mhurhangee/ep-ind-claims huggingface dataset:
A method for treating a printing plate developer liquid, the method comprising the steps of: performing a waste liquid treatment by making a developer waste liquid pass through a packed bed filled with activated carbon, the developer waste liquid containing a polymer component that is generated in a developing step to perform development of a printing plate member comprising a photosensitive resin layer on which a latent image is formed with the use of an aqueous developer liquid mainly comprising water, the polymer content comprising a water-insoluble polymer selected from butadiene rubber, chloroprene rubber, acrylonitrile butadiene rubber, acrylic rubber, epichlorohydrin rubber, urethane rubber, isoprene rubber, styrene-isoprene rubber, styrene-butadiene rubber, ethylene-propylene copolymer, and chlorinated polyethylene; and replacing a passage liquid that is made to pass through the packed bed in a supply unit supplying the aqueous developer liquid in a developing machine, and reusing the passage liquid as an aqueous developer liquid, wherein a switch is made alternately between a washing treatment to wash the activated carbon in the packed bed by making water vapor pass through the packed bed through which the developer waste liquid is made to pass and a waste liquid treatment to make the developer waste liquid pass through the packed bed filled with the activated carbon. performing a waste liquid treatment by making a developer waste liquid pass through a packed bed filled with activated carbon, the developer waste liquid containing a polymer component that is generated in a developing step to perform development of a printing plate member comprising a photosensitive resin layer on which a latent image is formed with the use of an aqueous developer liquid mainly comprising water, the polymer content comprising a water-insoluble polymer selected from butadiene rubber, chloroprene rubber, acrylonitrile butadiene rubber, acrylic rubber, epichlorohydrin rubber, urethane rubber, isoprene rubber, styrene-isoprene rubber, styrene-butadiene rubber, ethylene-propylene copolymer, and chlorinated polyethylene; and replacing a passage liquid that is made to pass through the packed bed in a supply unit supplying the aqueous developer liquid in a developing machine, and reusing the passage liquid as an aqueous developer liquid,
Method for manufacturing a porous packing for chromatography which comprises a plurality of capillary channels which extend in the direction of flow of a liquid, gaseous or supercritical mobile phase within said packing, said method comprising the following steps: - a bundle of elementary fibres is assembled, said fibres comprising a core made of a solid or liquid material, and a shell made of a drawable material adapted to be made porous, the shell material being a borosilicate glass or a thermoplastic polymer comprising a pore-forming material and a binder, - said bundle is drawn in order to reduce the diameter of said fibres, - a porous matrix is made around the core of the drawn fibres, the manufacture of said porous matrix comprising a spinodal decomposition of the borosilicate glass or a chemical attack or solubilisation of the pore-forming material of the polymer, said porous matrix comprising at least one population of connected pores interconnecting the channels formed by the core of each drawn fibre, where the mean thickness of the porous matrix between two adjacent channels, determined by scanning electron microscopy image analysis on a section of the packing parallel to the channels, is less than the mean diameter of the channels determined by image analysis on a section of the packing parallel to the channels, preferably less than half the mean diameter of the channels, - the core material is removed so as to leave free channels in the porous matrix. - a bundle of elementary fibres is assembled, said fibres comprising a core made of a solid or liquid material, and a shell made of a drawable material adapted to be made porous, the shell material being a borosilicate glass or a thermoplastic polymer comprising a pore-forming material and a binder, - said bundle is drawn in order to reduce the diameter of said fibres, - a porous matrix is made around the core of the drawn fibres, the manufacture of said porous matrix comprising a spinodal decomposition of the borosilicate glass or a chemical attack or solubilisation of the pore-forming material of the polymer, said porous matrix comprising at least one population of connected pores interconnecting the channels formed by the core of each drawn fibre, where the mean thickness of the porous matrix between two adjacent channels, determined by scanning electron microscopy image analysis on a section of the packing parallel to the channels, is less than the mean diameter of the channels determined by image analysis on a section of the packing parallel to the channels, preferably less than half the mean diameter of the channels, - the core material is removed so as to leave free channels in the porous matrix.
A method for resampling an audio frequency signal in an audio frequency signal decoding, the resampling being performed by an interpolation method of order higher than one, characterized in that the interpolated samples are obtained via the following operations: - computing and storing m+1 coefficients of an interpolation polynomial of order m higher than 1, per set of m+1 consecutive temporal samples of the audio frequency signal (-1, 0, 1, 2) and for a plurality of sets of m+1 samples; - for a sample to be interpolated at a given temporal location (x) between two temporal samples ([0,1]), obtaining an interpolated sample via a computation of a weighted average of m possible interpolation values for this given temporal location (x), each of these m possible interpolation values (vcp(x), vcc(x), vcs(x)) being computed using the stored coefficients of one of the interpolation polynomials of order m (preceding cubic (a n-1, b n-1, c n-1, d n-1), central cubic (a n, b n, c n, d n), next cubic (a n+1, b n+1, C n+1 and d n+1)) computed beforehand on one of the plurality of sets of m+1 consecutive samples, each of these m sets of m+1 samples being different and including the two samples that flank the given temporal location (x), the weighted average comprising at least two weighting coefficients different from zero. - computing and storing m+1 coefficients of an interpolation polynomial of order m higher than 1, per set of m+1 consecutive temporal samples of the audio frequency signal (-1, 0, 1, 2) and for a plurality of sets of m+1 samples; - for a sample to be interpolated at a given temporal location (x) between two temporal samples ([0,1]), obtaining an interpolated sample via a computation of a weighted average of m possible interpolation values for this given temporal location (x), each of these m possible interpolation values (vcp(x), vcc(x), vcs(x)) being computed using the stored coefficients of one of the interpolation polynomials of order m (preceding cubic (a n-1, b n-1, c n-1, d n-1), central cubic (a n, b n, c n, d n), next cubic (a n+1, b n+1, C n+1 and d n+1)) computed beforehand on one of the plurality of sets of m+1 consecutive samples, each of these m sets of m+1 samples being different and including the two samples that flank the given temporal location (x),
An arrangement for positioning suspended construction elements in dry construction, comprising at least one metal suspension element having an accommodating region (2.1) and a metal construction element, wherein the suspension element is U-shaped having legs (2.2, 2.2') extending parallel to one another, and a positioning element having magnetic means (4, 5) and being insertable in the accommodating region (2.1) is associated with the suspension element, and the magnetic forces caused by the magnetic means (4, 5) act on the legs (2.2, 2.2') of the suspension element or the legs (2.2, 2.2') of the suspension element and the construction element in such a manner that the construction element is slideably fixed with respect to the suspension element by means of the positioning element, characterized in that the metal construction element is accommodated in the accommodating region (2.1) of the suspension elements and the region enclosed by the legs (2.2, 2.2') forms the accommodating region (2.1) for the construction element.
A knitwear including: a tubular knitted fabric portion in which a front side knitted fabric portion and a back side knitted fabric portion are joined to a tubular shape; and a single layer knitted fabric portion joined to the tubular knitted fabric portion, the knitwear characterized in that, assuming a portion having a knitting width of at least one stitch on the single layer knitted fabric portion side of the back side knitted fabric portion configuring the tubular knitted fabric portion as a partial knitted fabric portion and a remaining portion of the back side knitted fabric portion excluding the partial knitted fabric portion as a remaining knitted fabric portion, the single layer knitted fabric portion and the partial knitted fabric portion are knitted with a first knitting yarn, the remaining knitted fabric portion and the front side knitted fabric portion are knitted with a second knitting yarn, the single layer knitted fabric portion and the front side knitted fabric portion are joined in a seamless manner, and the partial knitted fabric portion and the remaining knitted fabric portion are joined in a seamless manner, and at least the stitch on the single layer knitted fabric portion side of the stitches configuring the partial knitted fabric portion is a front stitch when the knitwear is viewed from the front side. a tubular knitted fabric portion in which a front side knitted fabric portion and a back side knitted fabric portion are joined to a tubular shape; and a single layer knitted fabric portion joined to the tubular knitted fabric portion, the knitwear characterized in that, assuming a portion having a knitting width of at least one stitch on the single layer knitted fabric portion side of the back side knitted fabric portion configuring the tubular knitted fabric portion as a partial knitted fabric portion and a remaining portion of the back side knitted fabric portion excluding the partial knitted fabric portion as a remaining knitted fabric portion, the single layer knitted fabric portion and the partial knitted fabric portion are knitted with a first knitting yarn, the remaining knitted fabric portion and the front side knitted fabric portion are knitted with a second knitting yarn, the single layer knitted fabric portion and the front side knitted fabric portion are joined in a seamless manner, and the partial knitted fabric portion and the remaining knitted fabric portion are joined in a seamless manner, and at least the stitch on the single layer knitted fabric portion side of the stitches configuring the partial knitted fabric portion is a front stitch when the knitwear is viewed from the front side.
A humidification unit comprising: an inlet; an outlet, the inlet of the humidification unit being connectable to an outlet of a pressurized gas source and the outlet of the humidification unit being connectable to a delivery component, a flow passage being defined between the pressurized gas source and the delivery component; a wall defining at least a portion of the flow passage and comprising an aperture; and a barrier attached to the aperture of the wall and pneumatically sealing the aperture, the barrier configured to removably receive at least a portion of a sensor adapted to sense a gas flow characteristic within the flow passage, such that the barrier isolates the sensor from the flow passage and the at least a portion of the sensor can be positioned within the flow passage, wherein at least a portion of the barrier is adapted to stretch in use when the at least a portion of the sensor is inserted through the aperture. an inlet; an outlet, the inlet of the humidification unit being connectable to an outlet of a pressurized gas source and the outlet of the humidification unit being connectable to a delivery component, a flow passage being defined between the pressurized gas source and the delivery component; a wall defining at least a portion of the flow passage and comprising an aperture; and a barrier attached to the aperture of the wall and pneumatically sealing the aperture, the barrier configured to removably receive at least a portion of a sensor adapted to sense a gas flow characteristic within the flow passage, such that the barrier isolates the sensor from the flow passage and the at least a portion of the sensor can be positioned within the flow passage, wherein at least a portion of the barrier is adapted to stretch in use when the at least a portion of the sensor is inserted through the aperture.
A monitoring system, wherein the monitoring system is a microcontroller-based or microprocessor-based data processing system (300, 336, 902.1, 902.2, 902.3), which is operatively coupleable to a monitoring object (334, 920, 922, 924), wherein the monitoring system comprises: - at least one processor (304, 904.1, 904.2, 904.3); - a network interface; - at least one sensor, which is configured to detect a current state of the monitoring object; and/or a control unit (333, 344, 432) which is configured to change the state of the monitoring object; wherein the monitoring system is configured to: • receive a query via the network interface from a query unit; • carry out a first examination of the query by the processor; • if the first examination indicates that the query is not trustworthy, terminate the first examination without returning a response of any form to the query unit; • only if the first examination indicates that the query is trustworthy, carry out a further examination of the query by the processor; • only if the further examination of the query indicates that the query unit is sufficiently authorised, allow the transfer of state data of the monitoring object that have been detected by the at least one sensor to the query unit and/or change the state of the monitoring object by means of the control unit in accordance with the query. - at least one processor (304, 904.1, 904.2, 904.3); - a network interface; - at least one sensor, which is configured to detect a current state of the monitoring object; and/or a control unit (333, 344, 432) which is configured to change the state of the monitoring object; • receive a query via the network interface from a query unit; • carry out a first examination of the query by the processor; • if the first examination indicates that the query is not trustworthy, terminate the first examination without returning a response of any form to the query unit; • only if the first examination indicates that the query is trustworthy, carry out a further examination of the query by the processor; • only if the further examination of the query indicates that the query unit is sufficiently authorised, allow the transfer of state data of the monitoring object that have been detected by the at least one sensor to the query unit and/or change the state of the monitoring object by means of the control unit in accordance with the query.
A blade outer air seal assembly comprising: a first blade outer air seal defining a first featherseal slot and a second featherseal slot, said first featherseal slot including a post transverse thereto; a featherseal having a continuous longitudinal side and defining a longitudinal axis, said featherseal having a first lateral tab transverse to said longitudinal axis and a second lateral tab transverse to said longitudinal axis, said first lateral tab being spaced from said second lateral tab, and said first and second lateral tabs (80,82) being opposite said longitudinal side, relative to said longitudinal axis; and a second blade outer air seal adjacent said first blade outer seal, said second blade outer seal defining a first featherseal slot and a second featherseal slot, said first featherseal slot including a post transverse thereto, said featherseal being engaged with said second featherseal slot; wherein said featherseal defines a tab space between said first lateral tab and said second lateral tab, and said featherseal is engaged with said first featherseal slot of said first blade outer air seal such that said tab space is engaged with said post. a first blade outer air seal defining a first featherseal slot and a second featherseal slot, said first featherseal slot including a post transverse thereto; a featherseal having a continuous longitudinal side and defining a longitudinal axis, said featherseal having a first lateral tab transverse to said longitudinal axis and a second lateral tab transverse to said longitudinal axis, said first lateral tab being spaced from said second lateral tab, and said first and second lateral tabs (80,82) being opposite said longitudinal side, relative to said longitudinal axis; and a second blade outer air seal adjacent said first blade outer seal, said second blade outer seal defining a first featherseal slot and a second featherseal slot, said first featherseal slot including a post transverse thereto, said featherseal being engaged with said second featherseal slot; wherein said featherseal defines a tab space between said first lateral tab and said second lateral tab, and said featherseal is engaged with said first featherseal slot of said first blade outer air seal such that said tab space is engaged with said post.
A thrombus treatment device (10, 600, 700, 900), comprising: a support wire (15, 655, 755, 915); a body frame portion (30, 630, 735, 930) that is disposed about an axis defined by the support wire (15, 655, 755, 915), wherein the body frame portion (30, 630, 735, 930) defines one or more interstices and has an open lattice construction; a tether portion that includes one or more tethers (22, 625, 715, 922, 924), said one or more tethers (22, 625, 715, 922, 924) extending from the body frame portion (30, 630, 735, 930) to a collar (18, 618, 718, 918, 919) that is coupled to the support wire (15, 655, 755, 915); and a filter portion (40, 640, 740, 940) that extends from the body frame portion (30, 630, 735, 930); wherein, when the collar (18, 618, 718, 918, 919) is positioned within a region interior of the body frame portion (30, 630, 735, 930) or filter portion, rotational actuation of the support wire (15, 655, 755, 915) causes a swiveling motion of the one or more tethers (22, 625, 715, 922, 924) to macerate a thrombus without imparting substantial motion to the body frame portion (30, 630, 735, 930). a support wire (15, 655, 755, 915); a body frame portion (30, 630, 735, 930) that is disposed about an axis defined by the support wire (15, 655, 755, 915), wherein the body frame portion (30, 630, 735, 930) defines one or more interstices and has an open lattice construction; a tether portion that includes one or more tethers (22, 625, 715, 922, 924), said one or more tethers (22, 625, 715, 922, 924) extending from the body frame portion (30, 630, 735, 930) to a collar (18, 618, 718, 918, 919) that is coupled to the support wire (15, 655, 755, 915); and a filter portion (40, 640, 740, 940) that extends from the body frame portion (30, 630, 735, 930); wherein, when the collar (18, 618, 718, 918, 919) is positioned within a region interior of the body frame portion (30, 630, 735, 930) or filter portion, rotational actuation of the support wire (15, 655, 755, 915) causes a swiveling motion of the one or more tethers (22, 625, 715, 922, 924) to macerate a thrombus without imparting substantial motion to the body frame portion (30, 630, 735, 930).
A road scene imaging device for a motor vehicle, including at least one video camera defining an optical axis, and including a protection element around the video camera, said protection element being mounted to be mobile in rotation about said video camera and including at least two distinct parts (18, 36a to 36d; 118) each able to adopt an imaging position (16; 116) in front of the video camera as a result of the effect of the rotation, at least one of the distinct parts being a screen (18; 118) transparent to light adapted to be disposed in the imaging position when the video camera is operating, and the imaging device includes means for cleaning the transparent screen and characterized in that the mobile protection element includes an opaque masking zone in addition to the transparent screen.
A method for obtaining a plurality of parallel tunnels filled with a filler comprising: preparing a filing apparatus, driving the filler contained in a filler reservoir into said plurality of parallel tunnels (12, 12') of said filing apparatus simultaneously via an exit end of said filler reservoir when said exit end is in fluid communication with said plurality of parallel tunnels (12, 12'); and separating the plurality of parallel tunnels from said filler reservoir after said plurality of parallel tunnels is filled with said filler, wherein the filling apparatus comprises: the plurality of parallel tunnels (12, 12') formed in a longitudinal body (11, 11') and arranged in a longitudinal direction of said body (11, 11'); and the filler reservoir having an exit end, wherein a cross-sectional area of said exit end is less than about 5 times, preferably less than about 3 times, and more preferably about 1.5 to about 1.1 times of a total cross-sectional area of said plurality of parallel tunnels (12, 12'). preparing a filing apparatus, driving the filler contained in a filler reservoir into said plurality of parallel tunnels (12, 12') of said filing apparatus simultaneously via an exit end of said filler reservoir when said exit end is in fluid communication with said plurality of parallel tunnels (12, 12'); and separating the plurality of parallel tunnels from said filler reservoir after said plurality of parallel tunnels is filled with said filler, wherein the filling apparatus comprises: the plurality of parallel tunnels (12, 12') formed in a longitudinal body (11, 11') and arranged in a longitudinal direction of said body (11, 11'); and the filler reservoir having an exit end, wherein a cross-sectional area of said exit end is less than about 5 times, preferably less than about 3 times, and more preferably about 1.5 to about 1.1 times of a total cross-sectional area of said plurality of parallel tunnels (12, 12'). the plurality of parallel tunnels (12, 12') formed in a longitudinal body (11, 11') and arranged in a longitudinal direction of said body (11, 11'); and the filler reservoir having an exit end, wherein a cross-sectional area of said exit end is less than about 5 times, preferably less than about 3 times, and more preferably about 1.5 to about 1.1 times of a total cross-sectional area of said plurality of parallel tunnels (12, 12').
Battery (8, 16) having at least two individual cells (10, 12, 14) which are electrically conductively connected to one another, each of the at least two individual cells (10, 12, 14) in each case having a battery pole (18, 36), (20, 38), and mechanical and electrically conductive contact being made with one battery pole (18, 36) an individual cell by one battery pole (20, 38) of the other individual cell, characterized in that the battery poles (36, 38) are in each case designed with a joining geometry which allows the battery poles (36, 38) to be joined by shaping in a manner decoupled from the individual cells (12, 14), wherein one of the battery poles (36, 38) to be connected to one another is produced from aluminium and the other is produced from an aluminium alloy, or one of the battery poles (36, 38) to be connected to one another is produced from an aluminium alloy and the other is produced from copper.