mhurhangee/ep-ind-claims huggingface dataset:
Assembly consisting of a mounting bracket and a line lead-through, wherein the mounting bracket has a circumferential wall closed around its circumference, from the first axial end of which a flange portion for fastening to a formwork projects towards the outside and from the second opposing axial end of which an insertion opening for a line lead-through departs, said insertion opening extending axially through the mounting bracket, wherein a first fastening structure for engaging an outer circumference of the line lead-through projects into the insertion opening and wherein a second fastening structure is provided on the outer circumference of the line lead-through and can engage in the first fastening structure, the first and second fastening structures (26, 28) each being formed by a thread and being designed in such a manner that they allow for axial adjustment of the line lead-through relative to the mounting bracket, but form a connection that is substantially impervious to a casting compound, in particular concrete, characterised in that the first fastening structure is formed by one single thread turn.
A method for depositing a coating of a first metal onto a workplace which exposes a second metal, comprising the following method steps: a) providing a bath liquid containing bath components comprising ions of the first metal to be deposited, at least one complexing agent for the second metal and at least one acid, b) depositing the coating of the first metal from the bath liquid onto the workpiece, c) feeding the bath liquid Into a settling tank, d) cooling and stirring the bath liquid in the settling tank for the generation of a precipitate and of a filtrate, the precipitate comprising the second metal and the at least one complexing agent, e) separating the precipitate from the filtrate by means of a filtration apparatus, f) returning the filtrate to the bath liquid, g) replenishing bath components to the bath liquid, wherein, for separating the precipitate from the filtrate, a pressure difference is generated via the filtration apparatus. a) providing a bath liquid containing bath components comprising ions of the first metal to be deposited, at least one complexing agent for the second metal and at least one acid, b) depositing the coating of the first metal from the bath liquid onto the workpiece, c) feeding the bath liquid Into a settling tank, d) cooling and stirring the bath liquid in the settling tank for the generation of a precipitate and of a filtrate, the precipitate comprising the second metal and the at least one complexing agent, e) separating the precipitate from the filtrate by means of a filtration apparatus, f) returning the filtrate to the bath liquid, g) replenishing bath components to the bath liquid,
A computing device-implemented method for license management of a software product, comprising: receiving, by an activation server, a license activation request from a user device; providing, by the activation server, permission to activate a software product; receiving, by the activation server, subsequent to activation, a request to validate activation of the software product; validating, by the activation server, the software product on the user device, wherein validating includes verifying that the user device has a legitimate copy of the software product; refreshing license information for the software product in response to the request to validate, wherein refreshing includes determining if anything has changed from the license; receiving, by the activation server, a request to re-designate the license information for the software product, wherein re-designating the license information for the software product includes changing an existing setting associated with a license and assigning the license for the software product for use by a different user or on a different computing device; and updating, by the activation server, license information for the software product in response to the request to re-designate the software product. receiving, by an activation server, a license activation request from a user device; providing, by the activation server, permission to activate a software product; receiving, by the activation server, subsequent to activation, a request to validate activation of the software product; validating, by the activation server, the software product on the user device, wherein validating includes verifying that the user device has a legitimate copy of the software product; refreshing license information for the software product in response to the request to validate, wherein refreshing includes determining if anything has changed from the license; receiving, by the activation server, a request to re-designate the license information for the software product, wherein re-designating the license information for the software product includes changing an existing setting associated with a license and assigning the license for the software product for use by a different user or on a different computing device; and updating, by the activation server, license information for the software product in response to the request to re-designate the software product.
A spark plug comprising: an insulator having a center axis; a center electrode coupled to the insulator and having an end extending from an end of the insulator, the center electrode having a first tip member; a ground electrode spaced from the center electrode, the ground electrode having a first portion extending substantially parallel to the center axis and a second portion coupled to the first portion and extending at an angle from the first portion and relative to the center axis; and, a second tip member disposed on the second portion of the ground electrode, wherein the first tip member and the second tip member cooperate to form a gap characterised in that the first tip member is a conical tip member. an insulator having a center axis; a center electrode coupled to the insulator and having an end extending from an end of the insulator, the center electrode having a first tip member; a ground electrode spaced from the center electrode, the ground electrode having a first portion extending substantially parallel to the center axis and a second portion coupled to the first portion and extending at an angle from the first portion and relative to the center axis; and, a second tip member disposed on the second portion of the ground electrode, wherein the first tip member and the second tip member cooperate to form a gap characterised in that the first tip member is a conical tip member.
A laminate structure comprising a first glass substrate having a thickness ranging from 0.3 mm to 2 mm, a second glass substrate having a thickness ranging from 3 mm to 10 mm, and an interlayer attaching the first and second glass substrates, wherein a coefficient of thermal expansion of the second glass substrate is at least 40% greater than a coefficient of thermal expansion of the first glass substrate; and wherein an out-of-plane deflection of the laminate structure is less than twice a thickness of the laminate structure. wherein a coefficient of thermal expansion of the second glass substrate is at least 40% greater than a coefficient of thermal expansion of the first glass substrate; and wherein an out-of-plane deflection of the laminate structure is less than twice a thickness of the laminate structure.
A conductive paste comprising a conductive component, a thermosetting resin, a compound having a structure of the formula, and a solvent, wherein the compound having the structure of the formula is included in an amount of 0.1 part by weight to 2.0 parts by weight with respect to 100 parts by weight of the conductive component.
An apparatus for measuring the relative displacement between a first shaft and a second shaft, comprising: a first rotor assembly being coupled to the first shaft and being centered on an axis; at least one magnet having a magnetic field and being disposed on the first rotor assembly; a second rotor assembly being coupled to the second shaft, the first and second rotor assemblies being coaxial, the second rotor assembly having a first stator plate and a second stator plate, each of the first and second stator plates having an upper surface (66A, 68A) and a lower surface (66B, 68B), the upper (66A, 68A) and lower (66B, 68B) surfaces being parallel, the first and second stator plates having a plurality of teeth (66D, 68D), each tooth (66D, 68D) having upper surface and a lower surface, the first and second stator plates forming a gap between the lower surface of the first stator plate and the upper surface of the second stator plate, the gap having a uniform thickness; and a sensing device disposed within the gap for sensing a magnetic flux of the magnetic field, characterized by the plurality of teeth (66D, 68D) of the first and second stator plates extending in a direction radial of the axis, the upper surface of each tooth (66D, 68D) being planar with the upper surface (66A, 68A) of the respective stator plate (66, 68), and the lower surface of each tooth (66D, 68D) being planar the lower surface (66B, 68B) of the respective plate (66, 68). a first rotor assembly being coupled to the first shaft and being centered on an axis; at least one magnet having a magnetic field and being disposed on the first rotor assembly; a second rotor assembly being coupled to the second shaft, the first and second rotor assemblies being coaxial, the second rotor assembly having a first stator plate and a second stator plate, each of the first and second stator plates having an upper surface (66A, 68A) and a lower surface (66B, 68B), the upper (66A, 68A) and lower (66B, 68B) surfaces being parallel, the first and second stator plates having a plurality of teeth (66D, 68D), each tooth (66D, 68D) having upper surface and a lower surface, the first and second stator plates forming a gap between the lower surface of the first stator plate and the upper surface of the second stator plate, the gap having a uniform thickness; and a sensing device disposed within the gap for sensing a magnetic flux of the magnetic field, characterized by the plurality of teeth (66D, 68D) of the first and second stator plates extending in a direction radial of the axis, the upper surface of each tooth (66D, 68D) being planar with the upper surface (66A, 68A) of the respective stator plate (66, 68), and the lower surface of each tooth (66D, 68D) being planar the lower surface (66B, 68B) of the respective plate (66, 68).
Hydrodynamic machine, in particular hydrodynamic retarder, for installation on a gearbox with a gearbox oil chamber, comprising a housing device, surrounding an retarder oil chamber, and a shaft with a first portion on which a rotor is arranged for conjoint rotation and a second portion on which a step-up drive gearwheel is arranged for conjoint rotation, wherein the first portion projects into the retarder oil chamber and the second portion projects into the gearbox oil chamber, wherein a sealing element is arranged between the retarder oil chamber and gearbox oil chamber such that they are fluidically separated from one another, characterized in that a duct (8, 9, 10) by means of which oil can be conducted from the gearbox oil chamber to the sealing element is provided in the shaft.
A compensator attachable to an anvil of a fastening instrument, wherein the anvil includes a forming surface, and wherein the compensator comprises: an attachment layer configured to be attached to the anvil; a scaffold attached to the attachment layer, the scaffold comprising: a plurality of scaffold layers comprised of a biocompatible material; and a plurality of cavities, wherein the layers and the cavities define a matrix favorable to tissue and cellular ingrowth, wherein the plurality of scaffold layers comprises a first layer and a second layer, characterized in that a first medicament is absorbed within the first layer and a second medicament is absorbed within the second layer, and wherein the first medicament is different than the second medicament.. an attachment layer configured to be attached to the anvil; a scaffold attached to the attachment layer, the scaffold comprising: a plurality of scaffold layers comprised of a biocompatible material; and a plurality of cavities, wherein the layers and the cavities define a matrix favorable to tissue and cellular ingrowth, wherein the plurality of scaffold layers comprises a first layer and a second layer, characterized in that a first medicament is absorbed within the first layer and a second medicament is absorbed within the second layer, and wherein the first medicament is different than the second medicament.. a plurality of scaffold layers comprised of a biocompatible material; and a plurality of cavities, wherein the layers and the cavities define a matrix favorable to tissue and cellular ingrowth, wherein the plurality of scaffold layers comprises a first layer and a second layer, characterized in that a first medicament is absorbed within the first layer and a second medicament is absorbed within the second layer, and wherein the first medicament is different than the second medicament..
Method, implemented by computer, of processing an initial digital image comprising contour zones, the said method comprising a phase of magnifying the initial image into a magnified digital image, characterized in that the magnifying phase comprises a step of detection where the contour zones of the initial digital image are detected, a step of determination where the size, in terms of number of pixels, of each contour zone is determined, and a step of magnifying each contour zone with the aid of a software tool, chosen as a function of the size of each contour zone, from among a set of magnifying software tools.
A processor-implemented method comprising: receiving an audio signal; determining that the audio signal includes a voice command to communicate with a contact using a first communication type, the first communication type having a plurality of fields, wherein the voice command includes content associated with the plurality of fields; determining that communication with the contact using the first communication type is unavailable; and after determining that communication with the contact using the first communication type is unavailable, facilitating communication with the contact using a second communication type, the second communication type having a single field, the method further comprising: combining the content associated with the plurality of fields; and including the combined content in the single field of the second communication type. receiving an audio signal; determining that the audio signal includes a voice command to communicate with a contact using a first communication type, the first communication type having a plurality of fields, wherein the voice command includes content associated with the plurality of fields; determining that communication with the contact using the first communication type is unavailable; and after determining that communication with the contact using the first communication type is unavailable, facilitating communication with the contact using a second communication type, the second communication type having a single field, the method further comprising: combining the content associated with the plurality of fields; and including the combined content in the single field of the second communication type. combining the content associated with the plurality of fields; and including the combined content in the single field of the second communication type.
A light converter comprising a light receiving face configured to receive light source light from a light source, wherein the light converter is configured to convert at least part of the light source light into light converter light having a plurality of different first frequencies, wherein the light converter comprises a plurality of different semiconductor quantum dots, configured to provide emission at different wavelengths within the visible spectrum, in a plurality of different optical structures selected from plasmonic structures, wherein the different optical structures are configured to increase the photon density of states in the light converter and be resonant with the different first frequencies for reducing saturation quenching, wherein the different optical structures comprises silica structures comprising the different semiconductor quantum dots, wherein quantum dot luminescent cores of the different semiconductor quantum dots have shortest distances to metallic structures comprised by the different optical structures of at least 5 nm, and wherein the different quantum dot have quantum efficiencies of at least 80%.
A process for the preparation of terpinolene epoxide of formula wherein terpinolene is reacted with an oxidizing agent comprising hydrogen peroxide in the presence of a catalytic amount of a halogenated ketone selected from halogenated di-(C 1 -C 6)-alkyl ketones and the reaction is carried out in the absence of a halogenated organic solvent and in a non-halogenated inert organic solvent selected from non-halogenated aromatic hydrocarbons and any mixtures thereof.
Method of manufacturing a cellular slab including a top plate, a bottom plate and intermediate partitions between the two plates, defining between them parallel longitudinal cells, this slab comprising at least one lifting ring, constituted by a metal wire formed into a staple, the branches of the staple being bent so that their free ends (16, 17) extend under a reinforcing wire of the plate disposed in the base of said intermediate partition, the staple emerging from a concrete mass located beneath an opening in the top plate vertically aligned with an intermediate partition so that the staple has a shape that allows the ends of its branches to be slided under a reinforcing wire of the slab, and characterised in that this method comprises, once the slab has left the machine in which it is manufactured, the steps of: - making an orifice in the top plate, straddling an intermediate partition by collapsing the still fresh concrete of this plate and levelling the top of the partition; - inserting the staple to straddle the concrete waste resulting from making the orifice so that the coplanar free ends (16, 17) of its branches (13, 14) are located at a lower level than said reinforcing wire; - rotating the staple approximately a quarter turn to slide said free ends (16, 17) under the reinforcing wire and vibrating the concrete waste to produce a mass in which the ends of the branches of the staple are embedded. - making an orifice in the top plate, straddling an intermediate partition by collapsing the still fresh concrete of this plate and levelling the top of the partition; - inserting the staple to straddle the concrete waste resulting from making the orifice so that the coplanar free ends (16, 17) of its branches (13, 14) are located at a lower level than said reinforcing wire; - rotating the staple approximately a quarter turn to slide said free ends (16, 17) under the reinforcing wire and vibrating the concrete waste to produce a mass in which the ends of the branches of the staple are embedded.
A method of making a plurality of hemostatic aggregates comprising the steps of: a) milling a cellulosic source material to form an intermediate fine fibers; b) humidifying the intermediate fine fibers to water content of between 11.0% and 20% by weight; c) roller compacting the intermediate fine fibers to form hemostatic aggregates; d) sieving the hemostatic aggregates; e) dehumidifying the hemostatic aggregates; and optionally dosing the resulting hemostatic aggregates into storage containers or into delivery devices. a) milling a cellulosic source material to form an intermediate fine fibers; b) humidifying the intermediate fine fibers to water content of between 11.0% and 20% by weight; c) roller compacting the intermediate fine fibers to form hemostatic aggregates; d) sieving the hemostatic aggregates; e) dehumidifying the hemostatic aggregates; and
Installation for forming a container made of thermoplastic material by blow-moulding a preform by means of a pressurized blowing fluid, the installation comprising at least one valve for dispensing the flow of blowing fluid, the dispensing valve comprising: - a piston which tightly divides a fixed cylinder into a first working chamber and a second working chamber, and which is mounted to slide in the cylinder between a first switching position in which the second chamber exhibits a maximum volume and a second switching position in which the second chamber exhibits a minimum volume; - first controlled means for the pressure of a control fluid in the first working chamber making it possible to displace the piston to its second switching position by increasing the pressure of the control fluid; characterized in that the piston comprises at least one ferromagnetic element, the dispensing valve comprising first controlled means for emission of a magnetic field acting on the ferromagnetic element to give the piston, in its first position, an impulse for displacement to its second position. - a piston which tightly divides a fixed cylinder into a first working chamber and a second working chamber, and which is mounted to slide in the cylinder between a first switching position in which the second chamber exhibits a maximum volume and a second switching position in which the second chamber exhibits a minimum volume; - first controlled means for the pressure of a control fluid in the first working chamber making it possible to displace the piston to its second switching position by increasing the pressure of the control fluid;
A process for producing a compound of the formula, comprising reacting a compound of the formula with hydroxylamine in the presence of an acid catalyst or an acid-base catalyst, wherein the acid catalyst is one or more acids selected from the group consisting of mineral acids, carboxylic acids, and sulfonic acids, wherein the acid of the acid-base catalyst is one or more acids selected from the group consisting of mineral acids, carboxylic acids, and sulfonic acids, and wherein the reaction temperature is in the range of 20°C to 60°C: in the formula, R 1 and R 2 are each independently an optionally substituted (C1-C6)alkyl; an optionally substituted (C3-C6)cycloalkyl; an optionally substituted (C2-C6)alkenyl; an optionally substituted (C2-C6)alkynyl; an optionally substituted (C1-C6)alkoxy; or an optionally substituted phenyl; or R 1 and R 2, together with the carbon atom to which they are attached form a 4- to 12-membered carbocyclic ring, wherein the formed ring is optionally substituted, in the formula, R 1 and R 2 are as defined above. wherein the acid catalyst is one or more acids selected from the group consisting of mineral acids, carboxylic acids, and sulfonic acids, wherein the acid of the acid-base catalyst is one or more acids selected from the group consisting of mineral acids, carboxylic acids, and sulfonic acids, and wherein the reaction temperature is in the range of 20°C to 60°C: in the formula, R 1 and R 2 are each independently an optionally substituted (C1-C6)alkyl; an optionally substituted (C3-C6)cycloalkyl; an optionally substituted (C2-C6)alkenyl; an optionally substituted (C2-C6)alkynyl; an optionally substituted (C1-C6)alkoxy; or an optionally substituted phenyl; or R 1 and R 2, together with the carbon atom to which they are attached form a 4- to 12-membered carbocyclic ring, wherein the formed ring is optionally substituted, in the formula, R 1 and R 2 are as defined above.