mhurhangee/ep-ind-claims huggingface dataset:
Device for introducing filling material into capsules, said device including: - a filling device for supplying filling material to the capsules, - a capsule holder with at least one row of accommodating means in which the capsules to be filled are arranged, - a station arrangement having several stations which are arranged one after the other, wherein the station arrangement includes at least one capsule filling station and one drive which operates in a fixed cycle and - a movement apparatus (50; 60; 70) which carries out a relative movement between the filling device and the capsule holder at a capsule filling station, - wherein the filling device, in relation to the capsule holder, assumes at least one first filling position for filling a first capsule and one second filling position for filling a second capsule, characterized in that the capsule filling station has a dosing wheel and a hopper funnel for accommodating the filling material. - a filling device for supplying filling material to the capsules, - a capsule holder with at least one row of accommodating means in which the capsules to be filled are arranged, - a station arrangement having several stations which are arranged one after the other, wherein the station arrangement includes at least one capsule filling station and one drive which operates in a fixed cycle and - a movement apparatus (50; 60; 70) which carries out a relative movement between the filling device and the capsule holder at a capsule filling station, - wherein the filling device, in relation to the capsule holder, assumes at least one first filling position for filling a first capsule and one second filling position for filling a second capsule, characterized in that the capsule filling station has a dosing wheel and a hopper funnel for accommodating the filling material.
A system for providing automated therapy for a motor deficit of a stroke patient, comprising; a stimulation system comprising a pulse generator, one or more electrodes and a lead coupling the pulse generator to the electrode or electrodes, wherein the stimulation system is configured to stimulate a patient's vagus nerve; a clinical controller comprising a processor, stimulation control software, manual interfaces and a display; an external communication device configured to communicate between the clinical controller and the stimulation system; a task object, configured to be used in performance of a therapeutic task; a colored marker, configured to attach to the task object and having a predetermined color; and a motion detector, configured to be coupled to the clinical controller; wherein using data generated by the motion detector, the clinical controller is configured to identify a starting location of the colored marker, detect motion of the colored marker associated with performance of the therapeutic task and generate communication with the stimulation system so that the patient's vagus nerve is stimulated during the performance of the therapeutic task. a stimulation system comprising a pulse generator, one or more electrodes and a lead coupling the pulse generator to the electrode or electrodes, wherein the stimulation system is configured to stimulate a patient's vagus nerve; a clinical controller comprising a processor, stimulation control software, manual interfaces and a display; an external communication device configured to communicate between the clinical controller and the stimulation system; a task object, configured to be used in performance of a therapeutic task; a colored marker, configured to attach to the task object and having a predetermined color; and a motion detector, configured to be coupled to the clinical controller; wherein using data generated by the motion detector, the clinical controller is configured to identify a starting location of the colored marker, detect motion of the colored marker associated with performance of the therapeutic task and generate communication with the stimulation system so that the patient's vagus nerve is stimulated during the performance of the therapeutic task.
A recognizable carrier for determining physical, chemical or biochemical interactions by means of optical measuring methods, comprising: a plate surface, a plurality of wells arranged in rows and columns and formed in said plate surface, wherein each well has a bottom surface defining a substrate surface, a base layer arranged on said substrate surface and coated with reactive elements forming spots, which in turn are capable of forming a bond with capture molecules, and represent an implicit encoding for controlling originality and quality of the carrier, said implicit encoding being formed by a blank pattern and a plurality of spots, formed on said base layer, wherein the blank pattern is formed by a plurality of blanks or holes representing said implicit encoding, and the plurality of spots is arranged in a predetermined arrangement and each has a different height, representing said implicit encoding. a plate surface, a plurality of wells arranged in rows and columns and formed in said plate surface, wherein each well has a bottom surface defining a substrate surface, a base layer arranged on said substrate surface and coated with reactive elements forming spots, which in turn are capable of forming a bond with capture molecules, and represent an implicit encoding for controlling originality and quality of the carrier, said implicit encoding being formed by a blank pattern and a plurality of spots, formed on said base layer, wherein the blank pattern is formed by a plurality of blanks or holes representing said implicit encoding, and the plurality of spots is arranged in a predetermined arrangement and each has a different height, representing said implicit encoding.
A frequency synthesizer, comprising: a digitally controlled oscillator, hereinafter DCO, arranged to generate an oscillating clock; a sigma-delta modulation, hereinafter SDM, circuit, arranged to generate an SDM input to the DCO; and characterized by: a controller, arranged to adjust an operating frequency of the SDM circuit in response to a transmit power level of a transmitter using the oscillating clock, wherein the controller is arranged to set the operating frequency of the SDM circuit to a first operating frequency when the transmit power level is within a first power level range, and to set the operating frequency of the SDM circuit to a second operating frequency when the transmit power level is within a second power level range, wherein when a center power level of the first power level range is higher than a center power level of the second power level range, the first operating frequency is higher than the second operating frequency, and wherein the first power level range is not overlapped with the second power level range. a digitally controlled oscillator, hereinafter DCO, arranged to generate an oscillating clock; a sigma-delta modulation, hereinafter SDM, circuit, arranged to generate an SDM input to the DCO; and characterized by: a controller, arranged to adjust an operating frequency of the SDM circuit in response to a transmit power level of a transmitter using the oscillating clock, wherein the controller is arranged to set the operating frequency of the SDM circuit to a first operating frequency when the transmit power level is within a first power level range, and to set the operating frequency of the SDM circuit to a second operating frequency when the transmit power level is within a second power level range, wherein when a center power level of the first power level range is higher than a center power level of the second power level range, the first operating frequency is higher than the second operating frequency, and wherein the first power level range is not overlapped with the second power level range. a controller, arranged to adjust an operating frequency of the SDM circuit in response to a transmit power level of a transmitter using the oscillating clock, wherein the controller is arranged to set the operating frequency of the SDM circuit to a first operating frequency when the transmit power level is within a first power level range, and to set the operating frequency of the SDM circuit to a second operating frequency when the transmit power level is within a second power level range, wherein when a center power level of the first power level range is higher than a center power level of the second power level range, the first operating frequency is higher than the second operating frequency, and wherein the first power level range is not overlapped with the second power level range.
A hinge for a compartment door of furniture items at least partially covering said compartment, ofthe type comprising first and second supports (2, 3) that are suitable to be fixed to the compartment structure and to said door, respectively, orvice versa, and that are at least rotatably constrained to each other, and atleastone fluidic damper, ofthe cylinder-piston type, the piston (18, 19) of said at least one fluidic damper being suitable to be constrained, either directly or indirectly, to said first support, or to said compartment structure, and the cylinder of said at least one fluidic damper being suitable to be constrained, either directly or indirectly, to said second support, or to said door, orvice versa, wherein said at least one damper isofthe type with internal flow leakage ofthe fluid contained therein; characterized in that said piston (18, 19) is sealingly sliding within said cylinder and comprises a throughhole for internal flow leakage of said fluid.
The method of fabrication of glass-coated microwires with enhanced GMI effect at frequencies above 10 MHz wherein the microwires are manufactured by means of a modified Taylor-Ulitovsky process based on direct casting from the melt: a few grams of the master alloy with the desired composition is put into a Pyrex-like glass tube and placed within a high frequency inductor heater. The alloy is heated up to its melting point, forming a droplet. While the metal melts, the portion of the glass tube adjacent to the melting metal softens, enveloping the metal droplet. A glass capillary is then drawn from the softened glass portion and wound on a rotating coil. The enhanced GMI effect is achieved in thin (metallic nucleus diameter below 20 μm) microwires with determined chemical composition containing Co, Fe, Si, B, with additions of Ni, Mo, Cr, Zr, Hf, C with determined relation between metallic nucleus diameter and glass coating thickness. The composition of the glass-coated microwires exhibiting the GMI effect is based on transition metal (between 65-85 at%) with metalloid additions between 15-35%. The total microwire diameter is related with the metallic nucleus diameter (d) within the following limits: 0.2 < d/ D tot < 0.95. a few grams of the master alloy with the desired composition is put into a Pyrex-like glass tube and placed within a high frequency inductor heater. The alloy is heated up to its melting point, forming a droplet. While the metal melts, the portion of the glass tube adjacent to the melting metal softens, enveloping the metal droplet. A glass capillary is then drawn from the softened glass portion and wound on a rotating coil. The enhanced GMI effect is achieved in thin (metallic nucleus diameter below 20 μm) microwires with determined chemical composition containing Co, Fe, Si, B, with additions of Ni, Mo, Cr, Zr, Hf, C with determined relation between metallic nucleus diameter and glass coating thickness. The composition of the glass-coated microwires exhibiting the GMI effect is based on transition metal (between 65-85 at%) with metalloid additions between 15-35%. The total microwire diameter is related with the metallic nucleus diameter (d) within the following limits: 0.2 < d/ D tot < 0.95.
A method of making conductive metal foil laminates, comprising the steps of: providing a substrate web having first and second sides; applying an adhesive pattern to the first side of the substrate; providing a metal foil having first and second sides such that the second side of the foil is in contact with the adhesive; cutting a first pattern by one of rotary die cutting or cold foil processing in the metal foil coincident with the adhesive pattern to create a first conductive foil pattern and a matrix; and removing the matrix from the first conductive foil pattern, wherein a second pattern is cut by laser cutting in the metal foil to create a second conductive foil pattern coincident with the first pattern. providing a substrate web having first and second sides; applying an adhesive pattern to the first side of the substrate; providing a metal foil having first and second sides such that the second side of the foil is in contact with the adhesive; cutting a first pattern by one of rotary die cutting or cold foil processing in the metal foil coincident with the adhesive pattern to create a first conductive foil pattern and a matrix; and removing the matrix from the first conductive foil pattern, wherein a second pattern is cut by laser cutting in the metal foil to create a second conductive foil pattern coincident with the first pattern.
Deflector intended to guide a line, comprising: - a support; - an intermediate member, pivotally mounted in the support around a first rotation axis (B-B'); - at least a secondary pivoting member, pivotally connected to the intermediate member around a second rotation axis (C-C') parallel to the first rotation axis (B-B'); - for each secondary pivoting member, at least a pair of rotating members, each rotating member being connected to the secondary pivoting member; the deflector comprising, for each rotating member: - a guiding mechanism, for guiding each rotating member in translation with regard to the support along a translation axis (D-D') non parallel to the first rotation axis (B-B'); - a connecting member, pivotally mounted with regard to the secondary pivoting member, the rotating member being rotatably mounted on the connecting member around a rotating member rotation axis (E-E'), caracterised in that the guiding mechanism comprises, for each rotating member, at least a protrusion connected to one of the rotating member and of the support, the other one of the rotating member and of the support defining a guiding slide receiving the protrusion, the guiding slide extending along the translation axis (D-D'). - a support; - an intermediate member, pivotally mounted in the support around a first rotation axis (B-B'); - at least a secondary pivoting member, pivotally connected to the intermediate member around a second rotation axis (C-C') parallel to the first rotation axis (B-B'); - for each secondary pivoting member, at least a pair of rotating members, each rotating member being connected to the secondary pivoting member; - a guiding mechanism, for guiding each rotating member in translation with regard to the support along a translation axis (D-D') non parallel to the first rotation axis (B-B'); - a connecting member, pivotally mounted with regard to the secondary pivoting member, the rotating member being rotatably mounted on the connecting member around a rotating member rotation axis (E-E'), caracterised in that the guiding mechanism comprises, for each rotating member, at least a protrusion connected to one of the rotating member and of the support, the other one of the rotating member and of the support defining a guiding slide receiving the protrusion, the guiding slide extending along the translation axis (D-D').
Sole chassis (32, 33) with heel for shoes or ladies' pumps (9, 30) consisting of a flexible front board arranged in the front foot region and a rear board, wherein the front board consists of a corrugated structured sole made of spring steel or a further flexurally elastic, hard material which is formed to be flexible at the angle with the longitudinal axis and rigid in the transverse region and is connected to the heel via a steel joint, characterised in that the structured sole arranged in the front foot region is connected via a first rivet to the front part of the steel joint which in its rear part is connected via a second rivet and a bending edge arranged in the rear region of the structured sole to the front end of the rigid rear board and the steel joint reinforcing the rear board in the direction of its longitudinal axis, and in that the rear board and the steel joint are connected to the heel.
An acidic laundry detergent composition comprising: a) less than 20% by weight of the detergent of a surfactant system comprising surfactants selected from the group consisting of anionic surfactants, nonionic surfactants, cationic surfactants and mixtures thereof, wherein the surfactant system has a Hydrophilic Index of greater than or equal to 9.00; b) an organic acidulant at such that the ratio of surfactant system to organic acidulant is less or equal to 3.0; and c) an alkaline neutralizer added in an amount necessary to raise the neat pH of the detergent composition above or equal to 2.5 but no higher than or equal to 3.0 d) wherein the composition further comprises a brightener. a) less than 20% by weight of the detergent of a surfactant system comprising surfactants selected from the group consisting of anionic surfactants, nonionic surfactants, cationic surfactants and mixtures thereof, wherein the surfactant system has a Hydrophilic Index of greater than or equal to 9.00; b) an organic acidulant at such that the ratio of surfactant system to organic acidulant is less or equal to 3.0; and c) an alkaline neutralizer added in an amount necessary to raise the neat pH of the detergent composition above or equal to 2.5 but no higher than or equal to 3.0 d) wherein the composition further comprises a brightener.
A method of manufacturing one or more workpieces having a desired gear geometry by means of a suitably dressed tool, wherein, after the carrying out of one or more machining steps, the tool is respectively dressed by a dresser before further machining steps are carried out at the same workpiece or at further workpieces, characterized in that, on a later dressing procedure, the relative position between the dresser and the tool is changed with respect to a prior dressing procedure in addition to the smaller center distance resulting by the smaller tool diameter by a corresponding additional adjustment of the axes of movement of the dressing machine.
An image reconstruction unit for reconstructing a fine reproduction of at least a part (501,502) of an object, wherein the reconstruction unit is adapted for: receiving a sequence of measured data sets measured by an examination apparatus, the data sets representing structural information of the object; receiving scheduling information from a time scheduling unit, said scheduling information related to a sequencing of the sequence of data sets; reconstructing a sequence of coarse reconstructions of the object by using the sequence of data sets and the scheduling information; detecting sub-structures in the sequence of coarse reconstructions by processing the sequence of coarse reconstructions; generating a sequence of adapted shape models of the object by adapting a deformable shape model to the detected sub-structures of each of the coarse reconstructions; determining a motion of a predetermined portion, which is neighboured to a part (501,502) of the object to be reconstructed, of each of the adapted shape models; selecting a specific data set of the sequence of data sets, wherein the specific data set corresponds to the adapted shape model with the minimum motion of the predetermined portion; and reconstructing the fine reproduction of at least the part (501,502) of the object using the specific data set, and wherein the part of the object is a coronary of a heart and wherein the predetermined portion corresponds to the left or right ventricle of the human heart and wherein the time scheduling unit is an ECG device. receiving a sequence of measured data sets measured by an examination apparatus, the data sets representing structural information of the object; receiving scheduling information from a time scheduling unit, said scheduling information related to a sequencing of the sequence of data sets; reconstructing a sequence of coarse reconstructions of the object by using the sequence of data sets and the scheduling information; detecting sub-structures in the sequence of coarse reconstructions by processing the sequence of coarse reconstructions; generating a sequence of adapted shape models of the object by adapting a deformable shape model to the detected sub-structures of each of the coarse reconstructions; determining a motion of a predetermined portion, which is neighboured to a part (501,502) of the object to be reconstructed, of each of the adapted shape models; selecting a specific data set of the sequence of data sets, wherein the specific data set corresponds to the adapted shape model with the minimum motion of the predetermined portion; and reconstructing the fine reproduction of at least the part (501,502) of the object using the specific data set, and wherein the part of the object is a coronary of a heart and wherein the predetermined portion corresponds to the left or right ventricle of the human heart and wherein the time scheduling unit is an ECG device.
Fuel injector, having an injector housing, in which an injection element is guided so as to be movable in reciprocating fashion, having a valve piece in which there is formed a recess which, together with the injection element, delimits a control chamber which can be relieved of pressure via an outflow bore into a low-pressure region of the injector housing, wherein the outflow bore can be opened up and closed by a valve element, which is formed at least indirectly as a magnet armature (40; 40a), by means of a sealing edge in the region of a sealing surface formed on the valve piece, and wherein the magnet armature (40; 40a), which interacts with a magnet coil, is displaceable along a longitudinal axis and guided radially by a projection of the valve piece on a radially encircling guide region of the valve piece, wherein the spacing (a) of the sealing edge on the magnet armature (40; 40a) to the longitudinal axis is smaller than the spacing of a guide section (56; 56a), which interacts with the guide region on the valve piece, of the magnet armature (40; 40a) to the longitudinal axis, characterized in that the magnet armature (40; 40a) has a disc-shaped section which radially encircles the longitudinal axis and on the outer circumference of which is arranged the guide section (56; 56a), which projects in the direction of the valve piece and the inner wall of which interacts with the guide region on the valve piece.
A method for forming texture in a surface of a glass substrate, comprising: - contacting a glass surface of a glass substrate having a glass transition temperature and a template electrode; - heating the electrode-contacted glass surface to a temperature at least 200°C less than the glass transition temperature; and - applying a DC bias to the electrode effective to transport ions within the glass surface and form a textured glass surface; - wherein a bulk composition of the glass substrate comprises less than 1 mol% alkali metal oxide. - contacting a glass surface of a glass substrate having a glass transition temperature and a template electrode; - heating the electrode-contacted glass surface to a temperature at least 200°C less than the glass transition temperature; and - applying a DC bias to the electrode effective to transport ions within the glass surface and form a textured glass surface; - wherein a bulk composition of the glass substrate comprises less than 1 mol% alkali metal oxide.