mhurhangee/ep-ind-claims huggingface dataset:
Debug access port circuitry (25, 25') comprising: a debug interface configured to receive commands from a debugger; a bus interface configured to couple to a bus to enable the debugger to access a memory system of a device, the device operating on data formed of data granules having associated metadata items, and the bus interface enabling communication of both the data granules and the metadata items over the bus between the memory system and the bus interface; a plurality of storage elements (55, 60, 65, 70, 250) accessible via the commands issued from the debugger, such that the accesses performed within the memory system via the bus interface are controlled in dependence on the storage elements accessed by the commands; at least one of the storage elements comprising a metadata storage element to store a plurality of metadata items; and wherein the debug access port circuitry is responsive to at least one command from the debugger to perform an access to the memory system in order to transfer at least one of the plurality of metadata items between the metadata storage element and the memory system. a debug interface configured to receive commands from a debugger; a bus interface configured to couple to a bus to enable the debugger to access a memory system of a device, the device operating on data formed of data granules having associated metadata items, and the bus interface enabling communication of both the data granules and the metadata items over the bus between the memory system and the bus interface; a plurality of storage elements (55, 60, 65, 70, 250) accessible via the commands issued from the debugger, such that the accesses performed within the memory system via the bus interface are controlled in dependence on the storage elements accessed by the commands; at least one of the storage elements comprising a metadata storage element to store a plurality of metadata items; and wherein the debug access port circuitry is responsive to at least one command from the debugger to perform an access to the memory system in order to transfer at least one of the plurality of metadata items between the metadata storage element and the memory system.
A pressure-resistant glass sphere obtained by joining a pair of glass-made hollow hemispherical bodies with each other at ground joint surfaces located on an equatorial plane of the pressure-resistant glass sphere so that the ground joint surfaces serve as a joining surface, wherein a thickness of a spherical shell of the glass-made hollow hemispherical bodies is thicker at an equatorial plane portion than a portion other than the equatorial plane portion, the equatorial plane portion having a predetermined width from the ground j oint surfaces.
Force-momentum sensor for detecting forces and momentums with a robotics unit, comprising a one-piece carrier body (1, 1a), which has a cylindrical basic shape and is provided with two mutually parallel connecting disks (2, 3; 2a, 3a) and at least three bridge elements (4, 4a) interconnecting the connecting disks (2, 3; 2a, 3a), with each bridge element having at least one measuring point assigned thereto, characterized in that the carrier body (1, 1b), in the vicinity of at least one connecting disk (2, 3; 2b, 3b), is provided with a support block (5a, 5b; 6b) on an interior side facing the other connecting disk (2, 3; 2b, 3b), to which support block at least one circuit board structure (13, 13b) provided with electronic components is fixed in an on-edge orientation such that the circuit board structure (13, 13b) is disposed orthogonal to the corresponding end faces of the connecting disks (2, 3; 2b, 3b).
A method of checking a wind turbine in a wind farm comprising a number of wind turbines (1-1 to 1-20) for a yaw misalignment implemented in a wind farm controller or in a remote data centre, characterised in that - the yaw angles of at least a subset of wind turbines of the wind farm are ascertained; - an average yaw angle is established from the ascertained yaw angles; - a yaw misalignment of the wind turbine to be checked is identified by a deviation of its yaw angle from the average yaw angle by more than a threshold value. - the yaw angles of at least a subset of wind turbines of the wind farm are ascertained; - an average yaw angle is established from the ascertained yaw angles; - a yaw misalignment of the wind turbine to be checked is identified by a deviation of its yaw angle from the average yaw angle by more than a threshold value.
A method (500, 600) for a first wireless device to reliably communicate information packets to a second wireless device in a wireless communication network employing a time-division multiple access protocol in which information is communicated in time slots arranged into time frames, the method comprising the steps of: transmitting (515, 615) a first information packet to the second wireless device over a first wireless communication channel, which has at least one time slot of a first time frame on a first carrier frequency; determining (519, 621) whether the first information packet was successfully received by the second wireless device; retransmitting (523, 627) the first information packet to the second wireless device over a second wireless communication channel, which has at least one time slot on a second carrier frequency, in the event that the first information packet was not successfully received by the second wireless device; and transmitting (525, 629) at least a second information packet to the second wireless device over the first wireless communication channel, wherein the first information packet and the second information packet form a sequence of information and the second information packet is next in the sequence, characterized in that the step of transmitting the second information packet comprises the steps of: transmitting the second information packet in at least one time slot over the first carrier frequency during a second time frame next to the first time frame, the second time frame being the same time frame in which the first information packet is retransmitted in at least one time slot over the second carrier frequency. transmitting (515, 615) a first information packet to the second wireless device over a first wireless communication channel, which has at least one time slot of a first time frame on a first carrier frequency; determining (519, 621) whether the first information packet was successfully received by the second wireless device; retransmitting (523, 627) the first information packet to the second wireless device over a second wireless communication channel, which has at least one time slot on a second carrier frequency, in the event that the first information packet was not successfully received by the second wireless device; and transmitting (525, 629) at least a second information packet to the second wireless device over the first wireless communication channel, wherein the first information packet and the second information packet form a sequence of information and the second information packet is next in the sequence, characterized in that the step of transmitting the second information packet comprises the steps of: transmitting the second information packet in at least one time slot over the first carrier frequency during a second time frame next to the first time frame, the second time frame being the same time frame in which the first information packet is retransmitted in at least one time slot over the second carrier frequency.
A method by a first terminal in a communication system, the method comprising: registering with a server by transmitting a registration message to the server; transmitting, in case that a first unidirectional service is triggered based on a sensor of the first terminal, a first service request message including information requesting the first unidirectional service to the server; receiving, from a second terminal (309, 409, 508, 609-809, 911-1211, 1307-1507, 1609, 1707), a response message to accept the first unidirectional service; transmitting, to the second terminal (309, 409, 508, 609-809, 911-1211, 1307-1507, 1609, 1707), an acknowledgement, ACK, message for the response message; and establishing a first media session for the first unidirectional service with the second terminal (309, 409, 508, 609-809, 911-1211, 1307-1507, 1609, 1707), the first media session being used only for the first terminal to transmit data, wherein the first service request message includes a service commencement mode indicating whether a first service request is to be accepted automatically or manually and at least one of an IP multimedia subsystem, IMS, communication service identifier, ICSI, and an IMS application reference identifier, IARI, indicating the first unidirectional service. registering with a server by transmitting a registration message to the server; transmitting, in case that a first unidirectional service is triggered based on a sensor of the first terminal, a first service request message including information requesting the first unidirectional service to the server; receiving, from a second terminal (309, 409, 508, 609-809, 911-1211, 1307-1507, 1609, 1707), a response message to accept the first unidirectional service; transmitting, to the second terminal (309, 409, 508, 609-809, 911-1211, 1307-1507, 1609, 1707), an acknowledgement, ACK, message for the response message; and establishing a first media session for the first unidirectional service with the second terminal (309, 409, 508, 609-809, 911-1211, 1307-1507, 1609, 1707), the first media session being used only for the first terminal to transmit data, wherein the first service request message includes a service commencement mode indicating whether a first service request is to be accepted automatically or manually and at least one of an IP multimedia subsystem, IMS, communication service identifier, ICSI, and an IMS application reference identifier, IARI, indicating the first unidirectional service.
Method for estimating the signal-to-noise ratio for a packet transmission and reception system of signals having a known data sequence by means of a M-DPSK modulation with at least one carrier, said system comprising means for packet transmission of a signal with a sequence of N known symbols, with N positive integer number, said transmission comprising a M-DPSK modulation of the signal to transmit by means of a M-PSK mapper and a differential block, the transmission of the M-DPSK modulated signal ( s ( t)) through a channel having constant gain over all the N symbols and in presence of noise ( w ( t)) with null average, and the reception of the signal ( r ( t)) at the output of the channel, wherein said method comprises the estimation of the signal-to-noise ratio of the received signal with the division of the N known symbols and of N samples of the signal ( r ( t)) at the output of the channel into B blocks of L length with B and L positive integer numbers and B greater than one and wherein B is expressed by B = N - L L - O + 1 ≥ N L, wherein O indicates the overlapping factor of consecutive blocks having length L and the calculation of the estimation of the signal-to-noise ratio is obtained by means of the equation: SNR = L - 1 B ⋅ L ∑ b = 0 B - 1 1 L ∑ k = l b l b + L - 1 r k ⁢ a k * 2 1 B ∑ b = 0 B - 1 1 L ∑ k = l b l b + L - 1 r k 2 - 1 B ∑ b = 0 B - 1 1 L ∑ k = l b l b + L - 1 r k ⁢ a k * 2 - 1 L, wherein l b, = b · ( L - O) + l where l is the index denoting the position of the first known symbol of the sequence of length N in the packet, r k is the sample of the received signal at the output of the channel correspondent to the known transmitted symbol, a k is the M-DPSK modulated known transmitted symbol, a k * is the complex conjugated of the M-DPSK modulated known transmitted symbol and SNR indicates the estimation of the signal-to-noise ratio.
An electronic stethoscope system comprising: an input unit (100,200,300, 402, 700, 900) that comprises a structural body (102, 202, 302, 702, 752) that includes a conical resonator (204, 310) designed to collect acoustic waves corresponding to sounds internal to a body, an auscultation microphone configured to produce first audio data indicative of the sounds internal to the body, an ambient microphone configured to produce second audio data indicative of sounds external to the body, a processor configured to append metadata that identifies the input unit to the first and the second audio data, and a data interface to which the first and the second audio data are forwarded by the processor for transmission to a hub unit; and the hub unit (404, 750, 950) that comprises a data interface configured to receive the first and second audio data from the input unit, and a processor configured to parse the second audio data to discover an environmental noise external to the body, alter the first audio data to mitigate an effect of the environmental noise, and examine the altered first audio data to detect a biometric characteristic of the body. a structural body (102, 202, 302, 702, 752) that includes a conical resonator (204, 310) designed to collect acoustic waves corresponding to sounds internal to a body, an auscultation microphone configured to produce first audio data indicative of the sounds internal to the body, an ambient microphone configured to produce second audio data indicative of sounds external to the body, a processor configured to append metadata that identifies the input unit to the first and the second audio data, and a data interface to which the first and the second audio data are forwarded by the processor for transmission to a hub unit; and the hub unit (404, 750, 950) that comprises a data interface configured to receive the first and second audio data from the input unit, and a processor configured to parse the second audio data to discover an environmental noise external to the body, alter the first audio data to mitigate an effect of the environmental noise, and examine the altered first audio data to detect a biometric characteristic of the body. parse the second audio data to discover an environmental noise external to the body, alter the first audio data to mitigate an effect of the environmental noise, and examine the altered first audio data to detect a biometric characteristic of the body.
A lottery data transfer (181, 186, 191, 206, 216) method for processing lottery ticket data that piggybacks on a merchant's existing debit or credit card interchange system, the method comprising acts of: assigning a bank identification number (181, 186, 191, 206, 216) to lottery tickets (155, 210, 223) that is unique in the merchant's credit or debit card interchange, the lottery BIN (181, 186, 191, 206, 216) being unique to the lottery tickets (155, 210, 223) and associated with a lottery data blob (182, 187, 192, 207, 217) also provided on the lottery ticket (155, 210, 223); entering the unique lottery BIN (181, 186, 191, 206, 216) and lottery data blob (182, 187, 192, 207, 217) into the merchant's existing credit or debit card activation barcode protocol to initiate transfer of lottery data from the lottery ticket (155, 210, 223) to a central lottery site via the interchange; at a processor within the interchange, recognizing the unique lottery BIN (181, 186, 191, 206, 216) as a flag to initiate special routing to and further processing of the lottery data blob (182, 187, 192, 207, 217) at the lottery central site; and processing the lottery data blob (182, 187, 192, 207, 217) at the lottery central site outside of the interchange's debit or credit card data transfer and processing procedures. assigning a bank identification number (181, 186, 191, 206, 216) to lottery tickets (155, 210, 223) that is unique in the merchant's credit or debit card interchange, the lottery BIN (181, 186, 191, 206, 216) being unique to the lottery tickets (155, 210, 223) and associated with a lottery data blob (182, 187, 192, 207, 217) also provided on the lottery ticket (155, 210, 223); entering the unique lottery BIN (181, 186, 191, 206, 216) and lottery data blob (182, 187, 192, 207, 217) into the merchant's existing credit or debit card activation barcode protocol to initiate transfer of lottery data from the lottery ticket (155, 210, 223) to a central lottery site via the interchange; at a processor within the interchange, recognizing the unique lottery BIN (181, 186, 191, 206, 216) as a flag to initiate special routing to and further processing of the lottery data blob (182, 187, 192, 207, 217) at the lottery central site; and processing the lottery data blob (182, 187, 192, 207, 217) at the lottery central site outside of the interchange's debit or credit card data transfer and processing procedures.
A living body heating instrument that is configured to be pushed or inserted into an affected part of a living body to heat the affected part, comprising: an inner needle; and an outer needle having a hollow portion into which the inner needle is inserted through an opening at a needle base side toward a needle tip side, and a temperature detecting element provided in an inner part of the inner needle or on an outer surface of the outer needle, wherein the inner needle has biocompatibility and thermal conductivity and contains a heater in a form of filaments and having flexibility, which is arranged in parallel with the temperature detecting element in a longitudinal direction of the inner needle, or in a radial direction of the inner needle, the outer needle is injectable with a drug, with the inner needle withdrawn from the outer needle, and the inner needle has substantially a same length as the outer needle, such that a tip of the inner needle is aligned with of the outer needle, with the inner needle suitably inserted into the outer needle. an inner needle; and an outer needle having a hollow portion into which the inner needle is inserted through an opening at a needle base side toward a needle tip side, and a temperature detecting element provided in an inner part of the inner needle or on an outer surface of the outer needle, wherein the inner needle has biocompatibility and thermal conductivity and contains a heater in a form of filaments and having flexibility, which is arranged in parallel with the temperature detecting element in a longitudinal direction of the inner needle, or in a radial direction of the inner needle, the outer needle is injectable with a drug, with the inner needle withdrawn from the outer needle, and the inner needle has substantially a same length as the outer needle, such that a tip of the inner needle is aligned with of the outer needle, with the inner needle suitably inserted into the outer needle.
A method of preparing a feed ration for an animal, the method comprising: determining an initial nutritive value of a forage material; macerating the forage material with a mechanical macerator, wherein macerating is a highly intensive mechanical crop conditioning process in which the physical structure of plant stems are broken down and split into numerals pieces while the leaves and upper stem segments are crushed and pureed; determining an actual amount of maceration of the forage material achieved by the mechanical macerator with a macerator sensor; and defining a formulation for the feed ration with a ration controller based on the actual amount of maceration of the forage material, wherein the formulation for the feed ration defines a percentage of the forage material forming the feed ration and a percentage of another feed material forming the feed ration; wherein defining the formulation for the feed ration based on the actual amount of maceration includes defining a correction with the ration controller for the initial nutritive value based on the actual amount of maceration, and applying the correction with the ration controller to the initial nutritive value of the forage material to define a corrected nutritive value of the forage material. determining an initial nutritive value of a forage material; macerating the forage material with a mechanical macerator, wherein macerating is a highly intensive mechanical crop conditioning process in which the physical structure of plant stems are broken down and split into numerals pieces while the leaves and upper stem segments are crushed and pureed; determining an actual amount of maceration of the forage material achieved by the mechanical macerator with a macerator sensor; and defining a formulation for the feed ration with a ration controller based on the actual amount of maceration of the forage material, wherein the formulation for the feed ration defines a percentage of the forage material forming the feed ration and a percentage of another feed material forming the feed ration; wherein defining the formulation for the feed ration based on the actual amount of maceration includes defining a correction with the ration controller for the initial nutritive value based on the actual amount of maceration, and applying the correction with the ration controller to the initial nutritive value of the forage material to define a corrected nutritive value of the forage material.
A method performed by a network node in a wireless communication system, the method comprising: receiving a request to alter a logical channel prioritization, LCP, order from a user equipment, UE; determining to alter the LCP order utilized by the UE to an altered LCP order, wherein determining to alter the LCP order is responsive to the network node receiving the request message from the UE; and indicating the altered LCP order to the UE. receiving a request to alter a logical channel prioritization, LCP, order from a user equipment, UE; determining to alter the LCP order utilized by the UE to an altered LCP order, wherein determining to alter the LCP order is responsive to the network node receiving the request message from the UE; and indicating the altered LCP order to the UE.
A method for producing a polymer composition for semiconductor optoelectronics, comprising the steps of - providing a monomer having the formula: (R 1) x Si(R 2) y or Ia (R 1) x Si-R 3 -Si(R 2) y IIa wherein: R 1 is a hydrolysable group R 2 is a functional organic group, R 3 is an optional bridging linear or branched bivalent hydrocarbyl group, and x and y are integers from 1 to 3, - homo- or copolymerizing the monomer to produce a polymer or copolymer, and - combining the polymer or copolymer with nanoparticles to provide a polymer composition, wherein the nanoparticle surface contains one or more silane coupling groups. - providing a monomer having the formula: (R 1) x Si(R 2) y or Ia (R 1) x Si-R 3 -Si(R 2) y IIa wherein: R 1 is a hydrolysable group R 2 is a functional organic group, R 3 is an optional bridging linear or branched bivalent hydrocarbyl group, and x and y are integers from 1 to 3, R 1 is a hydrolysable group R 2 is a functional organic group, R 3 is an optional bridging linear or branched bivalent hydrocarbyl group, and x and y are integers from 1 to 3, - homo- or copolymerizing the monomer to produce a polymer or copolymer, and - combining the polymer or copolymer with nanoparticles to provide a polymer composition, wherein the nanoparticle surface contains one or more silane coupling groups.
A light emitting diode, comprising a package housing a semiconductor chip (1; 14), which generates short-wavelength emission at a wavelength shorter than 500 nm due to injection electroluminescence, and a converter (5; 18), placed on the way of the photon flux generated by the chip (1; 14), the said converter (5; 18) being designed for the conversion of the said emission to longer wavelengths due to photoluminescence and containing phosphor particles of at least one kind, wherein the converter (5; 18) comprises a phosphor (7; 21), emitting within a spectral band, peaking in the far-red region from 700 nm to 760 nm, which corresponds to the absorption spectrum of phytochrome of the P fr form, characterised in that said phosphor is - gadolinium-gallium oxide activated by trivalent chromium and/or trivalent cerium ions, or - calcium sulphide activated by divalent ytterbium ions. - gadolinium-gallium oxide activated by trivalent chromium and/or trivalent cerium ions, or - calcium sulphide activated by divalent ytterbium ions.