mhurhangee/patent-ind-claim-en huggingface dataset:
An iron-based amorphous alloy as shown in formula (I), Fe a B b Si c RE d (I); wherein a, b and c respectively represent an atomic percent of corresponding components; 83.2≤a≤86.8, 11.0<b<15.0,2.0≤c≤4.0, and a+b+c=100; and d is concentration of RE in the iron-based amorphous alloy, and 10ppm≤d≤30ppm; RE is rare earth elements, which is one or more selected from La, Ce, Nd and Yb, wherein the RE concentration is measured with a direct-reading spectrometer. wherein a, b and c respectively represent an atomic percent of corresponding components; 83.2≤a≤86.8, 11.0<b<15.0,2.0≤c≤4.0, and a+b+c=100; and d is concentration of RE in the iron-based amorphous alloy, and 10ppm≤d≤30ppm; RE is rare earth elements, which is one or more selected from La, Ce, Nd and Yb, wherein the RE concentration is measured with a direct-reading spectrometer.
A blood sequestration device comprising; an inlet port ; an outlet port ; a sequestration chamber connected with the inlet port via a junction, the sequestration chamber having a vent that includes an air permeable blood barrier , the vent being defined by an outer wall that at least partially circumscribes the air permeable blood barrier and includes one or more air vents , the vent further including a cap , that at least partially covers the wall and a one-way seal abutting the air permeable blood barrier that inhibits air from entering the sequestration chamber; and a sampling channel having a proximal end connected with the inlet port via the junction, and a distal end connected with the outlet port; the sequestration chamber, the sampling channel and the junction being sized and configured such that a first portion of blood flows into the sequestration chamber toward the air permeable blood barrier for sequestration therein, and a second portion of blood bypasses the sequestration chamber and the first portion of blood sequestered therein and is directed into the sampling channel toward the outlet port.
A method of ensuring reproducibility in an artificial intelligence infrastructure that includes one or more storage systems and one or more graphical processing unit, GPU, servers , the method comprising: identifying , by a unified management plane , one or more transformations applied to a dataset by the artificial intelligence infrastructure, wherein applying the one or more transformations to the dataset causes the artificial intelligence infrastructure to generate a transformed dataset ; storing , within the one or more storage systems , information describing the dataset , the one or more transformations applied to the dataset , and the transformed dataset ; identifying , by the unified management plane , one or more machine learning models executed by the artificial intelligence infrastructure using the transformed dataset as input; and storing , within the one or more storage systems , information describing one or more machine learning models executed using the transformed dataset as input, including generating , by the artificial intelligence infrastructure applying a predetermined hash function to the dataset , the one or more transformations applied to the dataset , and the transformed dataset , a hash value; and storing, within the one or more storage systems , the hash value. identifying , by a unified management plane , one or more transformations applied to a dataset by the artificial intelligence infrastructure, wherein applying the one or more transformations to the dataset causes the artificial intelligence infrastructure to generate a transformed dataset ; storing , within the one or more storage systems , information describing the dataset , the one or more transformations applied to the dataset , and the transformed dataset ; identifying , by the unified management plane , one or more machine learning models executed by the artificial intelligence infrastructure using the transformed dataset as input; and storing , within the one or more storage systems , information describing one or more machine learning models executed using the transformed dataset as input, including generating , by the artificial intelligence infrastructure applying a predetermined hash function to the dataset , the one or more transformations applied to the dataset , and the transformed dataset , a hash value; and storing, within the one or more storage systems , the hash value.
A control device of an electric vehicle equipped with a rechargeable battery and a travel motor driven by electric power supplied from the battery , comprising: an operating state detection unit for detecting an operating state of an accelerator pedal , including a depression amount of the accelerator pedal ; and a motor control unit for controlling the travel motor based on results of detection by the operating state detection unit , and executing deceleration control over the travel motor , including coasting control which reduces a driving force of the travel motor to zero, when a returning operation of the accelerator pedal is detected by the operating state detection unit ; characterized in that the control device further comprises a region setting unit for setting a range of the depression amount of the accelerator pedal for executing the coasting control, based on the depression amount of the accelerator pedal at a start of the returning operation of the accelerator pedal . an operating state detection unit for detecting an operating state of an accelerator pedal , including a depression amount of the accelerator pedal ; and a motor control unit for controlling the travel motor based on results of detection by the operating state detection unit , and executing deceleration control over the travel motor , including coasting control which reduces a driving force of the travel motor to zero, when a returning operation of the accelerator pedal is detected by the operating state detection unit ; characterized in that the control device further comprises a region setting unit for setting a range of the depression amount of the accelerator pedal for executing the coasting control, based on the depression amount of the accelerator pedal at a start of the returning operation of the accelerator pedal .
Process for the realization of a dildo, comprising: - a coating step (A) of a support body with plastic material for the formation of a coated body comprising a contact layer enveloping said support body ; - a heat treatment step (B) of said coated body for the stabilization of said contact layer ; - a separation step (C) of said contact layer from said support body to obtain a contact portion of a dildo ; - a closing step of said contact portion for the realization of said dildo ; characterized in that it comprises, prior to said sealing step, a filling step of said contact portion with insertable expanding material in the form of capsules or a filling step of said contact portion with sodium polyacrylate . - a coating step (A) of a support body with plastic material for the formation of a coated body comprising a contact layer enveloping said support body ; - a heat treatment step (B) of said coated body for the stabilization of said contact layer ; - a separation step (C) of said contact layer from said support body to obtain a contact portion of a dildo ; - a closing step of said contact portion for the realization of said dildo ; characterized in that it comprises, prior to said sealing step, a filling step of said contact portion with insertable expanding material in the form of capsules or a filling step of said contact portion with sodium polyacrylate .
Method of forming a metal container useful as a battery shell, the method comprising the steps of: (a) providing a metal blank in the form of a disk, wherein the metal blank comprises a nickel-clad metal substrate having an upper side and an lower side each being coated with multiple polymer layers , wherein the polymer of at least one layer has a molar mass of at least 20.000g/mol and a polydispersity (M w /M n ) of at least 1,1; (b) transferring said metal blank to a first forming station which comprises a punch and a die, wherein the metal blank is formed into a cup having a sidewall and a closed base ; (c) providing the metal cup to a set of forming stations, comprising at least one set of punches and dies, wherein said metal cup is deep drawn into a container having a sidewall and a closed base with an inner and an outer surface by the action of said at least one set of punches and dies; wherein the first forming station as well as the set of forming stations are located in one single multiple station deep drawing transfer press, wherein the set of forming stations comprises five to fifteen sets of punches and dies and, wherein the drawing ratio of each set of punches and dies is 1,1 to 2,0, preferably 1,2 to 1,5. (a) providing a metal blank in the form of a disk, wherein the metal blank comprises a nickel-clad metal substrate having an upper side and an lower side each being coated with multiple polymer layers , wherein the polymer of at least one layer has a molar mass of at least 20.000g/mol and a polydispersity (M w /M n ) of at least 1,1; (b) transferring said metal blank to a first forming station which comprises a punch and a die, wherein the metal blank is formed into a cup having a sidewall and a closed base ; (c) providing the metal cup to a set of forming stations, comprising at least one set of punches and dies, wherein said metal cup is deep drawn into a container having a sidewall and a closed base with an inner and an outer surface by the action of said at least one set of punches and dies; wherein the first forming station as well as the set of forming stations are located in one single multiple station deep drawing transfer press, wherein the set of forming stations comprises five to fifteen sets of punches and dies and, wherein the drawing ratio of each set of punches and dies is 1,1 to 2,0, preferably 1,2 to 1,5. wherein the first forming station as well as the set of forming stations are located in one single multiple station deep drawing transfer press, wherein the set of forming stations comprises five to fifteen sets of punches and dies and, wherein the drawing ratio of each set of punches and dies is 1,1 to 2,0, preferably 1,2 to 1,5.
A non-transitory computer readable medium storing computer code which, when executed by a processor, cause said processor to perform a method comprising the steps of: accessing an electronic calendar , by a residential network router , wherein the electronic calendar is shared by the residents of the residential space; determining , by the residential network router, a plurality of events saved to the electronic calendar and associated with residents of the residential space, wherein the plurality of events require, at least in part, simultaneous network resource usage; prioritizing the plurality of events, using the residential network router; and assigning available network resources among the plurality of events, using the residential network router, based on the prioritization. accessing an electronic calendar , by a residential network router , wherein the electronic calendar is shared by the residents of the residential space; determining , by the residential network router, a plurality of events saved to the electronic calendar and associated with residents of the residential space, wherein the plurality of events require, at least in part, simultaneous network resource usage; prioritizing the plurality of events, using the residential network router; and assigning available network resources among the plurality of events, using the residential network router, based on the prioritization.
Portion container for extractable substances, in particular for producing a beverage, comprising an interior surrounded by a container wall for receiving the at least one extractable substance in an at least substantially aroma-tight manner, wherein the extractable substance preferably being selected from coffee, tea, cocoa, chocolate or similar consumable products, wherein said container wall is formed of a plurality of container parts, namely at least one container bottom part and a container lid , characterized in that the container wall is completely biodegradable, wherein the container wall is formed of a biodegradable material and wherein the at least one biodegradable material includes sugar cane pulp.
A method of detecting at least one of an analyte or a condition of a downhole fluid within a subterranean formation, the method comprising: operably coupling a radiation source to at least one optical fiber coupled to a sensor comprising optically sensitive materials including at least one of chromophores, fluorophores, metal nanoparticles, or metal oxide nanoparticles dispersed within an optically transparent matrix material which is permeable to a downhole fluid; contacting the sensor within a wellbore with the downhole fluid and passing the downhole fluid through at least a portion of the sensor comprising the optically sensitive materials; transmitting electromagnetic radiation from the radiation source through the at least one optical fiber to the sensor; and measuring at least one of an absorbance spectrum, an emission spectrum, a maximum absorption intensity, or a maximum emission intensity of electromagnetic radiation passing through the sensor after contacting at least some of the optically sensitive materials with the downhole fluid. operably coupling a radiation source to at least one optical fiber coupled to a sensor comprising optically sensitive materials including at least one of chromophores, fluorophores, metal nanoparticles, or metal oxide nanoparticles dispersed within an optically transparent matrix material which is permeable to a downhole fluid; contacting the sensor within a wellbore with the downhole fluid and passing the downhole fluid through at least a portion of the sensor comprising the optically sensitive materials; transmitting electromagnetic radiation from the radiation source through the at least one optical fiber to the sensor; and measuring at least one of an absorbance spectrum, an emission spectrum, a maximum absorption intensity, or a maximum emission intensity of electromagnetic radiation passing through the sensor after contacting at least some of the optically sensitive materials with the downhole fluid.
A welding system comprising: - a welding torch , - a display , and - a protective cover selectively movable between a first position and a second position, wherein while in the first position the protective cover is configured to block environmental elements from contacting the display , and while in the second position the protective cover is not configured to block environmental elements from contacting the display ; characterized by a welding stand including a welding surface and the display , wherein the display shows an indication that the protective cover is in the first and/or the second position, and wherein control circuitry is configured to detect whether the protective cover is in the first position or the second position and to block live welding and/or to block availability of power provided to an outlet of the welding stand while the protective cover is in the second position, wherein the welding torch comprises a trigger configured to mechanically actuate a trigger switch between an open position and a closed position, wherein if the trigger is actuated while the protective cover is in the second position, the welding system is configured to provide a visual and/or audio feedback to an operator. - a welding torch , - a display , and - a protective cover selectively movable between a first position and a second position, wherein while in the first position the protective cover is configured to block environmental elements from contacting the display , and while in the second position the protective cover is not configured to block environmental elements from contacting the display ; a welding stand including a welding surface and the display , wherein the display shows an indication that the protective cover is in the first and/or the second position, and wherein control circuitry is configured to detect whether the protective cover is in the first position or the second position and to block live welding and/or to block availability of power provided to an outlet of the welding stand while the protective cover is in the second position, wherein the welding torch comprises a trigger configured to mechanically actuate a trigger switch between an open position and a closed position, wherein if the trigger is actuated while the protective cover is in the second position, the welding system is configured to provide a visual and/or audio feedback to an operator.
A system for disinfecting, the system comprising: a disinfecting device comprising: a housing having an attachment surface and an illumination surface that are opposed along an axis , wherein the housing is cylindrical; and a plurality of adjustable ultraviolet, UV, emitters disposed at the housing that have fields of illumination (F1, F3) that are adjustable along multiple axes via rotational couplings to illuminate an enclosed space that the illumination surface faces, wherein the adjustable UV emitters are arranged radially along a circumference of the housing , and wherein each of the adjustable UV emitters includes a head that projects outward from the housing , wherein the head retains a Light Emitting Diode, LED , and the head is configured for reorientation via one of the rotational couplings to alter a field of illumination (F1, F3). a housing having an attachment surface and an illumination surface that are opposed along an axis , wherein the housing is cylindrical; and a plurality of adjustable ultraviolet, UV, emitters disposed at the housing that have fields of illumination (F1, F3) that are adjustable along multiple axes via rotational couplings to illuminate an enclosed space that the illumination surface faces, wherein the adjustable UV emitters are arranged radially along a circumference of the housing , and wherein each of the adjustable UV emitters includes a head that projects outward from the housing , wherein the head retains a Light Emitting Diode, LED , and the head is configured for reorientation via one of the rotational couplings to alter a field of illumination (F1, F3).
An electromagnetic measurement system configured to test a device under test, DUT , in a chamber , the system comprising: a chamber ; a plurality of antennas within the chamber ; within the chamber , in proximity to each antenna of the plurality of antennas : a communication tester configured to generate at least one transmit signal; a first emulator core between and in proximity to the antenna and the communication tester and configured to introduce an impairment in each of at least one transmit signal to produce a first impaired signal and a second impaired signal; and a first transmitter between and in proximity to the first emulator core and the antenna and configured to convert the first impaired signal to a radio frequency, RF, signal to be transmitted by an antenna according to a first polarization; and a second transmitter between and in proximity to the first emulator core and the antenna configured to convert the second impaired signal to a second RF signal to be transmitted by the antenna according to a second polarization. a chamber ; a plurality of antennas within the chamber ; within the chamber , in proximity to each antenna of the plurality of antennas : a communication tester configured to generate at least one transmit signal; a first emulator core between and in proximity to the antenna and the communication tester and configured to introduce an impairment in each of at least one transmit signal to produce a first impaired signal and a second impaired signal; and a first transmitter between and in proximity to the first emulator core and the antenna and configured to convert the first impaired signal to a radio frequency, RF, signal to be transmitted by an antenna according to a first polarization; and a second transmitter between and in proximity to the first emulator core and the antenna configured to convert the second impaired signal to a second RF signal to be transmitted by the antenna according to a second polarization. a communication tester configured to generate at least one transmit signal; a first emulator core between and in proximity to the antenna and the communication tester and configured to introduce an impairment in each of at least one transmit signal to produce a first impaired signal and a second impaired signal; and a first transmitter between and in proximity to the first emulator core and the antenna and configured to convert the first impaired signal to a radio frequency, RF, signal to be transmitted by an antenna according to a first polarization; and a second transmitter between and in proximity to the first emulator core and the antenna configured to convert the second impaired signal to a second RF signal to be transmitted by the antenna according to a second polarization.
A method comprising: determining (510; 610), by a wireless node in a cell, a silent resource pattern for each of a plurality of signal waveform types including at least a single carrier waveform type and a multicarrier waveform type , wherein each silent resource pattern identifies one or more resource elements that are indicated as unused by at least one node of the cell for the signal waveform type; determining (514; 620), by the wireless node, whether a signal waveform type, of the plurality of signal waveform types, for channel sensing is known by the wireless node; performing (516; 630), by the wireless node if a signal waveform type for channel sensing is known by the wireless node, channel sensing based on a silent resource pattern for a known signal waveform type for channel sensing of the plurality of signal waveform types; otherwise, performing (518; 640), by the wireless node if the signal waveform type for channel sensing is not known by the wireless node, channel sensing based on a silent resource pattern for each of a plurality of the signal waveform types. determining (510; 610), by a wireless node in a cell, a silent resource pattern for each of a plurality of signal waveform types including at least a single carrier waveform type and a multicarrier waveform type , wherein each silent resource pattern identifies one or more resource elements that are indicated as unused by at least one node of the cell for the signal waveform type; determining (514; 620), by the wireless node, whether a signal waveform type, of the plurality of signal waveform types, for channel sensing is known by the wireless node; performing (516; 630), by the wireless node if a signal waveform type for channel sensing is known by the wireless node, channel sensing based on a silent resource pattern for a known signal waveform type for channel sensing of the plurality of signal waveform types; otherwise, performing (518; 640), by the wireless node if the signal waveform type for channel sensing is not known by the wireless node, channel sensing based on a silent resource pattern for each of a plurality of the signal waveform types.