mhurhangee/ep-ind-claims huggingface dataset:
Lighting element comprising a section for the interior fittings of a rail vehicle, the section being produced by co-extrusion in a single piece and comprising: - a rigid substrate extending in a longitudinal direction and having two opposite longitudinal edges (18, 19), said rigid substrate being made of polycarbonate and comprising at least a first opaque part and at least a second transparent or translucent part (28, 30), each first and second part (28, 30) extending in the longitudinal direction, and - a thermoplastic elastomer coating extruded together with the rigid substrate onto at least part of one of the longitudinal edges of said rigid substrate, the lighting element comprising a body formed by the rigid substrate having a tubular shape in the longitudinal direction defining an interior of the body and an exterior of the body, the rigid substrate delimiting a surface for fixing an array of light-emitting diodes strip, this attachment surface being located on the outside of the body of the lighting element, the lighting element being provided with cutouts in the fastening surface of the light-emitting diode strip so that the light-emitting diodes are directed towards the inside of the body when the diodes are inserted into the cutouts and the light-emitting diode strip is fixed. - a rigid substrate extending in a longitudinal direction and having two opposite longitudinal edges (18, 19), said rigid substrate being made of polycarbonate and comprising at least a first opaque part and at least a second transparent or translucent part (28, 30), each first and second part (28, 30) extending in the longitudinal direction, and - a thermoplastic elastomer coating extruded together with the rigid substrate onto at least part of one of the longitudinal edges of said rigid substrate, the lighting element comprising a body formed by the rigid substrate having a tubular shape in the longitudinal direction defining an interior of the body and an exterior of the body, the rigid substrate delimiting a surface for fixing an array of light-emitting diodes strip, this attachment surface being located on the outside of the body of the lighting element,
A security paper for manufacturing value documents, such as bank notes, passports, identity documents or the like, having a planar substrate which is equipped on at least one surface with at least one anti-forgery means, wherein the anti-forgery means is based on a carrier foil having mutually opposing first and second principal areas, and the carrier foil's first principal area visually recognizable to the viewer at least in some regions and opposing the substrate has an optically variable security feature having microstructures as well as micro-imaging elements for magnified imaging of the microstructures, and the anti-forgery means and a partial substrate area surrounding the anti-forgery means are furnished, for extending life and fitness for circulation, with a dirt-repellent radiation-curing first lacquer substantially not influencing the perceptibility of the optically variable security feature, the layer thickness of said lacquer lying in a range of 0.7 to 2 μm.
A process for preparing a polymer comprising a fucose-containing polysaccharide, wherein the polymer is obtained by cultivation of the bacterium Enterobacter A47, with accession number DSM 23139, the process comprising the following steps: a) a batch phase comprising cultivating the bacterium Enterobacter A47 with accession number DSM 23139 in a culture medium in a stirred and aerated bioreactor, wherein the culture medium comprises a carbon source comprising glycerol or glycerol containing mixtures, a nitrogen source and inorganic salts; b) a fed-batch phase comprising cultivating the bacterium Enterobacter A47 under conditions of carbon availability and nitrogen limitation; and wherein the temperature during the batch phase and fed-batch phase is controlled between 15 and 45°C and the pH is controlled between 5.0 and 9.0. a) a batch phase comprising cultivating the bacterium Enterobacter A47 with accession number DSM 23139 in a culture medium in a stirred and aerated bioreactor, wherein the culture medium comprises a carbon source comprising glycerol or glycerol containing mixtures, a nitrogen source and inorganic salts; b) a fed-batch phase comprising cultivating the bacterium Enterobacter A47 under conditions of carbon availability and nitrogen limitation;
A surgical tool, comprising: a drive housing having an input shaft (1010a-d) and a drive cable capstan (1012a-d) arranged within the drive housing, the input shaft including a drive gear and the drive cable capstan including a driven gear intermeshed with the drive gear such that rotation of the input shaft rotates the drive cable capstan; an elongate shaft that extends from the drive housing; an end effector operatively coupled to a distal end of the elongate shaft; a drive cable (808a-d) coupled to the drive cable capstan and extending to the end effector; and a spring assembly (1106a-d) including a winder drum and a constant force spring extending between the winder drum and the input shaft, wherein the constant force spring provides a constant torque force that resists rotation of the input shaft and thereby prevents the drive cable from slackening. a drive housing having an input shaft (1010a-d) and a drive cable capstan (1012a-d) arranged within the drive housing, the input shaft including a drive gear and the drive cable capstan including a driven gear intermeshed with the drive gear such that rotation of the input shaft rotates the drive cable capstan; an elongate shaft that extends from the drive housing; an end effector operatively coupled to a distal end of the elongate shaft; a drive cable (808a-d) coupled to the drive cable capstan and extending to the end effector; and a spring assembly (1106a-d) including a winder drum and a constant force spring extending between the winder drum and the input shaft, wherein the constant force spring provides a constant torque force that resists rotation of the input shaft and thereby prevents the drive cable from slackening.
A routing structure of a two-core parallel shielded electric wire comprising: two insulated electric wires that are arranged in parallel; and a shield layer that is attached around the two insulated electric wires and extends in a longitudinal direction of the two insulated electric wires, wherein the two-core parallel shielded electric wire is rerouted by bent-twisting the two-core parallel shielded electric wire in a short axis direction of the two insulated electric wires at a route change point in a long axis direction of the two-core parallel shielded electric wire, characterized in that the number of route change points per unit length of the two-core parallel shielded electric wire is 1.43 or less per meter. two insulated electric wires that are arranged in parallel; and a shield layer that is attached around the two insulated electric wires and extends in a longitudinal direction of the two insulated electric wires, wherein the two-core parallel shielded electric wire is rerouted by bent-twisting the two-core parallel shielded electric wire in a short axis direction of the two insulated electric wires at a route change point in a long axis direction of the two-core parallel shielded electric wire, characterized in that the number of route change points per unit length of the two-core parallel shielded electric wire is 1.43 or less per meter.
Method for producing a slab track for rail vehicles with an emergency pathway for road vehicles wherein a prefabricated track section with rails and sleeper blocks is supported and positioned on a substructure by means of a supporting and aligning device and a track slab is produced by casting in the sleeper blocks, wherein formwork elements (9, 19) are installed which separate the part of the sleeper blocks that projects from the track slab and the rails, wherein the formwork elements (9, 19) are provided with hoods that are to be fitted over parts of the sleeper blocks, and wherein the emergency pathway is applied to the track slab by casting, characterised in that a rubber shoe in which an elastic inlay is arranged is put over the sleeper blocks from below before the emergency pathway is cast, and in that the formwork elements (9, 19) comprise removable plates connecting the hoods and adjacent hoods and are removed after the emergency pathway has been applied, so that the emergency pathway leaves a clearance towards the sleeper blocks and the rails.
Rail of an in particular telescope-like withdrawal system for trays of cooking food of a cooking oven, which rail has at least in part a PTFE-based coating, wherein the coating is single-layer or multi-layer, characterized in that the upper regions and/or the regions accessible to the food and/or to the user have a multi-layer coating and the lower regions and/or the regions not accessible to the food and/or to the user have a single-layer coating.
A method for calibrating a system comprising a photoelastic modulator on a circular dichroism measurement instrument, the method comprising: scanning the control input voltage ( V in) at a fixed wavelength ( λ meas); and recording the CD scan, wherein the control input voltage ( V in) determines the peak retardation (δ) at the fixed wavelength ( λ meas), and wherein the method is repeated for two or more fixed wavelengths, wherein the method further comprises the step of fitting the results measured at each wavelength to a drive function; optionally wherein the method is automated; optionally further comprising performing an initial calibration of the system before a refined calibration measurement begins. scanning the control input voltage ( V in) at a fixed wavelength ( λ meas); and recording the CD scan, wherein the control input voltage ( V in) determines the peak retardation (δ) at the fixed wavelength ( λ meas), and wherein the method is repeated for two or more fixed wavelengths, wherein the method further comprises the step of fitting the results measured at each wavelength to a drive function; optionally wherein the method is automated; optionally further comprising performing an initial calibration of the system before a refined calibration measurement begins.
A patch fitting for a fire-retardant glass door, the patch fitting comprising: a first layer of fire retardant material and a second layer of fire retardant material; a support sandwiched between the first layer of fire retardant material on a first side of the support and the second layer of fire retardant material on an opposing second side of the support; wherein the support comprises: a first attachment means (30a-e) for attaching to a first pane of glass of the fire-retardant glass door on the first side of the support; and a second attachment means (31a-e) for attaching to a second pane of glass of the first-retardant glass door on the opposing second side of the support; such that the patch fitting is configured, in use, to be at least partially sandwiched between the two panes of glass of the fire-retardant glass door; wherein the first and second layers of fire retardant material provide a separation between the support and the first and second panes of glass. a first layer of fire retardant material and a second layer of fire retardant material; a support sandwiched between the first layer of fire retardant material on a first side of the support and the second layer of fire retardant material on an opposing second side of the support; wherein the support comprises: a first attachment means (30a-e) for attaching to a first pane of glass of the fire-retardant glass door on the first side of the support; and a second attachment means (31a-e) for attaching to a second pane of glass of the first-retardant glass door on the opposing second side of the support; a first attachment means (30a-e) for attaching to a first pane of glass of the fire-retardant glass door on the first side of the support; and a second attachment means (31a-e) for attaching to a second pane of glass of the first-retardant glass door on the opposing second side of the support; such that the patch fitting is configured, in use, to be at least partially sandwiched between the two panes of glass of the fire-retardant glass door; wherein the first and second layers of fire retardant material provide a separation between the support and the first and second panes of glass.
A method of generating a loaded layout in a vacuum furnace corresponding to an actual layout in the vacuum furnace during operation of the vacuum furnace, the method comprising: receiving, via a processor, a visual data of the vacuum furnace from a camera, the visual data including a first image showing a first row of components and a second image showing a second row of components; comparing, via the processor, the first image and the second image of the visual data to a predetermined maximum capacity layout for the vacuum furnace, the predetermined maximum capacity layout including X number of baskets (212; 214; 222; 224; 232) wide by Y number of baskets long by Z number of baskets high; and arranging, via the processor, the visual data into the loaded layout in response to comparing the visual data, wherein the loaded layout includes a two-dimensional image or a three-dimensional image, and wherein the loaded layout includes a placeholder image where a basket was missing in the actual layout in the vacuum furnace; and sending, via the processor, the loaded layout to a display device for at least one of traceability, root cause analysis, or quality investigations. receiving, via a processor, a visual data of the vacuum furnace from a camera, the visual data including a first image showing a first row of components and a second image showing a second row of components; comparing, via the processor, the first image and the second image of the visual data to a predetermined maximum capacity layout for the vacuum furnace, the predetermined maximum capacity layout including X number of baskets (212; 214; 222; 224; 232) wide by Y number of baskets long by Z number of baskets high; and arranging, via the processor, the visual data into the loaded layout in response to comparing the visual data, wherein the loaded layout includes a two-dimensional image or a three-dimensional image, and wherein the loaded layout includes a placeholder image where a basket was missing in the actual layout in the vacuum furnace; and sending, via the processor, the loaded layout to a display device for at least one of traceability, root cause analysis, or quality investigations.
Gas flow cleaning device comprising a corona electrode provided with corona tips and a non-corona electrode, wherein the corona electrode comprises at least one disclike member, the at least one disclike member comprises a disclike support part and a number of conductive bendable wires attached to the disclike support part, wherein a corona tip is a free end of a conductive bendable wire and a part of the conductive bendable wire is bent along a protrusion of the disclike support part.
A process for the preparation of a polyolefin mixture comprising the step a) of mixing together a base polymeric mixture MB and a polymeric mixture MPR, wherein said mixture MPR is obtained from the recycling of post-consumer plastic materials which do not include the materials of post-industrial origin, wherein said polyolefins of the mixture MB are either virgin polyolefins or polyolefins of a post-industrial origin, or they are both virgin polyolefins and polyolefins of a post-industrial origin, wherein said base polymeric mixture MB comprises one or more of the following polyolefins: polypropylene, polyethylene, which are virgin and of post-industrial origin, wherein said mixture MPR comprises about 20-35% by weight polypropylene, 20-35% by weight high density polyethylene (HDPE) and 30-40% by weight low density polyethylene (LDPE +LLDPE), and wherein said polymeric mixture MPR represents 30%-40% (p/p) on the total weight of the mixture. wherein said base polymeric mixture MB comprises one or more of the following polyolefins: polypropylene, polyethylene, which are virgin and of post-industrial origin, wherein said mixture MPR comprises about 20-35% by weight polypropylene, 20-35% by weight high density polyethylene (HDPE) and 30-40% by weight low density polyethylene (LDPE +LLDPE), and wherein said polymeric mixture MPR represents 30%-40% (p/p) on the total weight of the mixture.
A method of forming a barrel assembly for an airgun, the method comprising: (a) locating at least a portion of a barrel within a mold (1 50), the portion of the barrel including a muzzle; (b) introducing a polymeric material into the mold to engage a part of the barrel and form a baffle assembly having a baffle stack of at least one baffle, the at least one baffle at least partly defining a radially extending expansion gap, the expansion gap having an open end; and (c) removing the barrel and the engaged baffle assembly from the mold. (a) locating at least a portion of a barrel within a mold (1 50), the portion of the barrel including a muzzle; (b) introducing a polymeric material into the mold to engage a part of the barrel and form a baffle assembly having a baffle stack of at least one baffle, the at least one baffle at least partly defining a radially extending expansion gap, the expansion gap having an open end; and (c) removing the barrel and the engaged baffle assembly from the mold.
A LIDAR system for projecting light through a protective window associated with the LIDAR system, the system comprising: at least one processor configured to: control at least one LIDAR light source; receive LIDAR reflections signals from at least one sensor, wherein the LIDAR reflections signals include indications of at least one of: light reflected from the protective window, and light reflected from objects in the field of view and passing through the protective window prior to reaching the at least one sensor; detect, based on the LIDAR reflections signals, a particular obstruction pattern at least partially obstructing light passage through the protective window; access stored information characterizing reference obstruction patterns for at least one of: salt, mud, road grime, snow, rain, dust, bug debris, pollen, and bird droppings; compare the detected obstruction pattern with the reference obstruction patterns in order to determine a likely obstruction-pattern match; based on the likely match, output information indicative of the match; wherein the at least one processor is further configured to apply at least one pattern recognition algorithm when comparing the detected obstruction pattern with the reference obstruction patterns; and the at least one pattern recognition algorithm includes a temporal pattern analysis of the detected obstruction pattern, or a spatial pattern analysis of the detected obstruction pattern. control at least one LIDAR light source; receive LIDAR reflections signals from at least one sensor, wherein the LIDAR reflections signals include indications of at least one of: light reflected from the protective window, and light reflected from objects in the field of view and passing through the protective window prior to reaching the at least one sensor; detect, based on the LIDAR reflections signals, a particular obstruction pattern at least partially obstructing light passage through the protective window; access stored information characterizing reference obstruction patterns for at least one of: salt, mud, road grime, snow, rain, dust, bug debris, pollen, and bird droppings; compare the detected obstruction pattern with the reference obstruction patterns in order to determine a likely obstruction-pattern match; based on the likely match, output information indicative of the match; wherein the at least one processor is further configured to apply at least one pattern recognition algorithm when comparing the detected obstruction pattern with the reference obstruction patterns; and the at least one pattern recognition algorithm includes a temporal pattern analysis of the detected obstruction pattern, or a spatial pattern analysis of the detected obstruction pattern.
An antenna system comprising: an aperture structure; a primary radiating slot in the aperture structure; a tuning slot in the aperture structure; and a stripline feed located between the primary radiating slot and the tuning slot in the aperture structure, wherein the primary radiating slot is above the tuning slot; the antenna system being characterised in that the primary radiating slot has a smaller area than the tuning slot. an aperture structure; a primary radiating slot in the aperture structure; a tuning slot in the aperture structure; and a stripline feed located between the primary radiating slot and the tuning slot in the aperture structure, wherein the primary radiating slot is above the tuning slot; the antenna system being characterised in that the primary radiating slot has a smaller area than the tuning slot.
Computer-implemented method for checking anonymisation of data, the method comprising the steps: - reading in data privacy rules, - storing original data of a first node of a distributed database, - reading in anonymized data, wherein the anonymized data were generated by means of an anonymization method and depending on the original data, when retrieving the original data by a second node of the distributed database, - generating test data by applying the data privacy rules to the original data, - checking at least part of the anonymized data against at least part of the test data and outputting a check result, - generating metadata depending on the check result, and - sending the metadata to the distributed database, wherein the method steps are implemented by means of a smart contract which is executed by nodes of the distributed database. - reading in data privacy rules, - storing original data of a first node of a distributed database, - reading in anonymized data, wherein the anonymized data were generated by means of an anonymization method and depending on the original data, when retrieving the original data by a second node of the distributed database, - generating test data by applying the data privacy rules to the original data, - checking at least part of the anonymized data against at least part of the test data and outputting a check result, - generating metadata depending on the check result, and - sending the metadata to the distributed database, wherein the method steps are implemented by means of a smart contract which is executed by nodes of the distributed database.
A fault-tolerant cryogenically cooled system comprising: - an outer vacuum chamber defining a vacuum region in its interior volume; - a cryogenic refrigerator; - equipment to be cooled, housed within the vacuum region; - a free volume delimited within the vacuum region and containing a cryogen; - a cold plate exposed to the free volume and thermally linked to the equipment to be cooled; - a heat exchanger thermally linked to a coldest stage of the cryogenic refrigerator and exposed to the free volume; - a cryogen buffer vessel delimiting a buffer volume; and - a passage linking the buffer volume with the free volume, characterised by the cryogen buffer vessel and the passage being arranged such that, during failure of the cryogenic refrigerator,some of the mass of cryogen will flow through the passage into the buffer volume of the cryogen buffer vessel. - an outer vacuum chamber defining a vacuum region in its interior volume; - a cryogenic refrigerator; - equipment to be cooled, housed within the vacuum region; - a free volume delimited within the vacuum region and containing a cryogen; - a cold plate exposed to the free volume and thermally linked to the equipment to be cooled; - a heat exchanger thermally linked to a coldest stage of the cryogenic refrigerator and exposed to the free volume; - a cryogen buffer vessel delimiting a buffer volume; and - a passage linking the buffer volume with the free volume,