mhurhangee/ep-ind-claims huggingface dataset:
An illumination system for an image cytometer, comprising: - a first light source (111, 313, 503) configured for emitting light into a sample region; - focusing means for directing the light from the first light source (111, 313, 503) along an optical axis of the image cytometer and into the sample region; and - a second light source (305, 112a, 112b) comprising a first excitation light source configured for emitting excitation light (307, 312) into the sample region, characterized in that the first light source (111, 313, 503) is configured for emitting light with a wavelength less than 400 nm and the focusing means is configured for forming collimated light (504, 520) from the first light source (111,313, 503) and for directing the collimated light from the first light source into the sample region. - a first light source (111, 313, 503) configured for emitting light into a sample region; - focusing means for directing the light from the first light source (111, 313, 503) along an optical axis of the image cytometer and into the sample region; and - a second light source (305, 112a, 112b) comprising a first excitation light source configured for emitting excitation light (307, 312) into the sample region,
A process for purification of an exhaust gas stream from a combustion engine containing hydrocarbons, soot, carbon monoxide, nitrogen oxides and sulphur dioxide, comprising the steps of (a) oxidising at a temperature of 250-375°C the hydrocarbons and part of the soot in a first reactor in the presence of a first catalyst active in oxidising hydrocarbons and soot without oxidising sulphur dioxide and forming a partly purified exhaust gas stream, said first catalyst being a monolith of titania/silica with palladium and oxides of tungsten and vanadium as catalytic active material; (b) cooling of the partly purified exhaust gas stream; (c) oxidising at a temperature of 140-210°C the carbon monoxide of the partly purified exhaust gas stream in a second reactor in presence of a second catalyst active in oxidising carbon monoxide without oxidising sulphur dioxide, said second catalyst being a monolith of titania with platinum and/or palladium as catalytic active material; and (d) withdrawing a purified exhaust gas stream. (a) oxidising at a temperature of 250-375°C the hydrocarbons and part of the soot in a first reactor in the presence of a first catalyst active in oxidising hydrocarbons and soot without oxidising sulphur dioxide and forming a partly purified exhaust gas stream, said first catalyst being a monolith of titania/silica with palladium and oxides of tungsten and vanadium as catalytic active material; (b) cooling of the partly purified exhaust gas stream; (c) oxidising at a temperature of 140-210°C the carbon monoxide of the partly purified exhaust gas stream in a second reactor in presence of a second catalyst active in oxidising carbon monoxide without oxidising sulphur dioxide, said second catalyst being a monolith of titania with platinum and/or palladium as catalytic active material; and (d) withdrawing a purified exhaust gas stream.
A sanitary washing device comprising: a heating part; a nozzle configured to jet water heated by the heating part toward human private parts; a controlling part configured to control at least one of the heating part and the nozzle; and a monitoring part, characterized in that: the monitoring part being configured to diagnose a failure of the controlling part and to prohibit at least one of heating in the heating part and jetting from the nozzle when the controlling part fails; and the controlling part being configured to diagnose a failure of the monitoring part and to prohibit at least one of heating in the heating part and jetting from the nozzle when the monitoring part fails. a heating part; a nozzle configured to jet water heated by the heating part toward human private parts; a controlling part configured to control at least one of the heating part and the nozzle; and a monitoring part, characterized in that: the monitoring part being configured to diagnose a failure of the controlling part and to prohibit at least one of heating in the heating part and jetting from the nozzle when the controlling part fails; and the controlling part being configured to diagnose a failure of the monitoring part and to prohibit at least one of heating in the heating part and jetting from the nozzle when the monitoring part fails. the monitoring part being configured to diagnose a failure of the controlling part and to prohibit at least one of heating in the heating part and jetting from the nozzle when the controlling part fails; and the controlling part being configured to diagnose a failure of the monitoring part and to prohibit at least one of heating in the heating part and jetting from the nozzle when the monitoring part fails.
An apparatus for removing unwanted material from the ground when the apparatus is driven across the ground by a vehicle, the apparatus comprising: a) a vehicle mounting permitting attachment of the apparatus to a vehicle; b) a body supporting a path-clearing blade, the blade having a longitudinal axis generally parallel to the ground in use, defining an axis of the body; c) a rotatable brush disposed on the body behind the path-clearing blade; and d) a jointed connection (74,76) between the vehicle mounting and the body permitting the axis of the body to rotate within a plane generally parallel to the ground in use, characterised in that the jointed connection (74,76) comprises: i. a first pivot arm pivotally connected about a first proximal axis of rotation relative to the vehicle mounting and pivotally connected about a first distal axis of rotation relative to the body, and ii. a second pivot arm pivotally connected about a second proximal axis of rotation relative to the vehicle mounting and pivotally connected about a second distal axis of rotation relative to the body, wherein as the body's axis rotates in the clockwise sense relative to the ground, the first and second pivot arms (74,76) each pivot in a counter-clockwise sense about their respective proximal axes (92,96) of rotation, and vice versa, and wherein the first pivot arm comprises a rigid load bearing arm, the second pivot arm comprises a rigid non-load bearing link arm constraining the movement of the body, and the first and second distal axes (94,98) of rotation being disposed forwardly of the rear edge of the brush in the direction of the blade. a) a vehicle mounting permitting attachment of the apparatus to a vehicle; b) a body supporting a path-clearing blade, the blade having a longitudinal axis generally parallel to the ground in use, defining an axis of the body; c) a rotatable brush disposed on the body behind the path-clearing blade; and d) a jointed connection (74,76) between the vehicle mounting and the body permitting the axis of the body to rotate within a plane generally parallel to the ground in use, i. a first pivot arm pivotally connected about a first proximal axis of rotation relative to the vehicle mounting and pivotally connected about a first distal axis of rotation relative to the body, and ii. a second pivot arm pivotally connected about a second proximal axis of rotation relative to the vehicle mounting and pivotally connected about a second distal axis of rotation relative to the body,
A method of transmitting acknowledgement/non-acknowledgement, ACK/NACK, information by a user equipment, UE, in a wireless communication system, the method comprising: receiving an uplink, UL, grant in a subframe n-k1 of a first serving cell, wherein the UL grant comprises resource allocation for a physical uplink shared channel, PUSCH, in a subframe n and piggyback information, and the piggyback information indicates a number of first physical downlink shared channels, PDSCHs, scheduled before the subframe n-k1; attempting reception of a second PDSCH in a subframe n-k2 of a second serving cell; and transmitting an uplink transport block and the ACK/NACK information through the PUSCH on the basis of the resource allocation in the subframe n of the first serving cell or the second serving cell when cross carrier scheduling is configured, wherein n, k1 and k2 are integers, where kl>k2, wherein the first serving cell is a time division duplex, TDD, cell, and k1 is determined through a combination of uplink/downlink, UL/DL, configurations of the first serving cell, wherein k2 is determined through a fixed timing of the second serving cell, wherein the ACK/NACK information comprises a first ACK/NACK part corresponding to any first PDSCHs according to the piggyback information, and a second ACK/NACK part corresponding to the second PDSCH, and wherein the first ACK/NACK part includes a number of ACK/NACKs determined according to the number of the first PDSCHs. receiving an uplink, UL, grant in a subframe n-k1 of a first serving cell, wherein the UL grant comprises resource allocation for a physical uplink shared channel, PUSCH, in a subframe n and piggyback information, and the piggyback information indicates a number of first physical downlink shared channels, PDSCHs, scheduled before the subframe n-k1; attempting reception of a second PDSCH in a subframe n-k2 of a second serving cell; and transmitting an uplink transport block and the ACK/NACK information through the PUSCH on the basis of the resource allocation in the subframe n of the first serving cell or the second serving cell when cross carrier scheduling is configured, wherein n, k1 and k2 are integers, where kl>k2, wherein the first serving cell is a time division duplex, TDD, cell, and k1 is determined through a combination of uplink/downlink, UL/DL, configurations of the first serving cell, wherein k2 is determined through a fixed timing of the second serving cell, wherein the ACK/NACK information comprises a first ACK/NACK part corresponding to any first PDSCHs according to the piggyback information, and a second ACK/NACK part corresponding to the second PDSCH, and wherein the first ACK/NACK part includes a number of ACK/NACKs determined according to the number of the first PDSCHs.
A rubber composition for a tire, comprising: a rubber component; microfibrillated plant fibers; a phenol resin; and a curing agent, wherein the microfibrillated plant fibers have an average fiber diameter of 10 μm or less, and wherein the curing agent is hexamethylenetetramine, melamine, methylol melamine, hexamethoxymethylmelamine, hexamethylolmelaminepentamethyl ether or hexamethoxymethylol melamine. a rubber component; microfibrillated plant fibers; a phenol resin; and a curing agent, wherein the microfibrillated plant fibers have an average fiber diameter of 10 μm or less, and wherein the curing agent is hexamethylenetetramine, melamine, methylol melamine, hexamethoxymethylmelamine, hexamethylolmelaminepentamethyl ether or hexamethoxymethylol melamine.
A method of preparing a bleached pulp material having enhanced brightness and enhanced resistance to thermal yellowing comprising: i) providing bleached pulp material; and ii) contacting the bleached pulp material with 0.0005 to 2 weight percent, based on oven-dried pulp, of one or more oxidizing agents excluding organic peroxyacids, wherein the oxidizing agents are selected from the group consisting of hydrogen peroxide, inorganic peroxides, superoxides and peroxide-superoxides, inorganic peroxyacids and salts thereof, peroxyhydrates, water-soluble organic peroxides, nitrosodisulfonates, hypochlorites, hypobromites, chlorites, chlorates, bromates, perchlorates, chlorine dioxide, chloroamines, chloroamides, chlorosulfamides, bromoamines, bromoamides, bromosulfamides, chlorosulfonic acid, bromosulfonic acid and chlorine, further comprising contacting the bleached pulp material with 0.005 to 2 weight percent, based on oven-dried pulp, of one or more optical brighteners, wherein the optical brighteners are selected from dilsulfonated, tetrasulfonated or hexasulfonated stilbene derivatives. i) providing bleached pulp material; and ii) contacting the bleached pulp material with 0.0005 to 2 weight percent, based on oven-dried pulp, of one or more oxidizing agents excluding organic peroxyacids, wherein the oxidizing agents are selected from the group consisting of hydrogen peroxide, inorganic peroxides, superoxides and peroxide-superoxides, inorganic peroxyacids and salts thereof, peroxyhydrates, water-soluble organic peroxides, nitrosodisulfonates, hypochlorites, hypobromites, chlorites, chlorates, bromates, perchlorates, chlorine dioxide, chloroamines, chloroamides, chlorosulfamides, bromoamines, bromoamides, bromosulfamides, chlorosulfonic acid, bromosulfonic acid and chlorine,
Beam shaper having a first optical element and a second optical element, which are arranged one behind the other along an optical axis (z), wherein the first and the second optical element (1, 2) each have at least one optically effective free-form surface (1.1, 2.1), wherein the first and the second optical element (1, 2) are arranged so as to be displaceable relative to one another by a relative displacement (Δx) along at least one axis (x) arranged perpendicularly to the optical axis (z) and wherein the optically effective free-form surfaces (1.1, 2.1) have a height profile (Δz(x,y)) that is describable as a polynomial expansion that has non-zero polynomial coefficients in a finite number of polynomial orders, wherein at least one polynomial coefficient, which is assigned to a polynomial order greater than three, differs from zero, and wherein the height profiles (Δz(x,y)) of the at least two free-form surfaces (1.1, 2.1) are selected such that incoming beams, which are distributed rotationally symmetrically about the optical axis (z) with a Gaussian radiance density profile, are refracted into exit beams, which are delimited in a collection plane (B, B'), arranged at a focal distance, within a rectangular cross section and are distributed uniformly about the optical axis (z) within said rectangular cross section, characterized in that the height profile (Δz(x,y)) of a free-form surface (1.1) of the first optical element and the height profile (Δz(x,y)) of a free-form surface (1.2) of the second optical element are selected such that the distance of the collection plane (B, B') and the perimeter of the delimiting rectangular cross section are changeable by a relative displacement (Δx) of the first and of the second optical element (1, 2) with respect to one another.
A host cell comprising: i) a nucleic acid that encodes a glycosyltransferase derived from an rfb cluster of Pseudomonas; ii) a nucleic acid that encodes a wzy polymerase, wherein said nucleic acid encodes a protein having about or at least 80%, 85%, 90%, 95%, 96%, 97%, 98%, or 99% identity to SEQ ID NO:3, or wherein said nucleic acid encodes SEQ ID NO:3; iii) a nucleic acid that encodes an oligosaccharyl transferase; and iv) a nucleic acid that encodes a carrier protein comprising an N-glycosylation consensus sequence D/E - X - N - X- S/T wherein X is any amino acid except proline. i) a nucleic acid that encodes a glycosyltransferase derived from an rfb cluster of Pseudomonas; ii) a nucleic acid that encodes a wzy polymerase, wherein said nucleic acid encodes a protein having about or at least 80%, 85%, 90%, 95%, 96%, 97%, 98%, or 99% identity to SEQ ID NO:3, or wherein said nucleic acid encodes SEQ ID NO:3; iii) a nucleic acid that encodes an oligosaccharyl transferase; and iv) a nucleic acid that encodes a carrier protein comprising an N-glycosylation consensus sequence D/E - X - N - X- S/T wherein X is any amino acid except proline.
A method of detecting sag in a drilling fluid within a borehole, the method comprising: measuring a first pressure at a first time at a point within the borehole; predicting a characteristic of the drilling fluid at the point using a computer model, thereby obtaining a predicted characteristic; calculating the characteristic based on the first pressure, thereby obtaining a calculated characteristic; and determining whether sag has occurred based on a comparison between the calculated characteristic and the predicted characteristic; further comprising measuring a second pressure at the point at a second time that is after the first time, and wherein: predicting the characteristic of the drilling fluid further comprises predicting a theoretical pressure slope between the first and second times; calculating the characteristic further comprises calculating a pressure slope based on the first and second pressures and the first and second times; and determining whether sag has occurred further comprises comparing a difference between the theoretical pressure slope and the pressure slope to a threshold, where, if the difference is greater than the threshold, sag has occurred. measuring a first pressure at a first time at a point within the borehole; predicting a characteristic of the drilling fluid at the point using a computer model, thereby obtaining a predicted characteristic; calculating the characteristic based on the first pressure, thereby obtaining a calculated characteristic; and determining whether sag has occurred based on a comparison between the calculated characteristic and the predicted characteristic; further comprising measuring a second pressure at the point at a second time that is after the first time, and wherein: predicting the characteristic of the drilling fluid further comprises predicting a theoretical pressure slope between the first and second times; calculating the characteristic further comprises calculating a pressure slope based on the first and second pressures and the first and second times; and determining whether sag has occurred further comprises comparing a difference between the theoretical pressure slope and the pressure slope to a threshold, where, if the difference is greater than the threshold, sag has occurred. predicting the characteristic of the drilling fluid further comprises predicting a theoretical pressure slope between the first and second times; calculating the characteristic further comprises calculating a pressure slope based on the first and second pressures and the first and second times; and determining whether sag has occurred further comprises comparing a difference between the theoretical pressure slope and the pressure slope to a threshold, where, if the difference is greater than the threshold, sag has occurred.
An aircraft comprising one or more aircraft systems and a gas turbine engine, the one or more aircraft systems including an environmental control system, the gas turbine engine comprising an engine bleed air system, wherein the engine bleed air system is configured to provide air to the environmental control system, the engine bleed air system comprising: a port for extracting bleed air from a compressor section of the engine; a turbo-generator having a turbine and a generator, the generator being driven by rotation of the turbine; and a boost compressor fluidly coupled to the port, wherein the bleed air from the port is selectively provided to one of the turbo-generator and the boost compressor based on a demand of the aircraft system. a port for extracting bleed air from a compressor section of the engine; a turbo-generator having a turbine and a generator, the generator being driven by rotation of the turbine; and a boost compressor fluidly coupled to the port, wherein the bleed air from the port is selectively provided to one of the turbo-generator and the boost compressor based on a demand of the aircraft system.
A transmission electron microscope in which an electron beam is applied to a specimen charged into an ionic liquid and set in a specimen chamber, and an image of the specimen is formed from the electron beam transmitted through the specimen, comprising a specimen holding member which has an opening for transmitting the electron beam, and an image forming unit for forming an image of the specimen based on the electron beam transmitted through the specimen characterised in that the specimen holding member is at the tip portion of a specimen holder provided for introducing the specimen into the specimen chamber, and the opening of the specimen holding member is adapted for holding therein by surface tension the ionic liquid having the specimen charged thereinto.
A diagnostic system for measuring and analyzing startle response of a subject, wherein said diagnostic system comprises a stimuli delivery module, whereby auditory startle stimuli and prepulse stimuli are delivered to subject; said diagnostic system comprises at least one sensor module, whereby the auditory startle response (130, 131, 132) of subject are detected and recorded; said sensor module comprises at least two electrodes and one pupillary response measuring means; said diagnostic system comprises a diagnosis module whereby the features of the auditory startle response (130, 131, 132) and prepulse inhibition of subject are extracted and analyzed; said sensor module is configured to detect the startle response of subject comprising pupillary response, post-auricular muscle response and intrinsic auricular muscle response; said stimuli delivery module comprises a set of earphones whereby auditory startle stimuli is delivered to subject; said stimuli delivery module comprising the set of earphones is configured to deliver auditory startle stimuli to subject unilaterally; and said sensor module comprising the pupillary response measuring means is configured to facilitate the measurement of ipsilateral and contralateral pupillary response to unilateral auditory startle stimuli. said diagnostic system comprises a stimuli delivery module, whereby auditory startle stimuli and prepulse stimuli are delivered to subject; said diagnostic system comprises at least one sensor module, whereby the auditory startle response (130, 131, 132) of subject are detected and recorded; said sensor module comprises at least two electrodes and one pupillary response measuring means; said diagnostic system comprises a diagnosis module whereby the features of the auditory startle response (130, 131, 132) and prepulse inhibition of subject are extracted and analyzed; said sensor module is configured to detect the startle response of subject comprising pupillary response, post-auricular muscle response and intrinsic auricular muscle response; said stimuli delivery module comprises a set of earphones whereby auditory startle stimuli is delivered to subject; said stimuli delivery module comprising the set of earphones is configured to deliver auditory startle stimuli to subject unilaterally; and said sensor module comprising the pupillary response measuring means is configured to facilitate the measurement of ipsilateral and contralateral pupillary response to unilateral auditory startle stimuli.
A gas diffusion electrode substrate that is used in a fuel cell, wherein a microporous layer constituted by a carbon based filler and a fluororesin is formed on one surface of the electrode substrate, the sliding angle of water on the surface on the opposite side of the surface on which the microporous layer is formed is 30 degrees or less, and the through-plane gas permeation resistance is 15 to 190 mmAq (147.1 to 1863.2 Pa).