mhurhangee/ep-ind-claims huggingface dataset:
A turbomachine casing extending about an axis, said casing comprising: - a hub comprising an outer wall and an inner wall, between which an annular flange extends; - an outer shell; - a plurality of arms each extending between the hub and the outer shell; the casing further comprising a plurality of main stiffeners, each arranged in the extension of an arm between the outer wall and the inner wall protruding from the flange, each main stiffener comprising two ribs (51, 52) arranged opposite each other and diverging from each other away from the outer wall towards the inner wall. - a hub comprising an outer wall and an inner wall, between which an annular flange extends; - an outer shell; - a plurality of arms each extending between the hub and the outer shell;
A composite electrolyte membrane comprising: a poly(arylene ether sulfone) copolymer including a repeating unit represented by the following Chemical Formula 1 and a repeating unit represented by the following Chemical Formula 2; and a core-shell particle including an inorganic particle core and a basic organic polymer shell: in Chemical Formulae 1 and 2, R1 to R3 and R8 to R10 are each independently -O-, - S-, -SO 2 -, -C=O- or -C(CH 3) 2 -, R4 to R7 and R13 to R16 are each independently hydrogen, or a straight-chained or branch-chained alkyl group having 1 to 10 carbon atoms, at least one of R11, R12, and R18 is -SO 3 R17, and the others are hydrogen, or a straight-chained or branch-chained alkyl group having 1 to 10 carbon atoms, R17 is H, Li, Na, or K, A and A' are each independently a direct bond, a divalent fluorene group, or a straight-chained or branch-chained alkylene group having 1 to 10 carbon atoms, m, n, o, p, and r are each independently 0 to 4, and q, s, and t are each independently 0 to 3, y is 0 or 1, and a and b are a molar ratio of Chemical Formulae 1 and 2, and are each independently 0.1 to 0.99. a poly(arylene ether sulfone) copolymer including a repeating unit represented by the following Chemical Formula 1 and a repeating unit represented by the following Chemical Formula 2; and a core-shell particle including an inorganic particle core and a basic organic polymer shell: in Chemical Formulae 1 and 2, R1 to R3 and R8 to R10 are each independently -O-, - S-, -SO 2 -, -C=O- or -C(CH 3) 2 -, R4 to R7 and R13 to R16 are each independently hydrogen, or a straight-chained or branch-chained alkyl group having 1 to 10 carbon atoms, at least one of R11, R12, and R18 is -SO 3 R17, and the others are hydrogen, or a straight-chained or branch-chained alkyl group having 1 to 10 carbon atoms, R17 is H, Li, Na, or K, A and A' are each independently a direct bond, a divalent fluorene group, or a straight-chained or branch-chained alkylene group having 1 to 10 carbon atoms, m, n, o, p, and r are each independently 0 to 4, and q, s, and t are each independently 0 to 3, y is 0 or 1, and a and b are a molar ratio of Chemical Formulae 1 and 2, and are each independently 0.1 to 0.99. R1 to R3 and R8 to R10 are each independently -O-, - S-, -SO 2 -, -C=O- or -C(CH 3) 2 -, R4 to R7 and R13 to R16 are each independently hydrogen, or a straight-chained or branch-chained alkyl group having 1 to 10 carbon atoms, at least one of R11, R12, and R18 is -SO 3 R17, and the others are hydrogen, or a straight-chained or branch-chained alkyl group having 1 to 10 carbon atoms, R17 is H, Li, Na, or K, A and A' are each independently a direct bond, a divalent fluorene group, or a straight-chained or branch-chained alkylene group having 1 to 10 carbon atoms, m, n, o, p, and r are each independently 0 to 4, and q, s, and t are each independently 0 to 3, y is 0 or 1, and a and b are a molar ratio of Chemical Formulae 1 and 2, and are each independently 0.1 to 0.99.
A movement-tolerant line arrangement for a stand device configured for arrangement in an operating room, comprising - a mounting apparatus for movement-tolerant mounting of at least one line about an axis of rotation between two connection components (3; 4; 104) that are displaceable relative to one another; and - a fastening apparatus (30; 130) for arranging the at least one line relative to one of the connection components (3; 4; 104); wherein the mounting apparatus is fixable to the fastening apparatus (30; 130) and is configured for movement-tolerant, in particular rotation-tolerant, guidance of the at least one line about the axis of rotation and/or in a direction at least approximately parallel to the axis of rotation, characterized in that the mounting apparatus is configured as a kind of linked element chain, wherein the mounting apparatus is formed by single elements that are movable relative to one another by means of at least one connection portion, respectively, and the connection portions are defined by recesses between the individual elements. - a mounting apparatus for movement-tolerant mounting of at least one line about an axis of rotation between two connection components (3; 4; 104) that are displaceable relative to one another; and - a fastening apparatus (30; 130) for arranging the at least one line relative to one of the connection components (3; 4; 104);
A method for transmitting data signals by using a massive Multi Input Multi Output, MIMO, in a wireless access system, the method performed by a transmitter comprising an antenna including a horizontal antenna elements array and a vertical antenna elements array, the method comprising: inputting input bits of data signals to a channel encoder; outputting from the channel encoder a first coded bit set including one or more coded bits and a second coded bit set including one or more coded bits; when a moving direction of a receiver is vertical to the transmitter, transmitting (S1130a) the first coded bit set through a horizontal antenna elements array according to a closed loop MIMO mode and transmitting (S1130b) the second coded bit set through vertical antenna elements array according to an open loop MIMO mode, or when a moving direction of the receiver is horizontal to the transmitter, transmitting (S1130a) the first coded bit set through the vertical antenna elements array according to the closed loop MIMO mode and transmitting (S1130b) the second coded bit set through the horizontal antenna elements array according to the open loop MIMO mode. inputting input bits of data signals to a channel encoder; outputting from the channel encoder a first coded bit set including one or more coded bits and a second coded bit set including one or more coded bits; when a moving direction of a receiver is vertical to the transmitter, transmitting (S1130a) the first coded bit set through a horizontal antenna elements array according to a closed loop MIMO mode and transmitting (S1130b) the second coded bit set through vertical antenna elements array according to an open loop MIMO mode, or when a moving direction of the receiver is horizontal to the transmitter, transmitting (S1130a) the first coded bit set through the vertical antenna elements array according to the closed loop MIMO mode and transmitting (S1130b) the second coded bit set through the horizontal antenna elements array according to the open loop MIMO mode.
A feed mechanism for a terminal crimping machine comprising: a feed track having a top plate and a side wall, the top plate extending from a front of the feed track to a rear of the feed track, the top plate configured to receive thereon a terminal strip having a plurality of terminals arranged along a carrier strip, the terminal strip configured to be moved from the rear to the front towards a crimping zone of the terminal crimping machine, the side wall having a fixed edge above the top plate; and a strip locator coupled to the feed track, the strip locator including a member movably coupled to a support wall, the support wall being fixed relative to the feed track, the member being biased against the terminal strip to force the terminal strip against the fixed edge of the side wall, characterised in that the member is a rail having an elongated body with a longitudinal length that is similar in length to the support wall whereby advancement of the terminal strip follows the trajectory of the side wall towards the crimping zone. a feed track having a top plate and a side wall, the top plate extending from a front of the feed track to a rear of the feed track, the top plate configured to receive thereon a terminal strip having a plurality of terminals arranged along a carrier strip, the terminal strip configured to be moved from the rear to the front towards a crimping zone of the terminal crimping machine, the side wall having a fixed edge above the top plate; and a strip locator coupled to the feed track, the strip locator including a member movably coupled to a support wall, the support wall being fixed relative to the feed track, the member being biased against the terminal strip to force the terminal strip against the fixed edge of the side wall, characterised in that the member is a rail having an elongated body with a longitudinal length that is similar in length to the support wall whereby advancement of the terminal strip follows the trajectory of the side wall towards the crimping zone.
A program distribution system comprising: at least a mobile terminal having means for transmitting a program distribution request; a storage module built in or connected to said mobile terminal; a contents server for receiving said distribution request and transmitting a program to be distributed; and a distribution management server for receiving said program from said contents server, and only in a case where said contents server is a contents server authorized to distribute said program, transmitting said program received from said contents server to said storage module built in or connected to said mobile terminal; wherein said storage module includes a storage unit, and a control unit for storing in said storage unit said program received from said distribution management server through said mobile terminal and, in compliance with a request, executing said program stored in said storage unit. at least a mobile terminal having means for transmitting a program distribution request; a storage module built in or connected to said mobile terminal; a contents server for receiving said distribution request and transmitting a program to be distributed; and a distribution management server for receiving said program from said contents server, and only in a case where said contents server is a contents server authorized to distribute said program, transmitting said program received from said contents server to said storage module built in or connected to said mobile terminal; wherein said storage module includes a storage unit, and a control unit for storing in said storage unit said program received from said distribution management server through said mobile terminal and, in compliance with a request, executing said program stored in said storage unit.
A method of controlling a lighting control system, the method comprising: receiving an input by a selection of an icon on a display device of a mobile electronic device to a first light control module configured to cause a transmission of a first quantity of electrical energy to a first lighting circuit of a first light fixture (309,310) electrically connected to the first light control module; updating a display of a lighting control device coupled to the first light control module to display the icon (351, 352) selected on the display device of the mobile electronic device; transmitting a control message from the first light control module to a second light control module configured to cause a transmission of a second quantity of electrical energy to a second lighting circuit of a second light fixture electrically connected to the second light control module; and changing a flow of electricity from the second light control module to the second lighting circuit based on the input received by the selection of an icon on the display of the mobile electronic device to the first light control module. receiving an input by a selection of an icon on a display device of a mobile electronic device to a first light control module configured to cause a transmission of a first quantity of electrical energy to a first lighting circuit of a first light fixture (309,310) electrically connected to the first light control module; updating a display of a lighting control device coupled to the first light control module to display the icon (351, 352) selected on the display device of the mobile electronic device; transmitting a control message from the first light control module to a second light control module configured to cause a transmission of a second quantity of electrical energy to a second lighting circuit of a second light fixture electrically connected to the second light control module; and changing a flow of electricity from the second light control module to the second lighting circuit based on the input received by the selection of an icon on the display of the mobile electronic device to the first light control module.
Storage film feed for feeding storage film from a flexible casing which is open on one side on a front side into an storage film scanning device, having an insertion opening having a passage gap for the storage film, having a stop piece arranged on one side of the insertion opening, having a flat support surface for the application of the casing with its open front side, having a slider, which is arranged on the side of the insertion opening facing the stop piece and works relative to the stop piece and perpendicularly to a flat side of the casing, for fixing the casing in the insertion opening, the slider being configured to place the flat side of the casing against the stop piece when the slider is actuated, characterised in that an elastic compression piece which is configured to be compressed by actuation of the slider and to clamp the casing with a spring force exerted on the cover from the outside, wherein the elastic compression piece is arranged at the stop piece and the flat support surface and the passage gap are firmly connected to the stop piece, wherein the elastic compression piece is configured in such a way that the elastic compression piece completely covers the passage gap in a position in which the slider is not actuated, and that the elastic compression piece is pressed by the slider and the casing in the closing direction by actuation of the slider at most until the passage gap is completely uncovered by the elastic compression piece. having an insertion opening having a passage gap for the storage film, having a stop piece arranged on one side of the insertion opening, having a flat support surface for the application of the casing with its open front side, having a slider, which is arranged on the side of the insertion opening facing the stop piece and works relative to the stop piece and perpendicularly to a flat side of the casing, for fixing the casing in the insertion opening, the slider being configured to place the flat side of the casing against the stop piece when the slider is actuated, characterised in that an elastic compression piece which is configured to be compressed by actuation of the slider and to clamp the casing with a spring force exerted on the cover from the outside, wherein the elastic compression piece is arranged at the stop piece and the flat support surface and the passage gap are firmly connected to the stop piece, wherein the elastic compression piece is configured in such a way that the elastic compression piece completely covers the passage gap in a position in which the slider is not actuated, and that the elastic compression piece is pressed by the slider and the casing in the closing direction by actuation of the slider at most until the passage gap is completely uncovered by the elastic compression piece.
Method for generating energy by means of thermal cycles with high pressure and moderate temperature steam, wherein it comprises the following steps: a) generating steam at a pressure above 65 bar and a moderate temperature below 400°C b) expanding the steam generated in step a) in at least one two-body steam turbine comprising a high pressure body and a low pressure body, steam of an intermediate pressure, comprised between 10-40 bar, with a moderate moisture, below 15%, being obtained in said high pressure body, c) drying the steam obtained in step b) by means of at least one moisture separator and reheating said steam, d) expanding the steam obtained in step c) in the low pressure body of said at least one turbine, and e) heating boiler water used to generate the steam in step a) by means of using a plurality of steam extractions from said at least one turbine in order to exchange heat with said boiler water, wherein the generation of steam in step a) and the reheating of dry steam in step c) comprises using heat obtainable from combustion gases of matter selected from waste, biomasses, assimilable materials and a mixture thereof and step c) comprises using air in the combustion of the matter selected from waste, biomasses, assimilable materials and a mixture thereof, wherein said air is preheated by means of boiler feedwater and water extracted from said at least one moisture separator used in said step c). a) generating steam at a pressure above 65 bar and a moderate temperature below 400°C b) expanding the steam generated in step a) in at least one two-body steam turbine comprising a high pressure body and a low pressure body, steam of an intermediate pressure, comprised between 10-40 bar, with a moderate moisture, below 15%, being obtained in said high pressure body, c) drying the steam obtained in step b) by means of at least one moisture separator and reheating said steam, d) expanding the steam obtained in step c) in the low pressure body of said at least one turbine, and e) heating boiler water used to generate the steam in step a) by means of using a plurality of steam extractions from said at least one turbine in order to exchange heat with said boiler water, wherein the generation of steam in step a) and the reheating of dry steam in step c) comprises using heat obtainable from combustion gases of matter selected from waste, biomasses, assimilable materials and a mixture thereof and step c) comprises using air in the combustion of the matter selected from waste, biomasses, assimilable materials and a mixture thereof, wherein said air is preheated by means of boiler feedwater and water extracted from said at least one moisture separator used in said step c).
Use of a second zone to reduce or prevent platinum group metal from poisoning a selective catalytic reduction catalyst for reducing oxides of nitrogen with a nitrogenous reductant in exhaust gas emitted from an internal combustion engine in an exhaust system of a lean-burn internal combustion engine by trapping the platinum group metal in the second zone, which platinum group metal is present on a catalysed substrate monolith of an exhaust system of a lean-burn internal combustion engine and is liable to volatilise when in use and migrate to a surface of a substrate monolith comprising the SCR catalyst, which substrate monolith is disposed downstream of the catalysed substrate monolith, wherein the substrate monolith has a length L and comprises: a first zone of substantially uniform length defined at one end by a first end of the substrate monolith, which first zone comprising the selective catalytic reduction catalyst for reducing oxides of nitrogen with a nitrogenous reductant in exhaust gas emitted from an internal combustion engine; and the second zone, wherein the second zone has substantially uniform length less than L defined at one end by a second end of the substrate monolith, which second zone comprising at least one particulate metal oxide or a mixture of any two or more thereof for trapping gas phase platinum group metal, wherein the at least one particulate metal oxide is selected from the group consisting of optionally stabilised alumina, amorphous silica-alumina, optionally stabilised zirconia, titania and mixtures of any two or more thereof, which at least one particulate metal oxide does not act as a support for any other catalytic component; and wherein the second zone is oriented to contact exhaust gas exiting the catalysed substrate monolith before the first zone. a first zone of substantially uniform length defined at one end by a first end of the substrate monolith, which first zone comprising the selective catalytic reduction catalyst for reducing oxides of nitrogen with a nitrogenous reductant in exhaust gas emitted from an internal combustion engine; and the second zone, wherein the second zone has substantially uniform length less than L defined at one end by a second end of the substrate monolith, which second zone comprising at least one particulate metal oxide or a mixture of any two or more thereof for trapping gas phase platinum group metal, wherein the at least one particulate metal oxide is selected from the group consisting of optionally stabilised alumina, amorphous silica-alumina, optionally stabilised zirconia, titania and mixtures of any two or more thereof, which at least one particulate metal oxide does not act as a support for any other catalytic component; and wherein the second zone is oriented to contact exhaust gas exiting the catalysed substrate monolith before the first zone.
An abrasive article comprising a plurality of layers, in the following order: a backing; an abrasive layer; and a supersize coat comprising a metal salt of a long-chain fatty acid and having clay particles dispersed therein. a backing; an abrasive layer; and a supersize coat comprising a metal salt of a long-chain fatty acid and having clay particles dispersed therein.
Method for the transmission of broadcast signals by groups of base stations of a wireless communication system, to terminals of said wireless communication system, each base station including a coverage area, with the coverage areas of the base stations of a group being distributed geographically such as to serve a geographical area, wherein: - for each group of base stations: the broadcast signals are of a limited duration and are transmitted in the same frequency band used by all of the base stations of said group, the base stations of said group are time-synchronised in relation to one another and the broadcast signals from the different base stations of said group are time-multiplexed, characterised in that: - the wireless communication system including several geographical regions each including several groups of base stations, the broadcast signals from different geographical regions are time-multiplexed. - for each group of base stations: the broadcast signals are of a limited duration and are transmitted in the same frequency band used by all of the base stations of said group, the base stations of said group are time-synchronised in relation to one another and the broadcast signals from the different base stations of said group are time-multiplexed, - the wireless communication system including several geographical regions each including several groups of base stations, the broadcast signals from different geographical regions are time-multiplexed.