mhurhangee/ep-ind-claims huggingface dataset:
A transmitter system for wireless power configured to generate a magnetic field for charging a receiver system, wherein the transmitter system comprises: at least one capacitor; an array of closely packed primary coils, each of said primary coils coupled to said at least one capacitor and configured to be magnetically resonant at a first frequency, each of said primary coils configured to generate a magnetic field for charging a device that includes a receiving antenna having a secondary coil; means for controlling charging configured to produce a signal that is magnetically resonant at said first frequency, said signal of a type that, when output to said array of primary coils, said array of primary coils transmits power to the receiving antenna using one of the primary coils of said array, said charging controlling means further configured to select one of said primary coils of said array based on testing coupling of magnetic resonance of said primary coils of the array and the secondary coil of the receiving antenna; and a switch box connected to said charging controlling means and to each of the primary coils, said switch box configured to activate the selected primary coil and deactivate the non-selected primary coils, wherein activating the selected primary coil comprises switching the signal to the selected primary coil and deactivating the non-selected primary coils comprises switching the signal away from the non-selected primary coils. at least one capacitor; an array of closely packed primary coils, each of said primary coils coupled to said at least one capacitor and configured to be magnetically resonant at a first frequency, each of said primary coils configured to generate a magnetic field for charging a device that includes a receiving antenna having a secondary coil; means for controlling charging configured to produce a signal that is magnetically resonant at said first frequency, said signal of a type that, when output to said array of primary coils, said array of primary coils transmits power to the receiving antenna using one of the primary coils of said array, said charging controlling means further configured to select one of said primary coils of said array based on testing coupling of magnetic resonance of said primary coils of the array and the secondary coil of the receiving antenna; and a switch box connected to said charging controlling means and to each of the primary coils, said switch box configured to activate the selected primary coil and deactivate the non-selected primary coils, wherein activating the selected primary coil comprises switching the signal to the selected primary coil and deactivating the non-selected primary coils comprises switching the signal away from the non-selected primary coils.
A disposable medical flow-regulating device, comprising: a pair of cylindrical flow-directors, each of the cylindrical flow-directors having a housing part and a flow-directing unit (104a, 104b) with tube attachment fittings (110a-110f, 114-114f); a pumping tube segment extending from a transfer fitting on one of the flow-directing units to the transfer fitting on the other of the flow-directing units to establish a fluid flow path between the two flow-directing units (104a, 104b); each of the flow-directing units (104a, 104b) having a shaped, rotary insert that rotates within a chamber to select one of the tube attachment fittings (110a-110f, 114-114f) at a given angular position to connect with respective one of the transfer fittings (111, 115) whereby a selectable channel from a first flow-directing unit tube attachment fitting (110a-110f, 114-114f) to a second flow-directing unit tube attachment fitting (110a-110f, 114-114f) is defined; and tubing elements (108a-108f, 112a-112f) from a fluid circuit are connected to the tube attachment fittings (110a-110f, 114-114f) of each of the flow-directing units such that selectable flow paths in the fluid circuit may be defined by rotating a respective rotary insert, wherein the pair of cylindrical flow-directors and the pumping tube segment are partially enclosed in a support frame (106a, 106b) to form a cartridge enclosure. a pair of cylindrical flow-directors, each of the cylindrical flow-directors having a housing part and a flow-directing unit (104a, 104b) with tube attachment fittings (110a-110f, 114-114f); a pumping tube segment extending from a transfer fitting on one of the flow-directing units to the transfer fitting on the other of the flow-directing units to establish a fluid flow path between the two flow-directing units (104a, 104b); each of the flow-directing units (104a, 104b) having a shaped, rotary insert that rotates within a chamber to select one of the tube attachment fittings (110a-110f, 114-114f) at a given angular position to connect with respective one of the transfer fittings (111, 115) whereby a selectable channel from a first flow-directing unit tube attachment fitting (110a-110f, 114-114f) to a second flow-directing unit tube attachment fitting (110a-110f, 114-114f) is defined; and tubing elements (108a-108f, 112a-112f) from a fluid circuit are connected to the tube attachment fittings (110a-110f, 114-114f) of each of the flow-directing units such that selectable flow paths in the fluid circuit may be defined by rotating a respective rotary insert, wherein the pair of cylindrical flow-directors and the pumping tube segment are partially enclosed in a support frame (106a, 106b) to form a cartridge enclosure.
Apparatus for excavating a tunnel with a rotatable cutting wheel, with which existing geology can be excavated in an excavation direction at the front on a tunnel face with excavation tools arranged on a cutting wheel front face, with an excavation chamber located on the back of the cutting wheel front face in excavation direction, into which excavation chamber material excavated at the tunnel face can be conveyed, with a clearing unit (127, 136), with which material present in the excavation chamber can be cleared, and with sensor means arranged on the cutting wheel front face, characterised in that at least two measuring modules (151, 154, 157, 160, 163, 503) of the sensor means are configured to record measured values characteristic of the consistency of material excavated at the tunnel face and in that measuring modules (151, 154, 157, 160, 163, 503) arranged on the cutting wheel front face are configured to record different types of measured values.
Motor vehicle door handle, having a handle body with a first longitudinal end, a second longitudinal end, at least one recess and an accommodation space which is conformed on the handle body between the first longitudinal end and the second longitudinal end, a light module which is arranged inside the accommodation space, and at least one cable, which is designed to serve at least for the transmission of energy and which is connected to the light module, wherein a bearing arm with a free end which is designed for the pivotable mounting of the handle body protrudes from the first longitudinal end, wherein a channel is formed in the bearing arm as a slot-shaped cavity with a base wall and extends from the accommodation space as far as the free end of the bearing arm, and in which the at least one cable is routed, characterized in that the light module includes at least one light outlet region arranged in the at least one recess, that a cable routing element is fixed on the light module and at least a portion thereof extends into the bearing arm, and wherein the cable routing element routes a portion of the at least one cable and aligns it in such manner that the at least one cable is arranged such that it is protected inside the channel over its extension in the cavity.
A surgical stapling apparatus, comprising: a cartridge assembly defining a tissue contacting surface and a longitudinally extending elongate slot; an anvil assembly defining a tissue contacting surface and a longitudinally extending elongate slot; a surgical buttress releasably secured to at least one of the tissue contacting surface of the cartridge assembly and the tissue contacting surface of the anvil assembly by at least one anchor; a central knife blade slidably disposable in the longitudinally extending elongate slot (82c, 70b) of the cartridge assembly and the anvil assembly; and a distal knife blade supported in a distal end portion of at least one of the cartridge assembly and/or a distal knife blade supported in a distal end portion of the anvil assembly, wherein the distal knife blade of the cartridge assembly and/or the distal knife blade of the anvil assembly is/are actuatable by the central knife blade, upon an actuation of the central knife blade and firing of the surgical stapling apparatus, to sever a respective distal anchor; characterised in that the distal knife blade of the cartridge assembly and/or the distal knife blade of the anvil assembly define/s a concave distal knife edge. a cartridge assembly defining a tissue contacting surface and a longitudinally extending elongate slot; an anvil assembly defining a tissue contacting surface and a longitudinally extending elongate slot; a surgical buttress releasably secured to at least one of the tissue contacting surface of the cartridge assembly and the tissue contacting surface of the anvil assembly by at least one anchor; a central knife blade slidably disposable in the longitudinally extending elongate slot (82c, 70b) of the cartridge assembly and the anvil assembly; and a distal knife blade supported in a distal end portion of at least one of the cartridge assembly and/or a distal knife blade supported in a distal end portion of the anvil assembly, wherein the distal knife blade of the cartridge assembly and/or the distal knife blade of the anvil assembly is/are actuatable by the central knife blade, upon an actuation of the central knife blade and firing of the surgical stapling apparatus, to sever a respective distal anchor; characterised in that the distal knife blade of the cartridge assembly and/or the distal knife blade of the anvil assembly define/s a concave distal knife edge.
A closing jig (400, 400') for a green honeycomb molded body in which a plurality of through-holes partitioned from each other by partition walls are opened to an end surface of a columnar body, comprising: a plurality of closing protrusions (410a, 410b, 410c) which are arranged at positions corresponding to parts of the plurality of the through-holes, and are inserted into the parts of the through-holes to weld the partition walls to each other so as to close the through-holes, wherein each of the closing protrusions (410a, 410b, 410c) includes, a conical tip end portion which is located at a tip end portion of the closing protrusion (410a, 410b, 410c) and has a conical shape, and a pyramidal base portion (411, 416) which is located at a base portion of the closing protrusion (410a, 410b, 410c), and has a truncated pyramidal shape obtained by removing a pyramid which is analogously reduced from a pyramid having an apex angle larger than an apex angle of the conical tip end portion. a plurality of closing protrusions (410a, 410b, 410c) which are arranged at positions corresponding to parts of the plurality of the through-holes, and are inserted into the parts of the through-holes to weld the partition walls to each other so as to close the through-holes, wherein each of the closing protrusions (410a, 410b, 410c) includes, a conical tip end portion which is located at a tip end portion of the closing protrusion (410a, 410b, 410c) and has a conical shape, and a pyramidal base portion (411, 416) which is located at a base portion of the closing protrusion (410a, 410b, 410c), and has a truncated pyramidal shape obtained by removing a pyramid which is analogously reduced from a pyramid having an apex angle larger than an apex angle of the conical tip end portion.
A method for detecting at least one analyte by electrochemical detection, comprising: (i) contacting a fluid sample suspected to comprise the at least one analyte with the surface of an electrode comprising at least one binding agent capable of binding to the analyte; (ii) contacting the fluid sample suspected to comprise the at least one analyte with a least one detection agent, wherein the at least one detection agent comprises at least a further binding agent capable of binding to the analyte and a label, wherein the label comprises a metal nanoparticle with a standard redox potential E° between 0 V and 1.2 V; (iii) forming a detection complex on the surface of the electrode comprising at least the at least one binding agent, the at least one detection agent and the analyte; (iv) precipitating at least a part of the label onto the electrode surface; and (v) detecting the at least one analyte by electrochemical detection; wherein the method comprises a step of dissolving at least a part of the label by oxidation prior to precipitating at least a part of the label in step (iv), and wherein the step of dissolving at least a part of the label by oxidation comprises applying a voltage at the electrode suitable to oxidize the metal nanoparticle, wherein a positive potential higher than the oxidation potential of the respective metal nanoparticle is applied as this voltage, wherein the applied voltage results in direct oxidation of the metal nanoparticle. (i) contacting a fluid sample suspected to comprise the at least one analyte with the surface of an electrode comprising at least one binding agent capable of binding to the analyte; (ii) contacting the fluid sample suspected to comprise the at least one analyte with a least one detection agent, wherein the at least one detection agent comprises at least a further binding agent capable of binding to the analyte and a label, wherein the label comprises a metal nanoparticle with a standard redox potential E° between 0 V and 1.2 V; (iii) forming a detection complex on the surface of the electrode comprising at least the at least one binding agent, the at least one detection agent and the analyte; (iv) precipitating at least a part of the label onto the electrode surface; and (v) detecting the at least one analyte by electrochemical detection; wherein the method comprises a step of dissolving at least a part of the label by oxidation prior to precipitating at least a part of the label in step (iv), and wherein the step of dissolving at least a part of the label by oxidation comprises applying a voltage at the electrode suitable to oxidize the metal nanoparticle, wherein a positive potential higher than the oxidation potential of the respective metal nanoparticle is applied as this voltage, wherein the applied voltage results in direct oxidation of the metal nanoparticle.
A utility vehicle comprising at least one front ground-engaging member configured to contact a ground surface; at least one rear ground-engaging member configured to contact the ground surface; a drivetrain assembly operably coupled to the ground-engaging members; a frame supported by the ground-engaging members and extending along a longitudinal axis of the utility vehicle; a cab frame coupled to and extending upwardly from the frame; a rear cargo bed assembly supported by the frame and extending over a portion of the rear ground-engaging member; and a rear cab frame assembly having an upright position and a collapsed position, characterized in that when the rear cab frame assembly is in the collapsed position, the vehicle has a collapsed height (h 2) from the ground surface of 198.12 cm (78 inches) less and defined by a member of the rear cab frame assembly, whereby the rear cab frame assembly extends over the cab frame and the rear cargo bed assembly when in the upright position.
An orally administrable solid pharmaceutical composition of IN-105 comprising about 0.01%-20% w/w of IN-105, about 10% - 60% w/w of saturated or unsaturated C 4 - C 12 fatty acids, fatty acid esters or salts thereof and at least three pharmaceutically acceptable excipients selected from the group consisting of at least 10 % w/w of a disintegrant, 10% w/w of a diluent, 0.5% w/w of a lubricant and optionally including binders, plasticizers, permeation enhancers and solubilizers, wherein the lubricant is magnesium stearate.
A road friction coefficient estimating unit (26 to 29), comprising: a sideslip angle calculation unit that calculates a tire sideslip angle (β); a cornering force calculation unit that calculates a cornering force; and a road friction coefficient estimating unit that calculates a road friction coefficient (μ) based on a ratio (CF/β) of the calculated cornering force to the calculated tire sideslip angle (β), wherein a vehicle travels on multiple road surfaces that differ in road friction coefficient (μ), and tire sideslip angles (β) that include a fixed tire sideslip angle (βd) when the cornering force is at a boundary between a linear range and a saturated range, and cornering forces on the road surfaces are detected in advance, and the road friction coefficient estimating unit (26 to 29) stores, in a memory, at least a correlation among the difference (Δβ) in the fixed tire sideslip angle (βd), the difference (ΔCF) in cornering forces at the fixed tire sideslip angle (βd), and the road friction coefficients (μ) in the form of numerical values or a mathematical expression, and estimates a road friction coefficient (μ) on which the vehicle is travelling using the correlation stored in the memory and the ratio (ΔCF/Δβ) at the fixed tire sideslip angle (βd). a sideslip angle calculation unit that calculates a tire sideslip angle (β); a cornering force calculation unit that calculates a cornering force; and a road friction coefficient estimating unit that calculates a road friction coefficient (μ) based on a ratio (CF/β) of the calculated cornering force to the calculated tire sideslip angle (β), wherein a vehicle travels on multiple road surfaces that differ in road friction coefficient (μ), and tire sideslip angles (β) that include a fixed tire sideslip angle (βd) when the cornering force is at a boundary between a linear range and a saturated range, and cornering forces on the road surfaces are detected in advance, and
A collar for a disposable surgical gown, the collar comprising a first portion having a first end and a second end and a second portion having a first end and a second end, wherein the first end of the first portion and the first end of the second portion meet at a front of the collar to form a v-neck shape and the second end of the first portion and the second end of the second portion meet at a rear of the collar to define a neck opening between the first portion and the second portion, characterized in that the v-neck shape at the front of the collar forms an angle (θ) ranging from about 95° to about 140° at the neck opening, and wherein the second end of the first portion and the second end of the second portion are tapered, wherein the collar is formed from an extensible material.
A method for manufacturing a beam profile from a metal sheet, the metal sheet having a first longitudinal edge and a second longitudinal edge, wherein the first longitudinal edge and the second longitudinal edge are parallel to each other, the method comprising: a. bending the metal sheet to the beam profile, wherein the first longitudinal edge is bent to a first seam with a first seam edge and the second longitudinal edge is bent to a second seam with a second seam edge, wherein the first seam edge and the second seam edge are in direct contact with each other; b. welding the first seam edge and the second seam edge together, wherein the metal sheet is bent to the beam profile in such a way that the first and second longitudinal edges are located within the beam profile, the welding being performed by means of a step of high-frequency welding or by a step of fusion welding, characterised in that the longitudinal edges (2, 3) are folded by 180° so that the seams (4, 5) each abut against a side which is to become the inner side of the beam profile, the longitudinal edges (2, 3) being folded in such a way that the seam edge (6, 7), after forming the metal sheet to the beam profile and before welding the two seam edges (6, 7) together, has an end face opposite the respective other seam edge (6, 7) which extends orthogonally to the respective seam (4, 5) and merges into an outer surface of the beam profile with a first radius R1 and into the respective seam (4, 5) with a second radius R2, wherein at least the first radius R1 is smaller than the sheet thickness D of the metal sheet. a. bending the metal sheet to the beam profile, wherein the first longitudinal edge is bent to a first seam with a first seam edge and the second longitudinal edge is bent to a second seam with a second seam edge, wherein the first seam edge and the second seam edge are in direct contact with each other; b. welding the first seam edge and the second seam edge together,
A pigment composition, comprising A) a platelet-like particle consisting of perlite (perlite); and B) an effect pigment, wherein the effect pigment is selected from a platelet-like substrate, coated with (a) dielectric material, and/or metal layer, metal effect pigments and platelet-like organic pigments. A) a platelet-like particle consisting of perlite (perlite); and B) an effect pigment, wherein the effect pigment is selected from a platelet-like substrate, coated with (a) dielectric material, and/or metal layer, metal effect pigments and platelet-like organic pigments.
A system for exhaust gas aftertreatment in an internal combustion engine, having a feed device for delivering or an output line for discharging a freezable substance, in particular in the form of an aqueous urea solution, into an exhaust gas flow of the internal combustion engine and at least one sensor arrangement with sensors (93, 94) which detect state variables which relate to the substance, such as pressure and temperature, parts of the sensor arrangement interacting with at least one fluid chamber for at least periodically receiving the freezable substance, as protection against damage to the system by volumetric expansion in the event of the substance freezing, a compensating device (100, 101) acting on the respective fluid chamber such that a volumetric expansion of the substance associated with an increase in the fluid pressure in the event of freezing is compensated for within the assignable fluid chamber, the compensating device having at least one flexible element (100, 101) which enables a pressure-dependent increase of the volume of the fluid chamber in the region of the feed line or output line containing the sensor arrangement (93, 94), the respective sensor (93, 94) being disposed on a branch of the feed line or output line, and the flexible element (100, 101) enabling pressure-dependent expansion of the feed line on the branch, characterised in that a cushion (100, 101) made of a compressible material that forms a wall part on the branch of the feed line is provided as a flexible element, and that the cushion (100, 101) on the part of the feed line or output line lying opposite the sensor (93, 94) is provided.