mhurhangee/patent-ind-claim-en huggingface dataset:
An access point comprising: an access point body ; a circuit board defining a longitudinal axis , the circuit board supported by the access point body to have a vertical orientation with respect to a supporting surface; a plurality of multi-dipole antennas (300, 300a-300f) connected to the circuit board and radially spaced from the longitudinal axis , the plurality of multi-dipole antennas (300, 300a-300f) substantially equiangularly arranged around the longitudinal axis of the circuit board ; a reflector disposed on the circuit board and configured to reflect electromagnetic waves; a directional antenna connected to the circuit board and arranged adjacent to the reflector ; a spectral analysis antenna connected to the circuit board and arranged vertically above the plurality of multi-dipole antennas, the spectral analysis antenna configured to measure radio energy and/or interference outside the access point body ; and a spectral analysis antenna spacer disposed between the spectral analysis antenna and the plurality of multi-dipole antennas (300, 300a-300f), the spectral analysis antenna spacer configured to shield the spectral analysis antenna from interference by the plurality of multi-dipole antennas (300, 300a-300f). an access point body ; a circuit board defining a longitudinal axis , the circuit board supported by the access point body to have a vertical orientation with respect to a supporting surface; a plurality of multi-dipole antennas (300, 300a-300f) connected to the circuit board and radially spaced from the longitudinal axis , the plurality of multi-dipole antennas (300, 300a-300f) substantially equiangularly arranged around the longitudinal axis of the circuit board ; a reflector disposed on the circuit board and configured to reflect electromagnetic waves; a directional antenna connected to the circuit board and arranged adjacent to the reflector ; a spectral analysis antenna connected to the circuit board and arranged vertically above the plurality of multi-dipole antennas, the spectral analysis antenna configured to measure radio energy and/or interference outside the access point body ; and a spectral analysis antenna spacer disposed between the spectral analysis antenna and the plurality of multi-dipole antennas (300, 300a-300f), the spectral analysis antenna spacer configured to shield the spectral analysis antenna from interference by the plurality of multi-dipole antennas (300, 300a-300f).
An image forming apparatus comprising: a photosensitive unit to form an electrostatic latent image; a printing medium storage unit to store a printing medium (S); a pickup device to pick up the printing medium (S) from the printing medium storage unit , comprising a pickup roller to pick up the printing medium from the printing medium storage unit while rotating; at least one developing unit to develop the electrostatic latent image of the photosensitive unit into a visual image; an optical sensor to inspect the visual image; and a cleaning unit operatively coupled with the pickup device to clean a light window arranged at the optical sensor , characterised in that the pickup device further comprises a pickup shaft to transfer rotary force to the pickup roller , and a cam installed around the pickup shaft to rotate by receiving power from the pickup shaft ; and in that the apparatus is configured such that the cleaning unit cleans the light window according to rotation of the cam . a photosensitive unit to form an electrostatic latent image; a printing medium storage unit to store a printing medium (S); a pickup device to pick up the printing medium (S) from the printing medium storage unit , comprising a pickup roller to pick up the printing medium from the printing medium storage unit while rotating; at least one developing unit to develop the electrostatic latent image of the photosensitive unit into a visual image; an optical sensor to inspect the visual image; and a cleaning unit operatively coupled with the pickup device to clean a light window arranged at the optical sensor , characterised in that the pickup device further comprises a pickup shaft to transfer rotary force to the pickup roller , and a cam installed around the pickup shaft to rotate by receiving power from the pickup shaft ; and in that the apparatus is configured such that the cleaning unit cleans the light window according to rotation of the cam .
An implantable electrode structure for use in a baroreflex activation system, the implantable electrode structure configured for fixation at least in part by adhesive to an outer surface of a blood vessel, such as a carotid sinus, the electrode structure comprising: a backer ; an electrode mounted on the backer , the electrode being configured to be placed in contact with the blood vessel; and a polyester mesh which is exposed to provide additional surface area to mate with an adhesive to fix the electrode structure to the blood vessel; wherein the backer has a surface area larger than the electrode , and includes one or more apertures to facilitate application of the adhesive. a backer ; an electrode mounted on the backer , the electrode being configured to be placed in contact with the blood vessel; and a polyester mesh which is exposed to provide additional surface area to mate with an adhesive to fix the electrode structure to the blood vessel; wherein the backer has a surface area larger than the electrode , and includes one or more apertures to facilitate application of the adhesive.
Acoustic shock waves generator comprising: - a control and command unit (UCC) located inside a container-housing (CC), connected to a power supply (SAE) : - a cone (CDUS) , connected with its apex to the container-housing (CC) and having its base oriented toward the sky for directing the shock waves, - a system for generating the shock waves (SGUS) connected to the control and command unit (UCC), wherein the shock waves generating system (SGUS) is a system for generating an electric discharge in an insulating medium comprising water, oxygen and hydrogen, and wherein the control and command unit (UCC) is in connection with a light sensor (L), a humidity sensor (U), a pressure sensor (P), a temperature sensor (T), a wind velocity measuring vector (VV) , a sensor (CE) for measuring the electromagnetic field, as well as with a camera (CSV) in the visible spectrum, a camera (CSIR) in the infrared spectrum, each camera having a software (SPI) for image processing, as well as a meteorological radar (RM). - a control and command unit (UCC) located inside a container-housing (CC), connected to a power supply (SAE) : - a cone (CDUS) , connected with its apex to the container-housing (CC) and having its base oriented toward the sky for directing the shock waves, - a system for generating the shock waves (SGUS) connected to the control and command unit (UCC),
A copolymer for an antifouling coating composition obtained by copolymerizing a monomer (a) and an ethylenically unsaturated monomer (b) other than the monomer (a), wherein: the monomer (a) is represented by general formula ; in the general formula , R 1 represents a hydrogen or a methyl group, R 2 and R 3 represent an isopropyl group, and R 4 represents an alkenyl group or a heteroaryl group. the monomer (a) is represented by general formula ; in the general formula , R 1 represents a hydrogen or a methyl group, R 2 and R 3 represent an isopropyl group, and R 4 represents an alkenyl group or a heteroaryl group.
A beam steering mirror device comprising - a mirror comprising an optical part with a reflecting or optical surface and a mirror body , - a biaxial suspension of the mirror body having two rotation axes being arranged essentially perpendicular with respect to each other and being located in a common plane, wherein - the suspension comprises a set of four flexible pivots with a pair of pivots assigned to each rotation axis, further comprising - motors for moving of the mirror body around the two rotation axes, - sensors for determining the tilting angle of the mirror, and - a housing for the mirror, the biaxial suspension, the motors and the sensors, characterized in that - the mirror is arranged with regard to the biaxial suspension such that its center of mass is approximately located in the intersection point of the two rotation axes, and - the optical part of the mirror has a mushroom-shaped isostatic design on the side opposite to the reflecting or optical surface and is coupled with this side to the mirror body with the optical part being the mushroom cap and the coupling part to the mirror body being the mushroom stem, so that the optical part of the mirror is thermally de-coupled from the mirror body . - a mirror comprising an optical part with a reflecting or optical surface and a mirror body , - a biaxial suspension of the mirror body having two rotation axes being arranged essentially perpendicular with respect to each other and being located in a common plane, wherein - the suspension comprises a set of four flexible pivots with a pair of pivots assigned to each rotation axis, further comprising - motors for moving of the mirror body around the two rotation axes, - sensors for determining the tilting angle of the mirror, and - a housing for the mirror, the biaxial suspension, the motors and the sensors, - the mirror is arranged with regard to the biaxial suspension such that its center of mass is approximately located in the intersection point of the two rotation axes, and - the optical part of the mirror has a mushroom-shaped isostatic design on the side opposite to the reflecting or optical surface and is coupled with this side to the mirror body with the optical part being the mushroom cap and the coupling part to the mirror body being the mushroom stem, so that the optical part of the mirror is thermally de-coupled from the mirror body .
A method of manufacturing a midsole (12; 12A;12B; 12C) for an article of footwear (10; 10A; 10C), the method comprising: cutting a pattern of openings (30; 30A) at least partway through a midsole (12; 12A;12B; 12C) with a cutting tool driven by an embroidery machine , wherein the midsole (12; 12A;12B; 12C) is a preform when said cutting occurs, and the method further comprising: after said cutting, thermoforming the preform to a midsole final formed shape, wherein: the preform has a flat inner surface and a contoured outer surface and longitudinal axes of the openings (30; 30A) extend relatively parallel with one another at least partially through the preform; and an inner surface of the midsole (12; 12A;12B; 12C) is contoured in the midsole final formed shape and at least some of the longitudinal axes of the openings (30; 30A) extend relatively nonparallel with one another and splay away from one another in the midsole final formed shape. cutting a pattern of openings (30; 30A) at least partway through a midsole (12; 12A;12B; 12C) with a cutting tool driven by an embroidery machine , wherein the midsole (12; 12A;12B; 12C) is a preform when said cutting occurs, and the method further comprising: after said cutting, thermoforming the preform to a midsole final formed shape, wherein: the preform has a flat inner surface and a contoured outer surface and longitudinal axes of the openings (30; 30A) extend relatively parallel with one another at least partially through the preform; and an inner surface of the midsole (12; 12A;12B; 12C) is contoured in the midsole final formed shape and at least some of the longitudinal axes of the openings (30; 30A) extend relatively nonparallel with one another and splay away from one another in the midsole final formed shape. after said cutting, thermoforming the preform to a midsole final formed shape, wherein: the preform has a flat inner surface and a contoured outer surface and longitudinal axes of the openings (30; 30A) extend relatively parallel with one another at least partially through the preform; and an inner surface of the midsole (12; 12A;12B; 12C) is contoured in the midsole final formed shape and at least some of the longitudinal axes of the openings (30; 30A) extend relatively nonparallel with one another and splay away from one another in the midsole final formed shape. the preform has a flat inner surface and a contoured outer surface and longitudinal axes of the openings (30; 30A) extend relatively parallel with one another at least partially through the preform; and an inner surface of the midsole (12; 12A;12B; 12C) is contoured in the midsole final formed shape and at least some of the longitudinal axes of the openings (30; 30A) extend relatively nonparallel with one another and splay away from one another in the midsole final formed shape.
A door or window with a slidable casement as a sliding casement or slidable lifting and sliding casement, a window frame , in which the casement is slidably held, and a driving device , wherein the driving device for sliding the casement comprises a drive motor arranged on the casement side with a threaded spindle driven thereon, which is forcibly guided around a gear rack element arranged at the window frame , wherein the driving device , with the casement in its installed position, is arranged almost completely hidden in a recess or receiving groove of an upper, horizontal spar of the casement and a guide rail arranged at the window frame , wherein the drive motor and the threaded spindle , forming a structural unit, are mounted in a housing and the gear rack element is encompassingly fixable by the guide rail , wherein the drive motor and the threaded spindle are arranged with an axial offset vertical to the housing and to the recess or receiving groove of the movable casement , wherein the drive motor is facing a base plate of the housing , and thus a base of the recess or receiving groove , and the threaded spindle is spaced apart from the base towards the gear rack element . wherein the driving device , with the casement in its installed position, is arranged almost completely hidden in a recess or receiving groove of an upper, horizontal spar of the casement and a guide rail arranged at the window frame , wherein the drive motor and the threaded spindle , forming a structural unit, are mounted in a housing and the gear rack element is encompassingly fixable by the guide rail , wherein the drive motor and the threaded spindle are arranged with an axial offset vertical to the housing and to the recess or receiving groove of the movable casement , wherein the drive motor is facing a base plate of the housing , and thus a base of the recess or receiving groove , and the threaded spindle is spaced apart from the base towards the gear rack element .
Inhaler for inhalation of a formulation preferably in powder form from capsules which each contain a dose of the formulation , wherein the inhaler comprises a magazine having the capsules , a mouthpiece and a cover associated with the mouthpiece , wherein the magazine is substantially circular, plate-shaped and/or disc-shaped, characterised in that the cover is radially movable and pivotable relative to the magazine for opening or closing of the mouthpiece , wherein by pivoting (S) of the cover the magazine can be conveyed from one capsule to the next capsule and wherein by radial movement (B) of the cover a capsule can be moved in the radial direction out of the magazine into a discharge position (A), in which the capsule can be opened and the formulation can then be inhaled by the patient.
Process for producing biomethane by scrubbing a biogas feed stream , comprising the following steps: Step a): introducing the feed gas stream into a pretreatment unit in which said gas stream is partially separated from the CO 2 and the oxygen it contains and is compressed to a pressure P1 above 25 bar abs; Step b) : subjecting the CO 2 -depleted gas stream obtained from step a) to cryogenic separation in a distillation column to separate the nitrogen from said gas stream , said distillation column comprising n plates, n being an integer between 8 and 100; Step c): recovering a CH 4 -enriched stream obtained from the cryogenic separation by pumping the product in the vessel of said column at a pressure P2 above 25 bar absolute and preferably above the critical pressure of said product, characterized in that the CO 2 -depleted gas stream obtained from step a) and used in step b) has an oxygen concentration equal to C1 and in that : - when C1 is strictly greater than 1 mol%, the process is stopped; and - when C1 is strictly greater than 0.1 mol%, the CO 2 -depleted gas stream obtained from step a) and used in step b) is introduced into the distillation column at a level between plate n-4 and plate n, plate n being the plate that is positioned the highest in said column. Step a): introducing the feed gas stream into a pretreatment unit in which said gas stream is partially separated from the CO 2 and the oxygen it contains and is compressed to a pressure P1 above 25 bar abs; Step b) : subjecting the CO 2 -depleted gas stream obtained from step a) to cryogenic separation in a distillation column to separate the nitrogen from said gas stream , said distillation column comprising n plates, n being an integer between 8 and 100; Step c): recovering a CH 4 -enriched stream obtained from the cryogenic separation by pumping the product in the vessel of said column at a pressure P2 above 25 bar absolute and preferably above the critical pressure of said product, characterized in that the CO 2 -depleted gas stream obtained from step a) and used in step b) has an oxygen concentration equal to C1 and in that : - when C1 is strictly greater than 1 mol%, the process is stopped; and - when C1 is strictly greater than 0.1 mol%, the CO 2 -depleted gas stream obtained from step a) and used in step b) is introduced into the distillation column at a level between plate n-4 and plate n, plate n being the plate that is positioned the highest in said column. - when C1 is strictly greater than 1 mol%, the process is stopped; and - when C1 is strictly greater than 0.1 mol%, the CO 2 -depleted gas stream obtained from step a) and used in step b) is introduced into the distillation column at a level between plate n-4 and plate n, plate n being the plate that is positioned the highest in said column.
A spindle device for a machine tool which is formed so that a tool (T) or workpiece is retained on a front end of a spindle which is supported so as to be rotatable relative to a housing , the spindle device comprising: a front bearing which rotatably supports the spindle on a front side of the spindle , a rear bearing which rotatably supports the spindle more rearwardly than the front bearing , a built-in motor which is arranged on a circumference of the spindle in a central portion between the front bearing and the rear bearing for rotatably driving the spindle , a heat pipe which is embedded in the spindle and which transmits heat between a central part and a rear end of the spindle , a plurality of plate-like inner fins which are affixed to a rear portion of the spindle protruding more rearwardly than the rear bearing , which are arranged in the direction of the axis of rotation (O) of the spindle , and which extends in a direction orthogonal to the axis of rotation (O) of the spindle , characterised by a plurality of plate-like outer fins which are affixed to the housing and which are arranged between the plurality of inner fins so as to not contact the inner fins . a front bearing which rotatably supports the spindle on a front side of the spindle , a rear bearing which rotatably supports the spindle more rearwardly than the front bearing , a built-in motor which is arranged on a circumference of the spindle in a central portion between the front bearing and the rear bearing for rotatably driving the spindle , a heat pipe which is embedded in the spindle and which transmits heat between a central part and a rear end of the spindle , a plurality of plate-like inner fins which are affixed to a rear portion of the spindle protruding more rearwardly than the rear bearing , which are arranged in the direction of the axis of rotation (O) of the spindle , and which extends in a direction orthogonal to the axis of rotation (O) of the spindle , characterised by a plurality of plate-like outer fins which are affixed to the housing and which are arranged between the plurality of inner fins so as to not contact the inner fins .
Aluminum-paper composite film for food containers, in particular produced by a method according to any one of claims 11 to 15, - having an aluminum foil layer and - having a paper layer , - wherein the aluminum foil layer and the paper layer are bonded together by an adhesive layer interposed therebetween, characterized - in that the aluminum foil layer has a thickness in the range of 30 - 150 μm, and - in that the side of the paper layer facing away from the aluminum foil layer is coated with a release layer of release wax. - having an aluminum foil layer and - having a paper layer , - wherein the aluminum foil layer and the paper layer are bonded together by an adhesive layer interposed therebetween, characterized - in that the aluminum foil layer has a thickness in the range of 30 - 150 μm, and - in that the side of the paper layer facing away from the aluminum foil layer is coated with a release layer of release wax.
An ophthalmic apparatus for use in or on an eye, the ophthalmic apparatus comprising: a support structure ; a substrate included with the support structure; at least one electrical conductor disposed on the substrate; and characterized in that the ophthalmic apparatus further comprises: a hermetic barrier structure disposed over the at least one conductor, the hermetic barrier structure including a stack of alternating flexible electrically insulating material and superelastic metal alloy layers . a support structure ; a substrate included with the support structure; at least one electrical conductor disposed on the substrate; and characterized in that the ophthalmic apparatus further comprises: a hermetic barrier structure disposed over the at least one conductor, the hermetic barrier structure including a stack of alternating flexible electrically insulating material and superelastic metal alloy layers .
A process for producing a spunbonded nonwoven fabric by ejecting a continuous fiber group from a spinneret , thinning and stretching the continuous fiber group with a rectangular ejector , and collecting the continuous fiber group in a nonwoven fabric form, wherein the rectangular ejector has a jetting hole part having a pair of slit width regulation parts which faces each other and extends continuously along a long-side direction of the jetting hole, at least one of the slit width regulation parts being a slit width regulation member which is composed of an integrated member extending continuously along the long-side direction of the jetting hole, a plurality of minute-deformation means which minutely deforms the slit width regulation member is disposed along a long-side direction of the slit width regulation member, and a nonwoven fabric which has been collected is examined to determine a basis-weight distribution thereof in a width direction and the slit width regulation member is partly and minutely deformed by the minute-deformation means on the basis of a determined value thereof to partly change a slit width of the jetting hole by its minute deformation, thereby regulating a basis-weight distribution thereof, wherein the pair of slit width regulation parts has a length of 10 mm or larger along a running direction of the continuous fiber group.