mhurhangee/ep-ind-claims huggingface dataset:
A communication apparatus (A, 301), comprising: a first setting unit for executing a first setting process (S404-S407) for setting communication parameters with an access point (AP, 302); a second setting unit for executing a second setting process (S408-S411) for setting communication parameters with another communication apparatus (B, 304) that is not an access point (AP, 302); a detection unit (205, 206) configured to detect an apparatus (AP, 302; B, 304) that is activating the first or second setting process; a selection unit configured to select whether to perform the first setting process (S404-S407) by the first setting unit or to perform the second setting process (S408-S411) by the second setting unit, based on the detection performed by the detection unit (205, 206), wherein if an access point (AP, 302) that is activating the first setting process is detected by the detection unit (205, 206), the selection unit selects executing the first setting process (S404-S407) by the first setting unit, and if an access point (AP, 302) that is activating the first setting process (S404-S407) is not detected by the detection unit (205, 206), the selection unit selects executing the second setting process (S408-S411) by the second setting unit; and a control unit configured to control to execute neither the first setting process nor the second setting process if both an access point (AP, 302) that is activating the first setting process and an apparatus (B, 304) that is activating the second setting process are detected by the detection unit (205, 206). a first setting unit for executing a first setting process (S404-S407) for setting communication parameters with an access point (AP, 302); a second setting unit for executing a second setting process (S408-S411) for setting communication parameters with another communication apparatus (B, 304) that is not an access point (AP, 302); a detection unit (205, 206) configured to detect an apparatus (AP, 302; B, 304) that is activating the first or second setting process; a selection unit configured to select whether to perform the first setting process (S404-S407) by the first setting unit or to perform the second setting process (S408-S411) by the second setting unit, based on the detection performed by the detection unit (205, 206), wherein if an access point (AP, 302) that is activating the first setting process is detected by the detection unit (205, 206), the selection unit selects executing the first setting process (S404-S407) by the first setting unit, and if an access point (AP, 302) that is activating the first setting process (S404-S407) is not detected by the detection unit (205, 206), the selection unit selects executing the second setting process (S408-S411) by the second setting unit; and a control unit configured to control to execute neither the first setting process nor the second setting process if both an access point (AP, 302) that is activating the first setting process and an apparatus (B, 304) that is activating the second setting process are detected by the detection unit (205, 206).
A method of forming an ion-conductive membrane, the method comprising the steps of: a) coating a first substrate layer having a first surface and a second surface from a first solution, the first solution comprising a reinforcement polymer substantially dissolved in a first solvent, wherein the reinforcement polymer is selected from polysulfones and polyether imides, and wherein the first solvent includes 1-methyl-2-pyrrolidinone; b) coating a first ionomer layer adjacent the first surface of the substrate layer, the first ionomer layer comprising a first ionomer; and c) coating a second ionomer layer adjacent the second surface of the substrate layer, the second ionomer layer comprising a second ionomer; thereby forming a porous polymer substrate from the substrate layer and interpenetrating a portion of the first ionomer and a portion of the second ionomer within the porous polymer substrate; wherein the first and second ionomers may be the same or different and are selected from film-forming fluoropolymers having pendant acid groups; and wherein upon coating the ionomers in the ionomer coating solutions cause the reinforcement polymer to phase separate from the solvent of the first solution by ionomer-induced phase separation. a) coating a first substrate layer having a first surface and a second surface from a first solution, the first solution comprising a reinforcement polymer substantially dissolved in a first solvent, wherein the reinforcement polymer is selected from polysulfones and polyether imides, and wherein the first solvent includes 1-methyl-2-pyrrolidinone; b) coating a first ionomer layer adjacent the first surface of the substrate layer, the first ionomer layer comprising a first ionomer; and c) coating a second ionomer layer adjacent the second surface of the substrate layer, the second ionomer layer comprising a second ionomer; thereby forming a porous polymer substrate from the substrate layer and interpenetrating a portion of the first ionomer and a portion of the second ionomer within the porous polymer substrate;
A process for the preparation of polymers comprising, in a polymerized-in form, a) M1a+M2a = 30 to 70% by weight of an ester of (meth)acrylic acid with a C 1 -C 4 -alcohol, b) M1 b+M2b = 30 to 70% by weight of (meth)acrylic acid, c) M1c+M2c = 0.1 to 20% by weight of monomer substituted with at least one C 8 -C 30 -radical, d) M1d+M2d = 0 to 20% by weight of monomers different from a) to c), by emulsion polymerization with a first polymerization stage and a second polymerization stage, wherein M1b/M1a ≥ 0.4 and M1b/M1a < M2b/M2a and ∑ i = a d M ⁢ 1 i ≤ 40 % by weight, where M1 i are the respective weight fractions of the monomers a) to d), which are present in the reaction space during the first polymerization stage and M2i are the respective weight fractions of the monomers a) to d), which are added during the second polymerization stage and the sum of all weight fractions ∑ i = a d M ⁢ 1 i + ∑ i = a d M ⁢ 2 i = 100 % by weight. a) M1a+M2a = 30 to 70% by weight of an ester of (meth)acrylic acid with a C 1 -C 4 -alcohol, b) M1 b+M2b = 30 to 70% by weight of (meth)acrylic acid, c) M1c+M2c = 0.1 to 20% by weight of monomer substituted with at least one C 8 -C 30 -radical, d) M1d+M2d = 0 to 20% by weight of monomers different from a) to c), by emulsion polymerization with a first polymerization stage and a second polymerization stage, wherein M1b/M1a ≥ 0.4 and M1b/M1a < M2b/M2a and ∑ i = a d M ⁢ 1 i ≤ 40 % by weight, where M1 i are the respective weight fractions of the monomers a) to d), which are present in the reaction space during the first polymerization stage and M2i are the respective weight fractions of the monomers a) to d), which are added during the second polymerization stage and the sum of all weight fractions ∑ i = a d M ⁢ 1 i + ∑ i = a d M ⁢ 2 i = 100 % by weight.
A section bar for panels, in particular for walls of a shower box, sauna box and the like, comprising: - at least one main body of longitudinal major extension, defining a seat having a U-shaped outline, delimited by two side walls and a base and having an aperture opposite to said base and suitable for coupling with a panel; - at least one first lip seal extending, preferably from said base, away from the main body, in the opposite direction to that towards which the aperture of the U-shaped seat is turned; - at least at a first end of said main body, a connecting element comprising an upper portion overmoulded on the main body and with which it forms a single body, and a lower portion extending away from said upper portion and overmoulded on said first lip seal in such a manner as to form a single sealing edge with the latter; characterised in that said lower portion of the connecting element comprises an interference tab made of one piece construction with the upper portion of the connecting element and defining an extension of the first lip seal, wherein said interference tab has a lower edge placed in alignment with and in the extension of a lower edge of the first lip seal, substantially parallel to the longitudinal axis of the U-shaped seat, and wherein said interference tab has a side edge such inclined that the angle (a) included between said side edge and the lower edge of the interference tab is an acute angle. - at least one main body of longitudinal major extension, defining a seat having a U-shaped outline, delimited by two side walls and a base and having an aperture opposite to said base and suitable for coupling with a panel; - at least one first lip seal extending, preferably from said base, away from the main body, in the opposite direction to that towards which the aperture of the U-shaped seat is turned; - at least at a first end of said main body, a connecting element comprising an upper portion overmoulded on the main body and with which it forms a single body, and a lower portion extending away from said upper portion and overmoulded on said first lip seal in such a manner as to form a single sealing edge with the latter;
A polycrystalline cubic boron nitride, PCBN, material comprising: - between 70 and 95 vol.% cubic boron nitride, cBN, particles; - a binder matrix material in which the cBN particles are dispersed, the content of the binder matrix material being between 5 vol.% and 30 vol.% of the PCBN material; - the binder matrix material comprising at least 50 vol.% of a metal constituent, - the binder matrix material further comprising titanium diboride, the TiB 2 being present in an amount of 2 to 15 wt.% of the binder matrix material, characterised in that the metal constituent comprises any of the following: vanadium present in an amount of 15 to 50 wt.% of the binder matrix material and/or chromium (Cr) present in an amount of 2 to 50 wt.% of the binder matrix material. - between 70 and 95 vol.% cubic boron nitride, cBN, particles; - a binder matrix material in which the cBN particles are dispersed, the content of the binder matrix material being between 5 vol.% and 30 vol.% of the PCBN material; - the binder matrix material comprising at least 50 vol.% of a metal constituent, - the binder matrix material further comprising titanium diboride, the TiB 2 being present in an amount of 2 to 15 wt.% of the binder matrix material, characterised in that the metal constituent comprises any of the following: vanadium present in an amount of 15 to 50 wt.% of the binder matrix material and/or chromium (Cr) present in an amount of 2 to 50 wt.% of the binder matrix material.
An assembly comprising: - a vehicle battery (33,33') including cells (64,64'), - a housing surrounding the battery, and - several structures for thermally managing the battery, individually comprising at least one phase change material surrounding at least one conduit (13, 39, 47, 350) suitable for circulating a fluid, said conduits being connected to a fluid inlet and a fluid outlet for the fluid (15, F, F1, F2), characterized in that: - said structures define or line side walls of the housing, on first sides of the cells, and - the assembly further comprises: -- a cooling plate through which a thermal exchange fluid adapted to be in a thermal exchange with the cells can circulate, the cooling plate being disposed, for thermal exchange with the cells, on second sides of the cells different from said first sides, and/or -- one or more thermal exchange element(s) through which a thermal exchange fluid adapted to thermal exchange with the cells can circulate, the thermal exchange element(s) being interposed between said first sides of the cells and said structures. - a vehicle battery (33,33') including cells (64,64'), - a housing surrounding the battery, and - several structures for thermally managing the battery, individually comprising at least one phase change material surrounding at least one conduit (13, 39, 47, 350) suitable for circulating a fluid, said conduits being connected to a fluid inlet and a fluid outlet for the fluid (15, F, F1, F2), - said structures define or line side walls of the housing, on first sides of the cells, and - the assembly further comprises: -- a cooling plate through which a thermal exchange fluid adapted to be in a thermal exchange with the cells can circulate, the cooling plate being disposed, for thermal exchange with the cells, on second sides of the cells different from said first sides, and/or -- one or more thermal exchange element(s) through which a thermal exchange fluid adapted to thermal exchange with the cells can circulate, the thermal exchange element(s) being interposed between said first sides of the cells and said structures. -- a cooling plate through which a thermal exchange fluid adapted to be in a thermal exchange with the cells can circulate, the cooling plate being disposed, for thermal exchange with the cells, on second sides of the cells different from said first sides, and/or -- one or more thermal exchange element(s) through which a thermal exchange fluid adapted to thermal exchange with the cells can circulate, the thermal exchange element(s) being interposed between said first sides of the cells and said structures.
A wave energy converter comprising: a float for moving up and down in phase with the waves; a spar for guiding the up and down movement of the float; the spar having an upper portion and a lower portion with the float moving between the upper and lower portions in response to the waves; and a power take off device coupled between the float and the spar responsive to the mechanical interaction of the float with the portion of the spar in proximity to the float for converting their relative motion into useful energy, wherein the PTO includes (a) a rack extending vertically along an external portion of the spar; and (b) a linear to rotary converter coupled to an electric generator to produce electrical energy; characterised in the linear to rotary converter being mounted within the float and including a toothed member for engaging the rack and causing rotation of the rotary converter as a function of the up and down motion of the float relative to the spar and wherein the linear to rotary converter includes: (i) at least two sprocket wheels disposed so as to define a plane generally parallel to the plane of the rack and in close proximity thereto; and (ii) a two sided toothed belt wrapped around the sprocket wheels for engaging the teeth of the rack; the two sided toothed belt having an outer side and an inner side, the belt having teeth on its outer surface to engage with the rack and having teeth on its inner side surface to engage a sprocket wheel and causing the sprocket wheels to rotate in response to the movement of the float relative to the rack and its spar. a float for moving up and down in phase with the waves; a spar for guiding the up and down movement of the float; the spar having an upper portion and a lower portion with the float moving between the upper and lower portions in response to the waves; and a power take off device coupled between the float and the spar responsive to the mechanical interaction of the float with the portion of the spar in proximity to the float for converting their relative motion into useful energy, wherein the PTO includes (a) a rack extending vertically along an external portion of the spar; and (b) a linear to rotary converter coupled to an electric generator to produce electrical energy; (a) a rack extending vertically along an external portion of the spar; and (b) a linear to rotary converter coupled to an electric generator to produce electrical energy; (i) at least two sprocket wheels disposed so as to define a plane generally parallel to the plane of the rack and in close proximity thereto; and (ii) a two sided toothed belt wrapped around the sprocket wheels for engaging the teeth of the rack; the two sided toothed belt having an outer side and an inner side, the belt having teeth on its outer surface to engage with the rack and having teeth on its inner side surface to engage a sprocket wheel and causing the sprocket wheels to rotate in response to the movement of the float relative to the rack and its spar.
A device for automatically detaching and removing the welding cap from the welding electrode of a welding tongs or welding device, characterised by a holder, in which a welding electrode with a welding cap placed thereon is inserted, the gap between the welding cap and the electrode serving as an accommodating portion, and by a counter-directional pair of drivers (2, 3), which generates at least a clamping of the welding cap by means of a suitable profile, wherein, by a rotation of the drivers, a pulling force in the direction of the axis of the electrodes is generated in such a way that the welding cap is detached from the electrode and removed.
An improved gas valve unit, comprising: - a body provided with an inlet, fluidically connectable to a gas source and to at least one outlet, - a main chamber, defined at least in part in said body, put into fluid communication with said gas inlet and provided with main outlet hole put into fluid communication with said outlet: - a disc-shaped element which is housed in said main chamber, characterized in that the disc-shaped element is provided with at least one through opening defining, in said at least one through opening, at least two zones having a mutually different passage section in order to put said main chamber into communication with said main outlet hole, said disc-shaped element is movable in rotation within said chamber between at least one closing position, in which said main outlet hole is entirely covered by a full portion of said disc-shaped element, and at least two distinct opening positions in each of which a corresponding and distinct passage zone defined in and by said at least one through opening of said disc-shaped element faces, at least in part, said main outlet hole so as to allow the passage of the gas from said chamber to said main outlet hole through said passage zone, - wherein the improved gas valve unit comprises a control unit associated with said body and provided with means for causing the snapping rotation of said disc-shaped element between said closing position and an opening position, and to cause the snapping rotation of said disc-shaped element between said at least two distinct opening positions. - a body provided with an inlet, fluidically connectable to a gas source and to at least one outlet, - a main chamber, defined at least in part in said body, put into fluid communication with said gas inlet and provided with main outlet hole put into fluid communication with said outlet: - a disc-shaped element which is housed in said main chamber, characterized in that the disc-shaped element is provided with at least one through opening defining, in said at least one through opening, at least two zones having a mutually different passage section in order to put said main chamber into communication with said main outlet hole, said disc-shaped element is movable in rotation within said chamber between at least one closing position, in which said main outlet hole is entirely covered by a full portion of said disc-shaped element, and at least two distinct opening positions in each of which a corresponding and distinct passage zone defined in and by said at least one through opening of said disc-shaped element faces, at least in part, said main outlet hole so as to allow the passage of the gas from said chamber to said main outlet hole through said passage zone, - wherein the improved gas valve unit comprises a control unit associated with said body and provided with means for causing the snapping rotation of said disc-shaped element between said closing position and an opening position, and to cause the snapping rotation of said disc-shaped element between said at least two distinct opening positions.
Motor vehicle test stand, wherein a suction device or a control element is guided on at least two cables movably attached to two attachment points spaced apart from one another above the motor vehicle test stand, each of the cables being connected to a drive.
A locking arrangement for a switchgear cabinet, which has a switchgear cabinet door with a door leaf and a locking mechanism on an inner side of the switchgear cabinet door, a door lock plate being detachably fixed to the door leaf on an outer side arranged opposite the inner side and having an adjusting mechanism which is coupled through the door leaf to the locking mechanism, and wherein the door leaf has a hole pattern with at least one keyhole and an elongated hole, wherein the door lock plate is detachably fixed to an adapter which is releasably fastened to the door leaf via a fastening means engaging in the keyhole and which has a coupler which can be adjusted in the longitudinal direction of the elongated hole and via which the adjusting mechanism is coupled to the locking mechanism, characterized in that the adapter has, on a first fastening side facing the door leaf, an elongated-hole-shaped recess along which the coupler can be adjusted linearly, the adapter furthermore having two fastening means, preferably mushroom-headed pins, which are each mounted at a distance in front of one of the opposite longitudinal ends of the elongated-hole-shaped recess.
A method for producing cardiomyocytes from pluripotent stem cells, said method comprising: a step of forming an embryoid body/bodies from pluripotent stem cells; a step of culturing said embryoid body/bodies obtained in the step in a medium containing activin A, BMP4, and bFGF; a step of dissociating said embryoid body/bodies obtained in the step; and a step of culturing the cells obtained in the step in a medium containing VEGF and a Wnt inhibitor, to allow reaggregation of said cells into an embryoid body/bodies; wherein said embryoid body/bodies is/are cultured for 1 day to 5 days in the step, and wherein said cells are cultured for not less than 4 days in said step, the method further comprising: a step of culturing said embryoid body/bodies obtained in the step in a medium containing VEGF and bFGF, wherein said embryoid body/bodies is/are cultured for not less than 12 days in the step, and wherein said culture is carried out under hypoxic conditions in the steps,, and. a step of forming an embryoid body/bodies from pluripotent stem cells; a step of culturing said embryoid body/bodies obtained in the step in a medium containing activin A, BMP4, and bFGF; a step of dissociating said embryoid body/bodies obtained in the step; and a step of culturing the cells obtained in the step in a medium containing VEGF and a Wnt inhibitor, to allow reaggregation of said cells into an embryoid body/bodies; wherein said embryoid body/bodies is/are cultured for 1 day to 5 days in the step, and wherein said cells are cultured for not less than 4 days in said step, the method
A compound represented by the formula or a salt thereof: wherein R represents L 1 represents a C 1-6 alkylene group; L 2 and L 3 are the same or different and each represent a bond or a C 1-6 alkylene group; A represents -S 2 OH or -P 2; and X 1 and X 2 are the same or different and each represent H or a C 1-6 alkyl group. R represents L 1 represents a C 1-6 alkylene group; L 2 and L 3 are the same or different and each represent a bond or a C 1-6 alkylene group; A represents -S 2 OH or -P 2; and L 1 represents a C 1-6 alkylene group; L 2 and L 3 are the same or different and each represent a bond or a C 1-6 alkylene group; A represents -S 2 OH or -P 2; and X 1 and X 2 are the same or different and each represent H or a C 1-6 alkyl group.