mhurhangee/ep-ind-claims huggingface dataset:
A method of providing third party developed control logic for automation controllers to customers using a communication network, the method comprising: providing at least one tool kit for a third party to develop control logic for an automation controller, the automation controller being remotely located from the communication network; selecting a hardware platform on which to operate the control logic; and linking the control logic to at least one operational characteristic of the hardware platform such that the control logic is operable to perform at least one predetermined function of the automation controller using the hardware platform; characterized in the step of providing the at least one tool kit which includes software, which allows the third party to build the control logic, documentation, which shows the third party how to design the control logic, and access via a password to a website that allows the third party to create the control logic; testing and validating of the control logic developed by the third party using the at least one tool kit at the communication network; at the communication network, analyzing a result of the testing and the validating of the control logic according to predetermined criteria; when the predetermined criteria is satisfied, releasing the control logic to a network-based web store at the communication network and subsequently presenting the control logic to at least one potential customer. providing at least one tool kit for a third party to develop control logic for an automation controller, the automation controller being remotely located from the communication network; selecting a hardware platform on which to operate the control logic; and linking the control logic to at least one operational characteristic of the hardware platform such that the control logic is operable to perform at least one predetermined function of the automation controller using the hardware platform; characterized in the step of providing the at least one tool kit which includes software, which allows the third party to build the control logic, documentation, which shows the third party how to design the control logic, and access via a password to a website that allows the third party to create the control logic; testing and validating of the control logic developed by the third party using the at least one tool kit at the communication network; at the communication network, analyzing a result of the testing and the validating of the control logic according to predetermined criteria; when the predetermined criteria is satisfied, releasing the control logic to a network-based web store at the communication network and subsequently presenting the control logic to at least one potential customer.
A remote home gateway controller, comprising: a processing module and a control module, wherein the processing module is configured to generate terminal control data; and the control module is configured to access a home gateway and send the terminal control data to the home gateway so as to make the home gateway control a terminal according to the terminal control data; wherein the processing module comprises a service storage submodule, a service calculation submodule and a terminal adaptation submodule; the service storage submodule is configured to store service logic; the terminal adaptation submodule is configured to store adaptation data of various terminals for being read by corresponding service logic; and the service calculation submodule is configured to invoke corresponding service logic from service logic stored in the service storage submodule to conduct a service logic operation so as to generate terminal control data; wherein the terminal control data is generated by the remote home gateway controller invoking the corresponding service logic to read the adaptation data of the terminal and conducting a service logic operation according to the service logic and the adaptation data of the terminal and wherein the adaptation data is converted data of the service logic operation of a terminal specific field in a standard protocol.
A method for saving a standard format page, comprising: generating, by a server, a standard format page which comprises a first filling entry, the first filling entry having a default filling value and being configured for being filled with a PLMN ID of a visited place; transmitting, by the server, the standard format page to the first mobile terminal located at the visited place; receiving, by the server, a first standard format page transmitted by the first mobile terminal, the first standard format page being a standard format page in which the first filling entry has been filled by the first mobile terminal with the filling value; and identifying and saving, by the server, the first standard format page. generating, by a server, a standard format page which comprises a first filling entry, the first filling entry having a default filling value and being configured for being filled with a PLMN ID of a visited place; transmitting, by the server, the standard format page to the first mobile terminal located at the visited place; receiving, by the server, a first standard format page transmitted by the first mobile terminal, the first standard format page being a standard format page in which the first filling entry has been filled by the first mobile terminal with the filling value; and identifying and saving, by the server, the first standard format page.
An apparatus comprising: a memory interface; an array of processing clusters each including a multiprocessor unit (1400, 1820) coupled to the memory interface, at least one multiprocessor unit (1400, 1820) to execute a fused multiply-add instruction in parallel across multiple threads, the at least one multiprocessor unit (1400, 1820) comprising: a register file (1406; 1825) to store data; and a compute unit (1411,..., 1418; 1824A,..., 1824N) coupled to the register file (1406; 1825), the compute unit (1411,..., 1418; 1824A,..., 1824N) to execute the fused multiply-add instruction on matrix data, the compute unit (1411,..., 1418; 1824A,..., 1824N) comprising: hardware logic to quantize the matrix data from a higher precision, including a 32-bit floating point format to a lower precision floating point format, including a 16-bit floating point format, having a 1-bit sign, an 8-bit exponent, and a 7-bit mantissa, wherein the matrix data is quantized from the higher to the lower precision by using fewer bits for the mantissa; and one or more logic units to perform the fused multiply-add operation on the matrix data in the lower precision floating point format. a memory interface; an array of processing clusters each including a multiprocessor unit (1400, 1820) coupled to the memory interface, at least one multiprocessor unit (1400, 1820) to execute a fused multiply-add instruction in parallel across multiple threads, the at least one multiprocessor unit (1400, 1820) comprising: a register file (1406; 1825) to store data; and a compute unit (1411,..., 1418; 1824A,..., 1824N) coupled to the register file (1406; 1825), the compute unit (1411,..., 1418; 1824A,..., 1824N) to execute the fused a register file (1406; 1825) to store data; and a compute unit (1411,..., 1418; 1824A,..., 1824N) coupled to the register file (1406; 1825), the compute unit (1411,..., 1418; 1824A,..., 1824N) to execute the fused multiply-add instruction on matrix data, the compute unit (1411,..., 1418; 1824A,..., 1824N) comprising: hardware logic to quantize the matrix data from a higher precision, including a 32-bit floating point format to a lower precision floating point format, including a 16-bit floating point format, having a 1-bit sign, an 8-bit exponent, and a 7-bit mantissa, wherein the matrix data is quantized from the higher to the lower precision by using fewer bits for the mantissa; and one or more logic units to perform the fused multiply-add operation on the matrix data in the lower precision floating point format. hardware logic to quantize the matrix data from a higher precision, including a 32-bit floating point format to a lower precision floating point format, including a 16-bit floating point format, having a 1-bit sign, an 8-bit exponent, and a 7-bit mantissa, wherein the matrix data is quantized from the higher to the lower precision by using fewer bits for the mantissa; and one or more logic units to perform the fused multiply-add operation on the matrix data in the lower precision floating point format.
A method, comprising: acquiring a three-dimensional anatomical image of a patient face and identifying, by a processing device, multiple anatomical points corresponding to respective predefined locations on the patient face in a first coordinate system; assigning, by the processing device, at least one function to at least one predefined location (201,202, 203, 204) on the patient face; receiving, by the processing device, multiple positions in a second coordinate system at the respective predefined locations on the patient face from a registration tool comprising a position sensor; registering by the processing device the first and second coordinate systems, by correlating between the positions in the second coordinate system and the respective anatomical points on the patient face in the first coordinate system; triggering a command corresponding to the at least one assigned function by applying a tool equipped with a position sensor in the at least one predefined location (201, 202, 203, 204) on the patient face; and communicating the command to an electronic device. acquiring a three-dimensional anatomical image of a patient face and identifying, by a processing device, multiple anatomical points corresponding to respective predefined locations on the patient face in a first coordinate system; assigning, by the processing device, at least one function to at least one predefined location (201,202, 203, 204) on the patient face; receiving, by the processing device, multiple positions in a second coordinate system at the respective predefined locations on the patient face from a registration tool comprising a position sensor; registering by the processing device the first and second coordinate systems, by correlating between the positions in the second coordinate system and the respective anatomical points on the patient face in the first coordinate system; triggering a command corresponding to the at least one assigned function by applying a tool equipped with a position sensor in the at least one predefined location (201, 202, 203, 204) on the patient face; and communicating the command to an electronic device.
An engine braking method for an internal combustion engine having an air intake path and an exhaust gas path, a turbocharger comprising a turbine in the exhaust gas path and a compressor in the intake path, the turbine comprising a turbine wheel rotatably disposed in a turbine housing, the compressor comprising a compressor impeller rotatably disposed in a compressor housing, the turbine wheel and compressor impeller being connected by a turbocharger shaft, a bearing housing disposed between the compressor and turbine for housing a bearing assembly to support the turbocharger shaft in rotation, at least one first seal between a compressor end of the shaft and the bearing housing, the method comprising: operating the engine in an engine braking mode by activating an exhaust gas brake to impede the flow of exhaust gas in the exhaust gas path when the engine throttle is closed, thereby generating an exhaust gas back-pressure in the exhaust gas path; selectively diverting at least a portion of the exhaust gas during engine braking mode from the exhaust gas path in order to increase the pressure gradient across the at least one first seal in the direction from the bearing housing to the compressor housing; wherein the diverted exhaust gas is directed to a location between the at least one first seal and the compressor housing so as to raise the pressure In that location; characterised in that the exhaust gas is diverted through a passage (17, 35) disposed, at least in part, through the bearing housing, said passage emerges to a side of the at least one first seal that is closest to the compressor.
A wire electric discharge machine which performs machining by relatively moving a wire electrode and a workpiece based on a desired shape, the wire electric discharge machine having a computerized numerical controller and comprising: a desired-shape creation unit configured to create a desired shape with reference to a drawing; a machining path creation unit configured to create a machining path based on a discharge gap and/or a wire diameter in addition to the created desired shape; and a machining speed calculation unit configured to calculate a machining speed based on a detected value of a machining voltage and/or a discharge pulse; characterized by further comprising a circular-arc determination unit configured to determine a circular-arc portion in the desired shape; a circular-arc speed control unit configured to control a command speed on the machining path, for a circular-arc portion in the desired shape that is determined to be a circular-arc portion by the circular-arc determination unit, based on a difference between an arc length of the desired shape and arc length on the machining path corresponding to the desired shape; and a wire movement control unit configured to move the wire electrode relative to the workpiece along the machining path, based on the command speed controlled by the circular-arc speed control unit. a desired-shape creation unit configured to create a desired shape with reference to a drawing; a machining path creation unit configured to create a machining path based on a discharge gap and/or a wire diameter in addition to the created desired shape; and a machining speed calculation unit configured to calculate a machining speed based on a detected value of a machining voltage and/or a discharge pulse; characterized by further comprising a circular-arc determination unit configured to determine a circular-arc portion in the desired shape; a circular-arc speed control unit configured to control a command speed on the machining path, for a circular-arc portion in the desired shape that is determined to be a circular-arc portion by the circular-arc determination unit, based on a difference between an arc length of the desired shape and arc length on the machining path corresponding to the desired shape; and a wire movement control unit configured to move the wire electrode relative to the workpiece along the machining path, based on the command speed controlled by the circular-arc speed control unit.
A folding rule, including at least four sections (1, 2, 3, 4) which are fastened to one another so as to be pivotable, wherein at least the fourth section comprises two scales (SK1, SK2) for measuring angles and the first section comprises at least one reading mark, wherein the first scale for measuring angles and the reading mark are arranged in such a manner on the respective section (4, 1) that the reading mark points to the value of the first scale which corresponds to the angle (α) to be measured between the sides (O1, O2) which abut against the second section and against the fourth section, respectively, when the first section and the fourth section are aligned parallel to one another and a first lateral edge (1.1) or a second lateral edge (1.2) of the first section abuts against a first lateral edge (4.1) of the fourth section, and in that the second scale for measuring angles and the reading mark are arranged in such a manner on the respective section (4, 1) that the reading mark points to the value of the second scale which corresponds to the angle (α) to be measured between the sides (O1, O2) which abut against the third section and against the fourth section, respectively, when the first section and the fourth section are aligned parallel to one another and a second lateral edge (1.2) of the first section abuts against a second lateral edge (4.2) of the fourth section.
An amplifier system, comprising: an optical parametric oscillator producing femtosecond duration light pulses with a first repetition rate greater than 50 MHz and tuning range between 650 nm to 1400 nm and an average power of > 1W at the peak of the tuning range; a pulse picking device configured to reduce the pulses from the first repetition rate to a second repetition rate less than 10 MHz; a pulse stretching module configured to increase the pulse duration of the pulses from the pulse picking device to picosecond duration pulses; an amplifier configured to provide gains to the longer duration pulses; and a pulse compressing module configured to reduce the pulse duration of the amplified pulses to femtosecond duration pulses; wherein the system generates pulse energies, suitable for 3 photon spectroscopy, on the order of micro Joule, amplifies several 10 nm of bandwidth, and shifts or broadens the tuning range between 650 nm and 1400 nm to a range between 1250 nm and 1800 nm. an optical parametric oscillator producing femtosecond duration light pulses with a first repetition rate greater than 50 MHz and tuning range between 650 nm to 1400 nm and an average power of > 1W at the peak of the tuning range; a pulse picking device configured to reduce the pulses from the first repetition rate to a second repetition rate less than 10 MHz; a pulse stretching module configured to increase the pulse duration of the pulses from the pulse picking device to picosecond duration pulses; an amplifier configured to provide gains to the longer duration pulses; and a pulse compressing module configured to reduce the pulse duration of the amplified pulses to femtosecond duration pulses; wherein the system generates pulse energies, suitable for 3 photon spectroscopy, on the order of micro Joule, amplifies several 10 nm of bandwidth, and shifts or broadens the tuning range between 650 nm and 1400 nm to a range between 1250 nm and 1800 nm.
A method of optimizing performance of femtocells in a LTE femtocell network of femtocells comprising the steps of: (a) providing global policy rules for the network; (b) providing a predetermined QoS parameterized by α, where α is in a range of values such that the power adjustment of the femtocell network is stable and converges and α has values between 0 and 1; (c) each femtocell in the network independently processing information from measurements or estimations of parameters and the value α, for each femtocell; (d) each femtocell periodically adjusting its resources according to the processed information and the rules; and (e) repeating step (c) and step (d) with new parameters until the value of α is met for the network. (a) providing global policy rules for the network; (b) providing a predetermined QoS parameterized by α, where α is in a range of values such that the power adjustment of the femtocell network is stable and converges and α has values between 0 and 1; (c) each femtocell in the network independently processing information from measurements or estimations of parameters and the value α, for each femtocell; (d) each femtocell periodically adjusting its resources according to the processed information and the rules; and (e) repeating step (c) and step (d) with new parameters until the value of α is met for the network.
A photochromic polydiorganosiloxane vinylic crosslinker, comprising: a polydiorganosiloxane segment comprising dimethylsiloxane units and at least one photochromic siloxane unit having one methyl substituent and one photochromic organic substituent having at least one photochromic moiety; and two terminal ethylenically-unsaturated groups. a polydiorganosiloxane segment comprising dimethylsiloxane units and at least one photochromic siloxane unit having one methyl substituent and one photochromic organic substituent having at least one photochromic moiety; and two terminal ethylenically-unsaturated groups.
A microwave plasma reactor for manufacturing synthetic diamond material via chemical vapour deposition, the microwave plasma reactor comprising: a plasma chamber defining a resonant cavity for supporting a primary microwave resonance mode having a primary microwave resonance mode frequency f; a plurality of microwave sources coupled to the plasma chamber for generating and feeding microwaves having a total microwave power P T into the plasma chamber; a gas flow system for feeding process gases into the plasma chamber and removing them therefrom; and a substrate holder disposed in the plasma chamber and comprising a supporting surface for supporting a substrate on which the synthetic diamond material is to be deposited in use, wherein the plurality of microwave sources are configured to couple at least 30% of the total microwave power P T into the plasma chamber in the primary microwave resonance mode frequency f, and characterised in that at least some of the plurality of microwave sources are solid state microwave sources, wherein at least several of the plurality of solid state microwave sources are each configured to generate no more than 10% of the total microwave power P T. a plasma chamber defining a resonant cavity for supporting a primary microwave resonance mode having a primary microwave resonance mode frequency f; a plurality of microwave sources coupled to the plasma chamber for generating and feeding microwaves having a total microwave power P T into the plasma chamber; a gas flow system for feeding process gases into the plasma chamber and removing them therefrom; and a substrate holder disposed in the plasma chamber and comprising a supporting surface for supporting a substrate on which the synthetic diamond material is to be deposited in use, wherein the plurality of microwave sources are configured to couple at least 30% of the total microwave power P T into the plasma chamber in the primary microwave resonance mode frequency f, and characterised in that at least some of the plurality of microwave sources are solid state microwave sources, wherein at least several of the plurality of solid state microwave sources are each configured to generate no more than 10% of the total microwave power P T.
Air spring assembly, in particular for a commercial vehicle, wherein at least one component (12, 14, 16, 24) of the air spring assembly has a protective device (30, 42, 46) for protecting the component (12, 14, 16, 24) from mechanical damage by impact of objects, wherein the protective device (30, 42, 46) covers at least one region of a protective surface of the component (12, 14, 16, 24) and at least is partially in contact with the surface, wherein the protective device is provided with a dirt-repellent or water-repellent outer layer, characterised in that the protective means comprises a plurality of sacrificial ribs which project from of the surface.