mhurhangee/ep-ind-claims huggingface dataset:
Biocompatible, bioresorbable polymers comprising a plurality of monomeric repeating units containing an amide group, wherein said amide groups are N-substitutedand the N-substituent and degree of N-substitution is effective to lower the melt viscosity, the solution viscosity, or both, compared to the same polymer without N-substitution; wherein said polymers are characterized by being a polycarbonate, polyarylate, polyiminocarbonate, polyphosphazene or polyphosphoester having the structure of formula (Ia): wherein X 1 and X 2 are each independently selected from Br and I; y1 and y2 are each independently zero or an integer in the range of 1 to 4, and R 1 is selected from the group consisting of substituted or unsubstituted, saturated or unsaturated, straight chain or branched aliphatic groups containing up to 48 carbon atoms, substituted or unsubstituted aromatic groups containing up to 48 carbon atoms, and substituted or unsubstituted araliphatic groups containing up to 48 carbon atoms in which the aliphatic portions are straight chain or branched and saturated or unsaturated, and R 1 contains from 2 to 8 heteroatoms selected from O, S and N, in which two of the heteroatoms form a polymer backbone amide group that is N-substituted with a C 1 -C 6 alkyl group, and A 1 is selected from the group consisting of: wherein R 10 is selected from H, C 1 -C 30 alkyl, alkenyl or alkynyl and C 2 -C 30 hetero-alkyl; heteroalkenyl or heteroalkynyl, and R 12 is selected from C 1 -C 30 alkyl, alkenyl or alkynyl, C 1 -C 30 heteroalkyl; heteroalkenyl or heteroalkynyl, C 5 - C 30 heteroalkylaryl, heteroalkenylaryl or heteroalkynylaryl, C 6 - C 30 alkylaryl, alkenylaryl or alkynylaryl, and C 5 - C 30 heteroaryl.
A composition for use in a method of preventing or treating bacterial infections, wherein the composition comprises a mixture of the following ingredients: (i) thymol; (ii) sorbic acid or a salt thereof with an alkali or alkaline-earth metal; and (iii) citric acid or a salt thereof with an alkali or alkaline-earth metal. (i) thymol; (ii) sorbic acid or a salt thereof with an alkali or alkaline-earth metal; and (iii) citric acid or a salt thereof with an alkali or alkaline-earth metal.
A method of reacting reaction components comprising: electro-chemically reacting reaction components on opposite sides of at least one exchange membrane with at least one catalyst encompassing a respective volume, wherein electro-chemically reacting reaction components includes applying a potential difference on the opposite sides of the at least one exchange membrane, wherein the at least one exchange membrane is an array of membranes with catalyst and further including operating a subset of the array as fuel cells in a manner generating heat. electro-chemically reacting reaction components on opposite sides of at least one exchange membrane with at least one catalyst encompassing a respective volume, wherein electro-chemically reacting reaction components includes applying a potential difference on the opposite sides of the at least one exchange membrane, wherein the at least one exchange membrane is an array of membranes with catalyst and further including operating a subset of the array as fuel cells in a manner generating heat.
A method of making a mechanically stabilized RF transmission line device comprising: masking a design layout comprising one or more structures that form one or more transmission line structures on a photosensitive glass substrate; exposing at least one portion of the photosensitive glass substrate to an activating energy source; heating the photosensitive glass substrate for at least ten minutes above its glass transition temperature; cooling the photosensitive glass substrate to transform at least part of the exposed glass into a glass-crystalline substrate; etching the glass-crystalline substrate with an etchant solution to form one or more trenches and a mechanical support under the design layout of the one or more transmission line structures with electrical conduction channels; wherein the step of etching forms an air gap between the glass-crystalline substrate and the one or more electrical conductive transmission lines, wherein the structure is connected to one or more RF electronic components; wherein the mechanical support forms a support pedestal with an integrated ceramic core with glass cladding; and printing or depositing one or more metals or metallic media that form the one or more electrical conductive transmission lines, a ground plane and one or more input and output channels, wherein the metal is connected to a circuitry that forms the RF transmission line device, and at least one of the electrical conductive transmission lines is mechanically supported by the mechanical support. masking a design layout comprising one or more structures that form one or more transmission line structures on a photosensitive glass substrate; exposing at least one portion of the photosensitive glass substrate to an activating energy source; heating the photosensitive glass substrate for at least ten minutes above its glass transition temperature; cooling the photosensitive glass substrate to transform at least part of the exposed glass into a glass-crystalline substrate; etching the glass-crystalline substrate with an etchant solution to form one or more trenches and a mechanical support under the design layout of the one or more transmission line structures with electrical conduction channels; wherein the step of etching forms an air gap between the glass-crystalline substrate and the one or more electrical conductive transmission lines, wherein the structure is connected to one or more RF electronic components; wherein the mechanical support forms a support pedestal with an integrated ceramic core with glass cladding; and printing or depositing one or more metals or metallic media that form the one or more electrical conductive transmission lines, a ground plane and one or more input and output channels, wherein the metal is connected to a circuitry that forms the RF transmission line device, and at least one of the electrical conductive transmission lines is mechanically supported by the mechanical support.
A conditionally replicating adenovirus to replicate specifically in a cancer cell and express REIC protein or REIC C domain protein, wherein the conditionally replicating adenovirus is obtained by inserting full-length REIC DNA or REIC C domain DNA into a conditionally replicating adenovirus comprising an ITR (inverted terminal repeat) sequence of an adenovirus type 5 genome and insertion of an HRE sequence, an hTERT promoter, a decorin-encoding DNA, and a DNA encoding a peptide comprising an RGD sequence,
A nonwoven which comprises grinded banana plant outer sheath fibre, at least one thermoplastic fibre and at least one cellulosic fibre, characterised in that the grinded banana plant outer sheath fibre content is between 70% and 90% weight/weight, the thermoplastic fibre content is at least 5% weight/weight and the cellulosic fibre content is at least 5% weight/weight.
Linear motor with an integrated guide, comprising a base plate and a slide, which is linearly movably guided over the base plate and is mounted on rollers, wherein the linear drive and a position measuring system are arranged in the region between the rails, and wherein the base plate with the side walls is configured as a monoblock, in which recesses are formed to receive units necessary for the drive, characterised in that a. the rollers run on rails and b. a cross sectionally rectangular longitudinal groove (30, 31) is milled in the side walls in each case, said longitudinal groove being used to receive two inserted cross sectionally rounded running rods in each case, c. the slide has mirror-inverted cross sectionally rectangular grooves on the longitudinal end faces, in which such cross sectionally rounded running rods are inserted, d. wherein the slide is mounted in a rolling manner on both sides on cantilevered cross-roller cages, which run on the running rods e. and in that the slide is approximately profiled in a U-shape and is received with its U-profile approximately flush with the profile of the monoblock consisting of the base plate and side walls formed thereon. a. the rollers run on rails and b. a cross sectionally rectangular longitudinal groove (30, 31) is milled in the side walls in each case, said longitudinal groove being used to receive two inserted cross sectionally rounded running rods in each case, c. the slide has mirror-inverted cross sectionally rectangular grooves on the longitudinal end faces, in which such cross sectionally rounded running rods are inserted, d. wherein the slide is mounted in a rolling manner on both sides on cantilevered cross-roller cages, which run on the running rods e. and in that the slide is approximately profiled in a U-shape and is received with its U-profile approximately flush with the profile of the monoblock consisting of the base plate and side walls formed thereon.
Method for operating a document shredder which has a housing with an insertion slot for inserting sheet material, a cutting unit which is arranged in the housing, is driven by a motor and has cutting tools for shredding the sheet material, and a waste container which is arranged under the cutting unit for receiving sheet-material scraps falling down from the cutting unit, characterized in that the running time of the motor during shredding of the sheet material is measured by means of a measuring device, and in that a filling level of the waste container is calculated from the measured running time and from a desired value, which is stored in a memory of the measuring device and characterizes the quantity of sheet material shredded per unit of time, and is displayed by means of a display unit.
Method for timing a basketball match using a timing system comprising a timing device linked to at least one optical ball detector and linked to at least one visual ball detector for detecting a ball in a basketball hoop, the optical ball detector comprising at least one optical sensor, which is positioned near or on the basketball hoop, and the visual ball detector comprising one or more kinetic cameras for detecting the motion and the depth of the ball in the basketball hoop, the method comprising the steps of: - starting to count game time by activating the timing device, - capturing, using the optical sensor, the passage of the basketball ball into a rim of the basketball hoop from above the hoop, and visually detecting, by way of at least one kinetic camera, the motion of the basketball ball passing into the rim of the basketball hoop through information processing, and - transmitting at least one signal detecting the passage of the ball into the basketball hoop from the optical ball detector and from the visual detector to the timing device in order to stop game time. - starting to count game time by activating the timing device, - capturing, using the optical sensor, the passage of the basketball ball into a rim of the basketball hoop from above the hoop, and visually detecting, by way of at least one kinetic camera, the motion of the basketball ball passing into the rim of the basketball hoop through information processing, and - transmitting at least one signal detecting the passage of the ball into the basketball hoop from the optical ball detector and from the visual detector to the timing device in order to stop game time.
Method for outputting a manufacturing file for producing an optical element from a curable material by using an additive manufacturing technology, comprising: - acquiring the desired geometry of the optical element, - obtaining a discretization of the desired geometry in volume units (U i) described by data (x, y, z) relative to position parameters of the volume units and to the dimension of the volume units (U i), further comprising: - associating at least a volume unit (U i) with a kinetic parameter that relates to the curing pace imposed to the curable material of the volume unit (U i), - producing, using at least one processor, a manufacturing file comprising said data (x, y, z) and said kinetic parameter associated to each volume unit (U i) for manufacturing at least the optical element, and - outputting said manufacturing file, wherein, for at least one volume unit (U i), said kinetic parameter has a value that imposes the curing of the curable material in at least two curing steps and that is such that the solidification is not reached after the first of these two curing steps, each curing step comprising the providing of a non-null energy to said one volume unit (U i) directly or indirectly through other volume units. - acquiring the desired geometry of the optical element, - obtaining a discretization of the desired geometry in volume units (U i) described by data (x, y, z) relative to position parameters of the volume units and to the dimension of the volume units (U i), further comprising: - associating at least a volume unit (U i) with a kinetic parameter that relates to the curing pace imposed to the curable material of the volume unit (U i), - producing, using at least one processor, a manufacturing file comprising said data (x, y, z) and said kinetic parameter associated to each volume unit (U i) for manufacturing at least the optical element, and - outputting said manufacturing file, - associating at least a volume unit (U i) with a kinetic parameter that relates to the curing pace imposed to the curable material of the volume unit (U i), - producing, using at least one processor, a manufacturing file comprising said data (x, y, z) and said kinetic parameter associated to each volume unit (U i) for manufacturing at least the optical element, and - outputting said manufacturing file, wherein, for at least one volume unit (U i), said kinetic parameter has a value that imposes the curing of the curable material in at least two curing steps and that is such that the solidification is not reached after the first of these two curing steps, each curing step comprising the providing of a non-null energy to said one volume unit (U i) directly or indirectly through other volume units.
An electronic key comprising at least one housing element in which an electrical and/or electronic component is arranged and which comprises at least one button receiving section and at least one button element with at least one button (3a, 3b) which on its side facing the housing element is provided with an extension projection for operating the component arranged in the housing element, wherein the at least one button receiving section is formed on one of the two longitudinal sides (8a, 8b) connecting the upper side and lower side of the at least one housing element, wherein the at least one button element is applied on the at least one housing element and covers the at least one button receiving section, wherein on the longitudinal side (8a, 8b) of the housing element having the button element a clip-like holding element (9a, 9b) is provided which is attached to the housing element and thereby fastens the button element to the housing element wherein on the longitudinal side (8a, 8b) having the button element, the housing element has a U-shaped holding frame (10a, 10b) projecting from the housing element which is open on one side towards the upper side or lower side and interacts with the holding element (9a, 9b) for fastening on the housing element, and wherein the holding frame (10a, 10b), at least on its sections extending from the upper side to the lower side, is provided with holding recesses, wherein in the assembled state of the key the holding element (9a, 9b) is pushed into the holding recesses with holding projections formed complementary to the holding recesses on the face ends of the holding element (9a, 9b) characterised in that the button receiving sections are made of an elastically produced sealing element so that on operating a button (3a, 3b) the sealing element exerts a restoring force on the button (3a, 3b) and returns it to its initial position and in that the holding element (9a, 9b) on its longitudinal edges facing the holding frame (10a, 10b) has at least one retaining projection which extends perpendicularly from the holding element (9a, 9b) in the direction of the housing element and is designed to interact therewith.
A crankshaft and conrod assembly comprising a crankshaft and a conrod, wherein the crankshaft comprises at least one main journal and one crankpin journal, and the at least one conrod is provided upon the crankpin journal, and the crankshaft is provided with an oil supply structure for supplying the crankpin journal with lubrication oil and the conrod with an oil pressure, wherein the oil supply structure comprises: an oil supply conduit provided between the main journal and the crankpin journal, at least a first oil supply opening and a second oil supply opening provided at the crankpin journal, and a connection point where the oil supply conduit connects to the first and second oil supply openings (114, 115), wherein the conrod is arranged upon the crank pin journal through a bearing sleeve, at which at least a first oil groove and a second oil groove are provided in a circumferential direction at an inner surface of the bearing sleeve, wherein the first oil supply opening is provided at a first radial distance from a rotational axis of the crankshaft, the second oil supply opening is provided at a second radial distance from the rotational axis and both the first and second radial distance (D1, D2) are larger than or equal to the distance between the connection point and the rotational axis of the crankshaft, and wherein an opening angle between the first and second oil supply openings (114, 115) is larger or equal to an angle (B1, B2) between opposing end portions (152_1, 153_1) of the two oil grooves (152, 153), and smaller or equal to the angular length (C1, C2) of the respective oil groove (152, 153). an oil supply conduit provided between the main journal and the crankpin journal, at least a first oil supply opening and a second oil supply opening provided at the crankpin journal, and a connection point where the oil supply conduit connects to the first and second oil supply openings (114, 115), wherein the conrod is arranged upon the crank pin journal through a bearing sleeve, at which at least a first oil groove and a second oil groove are provided in a circumferential direction at an inner surface of the bearing sleeve, wherein the first oil supply opening is provided at a first radial distance from a rotational axis of the crankshaft, the second oil supply opening is provided at a second radial distance from the rotational axis and both the first and second radial distance (D1, D2) are larger than or equal to the distance between the connection point and the rotational axis of the crankshaft, and wherein an opening angle between the first and second oil supply openings (114, 115) is larger or equal to an angle (B1, B2) between opposing end portions (152_1, 153_1) of the two oil grooves (152, 153), and smaller or equal to the angular length (C1, C2) of the respective oil groove (152, 153).
A compound of Formula (VIII): or a pharmaceutically acceptable salt, solvate, tautomeric form or polymorphic form thereof, wherein: each Base is independently each X is independently alkoxyl, hydrogen, or hydroxyl; each Y is independently hydroxyl, acetoxyl, or fluoro; each Z is independently - L C O p CR 3, - L-Ar- C O p CR 3, -CR p OC O p CR 3, - L SC L OH, - L SC L OC p CR 3, - L SC L OC p NR 2, - L S-S p CR 3,- L S-S L OH, - L NRC O p CR 3, - L SC L NRC O p CR 3, - Ar-B, - L-B, - L NRC D, - L NRC CH (CR 2) 2 OH,- p CR(R A)C O p CR 3, or - L SC L C O p CR 3; each B is independently an alkyl group substituted with aminocarboxylene, carboxylene, or both; each D is independently each E is independently alkyl, substituted alkyl, aryl, or heteroaryl; each Ar is independently an arylene or heteroarylene; each L is independently alkylene or substituted alkylene; each R is independently hydrogen, alkyl, substituted alkyl, aryl, or heteroaryl; each R A is independently a carbocyclic or heterocyclic ring; and each p is independently 0 or 1. each Base is independently each X is independently alkoxyl, hydrogen, or hydroxyl; each Y is independently hydroxyl, acetoxyl, or fluoro; each Z is independently - L C O p CR 3, - L-Ar- C O p CR 3, -CR p OC O p CR 3, - L SC L OH, - L SC L OC p CR 3, - L SC L OC p NR 2, - L S-S p CR 3,- L S-S L OH, - L NRC O p CR 3, - L SC L NRC O p CR 3, - Ar-B, - L-B, - L NRC D, - L NRC CH (CR 2) 2 OH,- p CR(R A)C O p CR 3, or - L SC L C O p CR 3; each B is independently an alkyl group substituted with aminocarboxylene, carboxylene, or both; each D is independently each E is independently alkyl, substituted alkyl, aryl, or heteroaryl; each Ar is independently an arylene or heteroarylene; each L is independently alkylene or substituted alkylene; each R is independently hydrogen, alkyl, substituted alkyl, aryl, or heteroaryl; each R A is independently a carbocyclic or heterocyclic ring; and each p is independently 0 or 1.
A light field acquisition device comprising an optical system, the optical system comprising a main lens, an image sensor and a microlens array comprising a plurality of microlenses, wherein the centres of the microlenses of the microlens array are displaced a certain distance ( d ul(i)) from a regular arrangement with a constant pitch P ul such that adjacent microlenses are in contact, wherein the displaced distance (d ul(i)) is zero in a central zone of the microlens array, characterized in that the pitch between centres of microlenses is gradually increased as the field of view increases to an increased new pitch P ul ( i) for microlens i, greater than the constant pitch P ul, to compensate the non-linearities of the chief ray angle with the field of view; wherein the size of a plurality of microlenses of the microlens array is dependent upon the distance to the center of the microlens array, the sizes of the microlenses being increased such that the interstitial spaces ( g i) between adjacent microlenses are filled. the pitch between centres of microlenses is gradually increased as the field of view increases to an increased new pitch P ul ( i) for microlens i, greater than the constant pitch P ul, to compensate the non-linearities of the chief ray angle with the field of view; wherein the size of a plurality of microlenses of the microlens array is dependent upon the distance to the center of the microlens array, the sizes of the microlenses being increased such that the interstitial spaces ( g i) between adjacent microlenses are filled.