mhurhangee/patent-ind-claim-en huggingface dataset:
Capsule having a rotationally symmetrical capsule body with a side wall and with a base formed in one piece with the latter, and also having a cover , which covers the capsule body and is intended for forming at least one chamber , which contains a substance for the preparation of a liquid food, wherein the cover forms an entry side, and the base forms an exit side, for the passage of a liquid through the chamber, wherein a rupture disc , which can burst under an internal pressure in the chamber, is arranged above the base , the base has a depression and the rupture disc is arranged in the depression, wherein a perforated base or a filter base is arranged above the rupture disc and at a distance therefrom, characterized in that the base has the depression on the side which is directed towards the chamber , and in that the rupture disc has predetermined breaking points or predetermined breaking lines for the exposure of at least one opening when the disc ruptures, wherein the predetermined breaking points or predetermined breaking lines are arranged in the rupture disc in combination with a weakening line such that the portion of the rupture disc which is delimited by the predetermined breaking points can be pivoted downwards, towards the base, about the weakening line when the disc ruptures.
A system comprising a pressure bottle and a pressure sensor to sense pressure in the pressure bottle, the sensor comprising: two or more fiber Bragg gratings (FBGs) , each affixed to a different radial location of a diaphragm seal of the pressure bottle; a light source configured to provide incident light to the two or more FBGs; a photodetector configured to detect reflected light resulting from the two or more FBGs; and processing circuitry configured to determine a pressure change in the pressure bottle based on the reflected light resulting from each of the two or more FBGs; and the system characterised in that the two or more FBGs are affixed such that a wavelength of the reflected light resulting from the two or more FBGs is shifted in a same direction relative to a baseline wavelength in response to the pressure change. two or more fiber Bragg gratings (FBGs) , each affixed to a different radial location of a diaphragm seal of the pressure bottle; a light source configured to provide incident light to the two or more FBGs; a photodetector configured to detect reflected light resulting from the two or more FBGs; and processing circuitry configured to determine a pressure change in the pressure bottle based on the reflected light resulting from each of the two or more FBGs; and the system characterised in that the two or more FBGs are affixed such that a wavelength of the reflected light resulting from the two or more FBGs is shifted in a same direction relative to a baseline wavelength in response to the pressure change.
A sliding subsea foundation comprising a polymeric shoe layer , wherein the shoe layer defines a soil-engaging face that comprises an array of substantially parallel elongate grooves .
A fitment comprising: a top portion, a base, and a channel extending through the top portion and the base for passage of a flowable material; the fitment composed of a polymeric composition comprising: (i) from 70 to 90 weight percent of a high density polyethylene (HDPE) having a density from 0.940 g/cc to 0.970 g/cc, a melt temperature, Tm, greater than 125°C, and a melt index from 1 g/10 min to 50 g/10 min; and (ii) from 30 to 10 weight percent of an olefin-based elastomer having a density from 0.860 g/cc to 0.905 g/cc, a melt index from 0.2 g/10 min to 50 g/10 min, and a Tm less than 125°C, wherein melt index is measured in accordance with ASTM D 1238, Condition 190°C/2.16 kg (g/10 minutes). a top portion, a base, and a channel extending through the top portion and the base for passage of a flowable material; the fitment composed of a polymeric composition comprising: (i) from 70 to 90 weight percent of a high density polyethylene (HDPE) having a density from 0.940 g/cc to 0.970 g/cc, a melt temperature, Tm, greater than 125°C, and a melt index from 1 g/10 min to 50 g/10 min; and (ii) from 30 to 10 weight percent of an olefin-based elastomer having a density from 0.860 g/cc to 0.905 g/cc, a melt index from 0.2 g/10 min to 50 g/10 min, and a Tm less than 125°C, (i) from 70 to 90 weight percent of a high density polyethylene (HDPE) having a density from 0.940 g/cc to 0.970 g/cc, a melt temperature, Tm, greater than 125°C, and a melt index from 1 g/10 min to 50 g/10 min; and (ii) from 30 to 10 weight percent of an olefin-based elastomer having a density from 0.860 g/cc to 0.905 g/cc, a melt index from 0.2 g/10 min to 50 g/10 min, and a Tm less than 125°C, wherein melt index is measured in accordance with ASTM D 1238, Condition 190°C/2.16 kg (g/10 minutes).
A contact lens comprising back surface translational elements, wherein the translational elements are dimples , wherein the dimples are in a peripheral zone surrounding an optic zone of the lens, and wherein the dimples are imparted into a back surface of the lens in a radially symmetric manner and are aligned along equally spaced radial spokes , each spoke having an equal number of dimples, and wherein the contact lens comprises between about 150 and about 300 dimples on the lens back surface, wherein the dimple centers are spaced apart by between 100 to 400 microns and the dimples have a diameter of between 100 to 300 microns.
An organic light-emitting device, comprising: an anode and a cathode opposite each other; a first stack and a second stack between the anode and the cathode ; and a charge generation layer between the first stack and the second stack , the charge generation layer comprising an n-type charge generation layer and a p-type charge generation layer , wherein the p-type charge generation layer comprises one first organic material, wherein the n-type charge generation layer comprises a second organic material and an n-type dopant, wherein the n-type charge generation layer is divided into a first region contacting the first stack , a second region contacting the p-type charge generation layer , and a third region between the first region and the second region , and wherein the n-type dopant is only in the second region and the third region , wherein the third region has at least two sub-regions and a dopant content of the n-type dopant is stepwise increased in the at least two sub-regions of the third region , wherein a dopant content of the n-type dopant is stepwise increased in an order of: the first region , a first sub-region of the third region adjacent to the first region , a second sub-region of the third region adjacent to the second region , and the second region , and wherein a dopant content difference of the n-type dopant between the first region and the first sub-region of the third region adjacent to the first region is less than a dopant content difference of the n-type dopant between the second sub-region of the third region adjacent to the second region and the second region . an anode and a cathode opposite each other; a first stack and a second stack between the anode and the cathode ; and a charge generation layer between the first stack and the second stack , the charge generation layer comprising an n-type charge generation layer and a p-type charge generation layer , wherein the p-type charge generation layer comprises one first organic material, wherein the n-type charge generation layer comprises a second organic material and an n-type dopant, wherein the n-type charge generation layer is divided into a first region contacting the first stack , a second region contacting the p-type charge generation layer , and a third region between the first region and the second region , and wherein the n-type dopant is only in the second region and the third region , wherein the third region has at least two sub-regions and a dopant content of the n-type dopant is stepwise increased in the at least two sub-regions of the third region , wherein a dopant content of the n-type dopant is stepwise increased in an order of: the first region , a first sub-region of the third region adjacent to the first region , a second sub-region of the third region adjacent to the second region , and the second region , and wherein a dopant content difference of the n-type dopant between the first region and the first sub-region of the third region adjacent to the first region is less than a dopant content difference of the n-type dopant between the second sub-region of the third region adjacent to the second region and the second region .
An apparatus for manufacturing an elastic composite structure, the apparatus comprising: at least one means for transporting a first web layer and a second web layer in a machine direction; at least one means for transporting an elastic thread in the machine direction in a tensioned state; and a bonding unit configured to: bond the first web layer to the second web layer absent adhesive via a bond pattern comprising at least one bond line having at least one pair of adjacent bonds; and anchor the elastic thread within a passage defined by the at least one pair of adjacent bonds, the passage having a cross-sectional area smaller than a cross-sectional area of the elastic thread in a non-tensioned state; wherein the bonding unit comprises an ultrasonic bonding unit having a face with at least one welding line defined thereon, each welding line of the at least one welding line arranged to form the bond pattern; wherein the at least one welding line comprises a notch positioned between a pair of projections ; and wherein the notch has a cross-sectional area that is smaller than the cross-sectional area of the elastic thread in the non-tensioned state. at least one means for transporting a first web layer and a second web layer in a machine direction; at least one means for transporting an elastic thread in the machine direction in a tensioned state; and a bonding unit configured to: bond the first web layer to the second web layer absent adhesive via a bond pattern comprising at least one bond line having at least one pair of adjacent bonds; and anchor the elastic thread within a passage defined by the at least one pair of adjacent bonds, the passage having a cross-sectional area smaller than a cross-sectional area of the elastic thread in a non-tensioned state; bond the first web layer to the second web layer absent adhesive via a bond pattern comprising at least one bond line having at least one pair of adjacent bonds; and anchor the elastic thread within a passage defined by the at least one pair of adjacent bonds, the passage having a cross-sectional area smaller than a cross-sectional area of the elastic thread in a non-tensioned state; wherein the bonding unit comprises an ultrasonic bonding unit having a face with at least one welding line defined thereon, each welding line of the at least one welding line arranged to form the bond pattern; wherein the at least one welding line comprises a notch positioned between a pair of projections ; and wherein the notch has a cross-sectional area that is smaller than the cross-sectional area of the elastic thread in the non-tensioned state.
An internal combustion engine defining at least one cylinder, the internal combustion engine comprising: a first camshaft lobe ; a second camshaft lobe ; at least one exhaust valve ; and a pivotally mounted follower in contact with and operatively engaging the exhaust valve, the first camshaft lobe, and the second camshaft lobe, wherein the follower is operable in a first mode, in which the follower is configured to transmit motion between the first camshaft lobe and the valve, and a second mode, in which the follower is configured to transmit motion between the first camshaft lobe and the valve and the second camshaft lobe and the valve, wherein the first camshaft lobe is sized and shaped to produce positive engine power by causing the follower to open the exhaust valve during an exhaust stroke, and wherein the second camshaft lobe is sized and shaped to produce negative engine power by causing the follower to open the exhaust valve during a compression stroke. a first camshaft lobe ; a second camshaft lobe ; at least one exhaust valve ; and a pivotally mounted follower in contact with and operatively engaging the exhaust valve, the first camshaft lobe, and the second camshaft lobe, wherein the follower is operable in a first mode, in which the follower is configured to transmit motion between the first camshaft lobe and the valve, and a second mode, in which the follower is configured to transmit motion between the first camshaft lobe and the valve and the second camshaft lobe and the valve, wherein the first camshaft lobe is sized and shaped to produce positive engine power by causing the follower to open the exhaust valve during an exhaust stroke, and wherein the second camshaft lobe is sized and shaped to produce negative engine power by causing the follower to open the exhaust valve during a compression stroke.
Method for inputting parameters of a parameter field for controlling a system, wherein - the parameter field is first of all graphically represented in a first occupancy with parameters on a sensitive screen by means of dots, lines and/or areas, and wherein - the points, lines and/or areas are changed by touching the screen , with the result that the resulting parameter field represented has a second occupancy with parameters which differs from the first occupancy, and - parameters of the parameter field are represented by means of at least one line on the screen , characterized in that , when a touch region which is defined on account of touching on the screen is approached, this causes the line to be shifted in the distance direction from the touch region , such that the line is always at a defined minimum distance from the touch region . - the parameter field is first of all graphically represented in a first occupancy with parameters on a sensitive screen by means of dots, lines and/or areas, and wherein - the points, lines and/or areas are changed by touching the screen , with the result that the resulting parameter field represented has a second occupancy with parameters which differs from the first occupancy, and - parameters of the parameter field are represented by means of at least one line on the screen , characterized in that , when a touch region which is defined on account of touching on the screen is approached, this causes the line to be shifted in the distance direction from the touch region , such that the line is always at a defined minimum distance from the touch region .
An antireflection film comprising: a hard coating layer or an antiglare layer; and a low refractive index layer formed on one side of the hard coating layer or the antiglare layer and including a binder resin, and hollow silica nanoparticles, metal oxide nanoparticles, and inorganic nanoparticles dispersed in the binder resin, wherein a first region containing the hollow silica nanoparticles, a second region containing the metal oxide nanoparticles, and a third region containing the inorganic nanoparticles are present in the low reflective index layer, and wherein the low refractive index layer has at least one diffraction peak in a range in which a value of 2θ, twice the angle of incidence of an incident X-ray, is from 50° to 60° in a grazing-incidence X-ray diffraction (GID) spectrum, wherein the inorganic nanoparticles include solid-type silica nanoparticles or antimony-doped tin oxide nanoparticles; the metal oxide nanoparticles is selected from titanium oxide, tin oxide or zinc oxide; the hollow silica nanoparticles are particles having an average diameter of 10 nm to 200 nm; and the average diameter of the respective nanoparticles is obtained by measuring and calculating the diameters of the respective nanoparticles identified by a TEM photograph of the antireflection film. a hard coating layer or an antiglare layer; and a low refractive index layer formed on one side of the hard coating layer or the antiglare layer and including a binder resin, and hollow silica nanoparticles, metal oxide nanoparticles, and inorganic nanoparticles dispersed in the binder resin, wherein a first region containing the hollow silica nanoparticles, a second region containing the metal oxide nanoparticles, and a third region containing the inorganic nanoparticles are present in the low reflective index layer, and wherein the low refractive index layer has at least one diffraction peak in a range in which a value of 2θ, twice the angle of incidence of an incident X-ray, is from 50° to 60° in a grazing-incidence X-ray diffraction (GID) spectrum, wherein the inorganic nanoparticles include solid-type silica nanoparticles or antimony-doped tin oxide nanoparticles; the metal oxide nanoparticles is selected from titanium oxide, tin oxide or zinc oxide; the hollow silica nanoparticles are particles having an average diameter of 10 nm to 200 nm; and the average diameter of the respective nanoparticles is obtained by measuring and calculating the diameters of the respective nanoparticles identified by a TEM photograph of the antireflection film.
Method for recognizing a distribution shift in a data distribution and/or feature distribution of input data , wherein the method is carried out in at least one mobile apparatus , comprising the following steps: receiving the input data using an input apparatus , executing a function that is identical in terms of objective on the received input data using a first processing module (3-1) and at least one second processing module (3-2), wherein the first processing module (3-1) and the at least one second processing module (3-2) are structurally different from one another, wherein at least the first processing module (3-1) has been created on the basis of machine learning, and wherein the processing modules (3-1, 3-2) execute a perception function using which objects in the surroundings of the mobile apparatus are classified, comparing the results delivered by the processing modules (3-1, 3-2) and identifying a distribution shift on the basis of the comparison result using an evaluation apparatus , wherein a distribution shift is identified when the processing modules (3-1, 3-2) deliver different classifications of objects as results , and if a distribution shift has been identified: providing a candidate signal and outputting the provided candidate signal using an output apparatus , wherein the candidate signal comprises a description of the processing modules (3-1, 3-2) that are used and/or a description of the comparison result and/or a description of a context situation. receiving the input data using an input apparatus , executing a function that is identical in terms of objective on the received input data using a first processing module (3-1) and at least one second processing module (3-2), wherein the first processing module (3-1) and the at least one second processing module (3-2) are structurally different from one another, wherein at least the first processing module (3-1) has been created on the basis of machine learning, and wherein the processing modules (3-1, 3-2) execute a perception function using which objects in the surroundings of the mobile apparatus are classified, comparing the results delivered by the processing modules (3-1, 3-2) and identifying a distribution shift on the basis of the comparison result using an evaluation apparatus , wherein a distribution shift is identified when the processing modules (3-1, 3-2) deliver different classifications of objects as results , and if a distribution shift has been identified: providing a candidate signal and outputting the provided candidate signal using an output apparatus , wherein the candidate signal comprises a description of the processing modules (3-1, 3-2) that are used and/or a description of the comparison result and/or a description of a context situation. providing a candidate signal and outputting the provided candidate signal using an output apparatus , wherein the candidate signal comprises a description of the processing modules (3-1, 3-2) that are used and/or a description of the comparison result and/or a description of a context situation.
A drug delivery device, comprising: a body having a reservoir disposed therein for containing a medicament; a rotor disposed in the body and rotatable from a pre-activated position to an activated position to activate the device; an injection needle for penetrating the skin of a patient, the needle providing a path for the medicament between the reservoir and the patient, and being disposed on a needle-manifold ; a removable needle cover configured to cover the injection needle and prevent movement of the rotor to prevent device activation; characterized in that the needle cover comprises: a needle covering portion having an eyelet opening and being engageable with the needle-manifold ; a needle cover clip rotatably disposed on a needle-covering portion via a cantilevered clip portion inserted through the eyelet opening; and a lockout pin disposed on the needle cover clip and engageable with the rotor through an opening in the device body to prevent device activation; and the rotor includes an engagement slot , the lockout pin being received in the engagement slot in the pre-activated position to prevent movement of the rotor. a body having a reservoir disposed therein for containing a medicament; a rotor disposed in the body and rotatable from a pre-activated position to an activated position to activate the device; an injection needle for penetrating the skin of a patient, the needle providing a path for the medicament between the reservoir and the patient, and being disposed on a needle-manifold ; a removable needle cover configured to cover the injection needle and prevent movement of the rotor to prevent device activation; characterized in that the needle cover comprises: a needle covering portion having an eyelet opening and being engageable with the needle-manifold ; a needle cover clip rotatably disposed on a needle-covering portion via a cantilevered clip portion inserted through the eyelet opening; and a lockout pin disposed on the needle cover clip and engageable with the rotor through an opening in the device body to prevent device activation; and a needle covering portion having an eyelet opening and being engageable with the needle-manifold ; a needle cover clip rotatably disposed on a needle-covering portion via a cantilevered clip portion inserted through the eyelet opening; and a lockout pin disposed on the needle cover clip and engageable with the rotor through an opening in the device body to prevent device activation; and the rotor includes an engagement slot , the lockout pin being received in the engagement slot in the pre-activated position to prevent movement of the rotor.
Method for the production of hot drinks with a drinks machine , which is configured for the preparation of a plurality of different types of hot drinks (H), comprising the steps: - providing control parameter values (S) for a number of liquid volumes (V), wherein each control parameter value (S) is linked to one liquid volume (V), - providing a number of compensation values (K) for changing the liquid volumes (V), wherein each compensation value (K) is linked to a type of hot drink (H), - selecting a type of hot drink (H), - preparing a hot drink of the type of hot drink (H) selected, wherein a liquid volume (V) is conveyed, which results from the control parameter value (S) for the liquid volume (V) changed by the compensation value (K) for the type of hot drink (H). - providing control parameter values (S) for a number of liquid volumes (V), wherein each control parameter value (S) is linked to one liquid volume (V), - providing a number of compensation values (K) for changing the liquid volumes (V), wherein each compensation value (K) is linked to a type of hot drink (H), - selecting a type of hot drink (H), - preparing a hot drink of the type of hot drink (H) selected, wherein a liquid volume (V) is conveyed, which results from the control parameter value (S) for the liquid volume (V) changed by the compensation value (K) for the type of hot drink (H).