mhurhangee/ep-ind-claims huggingface dataset:
Self-regulating ventilation unit for a window, a door or similar, that is formed by a housing with an outside wall and an inside wall opposite it that are connected together by two upright longitudinal walls that extend along the longitudinal direction of the housing and which are connected together by two end walls, whereby the inside wall and outside wall have a grid and in which a band is affixed that extends in the longitudinal direction over the grid of the outside wall and is secured by its ends to the outside wall or the end walls, and at a place between these ends the band is pushed away from the inside wall in the direction of the outside wall by means of an elastic element, characterised in that at least one of the aforementioned longitudinal walls at least partially has an open structure, whereby the aforementioned open structure at least extends along a triangular zone with a base that extends between the two ends of the band and a top that is located in the zone where the band is pushed away from the inside wall and a height that corresponds to the maximum distance over which the band is pushed away from the inside wall by the elastic element.
A method for transmitting information on a first link and receiving information on a second link in a communication system comprising the steps of: providing at least two different codec modes for processing said information in said system; transmitting, in at least one first frame containing payload information on said first link, a mode indication identifying one of said at least two different codec modes which has been used to process payload information found in this and/or a subsequent frame; and transmitting, in at least one second frame containing payload information on said first link different than said first frame, a mode request identifying one of said at least two different codec modes to be used to process information to be transmitted on said second link, wherein said mode indication in said first frame and said mode request in said second frame are transmitted alternately, and wherein said at least one first and second frames are consecutively transmitted. providing at least two different codec modes for processing said information in said system; transmitting, in at least one first frame containing payload information on said first link, a mode indication identifying one of said at least two different codec modes which has been used to process payload information found in this and/or a subsequent frame; and transmitting, in at least one second frame containing payload information on said first link different than said first frame, a mode request identifying one of said at least two different codec modes to be used to process information to be transmitted on said second link,
Winder for winding a material web, with a feed station for conveying the material web into the winder, comprising a winding station for producing a finished roll from the material web conveyed by the feed station, with a transfer station, in which the finished roll can be removed from the winder for further processing, with a controller for controlling the feed station, the winding station and the transfer station, wherein the controller has an electric interface for a label printer, and wherein the transfer station has a mechanical interface for the label printer, characterized in that the mechanical interface has a telescopic drawer such that the label printer can be moved between a retracted position and an extended position, in which the operator can perform maintenance work, wherein the retracted position is used as the operating position. with a feed station for conveying the material web into the winder, comprising a winding station for producing a finished roll from the material web conveyed by the feed station, with a transfer station, in which the finished roll can be removed from the winder for further processing, with a controller for controlling the feed station, the winding station and the transfer station, wherein the controller has an electric interface for a label printer, and wherein the transfer station has a mechanical interface for the label printer, characterized in that the mechanical interface has a telescopic drawer such that the label printer can be moved between a retracted position and an extended position, in which the operator can perform maintenance work, wherein the retracted position is used as the operating position.
A fiber for tribological applications comprising at least one solid lubricant or being surface-treated with at least one solid lubricant, said fiber being a metal fiber, a ceramic fiber, a natural fiber, a polymeric fiber, a cellulose fiber, an aramid fiber, a plastic fiber, a glass fiber, a nanofiber, or a carbon fiber, and the solid lubricant being selected from the group consisting of SnS, SnS2, Bi2S3, ZnS, WS2, CuFeS2, CuS, Cu2S, MnS, Sb2S3, TiS2, sulfides of Cr/Co/Ni, Sn2S3, MoS3, WS3, Fe1-xS, MnS2, Sb2S5, ZrS2, CaS, MgS, sulfides of La, Ce, multi-phased metal sulfides of various metals, BN, PTFE, phosphates, oxides, or mixtures thereof, characterised in that said fiber is sulfidized. said fiber being a metal fiber, a ceramic fiber, a natural fiber, a polymeric fiber, a cellulose fiber, an aramid fiber, a plastic fiber, a glass fiber, a nanofiber, or a carbon fiber, and the solid lubricant being selected from the group consisting of SnS, SnS2, Bi2S3, ZnS, WS2, CuFeS2, CuS, Cu2S, MnS, Sb2S3, TiS2, sulfides of Cr/Co/Ni, Sn2S3, MoS3, WS3, Fe1-xS, MnS2, Sb2S5, ZrS2, CaS, MgS, sulfides of La, Ce, multi-phased metal sulfides of various metals, BN, PTFE, phosphates, oxides, or mixtures thereof, characterised in that said fiber is sulfidized.
NO X purification method of an exhaust purification system of an internal combustion engine provided with an exhaust purification catalyst inside of an engine exhaust passage for causing NO X and hydrocarbons which are contained in an exhaust to react, the exhaust purification catalyst including an upstream side catalyst and a downstream side catalyst, the upstream side catalyst having an oxidation ability, and the downstream side catalyst carrying precious metal catalyst particles (55, 56) on an exhaust flow surface and being formed with basic exhaust flow surface parts around the catalyst particles, the exhaust purification catalyst reducing the NO X which is contained in the exhaust if making a concentration of hydrocarbons which flow into the exhaust purification catalyst vibrate by within a predetermined range of amplitude and by within a predetermined range of period by partially oxidizing the hydrocarbons, activating the NO X to generate active NO X, making the partially oxidized hydrocarbons and the active NO X react so as to produce reducing intermediates, and making reducing intermediates and the active NO X react, wherein a vibration period of the hydrocarbon concentration is made an interval of 0.3 second to 5 seconds, and being increased in storage amount of NO X which is contained in the exhaust gas if making the vibration period of the concentration of hydrocarbons longer than said predetermined range, wherein the system is formed so as to perform control so as to make the concentration of hydrocarbons which flow into the exhaust purification catalyst vibrate by within said predetermined range of amplitude and by within said predetermined range of period at the time of engine operation and reduce the NO X which is contained in the exhaust at the exhaust purification catalyst, the system is further provided with a temperature raising device which raises a temperature of the upstream side catalyst, a first judgment temperature is set based on a temperature at which the upstream side catalyst can partially oxidize the hydrocarbons by a predetermined efficiency or a temperature at which it can produce reducing intermediates by a predetermined efficiency, a second judgment temperature is set based on a temperature at which the downstream side catalyst can react the reducing intermediates and the active NO X by a predetermined efficiency, and when the temperature of the upstream side catalyst is less than the first judgment temperature and the temperature of the downstream side catalyst is higher than the second judgment temperature, the temperature raising device raises the temperature of the upstream side catalyst.
Method of heat transfer wherein a flat metal product having a broad face and a temperature upper to 400°C is put in contact with a fluidised bed of solid particles, said solid particles having a direction of circulation, wherein the flat metal product is put in contact with the solid particles so that its broad face is parallel to the direction of circulation of the solid particles and wherein a gas is injected so that said solid particles be in a bubbling regime, said solid particles capturing the heat released by the metal product and transferring said captured heat to a transfer medium.
A photocurable composition comprising: a compound having an unsaturated double bond; at least one compound represented by general formula; and a sensitizer, where R 1 to R 3 are each independently a substituent containing at least one group selected from the group consisting of a nitro group, a cyano group, a hydroxy group, an acetyl group, a carbonyl group, a substituted or unsubstituted allyl group, a substituted or unsubstituted alkyl group, a substituted or unsubstituted alkoxy group, an unsubstituted or substituted aryl group, an unsubstituted or substituted aryloxy group, a heterocyclic ring structure-containing group, and a group having a plurality of rings; or at least two groups selected from the group consisting of R 1 to R 3 are bonded to each other to form a cyclic structure with carbon atoms to which the groups are bonded. a compound having an unsaturated double bond; at least one compound represented by general formula; and a sensitizer,
A child motion apparatus comprising: a base, a seat arranged above the base and including a bottom frame segment and a seatback frame segment, the seatback frame segment being pivotally connected with a rear end of the bottom frame segment, and an upright column disposed below the seat, the upright column being connected with the bottom frame segment at a location between the rear end and a front end of the bottom frame segment, characterized in that: the upright column pivotally supports the seat above the base so that the seat is rotatable about a rotation axis; and a magnetic drive system is provided to drive the seat to sway sideways, the magnetic drive system including a first and a second magnetic member (182, 184) respectively affixed with the seat and the base at positions offset from the rotation axis, a magnetic force being generated between the first and second magnetic members (182, 184) for maintaining a swaying motion of the seat when the first and second magnetic members (182, 184) are in proximity of each other. the upright column pivotally supports the seat above the base so that the seat is rotatable about a rotation axis; and a magnetic drive system is provided to drive the seat to sway sideways, the magnetic drive system including a first and a second magnetic member (182, 184) respectively affixed with the seat and the base at positions offset from the rotation axis, a magnetic force being generated between the first and second magnetic members (182, 184) for maintaining a swaying motion of the seat when the first and second magnetic members (182, 184) are in proximity of each other.
Process for manufacturing granules of salts of at least two aminopolycarboxylic acids, comprising the steps of (a) providing an aqueous solution of at least one alkali metal salt of a mixture of L- and D- enantiomers of methyl glycine diacetic acid (MGDA), said mixture containing predominantly the respective L-isomer with an enantiomeric excess (ee) in the range of from 10 to 95 %, and at least one alkali metal salt of L- and D-enantiomers of glutamic acid diacetic acid (GLDA) or of enantiomerically pure L-GLDA, the weight ratio of and being in the range of from 1:9 to 9:1, (b) spray granulating said solution with a gas inlet temperature of at least 125°C. (a) providing an aqueous solution of at least one alkali metal salt of a mixture of L- and D- enantiomers of methyl glycine diacetic acid (MGDA), said mixture containing predominantly the respective L-isomer with an enantiomeric excess (ee) in the range of from 10 to 95 %, and at least one alkali metal salt of L- and D-enantiomers of glutamic acid diacetic acid (GLDA) or of enantiomerically pure L-GLDA, the weight ratio of and being in the range of from 1:9 to 9:1, at least one alkali metal salt of a mixture of L- and D- enantiomers of methyl glycine diacetic acid (MGDA), said mixture containing predominantly the respective L-isomer with an enantiomeric excess (ee) in the range of from 10 to 95 %, and at least one alkali metal salt of L- and D-enantiomers of glutamic acid diacetic acid (GLDA) or of enantiomerically pure L-GLDA, the weight ratio of and being in the range of from 1:9 to 9:1, (b) spray granulating said solution with a gas inlet temperature of at least 125°C.
A method for manufacturing an electrode, comprising: cleaning an end of a coated part contacting a non-coated part by irradiating laser to a top-coated electrode mixture layer and a back-coated electrode mixture layer of an electrode current collector along a boundary line of the coated part, wherein the cleaning is performed so that a line of irradiating laser to the top-coated electrode mixture layer of the electrode current collector and a line of irradiating laser to the back-coated electrode mixture layer of the electrode current collector correspond to each other in a direction perpendicular to that of the electrode current collector, wherein during the cleaning, a process of irradiating laser to the top-coated electrode mixture layer of the electrode current collector; and a process of irradiating laser to the back-coated electrode mixture layer of the electrode current collector are performed simultaneously. cleaning an end of a coated part contacting a non-coated part by irradiating laser to a top-coated electrode mixture layer and a back-coated electrode mixture layer of an electrode current collector along a boundary line of the coated part, wherein the cleaning is performed so that a line of irradiating laser to the top-coated electrode mixture layer of the electrode current collector and a line of irradiating laser to the back-coated electrode mixture layer of the electrode current collector correspond to each other in a direction perpendicular to that of the electrode current collector, wherein during the cleaning, a process of irradiating laser to the top-coated electrode mixture layer of the electrode current collector; and a process of irradiating laser to the back-coated electrode mixture layer of the electrode current collector are performed simultaneously.
An injection device for drug delivery, the injection device comprising: a container for storing a drug, a stopper moveably disposed in the container for expelling the drug; a plunger (142, 242) for acting on the stopper; and a damping mechanism (170, 470) for reducing a velocity of the plunger (142, 242) prior to the plunger acting on the stopper, the damper mechanism (170, 470) comprising: a housing, a piston assembly (176, 276, 376) movable in the housing (174, 274, 374) and acted upon by the plunger (142, 242) of the injection device, and a working fluid displaceable by the piston assembly (176, 276, 376) for resisting movement of the plunger (142, 242), characterized in that the damper mechanism (170, 470) is configured such that upon activation of the injection device, the plunger (142, 242) advances towards the stopper, eventually causing the housing (174, 274, 374) to contact the stopper. a container for storing a drug, a stopper moveably disposed in the container for expelling the drug; a plunger (142, 242) for acting on the stopper; and a damping mechanism (170, 470) for reducing a velocity of the plunger (142, 242) prior to the plunger acting on the stopper, the damper mechanism (170, 470) comprising: a housing, a piston assembly (176, 276, 376) movable in the housing (174, 274, 374) and acted upon by the plunger (142, 242) of the injection device, and a working fluid displaceable by the piston assembly (176, 276, 376) for resisting movement of the plunger (142, 242), characterized in that the damper mechanism (170, 470) is configured such that upon activation of the injection device, the plunger (142, 242) advances towards the stopper, eventually causing the housing (174, 274, 374) to contact the stopper. a housing, a piston assembly (176, 276, 376) movable in the housing (174, 274, 374) and acted upon by the plunger (142, 242) of the injection device, and a working fluid displaceable by the piston assembly (176, 276, 376) for resisting movement of the plunger (142, 242), characterized in that the damper mechanism (170, 470) is configured such that upon activation of the injection device, the plunger (142, 242) advances towards the stopper, eventually causing the housing (174, 274, 374) to contact the stopper.
A microwave heating package (100, 200), comprising: a plurality of panels including a first panel (102, 202) having an interior side and an exterior side; a susceptor film joined to the interior side of the first panel, the susceptor film comprising microwave energy interactive material (116, 224) disposed on a polymer film, wherein the polymer film at least partially defines an interior surface of the package; characterised by: ink (120,210) disposed on the exterior side of the first panel; and a thermoset polymer coating (122, 212) disposed on the exterior side of the first panel so that the ink is disposed between the thermoset polymer coating and the exterior side of the first panel, wherein the thermoset polymer coating at least partially defines an exterior surface of the package. a plurality of panels including a first panel (102, 202) having an interior side and an exterior side; a susceptor film joined to the interior side of the first panel, the susceptor film comprising microwave energy interactive material (116, 224) disposed on a polymer film, wherein the polymer film at least partially defines an interior surface of the package; characterised by: ink (120,210) disposed on the exterior side of the first panel; and ink (120,210) disposed on the exterior side of the first panel; and a thermoset polymer coating (122, 212) disposed on the exterior side of the first panel so that the ink is disposed between the thermoset polymer coating and the exterior side of the first panel, wherein the thermoset polymer coating at least partially defines an exterior surface of the package.
A method for distributing RFID-tagged items using a mobile RFID container configured to carry a plurality of RFID-tagged items, the mobile RFID container comprising an RFID detector configured to conduct RFID scans and generate scan data concerning the plurality of RFID-tagged items carried in the mobile RFID container, and location determining circuitry for generating location data concerning the location of the mobile RFID container, the method comprising: placing a plurality of RFID-tagged items in the mobile RFID container; conducting one or more RFID scans to generate scan data concerning the contents of the RFID container, in response to one or more of the following: the location of the container relative to a defined geographical location, determining that the contents of the container have been accessed, a detected position and/or movement of a door of the mobile RFID container, and when sensor data meets a predetermined condition, such as a predetermined temperature or humidity condition; processing the scan data and location data to determine the location of the mobile RFID container at times when the contents of the RFID container have changed; defining one or more geofence boundaries, each of which corresponds to a particular geographical location; monitoring the location data to determine the location of the mobile RFID container; and performing at least one automated process in response to the location of the mobile RFID container relative to the at least one geofence boundary, wherein the at least one automated process comprises generating invoicing data, credit data, and/or restocking data based on the scan and location. placing a plurality of RFID-tagged items in the mobile RFID container; conducting one or more RFID scans to generate scan data concerning the contents of the RFID container, in response to one or more of the following: the location of the container relative to a defined geographical location, determining that the contents of the container have been accessed, a detected position and/or movement of a door of the mobile RFID container, and when sensor data meets a predetermined condition, such as a predetermined temperature or humidity condition; the location of the container relative to a defined geographical location, determining that the contents of the container have been accessed, a detected position and/or movement of a door of the mobile RFID container, and when sensor data meets a predetermined condition, such as a predetermined temperature or humidity condition; processing the scan data and location data to determine the location of the mobile RFID container at times when the contents of the RFID container have changed; defining one or more geofence boundaries, each of which corresponds to a particular geographical location; monitoring the location data to determine the location of the mobile RFID container; and performing at least one automated process in response to the location of the mobile RFID container relative to the at least one geofence boundary, wherein the at least one automated process comprises generating invoicing data, credit data, and/or restocking data based on the scan and location.
An induction-heating cooking device, including: a light-transmissive cooking board provided on a top surface of a main body case; a heating section provided on the cooking board for heating a cooking container placed thereon by induction heating; a heating coil provided oppositely to the cooking container with respect to the cooking board, the heating coil being provided in correspondence with the heating section; a light conducting means provided at a position corresponding to an outer peripheral portion of the heating coil; and a light source for emitting a light beam toward the light conducting means, characterised in that the light conducting means allows the light beam emitted by the light source to be propagated therethrough along an outer periphery of the heating coil, has a bottom surface for reflecting the propagated light beam, and outputs the reflected light beam from a position corresponding to at least a part of the outer peripheral portion of the heating coil toward the cooking board. a light-transmissive cooking board provided on a top surface of a main body case; a heating section provided on the cooking board for heating a cooking container placed thereon by induction heating; a heating coil provided oppositely to the cooking container with respect to the cooking board, the heating coil being provided in correspondence with the heating section; a light conducting means provided at a position corresponding to an outer peripheral portion of the heating coil; and a light source for emitting a light beam toward the light conducting means, characterised in that the light conducting means allows the light beam emitted by the light source to be propagated therethrough along an outer periphery of the heating coil, has a bottom surface for reflecting the propagated light beam, and outputs the reflected light beam from a position corresponding to at least a part of the outer peripheral portion of the heating coil toward the cooking board.