mhurhangee/patent-ind-claim-en huggingface dataset:
A laminating adhesive composition, comprising: a) an aqueous dispersion of thermoplastic polymer particles imbibed with an epoxy compound, wherein the epoxy compound is an aliphatic epoxy resin or a cyclo-aliphatic epoxy resin and wherein the concentration of the epoxy compound is from 1 to 40 weight percent, based on the total weight of the solid content of the aqueous dispersion; and b) at least one water emulsifiable or water dispersible epoxy curing agent selected from polyamines, polyamides, amidoamines, carboxylic functional polyesters, anhydrides, mercaptans, polymercaptans, cyclic amidines, and combinations thereof. a) an aqueous dispersion of thermoplastic polymer particles imbibed with an epoxy compound, wherein the epoxy compound is an aliphatic epoxy resin or a cyclo-aliphatic epoxy resin and wherein the concentration of the epoxy compound is from 1 to 40 weight percent, based on the total weight of the solid content of the aqueous dispersion; and b) at least one water emulsifiable or water dispersible epoxy curing agent selected from polyamines, polyamides, amidoamines, carboxylic functional polyesters, anhydrides, mercaptans, polymercaptans, cyclic amidines, and combinations thereof.
A touch display panel, comprising: a color film, CF, substrate and a thin film transistor, TFT, substrate disposed opposite to each other, and a liquid crystal layer disposed between the CF substrate and the TFT substrate , wherein a common electrode having a comb-shaped structure and/or a pixel electrode having a comb-shaped structure is disposed on a surface of the TFT substrate which is close to the liquid crystal layer , a touch layer is disposed on a surface of the CF substrate which is close to the liquid crystal layer , the touch layer comprises a driving line and a detecting line which are insulated from each other, characterized in that the driving line and/or the detecting line has a comb-shaped structure which is not completely overlapping with the comb-shaped structure of the common electrode and/or the comb-shaped structure of the pixel electrode , wherein the comb-shaped structure of the driving line and/or the detecting line is complementary to the comb-shaped structure of the common electrode and/or the comb-shaped structure of the pixel electrode .
Rail vehicle, comprising an underframe and a vehicle body , wherein the underframe and the vehicle body are made of different materials and wherein an adhesive connection is provided between the underframe and the vehicle body , characterised in that at least one static bearing is provided, which transmits forces in the longitudinal and transverse direction of the rail vehicle between the underframe and the vehicle body .
A temperature control system changing a temperature of an indoor space (Z1) to a target temperature within a target time , the temperature control system comprising: an indoor apparatus adjusting the temperature of the indoor space (Z1), the indoor apparatus being operable in a plurality of operation modes respectively corresponding to a plurality of operation energy powers; a temperature sensor sensing a current temperature of the indoor space (Z1); and a control apparatus connected to the indoor apparatus and the temperature sensor characterised by executing an operation strategy calculation procedure to calculate a plurality of operation strategies according to the target time , the target temperature , an operation data of the indoor apparatus , the current temperature and an environmental factor, determine each total operation energy consumption within the target time respectively corresponding to each operation strategy according to the operation energy powers and a set of a plurality of operation times of each operation strategy, select one of the operation strategies corresponding to the minimal total operation energy consumption, and executing the selected operation strategy to control the indoor apparatus to switch a current mode of the indoor apparatus between the operation modes, wherein each operation strategy comprises a different set of the plurality of operation times that the indoor apparatus operates under the operation modes, a sum of each set of all of the operation times of each operation strategy being equal to the target time . an indoor apparatus adjusting the temperature of the indoor space (Z1), the indoor apparatus being operable in a plurality of operation modes respectively corresponding to a plurality of operation energy powers; a temperature sensor sensing a current temperature of the indoor space (Z1); and a control apparatus connected to the indoor apparatus and the temperature sensor characterised by executing an operation strategy calculation procedure to calculate a plurality of operation strategies according to the target time , the target temperature , an operation data of the indoor apparatus , the current temperature and an environmental factor, determine each total operation energy consumption within the target time respectively corresponding to each operation strategy according to the operation energy powers and a set of a plurality of operation times of each operation strategy, select one of the operation strategies corresponding to the minimal total operation energy consumption, and executing the selected operation strategy to control the indoor apparatus to switch a current mode of the indoor apparatus between the operation modes, wherein each operation strategy comprises a different set of the plurality of operation times that the indoor apparatus operates under the operation modes, a sum of each set of all of the operation times of each operation strategy being equal to the target time .
A closure for sealing an opening defined by a mouth of a container, the closure comprising: (a) a body adapted to overlie the mouth; (b) a discontinuous skirt comprising a plurality of spaced apart arms extending from the body, wherein the plurality of spaced apart arms is deformable between an open position and a closed position and each arm has, in use, a container-engagable face and an exterior face; and (c) a plurality of fingers wherein each finger has, in use, a container-engagable face and an exterior face; wherein the plurality of fingers is interspersed with the plurality of arms; and wherein at least part of the exterior face of each finger is adapted to receive at least part of the container-engagable face of an adjacent arm, in the closed position. (a) a body adapted to overlie the mouth; (b) a discontinuous skirt comprising a plurality of spaced apart arms extending from the body, wherein the plurality of spaced apart arms is deformable between an open position and a closed position and each arm has, in use, a container-engagable face and an exterior face; and (c) a plurality of fingers wherein each finger has, in use, a container-engagable face and an exterior face;
A module for use on-board a vehicle, said module comprising a heater , and at least a first and a second storage compartment (10; 20; 30; 40; 20',40'); wherein the first compartment at least partially surrounds said heater , and the second compartment at least partially surrounds the first compartment; the first compartment being for performing a first function in a first temperature range, and the second compartment being for performing a second function in a second temperature range, said second temperature range being lower than said first temperature range; wherein the first compartment is in fluid communication with the second compartment; wherein one function of said first or second function is decomposing an ammonia precursor using a catalyst to generate an ammonia solution; wherein the module further comprises a valve block configured for connecting at least said first and second compartment, and a control module configured for controlling the valve block and the heater such that said one function of said first and second function comprises receiving a fresh ammonia precursor solution whilst outputting a generated ammonia solution, at repetitive moments in time; and such that said other function comprises receiving the ammonia precursor solution before it enters said one compartment and/or receiving the generated ammonia solution leaving said one compartment.
A jack-up platform comprising a hull , and a number of legs that connect to the hull through jacking systems that are each configured to move a leg between a low position, in which the leg takes support on an underwater bottom and the hull is jacked out of the water, and a high position, in which the leg extends substantially above deck, is free from the underwater bottom, and the hull is floating on the water, wherein the jack-up platform further comprises a higher level deck (11-2) and a lower level deck (11-1) that define a receiving space for a barge , optionally suitable for carrying parts for construction of a wind turbine, and further a (de)ballasting system configured to bring the floating hull between a receiving position at which the hull is ballasted to a receiving draft (30-1) in which the lower level deck is submerged underwater and the barge may be received in the receiving space through an opening in the hull, and an operational smaller draft (30-2) wherein substantially no water can flow on either of the lower and higher level decks, wherein the receiving space further comprises a centralizing system configured to substantially centralize the received floating barge in the receiving space, characterised by further comprising floor fenders provided on the lower level deck, preferably rubber fenders, wherein the lower level deck of the receiving space further comprises support elements , and the floor fenders in an uncompressed state extend higher than the support elements.
Structural component comprising: a composite laminate built up of a plurality of layers of carbon fibres , wherein the layers of carbon fibres are oriented in different directions and wherein the carbon fibres are surrounded by a conductive polymer resin ; wherein the carbon fibres of at least one of the layers comprise an electrically insulating coating , and wherein at least one of the coated carbon fibres extend through its respective layer to form an electrical connection between ends of the layer spaced apart from one another. a composite laminate built up of a plurality of layers of carbon fibres , wherein the layers of carbon fibres are oriented in different directions and wherein the carbon fibres are surrounded by a conductive polymer resin ; wherein the carbon fibres of at least one of the layers comprise an electrically insulating coating , and wherein at least one of the coated carbon fibres extend through its respective layer to form an electrical connection between ends of the layer spaced apart from one another.
A method for evaluating a tear fluid state executing following steps by using a processing unit and a storing unit of a tear fluid state evaluation device comprising: a step of acquiring color information in a predetermined region of a tear fluid interference fringe image acquired by an imaging element of a tear fluid interference fringe image acquisition device; and a step of calculating a numerical value representing a color diversity from the color information acquired, wherein the color information is luminance of at least one or more color elements of red, green, and blue possessed by a pixel; wherein the numerical value is a variation of the luminance; and characterized in that the calculated numerical value representing the color diversity is used by the processing unit as an index for evaluating a tear fluid state, and the variation of the luminance is a variance of the luminance or a standard deviation of the luminance. a step of acquiring color information in a predetermined region of a tear fluid interference fringe image acquired by an imaging element of a tear fluid interference fringe image acquisition device; and a step of calculating a numerical value representing a color diversity from the color information acquired, wherein the color information is luminance of at least one or more color elements of red, green, and blue possessed by a pixel; wherein the numerical value is a variation of the luminance; and characterized in that the calculated numerical value representing the color diversity is used by the processing unit as an index for evaluating a tear fluid state, and the variation of the luminance is a variance of the luminance or a standard deviation of the luminance.
A method of assembling a detonator which includes a tubular casing , the casing having a closed end , an opposed open end , a rim at the open end, and a bore extending from the open end to the closed end, a base charge , and an electronic module which includes a moulded plastics body to which is secured an electronic circuit , the method including the steps of: 1) inserting the base charge into the bore of the casing; 2) displacing the base charge to abut an inner surface of the closed end; 3) inserting the body of the module into the bore; 4) displacing the body inside the bore so that a leading end of the body is moved towards the base charge to a predetermined location at which a friction member on the body abuts the rim at the open end with a trailing end of the body extending from the open end; 5) engaging a displacement member with the body, the displacement member including a cylindrical projection which has a contact surface, which abuts the trailing end, and a stop formation which is at a predetermined distance from the contact surface; 6) using the displacement member to move the body along the bore towards the base charge against a sliding frictional resistance force produced by interengagement of the body and an opposing inner surface of the casing, until the stop formation abuts the rim at the open end; and 7) deforming a portion of the casing into engagement with a retention formation on the body thereby to secure the body to the casing with the body at a predetermined position inside the casing. 1) inserting the base charge into the bore of the casing; 2) displacing the base charge to abut an inner surface of the closed end; 3) inserting the body of the module into the bore; 4) displacing the body inside the bore so that a leading end of the body is moved towards the base charge to a predetermined location at which a friction member on the body abuts the rim at the open end with a trailing end of the body extending from the open end; 5) engaging a displacement member with the body, the displacement member including a cylindrical projection which has a contact surface, which abuts the trailing end, and a stop formation which is at a predetermined distance from the contact surface; 6) using the displacement member to move the body along the bore towards the base charge against a sliding frictional resistance force produced by interengagement of the body and an opposing inner surface of the casing, until the stop formation abuts the rim at the open end; and 7) deforming a portion of the casing into engagement with a retention formation on the body thereby to secure the body to the casing with the body at a predetermined position inside the casing.
Method for balancing a set of blades provided to be arranged on a bare disk of an aircraft engine, the bare disk comprising a determined number of numbered slots (a i ) provided to receive the same determined number of blades that can have a dispersion of mass, the blades being sorted by monotonic order of their mass (m i ), forming an ordered set of blades, said method being characterised in that it comprises the following steps: - separate the ordered set of blades in a balanced manner into four lobes composed of a first category designated Large lobes, comprising a first large lobe (GL1), and a second large lobe (GL2), and a second category designated Small lobes, comprising a first small lobe (PL1) and a second small lobe (PL2), the blades being categorised in each lobe in a current placement order, - arrange the four lobes (GL1, GL2, PL1, PL2) on the bare disk making the current placement order of the blades correspond to the numbered slots of the bare disk, and disposing them in a configuration determined as a function of a first out-of-balance vector (B1) representative of an out-of-balance inherent to the bare disk, and - reorganise the blades in the different lobes using an iterative permutation process adapted to balance the first out-of-balance vector by a second out-of-balance vector resulting from the mass dispersion of the blades and their arrangements on the disk, said reorganisation defining a final placement order of the blades on the disk slots. - separate the ordered set of blades in a balanced manner into four lobes composed of a first category designated Large lobes, comprising a first large lobe (GL1), and a second large lobe (GL2), and a second category designated Small lobes, comprising a first small lobe (PL1) and a second small lobe (PL2), the blades being categorised in each lobe in a current placement order, - arrange the four lobes (GL1, GL2, PL1, PL2) on the bare disk making the current placement order of the blades correspond to the numbered slots of the bare disk, and disposing them in a configuration determined as a function of a first out-of-balance vector (B1) representative of an out-of-balance inherent to the bare disk, and - reorganise the blades in the different lobes using an iterative permutation process adapted to balance the first out-of-balance vector by a second out-of-balance vector resulting from the mass dispersion of the blades and their arrangements on the disk, said reorganisation defining a final placement order of the blades on the disk slots.
A conjugate having factor VIII procoagulant activity comprising a B-domain deleted functional factor VIII polypeptide which is mutated such that the leucine residue at amino acid position 491 and the lysine residue at amino acid position 1808 is replaced with a cysteine residue such that mutant cysteine residues exist, wherein the B-domain deleted factor VIII polypeptide is covalently attached to a biocompatible polymer at the mutant cysteine residues at the amino acid position 491 and 1808.
An apparatus comprising: a recognition unit configured to recognize a real object in an image and at least one state quantity of said real object in the image; a determining unit configured to determine a stability of the recognition based on a temporal change in the at least one state quantity of the real object recognized by the recognition unit; and a display control unit configured to modify a display of a virtual object by modifying at least one attribute of the virtual object according to the determined stability of recognition, or by modifying the display of the virtual object according to a tracked position or orientation of the real object, wherein the tracked position is tracked at a tracking rate and the display control unit is further configured to choose the tracking rate according to the determined stability of recognition. a recognition unit configured to recognize a real object in an image and at least one state quantity of said real object in the image; a determining unit configured to determine a stability of the recognition based on a temporal change in the at least one state quantity of the real object recognized by the recognition unit; and a display control unit configured to modify a display of a virtual object by modifying at least one attribute of the virtual object according to the determined stability of recognition, or by modifying the display of the virtual object according to a tracked position or orientation of the real object, wherein the tracked position is tracked at a tracking rate and the display control unit is further configured to choose the tracking rate according to the determined stability of recognition. by modifying at least one attribute of the virtual object according to the determined stability of recognition, or by modifying the display of the virtual object according to a tracked position or orientation of the real object, wherein the tracked position is tracked at a tracking rate and the display control unit is further configured to choose the tracking rate according to the determined stability of recognition.
A method of adjusting viscosity of laundry, antimicrobial, cleaners, paint or ink-jet compositions, the method comprising a) providing a composition comprising one or more surfactants, polymeric polycarboxylates having pendant carboxylate groups, and an effective amount of one or more of a detergent filler selected from the group of sodium sulfate, sodium chloride, starch, sugars, C 1 - C 10 alkylene glycols, b) providing to the composition a viscosity adjuster, wherein the viscosity adjuster is a glycerin C 1 to C 3 aliphatic ether as a solvent, wherein the composition comprises the one or more surfactants in an amount of 0.1 to 50% by weight and the viscosity adjuster in an amount of 0.1 to 50% by weight, and then c) diluting the composition with a diluting liquid, the diluting liquid being water. a) providing a composition comprising one or more surfactants, polymeric polycarboxylates having pendant carboxylate groups, and an effective amount of one or more of a detergent filler selected from the group of sodium sulfate, sodium chloride, starch, sugars, C 1 - C 10 alkylene glycols, b) providing to the composition a viscosity adjuster, wherein the viscosity adjuster is a glycerin C 1 to C 3 aliphatic ether as a solvent, wherein the composition comprises the one or more surfactants in an amount of 0.1 to 50% by weight and the viscosity adjuster in an amount of 0.1 to 50% by weight, and then c) diluting the composition with a diluting liquid, the diluting liquid being water.
A method for sending a service, wherein the method comprises: obtaining (S1501), by a transmit end device, an original data stream; inserting, by the transmit end device, a quantity mark k into the original data stream (S1503), to generate a first data stream, wherein the quantity mark k is used to identify a quantity of first data units in the original data stream, and k is greater than or equal to 0, wherein a data unit in the original data stream comprises an idle unit and a non-idle unit, the idle unit is inserted and/or deleted between the transmit end device and a receive end device by the transmit end device or an intermediate unit; increasing and/or decreasing, by the transmit end device, the quantity of idle units in the first data stream; and sending the first data stream (S1505) for recovering, according to the quantity mark k of the first data stream, the original data stream from a data stream on which idle-unit insertion or deletion has been performed. obtaining (S1501), by a transmit end device, an original data stream; inserting, by the transmit end device, a quantity mark k into the original data stream (S1503), to generate a first data stream, wherein the quantity mark k is used to identify a quantity of first data units in the original data stream, and k is greater than or equal to 0, wherein a data unit in the original data stream comprises an idle unit and a non-idle unit, the idle unit is inserted and/or deleted between the transmit end device and a receive end device by the transmit end device or an intermediate unit; increasing and/or decreasing, by the transmit end device, the quantity of idle units in the first data stream; and sending the first data stream (S1505) for recovering, according to the quantity mark k of the first data stream, the original data stream from a data stream on which idle-unit insertion or deletion has been performed.