mhurhangee/ep-ind-claims huggingface dataset:
A method for dyeing keratinous fibers, in particular human hair, comprising the following steps in the specified order: applying a pretreatment agent to the keratinous fibers, the pretreatment agent containing at least one anionic surfactant in a water-containing carrier (V-1), exposing the pretreatment agent applied in step to the keratinous fibers, rinsing out the pretreatment agent with water, applying a dye to the keratinous fibers, the dye (F-1) containing at least one amino-functionalized silicone polymer and (F-2) containing at least one pigment, exposing the dye applied in step to the keratinous fibers, and rinsing out the dye with water, characterized in that there is a maximum period of 3 hours between steps and. applying a pretreatment agent to the keratinous fibers, the pretreatment agent containing at least one anionic surfactant in a water-containing carrier (V-1), exposing the pretreatment agent applied in step to the keratinous fibers, rinsing out the pretreatment agent with water, applying a dye to the keratinous fibers, the dye (F-1) containing at least one amino-functionalized silicone polymer and (F-2) containing at least one pigment, exposing the dye applied in step to the keratinous fibers, and rinsing out the dye with water, characterized in that there is a maximum period of 3 hours between steps and.
A photosensor comprising: a vacuum tube having an inner space therein; a photocathode unit provided on the inner surface of the vacuum tube to convert incident light from outside into a first photoelectron; a scintillator unit provided on the inner surface of the vacuum tube to react with the first photoelectron to generate scintillation light; and a photomultiplier provided on the inner surface of the vacuum tube to convert the scintillation light into a second photoelectron, and to multiply the converted second photoelectron to generate an electrical signal, wherein the photocathode unit, the scintillator unit, and the photomultiplier are sequentially disposed on a traveling path of the incident light. a vacuum tube having an inner space therein; a photocathode unit provided on the inner surface of the vacuum tube to convert incident light from outside into a first photoelectron; a scintillator unit provided on the inner surface of the vacuum tube to react with the first photoelectron to generate scintillation light; and a photomultiplier provided on the inner surface of the vacuum tube to convert the scintillation light into a second photoelectron, and to multiply the converted second photoelectron to generate an electrical signal, wherein the photocathode unit, the scintillator unit, and the photomultiplier are sequentially disposed on a traveling path of the incident light.
A composition comprising a combination of fish oil and juice in an oil-in-water emulsion, for the use in treatment and/or post treatment of cancer, wherein said fish oil is selected from fish oil having a totox value below 20 and omega-3 content above 10% by weight based on the total weight of the fish oil and wherein a suitable emulsifier is used to stabilize the emulsion, wherein the cancer types treated are selected from the group consisting of pancreatic cancer, colorectal cancer, neurological cancer, breast cancer, prostate cancer, lung cancer and skin cancer and said post treatment of cancer comprises the treatment of cachexia, D vitamin deficiency, fatigue, or stimulation of the immune system.
Device for detection of pulse of a subject comprising: an input unit configured to obtain a series of images of a skin region of the subject, and a processing unit for processing said series of images by - detecting pulse-related motion of the skin within the skin region from the series of images, - generating a motion map of the skin region from the detected pulse-related motion, - comparing the generated motion map with an expected motion map of the skin region, wherein the expected motion map represents pulse-related skin motion of a healthy subject and wherein the device is configured to take the expected motion map from a storage unit storing the expected motion map or a set of different expected motion maps available for different kinds of subject, and - determining the presence of pulse within the skin region based on the comparison. - detecting pulse-related motion of the skin within the skin region from the series of images, - generating a motion map of the skin region from the detected pulse-related motion, - comparing the generated motion map with an expected motion map of the skin region, wherein the expected motion map represents pulse-related skin motion of a healthy subject and wherein the device is configured to take the expected motion map from a storage unit storing the expected motion map or a set of different expected motion maps available for different kinds of subject, and - determining the presence of pulse within the skin region based on the comparison.
A method for adjusting the start and end times of a broadcast program recording schedule in a computer environment, comprising: accepting user input; wherein the user indicates a particular program series that the user desires to record multiple episodes of; wherein each episode of said program series has a start availability time and an end availability time; displaying an input screen to the user that allows the user to specify a time increment to adjust start availability times for all episodes of said program series to be recorded and/or specify a time increment to adjust end availability times for all episodes of said program series to be recorded; upon detecting that an episode of said program series is going to be broadcast, automatically scheduling a start recording time and end recording time for the episode of said program series using said episode's start availability time and end availability time; and wherein said scheduling step further comprises: automatically adjusting said scheduled start recording time for said episode of said program series and/or adjusting said scheduled end recording time for the episode of said program series using said time increment(s) as specified by the user; recording said episode of said program series on at least one storage device in a digital format. accepting user input; wherein the user indicates a particular program series that the user desires to record multiple episodes of; wherein each episode of said program series has a start availability time and an end availability time; displaying an input screen to the user that allows the user to specify a time increment to adjust start availability times for all episodes of said program series to be recorded and/or specify a time increment to adjust end availability times for all episodes of said program series to be recorded; upon detecting that an episode of said program series is going to be broadcast, automatically scheduling a start recording time and end recording time for the episode of said program series using said episode's start availability time and end availability time; and wherein said scheduling step further comprises: automatically adjusting said scheduled start recording time for said episode of said program series and/or adjusting said scheduled end recording time for the episode of said program series using said time increment(s) as specified by the user; automatically adjusting said scheduled start recording time for said episode of said program series and/or adjusting said scheduled end recording time for the episode of said program series using said time increment(s) as specified by the user; recording said episode of said program series on at least one storage device in a digital format.
A flow control apparatus for a borehole, comprising: a basepipe having a bore for conveying fluid and defining at least one elongated slot permitting fluid communication between the bore and outside the basepipe; and at least one flow device disposed on the basepipe and restricting fluid communication between outside the at least one flow device and the at least one elongated slot in the basepipe, the at least one elongated slot bridging off with particulate in fluid communicated in the basepipe during a loss control operation. a basepipe having a bore for conveying fluid and defining at least one elongated slot permitting fluid communication between the bore and outside the basepipe; and at least one flow device disposed on the basepipe and restricting fluid communication between outside the at least one flow device and the at least one elongated slot in the basepipe, the at least one elongated slot bridging off with particulate in fluid communicated in the basepipe during a loss control operation.
An image sensor, comprising: a substrate having a first surface and a second surface, which are opposite to each other, and a plurality of pixel regions; and a deep isolation pattern extended from the first surface into the substrate and interposed between the plurality of pixel regions, wherein the deep isolation pattern comprises a semiconductor pattern penetrating the substrate, an insulating gapfill pattern disposed on a top surface of the semiconductor pattern, and an insulating pattern interposed between the substrate and the semiconductor pattern, the insulating pattern comprises a side portion on a side surface (SP_S) of the semiconductor pattern, and the side portion of the insulating pattern has a second thickness, which is measured from the side surface (SP_S) of the semiconductor pattern in a direction parallel to the second surface of the substrate, and characterized in that the insulating pattern further comprises a bottom portion on a bottom surface (SP_B) of the semiconductor pattern, the bottom portion of the insulating pattern has a first thickness, which is measured from the bottom surface (SP_B) of the semiconductor pattern in a direction perpendicular to the second surface of the substrate, and the first thickness is larger than the second thickness. a substrate having a first surface and a second surface, which are opposite to each other, and a plurality of pixel regions; and a deep isolation pattern extended from the first surface into the substrate and interposed between the plurality of pixel regions, wherein the deep isolation pattern comprises a semiconductor pattern penetrating the substrate, an insulating gapfill pattern disposed on a top surface of the semiconductor pattern, and an insulating pattern interposed between the substrate and the semiconductor pattern, the insulating pattern comprises a side portion on a side surface (SP_S) of the semiconductor pattern, and the side portion of the insulating pattern has a second thickness, which is measured from the side surface (SP_S) of the semiconductor pattern in a direction parallel to the second surface of the substrate, and characterized in that the insulating pattern further comprises a bottom portion on a bottom surface (SP_B) of the semiconductor pattern, the bottom portion of the insulating pattern has a first thickness, which is measured from the bottom surface (SP_B) of the semiconductor pattern in a direction perpendicular to the second surface of the substrate, and the first thickness is larger than the second thickness.
A method of forming a fibrous preform, comprising: penetrating the fibrous preform with a plurality of needles; wherein approximately 50% of the plurality of needles are barbed needles and approximately 50% of the plurality of needles are barbless needles, wherein approximately 50% includes +/- 10% of 50%.
A method of communicating in a communication network comprising al least one base station and a plurality of mobile stations (24, 26), said method comprising: dividing a carrier bandwidth into a plurality of subcarriers, characterized by arranging the plurality of the subcarriers into a plurality of subsets, with each subset having at least two of the subcarriers; determining which mobile stations (24, 26) to select for each of the subcarriers within at least one of the subsets based upon at least one selected criteria associated with at least one of the subcarriers from within the subset; and selecting the plurality of mobile stations (24, 26) for at least receiving a simultaneous transmission from each of a plurality of antennas (30, 32) of the base station on each one of the plurality of subcarriers from within a given carrier bandwidth. dividing a carrier bandwidth into a plurality of subcarriers, arranging the plurality of the subcarriers into a plurality of subsets, with each subset having at least two of the subcarriers; determining which mobile stations (24, 26) to select for each of the subcarriers within at least one of the subsets based upon at least one selected criteria associated with at least one of the subcarriers from within the subset; and selecting the plurality of mobile stations (24, 26) for at least receiving a simultaneous transmission from each of a plurality of antennas (30, 32) of the base station on each one of the plurality of subcarriers from within a given carrier bandwidth.
A mask interface comprising: a mask seal sized and shaped to surround the nose of a user, and adapted to create at least a substantial seal with the user's face, the mask seal comprising: a seal inlet, a frame including; a frame inlet, a frame outlet, at least one attachment point configured to connect to headgear, and a connector for connection with a conduit that is in fluid communication with a gas delivery system, wherein the connector is configured to be rotatably coupled with the frame inlet, a coupling that couples the mask seal and the frame, the coupling comprising a coupling member, wherein the coupling member allows relative movement between the mask seal and the mask frame, wherein the coupling member is flexible and/or stretchable, and wherein the coupling member provides a suspension mechanism between the mask seal and the frame characterized in that the coupling member is integrated into the mask frame and removably attached to the mask seal. a mask seal sized and shaped to surround the nose of a user, and adapted to create at least a substantial seal with the user's face, the mask seal comprising: a seal inlet, a frame including; a frame inlet, a frame outlet, at least one attachment point configured to connect to headgear, and a seal inlet, a frame including; a frame inlet, a frame outlet, at least one attachment point configured to connect to headgear, and a connector for connection with a conduit that is in fluid communication with a gas delivery system, wherein the connector is configured to be rotatably coupled with the frame inlet, a coupling that couples the mask seal and the frame, the coupling comprising a coupling member, wherein the coupling member allows relative movement between the mask seal and the mask frame, wherein the coupling member is flexible and/or stretchable, and wherein the coupling member provides a suspension mechanism between the mask seal and the frame characterized in that the coupling member is integrated into the mask frame and removably attached to the mask seal.
Automated cash deposit and withdrawal machine comprising a banknote conveying channel device, the device being arranged between an upper machine interior for banknote identification and banknote sorting and a lower machine interior for banknote storage, and being adapted to convey, with redirection, and to separate banknotes, and the device comprising: a channel support, adapted to be mounted with the banknote conveying channel; a conveying belt, tensioned on a drive shaft and adapted to convey a banknote; a channel board, arranged on the channel support and comprising an upper channel board and a lower channel board, wherein a banknote conveying path is formed between the upper channel board and the lower channel board, the conveying belt is sandwiched between the upper channel board and the lower channel board, and the banknote is conveyed by the conveying belt in the path formed by the upper channel board and the lower channel board; at least one auxiliary conveying wheel set, arranged on the channel support and adapted to cooperate with the conveying belt for power transmission; and a redirection guiding plate, arranged at an end of the conveying channel device where the banknote enters, and forming a banknote redirection path with the conveying belt, wherein, at least one floating wheel (0211, 0211') is arranged in the redirection path, the floating wheel (0211, 0211') is fitted with the drive shaft of the conveying belt such that the conveying belt is sandwiched between the floating wheel (0211, 0211') and the drive shaft, and the floating wheel (0211, 0211') and the conveying belt form a rolling friction-based assembly. a channel support, adapted to be mounted with the banknote conveying channel; a conveying belt, tensioned on a drive shaft and adapted to convey a banknote; a channel board, arranged on the channel support and comprising an upper channel board and a lower channel board, wherein a banknote conveying path is formed between the upper channel board and the lower channel board, the conveying belt is sandwiched between the upper channel board and the lower channel board, and the banknote is conveyed by the conveying belt in the path formed by the upper channel board and the lower channel board; at least one auxiliary conveying wheel set, arranged on the channel support and adapted to cooperate with the conveying belt for power transmission; and a redirection guiding plate, arranged at an end of the conveying channel device where the banknote enters, and forming a banknote redirection path with the conveying belt, wherein, at least one floating wheel (0211, 0211') is arranged in the redirection path, the floating wheel (0211, 0211') is fitted with the drive shaft of the conveying belt such that the conveying belt is sandwiched between the floating wheel (0211, 0211') and the drive shaft, and the floating wheel (0211, 0211') and the conveying belt form a rolling friction-based assembly.
A method of forming an oxide layer having less than 10 10 cm -2 of metallic impurities on a silicon carbide layer, comprising: placing a silicon carbide layer in a chamber that is substantially free of metallic impurities, the chamber being substantially free of metallic impurities such that the resulting oxide layer on the silicon carbide layer has a dose of metallic impurities of less than 10 10 cm -2; heating an atmosphere of the chamber to a temperature of about 500 degrees C to about 1300 degrees C; introducing atomic oxygen in the chamber; and flowing the atomic oxygen over a surface of the silicon carbide layer, to thereby form an oxide layer on the silicon carbide layer, characterized in that introducing atomic oxygen comprises providing a porous sapphire wafer in the chamber and flowing nitrogen gas over the porous sapphire wafer to generate the atomic oxygen. placing a silicon carbide layer in a chamber that is substantially free of metallic impurities, the chamber being substantially free of metallic impurities such that the resulting oxide layer on the silicon carbide layer has a dose of metallic impurities of less than 10 10 cm -2; heating an atmosphere of the chamber to a temperature of about 500 degrees C to about 1300 degrees C; introducing atomic oxygen in the chamber; and flowing the atomic oxygen over a surface of the silicon carbide layer, to thereby form an oxide layer on the silicon carbide layer, characterized in that introducing atomic oxygen comprises providing a porous sapphire wafer in the chamber and flowing nitrogen gas over the porous sapphire wafer to generate the atomic oxygen.
A liquid laundry detergent composition comprising:- (a) from 15 to 40 wt.% of surfactant comprising both anionic and nonionic surfactant at a weight ratio of from 5:1 to 1:3; (b) from 0.1 to 5 wt.% of fabric softening anionic silicone; (c) from 0.05 to 2.5 wt.% of cationic cellulose polymer; (d) from 0.001 to 3 wt.% of perfume; and, wherein the anionic surfactant comprises one or more from the following group: linear alkyl benezene sulphonates, sodium lauryl ether sulphonates with 1 to 3 average moles of ethoxylation, primary alkyl sulphonates, methyl ether sulphates and secondary alkyl sulphonates or mixtures thereof. (a) from 15 to 40 wt.% of surfactant comprising both anionic and nonionic surfactant at a weight ratio of from 5:1 to 1:3; (b) from 0.1 to 5 wt.% of fabric softening anionic silicone; (c) from 0.05 to 2.5 wt.% of cationic cellulose polymer; (d) from 0.001 to 3 wt.% of perfume; and,
A seal ring for a rotary face seal of a rotary valve, said seal ring comprising a seal face bonded to a backing ring and at least one port through both the seal face and the backing ring, characterised in that said seal ring comprises, as an anti-crowning feature, a plurality of blind relief slots in the seal face.
Floor sanding device, comprising: - a carrier plate (20, 120) and a drive for driving the carrier plate; - a treatment plate (26, 426) for treating a surface of a floor, wherein the treatment plate is operatively coupled to the carrier plate; and - an intermediary plate (24, 324) that is arranged between the carrier plate and the treatment plate, characterized in that the intermediary plate comprises at least one compartment for receiving at least one pressure member for providing a higher local pressure. - a carrier plate (20, 120) and a drive for driving the carrier plate; - a treatment plate (26, 426) for treating a surface of a floor, wherein the treatment plate is operatively coupled to the carrier plate; and - an intermediary plate (24, 324) that is arranged between the carrier plate and the treatment plate, characterized in that the intermediary plate comprises at least one compartment for receiving at least one pressure member for providing a higher local pressure.
Fuel cell apparatus, comprising: a fuel cell stack that in normal operation provides a cathode exhaust including evaporated coolant water; a pair of finned condensers (12, 12a, 23, 23a, 23b, 49), each condenser having coolant fluid flow paths (13, 24c, 26), and having condensation fluid flow paths (18, 24, 24a, 60) in thermal conductivity with the coolant fluid flow paths and configured to conduct the cathode exhaust vertically, each condenser either comprising a plate-fin type heat exchanger (12, 12a) with sets of corrugated fins (14, 15) disposed between plates (16, 17) or a finned tube type heat exchanger (23, 23a, 23b) with tubes (24, 24a, 24c) extending through fins (25, 25a); characterized in that each condenser is configured to avoid pooling of condensate during low fluid flow either a) by more than half of end surfaces of the condenser, at the fluid exit end of the condensation fluid flow paths, being hydrophilic and in liquid communication with a water-permeable wick configured to remove water away from the fluid exit end of the condenser, or b) by at least some corrugated fins of a plate-fin condenser extending beyond plates associated therewith, or c) by at least some fins of a finned tube condenser extending beyond fins on either side thereof, or d) by at least some tubes (24, 24a) of a finned tube condenser extending beyond the fins with a downwardly-depending portion of tube ends removed, and further wherein the pair of condensers are disposed beneath the fuel cell stack with at least one of the condensers being tilted at an angle above 0° but less than 20° with respect to the fuel cell stack. a fuel cell stack that in normal operation provides a cathode exhaust including evaporated coolant water; a pair of finned condensers (12, 12a, 23, 23a, 23b, 49), each condenser having coolant fluid flow paths (13, 24c, 26), and having condensation fluid flow paths (18, 24, 24a, 60) in thermal conductivity with the coolant fluid flow paths and configured to conduct the cathode exhaust vertically, each condenser either comprising a plate-fin type heat exchanger (12, 12a) with sets of corrugated fins (14, 15) disposed between plates (16, 17) or a finned tube type heat exchanger (23, 23a, 23b) with tubes (24, 24a, 24c) extending through fins (25, 25a);