mhurhangee/ep-ind-claims huggingface dataset:
A light-emitting arrangement, comprising: - a light source adapted to emit light of a first wavelength; and - a wavelength converting member comprising an organic wavelength converting material adapted to receive light of said first wavelength and to convert at least part of the received light to light of a second wavelength; and - a sealing structure at least partially surrounding said wavelength converting member to form a sealed cavity containing at least said wavelength converting member, said sealed cavity containing an inert gas and oxygen gas, the concentration of oxygen gas being in the range of from 0.05 to 3 % based on the total volume within said sealed cavity, wherein said wavelength converting material comprises a perylene derivative, and wherein the wavelength converting member comprises a matrix material selected from the group consisting of poly(ethylene terephthalate) and copolymers thereof, and polyethylene naphthalate and copolymers thereof. - a light source adapted to emit light of a first wavelength; and - a wavelength converting member comprising an organic wavelength converting material adapted to receive light of said first wavelength and to convert at least part of the received light to light of a second wavelength; and - a sealing structure at least partially surrounding said wavelength converting member to form a sealed cavity containing at least said wavelength converting member, said sealed cavity containing an inert gas and oxygen gas, the concentration of oxygen gas being in the range of from 0.05 to 3 % based on the total volume within said sealed cavity,
Digital filter for reducing a sampling rate of an input signal (s) and said digital filter comprises: a parallelising block for splitting the input signal (s) into at least two parallel raw signals (u e), an integration block for converting the parallel raw signals (u e) into an intermediate signal (S R), and a differentiation block (16a, 16b) for generating an output signal (y) by means of differentiating the intermediate signal (S R), wherein the integration block comprises a logic block that is configured so as to generate two parallel sum signals S 0 and S 1 from the parallel raw signals (u e) by means of summation operations, characterised in that the logic block generates the two parallel sum signals S 0 and S 1 in accordance with S 0 i = ∑ e = 0 E − 1 u e i, i = 1,2,... and S 1 i = E ⋅ u 0 i + ⋯ + 2 ⋅ u E − 2 i + u E − 1 i, i = 1,2,... wherein u e (i) represents the parallel raw signals and E represents the number of the parallel raw signals, and that the integration block comprises a recursion block that is configured for the purpose of generating the intermediate signal (S R) recursively from the parallel sum signals (S 0, S 1), wherein the intermediate signal S R is generated in accordance with S R i = S R i − 1 + S 1 i + E ⋅ S 0 i − 2 + E ⋅ S 0 i − 1, i = 3,4,... a parallelising block for splitting the input signal (s) into at least two parallel raw signals (u e), an integration block for converting the parallel raw signals (u e) into an intermediate signal (S R), and a differentiation block (16a, 16b) for generating an output signal (y) by means of differentiating the intermediate signal (S R), wherein the integration block comprises a logic block that is configured so as to generate two parallel sum signals S 0 and S 1 from the parallel raw signals (u e) by means of summation operations, characterised in that the logic block generates the two parallel sum signals S 0 and S 1 in accordance with S 0 i = ∑ e = 0 E − 1 u e i, i = 1,2,... and S 1 i = E ⋅ u 0 i + ⋯ + 2 ⋅ u E − 2 i + u E − 1 i, i = 1,2,... wherein u e (i) represents the parallel raw signals and E represents the number of the parallel raw signals, and that the integration block comprises a recursion block that is configured for the purpose of generating the intermediate signal (S R) recursively from the parallel sum signals (S 0, S 1), wherein the intermediate signal S R is generated in accordance with S R i = S R i − 1 + S 1 i + E ⋅ S 0 i − 2 + E ⋅ S 0 i − 1, i = 3,4,...
An X chromosome inactivation factor (XCIF) inhibitor for use in a method of treating a subject having a dominant X-linked disease, the method comprising: administering to the subject an X-chromosome inactivation factor (XCIF) inhibitor in an amount effective for inducing expression of a target X-linked gene, wherein the XCIF inhibitor selectively inhibits activity of serum and glucocorticoid kinase 1/2 (SGK1/2).
Method in hydrocarbon recovery operations comprising the application of at least one fluid, the method comprising inducing pressure transients in said fluid such as to propagate in said fluid, where said pressure transients are induced by a collision process generated by at least one moving object (103, 203, 303, 403, 503, 801) caused to collide outside said fluid with at least one body (102, 202, 302, 402, 502) in contact with said fluid inside at least one partly enclosed space (101, 201, 301, 401, 501).
Device for monitoring at least one vital parameter of an animal fetus during parturition, the device comprising a sensor for measuring the at least one vital parameter, including the oxygen saturation of arterial hemoglobin and/or the pulse rate, of the animal fetus, wherein the sensor is arranged inside a hoof cover for being placed on at least one hoof of the animal fetus, characterized in that the hoof cover is a cast taken from the hoof of an animal of the same species as the animal fetus.
A method for the production of a carnitine granulate, comprising the steps of (a) providing an aqueous solution comprising at least 65% (w/w) carnitine, (b) providing a particulate carrier comprising silica, the carrier having an average particle size of more than 150 μm, and (c) mixing the aqueous solution and the carrier, whereby a drying step is excluded. (a) providing an aqueous solution comprising at least 65% (w/w) carnitine, (b) providing a particulate carrier comprising silica, the carrier having an average particle size of more than 150 μm, and (c) mixing the aqueous solution and the carrier,
Method for operating an electric machine, which has a rotatably mounted rotor with a permanent magnet arrangement and has at least one motor winding, wherein a temperature load of the machine is determined, and wherein an electric motor current is applied to the motor winding to generate a specified desired torque (M desired) in dependence on the temperature load, wherein the permanent magnet arrangement comprises permanent magnets, characterized in that when a temperature load below a specified load threshold value is determined, the motor winding is energized in such a way that a torque-forming current component (Iq) of the motor current corresponds at least substantially to the motor current and when a temperature load above the load threshold value is determined, a field-strengthening mode of the machine is set, so that the electric machine is operated in the field-strengthening mode, wherein the motor winding in the field-strengthening mode is energized in such a way that the motor current has a positive field-forming current component (Id). when a temperature load below a specified load threshold value is determined, the motor winding is energized in such a way that a torque-forming current component (Iq) of the motor current corresponds at least substantially to the motor current and when a temperature load above the load threshold value is determined, a field-strengthening mode of the machine is set, so that the electric machine is operated in the field-strengthening mode, wherein the motor winding in the field-strengthening mode is energized in such a way that the motor current has a positive field-forming current component (Id).
A window of an aircraft attached to an opening formed in an airframe of the aircraft comprising: a window body; a window frame that is formed on the inside of the opening and made of a conductive material; a gasket seal (50, 65) that is held between an outer perimeter part of the window body and the window frame; and a fastener member (28, 29, 66) that is used for securing the window body to the airframe with the gasket seal interposed therebetween, wherein the window body comprises a transparent window panel (23A, 23B, 61A, 61B), an electromagnetic shield film (25, 63) that is made of a conductive material and laminated on the window panel, and the gasket seal (50, 65) comprises a first seal part that is made of a conductive rubber-based material and interposed between the window panel and the window frame, and a second seal part that is made of a conductive rubber-based material having a volume resistivity different from that of the first seal part, and is made in contact with the outer perimeter part of the electromagnetic shield film (25, 63), wherein the first seal part has a volume resistivity that is smaller than the volume resistivity of the second seal part. a window body; a window frame that is formed on the inside of the opening and made of a conductive material; a gasket seal (50, 65) that is held between an outer perimeter part of the window body and the window frame; and a fastener member (28, 29, 66) that is used for securing the window body to the airframe with the gasket seal interposed therebetween, wherein the window body comprises a transparent window panel (23A, 23B, 61A, 61B), an electromagnetic shield film (25, 63) that is made of a conductive material and laminated on the window panel, and the gasket seal (50, 65) comprises a first seal part that is made of a conductive rubber-based material and interposed between the window panel and the window frame, and a second seal part that is made of a conductive rubber-based material having a volume resistivity different from that of the first seal part, and is made in contact with the outer perimeter part of the electromagnetic shield film (25, 63), wherein the first seal part has a volume resistivity that is smaller than the volume resistivity of the second seal part.
An adhesive body fitment for attaching an ostomy appliance to a wearer's body, the body fitment comprising: an adhesive wafer for adhesively contacting the wearer's body peristomally, the adhesive wafer including a moldable region shapable by the user for allowing a user to manually mold a stomal aperture in said moldable region; and a removable release (20, 100, 200, 300) liner covering at least a portion of an adhesive surface of the moldable region of the adhesive wafer, the release liner (20, 100, 200, 300) comprising flexible material and being configured to allow molding of the moldable region by manual manipulation of the adhesive through the flexible material of the release liner (20, 100, 200, 300), characterized by at least a portion of the release liner (20, 100, 200, 300) covering the moldable region of the adhesive wafer is made of stretchable material that permits deformation of the release liner (20, 100, 200, 300) to accommodate said manipulation of the adhesive through the release liner (20, 100, 200, 300). an adhesive wafer for adhesively contacting the wearer's body peristomally, the adhesive wafer including a moldable region shapable by the user for allowing a user to manually mold a stomal aperture in said moldable region; and a removable release (20, 100, 200, 300) liner covering at least a portion of an adhesive surface of the moldable region of the adhesive wafer, the release liner (20, 100, 200, 300) comprising flexible material and being configured to allow molding of the moldable region by manual manipulation of the adhesive through the flexible material of the release liner (20, 100, 200, 300), characterized by at least a portion of the release liner (20, 100, 200, 300) covering the moldable region of the adhesive wafer is made of stretchable material that permits deformation of the release liner (20, 100, 200, 300) to accommodate said manipulation of the adhesive through the release liner (20, 100, 200, 300).
Method for preserving privacy in an HTTP communication between a client and a server, the method comprising: intercepting, by a cookie modifier module, an HTTP request that is sent from said client to said server; extracting, by the cookie modifier module, a cookie from said HTTP request, wherein said cookie includes a cookie name and a cookie value; splitting, by the cookie modifier module, said cookie value into information segments, wherein the splitting is performed based on a split pattern for said cookie value such that said information segments and their data formats are identifiable; and modifying, by the cookie modifier module, one or more of said information segments based on predefined modification rules; wherein said split pattern for said cookie value is selected based on said cookie name and/or said server that is associated with said cookie, wherein the cookie modifier module receives said split pattern for said cookie value from a cookie format analyzer module that is configured to provide split patterns for predetermined cookie names, wherein said cookie format analyzer module intercepts network traffic and extracts a plurality of cookies from one or more servers, and wherein said cookie format analyzer module performs entity extraction in order to determine data formats within cookie values. intercepting, by a cookie modifier module, an HTTP request that is sent from said client to said server; extracting, by the cookie modifier module, a cookie from said HTTP request, wherein said cookie includes a cookie name and a cookie value; splitting, by the cookie modifier module, said cookie value into information segments, wherein the splitting is performed based on a split pattern for said cookie value such that said information segments and their data formats are identifiable; and modifying, by the cookie modifier module, one or more of said information segments based on predefined modification rules; wherein said split pattern for said cookie value is selected based on said cookie name and/or said server that is associated with said cookie, wherein the cookie modifier module receives said split pattern for said cookie value from a cookie format analyzer module that is configured to provide split patterns for predetermined cookie names, wherein said cookie format analyzer module intercepts network traffic and extracts a plurality of cookies from one or more servers, and wherein said cookie format analyzer module performs entity extraction in order to determine data formats within cookie values.
A solder bonding material comprising a porous metal body having a mesh-like structure, and Sn or an Sn-based lead-free solder alloy which fills the pores of the porous metal body and covers the surface of the porous metal body, and the porous metal body being electrically conductive, wherein the metal of the porous metal body is capable of forming an intermetallic compound by a reaction with Sn, and wherein the porous metal body has a porosity of 20 - 30 area percent, and wherein the intermetallic compound is formed of the metal of the porous metal body and Sn of the solder, and is formed in the border between the porous metal body and the Sn or Sn-based lead-free solder alloy.
A charge container device, said charge container device having a volume suitable to substantially fill a barrel chamber, said charge container device is formed from a substantially rigid and combustible material, wherein said charge container device comprises at least one wall to define a cavity for the retention of at least one modular cartridge case, said at least one modular cartridge case comprising a propellant material, wherein said at least one modular cartridge case is arranged in a stacked formation within said charge container, the charge container device further comprising a base portion and a top portion, wherein the top portion comprises an aperture to allow for expulsion of energy and the base portion comprising an ignition means, characterized in that the charge container comprises a first fixed cartridge case at its base portion to ensure the charge container is capable in use of launching a projectile to a minimum distance, and one or more further modular cartridge cases.
Method performed by a system of a communications network for transmission of a synchronous data stream having a bitrate determined by a clock frequency, over an asynchronous packet data network between a transmitter node and a receiver node, the method characterized by comprising: - packaging, by the transmitter node, the synchronous data stream into data packets, wherein the size of the data packet payload is varied, allowing the clock frequency of the synchronous data stream of a synchronous communications unit being indicated, - transmitting, by the transmitter node, the data packets onto the asynchronous packet data network with a fixed packet rate defined by a first clock frequency which corresponds to the average distance in time between two consecutive data packets transmitted onto the asynchronous packet data network, which is independent of the bitrate of the synchronous data stream, - receiving, by the receiver node, the data packets from the asynchronous packet data network, - detecting, by the receiver node, the fixed packet rate, and based on the fixed packet rate, - regenerating, by the receiver node, the first clock frequency by detection of a distance in time between two consecutive data packets received from the asynchronous packet data network, and - reading, by the receiver node, data of the received data packets with a second clock frequency, which second clock frequency is adapted such that the amount of data stacked at the receiver node is more or less constant. - packaging, by the transmitter node, the synchronous data stream into data packets, wherein the size of the data packet payload is varied, allowing the clock frequency of the synchronous data stream of a synchronous communications unit being indicated, - transmitting, by the transmitter node, the data packets onto the asynchronous packet data network with a fixed packet rate defined by a first clock frequency which corresponds to the average distance in time between two consecutive data packets transmitted onto the asynchronous packet data network, which is independent of the bitrate of the synchronous data stream, - receiving, by the receiver node, the data packets from the asynchronous packet data network, - detecting, by the receiver node, the fixed packet rate, and based on the fixed packet rate, - regenerating, by the receiver node, the first clock frequency by detection of a distance in time between two consecutive data packets received from the asynchronous packet data network, and - reading, by the receiver node, data of the received data packets with a second clock frequency, which second clock frequency is adapted such that the amount of data stacked at the receiver node is more or less constant.
A polishing pad including a polishing layer and a window for end-point detection, characterized in that the surface roughness (Ra) of the polishing layer and the window for end-point detection has a surface roughness rate of difference change represented by the following Equation 1 of 1.9 to 2.2: SRR = dRa 1 dRa 2 where, dRa1 is a surface roughness difference between the polishing layer and the window before polishing, and dRa2 is a surface roughness difference between the polishing layer and the window measured after supplying a calcined ceria slurry onto the polishing layer at 200 mL/min, maintaining a wafer load of 41.4 kPa (6.0 psi), polishing an oxide film at a speed of 150 rpm for 60 seconds, and polishing 100 wafer sheets under the above conditions. dRa1 is a surface roughness difference between the polishing layer and the window before polishing, and dRa2 is a surface roughness difference between the polishing layer and the window measured after supplying a calcined ceria slurry onto the polishing layer at 200 mL/min, maintaining a wafer load of 41.4 kPa (6.0 psi), polishing an oxide film at a speed of 150 rpm for 60 seconds, and polishing 100 wafer sheets under the above conditions.
A control apparatus for a vehicle wherein the vehicular control apparatus is configured to perform control of setting a start mode of an internal combustion engine, which generates a motive power applied to a driving wheel of the vehicle, during running of the vehicle with consumption of fuel in the internal combustion engine stopped, characterized in that the vehicular control apparatus is configured to perform control of setting the start mode of the internal combustion engine to a mode that enables start of the internal combustion engine at a time when braking operation for the vehicle is canceled if a vehicle speed of the vehicle is lower than a predetermined vehicle speed that is set in advance, and to a mode that disables start of the internal combustion engine at a time when braking operation for the vehicle is canceled if the vehicle speed of the vehicle is equal to or higher than the predetermined vehicle speed.
An electrode (3, 5) comprising: an active material-containing layer (3b, 5b) which includes an active material containing primary particles of a composite oxide and a first conductive agent containing fibrous carbon and a second conductive agent containing granular carbon, the composite oxide being represented by the formula Li a Ti 1-x M1 x Nb 2-y M2 y O 7-δ (0 ≤ a < 5, 0 ≤ x < 1, 0 ≤ y < 1, each of element M1 and element M2 is at least one element selected from the group consisting of Fe, Ni, W, Ta, and Mo, and the element M1 and the element M2 may be the same or may be elements different from each other), wherein the primary particles have an average particle size of 0.3 um or more and 2 μm or less, the average particle size of the primary particles being obtained by a scanning electron microscopic image of a section of the active material-containing layer at a magnification of 10000, and at least a part of a surface of the primary particles is coated with the fibrous carbon and a covering ratio of the primary particles by the fibrous carbon is 1% or more and 30% or less, the covering ratio being obtained by a scanning electron microscopic image of a section of the active material-containing layer at a magnification of 50000. wherein the primary particles have an average particle size of 0.3 um or more and 2 μm or less, the average particle size of the primary particles being obtained by a scanning electron microscopic image of a section of the active material-containing layer at a magnification of 10000, and at least a part of a surface of the primary particles is coated with the fibrous carbon and a covering ratio of the primary particles by the fibrous carbon is 1% or more and 30% or less, the covering ratio being obtained by a scanning electron microscopic image of a section of the active material-containing layer at a magnification of 50000.