mhurhangee/patent-ind-claim-en huggingface dataset:
A stack of eye shields , comprising a plurality of eye shields , each eye shield having: a frame having at least two receivers located along the frame and at least two latches , each of the latches located to engage one of the receivers , the frame having a plurality of spaced apart elevated support surfaces along and rising above an upper portion of the frame ; and a lens installed on the frame and having at least two lens apertures extending through the lens , each of the apertures aligned with one of the receivers of the frame with each of the latches engaged with one of the receivers securing the lens to the frame ; wherein the plurality of eye shields is provided in a stack with the eye shields stacked one on top of another with each of the eye shields oriented substantially vertical and parallel to another one of the eye shields with each of the elevated surfaces of an overlying one of the frames of the eye shields in the stack being slightly forward of and overlapping a corresponding one of the elevated surfaces of an immediately underlying one of the frames of the eye shields in the stack, with each frame of each eye shield of the stack having a gap (G) therebetween except at contact surfaces of the frames where the elevated support surfaces contact an adjacent lower surface of the frame of its overlying eye shield , whereby the elevated support surfaces of the frames stabilize the stack of the eye shields for shipping and dispensing of the stack of the eye shields . a frame having at least two receivers located along the frame and at least two latches , each of the latches located to engage one of the receivers , the frame having a plurality of spaced apart elevated support surfaces along and rising above an upper portion of the frame ; and a lens installed on the frame and having at least two lens apertures extending through the lens , each of the apertures aligned with one of the receivers of the frame with each of the latches engaged with one of the receivers securing the lens to the frame ; wherein the plurality of eye shields is provided in a stack with the eye shields stacked one on top of another with each of the eye shields oriented substantially vertical and parallel to another one of the eye shields with each of the elevated surfaces of an overlying one of the frames of the eye shields in the stack being slightly forward of and overlapping a corresponding one of the elevated surfaces of an immediately underlying one of the frames of the eye shields in the stack, with each frame of each eye shield of the stack having a gap (G) therebetween except at contact surfaces of the frames where the elevated support surfaces contact an adjacent lower surface of the frame of its overlying eye shield , whereby the elevated support surfaces of the frames stabilize the stack of the eye shields for shipping and dispensing of the stack of the eye shields .
A polymer bath composition comprising: a) a first polymer comprising: i) 60-90 wt % polymerized units of a monomer X selected from the group consisting of vinylimidazoles, vinylimidazolines, vinylpyridines, vinylpyrroles, and combinations thereof; and ii) 10-40 wt % polymerized units of a monomer Y which is an ethylenically unsaturated compound selected from the group consisting of esters of polymerized units of ethylene oxide; b) a second polymer comprising: i) polymerized units of a heterocyclic monomer X selected from N-vinyl imidazole; and ii) polymerized units of monomer Y is a non-heterocyclic saturated compound selected from acrylic acid, methacrylic acid, ethyl acrylate, and butyl acrylate and combinations thereof; and c) silver metal or a silver ion. a) a first polymer comprising: i) 60-90 wt % polymerized units of a monomer X selected from the group consisting of vinylimidazoles, vinylimidazolines, vinylpyridines, vinylpyrroles, and combinations thereof; and ii) 10-40 wt % polymerized units of a monomer Y which is an ethylenically unsaturated compound selected from the group consisting of esters of polymerized units of ethylene oxide; i) 60-90 wt % polymerized units of a monomer X selected from the group consisting of vinylimidazoles, vinylimidazolines, vinylpyridines, vinylpyrroles, and combinations thereof; and ii) 10-40 wt % polymerized units of a monomer Y which is an ethylenically unsaturated compound selected from the group consisting of esters of polymerized units of ethylene oxide; b) a second polymer comprising: i) polymerized units of a heterocyclic monomer X selected from N-vinyl imidazole; and ii) polymerized units of monomer Y is a non-heterocyclic saturated compound selected from acrylic acid, methacrylic acid, ethyl acrylate, and butyl acrylate and combinations thereof; and i) polymerized units of a heterocyclic monomer X selected from N-vinyl imidazole; and ii) polymerized units of monomer Y is a non-heterocyclic saturated compound selected from acrylic acid, methacrylic acid, ethyl acrylate, and butyl acrylate and combinations thereof; and c) silver metal or a silver ion.
A composition comprising the following components: (a) bromelain, (b) one or more short chain fatty acids (SCFAs) or esters thereof, (c) one or more amino acids selected from the group consisting of L-threonine, L-tryptophan, L-arginine, L-glutamine and L-methionine and combinations thereof, and (d) Vitamin D or alfacalcidiol. (a) bromelain, (b) one or more short chain fatty acids (SCFAs) or esters thereof, (c) one or more amino acids selected from the group consisting of L-threonine, L-tryptophan, L-arginine, L-glutamine and L-methionine and combinations thereof, and (d) Vitamin D or alfacalcidiol.
A method for correcting discrepancies in a geo-referenced electronic map of an airport, wherein the electronic map of the airport is derived from an aerial image, a satellite image, plans or blueprints of the airport, and has predetermined boundary regions, the method comprising: receiving and storing geo-referenced position data derived from location information for a plurality of computing devices wherein each computing device is located in a respective airplane; determining a path of travel for each of the plurality of airplanes as they traverse a defined map region; calculating a mean path for the path of travel of the plurality of airplanes in the defined map region; and identifying a discrepancy between the mean path for the plurality of airplanes and at least one geo-referenced location in the geo-referenced electronic map associated with a fixed object in the airport; and altering the electronic map to eliminate the discrepancy by amending at least one of the position, orientation and dimension of the at least one geo-referenced location in the geo-referenced electronic map associated with an object in the airport in the electronic map, wherein identifying a discrepancy comprises determining that the at least one geo-referenced location is different from an actual, physical location of the object and automatically determining that the mean path has crossed a boundary on the electronic map. receiving and storing geo-referenced position data derived from location information for a plurality of computing devices wherein each computing device is located in a respective airplane; determining a path of travel for each of the plurality of airplanes as they traverse a defined map region; calculating a mean path for the path of travel of the plurality of airplanes in the defined map region; and identifying a discrepancy between the mean path for the plurality of airplanes and at least one geo-referenced location in the geo-referenced electronic map associated with a fixed object in the airport; and altering the electronic map to eliminate the discrepancy by amending at least one of the position, orientation and dimension of the at least one geo-referenced location in the geo-referenced electronic map associated with an object in the airport in the electronic map, wherein identifying a discrepancy comprises determining that the at least one geo-referenced location is different from an actual, physical location of the object and automatically determining that the mean path has crossed a boundary on the electronic map.
A chiller system, comprising a chiller ; and a controller configured to: determine a restarting mode for the chiller, when power to the chiller is restored following an interruption, wherein the restarting mode is one of a soft loading restart mode and a rapid restart mode; and control the chiller according to the determined restarting mode, wherein the rapid restart mode reestablishes chiller capacity to a level at which the chiller was operating prior to the interruption more rapidly than the soft loading restart mode; wherein the soft loading restart mode includes a limit on a rate of increase for chiller capacity, and the rapid restart mode is an adaptive rapid restart mode wherein the rate of increase for chiller capacity is determined based on the level at which the chiller was operating at prior to the interruption. a chiller ; and a controller configured to: determine a restarting mode for the chiller, when power to the chiller is restored following an interruption, wherein the restarting mode is one of a soft loading restart mode and a rapid restart mode; and control the chiller according to the determined restarting mode, wherein the rapid restart mode reestablishes chiller capacity to a level at which the chiller was operating prior to the interruption more rapidly than the soft loading restart mode; wherein the soft loading restart mode includes a limit on a rate of increase for chiller capacity, and the rapid restart mode is an adaptive rapid restart mode wherein the rate of increase for chiller capacity is determined based on the level at which the chiller was operating at prior to the interruption. determine a restarting mode for the chiller, when power to the chiller is restored following an interruption, wherein the restarting mode is one of a soft loading restart mode and a rapid restart mode; and control the chiller according to the determined restarting mode, wherein the rapid restart mode reestablishes chiller capacity to a level at which the chiller was operating prior to the interruption more rapidly than the soft loading restart mode; wherein the soft loading restart mode includes a limit on a rate of increase for chiller capacity, and the rapid restart mode is an adaptive rapid restart mode wherein the rate of increase for chiller capacity is determined based on the level at which the chiller was operating at prior to the interruption.
A method for manufacturing a metal component , characterised in that it includes the following steps: a shell of a titanium-based material is provided, the shell having a first surface and a second surface opposite the first surface ; a covering layer made of a titanium fire-resistant material is produced by additive manufacturing on the shell such that said covering layer at least partially covers the first surface and/or the second surface ; and after the additive manufacturing step, the metal component is heat treated at a temperature of between 200°C and 1000°C; in that it comprises the production of a plurality of intermediate layers disposed between the shell and the covering layer, the plurality of intermediate layers being formed of a mixture of the titanium fire-resistant material and the titanium-based material, said mixture forming a composition gradient such that the intermediate layer disposed directly in contact with the covering layer made of a titanium fire-resistant material is mainly formed of the titanium fire-resistant material and conversely, the intermediate layer disposed directly in contact with the shell made of a titanium-based material being mainly formed of the titanium-based material. a shell of a titanium-based material is provided, the shell having a first surface and a second surface opposite the first surface ; a covering layer made of a titanium fire-resistant material is produced by additive manufacturing on the shell such that said covering layer at least partially covers the first surface and/or the second surface ; and after the additive manufacturing step, the metal component is heat treated at a temperature of between 200°C and 1000°C; in that it comprises the production of a plurality of intermediate layers disposed between the shell and the covering layer, the plurality of intermediate layers being formed of a mixture of the titanium fire-resistant material and the titanium-based material, said mixture forming a composition gradient such that the intermediate layer disposed directly in contact with the covering layer made of a titanium fire-resistant material is mainly formed of the titanium fire-resistant material and conversely, the intermediate layer disposed directly in contact with the shell made of a titanium-based material being mainly formed of the titanium-based material.
A bone graft comprising 20% to 95% by weight with respect to total weight of the bone graft, of Collagen Type I, and 20% to 95% by weight with respect to the total weight of the bone graft, of more than one minerals having different dissolution properties and/or sizes than one another, wherein the more than one minerals are chosen from calcium phosphate, carbonate apatite, and/or calcium carbonate and have two or more dissolution rates, wherein the more than one minerals include a first mineral having a first dissolution rate and a second mineral having a second dissolution rate, wherein the first dissolution rate is faster than the second dissolution rate and wherein the more than one minerals includes one or more of the following: beta-tricalcium phosphate having a size ranging from 75 nm to 500 μm, carbonate apatite having a size ranging from 75 nm to 500 μm, calcium carbonate having a size ranging from 75 nm to 500 μm.
A method for removing Si based compounds from a leaching liquor; the method comprising - supplying the leaching liquor from a leaching step to a gravitational solid-liquid separator for separating an overflow and an underflow , - supplying an overflow from the gravitational solid-liquid separator to a reactor for forming a treated liquor , - adding a source of aluminium as a first coagulant to the overflow in the reactor for forming aluminium silicate containing particles in the treated liquor , - adding at least a flocculant to the treated liquor after the reactor for increasing particle size of the aluminium silicate containing particles, and - supplying the treated liquor to cleaning flotation in which at least 90 % of the flotation gas bubbles display a size from 0.2 to 250 μm in a cleaning flotation unit for collecting at least the aluminium silicate containing particles, for separating at least the aluminium silicate containing particles from the treated liquor into a cleaning flotation overflow and for forming a purified liquor as a cleaning flotation underflow. - supplying the leaching liquor from a leaching step to a gravitational solid-liquid separator for separating an overflow and an underflow , - supplying an overflow from the gravitational solid-liquid separator to a reactor for forming a treated liquor , - adding a source of aluminium as a first coagulant to the overflow in the reactor for forming aluminium silicate containing particles in the treated liquor , - adding at least a flocculant to the treated liquor after the reactor for increasing particle size of the aluminium silicate containing particles, and - supplying the treated liquor to cleaning flotation in which at least 90 % of the flotation gas bubbles display a size from 0.2 to 250 μm in a cleaning flotation unit for collecting at least the aluminium silicate containing particles, for separating at least the aluminium silicate containing particles from the treated liquor into a cleaning flotation overflow and for forming a purified liquor as a cleaning flotation underflow.
A method of creating a custom, non-implantable implant sizer , the method comprising: (a) performing a computer simulation of a breast implant procedure by: (i) receiving an input comprising at least one image of at least part of the patient's body, the at least part of the patient's body comprising at least the patient's breasts ; (ii) automatically generating a 3D representation of the at least part of the patient's body based on the input ; (iii) visualising the 3D representation (30.1) and planning the breast implant procedure on the patient (30.2) by selecting a breast implant from a database of implants; and (iv) automatically generating a 3D simulation of the outcome of the breast implant procedure based on the 3D representation and the selected breast implant (30.3); (b) automatically determining a shape of the custom implant sizer such that the patient wearing the custom implant sizer inside a bra enables testing of the visual outcome of the simulated breast implant procedure, the shape being determined by calculating a shape to be added to the patient's existing breasts (40.1); and (c) creating the custom implant sizer in the determined shape (40.2). (a) performing a computer simulation of a breast implant procedure by: (i) receiving an input comprising at least one image of at least part of the patient's body, the at least part of the patient's body comprising at least the patient's breasts ; (ii) automatically generating a 3D representation of the at least part of the patient's body based on the input ; (iii) visualising the 3D representation (30.1) and planning the breast implant procedure on the patient (30.2) by selecting a breast implant from a database of implants; and (iv) automatically generating a 3D simulation of the outcome of the breast implant procedure based on the 3D representation and the selected breast implant (30.3); (i) receiving an input comprising at least one image of at least part of the patient's body, the at least part of the patient's body comprising at least the patient's breasts ; (ii) automatically generating a 3D representation of the at least part of the patient's body based on the input ; (iii) visualising the 3D representation (30.1) and planning the breast implant procedure on the patient (30.2) by selecting a breast implant from a database of implants; and (iv) automatically generating a 3D simulation of the outcome of the breast implant procedure based on the 3D representation and the selected breast implant (30.3); (b) automatically determining a shape of the custom implant sizer such that the patient wearing the custom implant sizer inside a bra enables testing of the visual outcome of the simulated breast implant procedure, the shape being determined by calculating a shape to be added to the patient's existing breasts (40.1); and (c) creating the custom implant sizer in the determined shape (40.2).
A cover lift system for a spa , comprising: a lifter handle having an upper arm and a lower arm telescopically connected to the upper arm , the upper arm being configured for operative connection to a cover of a spa , and the lower arm being configured for pivotal connection to a base of the spa ; and an adjuster mechanism associated with the lifter handle for selectively adjusting a length of the lifter handle to allow for use of the lifter handle with spas of varying sizes; characterized by further comprising a breakaway mechanism configured to limit an amount of torque seen by the lifter handle during a covering or uncovering operation. a lifter handle having an upper arm and a lower arm telescopically connected to the upper arm , the upper arm being configured for operative connection to a cover of a spa , and the lower arm being configured for pivotal connection to a base of the spa ; and an adjuster mechanism associated with the lifter handle for selectively adjusting a length of the lifter handle to allow for use of the lifter handle with spas of varying sizes; characterized by further comprising a breakaway mechanism configured to limit an amount of torque seen by the lifter handle during a covering or uncovering operation.
A method for use in a mobile equipment , the method comprising: reading an International Mobile Subscriber Identity, IMSI, from a memory card associated with the mobile equipment ; determining if part or all of the IMSI matches a data set entry within a file in a memory of the mobile equipment ; in response to determining that part or all of the IMSI matches the data set entry within the file in the memory of the mobile equipment , determining if an elementary file is on the memory card ; in response to determining that the elementary file is on the memory card , determining if an access point name is stored in a location identified in the elementary file, the location being other than the elementary file; and in response to determining that the access point name is stored in the location identified in the elementary file, using the access point name to connect the mobile equipment to a mobile network . reading an International Mobile Subscriber Identity, IMSI, from a memory card associated with the mobile equipment ; determining if part or all of the IMSI matches a data set entry within a file in a memory of the mobile equipment ; in response to determining that part or all of the IMSI matches the data set entry within the file in the memory of the mobile equipment , determining if an elementary file is on the memory card ; in response to determining that the elementary file is on the memory card , determining if an access point name is stored in a location identified in the elementary file, the location being other than the elementary file; and in response to determining that the access point name is stored in the location identified in the elementary file, using the access point name to connect the mobile equipment to a mobile network .
Internal combustion engine having at least one cylinder and having an arrangement of a valve cover on the cylinder head of the internal combustion engine, wherein the cylinder head has gas exchange valves, which can be actuated by means of a valve timing system and are connected to at least one inlet and one exhaust port, and wherein at least one valve cover, which closes off the cylinder head at the top and is connected directly or indirectly, by means of at least one flow connection, to the crankcase of the internal combustion engine, is fixed on the cylinder head by means of a plurality of screwed joints, preferably with a circumferential gasket inserted in between, characterized in that at least some of the screwed joints provided are provided and/or coupled in such a way with a resiliently and/or elastically flexible means on a cold side of the cylinder head , which faces away from the at least one exhaust port in the cylinder head and hence faces a cold side of the engine, that the valve cover lifts off from the cylinder head in a defined area of the cover only in the area of said cold side when there is a defined excess pressure in the crankcase.