mhurhangee/ep-ind-claims huggingface dataset:
A radio frequency, RF, front-end configured to share transmissions and receptions of Bluetooth signals and WLAN signals, the RF front-end comprising: a first path adapted to be coupled between an antenna and a transceiver, the first path being dedicated to transmissions only of the WLAN signals; a second path adapted to be coupled between the antenna and the transceiver, the second path being dedicated to simultaneous receptions of the Bluetooth signals and the WLAN signals, the second path including an amplifier coupled to the antenna, the amplifier being configured to at least one of (i) be switched off when the second path is not selected, or (ii) pass the received Bluetooth signals and the received WLAN signals without amplification when the second path is selected but no gain is required; a third path adapted to be coupled between the antenna and the transceiver, the third path being dedicated to transmissions only of the Bluetooth signals when a WLAN link is (i) active and (ii) not in a power save state; and transmissions and receptions of the Bluetooth signals when the WLAN link is active and in a power save state, and when the WLAN link is inactive. a first path adapted to be coupled between an antenna and a transceiver, the first path being dedicated to transmissions only of the WLAN signals; a second path adapted to be coupled between the antenna and the transceiver, the second path being dedicated to simultaneous receptions of the Bluetooth signals and the WLAN signals, the second path including an amplifier coupled to the antenna, the amplifier being configured to at least one of (i) be switched off when the second path is not selected, or (ii) pass the received Bluetooth signals and the received WLAN signals without amplification when the second path is selected but no gain is required; the second path including an amplifier coupled to the antenna, the amplifier being configured to at least one of (i) be switched off when the second path is not selected, or (ii) pass the received Bluetooth signals and the received WLAN signals without amplification when the second path is selected but no gain is required; a third path adapted to be coupled between the antenna and the transceiver, the third path being dedicated to transmissions only of the Bluetooth signals when a WLAN link is (i) active and (ii) not in a power save state; and transmissions and receptions of the Bluetooth signals when the WLAN link is active and in a power save state, and when the WLAN link is inactive. transmissions only of the Bluetooth signals when a WLAN link is (i) active and (ii) not in a power save state; and transmissions and receptions of the Bluetooth signals when the WLAN link is active and in a power save state, and when the WLAN link is inactive.
A multi-layer sliding member comprising: a backing plate; a porous sintered metal layer integrally bonded to one surface of the backing plate; and a coating layer filling pores of the porous sintered metal layer, coating on a surface of the porous sintered metal layer, and formed from a synthetic resin composition, wherein the synthetic resin composition contains a tetrafluoroethylene resin as a main component, the multi-layer sliding member is characterized in that the synthetic resin further contains, as additives, 5 to 30% by mass of a thermotropic liquid crystal polymer, 5 to 12% by mass of a polyarylketone resin, 5 to 12% by mass of a melt moldable fluororesin, and 1 to 5% by mass of a polyimide resin. a backing plate; a porous sintered metal layer integrally bonded to one surface of the backing plate; and a coating layer filling pores of the porous sintered metal layer, coating on a surface of the porous sintered metal layer, and formed from a synthetic resin composition, wherein the synthetic resin composition contains a tetrafluoroethylene resin as a main component, the multi-layer sliding member is characterized in that the synthetic resin further contains, as additives, 5 to 30% by mass of a thermotropic liquid crystal polymer, 5 to 12% by mass of a polyarylketone resin, 5 to 12% by mass of a melt moldable fluororesin, and 1 to 5% by mass of a polyimide resin.
A package comprising: an integrated circuit die having a first terminal and a second terminal; a first package lead coupled to the first terminal; a second package lead coupled to the second terminal; and an impedance matching network coupled to the second terminal and comprising a first inductor and a first capacitor, wherein the first capacitor is an integrated DC decoupling capacitor arranged on the integrated circuit die; wherein the first inductor comprises first bond wire connections coupled between the second terminal and a first bond pad on the die, and second bond wire connections coupled between the first bond pad and a second bond pad coupled to the first capacitor; wherein the first bond wire connections and the second bond wire connections are connected via the first bond pad; wherein the first bond pad is arranged in between the first package lead and the second terminal; wherein the first bond wire connections and the second bond wire connections are adjacently arranged and in that the first inductor is a shunt inductor. an integrated circuit die having a first terminal and a second terminal; a first package lead coupled to the first terminal; a second package lead coupled to the second terminal; and an impedance matching network coupled to the second terminal and comprising a first inductor and a first capacitor, wherein the first capacitor is an integrated DC decoupling capacitor arranged on the integrated circuit die; wherein the first inductor comprises first bond wire connections coupled between the second terminal and a first bond pad on the die, and second bond wire connections coupled between the first bond pad and a second bond pad coupled to the first capacitor; wherein the first bond wire connections and the second bond wire connections are connected via the first bond pad; wherein the first bond pad is arranged in between the first package lead and the second terminal; wherein the first bond wire connections and the second bond wire connections are adjacently arranged and in that the first inductor is a shunt inductor.
A method of applying a coat comprising a first layer, which can be produced from one or several UV-hardening inks, and a second layer, which can be produced from one or several UV-hardening clear varnishes, on a surface comprising the following steps: (a) imprinting of at least one UV-hardening ink by means of an inkjet printer (b) pre-gellating or freezing of the inks by irradiation with light including wavelengths of 250 to 450 nm, (c) applying of at least one UV-hardening varnish or top coat, (d) curing of the inks and of the clear varnishes or top coats by irradiation with UV-light. (a) imprinting of at least one UV-hardening ink by means of an inkjet printer (b) pre-gellating or freezing of the inks by irradiation with light including wavelengths of 250 to 450 nm, (c) applying of at least one UV-hardening varnish or top coat, (d) curing of the inks and of the clear varnishes or top coats by irradiation with UV-light.
A heat exchanger with improved exhaust gas discharge device, comprising a container body which accommodates internally at least one coiled duct, which is adapted to produce the flow inside it of at least one fluid to be heated and delimits externally a combustion chamber of a combustible mixture that is burned in a burner cylinder in order to heat said at least one fluid to be heated with the burned gases produced by the combustion of said combustible mixture, the heat exchanger further comprising at least one conveyance element arranged for conveying said burned gases produced by the combustion of said combustible mixture in order to direct said burned gases into a discharge tube, said discharge tube being open at the top for discharging said burned gases above the heat exchanger, the conveyance element being arranged such that the burned gases can move inside the conveyance element by way of its lower opening, and can then flow outside by way of the discharge tube, characterized in that said discharge tube is accommodated within said container body and said combustion chamber and coaxial to and within said burner cylinder.
Method for carrying out a rinsing program in an automatic rinsing machine, in which a circulating pump conveys rinsing fluid to at least one rotating spray arm by means of which the rinsing fluid is applied to the washware to be cleaned, the rinsing program having a pulse rinsing phase in which normal operating portions, in which the circulating pump is operated at a nominal rotational speed (U N), alternate multiple times with pulse operating portions, in which the circulating pump is operated at a rotational speed (U I) that is higher than the nominal rotational speed (U N), characterised in that the duration of pulse operating portions is measured in each case such that the spray arm carries out at least one full rotation in a pulse operating portion before the rotational speed is lowered again to the nominal rotational speed (U N).
An infusion device comprising: an actuation arrangement operable to deliver fluid to a body of a user; a data storage element; a communications interface to receive sensor glucose measurement values indicative of a glucose level in the body of the user influenced by the fluid; and a control module coupled to the actuation arrangement, to the data storage element, and to the communications interface; wherein the control module is configured: - to operate the actuation arrangement; - to deliver a bolus amount of the fluid influenced by an initial value for a carbohydrate ratio stored by the data storage element, - to identify a residual sensor glucose value based at least in part on one or more of the sensor glucose measurement values after delivery of the bolus amount and an initial sensor glucose measurement value corresponding to delivery of the bolus amount, - to determine an updated value for the carbohydrate ratio by adjusting the initial value to compensate for the residual sensor glucose value, and - to store the updated value for the carbohydrate ratio in the data storage element. an actuation arrangement operable to deliver fluid to a body of a user; a data storage element; a communications interface to receive sensor glucose measurement values indicative of a glucose level in the body of the user influenced by the fluid; and a control module coupled to the actuation arrangement, to the data storage element, and to the communications interface; wherein the control module is configured: - to operate the actuation arrangement; - to deliver a bolus amount of the fluid influenced by an initial value for a carbohydrate ratio stored by the data storage element, - to identify a residual sensor glucose value based at least in part on one or more of the sensor glucose measurement values after delivery of the bolus amount and an initial sensor glucose measurement value corresponding to delivery of the bolus amount, - to determine an updated value for the carbohydrate ratio by adjusting the initial value to compensate for the residual sensor glucose value, and - to store the updated value for the carbohydrate ratio in the data storage element. - to operate the actuation arrangement; - to deliver a bolus amount of the fluid influenced by an initial value for a carbohydrate ratio stored by the data storage element, - to identify a residual sensor glucose value based at least in part on one or more of the sensor glucose measurement values after delivery of the bolus amount and an initial sensor glucose measurement value corresponding to delivery of the bolus amount, - to determine an updated value for the carbohydrate ratio by adjusting the initial value to compensate for the residual sensor glucose value, and - to store the updated value for the carbohydrate ratio in the data storage element.
A method for detecting or predicting abnormal conditions associated with a process plant, the method comprising: receiving statistical data stored in a database, the statistical data generated by statistical data collection blocks implemented by a plurality of field devices associated with the process plant, each statistical data collection block collecting process variable data and performing statistical processing on the collected process variable data to determine the statistical data; configuring an analysis engine to detect or predict at least one abnormal condition associated with the process plant based at least on collective statistical data from a plurality of the statistical data collection blocks in the plurality of field devices; providing the statistical data to the analysis engine; and using the analysis engine to determine if an action should be taken. receiving statistical data stored in a database, the statistical data generated by statistical data collection blocks implemented by a plurality of field devices associated with the process plant, each statistical data collection block collecting process variable data and performing statistical processing on the collected process variable data to determine the statistical data; configuring an analysis engine to detect or predict at least one abnormal condition associated with the process plant based at least on collective statistical data from a plurality of the statistical data collection blocks in the plurality of field devices; providing the statistical data to the analysis engine; and using the analysis engine to determine if an action should be taken.
A tube rack apparatus, comprising: a bottom portion having a first length; a plurality of indents formed in the bottom portion and configured to receive tubes and keep tubes straight and restrict the movement of a bottom of the tubes, the plurality of indents exposing a lower surface of the bottom portion; a plurality of legs (120a, 120b) extending from the bottom portion; a top portion having a second length longer than the first length; a plurality of openings formed in the top portion, the plurality of openings aligned with the plurality of indents; and at least one handle member extending from a first end of the top portion, characterized in that the plurality of legs (120a, 120b) include slanted legs configured to fit into angled drawers, wherein the slanted legs extend between the bottom portion and the top portion forming an open space that is configured to stack multiple tube racks. a bottom portion having a first length; a plurality of indents formed in the bottom portion and configured to receive tubes and keep tubes straight and restrict the movement of a bottom of the tubes, the plurality of indents exposing a lower surface of the bottom portion; a plurality of legs (120a, 120b) extending from the bottom portion; a top portion having a second length longer than the first length; a plurality of openings formed in the top portion, the plurality of openings aligned with the plurality of indents; and at least one handle member extending from a first end of the top portion, characterized in that the plurality of legs (120a, 120b) include slanted legs configured to fit into angled drawers, wherein the slanted legs extend between the bottom portion and the top portion forming an open space that is configured to stack multiple tube racks.
A connector comprising: a pair of conductive terminals that each is adapted to come into contact with a counterpart terminal; and an insulating housing, the insulating housing formed so as to extend along an axial direction and comprising a cover and a holding member, wherein each terminal includes a terminal connection portion that is adapted to be electrically connected to the counterpart terminal, a wire connection portion that is adapted to be electrically connected to a wire, and a tubular portion that is located between the terminal connection portion and the wire connection portion and is formed in a tubular shape having a space portion, a pair of temperature sensors each detecting a temperature of the respective terminal and each disposed in the space portion of said respective terminal; wherein the wire connection portion is a portion that is located on a rear side of the axial direction and is exposed to outside from the cover; and wherein each tubular portion is accommodated inside the housing in a state where the terminal is held by the housing, characterized in that each temperature sensor is attached to the holding member. a pair of conductive terminals that each is adapted to come into contact with a counterpart terminal; and an insulating housing, the insulating housing formed so as to extend along an axial direction and comprising a cover and a holding member, wherein each terminal includes a terminal connection portion that is adapted to be electrically connected to the counterpart terminal, a wire connection portion that is adapted to be electrically connected to a wire, and a tubular portion that is located between the terminal connection portion and the wire connection portion and is formed in a tubular shape having a space portion, a pair of temperature sensors each detecting a temperature of the respective terminal and each disposed in the space portion of said respective terminal; wherein the wire connection portion is a portion that is located on a rear side of the axial direction and is exposed to outside from the cover; and wherein each tubular portion is accommodated inside the housing in a state where the terminal is held by the housing, characterized in that each temperature sensor is attached to the holding member.
A cell comprising a first expression cassette, which comprises a DNA sequence encoding Renilla Luciferase (RLuc) and derivatives there of as a reporter protein, operatively linked to human p21 gene promoter; a second expression cassette which comprises a DNA sequence encoding humanized Firefly Luciferase (hFLuc) and derivatives thereof as a reporter protein, operatively linked to hamster GADD 153 gene promoter; and a third expression cassette which compris es a DNA sequence encoding beta galactosidase (Bgal) and derivatives thereof as reporter protein, operatively linked to p53 response element and polyoma virus UTR as promoter.
Microwave porator for introducing macromolecules into biological cells, comprising the following features: a supply line for a microwave field; a container for the biological cells and the macromolecules; and an electrode structure having at least two electrodes (131, 132), which is formed at least in part in the container and is or can be connected to the supply line in order to expose the biological cells to the microwave field, wherein the electrode structure extends along an edge or in an interior of the container and has a shape, such that a non-homogeneous microwave field is formed between the at least two electrodes (131, 132), 1) wherein a gap is formed between the at least two electrodes, which gap 1a) extends in a meandering manner, or 1b) is formed in such a way that one of the electrodes is designed to taper monotonically within the other of the electrodes into a tip, or 2) wherein the at least two electrodes (131, 132) between which the non-homogeneous microwave field is formed extend into the interior of the container in order to be enclosed in the interior by the biological cells and/or the macromolecules. a supply line for a microwave field; a container for the biological cells and the macromolecules; and an electrode structure having at least two electrodes (131, 132), which is formed at least in part in the container and is or can be connected to the supply line in order to expose the biological cells to the microwave field, wherein the electrode structure extends along an edge or in an interior of the container and has a shape, such that a non-homogeneous microwave field is formed between the at least two electrodes (131, 132), 1) wherein a gap is formed between the at least two electrodes, which gap 1a) extends in a meandering manner, or 1b) is formed in such a way that one of the electrodes is designed to taper monotonically within the other of the electrodes into a tip, or 2) wherein the at least two electrodes (131, 132) between which the non-homogeneous microwave field is formed extend into the interior of the container in order to be enclosed in the interior by the biological cells and/or the macromolecules.
A continuous method of production of single walled carbon nanotubes, comprising the steps of: continuously providing substrate particles; providing on substrate particles a transition metal oxalate or formate which is decomposable to yield the transition metal under a non-reducing atmosphere permitting carbon nanotube formation; fluidising the substrate particles with a flow of gaseous carbon source; heating the transition metal oxalate or formate on the substrate particles; before, during or after said contacting step, decomposing the transition metal oxalate or formate to yield the transition metal on the substrate particles without calcination and reduction steps; forming single walled carbon nanotubes by decomposition of the carbon source catalysed by the transition metal; and collecting the single walled carbon nanotubes formed by elution. continuously providing substrate particles; providing on substrate particles a transition metal oxalate or formate which is decomposable to yield the transition metal under a non-reducing atmosphere permitting carbon nanotube formation; fluidising the substrate particles with a flow of gaseous carbon source; heating the transition metal oxalate or formate on the substrate particles; before, during or after said contacting step, decomposing the transition metal oxalate or formate to yield the transition metal on the substrate particles without calcination and reduction steps; forming single walled carbon nanotubes by decomposition of the carbon source catalysed by the transition metal; and collecting the single walled carbon nanotubes formed by elution.