mhurhangee/ep-ind-claims huggingface dataset:
A method for triggering an alarm comprising: receiving at a processor an instruction to alarm a security gate device; characterized in that: in response to at least receiving the instruction to alarm the security gate device, tuning a security resonator at a location such that a field generated by the security gate device interacts with the security resonator to cause the security gate device to trigger the alarm. receiving at a processor an instruction to alarm a security gate device; characterized in that: in response to at least receiving the instruction to alarm the security gate device, tuning a security resonator at a location such that a field generated by the security gate device interacts with the security resonator to cause the security gate device to trigger the alarm.
A mobile terminal, comprising a first switch, a second switch, a first charging port, a first charging circuit, a first connector, a first battery (Bal), and a first electronic controller, wherein a first terminal of the first switch is connected to the first charging port, and a second terminal of the first switch is connected to a first end of the first charging circuit; a first terminal of the second switch is connected to the first end of the first charging circuit, and a second terminal of the second switch is connected to the first connector; a second end of the first charging circuit is connected to the first battery (Bal), and is configured to control a charging process of the first battery (Bal); the first connector is configured to connect to a peripheral device; the first electronic controller is connected to a control terminal of the first switch and a control terminal of the second switch, and communicates with the peripheral device; and the first electronic controller is configured to: determine a charging mode based on a battery level of the first battery and a battery level of a second battery of the peripheral device, control states of the first switch and the second switch based on the charging mode, and send control information to the peripheral device to notify the peripheral device of the charging mode, wherein the charging mode comprises that the first battery charges the second battery, or that the second battery charges the first battery (Bal); wherein the mobile terminal further comprises a first dead zone control circuit and a first low dropout linear voltage regulator, wherein a first input end of the first dead zone control circuit is connected to the first charging port, an output end of the first dead zone control circuit is connected to the first electronic controller, an input end of the first low dropout linear voltage regulator is connected to a third end of the first charging circuit, and an output end of the first low dropout linear voltage regulator is connected to a second input end of the first dead zone control circuit; when the battery level of the first battery is less than or equal to a first threshold, and the first charging port is connected to a charger, the charger connected to the first charging port supplies power to the first electronic controller by using the first dead zone control circuit; and when the battery level of the first battery is greater than the first threshold, the first battery supplies power to the first low dropout linear voltage regulator by using the first charging circuit, and the first low dropout linear voltage regulator supplies power to the first electronic controller by using the first dead zone control circuit.
- A method of fabricating a container comprising a glass wall defining a reception cavity, said container being designed to contain in said cavity a body fragrance, said glass wall presenting an inside face situated facing said reception cavity, said method being characterized in that it comprises a step of covering at least a fraction of said inside face in a vitreous material prepared using a sol-gel process so that said vitreous material covers said fraction of the inside face at a mass per unit area that does not exceed 70 g/m 2, said vitreous material including pigments dispersed within it, said method comprising, prior to said covering step, a step of supplying, or of fabricating, said container.
A method for determining measurement information for a network, comprising: receiving, by a first device and from a second device, a data stream of frames, where the frames comprise physical layer frames and/or data link layer frames, the first device and the second device being endpoint devices that carry network traffic between a source of the network traffic and a destination of the network traffic; identifying, by the first device, the data stream as a monitored data stream based on information included in payloads of the frames; identifying, by the first device and based on information included in the payloads of the frames, the frames as one or more of: count frames (116, 118) to be used to identify a quantity of dropped frames, or measurement frames to be used to determine latency or jitter; determining, by the first device, measurement information based on the count frames (116, 118) and the measurement frames, the measurement information identifying at least one of: the quantity of dropped frames associated with the data stream, or the latency or jitter associated with the data stream; and providing, by the first device, the measurement information to a network management device. receiving, by a first device and from a second device, a data stream of frames, where the frames comprise physical layer frames and/or data link layer frames, the first device and the second device being endpoint devices that carry network traffic between a source of the network traffic and a destination of the network traffic; identifying, by the first device, the data stream as a monitored data stream based on information included in payloads of the frames; identifying, by the first device and based on information included in the payloads of the frames, the frames as one or more of: count frames (116, 118) to be used to identify a quantity of dropped frames, or measurement frames to be used to determine latency or jitter; count frames (116, 118) to be used to identify a quantity of dropped frames, or measurement frames to be used to determine latency or jitter; determining, by the first device, measurement information based on the count frames (116, 118) and the measurement frames, the measurement information identifying at least one of: the quantity of dropped frames associated with the data stream, or the latency or jitter associated with the data stream; and the quantity of dropped frames associated with the data stream, or the latency or jitter associated with the data stream; and providing, by the first device, the measurement information to a network management device.
An audio processor for processing an audio signal, the audio processor comprising: a target phase measure determiner for determining a target phase measure for the audio signal in a time frame; a phase error calculator for calculating a phase error using a phase of the audio signal in the time frame and the target phase measure; and a phase corrector configured for correcting the phase of the audio signal in the time frame using the phase error. a target phase measure determiner for determining a target phase measure for the audio signal in a time frame; a phase error calculator for calculating a phase error using a phase of the audio signal in the time frame and the target phase measure; and a phase corrector configured for correcting the phase of the audio signal in the time frame using the phase error.
Method of vulcanizing a green tire, having the following steps: a) placing a green tire to be vulcanized in a vulcanization mold, b) evaluating the temperature progression from the temperature sensor disposed in the cavity of the inner heater, wherein the temperature progression can be used to ascertain an idle time of the vulcanization press, c) calculating an adjustment in the duration for the steam phase of the inner heater when the idle time varies from a defined threshold, d) introducing steam into the inner heater of the vulcanization press and performing the steam phase (24, 25) for the calculated duration, wherein the adjustment of the duration for the steam phase (24, 25) is intended to ensure an optimal input of thermal energy for the vulcanization of the green tire, e) measuring the actual temperature progression with the temperature sensor in the inner heater, f) comparing the actual temperature progression with a target temperature progression for a particular vehicle tire type, g) adjusting the duration for the flexible heating phase of the inner heater, wherein the adjustment of the duration for the heating phase (28, 29) is intended to ensure an optimal input of thermal energy for the vulcanization of the green tire, h) completing the tire vulcanization. a) placing a green tire to be vulcanized in a vulcanization mold, b) evaluating the temperature progression from the temperature sensor disposed in the cavity of the inner heater, wherein the temperature progression can be used to ascertain an idle time of the vulcanization press, c) calculating an adjustment in the duration for the steam phase of the inner heater when the idle time varies from a defined threshold, d) introducing steam into the inner heater of the vulcanization press and performing the steam phase (24, 25) for the calculated duration, wherein the adjustment of the duration for the steam phase (24, 25) is intended to ensure an optimal input of thermal energy for the vulcanization of the green tire, e) measuring the actual temperature progression with the temperature sensor in the inner heater, f) comparing the actual temperature progression with a target temperature progression for a particular vehicle tire type, g) adjusting the duration for the flexible heating phase of the inner heater, wherein the adjustment of the duration for the heating phase (28, 29) is intended to ensure an optimal input of thermal energy for the vulcanization of the green tire, h) completing the tire vulcanization.
A method of metallurgical processing, the method comprising: providing a workpiece that has been formed by additive manufacturing of a nickel-chromium based superalloy, the workpiece having an internal porosity and a microstructure with a columnar grain structure and delta phase; hot isostatically pressing the workpiece to reduce the internal porosity and to at least partially retain the columnar grain structure and the delta phase; and heat treating the workpiece after the hot isostatic pressing to at least partially retain the columnar grain structure and the delta phase, wherein: the hot isostatic pressing includes holding the workpiece under a temperature condition of 1850°F (1010°C) to 1900°F (1038°C) and a pressure condition of 15 ksi (103 MPa) to 25 ksi (172 MPa); wherein the heat treating includes solution heat treating the workpiece under a temperature condition of 1750°F (954°C) to 1850°F (1010°C), followed by aging the workpiece under one or more aging temperature conditions up to 1400°F (760°C); and the nickel-chromium based superalloy has a composition including, by weight: 50-55% Ni + Co, 17-21% Cr, 4.74-5.5% Nb + Ta, 2.8-3.3% Mo, 0.65-1.15 Ti, 0.2-0.8 Al, and a balance Fe and impurities. providing a workpiece that has been formed by additive manufacturing of a nickel-chromium based superalloy, the workpiece having an internal porosity and a microstructure with a columnar grain structure and delta phase; hot isostatically pressing the workpiece to reduce the internal porosity and to at least partially retain the columnar grain structure and the delta phase; and heat treating the workpiece after the hot isostatic pressing to at least partially retain the columnar grain structure and the delta phase, wherein: the hot isostatic pressing includes holding the workpiece under a temperature condition of 1850°F (1010°C) to 1900°F (1038°C) and a pressure condition of 15 ksi (103 MPa) to 25 ksi (172 MPa); wherein the heat treating includes solution heat treating the workpiece under a temperature condition of 1750°F (954°C) to 1850°F (1010°C), followed by aging the workpiece under one or more aging temperature conditions up to 1400°F (760°C); and the nickel-chromium based superalloy has a composition including, by weight: 50-55% Ni + Co, 17-21% Cr, 4.74-5.5% Nb + Ta, 2.8-3.3% Mo, 0.65-1.15 Ti, 0.2-0.8 Al, and a balance Fe and impurities. the hot isostatic pressing includes holding the workpiece under a temperature condition of 1850°F (1010°C) to 1900°F (1038°C) and a pressure condition of 15 ksi (103 MPa) to 25 ksi (172 MPa); wherein the heat treating includes solution heat treating the workpiece under a temperature condition of 1750°F (954°C) to 1850°F (1010°C), followed by aging the workpiece under one or more aging temperature conditions up to 1400°F (760°C); and the nickel-chromium based superalloy has a composition including, by weight: 50-55% Ni + Co, 17-21% Cr, 4.74-5.5% Nb + Ta, 2.8-3.3% Mo, 0.65-1.15 Ti, 0.2-0.8 Al, and a balance Fe and impurities.
A pneumatic tool comprising: a main body unit having a flow path that extends from a rear end of said main body unit toward a front end of said main body unit for guiding inflow of air, and an annular space that surrounds said flow path; a control valve unit disposed at said main body unit for removably blocking said flow path; the pneumatic tool being characterized by: a switch unit including a sleeve member that surrounds said control valve unit and that is movably disposed in said annular space, said sleeve member being movable relative to said main body unit between an open position where said control valve unit is driven to unblock said flow path, and a block position where said control valve unit is driven to block said flow path; and a trigger unit including a trigger member that is disposed on an outer surface of said main body unit and that is operable to move said sleeve member of said switch unit between the open position and the block position. a main body unit having a flow path that extends from a rear end of said main body unit toward a front end of said main body unit for guiding inflow of air, and an annular space that surrounds said flow path; a control valve unit disposed at said main body unit for removably blocking said flow path; the pneumatic tool being characterized by: a switch unit including a sleeve member that surrounds said control valve unit and that is movably disposed in said annular space, said sleeve member being movable relative to said main body unit between an open position where said control valve unit is driven to unblock said flow path, and a block position where said control valve unit is driven to block said flow path; and a trigger unit including a trigger member that is disposed on an outer surface of said main body unit and that is operable to move said sleeve member of said switch unit between the open position and the block position. a switch unit including a sleeve member that surrounds said control valve unit and that is movably disposed in said annular space, said sleeve member being movable relative to said main body unit between an open position where said control valve unit is driven to unblock said flow path, and a block position where said control valve unit is driven to block said flow path; and a trigger unit including a trigger member that is disposed on an outer surface of said main body unit and that is operable to move said sleeve member of said switch unit between the open position and the block position.
A radically curable compound represented by the general formula below where R 1, R 2, and R 3 each independently represent an alkyl group having 1 to 8 carbon atoms; m and n each independently represent an integer of 1 to 4; p represents an integer of 0 to 4; t is 1 or 2; characterized in that each of X, Y, and Z represents an acryloyloxy group or a methacryloyloxy group.
A method of analysis using mass spectrometry and/or ion mobility spectrometry to make a distinction between i) herbicide resistant and herbicide susceptible plant material; ii) drought-stressed and healthy plant material; or iii) virus or fungus-infected and healthy plant material, the method comprising: (a) using a first device to generate smoke, aerosol or vapour from a target plant material, wherein the first device is a rapid evaporation ionization mass spectrometry ("REIMS") device; (b) mass analysing and/or ion mobility analysing said smoke, aerosol or vapour, or ions derived therefrom, in order to obtain spectrometric data; and (c) analysing a spectrometric biomarker within said spectrometric data, wherein said spectrometric biomarker is a phospholipid or phospholipid profile, in order to make said distinction. i) herbicide resistant and herbicide susceptible plant material; ii) drought-stressed and healthy plant material; or iii) virus or fungus-infected and healthy plant material, the method comprising: (a) using a first device to generate smoke, aerosol or vapour from a target plant material, wherein the first device is a rapid evaporation ionization mass spectrometry ("REIMS") device; (b) mass analysing and/or ion mobility analysing said smoke, aerosol or vapour, or ions derived therefrom, in order to obtain spectrometric data; and (c) analysing a spectrometric biomarker within said spectrometric data, (a) using a first device to generate smoke, aerosol or vapour from a target plant material, wherein the first device is a rapid evaporation ionization mass spectrometry ("REIMS") device; (b) mass analysing and/or ion mobility analysing said smoke, aerosol or vapour, or ions derived therefrom, in order to obtain spectrometric data; and (c) analysing a spectrometric biomarker within said spectrometric data, wherein said spectrometric biomarker is a phospholipid or phospholipid profile, in order to make said distinction.
A book protective cover apparatus comprising: cover material; edge adhesive adjacent each side edge of the material; and internal adhesive between the side edges of the web; the cover material is in the form of a web in a roll; the width of the web is sufficient to provide a dust jacket of a book opened transversely across the web; at least some of the internal adhesive is centrally located between the side edges; and the internal adhesive is transparent, characterised in that, the internal adhesive is of the peelable type, and has a peel strength is in the range of 25 N/m to 300 N/m, the internal adhesive is in the form of a longitudinal strip parallel to the side edges. cover material; edge adhesive adjacent each side edge of the material; and internal adhesive between the side edges of the web; the cover material is in the form of a web in a roll; the width of the web is sufficient to provide a dust jacket of a book opened transversely across the web; at least some of the internal adhesive is centrally located between the side edges; and the internal adhesive is transparent, characterised in that, the internal adhesive is of the peelable type, and has a peel strength is in the range of 25 N/m to 300 N/m, the internal adhesive is in the form of a longitudinal strip parallel to the side edges.
An apparatus for forming a three-dimensional article through successively depositing individual layers of powder material that are fused together so as to form the article, said apparatus comprising: at least one high energy beam source for emitting a high energy beam for at least one of heating or fusing said powder material; a deflection source for deflecting the high energy beam on said powder material; a focus lens for focusing said high energy beam on said powder material so as to form a high energy beam spot (230, 510, 520, 530); at least one astigmatism lens; and being characterised by: at least one controller configured to control said at least one astigmatism lens so as to shape the high energy beam spot (230, 510, 520, 530) on said powder layer such that the shape of the high energy beam spot (230, 510, 520, 530) on said layer of powder is longer in a direction parallel to a deflection direction of said high energy beam than in a direction perpendicular to said deflection direction of said high energy beam, and to vary a ratio of a length of said high energy beam spot (230, 510, 520, 530) in said parallel direction and a width of said high energy beam spot (230, 510, 520, 530) in said perpendicular direction as a function of the power of said energy beam on said article. at least one high energy beam source for emitting a high energy beam for at least one of heating or fusing said powder material; a deflection source for deflecting the high energy beam on said powder material; a focus lens for focusing said high energy beam on said powder material so as to form a high energy beam spot (230, 510, 520, 530); at least one astigmatism lens; and being characterised by: at least one controller configured to control said at least one astigmatism lens so as to shape the high energy beam spot (230, 510, 520, 530) on said powder layer such that the shape of the high energy beam spot (230, 510, 520, 530) on said layer of powder is longer in a direction parallel to a deflection direction of said high energy beam than in a direction perpendicular to said deflection direction of said high energy beam, and to vary a ratio of a length of said high energy beam spot (230, 510, 520, 530) in said parallel direction and a width of said high energy beam spot (230, 510, 520, 530) in said perpendicular direction as a function of the power of said energy beam on said article.
An integrated circuit comprising: a latch configured to provide a first digital signal having a first voltage range determined by a first supply voltage and an intermediate voltage, wherein the latch comprises first and second nodes (N1, N2); a latch driver coupled to the latch and configured to pull down the first or second node to write a logic value to the latch for a predetermined time duration and to turn off after the predetermined time duration, wherein the logic value is based upon a digital input signal; and a driver coupled to the latch and configured to receive the first digital signal and a second digital signal and to provide a digital output signal, wherein the second digital signal has a second voltage range determined by a second supply voltage and circuit ground, wherein the digital output signal has a third voltage range determined by the first supply voltage and circuit ground, and wherein the first supply voltage is higher than the second supply voltage, and wherein the intermediate voltage is higher than or equal to the second supply voltage. a latch configured to provide a first digital signal having a first voltage range determined by a first supply voltage and an intermediate voltage, wherein the latch comprises first and second nodes (N1, N2); a latch driver coupled to the latch and configured to pull down the first or second node to write a logic value to the latch for a predetermined time duration and to turn off after the predetermined time duration, wherein the logic value is based upon a digital input signal; and a driver coupled to the latch and configured to receive the first digital signal and a second digital signal and to provide a digital output signal, wherein the second digital signal has a second voltage range determined by a second supply voltage and circuit ground, wherein the digital output signal has a third voltage range determined by the first supply voltage and circuit ground, and wherein the first supply voltage is higher than the second supply voltage, and wherein the intermediate voltage is higher than or equal to the second supply voltage.