mhurhangee/ep-ind-claims huggingface dataset:
Method for hindering non-authorised sample of a liquid from at least one offtake conduit connected to a main conduit for the transport of said liquid, in particular a mixture of hydrocarbons and water, said main conduit having one inlet port and at least one outlet port between which said liquid flows, said method comprising the step of: - introducing a plurality of solid objects into said main conduit through said at least one inlet port, said plurality of introduced solid objects having weight, size and density such as to be transportable towards said at least one outlet port by the main flow of said liquid, such as to be able to be possibly captured by the offtake flow of said liquid directed towards said offtake conduit, and such as to be able to possibly at least partially obstruct such offtake conduit - collecting - through said at least one outlet port - the plurality of solid objects transported by the main flow of said liquid; the method being charaterised by the following step - detecting the presence of at least one offtake conduit on the basis of the difference between the number of said introduced objects and the number of said collected objects, the presence of at least one offtake conduit being detected if the number of the collected objects is different from the number of the introduced objects, said detection allowing the actuation of the procedures aimed at localising and removing the offtake conduit. - introducing a plurality of solid objects into said main conduit through said at least one inlet port, said plurality of introduced solid objects having weight, size and density such as to be transportable towards said at least one outlet port by the main flow of said liquid, such as to be able to be possibly captured by the offtake flow of said liquid directed towards said offtake conduit, and such as to be able to possibly at least partially obstruct such offtake conduit - collecting - through said at least one outlet port - the plurality of solid objects transported by the main flow of said liquid; the method being charaterised by the following step - detecting the presence of at least one offtake conduit on the basis of the difference between the number of said introduced objects and the number of said collected objects, the presence of at least one offtake conduit being detected if the number of the collected objects is different from the number of the introduced objects, said detection allowing the actuation of the procedures aimed at localising and removing the offtake conduit.
A computerised method for determining an illumination spectrum for a first point (602, 708) of image data, the method comprising: determining multiple prototypes of illuminant spectra based on multiple instances of the image data forming a scale space; determining an initial illumination spectrum for the first point and multiple initial illumination spectra for each of multiple second points based on the multiple prototypes of illuminant spectra; determining associations between the first point and multiple second points of the multiple instances (702, 704, 706) of the image data; determining an optimised illumination spectrum for the first point by determining a statistical estimation of the illumination spectrum for the first point of the image data based on the determined initial illumination spectra and the associations; characterised in that the associations are represented by a factor graph, which is constructed by making use of the scale space and the multiple prototypes of illuminant spectra, and in that the determination of the optimised illumination spectrum comprises performing message passing that computes exact probability marginals of variables in a collection of local tree structures created by partitioning the factor graph into sub-graphs. determining multiple prototypes of illuminant spectra based on multiple instances of the image data forming a scale space; determining an initial illumination spectrum for the first point and multiple initial illumination spectra for each of multiple second points based on the multiple prototypes of illuminant spectra; determining associations between the first point and multiple second points of the multiple instances (702, 704, 706) of the image data; determining an optimised illumination spectrum for the first point by determining a statistical estimation of the illumination spectrum for the first point of the image data based on the determined initial illumination spectra and the associations; characterised in that the associations are represented by a factor graph, which is constructed by making use of the scale space and the multiple prototypes of illuminant spectra, and in that the determination of the optimised illumination spectrum comprises performing message passing that computes exact probability marginals of variables in a collection of local tree structures created by partitioning the factor graph into sub-graphs.
A low alloy steel for oil well pipes with yield strength of 758 to 965 MPa, consisting of, by mass %, C: 0.2 to 0.35%, Si: 0.05 to 0.5%, Mn: 0.05 to 1.0%, P: 0.025% or less, S: 0.01% or less, sol. Al: 0.005 to 0.10%, Cr: 0.1 to 1.0%, Mo: 0.5 to 1.0%, Ti: 0.002 to 0.05%, V: 0.05 to 0.20%, B: 0.0001 to 0.005%, N: 0.01% or less, O (oxygen): 0.01% or less, Ca: 0 to 0.01%, Mg: 0 to 0.01% and Zr: 0 to 0.1 %, and the balance Fe and impurities, in which the relationship between the half-value width H (deg.) for the peak of the crystal face and the hydrogen diffusion coefficient D (10 -6 cm 2 /s) satisfies the following equation: 30 H + D ≤ 19.5
Blade rotor of a cutter bar of a mowing appliance, having a mowing disc, at least one mowing blade, at least one bearing bolt, fastened to the mowing disc, for mounting the mowing blade in a pivotable manner, a spring sheet, arranged on an underside of the mowing disc, for holding the mowing blade on the bearing bolt, characterized by at least one scraper for removing remnants stuck to the cutter bar, wherein the scraper is arranged between the spring sheet and the underside of the mowing disc and is releasably fastened to the mowing disc between the bearing bolt and an axis of rotation of the mowing disc.
A heel retainer for a ski binding, namely a combined downhill and touring binding, wherein the ski binding comprises: (a) a base; (b) an automatic heel mechanism comprising a tensing device featuring a sole retainer and a connecting structure which connects the tensing device to the base; (c) a first and an additional, second climbing aid (8, 9), wherein the first climbing aid supports a user's boot at a first climbing angle, and the second climbing aid supports the boot at a second climbing angle, wherein the second climbing angle is greater than the first climbing angle; (d) a ski brake; and (e) a pedal which can be moved from a first position, in which the ski brake protrudes downwards from the ski and exerts a braking effect, to a second position in which the ski brake lies next to the ski and exhibits no braking effect, (f) wherein the heel retainer comprises a latch for the ski brake, by means of which the ski brake can be latched in the second position, (g) wherein the connecting structure is connected to the base such that it can be pivoted about an axis, characterised in that (h) the two climbing aids (8, 9) are connected to the automatic heel mechanism such that they can be pivoted in a common joint. (a) a base; (b) an automatic heel mechanism comprising a tensing device featuring a sole retainer and a connecting structure which connects the tensing device to the base; (c) a first and an additional, second climbing aid (8, 9), wherein the first climbing aid supports a user's boot at a first climbing angle, and the second climbing aid supports the boot at a second climbing angle, wherein the second climbing angle is greater than the first climbing angle; (d) a ski brake; and (e) a pedal which can be moved from a first position, in which the ski brake protrudes downwards from the ski and exerts a braking effect, to a second position in which the ski brake lies next to the ski and exhibits no braking effect, (f) wherein the heel retainer comprises a latch for the ski brake, by means of which the ski brake can be latched in the second position, (g) wherein the connecting structure is connected to the base such that it can be pivoted about an axis, characterised in that (h) the two climbing aids (8, 9) are connected to the automatic heel mechanism such that they can be pivoted in a common joint.
Calender for treating non-woven, textile, plastics or paper webs, comprising a frame in which a plurality of upper rollers (2, 2', 2", 2′′′) and at least one lower roller are mounted, and comprising an inlet side at which the web can enter the calender and an outlet side at which the material web can leave the calender, characterized in that exactly one of the at least one lower rollers can be brought into two different working positions (AU1, AU2), as a result of which an inlet-side nip and an outlet-side nip can be provided in succession by the calender, and one of the plurality of upper rollers (2, 2', 2", 2′′′) is an inlet-side upper roller and one of the plurality of upper rollers (2, 2', 2", 2′′′) is an outlet-side upper roller, and the lower roller is tiltable and/or movable in order to operate the inlet-side upper roller or the outlet-side upper roller for selectively forming an inlet-side or the outlet-side nip (8, 8'), the inlet-side nip and the outlet-side nip differing from one another in their position. comprising a frame in which a plurality of upper rollers (2, 2', 2", 2′′′) and at least one lower roller are mounted, and comprising an inlet side at which the web can enter the calender and an outlet side at which the material web can leave the calender, characterized in that exactly one of the at least one lower rollers can be brought into two different working positions (AU1, AU2), as a result of which an inlet-side nip and an outlet-side nip can be provided in succession by the calender, and one of the plurality of upper rollers (2, 2', 2", 2′′′) is an inlet-side upper roller and one of the plurality of upper rollers (2, 2', 2", 2′′′) is an outlet-side upper roller, and the lower roller is tiltable and/or movable in order to operate the inlet-side upper roller or the outlet-side upper roller for selectively forming an inlet-side or the outlet-side nip (8, 8'), the inlet-side nip and the outlet-side nip differing from one another in their position.
A broil burner comprising: a generally-tubular gas conduit configured to extend between a rearward region of an oven cavity and a forward region of the oven cavity, the gas conduit comprising an inlet that cooperates with a gas source to convey a combustible gas from the gas source to the gas conduit, and a plurality of apertures through which the combustible gas exits the gas conduit to be combusted; and a reflector that extends between opposing segments of the gas conduit to reflect heat generated by combustion of the combustible gas in a downward direction, generally toward a central region of the oven cavity, characterized in that the gas conduit includes two laterally spaced apart segments (46a, 46b) that define an open region between the two laterally spaced apart segments (46a, 46b), so that the combustible gas is combusted in the open region, wherein the reflector extends over the two laterally spaced apart segments (46a, 46b) and over the entire open region, and wherein the reflector extends an increasingly greater distance above the open region from each laterally spaced apart segment (46a, 46b) to a center of the open region. a generally-tubular gas conduit configured to extend between a rearward region of an oven cavity and a forward region of the oven cavity, the gas conduit comprising an inlet that cooperates with a gas source to convey a combustible gas from the gas source to the gas conduit, and a plurality of apertures through which the combustible gas exits the gas conduit to be combusted; and a reflector that extends between opposing segments of the gas conduit to reflect heat generated by combustion of the combustible gas in a downward direction, generally toward a central region of the oven cavity, characterized in that the gas conduit includes two laterally spaced apart segments (46a, 46b) that define an open region between the two laterally spaced apart segments (46a, 46b), so that the combustible gas is combusted in the open region, wherein the reflector extends over the two laterally spaced apart segments (46a, 46b) and over the entire open region, and wherein the reflector extends an increasingly greater distance above the open region from each laterally spaced apart segment (46a, 46b) to a center of the open region.
A holding frame for a plug connector for receiving modules of the same type and/or different modules, comprising a basic portion for fixing a received module in a plane and comprimising a deformation portion, which can assume an insertion state and a holding state, wherein the insertion state allows at least one module to be inserted into the holding frame in a direction transverse to the plane and in the holding state a received module is fixed, whereby the basic portion and the deformation portion are formed from resilient sheet metal, whereby the basic portion and the deformation portion have a different elasticity from one another, characterized in that the deformation portion has one or more detent windows (131, 131', 231, 231') to receive a detent lug (31, 31') of a module.
A method for the treatment of vapors produced while cooking food in the oven chamber of an oven, comprising the following steps: channeling vapors exiting said oven chamber in a first region of a vapor exhaust system of said oven, arranged so that therein the vapors are de-moisturized and cooled down, wherein in the first region a tortuous path for the vapors is formed, wherein said tortuous path is a duct comprising a plurality of baffles ( 177;1077), de-moisturizing and cooling down said vapors in said first region, wherein de-moisturizing comprises spraying cooling water into the first region where the baffles form a waterfall-type filter that at each fall condenses the vapors, channeling said de-moisturized and cooled down vapors exiting said first region in a second region of said vapor exhaust system, arranged on top of said first region and arranged so that therein vapors exiting said first region are mixed to air before being exhausted to the outside ambient, in said second region, mixing said de-moisturized and cooled down vapors exiting said first region with air taken in from the outside ambient and having cooled down at least one among a door of the said oven and internal oven parts heated up during the oven operation, exhausting said vapors to the outside ambient. channeling vapors exiting said oven chamber in a first region of a vapor exhaust system of said oven, arranged so that therein the vapors are de-moisturized and cooled down, wherein in the first region a tortuous path for the vapors is formed, wherein said tortuous path is a duct comprising a plurality of baffles ( 177;1077), de-moisturizing and cooling down said vapors in said first region, wherein de-moisturizing comprises spraying cooling water into the first region where the baffles form a waterfall-type filter that at each fall condenses the vapors, channeling said de-moisturized and cooled down vapors exiting said first region in a second region of said vapor exhaust system, arranged on top of said first region and arranged so that therein vapors exiting said first region are mixed to air before being exhausted to the outside ambient, in said second region, mixing said de-moisturized and cooled down vapors exiting said first region with air taken in from the outside ambient and having cooled down at least one among a door of the said oven and internal oven parts heated up during the oven operation, exhausting said vapors to the outside ambient.
A method for preparing the -enantiomer of 1'-{[5-(trifluoromethyl)furan-2-yl]methyl}spiro[furo[2,3- f][1,3]benzodioxole-7,3'-indol]-2'(1' H)-one having the following formula (I- S): wherein the method comprises: isolating the -enantiomer of 1'-{[5-(trifluoromethyl)furan-2-yl]methyl}spiro[furo[2,3- f][1,3]benzodioxole-7,3'-indol]-2'(1' H)-one from the compound of formula: by chiral high pressure liquid chromatography conditions or by simulated moving bed chromatography conditions. isolating the -enantiomer of 1'-{[5-(trifluoromethyl)furan-2-yl]methyl}spiro[furo[2,3- f][1,3]benzodioxole-7,3'-indol]-2'(1' H)-one from the compound of formula: by chiral high pressure liquid chromatography conditions or by simulated moving bed chromatography conditions.
An LED (10, 60, 70, 80, 90) with enhanced current spreading structures, comprising: an LED core comprising: an epitaxially grown p-type layer; an epitaxially grown n-type layer; and an epitaxially grown active layer between said p-type and n-type layers; a first current spreader layer adjacent to said LED core; a second current spreader layer (18, 61, 71, 82, 92) on said LED core opposite said first current spreader layer; at least one groove etched through said second current spreader layer and said LED core, to said first current spreader layer; a first contact (21, 62, 72, 85, 95) having at least one elongated first conductive finger (22, 63, 76, 87, 97) branching out therefrom on said first current spreader layer within said groove such that current flows from said first contact, into said at least one first conductive finger, across said first current spreader layer, and into said LED core; and a second contact (19, 64, 73, 81, 91) having at least two elongated second conductive fingers (20a, 20b, 65a, 65b, 75, 84, 94) branching out therefrom on said second current spreader layer such that current flows from said second contact, into said at least two second conductive fingers, across said second current spreader layer, and into said LED core, wherein said at least two second conductive fingers and said at least one first conductive finger are at a uniform distance from one another for a portion of their lengths, and wherein said groove is between two of said at least two second conductive fingers. an LED core comprising: an epitaxially grown p-type layer; an epitaxially grown n-type layer; and an epitaxially grown active layer between said p-type and n-type layers; an epitaxially grown p-type layer; an epitaxially grown n-type layer; and an epitaxially grown active layer between said p-type and n-type layers; a first current spreader layer adjacent to said LED core; a second current spreader layer (18, 61, 71, 82, 92) on said LED core opposite said first current spreader layer; at least one groove etched through said second current spreader layer and said LED core, to said first current spreader layer; a first contact (21, 62, 72, 85, 95) having at least one elongated first conductive finger (22, 63, 76, 87, 97) branching out therefrom on said first current spreader layer within said groove such that current flows from said first contact, into said at least one first conductive finger, across said first current spreader layer, and into said LED core; and a second contact (19, 64, 73, 81, 91) having at least two elongated second conductive fingers (20a, 20b, 65a, 65b, 75, 84, 94) branching out therefrom on said second current spreader layer such that current flows from said second contact, into said at least two second conductive fingers, across said second current spreader layer, and into said LED core, wherein said at least two second conductive fingers and said at least one first conductive finger are at a uniform distance from one another for a portion of their lengths, and wherein said groove is between two of said at least two second conductive fingers.
Drive (4, 11) having a housing in which a motor, an output, a worm gear, which couples the output to the motor, and power electronics, which are connected to the motor, are arranged, wherein the housing comprises a motor housing part with the motor, an output housing part with the output and the power electronics, and a flange region with the worm gear, wherein the worm gear comprises a gearwheel, wherein the output housing part is arranged laterally and obliquely with respect to the motor housing part and is connected to the motor housing part via a flange region, wherein the power electronics are embodied in the form of a plate, have a longitudinal axis and comprise a motor connection which is arranged laterally, wherein the motor has a power electronics connection with a longitudinal axis, wherein the power electronics connection projects into the flange region from the motor housing part, characterized in that a longitudinal axis of the power electronics connection corresponds to the longitudinal axis of the power electronics, wherein a centre point position of the gearwheel of the worm gear predefines the orientation of the longitudinal axis of the power electronics connection, and wherein the longitudinal axis of the power electronics connection includes an angle with respect to the motor axis.
A method of manufacturing a test strip, comprising: assembling said test strip having a test area configured to collect a body fluid sample via capillary action and analyze said body fluid sample, and cutting through said test strip to form a first skin contacting tab and a second skin contacting tab after said assembling, wherein the test area is positioned between the first skin contacting tab and the second skin contacting tab. assembling said test strip having a test area configured to collect a body fluid sample via capillary action and analyze said body fluid sample, and cutting through said test strip to form a first skin contacting tab and a second skin contacting tab after said assembling, wherein the test area is positioned between the first skin contacting tab and the second skin contacting tab.
A preparation method of a composite cathode material, characterized by comprising steps of: (a) providing a nickel-manganese compound material, wherein the nickel-manganese compound material is Ni x Mn y 2 or Ni x Mn y O, x+y=1; (b) providing a solid electrolyte material, and mixing the nickel-manganese compound material and the solid electrolyte material in a mechanical mixing into a composite material, wherein the solid electrolyte material has a weight percentage relative to the nickel-manganese compound material, and the weight percentage is ranged from 0.2 wt.% to 1.0 wt.%; and (c) providing a lithium source, mixing the lithium source and the composite material, and sintering to form the composite cathode material, wherein the composite cathode material includes a core and a coating layer, the core is made of LiNi 2x Mn 2y O 4, and coated by the coating layer, and the coating layer is made of the solid electrolyte material. (a) providing a nickel-manganese compound material, wherein the nickel-manganese compound material is Ni x Mn y 2 or Ni x Mn y O, x+y=1; (b) providing a solid electrolyte material, and mixing the nickel-manganese compound material and the solid electrolyte material in a mechanical mixing into a composite material, wherein the solid electrolyte material has a weight percentage relative to the nickel-manganese compound material, and the weight percentage is ranged from 0.2 wt.% to 1.0 wt.%; and (c) providing a lithium source, mixing the lithium source and the composite material, and sintering to form the composite cathode material, wherein the composite cathode material includes a core and a coating layer, the core is made of LiNi 2x Mn 2y O 4, and coated by the coating layer, and the coating layer is made of the solid electrolyte material.