mhurhangee/ep-ind-claims huggingface dataset:
A method of using a processor (14, 654, 954, 1904) to process breathing signals of a subject, comprising: obtaining breathing signals of a subject; determining a signal-phase histogram using the breathing signals, wherein the signal-phase histogram comprises a plurality of data points, each of the data points having at least a phase value and a signal value; obtaining a current signal value that is associated with a current time instant in a respiratory cycle; obtaining a future phase value; and the method being characterized by: predicting a future signal value using the current signal value, the future phase value, and the signal-phase histogram; wherein the act of predicting the future signal value comprises: determining a first reference value using at least some of the data points in the histogram that correspond with a current phase value; determining a difference between the current signal value and the first reference value; determining a second reference value using at least some of the data points in the histogram that correspond with the future phase value; and adding the difference and the second reference value. obtaining breathing signals of a subject; determining a signal-phase histogram using the breathing signals, wherein the signal-phase histogram comprises a plurality of data points, each of the data points having at least a phase value and a signal value; obtaining a current signal value that is associated with a current time instant in a respiratory cycle; obtaining a future phase value; and the method being characterized by: predicting a future signal value using the current signal value, the future phase value, and the signal-phase histogram; wherein the act of predicting the future signal value comprises: determining a first reference value using at least some of the data points in the histogram that correspond with a current phase value; determining a difference between the current signal value and the first reference value; determining a second reference value using at least some of the data points in the histogram that correspond with the future phase value; and adding the difference and the second reference value. determining a first reference value using at least some of the data points in the histogram that correspond with a current phase value; determining a difference between the current signal value and the first reference value; determining a second reference value using at least some of the data points in the histogram that correspond with the future phase value; and adding the difference and the second reference value.
A polyester container obtained by stretch-forming a preform of a thermoplastic polyester resin formed by injection forming characterised in that: a central portion of a bottom wall is the remaining part of the gate at the time of injection forming, and is formed relatively thicker than a bottom wall portion surrounding the central portion; the central portion of the bottom wall is substantially amorphous, and the bottom wall portion surrounding the central portion is oriented and crystallized; the bottom wall other than the central portion has a crystallinity of not smaller than 15%; and the crystallinity is not less than 15% at a position 10mm away from the centre of the bottom. a central portion of a bottom wall is the remaining part of the gate at the time of injection forming, and is formed relatively thicker than a bottom wall portion surrounding the central portion; the central portion of the bottom wall is substantially amorphous, and the bottom wall portion surrounding the central portion is oriented and crystallized; the bottom wall other than the central portion has a crystallinity of not smaller than 15%; and the crystallinity is not less than 15% at a position 10mm away from the centre of the bottom.
A fabrication method (30, 40) for fabricating a filler body (1, 11, 21) of a blade (5, 15) for a rotor (9, 19), the method (30, 40) comprising a succession of steps (31, 32, 41, 42) of adding material layer by layer, each step (32, 42) consisting in making a new layer of material on a preceding layer of material made in the preceding step (31, 41), at least one of the steps (31, 32, 41, 42) consisting in making an openwork layer of material (2, 12, 22) presenting a plurality of openings, the succession of steps (31, 32, 41, 42) of adding material layer by layer generating openwork layers (2, 12, 22) of material, each having a closed outline (3, 13, 23), the respective closed outlines (3, 13, 23) of the openwork layers (2, 12, 22) of material touching mutually in pairs and forming a closed envelope (4, 14, 24) of the filler body (1, 11, 21) for the blade (5, 15), the succession of steps (31, 32, 41, 42) of adding material layer by layer generating openwork layers of material (2, 12, 22), each having a plurality of geometrical shapes (7, 17, 27) arranged within the closed outline (3, 13, 23) and allowing to define the plurality of openings of the openwork layer (2, 12, 22) of material, the pluralities of respective geometrical shapes (7, 17, 27) in the openwork layers of material (2, 12, 22) touching mutually in pairs, characterised in that the openwork layers of material form a cellular lattice (8, 18, 28) of closed cells arranged inside the closed envelope (4, 14, 24) of the filler body (1, 11, 21) of the blade (5, 15).
An insulated gate device (30, 90, 110) comprising a source connected to a source terminal (98, 122) a gate (34, 95, 114) connected to a gate terminal (94, 118) and input capacitance means providing input capacitance (C G) between the gate terminal and the source terminal, the input capacitance means comprising either a series capacitor between the gate (95, 114) and the gate terminal (94, 118) or an insulation layer having sufficient thickness (d ins) between the gate and a channel of the device such that as the device is switched between an off state and an on state, a ratio (C fiss /C iiss) between a final value of the input capacitance (C fiss) when the device is on and an initial value of the input capacitance (C iiss) when the device is off is 1<C fiss /C iiss <2.0.
A method for feeding back a hybrid automatic repeat request of downlink data, comprising: receiving, by a terminal, downlink data from a base station; and sending, by the terminal, a hybrid automatic repeat request, HARQ, feedback codebook to the base station, wherein a size of the HARQ feedback codebook is determined based on a state of a semi-persistent scheduling physical downlink shared channel, SPS PDSCH, transmission and a total downlink assignment indicator in the downlink data, wherein states of the SPS PDSCH transmission comprise an activated state and a deactivated state; and the HARQ feedback codebook comprises a HARQ bit for the SPS PDSCH transmission when the SPS PDSCH is in the activated state; wherein when the state of the SPS PDSCH transmission is the activated state, the size of the HARQ feedback codebook is equal to a size of a first codebook plus 1 bit; and the size of the first codebook is determined based on the total downlink assignment indicator. receiving, by a terminal, downlink data from a base station; and sending, by the terminal, a hybrid automatic repeat request, HARQ, feedback codebook to the base station, wherein a size of the HARQ feedback codebook is determined based on a state of a semi-persistent scheduling physical downlink shared channel, SPS PDSCH, transmission and a total downlink assignment indicator in the downlink data, wherein states of the SPS PDSCH transmission comprise an activated state and a deactivated state; and the HARQ feedback codebook comprises a HARQ bit for the SPS PDSCH transmission when the SPS PDSCH is in the activated state; wherein when the state of the SPS PDSCH transmission is the activated state, the size of the HARQ feedback codebook is equal to a size of a first codebook plus 1 bit; and the size of the first codebook is determined based on the total downlink assignment indicator.
A duct for a shielded wireway system, the duct comprising: a bottom wall; two solid sidewalls extending from the bottom wall; and a plurality of fingers extending from each of the solid sidewalls, characterized in that adjacent fingers are connected by a plurality of bridging components, wherein the bottom wall, the solid sidewalls, and at least a portion of the fingers, including the plurality of bridging components, are shielded. a bottom wall; two solid sidewalls extending from the bottom wall; and a plurality of fingers extending from each of the solid sidewalls, characterized in that adjacent fingers are connected by a plurality of bridging components, wherein the bottom wall, the solid sidewalls, and at least a portion of the fingers, including the plurality of bridging components, are shielded.
A hearing aid, comprising: a microphone configured to sense an environmental sound; and a processor including a sound classification module coupled to the microphone and configured to classify the sound by executing a classification algorithm, the processor configured to process the sound using an outcome of the classification of the sound for specified hearing assistance functions, the sound classification module using an environment classification scheme of two stages having classifiers chosen from classifiers that use a Hidden Markov Model or Gaussian Mixture Model, feature sets each specific to a chosen classifier of the classifiers, and features within each of the feature sets, the classifiers, feature sets, and number of the features within the each of the feature sets chosen based on evaluation of classification performance and associated computational cost. a microphone configured to sense an environmental sound; and a processor including a sound classification module coupled to the microphone and configured to classify the sound by executing a classification algorithm, the processor configured to process the sound using an outcome of the classification of the sound for specified hearing assistance functions, the sound classification module using an environment classification scheme of two stages having classifiers chosen from classifiers that use a Hidden Markov Model or Gaussian Mixture Model, feature sets each specific to a chosen classifier of the classifiers, and features within each of the feature sets, the classifiers, feature sets, and number of the features within the each of the feature sets chosen based on evaluation of classification performance and associated computational cost.
A method of forming a component for a round, wherein said component is a tracer projectile said method being characterised by comprising the step of causing said component to be drawn through at least one floating die.
Solar hotplate device comprising: - a parallelepiped device body; - at least one hotplate (8a, 8b) mounted on the body; - at least one solar panel; said solar panel being integrated to the device body, and the device body further comprising - a rechargeable battery therewithin; and - a voltage converter therewithin, preferably from 12 v to 220-230v, characterised in that said parallelepiped device body is essentially plane. - a parallelepiped device body; - at least one hotplate (8a, 8b) mounted on the body; - at least one solar panel; said solar panel being integrated to the device body, and the device body further comprising said solar panel being integrated to the device body, and the device body further comprising - a rechargeable battery therewithin; and - a voltage converter therewithin, preferably from 12 v to 220-230v, characterised in that said parallelepiped device body is essentially plane.
A printer system comprising: a controller configured to generate control signals; a printhead (101, 101-1) comprising: a plurality of ejection dies (105, 105-1, 105-5); a temperature sensor coupled to the plurality of ejection dies (105, 105-1, 105-5) configured to send temperature signals to the controller; and a heater coupled to the plurality of ejection dies (105, 105-1, 105-5) configured to apply heat to at least one ejection die (105, 105-1, 105-5) in the plurality of ejection dies (105, 105-1, 105-5) based on control signals from the controller; characterised in that the printer system further comprises and a density measurement component configured to detect density of a printing material deposited on a print media by the printhead (101, 101-1) and to provide data indicative of the detected density to the controller, wherein the controller is configured to provide the control signals to the heater based on the temperature signals and the detected density. a controller configured to generate control signals; a printhead (101, 101-1) comprising: a plurality of ejection dies (105, 105-1, 105-5); a temperature sensor coupled to the plurality of ejection dies (105, 105-1, 105-5) configured to send temperature signals to the controller; and a heater coupled to the plurality of ejection dies (105, 105-1, 105-5) configured to apply heat to at least one ejection die (105, 105-1, 105-5) in the plurality of ejection dies (105, 105-1, 105-5) based on control signals from the controller; characterised in that the printer system further comprises and a density measurement component configured to detect density of a printing material deposited on a print media by the printhead (101, 101-1) and to provide data indicative of the detected density to the controller, wherein the controller is configured to provide the control signals to the heater based on the temperature signals and the detected density. a plurality of ejection dies (105, 105-1, 105-5); a temperature sensor coupled to the plurality of ejection dies (105, 105-1, 105-5) configured to send temperature signals to the controller; and a heater coupled to the plurality of ejection dies (105, 105-1, 105-5) configured to apply heat to at least one ejection die (105, 105-1, 105-5) in the plurality of ejection dies (105, 105-1, 105-5) based on control signals from the controller; characterised in that the printer system further comprises and a density measurement component configured to detect density of a printing material deposited on a print media by the printhead (101, 101-1) and to provide data indicative of the detected density to the controller, wherein the controller is configured to provide the control signals to the heater based on the temperature signals and the detected density.
A method of creating secured computer code from original computer code by securing an interface between a first code domain and a second code domain of the original computer code, the first code domain including code in a first coding language and the second code domain including code in a second coding language, the first code domain being compiled separately from the second code domain, the method comprising: identifying a code method defined in the first code domain that is declared in the second code domain, the code method having a signature which includes initial parameters and returns; creating a corresponding code method in the second code domain that has a signature that corresponds to the signature of the code method, wherein at least one of the parameters of the corresponding code method are transformed and stored in an array as transformed parameters; creating a transformed code method in the first code domain, the transformed code method includes the transformed parameters, the transformed code method being called by the corresponding code method through the interface and having access to the array; and wherein the transformed code method is configured to call the method, receive the initial parameters, and return the transformed parameters as encoded parameters. identifying a code method defined in the first code domain that is declared in the second code domain, the code method having a signature which includes initial parameters and returns; creating a corresponding code method in the second code domain that has a signature that corresponds to the signature of the code method, wherein at least one of the parameters of the corresponding code method are transformed and stored in an array as transformed parameters; creating a transformed code method in the first code domain, the transformed code method includes the transformed parameters, the transformed code method being called by the corresponding code method through the interface and having access to the array; and wherein the transformed code method is configured to call the method, receive the initial parameters, and return the transformed parameters as encoded parameters.
Procedure designed to manufacture a pressure sensor, which has a measuring membrane and at least one counter-bearing, wherein the measuring membrane is positioned opposite the membrane bed of the counter-bearing and is connected in a fixed manner to the counter-bearing body, wherein the pressure sensor further comprises a converter to convert a pressure-dependent deformation of the measuring membrane to an electrical or optical signal, wherein the counter-bearing has a counter-bearing body with a membrane bed which has a contour to support a measuring membrane, wherein the contour essentially corresponds to the bending line of the measuring membrane, wherein the procedure comprises the following steps: - Provision of a counter-bearing body, which features silicon; - Removal of the silicon material from one surface of the counter-bearing body using laser ablation; - Oxidation of the surface treated with laser ablation; - Etching of treated and oxidized surface; - Positioning of the measuring membrane opposite the membrane bed of the counter-bearing; and - Connection of the measuring membrane with the counter-bearing body. - Provision of a counter-bearing body, which features silicon; - Removal of the silicon material from one surface of the counter-bearing body using laser ablation; - Oxidation of the surface treated with laser ablation; - Etching of treated and oxidized surface; - Positioning of the measuring membrane opposite the membrane bed of the counter-bearing; and - Connection of the measuring membrane with the counter-bearing body.
A sprocket (1, 60) comprising: a sprocket body (2, 61) having an outer periphery provided with: a plurality of teeth engaging with a roller chain; and tooth grooves each provided between the teeth adjacent to each other, each of the tooth grooves being fittable with a roller of the roller chain, and a plurality of elastic bodies (20, 30, 70) provided in the sprocket body (2, 61), to be contactable with the roller chain, wherein the sprocket body (2,61) is provided with through holes (5, 62) at positions apart from a center of the sprocket body (2, 61) at a certain distance to respectively correspond to circumferential positions of the tooth grooves, the through holes (5,62) penetrating the sprocket body (2, 61) in a plate-thickness direction, the elastic bodies (20, 30, 70) each have a pair of partially-circular shaped side plate portions (21A, 21B,31A, 31B, 71A, 71B) respectively provided in both side surfaces of the sprocket body (2, 61) to extend across the through holes (5, 62) adjacent to each other, and a plurality of connecting portions (22, 32, 72) respectively inserted in the through holes (5,62) adjacent each other to connect the pair of the side plate portions (21A, 21B,31A, 31B, 71A, 71B), and each of the elastic bodies (20, 30, 70) is divided into a pair of divided bodies (20A, 20B, 30A, 30B, 70A, 70B) at the connecting portions (22, 32, 72). a sprocket body (2, 61) having an outer periphery provided with: a plurality of teeth engaging with a roller chain; and tooth grooves each provided between the teeth adjacent to each other, each of the tooth grooves being fittable with a roller of the roller chain, and a plurality of elastic bodies (20, 30, 70) provided in the sprocket body (2, 61), to be contactable with the roller chain, wherein the sprocket body (2,61) is provided with through holes (5, 62) at positions apart from a center of the sprocket body (2, 61) at a certain distance to respectively correspond to circumferential positions of the tooth grooves, the through holes (5,62) penetrating the sprocket body (2, 61) in a plate-thickness direction, the elastic bodies (20, 30, 70) each have a pair of partially-circular shaped side plate portions (21A, 21B,31A, 31B, 71A, 71B) respectively provided in both side surfaces of the sprocket body (2, 61) to extend across the through holes (5, 62) adjacent to each other, and a plurality of connecting portions (22, 32, 72) respectively inserted in the through holes (5,62) adjacent each other to connect the pair of the side plate portions (21A, 21B,31A, 31B, 71A, 71B), and each of the elastic bodies (20, 30, 70) is divided into a pair of divided bodies (20A, 20B, 30A, 30B, 70A, 70B) at the connecting portions (22, 32, 72).
A method for producing hydroxypivalaldehyde comprising steps (i) to (iii) below in this order, step (i): a reaction step of reacting isobutyraldehyde with formaldehyde to obtain a reaction solution containing hydroxypivalaldehyde, step (ii): an extraction step of extracting the reaction solution with an aldehyde solvent represented by formula under basicity to obtain an extract containing hydroxypivalaldehyde, and step (iii): a distillation and collection step of distilling the extract and then collecting hydroxypivalaldehyde from a still residue, wherein R represents a saturated alkyl group having 3 or more and 7 or less carbon atoms, further wherein the distillation step of the step (iii) is a step of distilling the extract in the presence of water, and an amount of the water which is subjected to the distillation is 100 parts by mass or more and 2,000 parts by mass or less with respect to a total amount, 100 parts by mass, of isobutyraldehyde derived from a raw material and an aldehyde solvent represented by formula in the extract which is subjected to the distillation. step (i): a reaction step of reacting isobutyraldehyde with formaldehyde to obtain a reaction solution containing hydroxypivalaldehyde, step (ii): an extraction step of extracting the reaction solution with an aldehyde solvent represented by formula under basicity to obtain an extract containing hydroxypivalaldehyde, and step (iii): a distillation and collection step of distilling the extract and then collecting hydroxypivalaldehyde from a still residue, wherein R represents a saturated alkyl group having 3 or more and 7 or less carbon atoms, further wherein the distillation step of the step (iii) is a step of distilling the extract in the presence of water, and an amount of the water which is subjected to the distillation is 100 parts by mass or more and 2,000 parts by mass or less with respect to a total amount, 100 parts by mass, of isobutyraldehyde derived from a raw material and an aldehyde solvent represented by formula in the extract which is subjected to the distillation.
An oligomeric compound for use in a method of treating, preventing, or ameliorating neurodegenerative diseases by modulating the splicing of Ataxin 3 (ATXN3) pre-mRNA, comprising a modified oligonucleotide consisting of 20, 21, or 22 linked nucleosides, wherein the oligonucleotide has a nucleobase sequence comprising at least 20 contiguous nucleobases of SEQ ID NO: 4 or 5, wherein each nucleoside of the modified oligonucleotide comprises a 2'-O-methoxyethyl group.