mhurhangee/ep-ind-claims huggingface dataset:
A front adjuster for drawers, comprising a bearing body, a slide arranged on the bearing body and fixable to a lateral frame, and an adjuster mechanism arranged in the bearing body for height and/or lateral adjustment of the slide, characterized in that the bearing body can be fixed in the front panel.
A method for establishing a borehole in a seabed, comprising setting of a conductor, where the method comprises: - providing the conductor with a fixed, surrounding base; - providing the conductor at its top end with a suction module; - providing a pump module comprising a pump and a pipe coupling fitting onto a first pump pipe which communicates with the conductor, and where a pump outlet is connectable to a pipeline extending to a surface of the sea or to a waste disposal on the seabed; - connecting the conductor to a drill pipe and then lowering the conductor down to the seabed; - displacing the conductor down into the seabed until the fixed base bears against the seabed; - lowering the pump module down onto the suction module; and - creating the borehole such that drilling fluids and drill cuttings are flowing back between the borehole for the conductor and the drill pipe, to the pump, via the first pump pipe. - providing the conductor with a fixed, surrounding base; - providing the conductor at its top end with a suction module; - providing a pump module comprising a pump and a pipe coupling fitting onto a first pump pipe which communicates with the conductor, and where a pump outlet is connectable to a pipeline extending to a surface of the sea or to a waste disposal on the seabed; - connecting the conductor to a drill pipe and then lowering the conductor down to the seabed; - displacing the conductor down into the seabed until the fixed base bears against the seabed; - lowering the pump module down onto the suction module; and - creating the borehole such that drilling fluids and drill cuttings are flowing back between the borehole for the conductor and the drill pipe, to the pump, via the first pump pipe.
A train operation control system comprising: a headcount estimation device to estimate at least one of the number of people in a train and the number of people on a platform of a station, using video data outputted from a plurality of cameras; and a train rescheduling device to predict a dwell time for the train at a first station, using estimated headcount information estimated by the headcount estimation device and schedule information, and accordingly perform train rescheduling on a succeeding train behind the train at a second station that is situated before the first station. a headcount estimation device to estimate at least one of the number of people in a train and the number of people on a platform of a station, using video data outputted from a plurality of cameras; and a train rescheduling device to predict a dwell time for the train at a first station, using estimated headcount information estimated by the headcount estimation device and schedule information, and accordingly perform train rescheduling on a succeeding train behind the train at a second station that is situated before the first station.
A process for the purification of an aqueous hydrogen peroxide solution containing organic impurities, comprising the following steps: (a) contacting the aqueous hydrogen peroxide solution with an adsorption resin in an adsorption vessel to remove at least part of the organic impurities and to obtain a purified aqueous hydrogen peroxide solution which is collected outside the adsorption vessel, (b) subsequently adding a liquid, preferably demineralised water, to the adsorption vessel so that a suspension of the resin flows out of the adsorption vessel through a first pipeline into a regeneration vessel with a pressure which is higher in the adsorption vessel and the first pipeline than outside of the adsorption vessel and the first pipeline; (c) treating the resin in the regeneration vessel with an organic regenerant in order to obtain a regenerated resin, (d) returning the regenerated resin through a second pipeline to the adsorption vessel by using a liquid, preferably demineralised water, with a pressure which is higher in the regeneration vessel and the second pipeline than outside the regeneration vessel and the second pipeline. (a) contacting the aqueous hydrogen peroxide solution with an adsorption resin in an adsorption vessel to remove at least part of the organic impurities and to obtain a purified aqueous hydrogen peroxide solution which is collected outside the adsorption vessel, (b) subsequently adding a liquid, preferably demineralised water, to the adsorption vessel so that a suspension of the resin flows out of the adsorption vessel through a first pipeline into a regeneration vessel with a pressure which is higher in the adsorption vessel and the first pipeline than outside of the adsorption vessel and the first pipeline; (c) treating the resin in the regeneration vessel with an organic regenerant in order to obtain a regenerated resin, (d) returning the regenerated resin through a second pipeline to the adsorption vessel by using a liquid, preferably demineralised water, with a pressure which is higher in the regeneration vessel and the second pipeline than outside the regeneration vessel and the second pipeline.
Method to limit corrosion and deterioration of wires of ferrous metal and of their alloys with homogeneous section of any shape and size and cables formed by stranded wires of ferrous metals and their alloys, characterised in that it comprises the steps of: - application: coating the surface of wires and cables with a compound in liquid state or in the form of powders and solid particles of various size and shape, constituted by monomers and/or oligomers and/or polymers, as well as additives and photoinitiators; - curing: exposing the previously applied compound to an amount of ultraviolet radiation, with one or more wavelengths, sufficient to react the photoinitiators and to trigger the cross-linking polymerisation which causes the curing of the compound and therefore forms the polymeric coating. - application: coating the surface of wires and cables with a compound in liquid state or in the form of powders and solid particles of various size and shape, constituted by monomers and/or oligomers and/or polymers, as well as additives and photoinitiators; - curing: exposing the previously applied compound to an amount of ultraviolet radiation, with one or more wavelengths, sufficient to react the photoinitiators and to trigger the cross-linking polymerisation which causes the curing of the compound and therefore forms the polymeric coating.
An auto-focus method, comprising: at a same moment, collecting a first image of a first object by using a first image shooting unit (201, 401), and collecting a second image of the first object by using a second image shooting unit (202, 402); and obtaining a target position of a first lens of the first image shooting unit according to focusing depth information, and controlling the first lens to move to the target position characterized in that the method further comprises: calculating M pieces of first depth information of M same feature point pairs in corresponding areas in the first image and the second image, wherein M is a positive integer; determining whether confidence of the M pieces of first depth information is greater than a threshold; and obtaining focusing depth information according to N pieces of first depth information in the M pieces of first depth information when the confidence of the M pieces of first depth information is greater than the threshold, wherein N is a positive integer less than or equal to M. at a same moment, collecting a first image of a first object by using a first image shooting unit (201, 401), and collecting a second image of the first object by using a second image shooting unit (202, 402); and obtaining a target position of a first lens of the first image shooting unit according to focusing depth information, and controlling the first lens to move to the target position characterized in that the method further comprises: calculating M pieces of first depth information of M same feature point pairs in corresponding areas in the first image and the second image, wherein M is a positive integer; determining whether confidence of the M pieces of first depth information is greater than a threshold; and obtaining focusing depth information according to N pieces of first depth information in the M pieces of first depth information when the confidence of the M pieces of first depth information is greater than the threshold, wherein N is a positive integer less than or equal to M. calculating M pieces of first depth information of M same feature point pairs in corresponding areas in the first image and the second image, wherein M is a positive integer; determining whether confidence of the M pieces of first depth information is greater than a threshold; and obtaining focusing depth information according to N pieces of first depth information in the M pieces of first depth information when the confidence of the M pieces of first depth information is greater than the threshold, wherein N is a positive integer less than or equal to M.
A microcatheter comprising: a first flexible tubular body defining a longitudinal axis (A-A), the body having a proximal end, a distal end and a first lumen extending at least partially therethrough; and a second flexible tubular body extending substantially parallel to the longitudinal axis (A-A) along at least a portion of its length and having a second lumen extending at least partially therethrough, the first lumen and the second lumen being coaxially disposed along at least a majority of the length of the second lumen, a distal end of the first lumen extends farther distally than a distal end of the second lumen by a distance x, wherein the first flexible tubular body and the second flexible tubular body are threadably connected, such that the first and second flexible tubular bodies may be rotated relative to each other to alter the distance x, and characterised in that the second flexible tubular body defines a distal exit port in fluid communication with the second lumen. a first flexible tubular body defining a longitudinal axis (A-A), the body having a proximal end, a distal end and a first lumen extending at least partially therethrough; and a second flexible tubular body extending substantially parallel to the longitudinal axis (A-A) along at least a portion of its length and having a second lumen extending at least partially therethrough, the first lumen and the second lumen being coaxially disposed along at least a majority of the length of the second lumen, a distal end of the first lumen extends farther distally than a distal end of the second lumen by a distance x, wherein the first flexible tubular body and the second flexible tubular body are threadably connected, such that the first and second flexible tubular bodies may be rotated relative to each other to alter the distance x, and characterised in that the second flexible tubular body defines a distal exit port in fluid communication with the second lumen.
A method of forming an orthopaedic implant (100, 300, 800, 900, 1000, 1200, 1500, 1700), comprising: heat bonding a porous material to a surface of an insert to form a bonded insert (1 10, 610, 710); characterized in placing a bare portion (113, 611, 711) of the bonded insert (110, 610, 710) in an opening (102, 302, 721) formed in a material of an implant body (101, 301, 720, 820, 920, 1020, 1210, 1510, 1710); and heat bonding the bare portion (113, 611, 711) to the material to bond the bonded insert (110, 610, 710) to the implant body (101, 301, 720, 820, 920, 1020, 1210, 1510, 1710). heat bonding a porous material to a surface of an insert to form a bonded insert (1 10, 610, 710); characterized in placing a bare portion (113, 611, 711) of the bonded insert (110, 610, 710) in an opening (102, 302, 721) formed in a material of an implant body (101, 301, 720, 820, 920, 1020, 1210, 1510, 1710); and heat bonding the bare portion (113, 611, 711) to the material to bond the bonded insert (110, 610, 710) to the implant body (101, 301, 720, 820, 920, 1020, 1210, 1510, 1710).
An inspection device (14, 140) that inspects a first power source-side circuit in a power supply system (1, 100, 101), wherein the power supply system (1, 100, 101) includes the first power source-side circuit including a first DC power source that generates electric power or performs charging/discharging, a power converter (13, 130) that converts electric power supplied from the first power source-side circuit, and a first cutoff mechanism that cuts off electrical connection between the first power source-side circuit and the power converter (13, 130), wherein said inspection device (14, 140) further comprises: a measurement unit (73, 75) that measures an impedance of the first power source-side circuit; and a first separation determining unit that determines whether the first power source-side circuit is electrically separated from the power converter (13, 130) by the first cutoff mechanism on the basis of a capacitive component of the impedance measured by the measurement unit (73, 75), characterized in that when the capacitive component of the impedance is less than a preset value, the first separation determining unit determines that the first power source-side circuit is electrically separated from the power converter (13, 130). a measurement unit (73, 75) that measures an impedance of the first power source-side circuit; and a first separation determining unit that determines whether the first power source-side circuit is electrically separated from the power converter (13, 130) by the first cutoff mechanism on the basis of a capacitive component of the impedance measured by the measurement unit (73, 75), characterized in that when the capacitive component of the impedance is less than a preset value, the first separation determining unit determines that the first power source-side circuit is electrically separated from the power converter (13, 130).
A spherical annular seal member for use in an exhaust pipe joint, comprising: a spherical annular base member defined by a cylindrical inner surface, a partially convex spherical surface, and large- and small-diameter side annular end faces (34, 35) of said partially convex spherical surface; and an outer layer formed integrally on said partially convex spherical surface of said spherical annular base member, wherein said spherical annular base member includes a reinforcing member made from a metal wire net and a heat-resistant material containing expanded graphite and compressed in such a manner as to fill meshes of the metal wire net of said reinforcing member and to be integrated with said reinforcing member in mixed form, wherein, in said outer layer, a heat-resistant material containing expanded graphite, a sintered solid lubricant of a lubricating composition containing 23 to 75% by mass of hexagonal boron nitride and 23 to 75% by mass of a molten fluorocarbon resin, and a reinforcing member made from a metal wire net are compressed such that said solid lubricant and said heat-resistant material are filled in meshes of said reinforcing member, and such that said solid lubricant, said heat-resistant material, and said reinforcing member are integrated in mixed form, an outer surface of said outer layer being formed into a smooth surface in which a surface constituted by said reinforcing member and a surface constituted by said solid lubricant are present in mixed form, wherein said heat-resistant material contains an aluminum primary phosphate at a ratio of 0.5 to 16% by mass, characterized in that a tetrafluoroethylene-hexafluoropropylene copolymer is used as said molten fluorocarbon resin in said lubricating composition.
A method of controlling the defrosting of an evaporator of a piece of refrigeration equipment, in which (a) an actual frost formation at the evaporator is estimated by measuring at least the environmental temperature (T U) and the air humidity (rF U) of the environment, characterized in that (b) a nominal frost formation at the evaporator is estimated for a nominal operating point of the refrigeration equipment, with a nominal frosting rate being known for the nominal operating point and with the estimation of the nominal frost formation taking place analog to the estimation of the actual frost formation; with - the measured environmental temperature (T U) being replaced with a nominal environmental temperature; or - the measured air humidity (rF U) of the environment being replaced with a nominal air humidity; or - the measured environmental temperature (T U) being replaced by a nominal environmental temperature and the measured air humidity (rF U) being replaced with a nominal air humidity; and (c) in that the estimated actual frost formation and the estimated nominal frost formation are set into relationship with one another in order to determine a next defrosting time or to fix a type of defrosting from the relationship and from the known nominal frosting rate. (a) an actual frost formation at the evaporator is estimated by measuring at least the environmental temperature (T U) and the air humidity (rF U) of the environment, (b) a nominal frost formation at the evaporator is estimated for a nominal operating point of the refrigeration equipment, with a nominal frosting rate being known for the nominal operating point and with the estimation of the nominal frost formation taking place analog to the estimation of the actual frost formation; with - the measured environmental temperature (T U) being replaced with a nominal environmental temperature; or - the measured air humidity (rF U) of the environment being replaced with a nominal air humidity; or - the measured environmental temperature (T U) being replaced by a nominal environmental temperature and the measured air humidity (rF U) being replaced with a nominal air humidity; and - the measured environmental temperature (T U) being replaced with a nominal environmental temperature; or - the measured air humidity (rF U) of the environment being replaced with a nominal air humidity; or - the measured environmental temperature (T U) being replaced by a nominal environmental temperature and the measured air humidity (rF U) being replaced with a nominal air humidity; and (c) in that the estimated actual frost formation and the estimated nominal frost formation are set into relationship with one another in order to determine a next defrosting time or to fix a type of defrosting from the relationship and from the known nominal frosting rate.
A process for preparing a compound of Formula: or a salt thereof, comprising: (a) treating an isolated compound of Formula 13: or a salt thereof with a compound of Formula 14: or a salt thereof to form a compound of Formula; and (b) optionally forming a salt of the compound of Formula; wherein X is halogen, C 1 -C 6 alkoxy, C 6 -C 10 aryloxy or a 5-membered heteroaryl containing at least one nitrogen directly bonded to the C=O of the compound of formula 13, each optionally substituted with one or more substituents independently selected from the group consisting of C 1 -C 6 alkyl, C 1 -C 6 haloalkyl, halogen, CN, OH, C 1 -C 6 alkoxy, and NR 1 R 2, where R 1 and R 2 are each independently selected from hydrogen and C 1 -C 6 alkyl. (a) treating an isolated compound of Formula 13: or a salt thereof with a compound of Formula 14: or a salt thereof to form a compound of Formula; and (b) optionally forming a salt of the compound of Formula;
Apparatus for inducing a mechanical wave in at least one region of the body and/or organ and/or tissue of a human or animal subject, said apparatus comprising: - means for generating a pressure wave of a given frequency in a gaseous medium, and - waveguide means in the form of a transmission tube for guiding, in air or any other gas mixture that may be used to ventilate the human or animal subject, said pressure wave from said generating means to a human or animal body, - an adaptation hose arranged on the extremity of the waveguide at the human or animal body's side, for adapting this extremity of the waveguide to a surface or a cavity of said body, characterized in that the generated wave is transmitted to the human or animal body in a gaseous medium without a mechanical transmission by means of solid media. - means for generating a pressure wave of a given frequency in a gaseous medium, and - waveguide means in the form of a transmission tube for guiding, in air or any other gas mixture that may be used to ventilate the human or animal subject, said pressure wave from said generating means to a human or animal body, - an adaptation hose arranged on the extremity of the waveguide at the human or animal body's side, for adapting this extremity of the waveguide to a surface or a cavity of said body, characterized in that the generated wave is transmitted to the human or animal body in a gaseous medium without a mechanical transmission by means of solid media.
A suturing instrument, comprising: a handle; an elongate shaft extending from the handle, at least a portion of the elongate shaft being flexible; one or more pull wires (28, 30, 32, 24) extending from the handle into the flexible portion of the elongate shaft for deflecting the flexible portion of elongate shaft; and a suturing head extending from a distal end of the elongate shaft, the suturing head comprising a needle carrier channel, a needle carrier configured to releasably hold a needle, and a needle catch, the needle carrier being movably disposed within the needle carrier channel; characterized in that the elongate shaft comprises a flexible coil, the flexible coil configured to be bent by a user's hand in a shape prior to insertion into a body passage such that the flexible coil retains the shape during use. a handle; an elongate shaft extending from the handle, at least a portion of the elongate shaft being flexible; one or more pull wires (28, 30, 32, 24) extending from the handle into the flexible portion of the elongate shaft for deflecting the flexible portion of elongate shaft; and a suturing head extending from a distal end of the elongate shaft, the suturing head comprising a needle carrier channel, a needle carrier configured to releasably hold a needle, and a needle catch, the needle carrier being movably disposed within the needle carrier channel;
An implantable medical device, having: - a device housing, comprising a first device housing shell and a second device housing shell, wherein the device housing surrounds an interior, - an electrical component (130, 131) arranged in the interior, the electrical component being a battery or a capacitor, - a mounting frame, which is arranged in the interior and surrounds the electrical component (130, 131), - wherein the mounting frame comprises at least one clamping structure (30, 31), and wherein the at least one clamping structure (30, 31) is designed to exert a force onto the electrical component in order to fix the electrical component in the interior of the device housing, and wherein the electrical component is a battery or a capacitor, characterized in that the at least one clamping structure is designed as a rocker, wherein the rocker comprises at least a first arm and a second arm, wherein the first arm and the second arm protrude in different directions from a web formed by the mounting frame. - a device housing, comprising a first device housing shell and a second device housing shell, wherein the device housing surrounds an interior, - an electrical component (130, 131) arranged in the interior, the electrical component being a battery or a capacitor, - a mounting frame, which is arranged in the interior and surrounds the electrical component (130, 131), - wherein the mounting frame comprises at least one clamping structure (30, 31), and wherein the at least one clamping structure (30, 31) is designed to exert a force onto the electrical component in order to fix the electrical component in the interior of the device housing, and