mhurhangee/ep-ind-claims huggingface dataset:
A method of determining tire pressure of an aircraft tire (102, 104), the method comprising: obtaining a first set and a second set of tire measurement data for an aircraft, wherein the second set is from a time before the first set, wherein the first set and the second set of tire measurement data include tire pressure data; and determining a steady-state tire pressure based on the first and second sets of measurement data, characterised in that: the first set of tire measurement data is from a start of a flight cycle, wherein the start of the flight cycle is a time at which the aircraft first starts moving from stationary on departure from an airport; the second set of measurement data is from a time between 10 and 30 minutes before the first set of measurement data; and the determining the steady-state tire pressure based on the first and second sets of measurement data comprises determining the steady-state tire pressure based on an exponential decay with a predetermined time constant. obtaining a first set and a second set of tire measurement data for an aircraft, wherein the second set is from a time before the first set, wherein the first set and the second set of tire measurement data include tire pressure data; and determining a steady-state tire pressure based on the first and second sets of measurement data, characterised in that: the first set of tire measurement data is from a start of a flight cycle, wherein the start of the flight cycle is a time at which the aircraft first starts moving from stationary on departure from an airport; the second set of measurement data is from a time between 10 and 30 minutes before the first set of measurement data; and the determining the steady-state tire pressure based on the first and second sets of measurement data comprises determining the steady-state tire pressure based on an exponential decay with a predetermined time constant. the first set of tire measurement data is from a start of a flight cycle, wherein the start of the flight cycle is a time at which the aircraft first starts moving from stationary on departure from an airport; the second set of measurement data is from a time between 10 and 30 minutes before the first set of measurement data; and the determining the steady-state tire pressure based on the first and second sets of measurement data comprises determining the steady-state tire pressure based on an exponential decay with a predetermined time constant.
A cosmetic or pharmaceutical composition comprising A) at least one isoalkane mixture, which has a chemical shift δ in the 1 H-NMR spectrum in the range of 0.6 to 1.0 ppm, based on tetramethylsilane, and has an area integral of 25 to 70%, based on the total area integral, which comprises at least 70% by weight alkanes having 8 to 20 carbon atoms, obtained by a method in which a) a C 4 -hydrocarbon mixture is provided comprising less than 3% by weight isobutene, b) the hydrocarbon feed material is subjected to an oligomerization over a transition metal-containing catalyst, c) the oligomerization product obtained in step b) is completely hydrogenated, B) at least one cosmetically or pharmaceutically acceptable active ingredient or effect ingredient, C) optionally at least one further cosmetically or pharmaceutically acceptable auxiliary different from B). A) at least one isoalkane mixture, which has a chemical shift δ in the 1 H-NMR spectrum in the range of 0.6 to 1.0 ppm, based on tetramethylsilane, and has an area integral of 25 to 70%, based on the total area integral, which comprises at least 70% by weight alkanes having 8 to 20 carbon atoms, obtained by a method in which a) a C 4 -hydrocarbon mixture is provided comprising less than 3% by weight isobutene, b) the hydrocarbon feed material is subjected to an oligomerization over a transition metal-containing catalyst, c) the oligomerization product obtained in step b) is completely hydrogenated, a) a C 4 -hydrocarbon mixture is provided comprising less than 3% by weight isobutene, b) the hydrocarbon feed material is subjected to an oligomerization over a transition metal-containing catalyst, c) the oligomerization product obtained in step b) is completely hydrogenated, B) at least one cosmetically or pharmaceutically acceptable active ingredient or effect ingredient, C) optionally at least one further cosmetically or pharmaceutically acceptable auxiliary different from B).
A method for information processing, applied to electronic device, wherein the electronic device includes a sensor unit, the sensor unit comprises a combination of a plurality of different types of sensors within the electronic device, the method comprises: obtaining, by the sensor unit, at least two different trigger operations on the different types of sensors; detecting whether each of the at least two different trigger operations meets a preset encryption condition by detecting whether there is an encryption operation in the encryption operation database matching each of the at least two different trigger operations in a preset period of time, and acquiring a detection result; determining target file data according to preset rules when the detection result is each of the at least two different trigger operations meeting the preset encryption conditions; and encrypting the target file data. obtaining, by the sensor unit, at least two different trigger operations on the different types of sensors; detecting whether each of the at least two different trigger operations meets a preset encryption condition by detecting whether there is an encryption operation in the encryption operation database matching each of the at least two different trigger operations in a preset period of time, and acquiring a detection result; determining target file data according to preset rules when the detection result is each of the at least two different trigger operations meeting the preset encryption conditions; and encrypting the target file data.
Gripper apparatus (10, 30, 40, 50, 60, 70, 80) for gripping and holding objects, comprising a mounting surface which is oriented to face an object which is to be gripped and an electroadhesive gripper device comprising at least one electroadhesive section (14,14') with at least one electrode for exercising an electroadhesive force on the object, wherein in order to make contact with the object which is to be gripped the electroadhesive section (14,14') projects beyond the mounting surface in the direction of the object which is to be gripped such that a spacing gap is formed adjoining the mounting surface and the electroadhesive section (14, 14') and the electroadhesive section (14, 14') is designed to be deformable such that on coming into contact with the object which is to be gripped it is adaptable in form thereto, characterised in that at least one other gripper device independent of the electroadhesion is provided which is arranged on a section of the mounting surface adjoining the spacing gap.
Fastening device for pivotably fastening a lid device to the container body of a waste collection container, comprising a first fastening element adapted to be fastened to the container body, in particular releasably, a second fastening element adapted to be fastened to the lid device, in particular releasably, or formed on the lid device, wherein the first fastening element and the second fastening element are pivotable relative to each other about a common pivot axis, further comprising the fastening device having a stopper device provided so as to be capable of stopping and fixing the pivotal movement of the first and second fastening elements (61, 79) relative to each other in at least one defined pivot position, in that the stopper device has, for this purpose, a first stopper element with a spring element, which is assigned to the first fastening element, and a second stopper element with an abutment element for the first stopper element, which is assigned to the second fastening element, which interact with each other in the defined pivot position, characterized in the second fastening element comprises at least one, preferably two, cam element(s), in that the first fastening element comprises at least one, preferably two, sliding surface(s), which correspond(s) with the at least one cam element, in such a way that the at least one cam element is capable, for initiating a pivoting movement due to the gravitational forces, to slide along the corresponding sliding surface.
An apparatus, comprising: first and second waveguides (110, 120) adapted to be connected to a pipe; and first and second transducers (105, 125) adapted to be connected to the first and second waveguides (110, 120), respectively, and to exchange ultrasonic wave signals through the first and second waveguides (110, 120), the pipe, and a fluid flowing in the pipe; wherein a temperature of the fluid flowing in the pipe exceeds about 600° C; characterised in that, when the first and second transducers (105, 125) are connected to the first and second waveguides (110, 120), respectively, and the first and second waveguides (110, 120) are connected to the pipe: the first and second waveguides (110, 120) are configured to, and each have a shape to: (i) insulate the first and second transducers (105, 125) from the pipe, and (ii) permit propagation of the ultrasonic wave signals between the pipe and the first and second transducers (105, 125), respectively, while maintaining an acoustic attenuation through the first and second waveguides (110, 120) at an acceptable level that is small enough to permit ultrasonic wave signals from one of the transducers (105, 125) to pass through the waveguides (110, 120) and be detected by the other of the transducers (105, 125), so that the ability of the first and second transducers (105, 125) to exchange the ultrasonic wave signals is not adversely affected by the temperature of the fluid flowing in the pipe. first and second waveguides (110, 120) adapted to be connected to a pipe; and first and second transducers (105, 125) adapted to be connected to the first and second waveguides (110, 120), respectively, and to exchange ultrasonic wave signals through the first and second waveguides (110, 120), the pipe, and a fluid flowing in the pipe; wherein a temperature of the fluid flowing in the pipe exceeds about 600° C; characterised in that, when the first and second transducers (105, 125) are connected to the first and second waveguides (110, 120), respectively, and the first and second waveguides (110, 120) are connected to the pipe: the first and second waveguides (110, 120) are configured to, and each have a shape to: (i) insulate the first and second transducers (105, 125) from the pipe, and (ii) permit propagation of the ultrasonic wave signals between the pipe and the first and second transducers (105, 125), respectively, while maintaining an acoustic attenuation through the first and second waveguides (110, 120) at an acceptable level that is small enough to permit ultrasonic wave signals from one of the transducers (105, 125) to pass through the waveguides (110, 120) and be detected by the other of the transducers (105, 125), so that the ability of the first and second transducers (105, 125) to exchange the ultrasonic wave signals is not adversely affected by the temperature of the fluid flowing in the pipe.
A dishwashing machine with a washtub and a front door to have access to the washtub, the front door having a width dimension and being hinged at a lower region thereof to a stationary structure of the machine, to be angularly displaceable about a substantially horizontal axis between a generally vertical position of closure and a generally horizontal position of opening, wherein the machine has a base having a width dimension, a height dimension and a length dimension, the base defining a housing for at least one movable support structure (20; 20') and having a front passage underneath the front door, the movable support structure (20; 20') being constrained to the base to be displaceable through the front passage and being capable to assume an inoperative position, in which the movable support structure (20; 20') is substantially inside of the housing, and an operative position, in which the movable support structure (20; 20') is at least partly outside the housing, characterised in that the base and the movable support structure (20; 20') are configured in such a way that, in its operative position, the movable support structure (20; 20') protrudes laterally beyond the width dimension of the base and beyond the width dimension of the front door, to be accessible by a user also when the front door of the dishwashing machine is in the respective substantially horizontal position of opening.
An assembly made up of an electric vehicle and a recharging system (11, 12) of a stationary conduction type for recharging said electric vehicle when it is stopped in a predetermined position allowing the energy capture from the recharging system, characterized in that the recharging system (11, 12) includes a power supply contact (21, 22), positioned on the ground and associated with a current return means, and a switching device (31, 32) able to bring the power supply contact to a supply voltage delivered by an electric power source to which the recharging system (11, 12) is connected, in that the electric vehicle includes a contact shoe (41, 42) electrically connected to an onboard energy storage means, the contact shoe being placed below a body of the electric vehicle and movable between a high position, away from the power supply contact, and a low position, in contact with the power supply contact, the electric vehicle including a control device (43, 44) able to command the movement of the contact shoe from the high position to the low position so that it is placed in contact with the power supply contact, only when the vehicle is stopped in said predetermined position, which is a energy capture position in which the footprint of the electric vehicle covers the power supply contact, and in that the assembly includes a two-way communication equipment between the recharging system (11, 12) and the electric vehicle, including a ground transceiver module connected to a ground antenna (38, 39) situated near the power supply contact (21, 22), and an onboard transceiver module connected to an onboard antenna (66, 67), supported by the contact shoe (41, 42), the ground transceiver device being able to transmit a first signal continuously over a significant range, the onboard transceiver module being able to detect the first signal in the high position and low position of the contact shoe (41, 42), the first signal, when it is received, indicating that the contact shoe is over a power supply contact, the onboard transceiver module being able to transmit a second signal over a reduced range, the ground transceiver module being able to detect the second signal only in the low position of the contact shoe (41, 42), the second signal, when it is received, indicating that the contact shoe is in contact with the power supply contact.
A nitride semiconductor wafer (110, 111, 112, 113, 114) comprising: a silicon substrate; a buffer section provided on the silicon substrate and including first to n-th buffer layers (BF1, BF2, BF3,..., BFn), n being an integer of 4 or more, containing nitride semiconductor, an i-th buffer layer (BFi), i being an integer of 1 or more and less than n, of the first to n-th buffer layers (BF1, BF2, BF3,..., BFn) having a lattice constant Wi in a first direction parallel to a major surface (BF1 a) of the first buffer layer, an (i+1)-th buffer layer (BF(i+1)) having a lattice constant W(i+1) in the first direction, provided on and in contact with the i-th buffer layer (BFi) and a functional layer provided on the buffer section and containing nitride semiconductor; characterised in that: in the first to n-th buffer layers (BF1, BF2, BF3,... BFn) the i-th buffer layer (BFi) and the (i+1)-th buffer layer (BF(i+1)) satisfy the relation 0.003 ≤ LMx ≤ 0.008; wherein LMx = (W(i+1)-Wi)/Wi is the experimental lattice mismatch between adjacent buffer layers BFi and BF(i+1). a silicon substrate; a buffer section provided on the silicon substrate and including first to n-th buffer layers (BF1, BF2, BF3,..., BFn), n being an integer of 4 or more, containing nitride semiconductor, an i-th buffer layer (BFi), i being an integer of 1 or more and less than n, of the first to n-th buffer layers (BF1, BF2, BF3,..., BFn) having a lattice constant Wi in a first direction parallel to a major surface (BF1 a) of the first buffer layer, an (i+1)-th buffer layer (BF(i+1)) having a lattice constant W(i+1) in the first direction, provided on and in contact with the i-th buffer layer (BFi) and a functional layer provided on the buffer section and containing nitride semiconductor; in the first to n-th buffer layers (BF1, BF2, BF3,... BFn) the i-th buffer layer (BFi) and the (i+1)-th buffer layer (BF(i+1)) satisfy the relation 0.003 ≤ LMx ≤ 0.008; wherein LMx = (W(i+1)-Wi)/Wi is the experimental lattice mismatch between adjacent buffer layers BFi and BF(i+1).
A sequence-based signal transmission method, comprising: determining, by a first terminal device, a first sequence based on a first parameter, a second parameter, and a third parameter, wherein the first sequence is determined based on the third parameter and a second sequence, the second sequence is determined based on the first parameter and the second parameter, the first parameter and the second parameter are root indexes of the second sequence, and the third parameter is a time domain cyclic shift value; and sending, by the first terminal device, a signal based on the first sequence, wherein an element in the second sequence, the first parameter, and the second parameter satisfy the following relationship: x u 1, u 2 n = αe j 2 π u 1 × n mod P − u 2 3 P + φ, wherein u 1 represents the first parameter; u 2 represents the second parameter; x u 1, u 2 ( n) represents an n th element in the second sequence; α is a non-zero complex number; φ is a real number; j represents a symbol of an imaginary number in a complex number; n mod P represents performing a modulo operation on n and P, wherein a value of n ranges from 0 to N -1, and N is a length of the first sequence; u 1 is a positive integer less than or equal to P -1; u 2 is a natural number less than or equal to P -1; and P is a prime number, wherein P is a minimum prime number greater than or equal to N, or P is a maximum prime number less than or equal to N, or P is a minimum prime number greater than or equal to 2 × N, or P is a maximum prime number less than or equal to 2 × N. determining, by a first terminal device, a first sequence based on a first parameter, a second parameter, and a third parameter, wherein the first sequence is determined based on the third parameter and a second sequence, the second sequence is determined based on the first parameter and the second parameter, the first parameter and the second parameter are root indexes of the second sequence, and the third parameter is a time domain cyclic shift value; and sending, by the first terminal device, a signal based on the first sequence, wherein an element in the second sequence, the first parameter, and the second parameter satisfy the following relationship: x u 1, u 2 n = αe j 2 π u 1 × n mod P − u 2 3 P + φ, wherein u 1 represents the first parameter; u 2 represents the second parameter; x u 1, u 2 ( n) represents an n th element in the second sequence; α is a non-zero complex number; φ is a real number; j represents a symbol of an imaginary number in a complex number; n mod P represents performing a modulo operation on n and P, wherein a value of n ranges from 0 to N -1, and N is a length of the first sequence; u 1 is a positive integer less than or equal to P -1; u 2 is a natural number less than or equal to P -1; and P is a prime number, wherein P is a minimum prime number greater than or equal to N, or P is a maximum prime number less than or equal to N, or P is a minimum prime number greater than or equal to 2 × N, or P is a maximum prime number less than or equal to 2 × N.
A fused cast refractory product comprising, in percentages by weight based on the oxides and for a total of 100% of the oxides: ZrO 2 + HfO 2: complement to 100% 4.5% < SiO 2 < 6.0% 0.80% ≤ Al 2 O 3 <1.10% 0.3% < B 2 O 3 < 1.5% Ta 2 O 5 + Nb 2 O 5 < 0.15% Na 2 O + K 2 O < 0.1% K 2 O < 0.04% CaO + SrO + MgO + ZnO + BaO < 0.4% P 2 O 5 < 0.05% Fe 2 O 3 + TiO 2 < 0.55% other oxide species: < 1.5%, the ratio "A/B" of the contents by weight Al 2 O 3 / B 2 O 3 being between 0.75 and 1.6.
An encoding apparatus comprising: a band split section that performs band split processing of a speech/audio input signal and provides a lower/middle band signal lower than a first frequency and a higher band signal equal to or higher than the first frequency; characterized by a lower band encoding section that provides a lower band signal by suppressing by low pass filtering a part equal to or higher than a second frequency in the lower/middle band signal, provides lower band encoded information by encoding the lower band signal, and outputs a middle band spectrum calculated in the encoding process of the lower band signal; a middle band correcting section that corrects the middle band spectrum by multiplying the middle band spectrum by an inverse value of a characteristic value of the low pass filtering in frequency domain and multiplying the middle band spectrum by a correction coefficient less than 1 to correct the middle band spectrum so as to provide a corrected middle band spectrum; and a middle/higher band encoding section that encodes the corrected middle band spectrum and the higher band signal, and provides middle/higher band encoded information. a band split section that performs band split processing of a speech/audio input signal and provides a lower/middle band signal lower than a first frequency and a higher band signal equal to or higher than the first frequency; characterized by a lower band encoding section that provides a lower band signal by suppressing by low pass filtering a part equal to or higher than a second frequency in the lower/middle band signal, provides lower band encoded information by encoding the lower band signal, and outputs a middle band spectrum calculated in the encoding process of the lower band signal; a middle band correcting section that corrects the middle band spectrum by multiplying the middle band spectrum by an inverse value of a characteristic value of the low pass filtering in frequency domain and multiplying the middle band spectrum by a correction coefficient less than 1 to correct the middle band spectrum so as to provide a corrected middle band spectrum; and a middle/higher band encoding section that encodes the corrected middle band spectrum and the higher band signal, and provides middle/higher band encoded information.
A process for manufacturing a tire tread molding element, the process comprising the steps of: providing a first tread molding element; forming a reverse tread molding element of the first tread molding element, wherein the reverse tread molding element is made of a first plastic composition comprising one or more elastomers; characterized in that the process further comprises: casting a second tread molding element from the reverse mold to obtain a second tread molding element; wherein the second tread molding element is made from a second plastic composition comprising one or more thermosetting resins. providing a first tread molding element; forming a reverse tread molding element of the first tread molding element, wherein the reverse tread molding element is made of a first plastic composition comprising one or more elastomers; characterized in that the process further comprises: casting a second tread molding element from the reverse mold to obtain a second tread molding element; wherein the second tread molding element is made from a second plastic composition comprising one or more thermosetting resins.