mhurhangee/ep-ind-claims huggingface dataset:
A device having a refrigerant cycle, the device comprising: a compressor configured to compress a refrigerant; a condenser configured to condense the refrigerant compressed by the compressor; an expander configured to expand the refrigerant condensed by the condenser an evaporator configured to evaporate the refrigerant expanded by the expander; characterised by further comprising: a separation mechanism (30,41) connected to an outlet pipe of the evaporator to separate a liquid refrigerant and a gaseous refrigerant from the refrigerant discharged from the evaporator; a bypass pipe configured to guide the gaseous refrigerant separated from the liquid refrigerant by the separation mechanism to the compressor; a first pipe connected to the separation mechanism and through which the liquid refrigerant discharged from the separation mechanism flows; an accumulator connected to the first pipe to separate the gaseous refrigerant which is not separated from the liquid refrigerant by the separation mechanism, from the liquid refrigerant and discharge the separated gaseous refrigerant; and a second pipe configured to guide the gaseous refrigerant discharged from the accumulator to the compressor. a compressor configured to compress a refrigerant; a condenser configured to condense the refrigerant compressed by the compressor; an expander configured to expand the refrigerant condensed by the condenser an evaporator configured to evaporate the refrigerant expanded by the expander; characterised by further comprising: a separation mechanism (30,41) connected to an outlet pipe of the evaporator to separate a liquid refrigerant and a gaseous refrigerant from the refrigerant discharged from the evaporator; a bypass pipe configured to guide the gaseous refrigerant separated from the liquid refrigerant by the separation mechanism to the compressor; a first pipe connected to the separation mechanism and through which the liquid refrigerant discharged from the separation mechanism flows; an accumulator connected to the first pipe to separate the gaseous refrigerant which is not separated from the liquid refrigerant by the separation mechanism, from the liquid refrigerant and discharge the separated gaseous refrigerant; and a second pipe configured to guide the gaseous refrigerant discharged from the accumulator to the compressor. a separation mechanism (30,41) connected to an outlet pipe of the evaporator to separate a liquid refrigerant and a gaseous refrigerant from the refrigerant discharged from the evaporator; a bypass pipe configured to guide the gaseous refrigerant separated from the liquid refrigerant by the separation mechanism to the compressor; a first pipe connected to the separation mechanism and through which the liquid refrigerant discharged from the separation mechanism flows; an accumulator connected to the first pipe to separate the gaseous refrigerant which is not separated from the liquid refrigerant by the separation mechanism, from the liquid refrigerant and discharge the separated gaseous refrigerant; and a second pipe configured to guide the gaseous refrigerant discharged from the accumulator to the compressor.
A dentifrice formulation including phosphopeptide-stabilized amorphous calcium phosphate and/or phosphopeptide-stabilized amorphous calcium fluoride phosphate (ACFP), free fluoride ions or fluoride salts, a dentally acceptable polishing material and a surfactant, wherein the formulation does not contain a calcium chelator or a phosphate buffer.
An ablation catheter comprising a catheter body; and an electrode; the electrode comprising: a hollow electrode body defined by a sidewall extending along a longitudinal axis; wherein the sidewall is provided with a pattern including one or more elongated gaps through a thickness of the wall, the elongated gaps imparting flexibility to the sidewall to adopt different operating configurations relative to the longitudinal axis, wherein the one or more elongated gaps comprise a gap that outlines alternating interlocking blocks, wherein the electrode body further defines a fluid delivery lumen, the fluid delivery lumen in communication with the one or more elongated gaps, wherein the catheter is configured to be coupled to an irrigation system such that when a cooling fluid is delivered in the lumen, it passes through the one or more elongated gaps to the exterior of the electrode. a hollow electrode body defined by a sidewall extending along a longitudinal axis; wherein the sidewall is provided with a pattern including one or more elongated gaps through a thickness of the wall, the elongated gaps imparting flexibility to the sidewall to adopt different operating configurations relative to the longitudinal axis, wherein the one or more elongated gaps comprise a gap that outlines alternating interlocking blocks, wherein the electrode body further defines a fluid delivery lumen, the fluid delivery lumen in communication with the one or more elongated gaps, wherein the catheter is configured to be coupled to an irrigation system such that when a cooling fluid is delivered in the lumen, it passes through the one or more elongated gaps to the exterior of the electrode.
A method for operating an active noise reduction system for a motor vehicle, where there is an active noise reduction system input signal that is related to the vehicle engine speed, and where the active noise reduction system comprises one or more adaptive filters that use a filter coefficient to modify the amplitude and/or phase of a noise cancellation reference signal and output noise reduction signals that are used to drive one or more transducers with their outputs together forming an output tone of the active noise reduction system and being directed to reduce engine noise, where the value of the coefficient is related to an adaptive filter leakage factor, the method comprising: monitoring changes in the engine speed based on the input signal that is related to the vehicle engine operation; and in response to changes in the engine speed, modifying the adaptive filter leakage factor, characterized in that the adaptive filter leakage factor is reduced to zero in response to a decrease in the engine speed, and the adaptive filter leakage factor is reduced at least until a level of the output tone of the active noise reduction system is below an estimated level of engine noise. monitoring changes in the engine speed based on the input signal that is related to the vehicle engine operation; and in response to changes in the engine speed, modifying the adaptive filter leakage factor, characterized in that the adaptive filter leakage factor is reduced to zero in response to a decrease in the engine speed, and the adaptive filter leakage factor is reduced at least until a level of the output tone of the active noise reduction system is below an estimated level of engine noise.
A method of detecting characteristics of a surface portion on an aircraft, comprising the steps of: - applying a marking element with a plurality of grid markings (14, 16) next to a surface portion to the aircraft, - simultaneously optically detecting at least one region of the marking element and at least one region of the surface portion by means of an optical detection device, - removing the optical detection device, - guiding a hand-guided sensor device once or several times to a predetermined position relative to the marking element within the surface portion and detecting a material property there, - correlating the detected material property with the relevant position in a dataset, and - generating and storing a damage map in which an optically detected structure of the surface portion is combined with the additional material property at at least one position, characterised in that the guiding of the sensor device comprises projecting at least one laser line (30, 32) outwards from the sensor device and moving the sensor device to align the at least one laser line (30, 32) with at least one of the grid markings (14, 16). - applying a marking element with a plurality of grid markings (14, 16) next to a surface portion to the aircraft, - simultaneously optically detecting at least one region of the marking element and at least one region of the surface portion by means of an optical detection device, - removing the optical detection device, - guiding a hand-guided sensor device once or several times to a predetermined position relative to the marking element within the surface portion and detecting a material property there, - correlating the detected material property with the relevant position in a dataset, and - generating and storing a damage map in which an optically detected structure of the surface portion is combined with the additional material property at at least one position,
A deformable, coated radius filler comprising a continuous or elongated fibrous structure and a tacky, resin surface coating, wherein said coated radius filler has an inner portion that is substantially free of resin and the resin surface coating has a substantially uniform thickness.
A process for preparing N-(5-(4-(4-((dimethylamino)methyl)-3-phenyl-1H-pyrazol-1-yl)pyrimidin-2-ylamino)-4-methoxy-2-morpholinophenyl)acrylamide or a pharmaceutically acceptable salt thereof, the process comprising (a) reacting N-(5-(4-(4-formyl-3-phenyl-1H-pyrazol-1-yl)pyrimidin-2-ylamino)-4-methoxy-2-morpholinophenyl)acrylamide with dimethylamine or an acid addition salt thereof in the presences of a reducing agent and a base to form N-(5-(4-(4-((dimethylamino)methyl)-3-phenyl-1H-pyrazol-1-yl)pyrimidin-2-ylamino)-4-methoxy-2-morpholinophenyl)acrylamide; and (b) isolating the N-(5-(4-(4-((dimethylamino)methyl)-3-phenyl-1H-pyrazol-1-yl)pyrimidin-2-ylamino)-4-methoxy-2-morpholinophenyl)acrylamide from the reaction mixture of Step (a). (a) reacting N-(5-(4-(4-formyl-3-phenyl-1H-pyrazol-1-yl)pyrimidin-2-ylamino)-4-methoxy-2-morpholinophenyl)acrylamide with dimethylamine or an acid addition salt thereof in the presences of a reducing agent and a base to form N-(5-(4-(4-((dimethylamino)methyl)-3-phenyl-1H-pyrazol-1-yl)pyrimidin-2-ylamino)-4-methoxy-2-morpholinophenyl)acrylamide; and (b) isolating the N-(5-(4-(4-((dimethylamino)methyl)-3-phenyl-1H-pyrazol-1-yl)pyrimidin-2-ylamino)-4-methoxy-2-morpholinophenyl)acrylamide from the reaction mixture of Step (a).
A method for capturing network traffic in a virtualized computing environment comprising at least one or more computing devices and one or more network devices (111, 350), the one or more computing devices including one or more virtual machines (118, 335), the method comprising: receiving a request to capture data packets associated with the one or more virtual machines (118, 335) of the virtualized computing environment; in response to the request, generating rules for hosts that are hosting the one or more virtual machines (118, 335), the rules usable to enable tagging of the requested data packets; based on the rules, tagging, by the hosts that are hosting the one or more virtual machines (118, 335) associated with the request, packets identified by the rules using a pattern of one or more bits in a reserved field of a header of the packet, wherein the pattern indicates that the packet is to be traced; propagating the pattern to an outer layer during encapsulation of the packet, wherein a header of the encapsulated packet includes the pattern of one or more bits; causing at least one network device (111, 350) to trace identified packets based on the pattern in the header of the encapsulated packet; and collecting the tagged packets for network traffic analysis of the virtualized computing environment. receiving a request to capture data packets associated with the one or more virtual machines (118, 335) of the virtualized computing environment; in response to the request, generating rules for hosts that are hosting the one or more virtual machines (118, 335), the rules usable to enable tagging of the requested data packets; based on the rules, tagging, by the hosts that are hosting the one or more virtual machines (118, 335) associated with the request, packets identified by the rules using a pattern of one or more bits in a reserved field of a header of the packet, wherein the pattern indicates that the packet is to be traced; propagating the pattern to an outer layer during encapsulation of the packet, wherein a header of the encapsulated packet includes the pattern of one or more bits; causing at least one network device (111, 350) to trace identified packets based on the pattern in the header of the encapsulated packet; and collecting the tagged packets for network traffic analysis of the virtualized computing environment.
A method of transmitting and/or receiving a control channel by an evolved Node B, eNB, in a wireless communication system supporting a carrier aggregation, CA, the method comprising: receiving capability information of a user equipment, UE, from the UE, the capability information comprising first information on whether a transmission of an uplink control channel on at least one secondary cell, SCell, in addition to a primary cell, PCell, is supported by the UE; transmitting configuration information associated with the uplink control channel based on the capability information to the UE; transmitting (604, 606) scheduling information and downlink data corresponding to the scheduling information to the UE; and receiving (605, 607) the uplink control channel for the downlink data on the PCell or on the PCell and an SCell from the UE, based on the configuration information. receiving capability information of a user equipment, UE, from the UE, the capability information comprising first information on whether a transmission of an uplink control channel on at least one secondary cell, SCell, in addition to a primary cell, PCell, is supported by the UE; transmitting configuration information associated with the uplink control channel based on the capability information to the UE; transmitting (604, 606) scheduling information and downlink data corresponding to the scheduling information to the UE; and receiving (605, 607) the uplink control channel for the downlink data on the PCell or on the PCell and an SCell from the UE, based on the configuration information.
A hair brush comprising: a brush head; a handle; and an adjustment device interconnected to the brush head and the handle; wherein the brush head has one end attached to an internal locking device, the internal locking device being disposed in the adjustment device and including a hollow cylinder, the hair brush further comprising a support shaft being disposed in the hollow cylinder, the support shaft being inserted into the brush head and secured to a top of the brush head, wherein the internal locking device further comprises two opposite guide grooves on the hollow cylinder, the support shaft including two opposite guide rods moveably disposed in the guide grooves respectively, and the adjustment device including an inner channel having threads so that a repeated rotation of the adjustment device causes the threads of the inner channel to move the guide rods along the guide grooves and compress the top of the hair brush, thereby changing an appearance of the hair brush. a brush head; a handle; and an adjustment device interconnected to the brush head and the handle; wherein the brush head has one end attached to an internal locking device, the internal locking device being disposed in the adjustment device and including a hollow cylinder, the hair brush further comprising a support shaft being disposed in the hollow cylinder, the support shaft being inserted into the brush head and secured to a top of the brush head, wherein the internal locking device further comprises two opposite guide grooves on the hollow cylinder, the support shaft including two opposite guide rods moveably disposed in the guide grooves respectively, and the adjustment device including an inner channel having threads so that a repeated rotation of the adjustment device causes the threads of the inner channel to move the guide rods along the guide grooves and compress the top of the hair brush, thereby changing an appearance of the hair brush.
A colored contact lens adapted to worn on an eye, comprising: a ring shaped colored band, wherein an outer diameter dimension of the colored band is ø 14 mm or less, characterized in that: the ring shaped colored band is configured to cover a boundary line of a dark part and a white part of the eye, while broadening on an inner circumference side and an outer circumference side of the boundary line, and wherein a density of the colored band decreases from the inner circumference side toward the outer circumference side, and an inner diameter dimension of the colored band is ø 8 mm or greater. the ring shaped colored band is configured to cover a boundary line of a dark part and a white part of the eye, while broadening on an inner circumference side and an outer circumference side of the boundary line, and wherein a density of the colored band decreases from the inner circumference side toward the outer circumference side, and an inner diameter dimension of the colored band is ø 8 mm or greater.
A method of collecting and concentrating Xe from air, comprising: drawing air through a filter and into an air compressor to form a compressed air stream; removing water from the compressed air stream; passing the compressed air stream through a dryer to produce a dried air stream with decreased levels of CO 2; passing the dried air stream through a microchannel heat exchanger/recuperator to reduce the temperature of the air stream to -90 °C or below to produce a cold, dry air stream; passing the cold, dry air stream through a cyrocooler to reduce the temperature of the stream by at least an additional -5 °C and passing the resulting stream through a cold Xe trap where Xe is adsorbed on adsorbent in the cold trap; and wherein, after passing through the cold Xe trap, the cold, dry air becomes a xenon-depleted cold, dry air stream which then passes into coolant channels of the microchannel heat exchanger/recuperator to cool the dried air stream. drawing air through a filter and into an air compressor to form a compressed air stream; removing water from the compressed air stream; passing the compressed air stream through a dryer to produce a dried air stream with decreased levels of CO 2; passing the dried air stream through a microchannel heat exchanger/recuperator to reduce the temperature of the air stream to -90 °C or below to produce a cold, dry air stream; passing the cold, dry air stream through a cyrocooler to reduce the temperature of the stream by at least an additional -5 °C and passing the resulting stream through a cold Xe trap where Xe is adsorbed on adsorbent in the cold trap; and wherein, after passing through the cold Xe trap, the cold, dry air becomes a xenon-depleted cold, dry air stream which then passes into coolant channels of the microchannel heat exchanger/recuperator to cool the dried air stream.
An information processing apparatus comprising: a wireless tag attached to the information processing apparatus configured to be readable and writable with takeout detection information via wireless communication, the takeout detection information indicating that the information processing apparatus _has been taken out from a use permissible location; a reader-writer unit contained in the information processing apparatus configured to at least read, via wireless communication, the takeout detection information stored in the wireless tag; and a main control unit configured to perform a process of restricting information processing functions executable by the information processing apparatus _upon determining, via the reader-writer unit reading the takeout detection information from the wireless tag, that the takeout detection information is written in the wireless tag. a wireless tag attached to the information processing apparatus configured to be readable and writable with takeout detection information via wireless communication, the takeout detection information indicating that the information processing apparatus _has been taken out from a use permissible location; a reader-writer unit contained in the information processing apparatus configured to at least read, via wireless communication, the takeout detection information stored in the wireless tag; and a main control unit configured to perform a process of restricting information processing functions executable by the information processing apparatus _upon determining, via the reader-writer unit reading the takeout detection information from the wireless tag, that the takeout detection information is written in the wireless tag.
A greenhouse having a roof including a plurality of substantially parallel crossbeams (3, 3'), at least two longitudinal sections (4, 5, 24, 5') which extend at a distance from each other in transverse direction of the crossbeams (3, 3'), a transparent foil which is mounted to the longitudinal sections (4, 5, 24, 5') at respective foil attachment locations thereof so as to form a cover between the longitudinal sections (4, 5, 24, 5'), and a displacement mechanism (8, 8') for displacing one of the longitudinal sections (5, 5') with respect to the other (4, 24) between a non-foil-stretching position and a foil-stretching position, wherein the distance between the respective foil attachment locations is larger in the foil-stretching position than in the non-foil-stretching position, wherein the displacement mechanism (8, 8') can be operated and is lockable at an upper side of the roof, characterized in that the longitudinal sections are mounted to the crossbeams (3, 3') and wherein the displacement mechanism (8, 8') comprises a lock (11, 26, 28) for locking the displaceable longitudinal section and the crossbeams to each other in the foil-stretching position, which lock is accessible from an upper side of the roof such that it is lockable and unlockable at an upper side of the roof.
A process for treating polymer contaminated water in a polymer plant, comprising the steps of: (i) passing polymer contaminated water to a first separator; (ii) removing a part of contaminations from the polymer contaminated water in the first separator; (iii) establishing a stream of water from the first separator under the action of gravity to a filter having a first filter surface and a second filter surface; (iv) withdrawing a stream of purified water from the filter through the first filter surface; (v) determining the level of water in the filter; (vi) when the level of water in the filter increases above a predetermined level, withdrawing the stream of the purified water through the second filter surface; (vii) purging the first filter surface with a purge water stream to remove deposit from the first filter surface, thereby establishing a stream of waste water comprising the purge water and the deposit; (viii) passing the waste water to a bag filter for removing the deposit from the water thereby producing a recycle water stream; (ix) passing the recycle water stream to the first separator; and (x) discharging at least a part of the purified water stream to the environment.
An aortic graft occluder for intraoperative leak testing of a tubular aortic graft attached to an aortic root, the aortic graft occluder comprising a plug adapted for sealingly closing an opening of the aortic graft, wherein the plug comprises a first pathway adapted for connecting a lumen of the aortic graft with a feed line.