mhurhangee/ep-ind-claims huggingface dataset:
A display device comprising: a housing including a front glass, a metal frame, and a rear plate; an adhesion member; and an organic electroluminescence display panel arranged in the housing, wherein the front glass is covering the front face of the organic electroluminescence display panel, wherein the rear plate is covering the back face of the organic electroluminescence display panel, wherein a light-shielding film is provided on the entire back face of the rear plate to prevent entrance of external light into the display device; wherein the metal frame is provided on a side face of the organic electroluminescence display panel, the metal frame sealing the adhesion member which is used to connect the front glass and the rear plate, wherein glass is used as a material of the front glass, wherein glass is used as a material of the rear plate, and wherein aluminum is used as a material of the metal frame. a housing including a front glass, a metal frame, and a rear plate; an adhesion member; and an organic electroluminescence display panel arranged in the housing, wherein the front glass is covering the front face of the organic electroluminescence display panel, wherein the rear plate is covering the back face of the organic electroluminescence display panel, wherein a light-shielding film is provided on the entire back face of the rear plate to prevent entrance of external light into the display device; wherein the metal frame is provided on a side face of the organic electroluminescence display panel, the metal frame sealing the adhesion member which is used to connect the front glass and the rear plate, wherein glass is used as a material of the front glass, wherein glass is used as a material of the rear plate, and wherein aluminum is used as a material of the metal frame.
A round baler operable to form an axially extending round bale from crop material comprising: a frame; a conical bale-forming chamber defining a central geometrical axis, and formed from a plurality of tapered rolls arranged in a generally circular array, the conical bale-forming chamber being carried on the frame and being configured to receive crop material therein, to form the crop material into a round bale and to urge the round bale axially therefrom; a cylindrical bale-forming chamber formed from a plurality of cylindrical rolls arranged in a generally circular array, the cylindrical bale-forming chamber being in communication with said conical bale-forming chamber to receive a protrusion of said round bale urged from the conical bale-forming chamber and to produce the round bale of crop material axially extending from the cylindrical bale-forming chamber; a crop pick-up mechanism for picking up crop material from the ground; and a crop conveying means receiving crop material from said crop pick-up mechanism and presenting said crop material to said conical bale-forming chamber in a generally transverse direction transversely relative to the central geometrical axis of the conical bale-forming chamber; characterised in that an infeed apparatus is provided that lifts the crop material from said crop conveying means and feeds the crop material into said conical bale-forming chamber. a frame; a conical bale-forming chamber defining a central geometrical axis, and formed from a plurality of tapered rolls arranged in a generally circular array, the conical bale-forming chamber being carried on the frame and being configured to receive crop material therein, to form the crop material into a round bale and to urge the round bale axially therefrom; a cylindrical bale-forming chamber formed from a plurality of cylindrical rolls arranged in a generally circular array, the cylindrical bale-forming chamber being in communication with said conical bale-forming chamber to receive a protrusion of said round bale urged from the conical bale-forming chamber and to produce the round bale of crop material axially extending from the cylindrical bale-forming chamber; a crop pick-up mechanism for picking up crop material from the ground; and a crop conveying means receiving crop material from said crop pick-up mechanism and presenting said crop material to said conical bale-forming chamber in a generally transverse direction transversely relative to the central geometrical axis of the conical bale-forming chamber; characterised in that an infeed apparatus is provided that lifts the crop material from said crop conveying means and feeds the crop material into said conical bale-forming chamber.
A plant aspartic protease for use in a method for treatment of the human or animal body by therapy, wherein the method involves the induction of skin desquamation, and wherein the plant aspartic protease is a Cardosin or mutant thereof, wherein the plant aspartic protease has at least 70% sequence identity to SEQ ID NO: 1 or SEQ ID NO: 2.
A method for producing carbon dioxide, purified hydrogen and electricity from a reformed process gas feed using a solid oxide fuel cell SOFC, the method comprising the steps of: - introducing the reformed process gas into an anode side of the solid oxide fuel cell; - in the solid oxide fuel cell, introducing air into a cathode side of the solid oxide fuel cell and in the anode side converting hydrogen and carbon monoxide of the reformed process gas in combination with oxygen into an anode off-gas comprising steam, carbon dioxide and unconverted process gas; - introducing the anode off-gas into a water gas shift reactor and a hydrogen pump; characterized in: - introducing the anode off-gas into a high temperature water gas shift reactor; - in the high temperature water-gas shift reactor, converting carbon monoxide and steam into carbon dioxide and hydrogen, - introducing the gas exiting the high temperature water-gas shift reactor into a low temperature water-gas shift membrane reactor, - in the low temperature water-gas shift membrane reactor, converting carbon monoxide and steam into carbon dioxide and hydrogen, whereby the low temperature water-gas shift membrane reactor comprises the hydrogen pump that produces purified hydrogen on a permeate side, while removing hydrogen from a feed side, so that the anode off-gas is depleted of hydrogen and carbon monoxide to create a carbon dioxide rich gas stream comprising mainly carbon dioxide and steam, wherein the solid oxide fuel cell SOFC is controlled to operate with a fuel utilization in the range of 0% to 90%, depending on a demanded amount of purified hydrogen and carbon dioxide to be produced. - introducing the reformed process gas into an anode side of the solid oxide fuel cell; - in the solid oxide fuel cell, introducing air into a cathode side of the solid oxide fuel cell and in the anode side converting hydrogen and carbon monoxide of the reformed process gas in combination with oxygen into an anode off-gas comprising steam, carbon dioxide and unconverted process gas; - introducing the anode off-gas into a water gas shift reactor and a hydrogen pump; - introducing the anode off-gas into a high temperature water gas shift reactor; - in the high temperature water-gas shift reactor, converting carbon monoxide and steam into carbon dioxide and hydrogen, - introducing the gas exiting the high temperature water-gas shift reactor into a low temperature water-gas shift membrane reactor, - in the low temperature water-gas shift membrane reactor, converting carbon monoxide and steam into carbon dioxide and hydrogen, whereby the low temperature water-gas shift membrane reactor comprises the hydrogen pump that produces purified hydrogen on a permeate side, while removing hydrogen from a feed side, so that the anode off-gas is depleted of hydrogen and carbon monoxide to create a carbon dioxide rich gas stream comprising mainly carbon dioxide and steam,
A piston ring having a resin-based film covering at least one of the upper and lower sides, wherein the resin-based film contains a fibrous filler, characterised in that said fibrous filler has a mean fiber diameter of 50 to 500 nm and an aspect ratio of 30 to 500.
A service access method based upon Wireless Local Area Network, WLAN, access authentication, comprising: a WLAN portal server transmitting (301, 401, 501, 601, 701, 1001, 1101, 1201, 1301) a first cookie to a user equipment which has passed WLAN access authentication during WLAN access authentication of the user equipment, wherein the first cookie comprises an indication that the user equipment has passed WLAN access authentication; a service authentication center associated with an application system determining (302, 402, 502, 602, 702, 1002, 1102, 1202, 1302), from the first cookie in the user equipment which has passed WLAN access authentication, that the user equipment has passed WLAN access authentication when the user equipment requests to access a service of the application system; the associated service authentication center acquiring (303, 703, 1003) a user equipment identity token of the user equipment using the first cookie; the associated service authentication center transmitting (304, 404, 508, 608, 704, 1004, 1105, 1207, 1304) the acquired user equipment identity token to the application system; and the application system providing (305, 405, 509, 609, 706, 1005, 1106, 1208, 1306) the user equipment with a service access according to the user equipment identity token. a WLAN portal server transmitting (301, 401, 501, 601, 701, 1001, 1101, 1201, 1301) a first cookie to a user equipment which has passed WLAN access authentication during WLAN access authentication of the user equipment, wherein the first cookie comprises an indication that the user equipment has passed WLAN access authentication; a service authentication center associated with an application system determining (302, 402, 502, 602, 702, 1002, 1102, 1202, 1302), from the first cookie in the user equipment which has passed WLAN access authentication, that the user equipment has passed WLAN access authentication when the user equipment requests to access a service of the application system; the associated service authentication center acquiring (303, 703, 1003) a user equipment identity token of the user equipment using the first cookie; the associated service authentication center transmitting (304, 404, 508, 608, 704, 1004, 1105, 1207, 1304) the acquired user equipment identity token to the application system; and the application system providing (305, 405, 509, 609, 706, 1005, 1106, 1208, 1306) the user equipment with a service access according to the user equipment identity token.
Impregnating system for an active part of an electric machine, wherein the active part has a plurality of grooves which extend over a groove length in a direction which is consistent for the grooves, wherein windings of a winding system of the active part are arranged in the grooves, which windings protrude from the grooves at groove ends in the form of winding heads, - wherein the impregnating system has at least one nozzle, by means of which an impregnating solution is sprinkled on the windings of the winding system, - wherein the impregnating system has a mixing level which precedes the nozzle to which mixing level components (K1, K2, K3) of the impregnating solution are supplied via conveying lines, in which the components (K1, K2, K3) are mixed to form the impregnating solution and from which the impregnating solution is then supplied to the nozzle, - wherein the conveying lines are assigned conveying facilities, by means of which the components (K1, K2, K3) are conveyed in the conveying lines, and - wherein the impregnating system has a control facility, by which the conveying facilities are controlled such that ratios of the components (K1, K2, K3) conveyed by the conveying lines are set depending on the groove length of the grooves and/or a fill level of the grooves, - wherein the mixing level has a pre-mixer and a post-mixer, - wherein a first and a second component (K1, K2) of the impregnating solution are supplied to the pre-mixer and are mixed by the pre-mixer to form an intermediate solution, and - wherein the intermediate solution and at least a third component of the impregnating solution are supplied to the secondary mixer and are mixed by the secondary mixer to form the impregnating solution. - wherein the impregnating system has at least one nozzle, by means of which an impregnating solution is sprinkled on the windings of the winding system, - wherein the impregnating system has a mixing level which precedes the nozzle to which mixing level components (K1, K2, K3) of the impregnating solution are supplied via conveying lines, in which the components (K1, K2, K3) are mixed to form the impregnating solution and from which the impregnating solution is then supplied to the nozzle, - wherein the conveying lines are assigned conveying facilities, by means of which the components (K1, K2, K3) are conveyed in the conveying lines, and - wherein the impregnating system has a control facility, by which the conveying facilities are controlled such that ratios of the components (K1, K2, K3) conveyed by the conveying lines are set depending on the groove length of the grooves and/or a fill level of the grooves, - wherein the mixing level has a pre-mixer and a post-mixer, - wherein a first and a second component (K1, K2) of the impregnating solution are supplied to the pre-mixer and are mixed by the pre-mixer to form an intermediate solution, and - wherein the intermediate solution and at least a third component of the impregnating solution are supplied to the secondary mixer and are mixed by the secondary mixer to form the impregnating solution.
A process for fabricating a honeycomb core composite laminate structure comprising: (a) providing a honeycomb core preform comprised of a honeycomb core and a stabilizing layer comprised of at least one ply of a resin-impregnated fiber reinforced matrix material surrounding the honeycomb core; (b) subjecting the honeycomb core preform to high temperature curing under an ambient atmospheric pressure condition sufficient to cure the stabilizing layer to thereby obtain a stabilized honeycomb core preform; (c) laying up a final laminate layer comprised of at least one ply of an additional resin-impregnated fiber-reinforced matrix material onto the stabilized honeycomb core preform to thereby provide a final product preform; and (d) subjecting the final product preform to high temperature and high pressure autoclave curing conditions sufficient to cure the final laminate layer and provide a final cured honeycomb core composite laminate structure. (a) providing a honeycomb core preform comprised of a honeycomb core and a stabilizing layer comprised of at least one ply of a resin-impregnated fiber reinforced matrix material surrounding the honeycomb core; (b) subjecting the honeycomb core preform to high temperature curing under an ambient atmospheric pressure condition sufficient to cure the stabilizing layer to thereby obtain a stabilized honeycomb core preform; (c) laying up a final laminate layer comprised of at least one ply of an additional resin-impregnated fiber-reinforced matrix material onto the stabilized honeycomb core preform to thereby provide a final product preform; and (d) subjecting the final product preform to high temperature and high pressure autoclave curing conditions sufficient to cure the final laminate layer and provide a final cured honeycomb core composite laminate structure.
Use of a coating composition comprising microfibrillated cellulose and one or more polysaccharide hydrocolloids for reducing the linting and/or dusting of a paper.
A cooling module comprising: a first heat exchanger comprising at least one first side plate; at least two second heat exchangers (102B-C) arranged on opposite sides of the first heat exchanger, each second heat exchanger (102B-C) comprising at least one second side plate (106B-C); and at least one sealing element having a central part and at least two flaps attached to the opposite sides of the central part, wherein the central part is attached to the first heat exchanger characterised in that each flap is adapted to engage with the second side plate (106B-C) of the respective second heat exchanger (102B-C). a first heat exchanger comprising at least one first side plate; at least two second heat exchangers (102B-C) arranged on opposite sides of the first heat exchanger, each second heat exchanger (102B-C) comprising at least one second side plate (106B-C); and at least one sealing element having a central part and at least two flaps attached to the opposite sides of the central part, wherein the central part is attached to the first heat exchanger characterised in that each flap is adapted to engage with the second side plate (106B-C) of the respective second heat exchanger (102B-C).
A gear lubrication arrangement for providing lubrication to a gear, comprising: - a lubrication pump for circulating lubrication fluid, - a power source coupled to the lubrication pump for driving the lubrication pump, and - a controller coupled to at least one of the lubrication pump and the power source, for controlling an output power of the lubrication pump, wherein - the gear lubrication arrangement is configured to provide lubrication to a gear of a wind turbine, - the gear lubrication arrangement comprises a pressure sensor disposed downstream of the lubrication pump in respect of lubrication fluid pumped by the lubrication pump, - the pressure sensor is configured to measure a pressure of the lubrication fluid and to produce a pressure indication signal representative thereof, - the gear lubrication arrangement comprises a temperature sensor configured to measure temperature of the lubrication fluid and to produce a temperature indication signal representative thereof, characterized in that - the controller is arranged to vary the output power of the lubrication pump at least partly on the basis of the pressure indication signal and at least partly on the basis of the temperature indication signal so that the output power of the lubrication pump is limited in response to a situation in which the temperature indication signal indicates temperature below a predetermined limit. - a lubrication pump for circulating lubrication fluid, - a power source coupled to the lubrication pump for driving the lubrication pump, and - a controller coupled to at least one of the lubrication pump and the power source, for controlling an output power of the lubrication pump, wherein - the gear lubrication arrangement is configured to provide lubrication to a gear of a wind turbine, - the gear lubrication arrangement comprises a pressure sensor disposed downstream of the lubrication pump in respect of lubrication fluid pumped by the lubrication pump, - the pressure sensor is configured to measure a pressure of the lubrication fluid and to produce a pressure indication signal representative thereof, - the gear lubrication arrangement comprises a temperature sensor configured to measure temperature of the lubrication fluid and to produce a temperature indication signal representative thereof, characterized in that - the controller is arranged to vary the output power of the lubrication pump at least partly on the basis of the pressure indication signal and at least partly on the basis of the temperature indication signal so that the output power of the lubrication pump is limited in response to a situation in which the temperature indication signal indicates temperature below a predetermined limit.
An article comprising a glass, wherein the glass comprises a cuprite phase comprising a plurality of Cu 1+ ions, a glass phase comprising: a first phase comprising at least one of B 2 O 3, P 2 O 5 and R 2 O, and a second phase comprising SiO 2, wherein the glass comprises in mole percent: SiO 2 in the range from 40 to 70, Al 2 O 3 in the range from 0 to about 20, a copper-containing oxide in the range from 10 to 50, CaO in the range from 0 to 15, MgO in the range from 0 to 15, P 2 O 5 in the range from 0 to 25, B 2 O 3 in the range from about 0 to about 25, K 2 O in the range from 0 to 20, ZnO in the range from 0 to 5, Na 2 O in the range from 0 to 20, Fe 2 O 3 in the range from 0 to 5, wherein the cuprite phase comprises crystals having an average major dimension of 5 micrometers (μm) or less, and wherein the amount of the copper-containing oxide is greater than an amount of Al 2 O 3. a cuprite phase comprising a plurality of Cu 1+ ions, a glass phase comprising: a first phase comprising at least one of B 2 O 3, P 2 O 5 and R 2 O, and a second phase comprising SiO 2, a first phase comprising at least one of B 2 O 3, P 2 O 5 and R 2 O, and a second phase comprising SiO 2, wherein the glass comprises in mole percent: SiO 2 in the range from 40 to 70, Al 2 O 3 in the range from 0 to about 20, a copper-containing oxide in the range from 10 to 50, CaO in the range from 0 to 15, MgO in the range from 0 to 15, P 2 O 5 in the range from 0 to 25, B 2 O 3 in the range from about 0 to about 25, K 2 O in the range from 0 to 20, ZnO in the range from 0 to 5, Na 2 O in the range from 0 to 20, Fe 2 O 3 in the range from 0 to 5, SiO 2 in the range from 40 to 70, Al 2 O 3 in the range from 0 to about 20, a copper-containing oxide in the range from 10 to 50, CaO in the range from 0 to 15, MgO in the range from 0 to 15, P 2 O 5 in the range from 0 to 25, B 2 O 3 in the range from about 0 to about 25, K 2 O in the range from 0 to 20, ZnO in the range from 0 to 5, Na 2 O in the range from 0 to 20, Fe 2 O 3 in the range from 0 to 5, wherein the cuprite phase comprises crystals having an average major dimension of 5 micrometers (μm) or less, and wherein the amount of the copper-containing oxide is greater than an amount of Al 2 O 3.
An atrial fibrillation detection system for detecting the presence of atrial fibrillation in a subject, wherein the atrial fibrillation detection system is provided with heartbeat period measurement means that is configured to measure heartbeat periods of the heart; normalized heartbeat period computation means; characterised in that the normalized heartbeat period computation means is configured to compute normalized heartbeat periods DR represented by the following equation, where R n is a time series of heartbeat periods of the heart, from heartbeat periods of the heart that were measured by the heartbeat period measurement means; abnormal normalized heartbeat period cumulation means that, from among a prescribed number of successive normalized heartbeat periods DR, is configured to add up the count of abnormal normalized heartbeat periods that have an absolute value exceeding a normal heartbeat period value; and comparison/determination means that is configured to compare the cumulative count of the abnormal normalized heartbeat periods and a normal cumulative count threshold value, and in the event that the cumulative count of the abnormal normalized heartbeat periods exceeds the normal cumulative count threshold value, to determine that atrial fibrillation has occurred, DR N n = N R n − 1 − R n ∑ k = n − N + 1 n R k wherein N is an integer greater than 1, subscript n is a time series, and n signifies the past with respect to n + 1.