mhurhangee/ep-ind-claims huggingface dataset:
A fat composition which is the stearin fraction of a product obtained by interesterifying a mixture of palm oil stearin and shea olein and which comprises: greater than 75 % by weight palmitic acid and stearic acids; from 1 to 25 % by weight oleic acid; and greater than 20 % by weight of combined P 2 St and PSt 2 triglycerides, wherein P is palmitic acid and St is stearic acid; wherein the fat composition has a weight ratio of P 2 St:PPP triglycerides of greater than 0.5. greater than 75 % by weight palmitic acid and stearic acids; from 1 to 25 % by weight oleic acid; and greater than 20 % by weight of combined P 2 St and PSt 2 triglycerides, wherein P is palmitic acid and St is stearic acid;
A method for training a convolutional recurrent neural network, CRNN, for semantic segmentation in videos; the method being characterized in that it comprises the implementation, by a data processor of a first server, of steps of: (a) Training from a base of training images already semantically segmented, a first convolutional neural network, CNN; (b) Training from a base of training videos already semantically segmented, a recurrent convolutional neural network, CRNN, corresponding to the first CNN wherein a convolutional layer has been replaced by a recurrent module having a hidden state; said training comprising, for each pair of successive frames ( t - 1, t ∈ 1 T 2) of a video of said base of training videos already semantically segmented: Warping the internal state of the recurrent layer according to an estimated optical flow between the frames of the pair, so as to adapt the internal state to the motion of pixels between the frames of the pair; learning parameters of at least the recurrent module. (a) Training from a base of training images already semantically segmented, a first convolutional neural network, CNN; (b) Training from a base of training videos already semantically segmented, a recurrent convolutional neural network, CRNN, corresponding to the first CNN wherein a convolutional layer has been replaced by a recurrent module having a hidden state; said training comprising, for each pair of successive frames ( t - 1, t ∈ 1 T 2) of a video of said base of training videos already semantically segmented: Warping the internal state of the recurrent layer according to an estimated optical flow between the frames of the pair, so as to adapt the internal state to the motion of pixels between the frames of the pair; learning parameters of at least the recurrent module. Warping the internal state of the recurrent layer according to an estimated optical flow between the frames of the pair, so as to adapt the internal state to the motion of pixels between the frames of the pair; learning parameters of at least the recurrent module.
A system for removing ammonia from landfill leachate, the system comprising: an economiser for producing high pressure hot water in a hot water circuit from heat exchange with a hot gas stream carrying waste heat; a boiler, heated by said high pressure hot water for producing steam; an ammonia stripper having: a leachate inlet connected to a leachate flow path, and an ammonia containing gas outlet, at an upper end thereof; a leachate discharge outlet connected to a leachate discharge flow path, a steam inlet connected to the boiler by a conduit, and a forced air inlet, at a lower end thereof; and a randomly packed bed (60, 64) between the upper end and the lower end; wherein, in use, the flow of steam and air in one direction and leachate in the opposite direction, within the ammonia stripper, releases ammonia from the leachate, and characterised in that the system further comprises a heat exchanger in the lower end of the ammonia stripper between the forced air inlet and the steam inlet wherein, in use, forced air flows in counter flow over the leachate discharge so as to preheat and saturate the air with water. an economiser for producing high pressure hot water in a hot water circuit from heat exchange with a hot gas stream carrying waste heat; a boiler, heated by said high pressure hot water for producing steam; an ammonia stripper having: a leachate inlet connected to a leachate flow path, and an ammonia containing gas outlet, at an upper end thereof; a leachate discharge outlet connected to a leachate discharge flow path, a steam inlet connected to the boiler by a conduit, and a forced air inlet, at a lower end thereof; and a randomly packed bed (60, 64) between the upper end and the lower end; wherein, in use, the flow of steam and air in one direction and leachate in the opposite direction, within the ammonia stripper, releases ammonia from the leachate, and characterised in that the system further comprises a heat exchanger in the lower end of the ammonia stripper between the forced air inlet and the steam inlet wherein, in use, forced air flows in counter flow over the leachate discharge so as to preheat and saturate the air with water.
Method for the parallel purification of various types of biomolecules from the same biological base material fixed by cross-linking, wherein a) a step for dissolving the cross-linking of the base material, using a buffer containing a detergent and no proteolytically acting compound, b) a step for separating the different biomolecules present in the base material into at least one soluble fraction containing the mostly intact proteins, and at least one insoluble fraction, and c) isolation or confirmation/analysis or isolation and confirmation/analysis of different biomolecules from fractions and from step b) take place. a) a step for dissolving the cross-linking of the base material, using a buffer containing a detergent and no proteolytically acting compound, b) a step for separating the different biomolecules present in the base material into at least one soluble fraction containing the mostly intact proteins, and at least one insoluble fraction, and c) isolation or confirmation/analysis or isolation and confirmation/analysis of different biomolecules from fractions and from step b) take place.
A method, comprising creating a self-ionized plasma, SIP, of a coating material; establishing a bias on a print head die comprising a plurality of feed slots, wherein each feed slot of the plurality of feed slots deliver fluid from a reservoir located on a first side of the print head die to a plurality of firing chambers located on a second opposite side of the print head die, each said feed slot comprising a via in the print head die and side wall surfaces; and causing the coating material to be deposited on said surfaces to form a protective coating, wherein at least a portion of said coating material is deposited on at least a portion of said surfaces by resputtering.
An inductive component for use in an integrated circuit, comprising: a magnetic core; a first plurality of conductors (14, 18) arranged on a first side of the magnetic core; a second plurality of conductors (12, 16) arranged on a second side of the magnetic core; and a plurality of conductive connections (20, 22, 24, 50) connecting selected ones of the first plurality of conductors to selected ones of the second plurality of conductors so as to form a first coil having a coil axis, characterised in that the inductive component further comprises a compensation structure for compensating for core saturation non-uniformity, wherein the compensation structure includes the first coil, said coil having a varying conductor width in the direction of the coil axis to provide a varying turns density of the coil, wherein the conductor width of the coil increases with increasing distance from a first end of the magnetic core and a second end of the magnetic core towards a central portion of the magnetic core along the coil axis, so that the turns density of the coil towards and at the central portion of the magnetic core is lower than the turns density of the coil at the first end of the magnetic core and lower than the turns density of the coil at the second end of the magnetic core along the coil axis. a magnetic core; a first plurality of conductors (14, 18) arranged on a first side of the magnetic core; a second plurality of conductors (12, 16) arranged on a second side of the magnetic core; and a plurality of conductive connections (20, 22, 24, 50) connecting selected ones of the first plurality of conductors to selected ones of the second plurality of conductors so as to form a first coil having a coil axis, characterised in that the inductive component further comprises a compensation structure for compensating for core saturation non-uniformity, wherein the compensation structure includes the first coil, said coil having a varying conductor width in the direction of the coil axis to provide a varying turns density of the coil, wherein the conductor width of the coil increases with increasing distance from a first end of the magnetic core and a second end of the magnetic core towards a central portion of the magnetic core along the coil axis, so that the turns density of the coil towards and at the central portion of the magnetic core is lower than the turns density of the coil at the first end of the magnetic core and lower than the turns density of the coil at the second end of the magnetic core along the coil axis.
A toner which is negatively charged to develop an electrostatic latent image, comprising: a colorant; and a binder resin, wherein the toner has an acid value of from 5 to 20 mg KOH/g and an amine value of from 0.5 to 10 mg KOH/g. a colorant; and a binder resin, wherein the toner has an acid value of from 5 to 20 mg KOH/g and an amine value of from 0.5 to 10 mg KOH/g.
Method for allocating at least one access point to a mobile terminal in a cellular network formed of a plurality of cells each controlled by an access point and within which mobile terminals move about, comprising the following steps: - localization of a mobile terminal within a current cell; - identification, employing said localization, of a target cell to which said terminal is eligible to be connected; - transmission to said terminal, in advance, of a target context, comprising at least one identifier of the access point of said target cell; - implementation of a procedure for connecting said terminal to said access point of the target cell, depending on a predetermined criterion for changing the cell. - localization of a mobile terminal within a current cell; - identification, employing said localization, of a target cell to which said terminal is eligible to be connected; - transmission to said terminal, in advance, of a target context, comprising at least one identifier of the access point of said target cell; - implementation of a procedure for connecting said terminal to said access point of the target cell, depending on a predetermined criterion for changing the cell.
Heat-activable adhesive, comprising a) at least one acrylate-containing block copolymer, with a fraction of 40 - 98% by weight b) one or more tackifying epoxy and/or novolak and/or phenolic resins, with a fraction of 2 - 60% by weight, characterized in that in that the acrylate-containing block copolymer is described by the stoichiometric formula [P i P j] k, in which A denotes one or more monomers of type A, B denotes one or more monomers of type B, P denotes a polymer block obtained by polymerizing at least one monomer of type A, P denotes a polymer block obtained by polymerizing at least one monomer of type B, with diblock copolymers of formula with i = j = k = 1 and/or triblock copolymers of formula with i + j = 3 (i, j > 0) and k = 1 and/or linear and/or star-shaped multiblock copolymers being used as block copolymers. a) at least one acrylate-containing block copolymer, with a fraction of 40 - 98% by weight b) one or more tackifying epoxy and/or novolak and/or phenolic resins, with a fraction of 2 - 60% by weight, characterized in that in that the acrylate-containing block copolymer is described by the stoichiometric formula [P i P j] k, in which A denotes one or more monomers of type A, B denotes one or more monomers of type B, P denotes a polymer block obtained by polymerizing at least one monomer of type A, P denotes a polymer block obtained by polymerizing at least one monomer of type B, with diblock copolymers of formula with i = j = k = 1 and/or triblock copolymers of formula with i + j = 3 (i, j > 0) and k = 1 and/or linear and/or star-shaped multiblock copolymers being used as block copolymers.
A wind turbine generator comprising: a power supply unit connected to a utility grid via a switch gear; and a utility grid voltage measuring unit provided between the power supply unit and the utility grid, for measuring a voltage of the utility grid; and a a temperature measuring unit for obtaining an ambient temperature of the power supply unit, characterized in that in a case where a measurement value of the temperature measuring unit or an ambient temperature of the power supply unit estimated based on the measurement value is smaller than a first temperature threshold determined based on a function guarantee temperature of the power supply unit and the voltage measured by the utility grid voltage measuring unit is smaller than a preset voltage threshold, the switch gear is configured to interrupt the connection between the power supply unit and the utility grid. a power supply unit connected to a utility grid via a switch gear; and a utility grid voltage measuring unit provided between the power supply unit and the utility grid, for measuring a voltage of the utility grid; and a a temperature measuring unit for obtaining an ambient temperature of the power supply unit, characterized in that in a case where a measurement value of the temperature measuring unit or an ambient temperature of the power supply unit estimated based on the measurement value is smaller than a first temperature threshold determined based on a function guarantee temperature of the power supply unit and the voltage measured by the utility grid voltage measuring unit is smaller than a preset voltage threshold, the switch gear is configured to interrupt the connection between the power supply unit and the utility grid.
A sensor arrangement comprising a plurality of sensors (4, 5) and a measurement device, the plurality of sensors (4, 5) divided into sensor groups (2, 3), each sensor group (2, 3) comprising a number of sensors (4, 5), the groups (2, 3) being arranged such that the sensor groups (2, 3) are electrically matched, the sensors (4, 5) in a sensor group (2, 3) coupled in parallel with each other to form a sensor ladder (6, 7), the measurement device arranged to compare electrical signals from each sensor group (2, 3) and to output an indication signal, and the measurement device is coupled (9, 10) to each sensor ladder (6, 7) at an intermediate position and the coupling positions of each sensor ladder (6, 7) are equivalent to each other in terms of electrical response and the sensor groups (2, 3) are electrically matched by the provision of an equal number of sensors (4, 5) in each sensor group (2, 3) or by providing substantially equal spacing of the sensors (4, 5) on each sensor ladder (6, 7).
Composition comprising: a) at least one oxidation base 3-(2,5-diaminophenyl)-1-propanol and/or acid salts thereof and/or solvates thereof such as hydrates; b) at least one coupler; c) at least 10% by weight relative to the total weight of the composition of at least one fatty substance; d) at least one polysaccharide thickening polymer; e) optionally at least one basifying agent; and f) optionally at least one chemical oxidizing agent. a) at least one oxidation base 3-(2,5-diaminophenyl)-1-propanol and/or acid salts thereof and/or solvates thereof such as hydrates; b) at least one coupler; c) at least 10% by weight relative to the total weight of the composition of at least one fatty substance; d) at least one polysaccharide thickening polymer; e) optionally at least one basifying agent; and f) optionally at least one chemical oxidizing agent.
An electronic automatic injection device comprising: a housing configured to receive an injection module containing a material to be injected, said injection module including a mounting element and a needle shield; a multifunctional drive assembly connectable to said mounting element of said injection module; and a multiple drive element (860,1200) connectable to said multifunctional drive assembly, characterized in that said needle shield is adapted for irremovable displacement with respect to said mounting element and is displaceable relative to said mounting element only following engagement of said multifunctional drive assembly with said multiple drive element (860,1200). a housing configured to receive an injection module containing a material to be injected, said injection module including a mounting element and a needle shield; a multifunctional drive assembly connectable to said mounting element of said injection module; and a multiple drive element (860,1200) connectable to said multifunctional drive assembly, characterized in that said needle shield is adapted for irremovable displacement with respect to said mounting element and is displaceable relative to said mounting element only following engagement of said multifunctional drive assembly with said multiple drive element (860,1200).
Swimming pool or the like, comprising a bottom wall, in particular a bottom metal sheet, and a feed channel for fresh water and/or water treating agents, wherein the feed channel is formed separately from the main body of the swimming pool and is arranged outside the interior space of the swimming pool and forms a flat bearing surface for the bottom wall and/or the bottom metal sheet of the swimming pool, characterized in that inflow openings (7.1, 7.2, 7.3), formed without any covering, are integrated in a wall of the feed channel, towards the inner side of the swimming pool, wherein the inflow openings (7.1, 7.2) have lateral flow components in order to achieve a good area-wide distribution of the fresh water fed in and there are elements (7.5) of the surface (4.1) of the feed channel that delimit the inflow openings (7.1 and 7.2) and are deformed in the direction of the inner side of the feed channel, and in that the inflow openings (7.1 and 7.2) for feeding in fresh water and/or water treating agents are formed between a crosspiece (7.6), remaining between the elements (7.5), in the surface (4.1) of the feed channel and the respective element (7.5) itself.
A bicycle fastening device for fastening a bicycle onto a bicycle carrier, having a connecting arm on which linking elements (2, 2') that comprise a clamping member for connecting the arm to the bicycle carrier are arranged, characterized in that the clamping member comprises a clamping screw that can be operated by hand by means of a turning knob, as well as a clamp having two jaws (8, 9), wherein the jaws (8, 9) are mounted on a hinged side of the clamp so as to be able to pivot relative to one another, and the other side of the clamp is configured as a clamping screw side on which the clamping screw acts, and the distance between the jaws (8, 9) can be changed by actuation of the turning knob, wherein the turning knob is arranged on the side of the clamping member that faces the connecting arm.
An image forming method comprising: a step of applying an ink to an image forming surface of an intermediate transfer body to form an intermediate image of a temperature t1; a step of performing temperature control such that the temperature of the intermediate image changes from the temperate t1 to a temperature t2; and a step of transferring the intermediate image of the temperature t2 to a recording medium, the intermediate transfer body including a surface layer having the image forming surface, an elastic layer, and a heat-insulating layer contiguously in the mentioned order, the surface layer, the elastic layer, and the heat-insulating layer satisfying the following Equations 2 to 4: 100 MPa ≤ E 1 ≤ 1,000 MPa 0.5 MPa ≤ E 2 ≤ 50 MPa λ 3 ≤ 0.13 W / m ⋅ K ≤ λ 1 ≤ λ 2, wherein in Equation 2, E1 is a compressive elastic modulus of the surface layer, in Equation 3, E2 is a compressive elastic modulus of the elastic layer, and in Equation 4, λ1 is a thermal conductivity of the surface layer; λ2 is a thermal conductivity of the elastic layer; and λ3 is a thermal conductivity of the heat-insulating layer, characterized in that the surface layer, the elastic layer, and the heat-insulating layer satisfy the following Equation 1: C 1 + C 2 × Δ ⁢ t ≤ Q, wherein in Equation 1, C1 is a heat capacity per 1 m 2 of the surface layer; C2 is a heat capacity per 1 m 2 of the elastic layer; Δt = t2 - t1, Δt > 0°C, t1 ≤ 70°C, and 100°C ≤ t2 are satisfied; Q is a heat quantity applied to 1 m 2 of a surface of the surface layer by heating at the temperature t1; and Q ≤ 50,000 J. a step of applying an ink to an image forming surface of an intermediate transfer body to form an intermediate image of a temperature t1; a step of performing temperature control such that the temperature of the intermediate image changes from the temperate t1 to a temperature t2; and a step of transferring the intermediate image of the temperature t2 to a recording medium, the intermediate transfer body including a surface layer having the image forming surface, an elastic layer, and a heat-insulating layer contiguously in the mentioned order, the surface layer, the elastic layer, and the heat-insulating layer satisfying the following Equations 2 to 4: 100 MPa ≤ E 1 ≤ 1,000 MPa 0.5 MPa ≤ E 2 ≤ 50 MPa λ 3 ≤ 0.13 W / m ⋅ K ≤ λ 1 ≤ λ 2, wherein in Equation 2, E1 is a compressive elastic modulus of the surface layer, in Equation 3, E2 is a compressive elastic modulus of the elastic layer, and in Equation 4, λ1 is a thermal conductivity of the surface layer; λ2 is a thermal conductivity of the elastic layer; and λ3 is a thermal conductivity of the heat-insulating layer, characterized in that the surface layer, the elastic layer, and the heat-insulating layer satisfy the following Equation 1: C 1 + C 2 × Δ ⁢ t ≤ Q, wherein in Equation 1, C1 is a heat capacity per 1 m 2 of the surface layer; C2 is a heat capacity per 1 m 2 of the elastic layer; Δt = t2 - t1, Δt > 0°C, t1 ≤ 70°C, and 100°C ≤ t2 are satisfied; Q is a heat quantity applied to 1 m 2 of a surface of the surface layer by heating at the temperature t1; and Q ≤ 50,000 J.
A system comprising: a data storage device accessible by a host; an input/output filter system of an operating system of the host to: monitor read operations and write operations for an error count from the host to the data storage device; copy a portion of the data storage device to a random-access memory, RAM, buffer within the host responsive to monitored read operations to the portion exceeding a threshold corresponding to the error count; and redirect a successive read operation, addressed to the portion of the data storage device, to the copy of the portion in the RAM buffer, characterised in that the threshold corresponding to the error count is a user configurable read frequency threshold for the location. a data storage device accessible by a host; an input/output filter system of an operating system of the host to: monitor read operations and write operations for an error count from the host to the data storage device; copy a portion of the data storage device to a random-access memory, RAM, buffer within the host responsive to monitored read operations to the portion exceeding a threshold corresponding to the error count; and redirect a successive read operation, addressed to the portion of the data storage device, to the copy of the portion in the RAM buffer, monitor read operations and write operations for an error count from the host to the data storage device; copy a portion of the data storage device to a random-access memory, RAM, buffer within the host responsive to monitored read operations to the portion exceeding a threshold corresponding to the error count; and redirect a successive read operation, addressed to the portion of the data storage device, to the copy of the portion in the RAM buffer, characterised in that the threshold corresponding to the error count is a user configurable read frequency threshold for the location.