mhurhangee/ep-ind-claims huggingface dataset:
A multilayer film comprising: two outer layers; where each outer layer comprises polyethylene; two tie layers; where each tie layer comprises a crystalline block composite; where each tie layer has a first face and a second face that are opposed to each other, and where the first face of each tie layer contacts at least one outer layer; where the crystalline block composite comprises a crystalline ethylene based polymer, a crystalline alpha-olefin based polymer, and a block copolymer comprising a crystalline ethylene block and a crystalline alpha-olefin block, wherein the crystalline ethylene block of the block copolymer is the same composition as the crystalline ethylene based polymer in the block composite and the crystalline alpha-olefin block of the block copolymer is the same composition as the crystalline alpha-olefin based polymer of the block composite; and a core layer; where the core layer comprises a polypropylene; where the second face of each tie layer contacts the core layer; and where the core layer has a thickness that is greater than 50% of the total thickness of the multilayer film. two outer layers; where each outer layer comprises polyethylene; two tie layers; where each tie layer comprises a crystalline block composite; where each tie layer has a first face and a second face that are opposed to each other, and where the first face of each tie layer contacts at least one outer layer; where the crystalline block composite comprises a crystalline ethylene based polymer, a crystalline alpha-olefin based polymer, and a block copolymer comprising a crystalline ethylene block and a crystalline alpha-olefin block, wherein the crystalline ethylene block of the block copolymer is the same composition as the crystalline ethylene based polymer in the block composite and the crystalline alpha-olefin block of the block copolymer is the same composition as the crystalline alpha-olefin based polymer of the block composite; and a core layer; where the core layer comprises a polypropylene; where the second face of each tie layer contacts the core layer; and where the core layer has a thickness that is greater than 50% of the total thickness of the multilayer film.
A vibration application mechanism (T1, T2) comprising: a vibratable part (V1, V2); a load sensor to sense a load applied to the vibratable part (V1, V2); a vibration generator to vibrate the vibratable part (V1, V2); and a vibration controller configured such that the vibration controller makes a first determination as to whether or not a load sensed by the load sensor has equaled or exceeded a first threshold value, if the vibration controller determines, as a result of the first determination, that the load sensed by the load sensor has equaled or exceeded the first threshold value, then the vibration controller drives the vibration generator for a predetermined interval and makes a second determination, during a predetermined first period, as to whether or not a load sensed by the load sensor has fallen below a second threshold value, wherein the first period starts when the load sensed by the load sensor has equaled or exceeded the first threshold value, and if the vibration controller determines, as a result of the second determination, that the load sensed by the load sensor has fallen below the second threshold value during the first period, then the vibration controller does not drive the vibration generator, characterised in that the vibration controller is further configured such that, if the load sensed by the load sensor does not fall below the second threshold value during the first period but falls below the second threshold value after the first period has elapsed, then the vibration controller drives the vibration generator for a predetermined interval. a vibratable part (V1, V2); a load sensor to sense a load applied to the vibratable part (V1, V2); a vibration generator to vibrate the vibratable part (V1, V2); and a vibration controller configured such that the vibration controller makes a first determination as to whether or not a load sensed by the load sensor has equaled or exceeded a first threshold value, if the vibration controller determines, as a result of the first determination, that the load sensed by the load sensor has equaled or exceeded the first threshold value, then the vibration controller drives the vibration generator for a predetermined interval and makes a second determination, during a predetermined first period, as to whether or not a load sensed by the load sensor has fallen below a second threshold value, wherein the first period starts when the load sensed by the load sensor has equaled or exceeded the first threshold value, and if the vibration controller determines, as a result of the second determination, that the load sensed by the load sensor has fallen below the second threshold value during the first period, then the vibration controller does not drive the vibration generator, characterised in that the vibration controller is further configured such that, if the load sensed by the load sensor does not fall below the second threshold value during the first period but falls below the second threshold value after the first period has elapsed, then the vibration controller drives the vibration generator for a predetermined interval.
Process for treating substitute fuel for subsequent analysis of the substituted fuel, wherein a. the substitute fuel is provided in comminuted and homogenized form, b. the substitute fuel provided is subsequently milled together with a mineral and/or an inorganic salt to a size of less than 100 μm and c. a ready-to-analyse sample is subsequently produced from the milled mixture. a. the substitute fuel is provided in comminuted and homogenized form, b. the substitute fuel provided is subsequently milled together with a mineral and/or an inorganic salt to a size of less than 100 μm and c. a ready-to-analyse sample is subsequently produced from the milled mixture.
An animal cleaning tool for maintaining a hygiene of an animal, the animal cleaning tool comprising: a top housing portion and a bottom plate, the bottom plate having a set of brushing elements that are spaced apart and protrude outwardly from the bottom plate, wherein the top housing portion comprises an air supply conduit (52, 60) and a cleaning agent supply conduit (54, 62) adapted to be disposed within an interior of the top housing portion of the animal cleaning tool, and wherein the air supply conduit (52, 60) is configured to channel air from an air supply source to within the animal cleaning tool, and wherein the cleaning agent supply conduit (54, 62) is configured to channel cleaning agent from a cleaning agent supply source to within the animal cleaning tool, and characterized in that the animal cleaning tool further comprises: a nozzle that is fitted into a nozzle aperture in the top housing portion, wherein the nozzle is in fluid communication with the cleaning agent supply conduit in the top housing portion. a top housing portion and a bottom plate, the bottom plate having a set of brushing elements that are spaced apart and protrude outwardly from the bottom plate, wherein the top housing portion comprises an air supply conduit (52, 60) and a cleaning agent supply conduit (54, 62) adapted to be disposed within an interior of the top housing portion of the animal cleaning tool, and wherein the air supply conduit (52, 60) is configured to channel air from an air supply source to within the animal cleaning tool, and wherein the cleaning agent supply conduit (54, 62) is configured to channel cleaning agent from a cleaning agent supply source to within the animal cleaning tool, and characterized in that the animal cleaning tool further comprises: a nozzle that is fitted into a nozzle aperture in the top housing portion, wherein the nozzle is in fluid communication with the cleaning agent supply conduit in the top housing portion.
A phase-locked loop comprising: an oscillator configured to output an oscillating signal in dependence on the control signal at an input of the oscillator; a phase detector and loop filter configured to output a low frequency compensation signal in dependence on the output of the oscillator and a reference signal, the low frequency compensation signal compensating for low frequency components of an interfering signal picked up by the oscillator, and the phase-locked loop being characterised by; a correlator configured to frequency correlate the interfering signal and the low frequency compensation signal, and in dependence on that correlation generate a correlation signal; and an adaptive filter configured to adapt the interfering signal in dependence on the correlation signal to output a high frequency compensation signal that compensates for high frequency components of the interfering signal; and a summation unit configured to combine the low frequency compensation signal and the high frequency compensation signal to form a control signal to drive the input of the oscillator. an oscillator configured to output an oscillating signal in dependence on the control signal at an input of the oscillator; a phase detector and loop filter configured to output a low frequency compensation signal in dependence on the output of the oscillator and a reference signal, the low frequency compensation signal compensating for low frequency components of an interfering signal picked up by the oscillator, and the phase-locked loop being characterised by; a correlator configured to frequency correlate the interfering signal and the low frequency compensation signal, and in dependence on that correlation generate a correlation signal; and an adaptive filter configured to adapt the interfering signal in dependence on the correlation signal to output a high frequency compensation signal that compensates for high frequency components of the interfering signal; and a summation unit configured to combine the low frequency compensation signal and the high frequency compensation signal to form a control signal to drive the input of the oscillator.
Suspension apparatus for the cantilevered suspension of a food storage container (28, 31), with a central rail for the direct suspension of a food storage container (28, 31), wherein the central rail is a profile rail made of metal, characterised in that the profile rail has a first, upper hollow chamber, which is moulded onto an upper edge of a front panel of the profile rail, and a second, lower hollow chamber, embodied spaced apart therefrom, which is moulded onto a lower edge of the front panel of the profile rail, wherein the hollow chambers (8, 9) extend rearwards from the front panel, wherein the upper hollow chamber has a smaller depth than the lower hollow chamber when viewed in the depth direction (z) of the suspension apparatus.
A cartridge unit adapted to discharge toner via a toner outlet, the cartridge unit comprising: a shutter unit movable in a first direction between an opening position in which the toner outlet is opened and a closing position in which the toner outlet is closed; and a lever unit linearly movable in a second direction that crosses the first direction, and which is connected to the shutter unit such that the shutter unit is adapted to move in the first direction when the lever unit moves in the second direction, characterised in that an end portion of the lever unit is adapted to receive an external force so as to move the lever unit in the second direction, the end portion being disposed so as not to protrude outside the cartridge unit. a shutter unit movable in a first direction between an opening position in which the toner outlet is opened and a closing position in which the toner outlet is closed; and a lever unit linearly movable in a second direction that crosses the first direction, and which is connected to the shutter unit such that the shutter unit is adapted to move in the first direction when the lever unit moves in the second direction, characterised in that an end portion of the lever unit is adapted to receive an external force so as to move the lever unit in the second direction, the end portion being disposed so as not to protrude outside the cartridge unit.
A catheter comprising: an elongated catheter body; and an electrode assembly distal of the catheter body, the assembly comprising a plurality of spines and a mounting member, wherein each spine has a distal end that is connected to the distal end of at least one other spine, wherein each spine has an electrode-carrying portion, the electrode-carrying portions of all spines of the assembly being in a single common plane, wherein each spine has a proximal portion, the proximal portions of all spines of the assembly not being in the single common plane, and wherein all spines of the assembly have a uniform total length extending outside the mounting member. an elongated catheter body; and an electrode assembly distal of the catheter body, the assembly comprising a plurality of spines and a mounting member, wherein each spine has a distal end that is connected to the distal end of at least one other spine, wherein each spine has an electrode-carrying portion, the electrode-carrying portions of all spines of the assembly being in a single common plane, wherein each spine has a proximal portion, the proximal portions of all spines of the assembly not being in the single common plane, and wherein all spines of the assembly have a uniform total length extending outside the mounting member.
A method of controlling the manufacture of an ophthalmic device via a contour forming device, comprising: (a) issuing an instruction to the contour forming device to make an ophthalmic device; (b) making the ophthalmic device with the contour forming device based on the instruction; (c) measuring the ophthalmic device; (d) determining if the ophthalmic device conforms to an acceptance criteria of a lens design; and wherein (e) following a determination that the ophthalmic device does not conform to the acceptance criteria, the method further comprises (f) carrying out a convergence process to converge the ophthalmic device towards the lens design, characterized in that the convergence process comprises a convergence masking technique comprising defining a selected masking region, and selectively carrying out the convergence process within or outside of the selected masking region, wherein the convergence process comprises modifying the previous instruction in regions of the measured ophthalmic device which are too thick (305, 406) compared with a target thickness (302, 402) and modifying the previous instruction in regions of the measured ophthalmic device which are too thin (306, 407) compared with a target thickness. (a) issuing an instruction to the contour forming device to make an ophthalmic device; (b) making the ophthalmic device with the contour forming device based on the instruction; (c) measuring the ophthalmic device; (d) determining if the ophthalmic device conforms to an acceptance criteria of a lens design; and wherein (e) following a determination that the ophthalmic device does not conform to the acceptance criteria, the method further comprises (f) carrying out a convergence process to converge the ophthalmic device towards the lens design, characterized in that the convergence process comprises a convergence masking technique comprising defining a selected masking region, and selectively carrying out the convergence process within or outside of the selected masking region, wherein the convergence process comprises modifying the previous instruction in regions of the measured ophthalmic device which are too thick (305, 406) compared with a target thickness (302, 402) and modifying the previous instruction in regions of the measured ophthalmic device which are too thin (306, 407) compared with a target thickness.
Method for the selective purification and concentration of immunoglobulins by means of an aqueous two-phase system, comprising the steps of: a. preparing a cell culture or a cell culture supernatant which contains the target protein; b. converting the cell culture or the cell culture supernatant into an aqueous two-phase system by the addition of polyethylene glycol having a molecular weight between 200 and 1000 g/mol such that the polyethylene glycol is present in a concentration of from 18 to 35 wt.%, and a phosphate salt; c. thoroughly mixing the two-phase system to produce a dispersion; d. separating the heavy and light phase in a centrifugal extractor; e. recovering the target protein from the light phase. a. preparing a cell culture or a cell culture supernatant which contains the target protein; b. converting the cell culture or the cell culture supernatant into an aqueous two-phase system by the addition of polyethylene glycol having a molecular weight between 200 and 1000 g/mol such that the polyethylene glycol is present in a concentration of from 18 to 35 wt.%, and a phosphate salt; c. thoroughly mixing the two-phase system to produce a dispersion; d. separating the heavy and light phase in a centrifugal extractor; e. recovering the target protein from the light phase.
A device for demoulding negatives in thermoplastic injection moulds comprises an ejector provided on one of the ends thereof with a figure insert with a profile complementary to the part that is to be moulded, said ejector comprising an outer tube housing an inner cooling tube, which cools said figure insert, characterized in that said outer tube is made of a flexible material. said ejector comprising an outer tube housing an inner cooling tube, which cools said figure insert, characterized in that said outer tube is made of a flexible material.
A system (100, 200, 300, 400, 600, 700, 800, 900, 1100, 1200, 2000, 2200, 2300, 2600, 2700, 2800) for supplying hydraulic fluid in an internal combustion engine comprising at least one engine valve (310, 708, 2814) operatively connected to a valve actuation motion source (604, 710, 2002, 2212, 2302, 2615) via a valve train, the system comprising: a pumping assembly (110, 322/324, 2202) disposed within a housing, the housing comprising a fixed housing (102, 320, 2204), a rocker arm (702, 802, 1102, 1202, 1902, 2008, 2508) or a valve bridge; a hydraulic circuit (104, 328, 720, 820, 1112, 2214, 2606, 2704, 2808) disposed within the housing, operatively connected to the pumping assembly, and comprising a supply pressure hydraulic fluid input (106, 330, 2608) and an increased pressure hydraulic fluid output (108, 332, 2610), wherein the increased pressure hydraulic fluid output does not directly convey valve actuation motions to the at least one engine valve; and a source of pumping motions operatively connected to the pumping assembly and comprising at least one of the valve actuation motion source or a component of the valve train conveying motion between the valve actuation motion source and the at least one engine valve, wherein the pumping motions applied to the pumping assembly cause the pumping assembly to transmit hydraulic fluid received via the supply pressure hydraulic fluid input to the increased pressure hydraulic fluid output. a pumping assembly (110, 322/324, 2202) disposed within a housing, the housing comprising a fixed housing (102, 320, 2204), a rocker arm (702, 802, 1102, 1202, 1902, 2008, 2508) or a valve bridge; a hydraulic circuit (104, 328, 720, 820, 1112, 2214, 2606, 2704, 2808) disposed within the housing, operatively connected to the pumping assembly, and comprising a supply pressure hydraulic fluid input (106, 330, 2608) and an increased pressure hydraulic fluid output (108, 332, 2610), wherein the increased pressure hydraulic fluid output does not directly convey valve actuation motions to the at least one engine valve; and a source of pumping motions operatively connected to the pumping assembly and comprising at least one of the valve actuation motion source or a component of the valve train conveying motion between the valve actuation motion source and the at least one engine valve, wherein the pumping motions applied to the pumping assembly cause the pumping assembly to transmit hydraulic fluid received via the supply pressure hydraulic fluid input to the increased pressure hydraulic fluid output.
A wind turbine including a rotor comprising a plurality of rotor blades connected to a hub, a shaft having a first end connected to the hub and a second end connected to a generator, characterised in that the wind turbine further includes a hydrodynamic bearing comprising a lubrication arrangement and a plurality of pads (3, 4) each having a sliding surface adapted to bear the shaft, - wherein the plurality of pads (3, 4) includes at least one pad that is movable in a radial direction, - wherein the at least one movable pad is adapted to lift the shaft. - wherein the plurality of pads (3, 4) includes at least one pad that is movable in a radial direction, - wherein the at least one movable pad is adapted to lift the shaft.
A method for manufacturing a personalized applicator for applying a cosmetic composition to the lips, said personalized applicator comprising an application surface made from a material that can become loaded with composition, the method comprising the following steps: a) performing a 3D scan of the topography of at least part of the surface of the lips, and b) from at least said scan, creating at least part of the personalized applicator or a mold used for the manufacture thereof, by machining a preform or by additive manufacturing, the method involving creating an outline of the application surface which differs from the natural outline of the scanned lips, in order to change the appearance of the lips made-up with said cosmetic composition, the method comprising the generation of a reworked 3D surface different than the natural surface of the lips, said reworked surface coinciding with the natural surface of the lips resulting from the scan, apart from its outline which differs from the natural outline of the scanned lips, the personalized applicator or the mold used for its manufacture having a shape given at least in part by said reworked surface. a) performing a 3D scan of the topography of at least part of the surface of the lips, and b) from at least said scan, creating at least part of the personalized applicator or a mold used for the manufacture thereof, by machining a preform or by additive manufacturing, the method involving creating an outline of the application surface which differs from the natural outline of the scanned lips, in order to change the appearance of the lips made-up with said cosmetic composition, the method comprising the generation of a reworked 3D surface different than the natural surface of the lips, said reworked surface coinciding with the natural surface of the lips resulting from the scan, apart from its outline which differs from the natural outline of the scanned lips, the personalized applicator or the mold used for its manufacture having a shape given at least in part by said reworked surface.
A nutritional formulation, comprising: an emulsion comprising docosahexaenoic acid, wherein the emulsion is dispersed in an aqueous component comprising an amino acid component comprising i) arginine and alanyl-glutamine dipeptide, or ii) arginyl-glutamine dipeptide; an emulsifier comprising highly-purified α-lactalbumin containing at least 95% w/w of α-lactalbumin, and arachidonic acid, wherein the nutritional formulation comprises 0.1 to 1.0 % w/w of the α-lactalbumin and is packaged in a single dose delivery package of up to 2mL. an emulsion comprising docosahexaenoic acid, wherein the emulsion is dispersed in an aqueous component comprising an amino acid component comprising i) arginine and alanyl-glutamine dipeptide, or ii) arginyl-glutamine dipeptide; an emulsifier comprising highly-purified α-lactalbumin containing at least 95% w/w of α-lactalbumin, and arachidonic acid,
A hetero-oligomeric pore derived from a Mycobacterium smegmatis porin, which comprises a narrowing having a net negative charge; wherein the pore comprises monomers from MspA, MspB, MspC and/or MspD; wherein one of the monomers in the pore differs from the rest of the monomers in the pore; and wherein the pore is capable of characterising polynucleotides.