mhurhangee/ep-ind-claims huggingface dataset:
A nut for joining elements of a structure, said nut comprising: - a collar capable of contacting a front face of the structure; - a clamping area with an external diameter that can be inserted into a hole in the structure; - a deformation zone adjacent to the clamping zone and capable of forming a bulge against a rear face of the structure, opposite the front face; and - a tapped portion adjacent to the deformation zone; the nut comprising a groove on an outer circumference of at least part of the deformation zone, and in that a maximum diameter of said groove is less than or equal to the outer diameter of the clamping zone, the grooving extending around the entire outer circumference of a cross-section of the nut in the form of ridges, the nut being characterised in that a radial pitch between two consecutive ridges is less than or equal to 0.25 mm. - a collar capable of contacting a front face of the structure; - a clamping area with an external diameter that can be inserted into a hole in the structure; - a deformation zone adjacent to the clamping zone and capable of forming a bulge against a rear face of the structure, opposite the front face; and - a tapped portion adjacent to the deformation zone; the nut comprising a groove on an outer circumference of at least part of the deformation zone, and in that a maximum diameter of said groove is less than or equal to the outer diameter of the clamping zone, the grooving extending around the entire outer circumference of a cross-section of the nut in the form of ridges, the nut being characterised in that a radial pitch between two consecutive ridges is less than or equal to 0.25 mm.
Method for fabricating a bright orange zirconia-based article, including the successive steps consisting in: creating a first mixture including: • a zirconia powder, • 3 to 20% by weight of at least one stabilizer chosen from the group of oxides comprising yttrium oxide, magnesium oxide, and calcium oxide, alone or in combination, • 0.1% to 5% by weight of at least one element intended to create a vitreous phase, and chosen from the group comprising silicon oxide, aluminium oxide, lithium oxide and yttrium oxide, alone or in combination, creating a second mixture including said first mixture and a binder, creating a granulated mixture by granulating said second mixture; forming a green body by giving the second granulated mixture the shape of the desired article; air-sintering for at least 30 minutes at a temperature comprised between 1,250 and 1,500°C and, annealing the desired article at a temperature comprised between 700°C and 1,350°C for a period comprised between 30 minutes and 20 hours in a reducing atmosphere, polishing said sintered green body, said method being characterized in that said first mixture further includes 1% to 6% by weight of a cerium oxide powder. creating a first mixture including: • a zirconia powder, • 3 to 20% by weight of at least one stabilizer chosen from the group of oxides comprising yttrium oxide, magnesium oxide, and calcium oxide, alone or in combination, • 0.1% to 5% by weight of at least one element intended to create a vitreous phase, and chosen from the group comprising silicon oxide, aluminium oxide, lithium oxide and yttrium oxide, alone or in combination, • a zirconia powder, • 3 to 20% by weight of at least one stabilizer chosen from the group of oxides comprising yttrium oxide, magnesium oxide, and calcium oxide, alone or in combination, • 0.1% to 5% by weight of at least one element intended to create a vitreous phase, and chosen from the group comprising silicon oxide, aluminium oxide, lithium oxide and yttrium oxide, alone or in combination, creating a second mixture including said first mixture and a binder, creating a granulated mixture by granulating said second mixture; forming a green body by giving the second granulated mixture the shape of the desired article; air-sintering for at least 30 minutes at a temperature comprised between 1,250 and 1,500°C and, annealing the desired article at a temperature comprised between 700°C and 1,350°C for a period comprised between 30 minutes and 20 hours in a reducing atmosphere, polishing said sintered green body, said method being characterized in that said first mixture further includes 1% to 6% by weight of a cerium oxide powder.
An aqueous green concentrated reagent composition for use as a body fluid sample diluent for use in a hematology analyzer or cellular analyzer, the aqueous green concentrated reagent composition comprising: a chelating agent, a hemoglobin ligand, a stabilizing agent, a buffer, and an antimicrobial agent, wherein the aqueous green concentrated reagent composition has a concentration which is at least 10-fold to 20-fold greater than its working concentration, and wherein: A) the chelating agent comprises 10 to 100 g/L tetrasodium EDTA; the hemoglobin ligand comprises 10 to 50 g/L imidazole; the stabilizing agent comprises 20 to 100 g/L sodium sulfate and 15 to 60 g/L potassium sulfate; the buffer comprises 60 to 300 g/L sodium potassium tartrate; and the antimicrobial agent is selected from the group consisting of 5-chloro-2-methyl-4-isothiazolin-3-one (CMIT), 2-methyl-4-isothiazolin-3-one, 5-bromo-5-nitro-1,3-dioxane (Bronidox L), and 5-fluorouracil; or B) the chelating agent comprises 10 to 65 g/L tetrasodium EDTA; the hemoglobin ligand comprises 15 to 50 g/L imidazole; the stabilizing agent comprises 40 to 100 g/L sodium sulfate and 15 to 50 g/L potassium sulfate; and the buffer comprises 80 to 180 g/L sodium potassium tartrate. a chelating agent, a hemoglobin ligand, a stabilizing agent, a buffer, and an antimicrobial agent, A) the chelating agent comprises 10 to 100 g/L tetrasodium EDTA; the hemoglobin ligand comprises 10 to 50 g/L imidazole; the stabilizing agent comprises 20 to 100 g/L sodium sulfate and 15 to 60 g/L potassium sulfate; the buffer comprises 60 to 300 g/L sodium potassium tartrate; and the antimicrobial agent is selected from the group consisting of 5-chloro-2-methyl-4-isothiazolin-3-one (CMIT), 2-methyl-4-isothiazolin-3-one, 5-bromo-5-nitro-1,3-dioxane (Bronidox L), and 5-fluorouracil; or the hemoglobin ligand comprises 10 to 50 g/L imidazole; the stabilizing agent comprises 20 to 100 g/L sodium sulfate and 15 to 60 g/L potassium sulfate; the buffer comprises 60 to 300 g/L sodium potassium tartrate; and the antimicrobial agent is selected from the group consisting of 5-chloro-2-methyl-4-isothiazolin-3-one (CMIT), 2-methyl-4-isothiazolin-3-one, 5-bromo-5-nitro-1,3-dioxane (Bronidox L), and 5-fluorouracil; or B) the chelating agent comprises 10 to 65 g/L tetrasodium EDTA; the hemoglobin ligand comprises 15 to 50 g/L imidazole; the stabilizing agent comprises 40 to 100 g/L sodium sulfate and 15 to 50 g/L potassium sulfate; and the buffer comprises 80 to 180 g/L sodium potassium tartrate. the hemoglobin ligand comprises 15 to 50 g/L imidazole; the stabilizing agent comprises 40 to 100 g/L sodium sulfate and 15 to 50 g/L potassium sulfate; and the buffer comprises 80 to 180 g/L sodium potassium tartrate.
A heat exchanging apparatus comprising: a plurality of fins each having a plate shape and extending in a vertical direction, the plurality of fins being arranged successively in a horizontal direction in a state that surfaces of the adjacent pair of fins are parallel to each other; and a heat transfer tube configured so that refrigerant can flow inside said heat transfer tube, the heat transfer tube being inserted while adhering into a tube hole provided on each of the plurality of fins, wherein a plurality of grooves each extending from a upper part to a lower part is formed on the surface of each of the fins at intervals in an arrangement direction orthogonal to the extending direction of each of the grooves, and characterized in that a width of each of the grooves is 5 μm or more to 200 μm or less and a distance between edges of the adjacent grooves in the arrangement direction is 5 μm or more to twice or less the width of each of the grooves. a plurality of fins each having a plate shape and extending in a vertical direction, the plurality of fins being arranged successively in a horizontal direction in a state that surfaces of the adjacent pair of fins are parallel to each other; and a heat transfer tube configured so that refrigerant can flow inside said heat transfer tube, the heat transfer tube being inserted while adhering into a tube hole provided on each of the plurality of fins, wherein a plurality of grooves each extending from a upper part to a lower part is formed on the surface of each of the fins at intervals in an arrangement direction orthogonal to the extending direction of each of the grooves, and characterized in that a width of each of the grooves is 5 μm or more to 200 μm or less and a distance between edges of the adjacent grooves in the arrangement direction is 5 μm or more to twice or less the width of each of the grooves.
Patient care system comprising a medical device for administering a medical treatment to a patient and a server system configured to receive and transmit data via a communications network to and from users including patients and health care professionals, the server system further configured to process and store data related to patient care, wherein the server system comprises a database configured to store data related to patient care, an application server including patient care software components for disease management and patient information management program, a communication server including a web server software application for data transfer through the internet, the patient care software components configured to receive medical device usage data comprising data on the usage of said medical device transferred through the communications network and to receive second data, i.e. patient data, from one or more second data input devices, and further configured to process said medical device usage data in conjunction with patient data, selected from a clinically validated questionnaire, health test results and physiological data to generate a report or a plurality of reports related to the treatment of the patient, the reports being accessible remotely via the communications network by registered users of the patient care system as a function of respective roles and privileges of the registered user stored in the server system, the patient information management program comprising a reports component configured to generate reports, in the form of tables, charts, lists, diagrams or graphical representations based on information selected from drug administration history, adherence data, patient outcome reports, patient health reports, patient physiological data reports, medical device settings, treatment regimen data, and any combination of aforesaid information, the reports component being configured to form composite reports for simultaneous display on a user interface device display, including composite adherence and patient outcome reports to facilitate evaluation of the effects of non-adherence to the treatment regimen or the efficacy of the medical treatment, and wherein the system is operable to time stamp the medical device usage data, first data, such that the time and/or date of use of the medical device is recorded; and wherein the system is operable to time stamp the patient data, second data, such that the time and/or date of a physiological state of a patient is recorded, and wherein the composite adherence report is represented by a first graphical representation, and the patient outcome report relates to a physiological state of the patient and is represented by a second graphical representation, the first and second representations having a common time scale, and such that the composite adherence report and the patient outcome report are displayed for a common time interval, such that an operator can compare and/or correlate the adherence the treatment regimen to the patient outcome report over a period of time.
A cooled electrical assembly comprising bus bar means including at least a first bus bar and a second bus bar, electrical component means including at least a first electrical component connected between the first bus bar and the second bus bar, and heat pipe means for cooling the bus bar means, the heat pipe means including a heat pipe (HP1, HP2, HP3) for each bus bar (BB1, BB2, BB3) of the bus bar means, an evaporator portion of each of the heat pipes (HP1, HP2, HP3) being heat conductively connected to a corresponding bus bar (BB1, BB2, BB3), both the evaporator portion and a condenser portion of each heat pipe (HP1, HP2, HP3) of the heat pipe means being flat portions, the cooled electrical assembly further comprising heat sink means heat conductively connected to the flat condenser portion of each of the heat pipes, characterized in that an evaporator portion of each of the heats pipes is electrically insulated from the heat sink means by electrical insulation means, and that the electrical insulation means comprises at least one planar insulation layer (IL11 - IL32) between the condenser portion of each heat pipe (HP1, HP2, HP3) of the heat pipe means and the heat sink means.
Method for detecting defects in the closure of encapsulated vials comprising a cap and a capsule responsible for holding the cap firmly attached to the respective vial so that a sealed closure is created, characterised in that it comprises the following steps: a) Scanning a profile of the capsule and of the vial using a laser profilometer, said profile corresponding to a generatrix of the vial which defines a head, a side and a lower skirt of said capsule, thus obtaining a point cloud. b) From the point cloud obtained in the previous step, calculating at least one of the following parameters: i. Diameter or radius of the closure circumference of the capsule, said closure circumference being defined by the circumference defined by the fold of the lower skirt of the capsule relative to the side thereof. ii. Angle of intersection between the lower skirt and the side of the capsule. iii. Length of the lower skirt. iv. Distance from the end of the lower skirt to the neck of the vial. c) Determining whether any parameter calculated in the previous step exceeds a predetermined limit value, said limit value indicating whether the encapsulation is or is not correct. a) Scanning a profile of the capsule and of the vial using a laser profilometer, said profile corresponding to a generatrix of the vial which defines a head, a side and a lower skirt of said capsule, thus obtaining a point cloud. b) From the point cloud obtained in the previous step, calculating at least one of the following parameters: i. Diameter or radius of the closure circumference of the capsule, said closure circumference being defined by the circumference defined by the fold of the lower skirt of the capsule relative to the side thereof. ii. Angle of intersection between the lower skirt and the side of the capsule. iii. Length of the lower skirt. iv. Distance from the end of the lower skirt to the neck of the vial. i. Diameter or radius of the closure circumference of the capsule, said closure circumference being defined by the circumference defined by the fold of the lower skirt of the capsule relative to the side thereof. ii. Angle of intersection between the lower skirt and the side of the capsule. iii. Length of the lower skirt. iv. Distance from the end of the lower skirt to the neck of the vial. c) Determining whether any parameter calculated in the previous step exceeds a predetermined limit value, said limit value indicating whether the encapsulation is or is not correct.
A method of forming a hydrophobic coating on a substrate, including the steps of: providing in a reaction chamber a substrate having a layer of carbon nanostructures on the substrate, supplying the reaction chamber with a coating precursor which includes a fluorocarbon, and generating a plasma in the reaction chamber, in order to deposit a hydrophobic coating on at least a part of said layer of carbon nanostructures, wherein either the plasma generation takes place in the absence of a source of hydrogen atoms, in which case the substrate is heated to at least 100°C, the power density of the plasma is not more than 0.1 Wcm -2 and the plasma is generated for a period from 3 to 12 minutes, or the plasma generation takes place in the presence of a source of hydrogen atoms, in which case the power density of the plasma is not more than 0.2 Wcm -2 and the plasma is generated for a period from 5 to 14 seconds. providing in a reaction chamber a substrate having a layer of carbon nanostructures on the substrate, supplying the reaction chamber with a coating precursor which includes a fluorocarbon, and generating a plasma in the reaction chamber, in order to deposit a hydrophobic coating on at least a part of said layer of carbon nanostructures, wherein either the plasma generation takes place in the absence of a source of hydrogen atoms, in which case the substrate is heated to at least 100°C, the power density of the plasma is not more than 0.1 Wcm -2 and the plasma is generated for a period from 3 to 12 minutes, or the plasma generation takes place in the presence of a source of hydrogen atoms, in which case the power density of the plasma is not more than 0.2 Wcm -2 and the plasma is generated for a period from 5 to 14 seconds.
A device for adjusting an inductance of at least one electric conductor, wherein the device comprises an adjustment arrangement with a first magnetically conductive element and at least a second magnetically conductive element, wherein the adjustment arrangement comprises at least a first spacer element, wherein the at least first spacer element is arranged in between the first magnetically conductive element and the second magnetically conductive element, wherein the adjustment arrangement comprises at least one additional spacer element (10, 11, 12), wherein the at least one additional spacer element (10, 11, 12) is arranged outside an interspace in between the first and the second magnetically conductive element, wherein the at least one additional spacer element (10, 11, 12) is arranged below the first magnetically conductive element or above the second magnetically conductive element, wherein the adjustment arrangement provides a through-hole through which the electric conductor can extend, wherein the device comprises a housing, wherein the housing provides a mounting volume for the adjustment arrangement comprising the first magnetically conductive element, the second magnetically conductive element, the at least first spacer element and the at least one additional spacer element (10, 11, 12), characterized in that the housing comprises or provides at least one conductor clamping means.
A method for determining the own position of an image-recording camera within an environment in which structures are optically detectable, wherein the device comprises at least the image-recording camera, a measuring camera firmly mounted to this camera in a known position and an evaluation unit, which is configured to determine the own position of the image-recording camera at least from the structures in the image of the measuring camera, and the image-recording camera and the measuring camera are orientated in such a way that they are able to record at least partially a common section of the environment within which structures are located that are optically detectable by both cameras (20; 30) in their images (21; 31), respectively, wherein the measuring camera is in connection with the evaluation unit, which is configured to continuously determine the own position of the image-recording camera at least from the structures in the environment that are respectively detected by the measuring camera, characterized in that wherein the evaluation unit is further configured for locating these structures at least partially also in the image of the image-recording camera and for correcting the own position of the image-recording camera, which is determined from the image of the measuring camera, based on the position of the structures determined from the image of the image-recording camera, and the evaluation unit corrects the determined own position of the image-recording camera by searching, in the image of the measuring camera, for optically detectable structures, identifies them and carries out an estimate of the position of the detected structures, whereupon the evaluation unit calculates a probable position of the detected structures in the image of the image-recording camera, searches for them at that probable position in the image of the image-recording camera, and determines their actual position in the image of the image-recording camera, whereupon the determined actual position of the structures in the image of the image-recording camera is used by the evaluation unit for re-calculating the own position of the image-recording camera.
Spreading device for a bridge rope assembly consisting of a plurality of individual ropes, in particular a hexagonal bridge rope assembly, consisting of two rope clamps and at least one spreading clamp which may be fixed to the bridge rope assembly, the at least one spreading clamp being disposed between the rope clamps, characterized in that the spreading clamp abuts, in its assembled state, with at least one first spreading clamp element against the bridge rope and is arranged with at least one second spreading clamp element at a distance to the bridge rope, wherein the first spreading clamp elements consist of angle segments that can be screwed to each other and extend across a circumference of 60° each and comprise two connection flanges (5, 6) each, and the second spreading clamp element consists of two connection flanges (13, 14) and one bow element provided for receiving a rope spreader, a rope clamp and/or a rope mount.