least 250°C and possessing a water uptake at saturation, by immersion in water at 23°C, of at least 2 % wt; - providing a part material; - printing layers of a support structure from the provided support material, and printing layers of the three-dimensional object from the provided part material in coordination with the printing of the layers of the support structure, where at least a portion of the printed layers of the support structure support the printed layers of the three-dimensional object; and - removing at least a portion of the support structure from the three-dimensional object so as to obtain the three-dimensional object. - providing a support material comprising more than 50 % wt. of a semi-crystalline polyamide [polyamide] having a melting point, as determined according to ASTM D3418, of at least 250°C and possessing a water uptake at saturation, by immersion in water at 23°C, of at least 2 % wt; - providing a part material; - printing layers of a support structure from the provided support material, and printing layers of the three-dimensional object from the provided part material in coordination with the printing of the layers of the support structure, where at least a portion of the printed layers of the support structure support the printed layers of the three-dimensional object; and - removing at least a portion of the support structure from the three-dimensional object so as to obtain the three-dimensional object.
A solar cell panel, comprising: a plurality of solar cell strings (OS1, OS2, IS) each including a plurality of solar cells and a plurality of wiring members connecting the plurality of solar cells in a first direction (x), wherein the plurality of solar cell strings (OS1, OS2, IS) includes a first solar cell string positioned adjacent to a first edge of the solar cell panel in a second direction (y) intersecting the first direction (x) and a second solar cell string positioned adjacent to a second edge of the solar cell panel in the second direction (y); a sealing member sealing the plurality of solar cell strings (OS1, OS2, IS); a first glass substrate positioned on one surface of the plurality of solar cell strings (OS1, OS2, IS) on the sealing member; and a second glass substrate positioned on other surface of the plurality of solar cell strings (OS1, OS2, IS) on the sealing member, characterized in that the plurality of wiring members includes a plurality of first wiring members each having a first width, and at least one second wiring member each having a second width less than the first width, wherein, in at least one of a plurality of first solar cells included in the first solar cell string, the second wiring member is positioned adjacent to a first side of a first solar cell adjacent to the first edge, and wherein, in at least one of a plurality of second solar cells included in the second solar cell string, the second wiring member is positioned adjacent to a second side of a second solar cell adjacent to the second edge. a plurality of solar cell strings (OS1, OS2, IS) each including a plurality of solar cells and a plurality of wiring members connecting the plurality of solar cells in a first direction (x), wherein the plurality of solar cell strings (OS1, OS2, IS) includes a first solar cell string positioned adjacent to a first edge of the solar cell panel in a second direction (y) intersecting the first direction (x) and a second solar cell string positioned adjacent to a second edge of the solar cell panel in the second direction (y); a sealing member sealing the plurality of solar cell strings (OS1, OS2, IS); a first glass substrate positioned on one surface of the plurality of solar cell strings (OS1, OS2, IS) on the sealing member; and a second glass substrate positioned on other surface of the plurality of solar cell strings (OS1, OS2, IS) on the sealing member, characterized in that the plurality of wiring members includes a plurality of first wiring members each having a first width, and at least one second wiring member each having a second width less than the first width, wherein, in at least one of a plurality of first solar cells included in the first solar cell string, the second wiring member is positioned adjacent to a first side of a first solar cell adjacent to the first edge, and wherein, in at least one of a plurality of second solar cells included in the second solar cell string, the second wiring member is positioned adjacent to a second side of a second solar cell adjacent to the second edge.
A method for cleaning dissolution vessels and subsequent dosing of a dissolution media characterised in that it comprises the following stages: A. General conditioning, which in turn comprises the successive or simultaneous sub-stages: a. Overheated water steam generation. b. Preheating the dissolution media to be dosed c. Emptying of the waste tank B. Cleaning the dissolution vessel, which in turn comprises the following successive or simultaneous sub-stages: a. Fitting and adjusting the cover of the dissolution vessel b. Pressing the button to start the process c. Aspiration of the dissolution media through the aspiration tube. d. Transferring into the waste tank e. Injection of water steam at predetermined temperatures and pressure levels for a given time period depending on the dissolution media used and the therapeutic agent tested f. Aspirating steam using the aspiration tube and transferring into the waste tank. g. Transferring the dissolution media and steam contained in the waste tank to the outside. A. General conditioning, which in turn comprises the successive or simultaneous sub-stages: a. Overheated water steam generation. b. Preheating the dissolution media to be dosed c. Emptying of the waste tank a. Overheated water steam generation. b. Preheating the dissolution media to be dosed c. Emptying of the waste tank B. Cleaning the dissolution vessel, which in turn comprises the following successive or simultaneous sub-stages: a. Fitting and adjusting the cover of the dissolution vessel b. Pressing the button to start the process c. Aspiration of the dissolution media through the aspiration tube. d. Transferring into the waste tank e. Injection of water steam at predetermined temperatures and pressure levels for a given time period depending on the dissolution media used and the therapeutic agent tested f. Aspirating steam using the aspiration tube and transferring into the waste tank. g. Transferring the dissolution media and steam contained in the waste tank to the outside. a. Fitting and adjusting the cover of the dissolution vessel b. Pressing the button to start the process c. Aspiration of the dissolution media through the aspiration tube. d. Transferring into the waste tank e. Injection of water steam at predetermined temperatures and pressure levels for a given time period depending on the dissolution media used and the therapeutic agent tested f. Aspirating steam using the aspiration tube and transferring into the waste tank. g. Transferring the dissolution media and steam contained in the waste tank to the outside.
A method of treating an earth formation by gelation of a water-soluble silicate, comprising: emplacing an invert emulsion wellbore fluid comprising: an oleaginous continuous phase; a non-oleaginous discontinuous phase comprising the water-soluble silicate therein; an emulsifier to stabilize the non-oleaginous phase dispersed in the oleaginous phase; and destabilizing the invert emulsion; wherein the destabilizing comprises lowering the pH of the wellbore fluid. emplacing an invert emulsion wellbore fluid comprising: an oleaginous continuous phase; a non-oleaginous discontinuous phase comprising the water-soluble silicate therein; an emulsifier to stabilize the non-oleaginous phase dispersed in the oleaginous phase; and an oleaginous continuous phase; a non-oleaginous discontinuous phase comprising the water-soluble silicate therein; an emulsifier to stabilize the non-oleaginous phase dispersed in the oleaginous phase; and destabilizing the invert emulsion; wherein the destabilizing comprises lowering the pH of the wellbore fluid.
A user equipment apparatus comprising at least one processor; and at least one memory including computer program code, the at least one memory and the computer program code being configured for, with the at least one processor, performing: a first registration with a registration node via a first network access by sending a first registration request to the registration node; a second registration with the registration node via a second network access by sending a second registration request to the registration node; a determination that the apparatus is not connected to the registration node via the first network access; in response to the determination and dependent upon a connection status of the apparatus to the registration node via the second network access, triggering of an update of the first registration via the second network access. a first registration with a registration node via a first network access by sending a first registration request to the registration node; a second registration with the registration node via a second network access by sending a second registration request to the registration node; a determination that the apparatus is not connected to the registration node via the first network access; in response to the determination and dependent upon a connection status of the apparatus to the registration node via the second network access, triggering of an update of the first registration via the second network access.
An anode for a solid oxide fuel cell (SOFC), the anode comprising: a matrix comprising a doped metal oxide; and an electrocatalyst consisting of cermet porous particles that are dispersed throughout the matrix, the porous particles comprising a metal steam reformation catalyst material trapped within the pores of the porous particles; wherein the porous particles are made from a different material to the matrix, and wherein the steam reformation catalyst material comprises an element selected from the group consisting of Fe, Co, Ru, Ni, Rh, Pt, Pd or a combination thereof. a matrix comprising a doped metal oxide; and an electrocatalyst consisting of cermet porous particles that are dispersed throughout the matrix, the porous particles comprising a metal steam reformation catalyst material trapped within the pores of the porous particles; wherein the porous particles are made from a different material to the matrix, and wherein the steam reformation catalyst material comprises an element selected from the group consisting of Fe, Co, Ru, Ni, Rh, Pt, Pd or a combination thereof.
A floor grinding machine comprising a supporting frame, a grinding unit attached to the supporting frame, and a drive unit connected to the grinding unit, where the grinding unit comprises an upper housing, a lower housing rotatably arranged in relation to the upper housing, and a planetary drive system connected to the drive unit, where the upper housing comprises a top plate and a first side wall projecting downwards from the top plate in an axial direction, wherein the lower housing comprises a bottom plate and a second side wall, where one or more grinding disks adapted for holding a tool are rotatably attached to the bottom plate, where the planetary drive system is arranged to rotate the lower housing and the one or more grinding disks respectively, where the first side wall is coaxially arranged in relation to the second side wall, and where the first side wall in the axial direction at least partly is overlapping the second side wall, characterized in that a gap is formed in a radial direction between the first side wall and the second side wall, and where a sealing element is arranged in the gap, wherein the upper housing, the lower housing, and the sealing element are forming a sealed volume of the grinding unit, where the sealing element is preventing contaminants from entering the sealed volume. where the grinding unit comprises an upper housing, a lower housing rotatably arranged in relation to the upper housing, and a planetary drive system connected to the drive unit, where the upper housing comprises a top plate and a first side wall projecting downwards from the top plate in an axial direction, wherein the lower housing comprises a bottom plate and a second side wall, where one or more grinding disks adapted for holding a tool are rotatably attached to the bottom plate, where the planetary drive system is arranged to rotate the lower housing and the one or more grinding disks respectively, where the first side wall is coaxially arranged in relation to the second side wall, and where the first side wall in the axial direction at least partly is overlapping the second side wall, characterized in that a gap is formed in a radial direction between the first side wall and the second side wall, and where a sealing element is arranged in the gap, wherein the upper housing, the lower housing, and the sealing element are forming a sealed volume of the grinding unit, where the sealing element is preventing contaminants from entering the sealed volume.
A computer implemented method for operating a laboratory system, wherein the laboratory system comprises a plurality of laboratory instruments (10, 10PRE, 10LD, 10AI, 10PA) for processing biological samples and a control unit communicatively connected by a communication network, the method comprising the steps of: - receiving and identifying a biological sample by one of the plurality of laboratory instruments; - retrieving an order list from a database by the control unit, the list comprising a plurality of targets corresponding to the biological sample, each target defining at least one processing step(s) to be carried out on the biological sample by at least one of the plurality of the laboratory instruments (10, 10PRE, 10LD, 10AI, 10PA); - selecting a workflow strategy by the control unit, wherein the workflow strategy defines at least one priority rule(s) in processing the biological sample; - retrieving workflow acceptance criterion by the control unit from a database corresponding to the workflow strategy; - determining a sample workflow by the control unit for processing the biological sample based on the workflow strategy and the order list; - determining by the control unit whether the sample workflow satisfies the workflow acceptance criterion; characterized in that - if the sample workflow does not satisfy the workflow acceptance criterion - refining workflow strategy by the control unit; and - determining the sample workflow by the control unit based on the workflow strategy and the order list, until the sample workflow satisfies the workflow acceptance criterion. - receiving and identifying a biological sample by one of the plurality of laboratory instruments; - retrieving an order list from a database by the control unit, the list comprising a plurality of targets corresponding to the biological sample, each target defining at least one processing step(s) to be carried out on the biological sample by at least one of the plurality of the laboratory instruments (10, 10PRE, 10LD, 10AI, 10PA); - selecting a workflow strategy by the control unit, wherein the workflow strategy defines at least one priority rule(s) in processing the biological sample; - retrieving workflow acceptance criterion by the control unit from a database corresponding to the workflow strategy; - determining a sample workflow by the control unit for processing the biological sample based on the workflow strategy and the order list; - determining by the control unit whether the sample workflow satisfies the workflow acceptance criterion; - if the sample workflow does not satisfy the workflow acceptance criterion - refining workflow strategy by the control unit; and - determining the sample workflow by the control unit based on the workflow strategy and the order list, until the sample workflow satisfies the workflow acceptance criterion. - refining workflow strategy by the control unit; and - determining the sample workflow by the control unit based on the workflow strategy and the order list,