mhurhangee/patent-ind-claim-en huggingface dataset:
A water clarification composition comprising: (i) 0.1 to 50% by weight of dry matter of anionic polymeric flocculant; (ii) 0.4 to 90% by weight of dry matter of an amphoteric polymer having a molecular weight of at least 5,000 Da, said amphoteric polymer being characterized in that at least 30%, preferably at least 50% of the monomeric units of the amphoteric polymer are betaine units represented by the following formula (I): H 2 C=C(R 1 )-C(O)O-(CH 2 ) n -N + (R 2 )(R 3 )-(CH 2 ) p -X where: - R 1 represents a hydrogen atom or a linear or branched C 1 to C 6 alkyl group; - R 2 and R 3 , independently of each other, represent an alkyl, hydroxyalkyl or aminoalkyl group in which the alkyl group is a linear or branched C 1 to C 6 alkyl; - n is an integer in the range of 1 to 4; - p is an integer in the range of 2 to 8; - X represents COO - , SO 3 - or OSO 3 - ; and (iii) 0 to 95 % by weight of dry matter of inert filler; wherein the combination of the anionic polymer flocculant, the amphoteric polymer and the inert filler constitutes at least 50 % by weight, preferably at least 70 % by weight of the water clarification composition, wherein the amphoteric polymer exists in a ratio to the anionic polymer flocculant, wherein the ratio is selected from 3:1, 4:1, or 5:1, and wherein the inert filler contains at least 80 % by weight of one or more water-soluble components. (i) 0.1 to 50% by weight of dry matter of anionic polymeric flocculant; (ii) 0.4 to 90% by weight of dry matter of an amphoteric polymer having a molecular weight of at least 5,000 Da, said amphoteric polymer being characterized in that at least 30%, preferably at least 50% of the monomeric units of the amphoteric polymer are betaine units represented by the following formula (I): H 2 C=C(R 1 )-C(O)O-(CH 2 ) n -N + (R 2 )(R 3 )-(CH 2 ) p -X where: - R 1 represents a hydrogen atom or a linear or branched C 1 to C 6 alkyl group; - R 2 and R 3 , independently of each other, represent an alkyl, hydroxyalkyl or aminoalkyl group in which the alkyl group is a linear or branched C 1 to C 6 alkyl; - n is an integer in the range of 1 to 4; - p is an integer in the range of 2 to 8; - X represents COO - , SO 3 - or OSO 3 - ; and - R 1 represents a hydrogen atom or a linear or branched C 1 to C 6 alkyl group; - R 2 and R 3 , independently of each other, represent an alkyl, hydroxyalkyl or aminoalkyl group in which the alkyl group is a linear or branched C 1 to C 6 alkyl; - n is an integer in the range of 1 to 4; - p is an integer in the range of 2 to 8; - X represents COO - , SO 3 - or OSO 3 - ; and (iii) 0 to 95 % by weight of dry matter of inert filler;
A system for directing air flowing in a turbofan engine bypass flow passage into separate plena, the system comprising: an outer fan duct and an inner fan duct , the outer fan duct spaced apart from and surrounding the inner fan duct to define the bypass flow passage between the outer and inner fan ducts, characterized in that the system further comprises: a NACA scoop formed in the inner fan duct, the NACA scoop including two side walls (306-1, 306-2), a bottom wall , and an entrance lip , the entrance lip defined by a portion of the inner fan duct and spaced apart from the bottom wall to form a NACA scoop air inlet that extends through the inner fan duct to fluidly communicate the bypass flow passage with a first plenum ; and a Pitot scoop longitudinally aligned with the NACA scoop, the Pitot scoop including a Pitot scoop air inlet , a Pitot scoop air outlet , and a Pitot scoop flow passage between the Pitot scoop air inlet and the Pitot scoop air outlet, the Pitot scoop air inlet defined, at least partially, by the entrance lip, the Pitot scoop air outlet in fluid communication with a second plenum . a NACA scoop formed in the inner fan duct, the NACA scoop including two side walls (306-1, 306-2), a bottom wall , and an entrance lip , the entrance lip defined by a portion of the inner fan duct and spaced apart from the bottom wall to form a NACA scoop air inlet that extends through the inner fan duct to fluidly communicate the bypass flow passage with a first plenum ; and a Pitot scoop longitudinally aligned with the NACA scoop, the Pitot scoop including a Pitot scoop air inlet , a Pitot scoop air outlet , and a Pitot scoop flow passage between the Pitot scoop air inlet and the Pitot scoop air outlet, the Pitot scoop air inlet defined, at least partially, by the entrance lip, the Pitot scoop air outlet in fluid communication with a second plenum .
A method for rate control in video encoding, the method comprising: prior to encoding a frame of video data using intra prediction, determining a complexity measure of the frame to be encoded based on a calculation on each block in the frame to be encoded, wherein the calculation on each block comprises performing a frequency-domain transform on the luma pixel values of the block of the frame to be encoded to produce a block of transform coefficients and obtaining a sum of absolute values of the block of transform coefficients and subtracting the absolute value of a transform coefficient at a DC coefficient position of the block of transformed coefficients from the sum; determining , based on the complexity measure and a target bit rate, a Lagrange multiplier; determining an intra-prediction mode based on the determined Lagrange multiplier; determining a quantization parameter based on the determined Lagrange multiplier; and encoding the frame of video data using the determined intra-prediction mode and the determined quantization parameter. prior to encoding a frame of video data using intra prediction, determining a complexity measure of the frame to be encoded based on a calculation on each block in the frame to be encoded, wherein the calculation on each block comprises performing a frequency-domain transform on the luma pixel values of the block of the frame to be encoded to produce a block of transform coefficients and obtaining a sum of absolute values of the block of transform coefficients and subtracting the absolute value of a transform coefficient at a DC coefficient position of the block of transformed coefficients from the sum; determining , based on the complexity measure and a target bit rate, a Lagrange multiplier; determining an intra-prediction mode based on the determined Lagrange multiplier; determining a quantization parameter based on the determined Lagrange multiplier; and encoding the frame of video data using the determined intra-prediction mode and the determined quantization parameter.
A sole structure for an article of footwear comprising: a sole plate that has a forefoot region ; and a stiffness enhancing assembly disposed in the forefoot region of the sole plate , the stiffness enhancing assembly further comprising: a compression member disposed at a foot-facing side of the sole plate ; and a tensile member disposed at an opposite side of the sole plate from the compression member ; wherein the tensile member is spaced apart from the compression member by a first distance (H) in a first portion of a flexion range (FR1) during dorsiflexion of the sole structure , and interferes with the compression member during a second portion of the flexion range (FR2) that includes flex angles greater than in the first portion of the flexion range (FR1); wherein the tensile member includes a posterior portion , an anterior portion , and a body portion disposed between the posterior portion and the anterior portion ; wherein the tensile member is spaced apart from the body portion of the compression member by the first distance (H); and characterised in that a width of the body portion of the tensile member is less than a width of the compression member . a sole plate that has a forefoot region ; and a stiffness enhancing assembly disposed in the forefoot region of the sole plate , the stiffness enhancing assembly further comprising: a compression member disposed at a foot-facing side of the sole plate ; and a tensile member disposed at an opposite side of the sole plate from the compression member ; wherein the tensile member is spaced apart from the compression member by a first distance (H) in a first portion of a flexion range (FR1) during dorsiflexion of the sole structure , and interferes with the compression member during a second portion of the flexion range (FR2) that includes flex angles greater than in the first portion of the flexion range (FR1); a compression member disposed at a foot-facing side of the sole plate ; and a tensile member disposed at an opposite side of the sole plate from the compression member ; wherein the tensile member is spaced apart from the compression member by a first distance (H) in a first portion of a flexion range (FR1) during dorsiflexion of the sole structure , and interferes with the compression member during a second portion of the flexion range (FR2) that includes flex angles greater than in the first portion of the flexion range (FR1); wherein the tensile member includes a posterior portion , an anterior portion , and a body portion disposed between the posterior portion and the anterior portion ; wherein the tensile member is spaced apart from the body portion of the compression member by the first distance (H); and characterised in that a width of the body portion of the tensile member is less than a width of the compression member .
A system for generating images of a sample , said system having a confocal microscope detection device , an optical coherence tomography detection device , a light source for illuminating the sample, and an arrangement for collecting light reflected from the sample comprising: a single mode waveguide for collecting light reflected from the sample and directing the collected light to the optical coherence tomography detection device ; and optics for collecting at least a portion of the reflected light that does not couple into the single mode waveguide and directing the collected light to the confocal microscope detection device , characterized in that said optics include an aperture surrounding said waveguide, the aperture being concentric to the single mode waveguide . a single mode waveguide for collecting light reflected from the sample and directing the collected light to the optical coherence tomography detection device ; and optics for collecting at least a portion of the reflected light that does not couple into the single mode waveguide and directing the collected light to the confocal microscope detection device , characterized in that said optics include an aperture surrounding said waveguide, the aperture being concentric to the single mode waveguide .
A percutaneous pump system, the system comprising: a cannula having a proximal inlet , a proximal section , a first distal section , and a distal outlet ; a percutaneous pump configured to couple to the proximal inlet ; and a guidewire on which the cannula can be backloaded, wherein the cannula has a transition zone between the proximal section and the first distal section and the proximal section has a first flexural modulus and the first distal section has a second flexural modulus which is smaller than the first flexural modulus, characterized in that the first flexural modulus is configured to increase a buckling force of the cannula and the second flexural modulus is configured to match a flexural modulus of the guidewire . a cannula having a proximal inlet , a proximal section , a first distal section , and a distal outlet ; a percutaneous pump configured to couple to the proximal inlet ; and a guidewire on which the cannula can be backloaded, wherein the cannula has a transition zone between the proximal section and the first distal section and the proximal section has a first flexural modulus and the first distal section has a second flexural modulus which is smaller than the first flexural modulus, characterized in that the first flexural modulus is configured to increase a buckling force of the cannula and the second flexural modulus is configured to match a flexural modulus of the guidewire .
A process for producing an ammonia synthesis gas, said process comprising the steps of: - Reforming a hydrocarbon feed in a reforming section thereby obtaining a synthesis gas comprising CH 4 , CO, CO 2 , H 2 and H 2 O - Shifting the synthesis gas in a shift section comprising one or more shift steps in series - Optionally washing the synthesis gas leaving the shift section with water - Sending a process condensate originating from cooling and the optional washing the synthesis gas leaving the shift section to a process condensate stripper, wherein dissolved shift byproducts and dissolved gases are stripped out of the process condensate using steam resulting in a steam stream, - Adding at least part of said steam stream from the process condensate stripper to the synthesis gas downstream the reforming section, upstream the last shift step, wherein - The steam/carbon ratio in the reforming step and the shift steps is less than 2.6. - Reforming a hydrocarbon feed in a reforming section thereby obtaining a synthesis gas comprising CH 4 , CO, CO 2 , H 2 and H 2 O - Shifting the synthesis gas in a shift section comprising one or more shift steps in series - Optionally washing the synthesis gas leaving the shift section with water - Sending a process condensate originating from cooling and the optional washing the synthesis gas leaving the shift section to a process condensate stripper, wherein dissolved shift byproducts and dissolved gases are stripped out of the process condensate using steam resulting in a steam stream, - Adding at least part of said steam stream from the process condensate stripper to the synthesis gas downstream the reforming section, upstream the last shift step, wherein - The steam/carbon ratio in the reforming step and the shift steps is less than 2.6.
Grab attachment for grab members of a grab for grabbing an object, having at least one first grab surface , wherein the grab members can be moved outwards from a closed position into an open position, and vice versa, characterized in that the first grab surface is designed and arranged such that the grab attachment can be mounted on the grab member with the first grab surface projecting outwards beyond the grab member , wherein the first grab surface is designed to be curved convexly in two directions which are transverse in relation to one another.
A method of preparing a soft tissue filler composition, the method comprising the steps of: providing a hyaluronic acid component crosslinked with at least one crosslinking agent selected from the group consisting of 1,4-butanediol diglycidyl ether (BDDE), 1,2-bis(2,3-epoxypropoxy)ethylene and 1-(2,3-epoxypropyl)-2,3- epoxycyclohexane, or combinations thereof; wherein the hyaluronic acid component comprises 10% to 20% free hyaluronic acid by volume; adjusting the pH of said hyaluronic acid component to an adjusted pH above 7.5; and adding a solution containing at least one anesthetic agent to said hyaluronic acid component having said adjusted pH to obtain a hyaluronic acid-based soft tissue filler composition, wherein the at least one anesthetic agent is lidocaine HCl. providing a hyaluronic acid component crosslinked with at least one crosslinking agent selected from the group consisting of 1,4-butanediol diglycidyl ether (BDDE), 1,2-bis(2,3-epoxypropoxy)ethylene and 1-(2,3-epoxypropyl)-2,3- epoxycyclohexane, or combinations thereof; wherein the hyaluronic acid component comprises 10% to 20% free hyaluronic acid by volume; adjusting the pH of said hyaluronic acid component to an adjusted pH above 7.5; and adding a solution containing at least one anesthetic agent to said hyaluronic acid component having said adjusted pH to obtain a hyaluronic acid-based soft tissue filler composition, wherein the at least one anesthetic agent is lidocaine HCl.
A main card unit externally electrically couplable to a gas combi boiler so as to selectively provide or interrupt electrical power to said gas combi boiler, said main card selectively enabling operation of a water circulation pump of said gas combi boiler characterized in that; said main card unit is configured to calculate the amount of heat energy to be generated by the gas combi boiler depending on the atmospheric temperature information or operation program setting and operate the gas combi boiler for a certain time duration of blazing period upon termination of which the gas combi boiler and the water circulation pump thereof remains non-powered for a certain time duration until a subsequent heat generation and blazing period is initiated in the manner that period for non-powered state of the water circulation pump and heat generation and blazing period are either calculated based on the atmospheric temperature information or taken as predetermined periods according to manually set operation program setting; said main card unit is configured to calculate the time interval during which the non-powered state of said gas combi boiler remains active and the time interval during which the heat generation by blazing takes place; said main card unit is configured to operate the gas combi boiler in an interrupted manner, during operational periods of which the water circulation pump is operated during blazing period; and said water circulating pump is deactivatable with a predetermined delay.
A system, comprising: a housing of an imaging device ; a print particle reservoir positioned within an interior of housing of the imaging device; a mating interface (224, 324, 424, 524-1) coupled to an exterior of the housing to receive a print particle container to deposit print particles into the print particle reservoir when the mating interface is in an unlocked position; an authentication mechanism coupled to a locking mechanism coupled to the mating interface to allow the mating interface to move from a locked position to the unlocked position, the authentication mechanism being a computing device comprising a processing resource and a memory resource, characterized wherein the authentication mechanism includes instructions to: determine a quantity of print particles the print particle reservoir is capable of receiving from the print particle container; determine a quantity of print particles stored in the print particle container; and unlock the locking mechanism to allow the mating interface to move from the locked position to the unlocked position when the quantity of print particles stored in the print particle container is less than the quantity of print particles the print particle reservoir is capable of receiving. a housing of an imaging device ; a print particle reservoir positioned within an interior of housing of the imaging device; a mating interface (224, 324, 424, 524-1) coupled to an exterior of the housing to receive a print particle container to deposit print particles into the print particle reservoir when the mating interface is in an unlocked position; an authentication mechanism coupled to a locking mechanism coupled to the mating interface to allow the mating interface to move from a locked position to the unlocked position, the authentication mechanism being a computing device comprising a processing resource and a memory resource, characterized wherein the authentication mechanism includes instructions to: determine a quantity of print particles the print particle reservoir is capable of receiving from the print particle container; determine a quantity of print particles stored in the print particle container; and unlock the locking mechanism to allow the mating interface to move from the locked position to the unlocked position when the quantity of print particles stored in the print particle container is less than the quantity of print particles the print particle reservoir is capable of receiving. determine a quantity of print particles the print particle reservoir is capable of receiving from the print particle container; determine a quantity of print particles stored in the print particle container; and unlock the locking mechanism to allow the mating interface to move from the locked position to the unlocked position when the quantity of print particles stored in the print particle container is less than the quantity of print particles the print particle reservoir is capable of receiving.
A user equipment, UE , comprising: receiving unit configured to receive a radio resource control, RRC, message comprising one or more first parameters used for configuring a first allocation table and a second allocation table, each of the first allocation table and the second allocation table being used for defining a time domain allocation for a physical uplink shared channel, PUSCH, transmission, the receiving unit configured to detect in a UE specific search space, a first downlink control information, DCI, format or a second DCI format comprising first information used for indicating a row index to the first allocation table or the second allocation table, the first DCI format or the second DCI format being used for scheduling of the PUSCH, transmitting unit configured to perform, based on a detection of the first DCI format or the second DCI format, the PUSCH transmission based on either of the first allocation table or the second allocation table, wherein whether the first allocation table or the second allocation table is used for the PUSCH transmission is determined by the UE, based on whether the first DCI format or the second DCI format is detected by the UE. receiving unit configured to receive a radio resource control, RRC, message comprising one or more first parameters used for configuring a first allocation table and a second allocation table, each of the first allocation table and the second allocation table being used for defining a time domain allocation for a physical uplink shared channel, PUSCH, transmission, the receiving unit configured to detect in a UE specific search space, a first downlink control information, DCI, format or a second DCI format comprising first information used for indicating a row index to the first allocation table or the second allocation table, the first DCI format or the second DCI format being used for scheduling of the PUSCH, transmitting unit configured to perform, based on a detection of the first DCI format or the second DCI format, the PUSCH transmission based on either of the first allocation table or the second allocation table, wherein whether the first allocation table or the second allocation table is used for the PUSCH transmission is determined by the UE, based on whether the first DCI format or the second DCI format is detected by the UE.
Apparatus for optically detecting a document , wherein the apparatus comprises at least one image detecting device , wherein the apparatus comprises or forms at least one receiving volume with a resting surface for the document which is to be detected, wherein the apparatus comprises at least one lighting device , wherein the device comprises at least one light-guiding element, wherein the light-guiding element exhibits a first surface , wherein, by means of the lighting device , light can be coupled into the light-guiding element and in the region of the first surface can be coupled out of the light-guiding element towards the receiving volume, wherein the first surface is a flat and non-cambered surface , characterised in that a further surface of the light-guiding element exhibits at least one raised region , wherein a distance between adjacent raised regions decreases as a distance from a coupling-in region for the light increases.