mhurhangee/ep-ind-claims huggingface dataset:
A method for adapting a cylinder dressing to a printing material change in printing machines, wherein the printing machine has at least two printing units (1, 2, 3), each printing unit (1, 2, 3) comprises a printing form cylinder with at least one tensioning device for tensioning a cylinder dressing and a cylinder guiding printing material, wherein the tensioning device has a tensioning organ that is displaced for adapting the cylinder dressing to the printing material change in circumferential direction of the printing form cylinder by means of a pneumatic means and is divided into several tensioning segments, which is displaced in axial direction of the printing form cylinder by means of pneumatic means, wherein the adaptation of the cylinder dressing to the printing material change occurs under contact with the surface of at least one rotational body during the rotation of the printing form cylinder, wherein a rubber cylinder, an inking roller or a moisture applying roller is used as a rotational body, wherein the cylinder dressing is provided with at least two image characteristics located in an area free of printed images extending in axial direction and/or circumferential direction of the printing form cylinder.
Domestic appliance comprising a flow container, a drop generator arranged on the flow container for generating liquid drops from a liquid in a flow container region of the flow container, a liquid drop outlet and a flow generator arranged opposite the liquid drop outlet for generating an air flow for conveying the liquid drops to the liquid drop outlet, characterised in that a distance between the flow container region and the liquid drop outlet is selected in such a way that a first time span - caused by the air flow of the flow generator - of the conveyance of liquid drops between the flow container region and the liquid drop outlet is equal to or greater than a second time span of the falling of a liquid drop of a predetermined drop size along a predetermined falling route, such that only liquid drops of a particular size or up to a particular maximum diameter reach the liquid drop outlet.
An Optical Coherence Tomography data acquisition and processing circuit for use in producing an OCT image based on a swept-source OCT interference signal, the OCT data acquisition and processing circuit comprising: a k-clock configured to selectively output a k-clock signal at any of a plurality of k-clock frequencies ranging from a minimum k-clock frequency to a maximum k-clock frequency; an anti-aliasing filter configured to filter the swept-source OCT interference signal, to produce a filtered OCT interference signal, the anti-aliasing filter having a cut-off frequency greater than one-half the minimum k-clock frequency but less than the minimum k-clock frequency; and an analog-to-digital (A/D) converter circuit coupled to an output of the anti-aliasing filter and configured to sample the filtered OCT interference signal at twice the k-clock frequency, to produce a sampled OCT interference signal. a k-clock configured to selectively output a k-clock signal at any of a plurality of k-clock frequencies ranging from a minimum k-clock frequency to a maximum k-clock frequency; an anti-aliasing filter configured to filter the swept-source OCT interference signal, to produce a filtered OCT interference signal, the anti-aliasing filter having a cut-off frequency greater than one-half the minimum k-clock frequency but less than the minimum k-clock frequency; and an analog-to-digital (A/D) converter circuit coupled to an output of the anti-aliasing filter and configured to sample the filtered OCT interference signal at twice the k-clock frequency, to produce a sampled OCT interference signal.
A lock comprising a casing; at least one hook which is located on a front section in the casing and each of which operates by rotating around a hook pin assigned to itself; hook blockage part as many as the hook itself that can be moved reversibly when pushed by the hook during said rotation; resistance block corresponding to each hook and integrated with the casing, each of which is shaped and sized such that it matches with a corresponding hook blockage part and such that when the lock is forced by an unauthorized person, it restricts motion of said hook blockage part by matching therewith; locking plate as many as the hook itself, which is embedded in each one passage opening that is located in the casing, which is suitable for restricting the motion of related hook blockage part by means of reclining to each hook blockage part with a reversible motion, or for releasing the motion of related hook blockage part by means of moving away from the hook blockage part when it reclines to a hook blockage part, and which has a form and size suitable for passing through the passage opening between the front section and a rear section; and the safety block which is embedded in a safety block bearing located between the resistance block and the passage opening having a proper form and size as to allow embedding the locking plate, which has form and size suitable for moving within said safety block bearing by means of the motion of each hook blockage part in the direction of the pin passage opening located in the casing.
A system for measuring and controlling the wavefront of a coherent light beam, comprising: a device for generating a reference light beam coherent with said coherent light beam; a partially reflective monolithic device comprising an array of elementary cells, each elementary cell comprising at least one element for measuring a portion of the incident wave interfering between the coherent light beam and the reference light beam and an element for modulating the phase of the reflected beam; and a device for controlling said phase modulation element making use of the information from the associated measurement element, wherein each elementary cell comprises at least one photodetection element topped with at least a first electrode (54', 76), a first liquid crystal layer and a second electrode, the second electrode being transparent, the first electrode (54', 76) being provided to let through a portion only of the incident interfering beam towards said at least one photodetection element, the other portion being reflected. a device for generating a reference light beam coherent with said coherent light beam; a partially reflective monolithic device comprising an array of elementary cells, each elementary cell comprising at least one element for measuring a portion of the incident wave interfering between the coherent light beam and the reference light beam and an element for modulating the phase of the reflected beam; and a device for controlling said phase modulation element making use of the information from the associated measurement element, wherein each elementary cell comprises at least one photodetection element topped with at least a first electrode (54', 76), a first liquid crystal layer and a second electrode, the second electrode being transparent, the first electrode (54', 76) being provided to let through a portion only of the incident interfering beam towards said at least one photodetection element, the other portion being reflected.
Manufacturing installation for workpieces, in particular vehicle body parts, wherein the manufacturing installation comprises a plurality of manufacturing stations and a transport system for transporting the workpieces within the manufacturing installation and between the manufacturing stations, characterized in that the transport system comprises a transport path network made up of a plurality of interconnected and intersecting transport paths and comprises a transport arrangement having a plurality of automatic transport means (13, 14, 15) which can move along the transport paths, wherein the transport paths are tied into a plurality of manufacturing stations arranged in a station matrix, and the transport paths are designed as floor traffic routes.
Binding material system with a metal borate as hardener component and an alkali silicate as binder component, characterized in that at least 90 wt.-% of it consists of a binding material base with the following composition: 18 to 40 wt.-% hardener component A, consisting of at least one borate of the general formula w M II O · x M III 2 O 3 · y B 2 O 3 · z H 2 O, wherein M II = Mg, Ca, Sr, Zn or Cu and 0.5 ≤ w ≤ 4, M III = Al, Fe or Cr and 0 ≤ x ≤ 0.5, 1.5 ≤ y ≤ 3.5, 0.33 ≤ ∑w/y ≤ 1.34, 0≤ ∑x/y ≤ 0.25 and 0 ≤ z ≤ 7.0 55 to 80 wt.-% binder component B, consisting of at least one alkali silicate of the general formula: R 2 O · x SiO 2, wherein R = Na or K and 2.0 ≤ x ≤ 3.35 and 1 to 10 wt.-% accelerator component C, consisting of a metal salt of ortho-, di- or triphosphosphoric acid, selected from completely deprotonated ortho- and diphosphates of non-alkali metals of the 3 rd, 4 th and 5 th period and aluminium dihydrogen triphosphate or a mixture thereof.
A device for optically detecting at least a part of a document, having an at least partially transparent support for placing the document on, having a light-emitting illumination device and having a light guide device which is arranged at least indirectly on a housing wall of a housing and comprises one or more light guides, it being possible for the light emitted by the illumination device to be coupled into the one or more light guides, whereas the one or more light guides use arranged at the hollow cylindrical formed housing wall such that the light guide device has an uniform arrangement radial in relation to a longitudinal axis, and in relation to a circumference of a cylindrical inner volume, characterized in that the one or more light guides of the light guide device have an outcoupling surface for radially outcoupling of the light into the inner volume, which is arranged radially in relation to the inner volume.
A screen printer comprising: a board positioning device (5, 6) configured to convey and hold a board to a work position in the screen printer; a mask holding device configured to hold a mask above the work position; a squeegee device configured to spread a cream solder through the mask on the board; a correction device configured to correct a relative position between the board held by the board positioning device (5, 6) and the mask held by the mask holding device; a control device configured to acquire inspection data of a print pattern of the board from a print inspection device provided inside or outside the screen printer and perform correction control on the correction device by a correction value corrected according to a deviation amount of printing based on the inspection data; and an input device configured to include an instruction input section that senses an inspection instruction operation of an operator and transmit, to the control device, an inspection data acquisition signal for acquiring the inspection data of the print pattern from the print inspection device based on an instruction operation of the operator to the instruction input section. a board positioning device (5, 6) configured to convey and hold a board to a work position in the screen printer; a mask holding device configured to hold a mask above the work position; a squeegee device configured to spread a cream solder through the mask on the board; a correction device configured to correct a relative position between the board held by the board positioning device (5, 6) and the mask held by the mask holding device; a control device configured to acquire inspection data of a print pattern of the board from a print inspection device provided inside or outside the screen printer and perform correction control on the correction device by a correction value corrected according to a deviation amount of printing based on the inspection data; and an input device configured to include an instruction input section that senses an inspection instruction operation of an operator and transmit, to the control device, an inspection data acquisition signal for acquiring the inspection data of the print pattern from the print inspection device based on an instruction operation of the operator to the instruction input section.
A component for a gas turbine engine, comprising: a body portion enclosing an interior compartment of the component, the body portion including an interior surface defining the interior compartment, an exterior surface opposite the interior surface, and one or more cooling holes within the body portion, wherein each of the one or more cooling holes extend from the interior surface to the exterior surface; a porous mesh liner at least partially enclosing the exterior surface of the body portion, the porous mesh liner being fluidly connected to the one or more cooling holes, wherein the cooling holes in operation direct cooling airflow from the interior compartment of the component into the porous mesh liner; and an attachment point located in the exterior surface of the body portion, wherein the porous mesh liner is attached to the exterior surface of the body portion via the attachment point, wherein the attachment point extends into the exterior surface of the body portion, characterized in that the attachment point includes a protruding undercut portion, wherein the attachment point includes a neck section at the exterior surface or proximate to an uppermost portion of the exterior surface, and wherein the attachment point includes a tapered section, the tapered section extends inwardly from the neck section and has an increasing width with increasing depth from the neck section to form the protruding undercut portion. a body portion enclosing an interior compartment of the component, the body portion including an interior surface defining the interior compartment, an exterior surface opposite the interior surface, and one or more cooling holes within the body portion, wherein each of the one or more cooling holes extend from the interior surface to the exterior surface; a porous mesh liner at least partially enclosing the exterior surface of the body portion, the porous mesh liner being fluidly connected to the one or more cooling holes, wherein the cooling holes in operation direct cooling airflow from the interior compartment of the component into the porous mesh liner; and an attachment point located in the exterior surface of the body portion, wherein the porous mesh liner is attached to the exterior surface of the body portion via the attachment point, wherein the attachment point extends into the exterior surface of the body portion, characterized in that the attachment point includes a protruding undercut portion, wherein the attachment point includes a neck section at the exterior surface or proximate to an uppermost portion of the exterior surface, and wherein the attachment point includes a tapered section, the tapered section extends inwardly from the neck section and has an increasing width with increasing depth from the neck section to form the protruding undercut portion.
A solar cell, comprising a front electrode and a back electrode that are disposed opposite to each other and a functional layer disposed between the front electrode and the back electrode, wherein the front electrode is an electrode on a side of an illuminated surface; and the front electrode comprises a high-conductivity region and a low-conductivity region that are adjacent to each other, or the back electrode comprises a high-conductivity region and a low-conductivity region that are adjacent to each other, wherein the low-conductivity region of the front electrode comprises a transparent colloidal layer and a first conductive mesh layer embedded in the transparent colloidal layer, or comprises a transparent conductive oxide layer and a first conductive mesh layer embedded in the transparent conductive oxide layer, wherein the first conductive mesh layer is electrically connected to the functional layer.
A transdermal drug delivery device comprising: (a) a backing film; (b) a first adhesive layer comprising a solid dispersion, said dispersion comprising: an first adhesive, a first therapeutic agent in amorphous form, and a first combination polymeric stabilizing and dispersing agent comprising a hydrogen bond-forming functional group; and (c) a protective release liner, wherein the polymeric stabilizing and dispersing agent is polyvinylpyrrolidone, the weight ratio of polymeric stabilizing and dispersing agent to the therapeutic agent is between 2 and 10 if the therapeutic agent has a glass transition temperature of less than 40 °C, the weight ratio of polymeric stabilizing and dispersing agent to the therapeutic agent is between 0.5 and 2 if the therapeutic agent has a glass transition temperature of at least 70 °C, and the therapeutic agent is selected from the group consisting of (i) scopolamine, oxybutynin, naltrexone, testosterone, estradiol, rotigotine, fentanyl, ethinyl estradiol, or norelgestral, (ii) any pharmaceutically acceptable salts of any of (i), or any combination of any of (i), (ii), or (i) and (ii). (a) a backing film; (b) a first adhesive layer comprising a solid dispersion, said dispersion comprising: an first adhesive, a first therapeutic agent in amorphous form, and a first combination polymeric stabilizing and dispersing agent comprising a hydrogen bond-forming functional group; and an first adhesive, a first therapeutic agent in amorphous form, and a first combination polymeric stabilizing and dispersing agent comprising a hydrogen bond-forming functional group; and (c) a protective release liner,
Apparatus for filtering liquids, having a container, devices for introducing a liquid to be filtered into the container, a container outlet for liquid to be discharged unfiltered from the container, and at least one rotor, which can be driven to rotate around the container axis, having a hollow shaft mounted in an end wall and a support apparatus fastened thereon for filter elements, which are arranged with a clearance to the container axis or rotate around their own axis, and whose interior opens via the support apparatus and the hollow shaft out of the container as the discharge for filtered liquid, wherein the container internal radius of the inner wall of the container circumferential shell is enlarged up to a maximum in the container circumferential direction while bulging the cylindrical inner wall between two minima, characterised in that the container circumferential cross-section of the inner wall of the container circumferential shell is divided into at least two ring segments forming a bulge in each case and the container internal radius is enlarged up to the maximum in the container circumferential direction of each ring segment between the two minima, wherein the bulges of the inner wall of the container circumferential shell form guide devices guiding the liquid towards the filter elements and have a cross-section similar to a wing profile, wherein each ring segment has at least three sections, a calming section having an at least approximately equal container internal radius, a momentum section having a small radius of curvature and an end section pointing towards the container interior, and a transition section lying between the calming section and the momentum section, and wherein a rotor or stator, which has at least one guide device for the fluid, is arranged in the region of the container axis for improving the flow around the filter elements.
Cooking cavity for a cooking oven comprising a bottom panel, two side panels, one top panel and a back panel, said panels (2, 3, 4, 5) of said cooking cavity comprising fasteners, characterised by the fact that the fasteners on each of the side panels are suitable for working together initially by inserting the fasteners (8, 9) on the bottom panel and/or the top panel so as to support the edge of one of the side panels with respect to one edge (11, 12) of the bottom panel and/or the top panel and later by sliding against the fasteners (8, 9) on the bottom panel and/or the top panel so as to align a front face of the one of the side panels with the front face (14, 15) of the bottom panel and/or the top panel.
A method for facilitating idle-mode mobility management of a mobile device, comprising: at the mobile device: obtaining multiple addresses from a plurality of mobile networks that independently manage idle mobility; each of the multiple addresses corresponding to an IP address of the mobile device in each of the plurality of mobile networks; providing the multiple addresses to a network routing device that binds the multiple addresses to a home address; the method further comprising: at the mobile device receiving a paging event via at least two of the plurality of mobile networks; and selecting one of the at least two of the plurality of mobile networks as an active mobile network based on a signal characteristic of the paging event. at the mobile device: obtaining multiple addresses from a plurality of mobile networks that independently manage idle mobility; each of the multiple addresses corresponding to an IP address of the mobile device in each of the plurality of mobile networks; providing the multiple addresses to a network routing device that binds the multiple addresses to a home address; obtaining multiple addresses from a plurality of mobile networks that independently manage idle mobility; each of the multiple addresses corresponding to an IP address of the mobile device in each of the plurality of mobile networks; providing the multiple addresses to a network routing device that binds the multiple addresses to a home address; the method further comprising: at the mobile device receiving a paging event via at least two of the plurality of mobile networks; and selecting one of the at least two of the plurality of mobile networks as an active mobile network based on a signal characteristic of the paging event. at the mobile device receiving a paging event via at least two of the plurality of mobile networks; and selecting one of the at least two of the plurality of mobile networks as an active mobile network based on a signal characteristic of the paging event.
Lower body structure of a vehicle, comprising a lateral reinforcing side member extending longitudinally at least below the floor part of the passenger compartment of the vehicle and transversely between the outer longitudinal edge of said structure and the longitudinal central zone of said structure, characterized in that said side member has a portion shaped by widening its cross section to form a recess, the upper part of which opens into the interior of the vehicle so as to receive an energy storage element.
A fuel cell system comprising: a fuel cartridge adapted to store fuel; a fuel cell stack configured to generate power by means of an electrochemical reaction of fuel and oxygen; a fuel pump configured to suck fuel stored in the fuel cartridge; a pressure sensor positioned in a fuel channel between a coupling unit of the fuel cartridge and the fuel pump; and a fuel level computing unit configured to compute a time point when the amount of fuel in the fuel cartridge has gone below a threshold level if a change in pressure detected by the pressure sensor exceeds a first predetermined value during a predetermined time. a fuel cartridge adapted to store fuel; a fuel cell stack configured to generate power by means of an electrochemical reaction of fuel and oxygen; a fuel pump configured to suck fuel stored in the fuel cartridge; a pressure sensor positioned in a fuel channel between a coupling unit of the fuel cartridge and the fuel pump; and a fuel level computing unit configured to compute a time point when the amount of fuel in the fuel cartridge has gone below a threshold level if a change in pressure detected by the pressure sensor exceeds a first predetermined value during a predetermined time.