mhurhangee/ep-ind-claims huggingface dataset:
A blind rivet comprising: a rivet body having a hollow sleeve, a rivet head formed on one end of the sleeve, and a through-hole formed so as to pass through the rivet body from the sleeve-side end to the rivet head-side end, a mandrel having an elongated stem the outer diameter of which is smaller than the inner diameter of the sleeve and the length of which is greater than the length of the rivet body, and a head the outer diameter of which is greater than the inner diameter of the sleeve, wherein the head of the mandrel is arranged adjacent to the sleeve-side end of the rivet body, the stem of the mandrel passes through the through-hole in the rivet body and extends from the rivet head-side end, characterized by a washer the inner diameter of which is smaller than the outer diameter of the rivet head and greater than the outer diameter of the sleeve in the rivet body, and the outer diameter of which is greater than the outer diameter of the rivet head, wherein the washer is arranged around the outer circumferential surface of the sleeve in the rivet body and adjacent to the rivet head, and wherein the hardness of the washer is greater than the hardness of the rivet body. a rivet body having a hollow sleeve, a rivet head formed on one end of the sleeve, and a through-hole formed so as to pass through the rivet body from the sleeve-side end to the rivet head-side end, a mandrel having an elongated stem the outer diameter of which is smaller than the inner diameter of the sleeve and the length of which is greater than the length of the rivet body, and a head the outer diameter of which is greater than the inner diameter of the sleeve, wherein the head of the mandrel is arranged adjacent to the sleeve-side end of the rivet body, the stem of the mandrel passes through the through-hole in the rivet body and extends from the rivet head-side end, characterized by a washer the inner diameter of which is smaller than the outer diameter of the rivet head and greater than the outer diameter of the sleeve in the rivet body, and the outer diameter of which is greater than the outer diameter of the rivet head, wherein the washer is arranged around the outer circumferential surface of the sleeve in the rivet body and adjacent to the rivet head, and wherein the hardness of the washer is greater than the hardness of the rivet body.
An optical-fiber module (10, 31), comprising: one or more optical fibers; an intermediate layer enclosing said one or more optical fibers, said intermediate layer comprising ( i) a polymeric medium and ( ii) a liquid lubricant dispersed within said polymeric medium; and a buffer tube (13, 32) enclosing said one or more optical fibers and said intermediate layer, wherein said polymeric medium comprises a thermoplastic gel formulated from synthetic hydrocarbon polymers, wherein said thermoplastic gel has a softening point that is greater than 70 °C, wherein said liquid lubricant comprises silicone oil, characterized in that said intermediate layer comprises between 10 weight percent and 20 weight percent silicone oil. one or more optical fibers; an intermediate layer enclosing said one or more optical fibers, said intermediate layer comprising ( i) a polymeric medium and ( ii) a liquid lubricant dispersed within said polymeric medium; and a buffer tube (13, 32) enclosing said one or more optical fibers and said intermediate layer, wherein said polymeric medium comprises a thermoplastic gel formulated from synthetic hydrocarbon polymers, wherein said thermoplastic gel has a softening point that is greater than 70 °C, wherein said liquid lubricant comprises silicone oil, characterized in that said intermediate layer comprises between 10 weight percent and 20 weight percent silicone oil.
An oil-in-water emulsion sunscreen cosmetic comprising: one or more selected from a UV absorbing agent and a UV scattering agent; a fatty acid that is solid at room temperature; and an oil having at least an 0.5 IOB, wherein the IOB is defined as described in the description and wherein the oil is selected from the group consisting of ester oils, polyalkylene glycols, and an alkylene oxide derivative represented by the formula R 1 O-[ m n]-R 2 where AO is a 3-4 carbon oxyalkylene group, EO is an oxyethylene group, 1 ≤ m ≤ 70, 1 ≤ n ≤ 70, and R 1 and R 2 are independently H or hydrocarbon groups having 1 to 4 carbon atoms; wherein a neutralization rate of the fatty acid is 51% or less; and a blending ratio ( /) between and is within a range of at least 0.1 and less than 10.0. one or more selected from a UV absorbing agent and a UV scattering agent; a fatty acid that is solid at room temperature; and an oil having at least an 0.5 IOB, wherein the IOB is defined as described in the description and wherein the oil is selected from the group consisting of ester oils, polyalkylene glycols, and an alkylene oxide derivative represented by the formula R 1 O-[ m n]-R 2 wherein a neutralization rate of the fatty acid is 51% or less; and a blending ratio ( /) between and is within a range of at least 0.1 and less than 10.0.
A metallic luster pigment based on coated aluminum substrate platelets, wherein the aluminum substrate platelets have a thickness of 1 to 50 nm, preferably of 1 to 30 nm, are of monolithic structure and have optionally been passivated and are encased by at least one coating B composed of at least one metal oxide having a high refractive index of at least 1.9, wherein the coating B has a thickness of at least 50 nm and is formed essentially from a metal oxide of high refractive index, selected from at least one of iron oxide, chromium oxide, vanadium oxide, titanium oxide, titanium dioxide and/or zirconium oxide, and wherein between the surface of the aluminum substrate platelets and the coating B there is at least one further coating A which encases the substrate platelets and is composed of at least one metal oxide having a low refractive index of at most 1.8, selected from the group consisting of SiO 2, B 2 O 3, MnO 2, MgO, GeO 2 and Al 2 O 3, wherein the substrate platelets have a further coating C which is different than the coating B beneath and is composed of at least one metal oxide (hydrate) selected from silicon (di)oxide, silicon oxide hydrate, aluminum oxide, aluminum oxide hydrate, zinc oxide, tin oxide, titanium dioxide, zirconium oxide, iron oxide and chromium oxide.
A method for the active adjustment of the monolayer or multilayer film profile, in an extrusion line with the blown technology, said method comprising a step for the active adjustment of the profile, wherein said film profile is generated, by means of a sine wave, transversely movable, with an amplitude substantially equal to the profile tolerance reached with the basic adjustment of the profile and having a variable sliding frequency, wherein the step for the active adjustment of the profile is effected by means of a disk with "n" segments, physically divided by metal sectors, which regulate the quantity or temperature, or both parameters, of a flow of cooling air; said method being characterised in that the sine wave has an amplitude and a frequency proportional to the extent of the defect not corrected by the basic adjustment system of the profile, wherein the amplitude of the sine wave is defined in an initial development step of the film production, wherein the thickness, and consequently the profile defects, in each point of the film produced with basic adjustment, is detected.
A gear cutting machine having a machine control as well as at least one display for displaying machine-relevant parameters, wherein the display is multitouch-operable and allows a user input for controlling the gear cutting machine by means of multifinger gestures over the display, characterized in that the display representation is divided into one or more windows, with each window representing a specific number of machine-relevant parameters and each window being individually configurable over the touch display with respect to the window size and the type and/or extent of the machine-relevant parameters shown; and in that the gear cutting machine has means for a user-dependent display representation of one or more machine-relevant parameters and means for operator recognition and/or operator verification and/or operator authentication.
A seawater pretreatment system for the removal of bio-organic material from a source of raw seawater, the system comprising: at least one inlet screen for receiving raw seawater; a first channel segment (44(a)) for receiving the raw seawater from the at least one inlet screen; a second channel segment (44(b)) for receiving the raw seawater from the first channel segment, the system arranged such that the fluid moves through the first segment until it is filled, at which time it spills over to the second channel; a membrane-less hydrodynamic separator unit configured with an inlet to receive the raw seawater from the second channel segment, the membrane-less hydrodynamic separator including at least one separator module for removing bio-organic material from the raw seawater, the separator module having a curved configuration comprising at least one curved portion that spans between 180 degrees and 360 degrees of angular distance along a diameter thereof, leading to a bifurcated outlet operative for passing treated effluent to a downstream filtration system and for the removal of waste fluid; the system being arranged so that the screened seawater is driven through the channel segments and the hydrodynamic separator by hydrostatic forces; and a means for returning the waste fluid to the source. at least one inlet screen for receiving raw seawater; a first channel segment (44(a)) for receiving the raw seawater from the at least one inlet screen; a second channel segment (44(b)) for receiving the raw seawater from the first channel segment, the system arranged such that the fluid moves through the first segment until it is filled, at which time it spills over to the second channel; a membrane-less hydrodynamic separator unit configured with an inlet to receive the raw seawater from the second channel segment, the membrane-less hydrodynamic separator including at least one separator module for removing bio-organic material from the raw seawater, the separator module having a curved configuration comprising at least one curved portion that spans between 180 degrees and 360 degrees of angular distance along a diameter thereof, leading to a bifurcated outlet operative for passing treated effluent to a downstream filtration system and for the removal of waste fluid; the system being arranged so that the screened seawater is driven through the channel segments and the hydrodynamic separator by hydrostatic forces; and a means for returning the waste fluid to the source.
Use of a composition comprising - at least one polymer which is liquid at room temperature and contains silane groups, - at least one liquid epoxy resin, and - at least one aliphatic polyamine having a molecular weight of at least 115 g/mol and containing at least three amine hydrogens that are reactive towards epoxide groups, as liquid-applied sealing membrane, wherein the composition additionally comprises at least one aromatic diluent having a boiling point of at least 180°C, wherein the at least one aromatic diluent comprises 2-phenoxyethanol, 2-benzyloxyethanol, benzyl alcohol, ethylene glycol diphenyl ether, propylene glycol phenyl ether, N-ethylpyrrolidone, diphenylmethanol, diisopropylnaphthalene, petroleum fractions, cardanol, styrenized phenol, bisphenols, hydrocarbon resins containing phenol groups, or ethoxylated or propoxylated phenol. - at least one polymer which is liquid at room temperature and contains silane groups, - at least one liquid epoxy resin, and - at least one aliphatic polyamine having a molecular weight of at least 115 g/mol and containing at least three amine hydrogens that are reactive towards epoxide groups,
A method comprising: determining, at a dual mode powerline communication device, whether a powerline communication network comprises a combination of a powerline communication device of a first class of powerline communication devices and a powerline communication device of a second class of powerline communication devices; selecting (206, 208), at the dual mode powerline communication device, a packet header that is compatible with the first class of powerline communication devices and the second class of powerline communication devices, in response to determining that the powerline communication network comprises the combination of the powerline communication device of the first class of powerline communication devices and the powerline communication device of the second class of powerline communication devices; generating, at the dual mode powerline communication device, a packet for transmission based, at least in part, on the selected packet header; and transmitting, from the dual mode powerline communication device, the packet via the powerline communication network. determining, at a dual mode powerline communication device, whether a powerline communication network comprises a combination of a powerline communication device of a first class of powerline communication devices and a powerline communication device of a second class of powerline communication devices; selecting (206, 208), at the dual mode powerline communication device, a packet header that is compatible with the first class of powerline communication devices and the second class of powerline communication devices, in response to determining that the powerline communication network comprises the combination of the powerline communication device of the first class of powerline communication devices and the powerline communication device of the second class of powerline communication devices; generating, at the dual mode powerline communication device, a packet for transmission based, at least in part, on the selected packet header; and transmitting, from the dual mode powerline communication device, the packet via the powerline communication network.
Screw spindle pump comprising at least one running spindle without hydraulic axial thrust balancing, comprising a housing with a pump chamber and also comprising a drive spindle, which is accommodated therein, as well as the at least one running spindle, which meshes with the drive spindle and has in each case two end surfaces, characterized in that the drive spindle is hydraulically balanced in such a way that, during pump operation, only a negligible axial force, if any at all, acts on the drive spindle, wherein the pump chamber is sealed in the direction of a drive side of the drive spindle via a sealing element between the drive spindle and the housing, the sealing element being arranged on the drive spindle, wherein that surface of the sealing element which faces the pump chamber, and is subjected to axial pressure by a delivered medium, is essentially equal to the size of the surface of a drive-spindle profile that is subjected to axial pressure by the medium, which drive-spindle profile protrudes radially from a spindle core, and in that a stop surface is provided axially adjacent to at least one end surface of the running spindle, wherein the running spindle is accommodated with axial play perpendicularly to the stop surface and such that it can be displaced against the stop surface.
A pinned photodiode pixel architecture comprising:-a first doped region formed on a second doped region, the first doped region being of a different doping type to the second doped region and being internally biased to a first potential; and a third doped region formed on the first doped region, the third doped region being of a different doping type to the first doped region and being externally biased to a second potential; characterized in that at least the second doped region is externally biased to a third potential which is independent of the second potential to create an avalanche region between the first doped region and the second doped region; and in that the second doped region and the third doped region are not at the same potential.
A method for contingency planning for an autonomous vehicle, or AV, (302, 611, 912, 1002, 1102, 1202, 1402, 1502, 1602, 1702, 1710, 1720, 1734, 1902, 2002, 2102, 2182, 2402) comprising: determining a trajectory and a desired speed plan for the AV; and identifying a likelihood of an object at an obscured location along the trajectory; the method being characterized by: identifying a farthest visible location along the trajectory, wherein the farthest visible location is a location along the trajectory such that the AV would be capable of detecting the object at said location; determining an appropriate maximum deceleration to be used in a case that the object is detected at the obscured location; determining a target deceleration for the AV, wherein operating the AV according to the target deceleration guarantees that if the object were detected at the obscured location, the AV would be capable of stopping in time using the appropriate maximum deceleration; and in response to determining that the object is at the obscure location, operating the AV according to an appropriate deceleration of the AV that is less than or equal to the appropriate maximum deceleration. determining a trajectory and a desired speed plan for the AV; and identifying a likelihood of an object at an obscured location along the trajectory; identifying a farthest visible location along the trajectory, wherein the farthest visible location is a location along the trajectory such that the AV would be capable of detecting the object at said location; determining an appropriate maximum deceleration to be used in a case that the object is detected at the obscured location; determining a target deceleration for the AV, wherein operating the AV according to the target deceleration guarantees that if the object were detected at the obscured location, the AV would be capable of stopping in time using the appropriate maximum deceleration; and in response to determining that the object is at the obscure location, operating the AV according to an appropriate deceleration of the AV that is less than or equal to the appropriate maximum deceleration.
A rock crusher having a sealing system and a support bowl with a male threaded section, said male threaded section having an interior portion, said sealing system comprising: (a) an upper frame, said upper frame having a female threaded section and a scraper seal groove; (b) a scraper seal, said scraper seal being configured to be disposed in the scraper seal groove of the upper frame and fit into the male threaded section of the support bowl; wherein forces produced by the rock crusher pass directly to the upper frame from the male threaded section, and characterised in that said scraper seal is disposed in the scraper seal groove of the upper frame and into the male threaded section of the support bowl. (a) an upper frame, said upper frame having a female threaded section and a scraper seal groove; (b) a scraper seal, said scraper seal being configured to be disposed in the scraper seal groove of the upper frame and fit into the male threaded section of the support bowl;
A method for manufacturing a spectacle frame comprising a chassis and side arms (51a; 51b), wherein - a number of material layers comprising paper sheets, sheets of a paper-like material or sheets made of a material having paper-like properties are made into a stack, a curable adhesive being inserted between the material layers in order to undetachably interconnect said material layers, - the spectacle frame is separated from the stack that has been produced in this manner, said stack thus produced being bent using a forming tool prior to the separation of the spectacle frame while the adhesive has not yet finished curing in order to obtain a basic form of the spectacle frame from which the spectacle frame is separated once the basic form has finished curing, and - once the spectacle frame has been separated from the basic form, said spectacle frame is initially configured as a single piece. - a number of material layers comprising paper sheets, sheets of a paper-like material or sheets made of a material having paper-like properties are made into a stack, a curable adhesive being inserted between the material layers in order to undetachably interconnect said material layers, - the spectacle frame is separated from the stack that has been produced in this manner, said stack thus produced being bent using a forming tool prior to the separation of the spectacle frame while the adhesive has not yet finished curing in order to obtain a basic form of the spectacle frame from which the spectacle frame is separated once the basic form has finished curing, and - once the spectacle frame has been separated from the basic form, said spectacle frame is initially configured as a single piece.
A method of coordinating transmission and reception activities of two or more radio interfaces (12, 14) integrated in a communication device, wherein a priority setting is associated with information intended for transmission via a first radio interface, the method comprising the following steps performed for the first radio interface: • receiving a signal indicative of an upcoming reception via a second radio interface, wherein the signal requests a suppression of the transmission via the first radio interface; • determining for an on-going or scheduled transmission of information via the first radio interface the priority setting associated with the information; and • performing a decision regarding an interruption or a delay of the transmission depending on the priority setting associated with the information. • receiving a signal indicative of an upcoming reception via a second radio interface, wherein the signal requests a suppression of the transmission via the first radio interface; • determining for an on-going or scheduled transmission of information via the first radio interface the priority setting associated with the information; and • performing a decision regarding an interruption or a delay of the transmission depending on the priority setting associated with the information.
A method of manufacturing lithium-metal nitride comprising: suspending a lithium-metal-oxide-powder (LMOP) within a gaseous mixture; incrementally heating the suspended LMOP to a holding temperature of between 400 and 800 degrees Celsius such that the LMOP reaches the holding temperature; maintaining the LMOP at the holding temperature for a time period in order for the gaseous mixture and the LMOP to react to form a lithium-metal nitride powder (LMNP); and degassing the suspended LMOP. suspending a lithium-metal-oxide-powder (LMOP) within a gaseous mixture; incrementally heating the suspended LMOP to a holding temperature of between 400 and 800 degrees Celsius such that the LMOP reaches the holding temperature; maintaining the LMOP at the holding temperature for a time period in order for the gaseous mixture and the LMOP to react to form a lithium-metal nitride powder (LMNP); and degassing the suspended LMOP.