mhurhangee/ep-ind-claims huggingface dataset:
A method for controlling, by a multipath control entity, a remote access from a client device to a server connected to a residential multipath entity, via a multipath connection including at least two transmission networks (11, 12) between the client device and the server, comprising: - receiving a session request for an establishment of a data session from the residential multipath entity, the session request indicating that the session request is for the remote access to the server, - determining a session identifier for the remote access including the multipath connection, - transmitting in a response to the received session request the determined session identifier back to the residential multipath entity. - receiving a session request for an establishment of a data session from the residential multipath entity, the session request indicating that the session request is for the remote access to the server, - determining a session identifier for the remote access including the multipath connection, - transmitting in a response to the received session request the determined session identifier back to the residential multipath entity.
A camera module comprising: a housing including a first housing and a second housing under the first housing; a lens barrel disposed in the first housing; characterized by a first driving module disposed between the first housing and the lens barrel, the first driving module including a first coil means fixed to the first housing and a magnet means fixed to the lens barrel, the first coil means and the magnet means spaced apart from and facing each other in a direction of perpendicular to an optical axis of the lens barrel; a second driving module disposed on the second housing, the second driving module including a second coil means coupled to the second housing and the magnet means facing the second coil means in a direction of parallel to the optical axis; an elastic member connecting the housing and the lens barrel; a filter disposed under the lens barrel; a sensor unit disposed under the filter; and a circuit board disposed under the sensor unit and coupled to the second housing, wherein the first coil means and the second coil means are electrically connected to the circuit board, wherein the first housing includes four side surfaces, wherein the magnet means includes four magnets, each magnet having a shape of plate and facing one of the four side surfaces of the first housing, respectively, and wherein the second coil means includes four coils, each coil disposed between the second housing and the four magnets, respectively, and wound around an axis parallel with the optical axis. a housing including a first housing and a second housing under the first housing; a lens barrel disposed in the first housing; characterized by a first driving module disposed between the first housing and the lens barrel, the first driving module including a first coil means fixed to the first housing and a magnet means fixed to the lens barrel, the first coil means and the magnet means spaced apart from and facing each other in a direction of perpendicular to an optical axis of the lens barrel; a second driving module disposed on the second housing, the second driving module including a second coil means coupled to the second housing and the magnet means facing the second coil means in a direction of parallel to the optical axis; an elastic member connecting the housing and the lens barrel; a filter disposed under the lens barrel; a sensor unit disposed under the filter; and a circuit board disposed under the sensor unit and coupled to the second housing, wherein the first coil means and the second coil means are electrically connected to the circuit board, wherein the first housing includes four side surfaces, wherein the magnet means includes four magnets, each magnet having a shape of plate and facing one of the four side surfaces of the first housing, respectively, and wherein the second coil means includes four coils, each coil disposed between the second housing and the four magnets, respectively, and wound around an axis parallel with the optical axis.
A pneumatic tire comprising a tread wherein the tread includes: an oblique groove (20, 21) extending from a ground-contacting end to an equator; and a block (100, 101) formed along the oblique groove (20, 21) and alternately placed with the oblique groove (20, 21) in a tire circumferential direction, the tread further includes a plurality of circumferential grooves (25, 26, 27, 28, 29) which partition the block (100, 101) into a shoulder zone (50, 60), a center zone (30, 40) positioned on the side of the equator, and an intermediate zone (70, 80) positioned between the center zone (30, 40) and the shoulder zone (50, 60), the block (100, 101) has a first sipe (51, 61) extending along the oblique groove (20, 21) in the shoulder zone (50, 60) positioned on the side of the ground-contacting end, and a second sipe (71, 81) extending along the oblique groove (20, 21) in the intermediate zone (70, 80), characterized in that the tread comprises a first inclined surface (52,62) located at an edge of the first sipe (51, 61) and along a length direction of the first sipe (51,61), the first inclined surface (52,62) forming a first incision (520, 620) and the first incision (520,620) being formed in the shoulder zone (50, 60) and a second inclined surface (72,82) located at an edge of the second sipe (71,81) and along a length direction of the second sipe (71,81), the second inclined surface (72,82) forming a second incision (720,820), wherein the first incision (520, 620) and the second incision (720, 820) are formed at portions adjacent to the circumferential groove (26, 27). an oblique groove (20, 21) extending from a ground-contacting end to an equator; and a block (100, 101) formed along the oblique groove (20, 21) and alternately placed with the oblique groove (20, 21) in a tire circumferential direction, the tread further includes a plurality of circumferential grooves (25, 26, 27, 28, 29) which partition the block (100, 101) into a shoulder zone (50, 60), a center zone (30, 40) positioned on the side of the equator, and an intermediate zone (70, 80) positioned between the center zone (30, 40) and the shoulder zone (50, 60), the block (100, 101) has a first sipe (51, 61) extending along the oblique groove (20, 21) in the shoulder zone (50, 60) positioned on the side of the ground-contacting end, and a second sipe (71, 81) extending along the oblique groove (20, 21) in the intermediate zone (70, 80), characterized in that the tread comprises a first inclined surface (52,62) located at an edge of the first sipe (51, 61) and along a length direction of the first sipe (51,61), the first inclined surface (52,62) forming a first incision (520, 620) and the first incision (520,620) being formed in the shoulder zone (50, 60) and a second inclined surface (72,82) located at an edge of the second sipe (71,81) and along a length direction of the second sipe (71,81), the second inclined surface (72,82) forming a second incision (720,820), wherein the first incision (520, 620) and the second incision (720, 820) are formed at portions adjacent to the circumferential groove (26, 27).
A temperature measurement system, comprising: - a temperature measurement object; - an optical fiber provided on the temperature measurement object; - an intermediate material which is provided on the optical fiber and - a pressing jig which is provided on the temperature measurement object, and is configured to press the optical fiber against the temperature measurement object through intermediation of the intermediate material, - wherein the optical fiber is expandable and contractible in a longitudinal direction of the optical fiber due to a change in a temperature of the optical fiber with respect to the temperature measurement object and the intermediate material, characterized in that the intermediate material contains a paste-like substance infiltrated therein, wherein the paste-like substance has an NLGI consistency number of 00 or more and 5 or less. - a temperature measurement object; - an optical fiber provided on the temperature measurement object; - an intermediate material which is provided on the optical fiber and - a pressing jig which is provided on the temperature measurement object, and is configured to press the optical fiber against the temperature measurement object through intermediation of the intermediate material, - wherein the optical fiber is expandable and contractible in a longitudinal direction of the optical fiber due to a change in a temperature of the optical fiber with respect to the temperature measurement object and the intermediate material, characterized in that the intermediate material contains a paste-like substance infiltrated therein, wherein the paste-like substance has an NLGI consistency number of 00 or more and 5 or less.
Exhaust gas sensor comprising a sleeve-like sensor housing, a sensor element which is fixed in the sensor housing and which protrudes beyond the sensor housing on the exhaust gas side, and a sleeve-like protective tube which is fastened on the sensor housing on the exhaust gas side, wherein the protective tube consists of an inner protective sleeve and an outer protective sleeve, wherein the inner protective sleeve surrounds an exhaust gas-side end region of the sensor element, wherein the outer protective sleeve surrounds the inner protective sleeve at least in regions, so that an annular space is formed between the outer protective sleeve and the inner protective sleeve, wherein the outer protective sleeve and the inner protective sleeve each have a gas outlet and a gas inlet, and flow through the protective tube in the case of a negative gradient, facing in the axial direction, of the static pressure in the exhaust gas, that is to say when the static pressure at the exhaust gas-side axial end of the protective tube is lower than at the axial end of the protective tube facing away from the exhaust gas, the protective tube necessarily takes place from the gas inlet of the outer protective sleeve into the annular space, from there through the gas inlet of the inner protective sleeve into the interior of the inner protective housing and from there through the gas outlets of the outer and the inner protective sleeve (21, 22), wherein the gas inlet of the inner protective sleeve forms the smallest flow cross section during flow through the protective tube and wherein the exhaust gas sensor is a particle sensor for determining the concentration of soot in the exhaust gas of an internal combustion engine and the gas inlet of the inner protective sleeve is arranged at the axial height of the sensor element, wherein a sensitive region is arranged on the sensor element, wherein the sensor element is designed as a planar sensor element and the sensitive region is arranged only on a portion of a side face of the sensor element, and the gas inlet of the inner protective sleeve is arranged only on a radial and/or axial subregion of the inner protective sleeve, and the sensitive region and the gas inlet of the inner protective sleeve are situated opposite each other, so that exhaust gas entering the interior of the inner protective sleeve always flows directly against the sensitive region and the sensitive region of the sensor element is an interdigital electrode structure.
A 3-dimensional confocal microscopy apparatus comprising: a light source for a first laser (1, 10) for confocal imaging excitation; a 2-dimensional scanning optical system for scanning the first laser on a specimen; an objective lens (2, 12) for focusing the first laser supplied from the light source on a fluorescent specimen which is an object to be observed; a fluorescent light imaging camera for detecting a fluorescent confocal microscopy image based on a fluorescent light emitted from the fluorescent specimen; a pair of lenses (14, 15); lens drive means; a beam splitter or a dichroic mirror and a light source for a second laser; wherein the pair of lenses (14, 15) for focal plane displacement is arranged between the objective lens and the fluorescent light imaging camera, the pair of lenses for focal plane displacement being constituted of an intermediate imaging lens which forms an intermediate image of the fluorescent confocal microscopy image of the specimen and an intermediate objective lens arranged such that a focal point of the intermediate objective lens overlaps with a focal point of the intermediate imaging lens on the same optical axis, and at least one lens out of these lenses being movable in an optical axis direction by the lens drive means, the 3-dimensional confocal microscopy apparatus further includes a computer having an arithmetic operation means for acquiring a 3-dimensional structural image of the specimen by correcting aberration of the fluorescent confocal microscopy image caused by the movement of the lens of the pair of lenses for focal plane displacement in real time using the fluorescent confocal microscopy image acquired by the fluorescent light imaging camera and aberration correction data which is acquired in advance by performing provisional measurement of a sample specimen, and a means which displays a corrected image obtained by the arithmetic operation means, wherein the beam splitter or a dichroic mirror is provided between the pair of lenses for focal plane displacement and the objective lens, and the second laser supplied from the light source for a second laser for optical tweezers passes through the objective lens via the beam splitter or the dichroic mirror and is focused on the specimen.
Method for applying a transfer ply of a film onto a substrate, having the following steps: a) regionally applying a radically curable adhesive onto the transfer ply and/or the substrate by means of an inkjet printing head; b) pre-curing the adhesive by means of UV radiation; c) applying the transfer ply onto the substrate by means of a stamping device; d) curing the adhesive by means of UV radiation; e) removing a transfer ply of the film, wherein at least one first partial region of the transfer ply remains on an application region of the substrate, and at least one second partial region of the transfer ply remains on the carrier ply; f) unfurling or rewinding the transfer ply with the remaining second partial region of the transfer ply; g) applying at least one further partial region of the transfer ply remaining on the carrier ply onto the substrate by repeating steps a) to f) at least once; wherein an extension of the film is set to a value of from 1‰ to 6‰ by means of a transport device. a) regionally applying a radically curable adhesive onto the transfer ply and/or the substrate by means of an inkjet printing head; b) pre-curing the adhesive by means of UV radiation; c) applying the transfer ply onto the substrate by means of a stamping device; d) curing the adhesive by means of UV radiation; e) removing a transfer ply of the film, wherein at least one first partial region of the transfer ply remains on an application region of the substrate, and at least one second partial region of the transfer ply remains on the carrier ply; f) unfurling or rewinding the transfer ply with the remaining second partial region of the transfer ply; g) applying at least one further partial region of the transfer ply remaining on the carrier ply onto the substrate by repeating steps a) to f) at least once;
An exhaust emission control device comprising a selective reduction catalyst for reacting NOx in an exhaust gas with ammonia, urea water adding means for adding a urea water into the exhaust gas upstream of said selective reduction catalyst and a cylindrical mixing pipe as a connection between said urea water adding means and said selective reduction catalyst, an entry end of said mixing pipe being formed with circumferential opening sections and provided with guide fins (12, 13, 14) for guiding the exhaust gas to said opening sections tangentially of said entry end to thereby provide a mixer structure, said urea water adding means being arranged centrally on the entry end of said mixing pipe and directed toward an exit end thereof for addition of the urea water into a swirling flow of the exhaust gas caused by said mixer structure, characterized in, that one side of the opening section is formed along said swirling flow, inclined at an angle relative to a direction parallel to an axis of the mixing pipe.
Damping arrangement for a transmission device for electrical energy which is mounted such that it can oscillate and comprises a supporting frame, which is connected to at least one in particular stationary abutment via a plurality of damping elements (7, 8), characterized in that a first and a second damping element, which have mutually differently rated damping rates and are arranged in parallel, connect the mounting frame to an abutment and wherein a plurality of damping elements (7, 8) are arranged distributed along a path, wherein first and second damping elements (7, 8) alternate with one another over the course of the path.
A chemical mechanical polishing pad for polishing a substrate selected from at least one of a magnetic substrate, an optical substrate and a semiconductor substrate; comprising: a polishing layer comprising an interpenetrating network, wherein the interpenetrating network comprises a continuous non-fugitive phase and a substantially co-continuous fugitive phase; and wherein the polishing layer has a polishing surface adapted for polishing the substrate, characterized in that said co-continuous fugitive phase melts upon exposure to heat generated during polishing. a polishing layer comprising an interpenetrating network, wherein the interpenetrating network comprises a continuous non-fugitive phase and a substantially co-continuous fugitive phase; and wherein the polishing layer has a polishing surface adapted for polishing the substrate, characterized in that said co-continuous fugitive phase melts upon exposure to heat generated during polishing.
An edge enhancement processing apparatus comprising: an image-data obtaining unit which obtains multi-level image data representing an image with pixels in dot matrix; an edge enhancement level obtaining unit which obtains an edge enhancement level based on a difference between a set sharpness level and a sharpness level of the image; It an edge enhancement level correction unit which detects an image size of the image data, comprising a height of the image data in a vertical direction and a width of the image data in a lateral direction, and corrects the edge enhancement level by multiplying the edge enhancement level by a coefficient determined in accordance with the minimum of the height or the width so that the coefficient increases with an increase in the minimum of the height or the width; and an edge enhancement unit which performs edge enhancement processing on respective edge pixels based on the corrected edge enhancement level. an image-data obtaining unit which obtains multi-level image data representing an image with pixels in dot matrix; an edge enhancement level obtaining unit which obtains an edge enhancement level based on a difference between a set sharpness level and a sharpness level of the image; It an edge enhancement level correction unit which detects an image size of the image data, comprising a height of the image data in a vertical direction and a width of the image data in a lateral direction, and corrects the edge enhancement level by multiplying the edge enhancement level by a coefficient determined in accordance with the minimum of the height or the width so that the coefficient increases with an increase in the minimum of the height or the width; and an edge enhancement unit which performs edge enhancement processing on respective edge pixels based on the corrected edge enhancement level.
Method for producing a cable harness, wherein a number of individual lines are combined to form one line bundle (6, 10), and wherein the line bundle (6, 10) is provided (VS4, VS5) with a bundling element, wherein the bundling element is configured as a textile-type fiber interlacement having a non-oriented fiber distribution, wherein to this end a suspension in which loose fibers and binding agents are contained and which following application solidifies so as to configure the textile-type fiber interlacement is applied to the line bundle (6, 10), characterized in that an aerosol is produced from the suspension and a propellant gas and wherein the aerosol is sprayed onto the line bundle (6, 10) and the suspension is thus sprayed onto the line bundle (6, 10).
A battery device that functions as a power source of a tool main body and is attachable to a body of a user, comprising a battery housing that is capable of removably receiving at least one rechargeable battery and capable of being electrically connected to the at least one battery, an adaptor that is capable of being electrically connected to the tool main body, and a cable electrically connecting the battery housing and the adaptor, wherein the battery housing comprises a housing body having an open-topped box shape, wherein the housing body is constructed to be attached to the body of the user, and comprising a battery connection portion capable of receiving the at least one battery therein, and a cover member that is openably and closably attached to the housing body, wherein the battery connection portion comprises a female hook mechanism, wherein the housing body and the at least one battery are connected to each other via a male-female engagement device comprising the female hook mechanism and a male hook mechanism formed at the battery, and wherein the male hook mechanism has an engagement release portion that is positioned so as to be exposed when the cover member is opened relative to the housing body, when the battery is received in the battery connection portion.
A method for producing a flavor source that supports an inhaling flavor component contained in a tobacco raw material, the method comprising: step A of performing an alkali treatment on the tobacco raw material; and step B of arranging an alkali-treated tobacco raw material and a flavor base material configured by non-tobacco material within a same space in such a way that the alkali-treated tobacco raw material and the flavor base material are maintained in a non-contacting state, thereby inducing the flavor base material to support the inhaling flavor component emitted as a vapor phase from the tobacco raw material, wherein the flavor base material is a capture solvent, and the method includes step E of adding a carboxylic acid to the capture solvent. step A of performing an alkali treatment on the tobacco raw material; and step B of arranging an alkali-treated tobacco raw material and a flavor base material configured by non-tobacco material within a same space in such a way that the alkali-treated tobacco raw material and the flavor base material are maintained in a non-contacting state, thereby inducing the flavor base material to support the inhaling flavor component emitted as a vapor phase from the tobacco raw material, wherein the flavor base material is a capture solvent, and the method includes step E of adding a carboxylic acid to the capture solvent.