mhurhangee/ep-ind-claims huggingface dataset:
Method for improving the EMC robustness of Integrated Capacitive Sensor systems with a sensor Signal-Conditioner, having an external capacitor (a) representing the physical quantity to be sensed, connected with a capacitive integrating converter (b) to convert this capacity into a bit stream and an oscillator (g) providing sampling frequency for the capacitive integrating converter and a counter (d) connected with the capacitive integrating converter, whereby a controller (e) is connected with the counter which collects the bit stream and calculates the digital representative of the physical input which is then stored in an output register, comprising the steps of - performing conversions with different sampling frequencies (f A, f B) from the oscillator or a frequency divider (c) by the capacitive Sensor Signal-Conditioner; - storing the results of the samplings and using the results in the following cycle to calculate for each sampling frequency a difference to the prior sampling of the same frequency; and - calculating the digital representative of the input signal from the external sensing capacitor as the weighted average of the samplings of the different frequencies, wherein for each sampling frequency the difference of the last two subsequent measurements minus a minimum of the differences is used for calculating the digital representative of the input signal. - performing conversions with different sampling frequencies (f A, f B) from the oscillator or a frequency divider (c) by the capacitive Sensor Signal-Conditioner; - storing the results of the samplings and using the results in the following cycle to calculate for each sampling frequency a difference to the prior sampling of the same frequency; and - calculating the digital representative of the input signal from the external sensing capacitor as the weighted average of the samplings of the different frequencies, wherein for each sampling frequency the difference of the last two subsequent measurements minus a minimum of the differences is used for calculating the digital representative of the input signal.
A coating layer comprising a reaction product of a diisocyanate compound (a) selected from the group consisting of aromatic diisocyanates, aliphatic diisocyanates, and alicyclic diisocyanates, a polyol (b), and a copolymer (c) having a functional group selected from the group consisting of carboxylic acid groups, carboxylic acid ester groups, and carboxylic acid anhydride groups, wherein the components (a) to (c) are reacted at a temperature of 10 to 85°C, the component (c) is a copolymer containing a maleic anhydride unit having a maleic anhydride group, and in the component (c), at least a part of the carboxylic acid ester group and the carboxylic acid anhydride group is converted into the carboxylic acid group.
A method for audibly detecting a fluid flow state change and correcting a measurement of a flow meter in a flow meter pipeline comprising: placing at least one acoustic sensor in the pipeline coupled to the flow meter; collecting audible data from a flowing fluid in the pipeline using the acoustic sensor; detecting a flow state change in the flowing fluid by comparing audible data from a first flowing fluid pattern to audible data from a second flowing fluid pattern; indicating the flow state change between the first flowing fluid pattern and the second flowing fluid pattern; and correcting a measurement of the flow meter based on the flow state change. placing at least one acoustic sensor in the pipeline coupled to the flow meter; collecting audible data from a flowing fluid in the pipeline using the acoustic sensor; detecting a flow state change in the flowing fluid by comparing audible data from a first flowing fluid pattern to audible data from a second flowing fluid pattern; indicating the flow state change between the first flowing fluid pattern and the second flowing fluid pattern; and correcting a measurement of the flow meter based on the flow state change.
A vehicle periphery monitoring apparatus (10, 210) for detecting a monitored target (110, 160) in the periphery of a vehicle based on a captured image signal generated by an image capturing device (16R, 16L) mounted on the vehicle, comprising: a first display unit that displays a captured image (72, 134, 262, 270, 272, 272a, 272b) represented by the captured image signal; and a second display unit that visualizes information concerning whether or not the monitored target (110, 160) exists in a plurality of sub-regions (90R, 90C, 90L, 154R, 154C, 154L, 274, 276, 278), which make up the captured image (72, 134, 262, 270, 272, 272a, 272b) displayed on the first display unit, based on whether or not marks (86, 136, 157, 290, 292, 294) associated respectively with the sub-regions (90R, 90C, 90L, 154R, 154C, 154L, 274, 276, 278) are displayed; characterized by an attention degree evaluator (44, 250) that evaluates a degree of attention of the monitored target (110, 160) for the vehicle, if at least one instance of the monitored target (110, 160) is detected in the captured image (72, 134, 262, 270, 272, 272a, 272b), wherein the second display unit displays the marks (86, 136, 157, 290, 292, 294) in different display modes depending on the degree of attention evaluated by the attention degree evaluator (44, 250). a first display unit that displays a captured image (72, 134, 262, 270, 272, 272a, 272b) represented by the captured image signal; and a second display unit that visualizes information concerning whether or not the monitored target (110, 160) exists in a plurality of sub-regions (90R, 90C, 90L, 154R, 154C, 154L, 274, 276, 278), which make up the captured image (72, 134, 262, 270, 272, 272a, 272b) displayed on the first display unit, based on whether or not marks (86, 136, 157, 290, 292, 294) associated respectively with the sub-regions (90R, 90C, 90L, 154R, 154C, 154L, 274, 276, 278) are displayed; characterized by an attention degree evaluator (44, 250) that evaluates a degree of attention of the monitored target (110, 160) for the vehicle, if at least one instance of the monitored target (110, 160) is detected in the captured image (72, 134, 262, 270, 272, 272a, 272b), wherein the second display unit displays the marks (86, 136, 157, 290, 292, 294) in different display modes depending on the degree of attention evaluated by the attention degree evaluator (44, 250).
A pneumatic tire comprising: a tread portion, a pair of sidewall portions, a pair of bead portions each with a bead core embedded therein, a carcass ply extending between the bead portions through the tread portion and the sidewall portions, and turned up around the bead core from the inside to the outside of the tire in each of the bead portions, so as to form a pair of turnup portions and a main portion therebetween, and a first apex rubber and a second apex rubber disposed in each of the bead portions, wherein the first apex rubber is disposed between the turnup portion and the main portion, the second apex rubber is disposed axially outside the turnup portion, and a complex elastic modulus E*b of the second apex rubber is larger than a complex elastic modulus E*a of the first apex rubber, when the complex elastic modulus E* is measured according to Japanese Industrial Standard K6394, using a viscoelasticity spectrometer in the tensile deformation mode under the following conditions: initial strain of 10%, amplitude of +/-2%, frequency of 10 Hz, and temperature of 70 degrees c, wherein a cross-sectional width wt in mm of the tire measured at the maximum tire section width position and an outer diameter Dt in mm measured at the equator of the tire satisfy the following conditions and Dt = < 59.078 × Wt 0.498 Dt > = 59.078 × Wt 0.460 a tread portion, a pair of sidewall portions, a pair of bead portions each with a bead core embedded therein, a carcass ply extending between the bead portions through the tread portion and the sidewall portions, and turned up around the bead core from the inside to the outside of the tire in each of the bead portions, so as to form a pair of turnup portions and a main portion therebetween, and a first apex rubber and a second apex rubber disposed in each of the bead portions, wherein the first apex rubber is disposed between the turnup portion and the main portion, the second apex rubber is disposed axially outside the turnup portion, and a complex elastic modulus E*b of the second apex rubber is larger than a complex elastic modulus E*a of the first apex rubber, when the complex elastic modulus E* is measured according to Japanese Industrial Standard K6394, using a viscoelasticity spectrometer in the tensile deformation mode under the following conditions: initial strain of 10%, amplitude of +/-2%, frequency of 10 Hz, and temperature of 70 degrees c, wherein a cross-sectional width wt in mm of the tire measured at the maximum tire section width position and an outer diameter Dt in mm measured at the equator of the tire satisfy the following conditions and Dt = < 59.078 × Wt 0.498 Dt > = 59.078 × Wt 0.460
A method for data communication in a hierarchically structured network comprising at least two lower level entities (2a, 2b; 3a1, 3a2, 3b1, 3b2) on a lower level, at least one higher level entity (3a, 3b; 4a, 4b) on a higher level, wherein each higher level entity (3a, 3b; 4a, 4b) provides lowlink connections (C2a, C2b; C2a1, C2a2, C2b1, C2b2) to each of the lower level entities (2a, 2b; 3a1, 3a2, 3b1, 3b2) and highlink connections (C3a, C3b; C3a, C3b) to at least one further high level entity (5,6) wherein a lower level entity (2a, 2b; 3a1, 3a2, 3b1, 3b2), the higher level entity (3a, 3b; 4a, 4b) connected to the said low level entity (2a, 2b; 3a1, 3a2, 3b1, 3b2) and the high level entity (5,6) connected to said higher level entity (3a, 3b; 4a, 4b) defines a connection branch, comprising the steps a) Determining communication capabilities of the lowlink and highlink connections (C2a, C2b; C2a1, C2a2, C2b1, C2b2; C3a, C3b; C3a, C3b) in each connection branch by inspecting network layer protocol headers for network congestion notification information, b) Providing communication capability information according to the determined communication capabilities to the lower level entities (2a, 2b; 3a1, 3a2, 3b1, 3b2) c) Determining the connection in each connection branch having the lower one of the data communication capability, and d) Adapting the data communication capabilities of the connections in each connection branch according to the determined lower data communication capability. a) Determining communication capabilities of the lowlink and highlink connections (C2a, C2b; C2a1, C2a2, C2b1, C2b2; C3a, C3b; C3a, C3b) in each connection branch by inspecting network layer protocol headers for network congestion notification information, b) Providing communication capability information according to the determined communication capabilities to the lower level entities (2a, 2b; 3a1, 3a2, 3b1, 3b2) c) Determining the connection in each connection branch having the lower one of the data communication capability, and d) Adapting the data communication capabilities of the connections in each connection branch according to the determined lower data communication capability.
Method for spectral colour density measurement in colour printing, - in which a spectrally resolved reference reflectance is measured for an unprinted substrate using a spatially resolved spectral measurement system, preferably at a large number of measurement points, - in which at least one colour measuring field, preferably a plurality of colour measuring fields, is printed with at least one printing ink using a colour printer, - in which the spectrally resolved reflectance for at least one colour measurement field is measured with the spatially resolved spectral measurement system at a large number of measurement points, - wherein the at least one colour measuring field is measured in a raster at a large number of measuring points with a resolution of at least 30 dpi and - wherein at least 80% of the area of the at least one colour measurement field is measured, and - in which the colour density for the printing ink is calculated for each measuring point from the spectral distribution of the measured reflectance, the measured reference reflectance and a spectral weight function representing the printing ink. - in which a spectrally resolved reference reflectance is measured for an unprinted substrate using a spatially resolved spectral measurement system, preferably at a large number of measurement points, - in which at least one colour measuring field, preferably a plurality of colour measuring fields, is printed with at least one printing ink using a colour printer, - in which the spectrally resolved reflectance for at least one colour measurement field is measured with the spatially resolved spectral measurement system at a large number of measurement points, - wherein the at least one colour measuring field is measured in a raster at a large number of measuring points with a resolution of at least 30 dpi and - wherein at least 80% of the area of the at least one colour measurement field is measured, and - wherein the at least one colour measuring field is measured in a raster at a large number of measuring points with a resolution of at least 30 dpi and - wherein at least 80% of the area of the at least one colour measurement field is measured, - in which the colour density for the printing ink is calculated for each measuring point from the spectral distribution of the measured reflectance, the measured reference reflectance and a spectral weight function representing the printing ink.
An adapter assembly comprising: an adapter comprising an outlet, wherein the adapter is so constructed and arranged to provide a functional feature and comprises a body portion that is so constructed and arranged to accept at least a portion of a fitment on a package; wherein the adapter comprises a valve component comprising a body defining an interior and having the outlet of the adapter, a connector and a rotatable flow-control device, the connector being configured to connect the adapter to the fitment, characterized in that the flow-control device comprises a cylinder having an axis of rotation that is perpendicular to an axis of rotation of the valve component, wherein the cylinder comprises a hole extending through the cylinder in a direction that is parallel to a diameter of the cylinder, wherein the hole is so constructed and arranged to wholly or partially align with the interior of the body of the valve component depending on the rotation of the flow-control device, and wherein the adapter assembly further comprises a cap that is so constructed and arranged to attach to the adapter to close the outlet. an adapter comprising an outlet, wherein the adapter is so constructed and arranged to provide a functional feature and comprises a body portion that is so constructed and arranged to accept at least a portion of a fitment on a package; wherein the adapter comprises a valve component comprising a body defining an interior and having the outlet of the adapter, a connector and a rotatable flow-control device, the connector being configured to connect the adapter to the fitment, characterized in that the flow-control device comprises a cylinder having an axis of rotation that is perpendicular to an axis of rotation of the valve component, wherein the cylinder comprises a hole extending through the cylinder in a direction that is parallel to a diameter of the cylinder, wherein the hole is so constructed and arranged to wholly or partially align with the interior of the body of the valve component depending on the rotation of the flow-control device, and wherein the adapter assembly further comprises a cap that is so constructed and arranged to attach to the adapter to close the outlet.
Switch circuitry for controlling power supplied to a fluid monitoring unit, the switch circuitry comprising: a sensor configured to detect fluid derived from the skin of a user and to generate a detection signal in accordance with detection of fluid; and a controller configured to receive the detection signal, characterized in that the controller is further configured to generate a wake-up signal in accordance with the detection signal, and to supply the wake-up signal to a switch controlling the power supply to the fluid monitoring unit so as to activate the switch and wake the fluid monitoring unit, wherein optionally, the fluid is sweat; and the sensor is configured to: detect a first amount of fluid at a first time point; detect a second amount of the fluid at a second time point occurring after the first time point; calculate a difference between the first amount of fluid and the second amount of fluid; and generate the detection signal when the difference between the first amount of fluid and the second amount of fluid exceeds a predetermined threshold. a sensor configured to detect fluid derived from the skin of a user and to generate a detection signal in accordance with detection of fluid; and a controller configured to receive the detection signal, characterized in that the controller is further configured to generate a wake-up signal in accordance with the detection signal, and to supply the wake-up signal to a switch controlling the power supply to the fluid monitoring unit so as to activate the switch and wake the fluid monitoring unit, wherein optionally, the fluid is sweat; and the sensor is configured to: detect a first amount of fluid at a first time point; detect a second amount of the fluid at a second time point occurring after the first time point; calculate a difference between the first amount of fluid and the second amount of fluid; and generate the detection signal when the difference between the first amount of fluid and the second amount of fluid exceeds a predetermined threshold. detect a first amount of fluid at a first time point; detect a second amount of the fluid at a second time point occurring after the first time point; calculate a difference between the first amount of fluid and the second amount of fluid; and generate the detection signal when the difference between the first amount of fluid and the second amount of fluid exceeds a predetermined threshold.
Articulation for an orthosis having an upper part and a foot stirrup, which are connected to one another via a swivel joint with an axis of rotation so as to be pivotable relative to one another, whereby it is possible for the foot stirrup to be acted upon dorsally and/or plantarly on both sides of the swivel joint by a spring-elastic functional element (20, 20', 20", 20'", 20"") accommodated in/from a receiving element (18, 18'), characterized in that the receiving element (18, 18') can be detachably fastened to the upper part via an attachment section of the receiving element (18, 18') extending from a dorsal side to a plantar side, and vice versa, transversely to a longitudinal axis of the upper part and comprises at least one, in particular two, receiving section(s) (50, 50') arranged on the attachment section for receiving the functional element(s) (20, 20', 20", 20'", 20"") laterally of the upper part.
An apparatus, comprising: a memory device; and a host device coupled to the memory device, wherein the host device includes a host controller configured to: receive a memory device transaction identification, TID, record, wherein the memory device TID record includes transaction identifications, TIDs, (364, 366, 368); and determine a TID associated with a command by comparing a host TID record with the memory device TID record and identify a TID in the memory device TID record that is missing from the host TID record. a memory device; and a host device coupled to the memory device, wherein the host device includes a host controller configured to: receive a memory device transaction identification, TID, record, wherein the memory device TID record includes transaction identifications, TIDs, (364, 366, 368); and determine a TID associated with a command by comparing a host TID record with the memory device TID record and identify a TID in the memory device TID record that is missing from the host TID record. receive a memory device transaction identification, TID, record, wherein the memory device TID record includes transaction identifications, TIDs, (364, 366, 368); and determine a TID associated with a command by comparing a host TID record with the memory device TID record and identify a TID in the memory device TID record that is missing from the host TID record.
A method (100, 500) implemented by a mobile computing device (12, 300) to authenticate a user account, by: detecting (102, 502) a first signal (180, 580) indicative of a body tremor of a limb holding the mobile computing device (12, 300); detecting (104, 504) a second signal (182, 582) indicative of a body tremor of a limb to which a separate wearable computing device is secured, wherein detecting the second signal comprises obtaining the second signal from the wearable computing device; determining (106, 506), based on an analysis of the first and second signals, whether the limbs are the same limb; and authenticating (108, 508) the user account associated with the wearable computing device based on the determining indicating that the limbs are the same limb. detecting (102, 502) a first signal (180, 580) indicative of a body tremor of a limb holding the mobile computing device (12, 300); detecting (104, 504) a second signal (182, 582) indicative of a body tremor of a limb to which a separate wearable computing device is secured, wherein detecting the second signal comprises obtaining the second signal from the wearable computing device; determining (106, 506), based on an analysis of the first and second signals, whether the limbs are the same limb; and authenticating (108, 508) the user account associated with the wearable computing device based on the determining indicating that the limbs are the same limb.