mhurhangee/ep-ind-claims huggingface dataset:
Method for impregnating a garment or other textile, said method comprising the steps of - hanging the garment or other textile onto an inner support and; - providing an outer surface spaced from the inner support and the garment or other textile, - providing a plurality of nozzles, said nozzles creating a mist of impregnating agent in the space created by the inner support and the outer surface, where the mist is circulated in the space; - evacuating the mist from the space after a predetermined period of time; characterised in that the inner support and the outer surface are electrically conductive, such that the garment or other textile is arranged between the inner support and the outer surface; - providing an electrostatic field between said inner support and said outer surface across said garment or other textile, - providing the impregnating agent with said plurality of nozzles within the electrostatic field on an outer side in relation to the outer side of the garment or other textile, - the impregnating agent having particles being electrically charged or being of a polar nature and being sprayed towards the outer side of the garment or other textile, and - the impregnating agent being influenced by the electrostatic field between said inner support and said outer surface across said garment or other textile such that the impregnating agent will move towards the inner support and thereby be applied to the garment or other textile to be treated. - hanging the garment or other textile onto an inner support and; - providing an outer surface spaced from the inner support and the garment or other textile, - providing a plurality of nozzles, said nozzles creating a mist of impregnating agent in the space created by the inner support and the outer surface, where the mist is circulated in the space; - evacuating the mist from the space after a predetermined period of time; characterised in that the inner support and the outer surface are electrically conductive, such that the garment or other textile is arranged between the inner support and the outer surface; - providing an electrostatic field between said inner support and said outer surface across said garment or other textile, - providing the impregnating agent with said plurality of nozzles within the electrostatic field on an outer side in relation to the outer side of the garment or other textile, - the impregnating agent having particles being electrically charged or being of a polar nature and being sprayed towards the outer side of the garment or other textile, and - the impregnating agent being influenced by the electrostatic field between said inner support and said outer surface across said garment or other textile such that the impregnating agent will move towards the inner support and thereby be applied to the garment or other textile to be treated.
Fine abrasive particles comprising cerium oxide, at least one element selected from the group consisting of La, Pr, Nd, Sm and Eu, and at least one element selected from the group consisting of Y, Gd, Tb, Dy, Ho, Er, Tm, Yb and Lu, wherein the content of Ce of the cerium oxide in the fine abrasive particles is 20 mol% or more; the sum of the content (mol%) of the at least one element selected from the group consisting of La, Pr, Nd, Sm and Eu in the fine abrasive particles and the content of Ce in the cerium oxide is larger than the sum of the content (mol%) of the at least one element selected from the group consisting of Y, Gd, Tb, Dy, Ho, Er, Tm, Yb and Lu in the fine abrasive particles; the sum of the content (mol%) of the at least one element selected from the group consisting of Y, Gd, Tb, Dy, Ho, Er, Tm, Yb and Lu ranges from 5 to 10 mol%; and the fine abrasive particles are spherical, have an average size in the range of from 0.02 to 2.0 μm, as determined using scanning electron microscope images including a number of about 100 of the fine abrasive particles, and have a coefficient of variation of particle size distribution of 20% or less, as determined using scanning electron microscope images including a number of about 100 of the fine abrasive particles.
An automatic retraction apparatus of a movable furniture part guided by a pull-out rail, comprising - a housing; - an energy storage device which is arranged on the housing and can be tensioned during the opening of the movable furniture part; - a tensioning mechanism which is in operative connection with the energy storage device for pretensioning of the energy storage device with a carrier which is displaceably arranged on the housing; - wherein the housing comprises a sliding rail on which the carrier can be inserted - wherein, the housing comprises a sliding block guide, into which at least one first guide web protrudes which is provided on the carrier, characterized in that the housing comprises a track, into which a second guide web protrudes which is provided on the carrier and that the sliding rail is disposed in the mounted state of the carrier between the first guide web and the second guide web, with at least one snap-in lug being formed on the second guide web in the direction of the sliding rail. - a housing; - an energy storage device which is arranged on the housing and can be tensioned during the opening of the movable furniture part; - a tensioning mechanism which is in operative connection with the energy storage device for pretensioning of the energy storage device with a carrier which is displaceably arranged on the housing; - wherein the housing comprises a sliding rail on which the carrier can be inserted - wherein, the housing comprises a sliding block guide, into which at least one first guide web protrudes which is provided on the carrier, characterized in that the housing comprises a track, into which a second guide web protrudes which is provided on the carrier and that the sliding rail is disposed in the mounted state of the carrier between the first guide web and the second guide web, with at least one snap-in lug being formed on the second guide web in the direction of the sliding rail.
An aqueous polymer dispersion comprising 1.0 to 70.0 wt% of a polymer composed of at least one olefinically unsaturated monomer and prepared by emulsion polymerization, 0.01 to 7 wt% of at least one polyalkylene glycol block copolymer of the formula in which A is a hydrogen atom or a phosphate group -PO 3 M 2, M is a hydrogen atom or a sodium, potassium or ammonium ion, m is a number from 1 to 100 and n is a number from 3 to 100, and water. 1.0 to 70.0 wt% of a polymer composed of at least one olefinically unsaturated monomer and prepared by emulsion polymerization, 0.01 to 7 wt% of at least one polyalkylene glycol block copolymer of the formula in which A is a hydrogen atom or a phosphate group -PO 3 M 2, M is a hydrogen atom or a sodium, potassium or ammonium ion, m is a number from 1 to 100 and n is a number from 3 to 100, and A is a hydrogen atom or a phosphate group -PO 3 M 2, M is a hydrogen atom or a sodium, potassium or ammonium ion, m is a number from 1 to 100 and n is a number from 3 to 100, and water.
A human antibody binding to P-selectin, not binding to complement factor C1q and not to Fcγ receptors on NK cells, containing an Fc part derived from human origin, wherein the antibody comprises a human heavy chain constant region comprising an amino acid sequence independently selected from the group consisting of SEQ ID NO: 25, SEQ ID NO: 26 and SEQ ID NO: 28, and is being characterized by comprising the CDR1, CDR2 and CDR3 regions of the light chain variable domain defined by amino acid sequence SEQ ID NO: 21 and the CDR1, CDR2 and CDR3 regions of the heavy chain variable domain defined by SEQ ID NO: 22 and by inhibiting the adhesion of leukocyte-like HL60 cells to purified P-selectin with an IC50 value of 0.08 to 0.5 μg/ml.
Method of monitoring a first device proximity to a second device, comprising: monitoring (40; 60) at least one wireless link between said first device and said second device by the first device; if said wireless link is disrupted (42; 62), the wireless link being disrupted when a Received Signal Strength Indication, RSSI, measured on said wireless link between the first device and the second device is less than a threshold, while an event stored in an electronic calendar is imminent, the event being considered to be imminent if the time between the current time and the time of the event stored in the electronic calendar is less than a given threshold, notifying (46; 64) a user about a loss of proximity of said first device by sending a notification to the second device, wherein the notification comprises an indication of an alert having a level depending on the imminence of the event and on the type of location of the first device, which is determined by a user interface, or GPS or a network identifier of the network to which the first device connected. monitoring (40; 60) at least one wireless link between said first device and said second device by the first device; if said wireless link is disrupted (42; 62), the wireless link being disrupted when a Received Signal Strength Indication, RSSI, measured on said wireless link between the first device and the second device is less than a threshold, while an event stored in an electronic calendar is imminent, the event being considered to be imminent if the time between the current time and the time of the event stored in the electronic calendar is less than a given threshold, notifying (46; 64) a user about a loss of proximity of said first device by sending a notification to the second device, wherein the notification comprises an indication of an alert having a level depending on the imminence of the event and on the type of location of the first device, which is determined by a user interface, or GPS or a network identifier of the network to which the first device connected.
A method for manufacturing a plurality of unit electrodes from an electrode sheet roll having one surface or both surfaces on which a coated portion to which the electrode active material is applied and an uncoated portion to which the electrode active material is not applied being alternately and regularly arranged, the method comprising: a first process of: cutting the electrode sheet roll to the width of the unit electrode in a state of being wound, and - unfolding the cut electrode sheet roll; and a second process of pressing a mold on the uncoated portion of the unfolded cut electrode sheet roll, which is continuously supplied from the first process, to process the unfolded electrode sheet roll into the unit electrodes, the mold having an overall " I " shape and the middle portion thereof having a recessed portion with "[" shape. a first process of: cutting the electrode sheet roll to the width of the unit electrode in a state of being wound, and - unfolding the cut electrode sheet roll; and - unfolding the cut electrode sheet roll; and a second process of pressing a mold on the uncoated portion of the unfolded cut electrode sheet roll, which is continuously supplied from the first process, to process the unfolded electrode sheet roll into the unit electrodes, the mold having an overall " I " shape and the middle portion thereof having a recessed portion with "[" shape.
Dedusting attachment (1, 40) for a testing device for small-sized bulk goods (4 to 10), wherein the dedusting attachment comprises: - a chamber with a feed aperture for introducing small-sized bulk goods (4 to 10) into the chamber, - wherein the chamber comprises a first outlet opening for dust as well as a second outlet opening for bulk goods (4 to 10), - wherein above the first outlet opening as well as of the second outlet opening a bottom swivellable about an axis is disposed, - wherein the bottom comprises a first section as well as a second section, - wherein the first section comprises perforations (19 to 21) having a sifting function such that dust can be removed from the chamber across the first outlet opening, - wherein the second section of bottom is closed and characterized thereby that in a first position the bottom is inclined in the direction of outlet opening and the bottom blocks the second outlet opening - and that the bottom in a second position is inclined in the direction of the second outlet opening whereby this second outlet opening is opened such that bulk goods (4 to 10) can be removed from the chamber. - a chamber with a feed aperture for introducing small-sized bulk goods (4 to 10) into the chamber, - wherein the chamber comprises a first outlet opening for dust as well as a second outlet opening for bulk goods (4 to 10), - wherein above the first outlet opening as well as of the second outlet opening a bottom swivellable about an axis is disposed, - wherein the bottom comprises a first section as well as a second section, - wherein the first section comprises perforations (19 to 21) having a sifting function such that dust can be removed from the chamber across the first outlet opening, - wherein the second section of bottom is closed and characterized thereby that in a first position the bottom is inclined in the direction of outlet opening and the bottom blocks the second outlet opening - and that the bottom in a second position is inclined in the direction of the second outlet opening whereby this second outlet opening is opened such that bulk goods (4 to 10) can be removed from the chamber.
An outdoor unit comprising an outdoor heat exchanger (151, 152) for evaporating a refrigerant according to a heating operation mode of an air conditioner, the outdoor unit comprising: a storage tank disposed on a side of the outdoor heat exchanger (151, 152), the storage tank storing a defrosting liquid reacting with frosts generated on the outdoor heat exchanger (151, 152); a nozzle part for supplying the defrosting liquid from the storage tank to the outdoor heat exchanger (151, 152); a timer for integrating a time elapsing from a reference time to decide a supply time of the defrosting liquid supplied from the storage tank; a controller determining whether the defrosting liquid supplied from the storage tank is supplied or adjusting a supply amount of defrosting liquid on the basis of the time integrated by the timer; and a defrosting liquid tray for collecting the defrosting liquid passing through the outdoor heat exchanger (151, 152), characterized in that the outdoor unit further comprises: a concentration sensor disposed in the defrosting liquid tray to detect a concentration of the collected defrosting liquid; and a supplement liquid tank for selectively supplying a supplement liquid into the storage tank on the basis of the concentration detected by the concentration sensor. a storage tank disposed on a side of the outdoor heat exchanger (151, 152), the storage tank storing a defrosting liquid reacting with frosts generated on the outdoor heat exchanger (151, 152); a nozzle part for supplying the defrosting liquid from the storage tank to the outdoor heat exchanger (151, 152); a timer for integrating a time elapsing from a reference time to decide a supply time of the defrosting liquid supplied from the storage tank; a controller determining whether the defrosting liquid supplied from the storage tank is supplied or adjusting a supply amount of defrosting liquid on the basis of the time integrated by the timer; and a defrosting liquid tray for collecting the defrosting liquid passing through the outdoor heat exchanger (151, 152), characterized in that the outdoor unit further comprises: a concentration sensor disposed in the defrosting liquid tray to detect a concentration of the collected defrosting liquid; and a supplement liquid tank for selectively supplying a supplement liquid into the storage tank on the basis of the concentration detected by the concentration sensor. a concentration sensor disposed in the defrosting liquid tray to detect a concentration of the collected defrosting liquid; and a supplement liquid tank for selectively supplying a supplement liquid into the storage tank on the basis of the concentration detected by the concentration sensor.
Method for performing admission control of a multimedia gateway comprising a border gateway associated with at least two IP realms (7a, 7b, 8, 9), the method comprising: defining at least one admission control parameter for at least one of the IP realms (7a, 7b, 8, 9), and admitting or rejecting requests for establishing new pinholes or for modifying existing pinholes between the IP realms (7a, 7b, 8, 9) associated with the border gateway in dependence of the at least one admission control parameter, characterized in that the at least one admission control parameter is chosen from the group consisting of: admitted media-type specific maximum data rate per IP realm (7a, 7b, 8, 9) and admitted media formats per IP realm (7a, 7b, 8, 9). defining at least one admission control parameter for at least one of the IP realms (7a, 7b, 8, 9), and admitting or rejecting requests for establishing new pinholes or for modifying existing pinholes between the IP realms (7a, 7b, 8, 9) associated with the border gateway in dependence of the at least one admission control parameter, characterized in that the at least one admission control parameter is chosen from the group consisting of: admitted media-type specific maximum data rate per IP realm (7a, 7b, 8, 9) and admitted media formats per IP realm (7a, 7b, 8, 9).
A light emitting device comprising: a first conductivity type semiconductor layer; an active layer including a quantum well and a quantum barrier on the first conductivity type semiconductor layer, an undoped last barrier layer on the active layer; an Al x In y Ga( 1-x-y)N (0≤x≤1, 0≤y≤1)-based layer on the undoped last barrier layer; and a second conductivity type semiconductor layer on the Al x In y Ga (1-x-y) N-based layer, wherein the last barrier layer comprises: a first In p1 Ga 1-p1 N (0 〈p 1 〈1) layer on a last quantum well which is closest to the second conductivity type semiconductor layer in the quantum well; an Al q Ga 1-q N (0 <q < 1) layer on the first In p1 Ga 1-p1 N layer; and a second In p2 Ga 1-p2 N (0 〈p 2 〈1) layer on the Al q Ga 1-q N layer, characterized in that an energy bandgap of the Al q Ga 1-q N layer is greater than an energy bandgap of the Al x In y Ga (1-x-y) N-based layer, and wherein a thickness of the Al q Ga 1-q N layer is less than that of the first In p1 Ga 1-p1 N layer or the second In p2 Ga 1-p2 N layer. a first conductivity type semiconductor layer; an active layer including a quantum well and a quantum barrier on the first conductivity type semiconductor layer, an undoped last barrier layer on the active layer; an Al x In y Ga( 1-x-y)N (0≤x≤1, 0≤y≤1)-based layer on the undoped last barrier layer; and a second conductivity type semiconductor layer on the Al x In y Ga (1-x-y) N-based layer, wherein the last barrier layer comprises: a first In p1 Ga 1-p1 N (0 〈p 1 〈1) layer on a last quantum well which is closest to the second conductivity type semiconductor layer in the quantum well; an Al q Ga 1-q N (0 <q < 1) layer on the first In p1 Ga 1-p1 N layer; and a second In p2 Ga 1-p2 N (0 〈p 2 〈1) layer on the Al q Ga 1-q N layer, characterized in that an energy bandgap of the Al q Ga 1-q N layer is greater than an energy bandgap of the Al x In y Ga (1-x-y) N-based layer, and wherein a thickness of the Al q Ga 1-q N layer is less than that of the first In p1 Ga 1-p1 N layer or the second In p2 Ga 1-p2 N layer. a first In p1 Ga 1-p1 N (0 〈p 1 〈1) layer on a last quantum well which is closest to the second conductivity type semiconductor layer in the quantum well; an Al q Ga 1-q N (0 <q < 1) layer on the first In p1 Ga 1-p1 N layer; and a second In p2 Ga 1-p2 N (0 〈p 2 〈1) layer on the Al q Ga 1-q N layer, characterized in that an energy bandgap of the Al q Ga 1-q N layer is greater than an energy bandgap of the Al x In y Ga (1-x-y) N-based layer, and wherein a thickness of the Al q Ga 1-q N layer is less than that of the first In p1 Ga 1-p1 N layer or the second In p2 Ga 1-p2 N layer.
A foamed preform for a container, - wherein a region corresponding to at least a body portion and a bottom portion of the container is a foamed region, - said foamed region forming a foamed layer in which foamed cells are isotropically distributed and a skin layer in which no foamed cell is distributed, characterized in that - the foamed cells distributed in the foamed region are of a spherical shape having an average diameter in a range of 5 to 50μm and a cell density in a range of 10 6 to 10 9 cells/cm3; - the foamed preform is formed by preparing an unfoamed preform formed by integral molding of a thermoplastic resin and imbibing an inert gas, and heating the unfoamed preform to effect foaming. - wherein a region corresponding to at least a body portion and a bottom portion of the container is a foamed region, - said foamed region forming a foamed layer in which foamed cells are isotropically distributed and a skin layer in which no foamed cell is distributed, - the foamed cells distributed in the foamed region are of a spherical shape having an average diameter in a range of 5 to 50μm and a cell density in a range of 10 6 to 10 9 cells/cm3; - the foamed preform is formed by preparing an unfoamed preform formed by integral molding of a thermoplastic resin and imbibing an inert gas, and heating the unfoamed preform to effect foaming.
A system for multi-mode autobrake control, comprising: a wheel speed sensor; a brake control unit electrically coupled to the wheel speed sensor, the brake control unit including an antiskid filter and a nominal filter, and the brake control unit being configured to perform operations comprising: receiving, by the brake control unit, a wheel speed signal from the wheel speed sensor; inputting, by the brake control unit, the wheel speed signal into the antiskid filter and the nominal filter; calculating, by the brake control unit, an estimated aircraft deceleration rate using at least one of an antiskid signal output from the antiskid filter or a nominal signal output from the nominal filter; and determining, by the brake control unit, an autobrake pressure command based on the estimated aircraft decelerationrate rate, characterised in that the antiskid filter comprises a first low pass filter having a first frequency bandwidth, and wherein the nominal filter comprises a second low pass filter having a second frequency bandwidth greater than the first frequency bandwidth. a wheel speed sensor; a brake control unit electrically coupled to the wheel speed sensor, the brake control unit including an antiskid filter and a nominal filter, and the brake control unit being configured to perform operations comprising: receiving, by the brake control unit, a wheel speed signal from the wheel speed sensor; inputting, by the brake control unit, the wheel speed signal into the antiskid filter and the nominal filter; calculating, by the brake control unit, an estimated aircraft deceleration rate using at least one of an antiskid signal output from the antiskid filter or a nominal signal output from the nominal filter; and determining, by the brake control unit, an autobrake pressure command based on the estimated aircraft decelerationrate rate, characterised in that the antiskid filter comprises a first low pass filter having a first frequency bandwidth, and wherein the nominal filter comprises a second low pass filter having a second frequency bandwidth greater than the first frequency bandwidth.