mhurhangee/patent-ind-claim-en huggingface dataset:
A refrigeration appliance comprising - at least two hinge assemblies for use with a flap door, - at least one flap door for opening/closing the refrigeration compartment , wherein the flap door is mountable to the hinge-assemblies , - opposing side walls which define a refrigeration compartment , - at least two mounting portions each for mounting a hinge-assembly , wherein the mounting portions are respectively formed on the opposing side walls , - said hinge-assembly comprising a flap hinge and a bearing for movably supporting the flap hinge , wherein the bearing is separately provided from the flap hinge - wherein the flap hinge and the bearing are configured such that the flap hinge is rotatable relative to the bearing about a horizontal axis (Ax) which is perpendicular to the side walls , and slidable relative to the bearing through a limited distance along said horizontal axis (Ax), and wherein the flap hinge and the bearing are biased away from each other along said horizontal axis (Ax) by a spring characterized in that - the flap hinge has a fixing portion for fastening the flap door, wherein the flap hinge is separately provided from the flap door - wherein the hinge assembly comprises a retainer for releasably joining the flap hinge and the bearing together - each of the mounting portions is configured to fix the bearing of the corresponding hinge-assembly and wherein the flap door is configured to fasten to the fixing portion of the flap hinges of the hinge-assemblies . - at least two hinge assemblies for use with a flap door, - at least one flap door for opening/closing the refrigeration compartment , wherein the flap door is mountable to the hinge-assemblies , - opposing side walls which define a refrigeration compartment , - at least two mounting portions each for mounting a hinge-assembly , wherein the mounting portions are respectively formed on the opposing side walls , - said hinge-assembly comprising a flap hinge and a bearing for movably supporting the flap hinge , wherein the bearing is separately provided from the flap hinge - wherein the flap hinge and the bearing are configured such that the flap hinge is rotatable relative to the bearing about a horizontal axis (Ax) which is perpendicular to the side walls , and slidable relative to the bearing through a limited distance along said horizontal axis (Ax), and wherein the flap hinge and the bearing are biased away from each other along said horizontal axis (Ax) by a spring - the flap hinge has a fixing portion for fastening the flap door, wherein the flap hinge is separately provided from the flap door - wherein the hinge assembly comprises a retainer for releasably joining the flap hinge and the bearing together - each of the mounting portions is configured to fix the bearing of the corresponding hinge-assembly and wherein the flap door is configured to fasten to the fixing portion of the flap hinges of the hinge-assemblies .
A power output generation system, comprising: a repeating setpoint generator module configured to selectively vary a setpoint (PFwd Setpoint) for an output parameter according to a predetermined pattern that repeats during successive time intervals; a closed-loop module configured to generate, during a first one of the time intervals, N closed-loop values (Closed-Loop Output) based on N differences between (i) N values of the setpoint at N times during the first one of the time intervals (PFwd Setpoint) and (ii) N measurements of the output parameter at the N times during the first one of the time intervals (PFwd), respectively; an adjusting module configured to generate, during the first one of the time intervals, N adjustment values (Adjustment) based on N differences between (i) N values of the setpoint at the N times during a second one of the time intervals (Previous PFwd(n)) and (ii) N measurements of the output parameter at the N times during the second one of the time intervals (Previous PFwd(n)), respectively, wherein the second one of the time intervals is the time interval immediately preceding the first one of the time intervals; a power amplifier configured to apply an output to a load ; and a mixer module configured to generate N output values based on the N closed-loop values (Closed-Loop Output) and the N adjustment values (Adjustment), respectively, and that controls power input to the power amplifier based on the N output values. a repeating setpoint generator module configured to selectively vary a setpoint (PFwd Setpoint) for an output parameter according to a predetermined pattern that repeats during successive time intervals; a closed-loop module configured to generate, during a first one of the time intervals, N closed-loop values (Closed-Loop Output) based on N differences between (i) N values of the setpoint at N times during the first one of the time intervals (PFwd Setpoint) and (ii) N measurements of the output parameter at the N times during the first one of the time intervals (PFwd), respectively; an adjusting module configured to generate, during the first one of the time intervals, N adjustment values (Adjustment) based on N differences between (i) N values of the setpoint at the N times during a second one of the time intervals (Previous PFwd(n)) and (ii) N measurements of the output parameter at the N times during the second one of the time intervals (Previous PFwd(n)), respectively, wherein the second one of the time intervals is the time interval immediately preceding the first one of the time intervals; a power amplifier configured to apply an output to a load ; and a mixer module configured to generate N output values based on the N closed-loop values (Closed-Loop Output) and the N adjustment values (Adjustment), respectively, and that controls power input to the power amplifier based on the N output values.
A method for preparing a metal foam comprising steps of: forming a first metal foam precursor using a first slurry containing a first metal powder, a first binder and a first dispersant; forming a second metal foam precursor on the first metal foam precursor using a second slurry containing a second metal powder, a second binder and a second dispersant and having a composition different from that of the first slurry, and sintering the first metal foam precursor and the second metal foam precursor, wherein the first and second slurries do not comprise a blowing agent, wherein the first or second binder is alkyl cellulose, polyalkylene carbonate or a polyvinyl alcohol-based binder, wherein the first and second dispersants are alcohols, wherein the first slurry comprises the first dispersant in an amount of 200 parts by weight or more relative to 100 parts by weight of the first binder, and wherein the second slurry comprises the second dispersant in an amount of 200 parts by weight or more relative to 100 parts by weight of the second binder. forming a first metal foam precursor using a first slurry containing a first metal powder, a first binder and a first dispersant; forming a second metal foam precursor on the first metal foam precursor using a second slurry containing a second metal powder, a second binder and a second dispersant and having a composition different from that of the first slurry, and sintering the first metal foam precursor and the second metal foam precursor, wherein the first and second slurries do not comprise a blowing agent, wherein the first or second binder is alkyl cellulose, polyalkylene carbonate or a polyvinyl alcohol-based binder, wherein the first and second dispersants are alcohols, wherein the first slurry comprises the first dispersant in an amount of 200 parts by weight or more relative to 100 parts by weight of the first binder, and wherein the second slurry comprises the second dispersant in an amount of 200 parts by weight or more relative to 100 parts by weight of the second binder.
A fir tree coupling for a gas turbine blade to disk interface comprising: a load beam having a longitudinal axis , a base , a first side , and a second side , a plurality of teeth running parallel to the longitudinal axis and disposed on the first side and the second side of the load beam , wherein the load beam comprises a top surface ; and characterised by : first, second and third cooling passages passing through the load beam from the base to the top surface ; first, second, third and fourth rails (204;217,218) extending below the base and running across the base of the load beam between the first side and the second side , wherein the first cooling passage is disposed between the first and second rails (204;217,218), the second cooling passage is disposed between the second and third rails (204;217,218) and the third cooling passage is disposed between the third and fourth rails (204;217,218). a load beam having a longitudinal axis , a base , a first side , and a second side , a plurality of teeth running parallel to the longitudinal axis and disposed on the first side and the second side of the load beam , wherein the load beam comprises a top surface ; and characterised by : first, second and third cooling passages passing through the load beam from the base to the top surface ; first, second, third and fourth rails (204;217,218) extending below the base and running across the base of the load beam between the first side and the second side , wherein the first cooling passage is disposed between the first and second rails (204;217,218), the second cooling passage is disposed between the second and third rails (204;217,218) and the third cooling passage is disposed between the third and fourth rails (204;217,218). first, second and third cooling passages passing through the load beam from the base to the top surface ; first, second, third and fourth rails (204;217,218) extending below the base and running across the base of the load beam between the first side and the second side , wherein the first cooling passage is disposed between the first and second rails (204;217,218), the second cooling passage is disposed between the second and third rails (204;217,218) and the third cooling passage is disposed between the third and fourth rails (204;217,218).
A conductive film comprising at least one conductive layer, comprising an arrangement of electrically conductive metal nanowires, the nanowires having an average aspect-ratio of at least 100,000, 70% or 80% or 90% or 95% or 99% of said nanowires being arranged in one or more clusters, wherein each cluster comprising two or more nanowires oriented parallel to each other along the same axis, wherein the inter-wire spacing within the cluster is less than 20 nm.
A system configured to display a neuromarker , comprising: a receiver configured to receive a signal associated with neuronal activity of a patient's brain; a processor configured to process the signal using a non-linear algorithm to extract a signal feature and determine a neuromarker based on an association between the signal feature and a library of features; a storage system configured to store the library of features, wherein the library includes a plurality of signal features correlated with a plurality of disease states; a display system configured to display a representation of the neuromarker ; characterized in that the processor is further configured to classify the neuromarker based on a Linear Discriminant Analysis "LDA" employing a two category classifier to assign a discriminant score to the neuromarker , the discriminant score indicating the likelihood of a disease state being associated with the neuromarker ; and the discriminant score S A associated with a state A is calculated using a Fisher LDA formula S A = 100 . G 1 G 1 + G 2 G 1 = e Z . W A + C A , G 2 = e Z . W B + C B where Z denotes a set of age-regressed and z-transformed features computed for the patient; W A and W B denote two weight vectors derived from a reference database, and C A and C B are bias constants. a receiver configured to receive a signal associated with neuronal activity of a patient's brain; a processor configured to process the signal using a non-linear algorithm to extract a signal feature and determine a neuromarker based on an association between the signal feature and a library of features; a storage system configured to store the library of features, wherein the library includes a plurality of signal features correlated with a plurality of disease states; a display system configured to display a representation of the neuromarker ; characterized in that the processor is further configured to classify the neuromarker based on a Linear Discriminant Analysis "LDA" employing a two category classifier to assign a discriminant score to the neuromarker , the discriminant score indicating the likelihood of a disease state being associated with the neuromarker ; and the discriminant score S A associated with a state A is calculated using a Fisher LDA formula S A = 100 . G 1 G 1 + G 2 G 1 = e Z . W A + C A , G 2 = e Z . W B + C B where Z denotes a set of age-regressed and z-transformed features computed for the patient; W A and W B denote two weight vectors derived from a reference database, and C A and C B are bias constants.
A computer-implemented method , comprising: determining , by computer calculation, a plurality of average compressibility values of a fractured rock in a wellbore from a depth of interest, wherein each of the plurality of average compressibility values is determined according to a different average scheme; for each of the plurality of average compressibility values, determining , by computer calculation, a set of effective stresses' values based on that average compressibility value; for each determined set of stresses values, determining , by computer calculation, a set of mud weight window values based on the set of stresses values; and adjusting mud weight for the wellbore to be within the determined set of mud weight window values. determining , by computer calculation, a plurality of average compressibility values of a fractured rock in a wellbore from a depth of interest, wherein each of the plurality of average compressibility values is determined according to a different average scheme; for each of the plurality of average compressibility values, determining , by computer calculation, a set of effective stresses' values based on that average compressibility value; for each determined set of stresses values, determining , by computer calculation, a set of mud weight window values based on the set of stresses values; and adjusting mud weight for the wellbore to be within the determined set of mud weight window values.
Method for detecting a modification of a subroutine call stack, comprising the following steps for each subroutine of a series of subroutines nested in an initial subroutine: • when calling a current subroutine, placing a return address at the top of the stack; and • at the end of the current subroutine, using the address at the top of the stack as the return address, and removing the address from the stack; characterized in that the method comprises the following steps: • assigning a single memory location (REG) to the series of subroutines; • saving an initial value of the memory location before calling the initial subroutine; • when calling the current subroutine, accumulating the return address in the memory location (REG) according to a first operation (OP); • at the end of the current subroutine, accumulating the address from the top of the stack in the memory location according to a second operation which is reciprocal of the first operation; and • on returning from the initial subroutine, detecting a modification when the contents of the memory location differ from the initial value. • when calling a current subroutine, placing a return address at the top of the stack; and • at the end of the current subroutine, using the address at the top of the stack as the return address, and removing the address from the stack; • assigning a single memory location (REG) to the series of subroutines; • saving an initial value of the memory location before calling the initial subroutine; • when calling the current subroutine, accumulating the return address in the memory location (REG) according to a first operation (OP); • at the end of the current subroutine, accumulating the address from the top of the stack in the memory location according to a second operation which is reciprocal of the first operation; and • on returning from the initial subroutine, detecting a modification when the contents of the memory location differ from the initial value.
A payment device comprising: an integrated power source including a piezoelectric accelerometer; a processor in communication with the integrated power source, a memory in communication with the processor, the memory storing instructions that configure the processor to activate payment functions of the payment device; and an input/output circuit in communication with the processor; characterized in that kinetic energy translated to the payment device also translates to the piezoelectric accelerometer to cause the integrated power source to power the processor, memory, and input/output circuit and activate the payment functions of the payment device, wherein the instructions configure the processor to: (i) determine a pattern of kinetic energy translated to the piezoelectric accelerometer; (ii) determine that the pattern matches a passcode motion stored in the memory; and (iii) activate the payment functions of the payment device in response to the pattern matching the passcode motion. an integrated power source including a piezoelectric accelerometer; a processor in communication with the integrated power source, a memory in communication with the processor, the memory storing instructions that configure the processor to activate payment functions of the payment device; and an input/output circuit in communication with the processor; characterized in that kinetic energy translated to the payment device also translates to the piezoelectric accelerometer to cause the integrated power source to power the processor, memory, and input/output circuit and activate the payment functions of the payment device, wherein the instructions configure the processor to: (i) determine a pattern of kinetic energy translated to the piezoelectric accelerometer; (ii) determine that the pattern matches a passcode motion stored in the memory; and (iii) activate the payment functions of the payment device in response to the pattern matching the passcode motion. (i) determine a pattern of kinetic energy translated to the piezoelectric accelerometer; (ii) determine that the pattern matches a passcode motion stored in the memory; and (iii) activate the payment functions of the payment device in response to the pattern matching the passcode motion.
One- or multilayered film, wherein the film (1;2;11) comprises two outer layers and at least one inner layer that contains at least one thermoplastic olefin homo or co-polymer selected from the group consisting of poly ethylene, in particular LDPE or HDPE, polypropylene, polybutylene, polyisobutylene or mixtures of at least two of the said polymers and at least one polyester, characterized in that the at least one polyester in the inner layer is amorphous, in particular in the form of amorphous polyethylene terephthalate (A-PET), and that in one or both of the outer layers either polyester alone or a mixture of polyester and polyolefin is present.
A planter row unit , comprising: a frame ; a furrow opener mounted to the frame to open a furrow; a seed delivery mechanism mounted to the frame to deposit seed into the furrow; a furrow shaper mounted to the frame and positioned relative to the furrow opener and the seed delivery mechanism to shape the furrow, opened by the furrow opener, ahead of seed deposited into the furrow by the seed delivery mechanism relative to a planting direction of travel of the planter row unit; and a sensor mounted to the furrow shaper and configured to detect a parameter related to seed planting; wherein the furrow shaper comprises a foot profiled to shape the furrow, and the sensor is mounted to the foot; and wherein the foot comprises a cavity, and the sensor is enclosed within the cavity by the foot. a frame ; a furrow opener mounted to the frame to open a furrow; a seed delivery mechanism mounted to the frame to deposit seed into the furrow; a furrow shaper mounted to the frame and positioned relative to the furrow opener and the seed delivery mechanism to shape the furrow, opened by the furrow opener, ahead of seed deposited into the furrow by the seed delivery mechanism relative to a planting direction of travel of the planter row unit; and a sensor mounted to the furrow shaper and configured to detect a parameter related to seed planting; wherein the furrow shaper comprises a foot profiled to shape the furrow, and the sensor is mounted to the foot; and wherein the foot comprises a cavity, and the sensor is enclosed within the cavity by the foot.
Filter device having a filter head and having a filter bowl to receive a replaceable filter element , characterised in that a compensating device is provided, acting between the filter head and the filter element , said compensating device, as part of the filter element , comprising two shell parts , of which one shell part is fixed to the filter element in a stationary manner and the other shell part is guided movably opposite thereto, and in that one of the two shell parts comprises a through opening to guide a fluid flow.
A method of manufacturing electrochemical cell stacks of different sizes or configurations, comprising: assembling a first planar frame module having a first planar size and configuration from a first inventory of parts comprising planar modular parts having mating surfaces along connectable ends thereof, including connecting the planar modular parts together in a co-planar configuration to form the first planar frame module having the first size and configuration; assembling the first planar frame module in a first electrochemical stack comprising a plurality of planar modules to form the electrochemical stack corresponding to said first planar size and configuration; identifying a second inventory of parts including planar modular parts in common with the first inventory, and assembling from the second inventory a second planar frame module having a different planar size or configuration than the first planar frame module; and assembling the second planar frame module in a second electrochemical stack comprising a plurality of planar modules to form the second electrochemical stack corresponding to said second planar size or configuration. assembling a first planar frame module having a first planar size and configuration from a first inventory of parts comprising planar modular parts having mating surfaces along connectable ends thereof, including connecting the planar modular parts together in a co-planar configuration to form the first planar frame module having the first size and configuration; assembling the first planar frame module in a first electrochemical stack comprising a plurality of planar modules to form the electrochemical stack corresponding to said first planar size and configuration; identifying a second inventory of parts including planar modular parts in common with the first inventory, and assembling from the second inventory a second planar frame module having a different planar size or configuration than the first planar frame module; and assembling the second planar frame module in a second electrochemical stack comprising a plurality of planar modules to form the second electrochemical stack corresponding to said second planar size or configuration.