mhurhangee/ep-ind-claims huggingface dataset:
A redox flow battery comprising: - a hydrogen gas tank; - an electrolyte tank containing an aqueous electrolyte; - at least one cell having a first half-cell having a first electrode, a second half-cell having a second electrode, and a separator membrane arranged between the first and second half-cell; - a humidifier apt to fluidly connect said hydrogen tank to the inlet of said first half cell; - a gas separator apt to fludly connect said hydrogen tank to the outlet of said first half cell; and - a valve apt to operate in a first and in a second mode, wherein in said first mode said valve is apt to fluidly connect the outlet of the first half cell to said gas separator and in said second mode said valve is apt to fluidly connect the outlet of the first half cell to said humidifier; wherein the aqueous electrolyte comprises a phosphate buffer having a working pH range of about 5.8 to about 10 and at least one iodine-containing species selected from the group consisting of: iodine, a triiodide, an iodide; such that the operation of the redox flow battery is based on hydrogen gas and the iodine-containing species selected from said group. - a hydrogen gas tank; - an electrolyte tank containing an aqueous electrolyte; - at least one cell having a first half-cell having a first electrode, a second half-cell having a second electrode, and a separator membrane arranged between the first and second half-cell; - a humidifier apt to fluidly connect said hydrogen tank to the inlet of said first half cell; - a gas separator apt to fludly connect said hydrogen tank to the outlet of said first half cell; and - a valve apt to operate in a first and in a second mode, wherein in said first mode said valve is apt to fluidly connect the outlet of the first half cell to said gas separator and in said second mode said valve is apt to fluidly connect the outlet of the first half cell to said humidifier; wherein the aqueous electrolyte comprises a phosphate buffer having a working pH range of about 5.8 to about 10 and at least one iodine-containing species selected from the group consisting of: iodine, a triiodide, an iodide; such that the operation of the redox flow battery is based on hydrogen gas and the iodine-containing species selected from said group.
A system for the asymmetric rotation of a metered dispenser comprising: (a) an asymmetric rotation mixer having a rotation drive, the asymmetric rotation mixer being a dual axis rotation mixer having a hatch and a mixing chamber for conducting asymmetric rotation mixing; (b) a basket engaged with the rotation drive of the asymmetric rotation mixer and configured to receive rotational force about a primary axis; (c) a metered dispenser having a body and two opposing ends (36, 38); (d) a mixer catch having a catch body configured for engagement within the basket of the asymmetric rotation mixer to receive asymmetric rotation, the catch body formed complimentary to the basket to maintain relative position about the primary axis of asymmetric rotation and to rotate about a secondary axis; and (e) a cavity defined in the catch body, the cavity being open on a top end face of said catch body and further configured to receive the metered dispenser such that both opposing ends (36, 38) are secured within said cavity, and wherein the cavity is further configured to maintain the metered dispenser stationary relative to the catch body and defining a longitudinal dimension (line L) corresponding to the metered dispenser, wherein the longitudinal dimension extends along the top face of the catch body; wherein the primary axis is vertical and the longitudinal dimension (line L) of the cavity is oriented at an angle (β) from horizontal, the angle (β) being within a range of about 20 degrees to about 70 degrees. (a) an asymmetric rotation mixer having a rotation drive, the asymmetric rotation mixer being a dual axis rotation mixer having a hatch and a mixing chamber for conducting asymmetric rotation mixing; (b) a basket engaged with the rotation drive of the asymmetric rotation mixer and configured to receive rotational force about a primary axis; (c) a metered dispenser having a body and two opposing ends (36, 38); (d) a mixer catch having a catch body configured for engagement within the basket of the asymmetric rotation mixer to receive asymmetric rotation, the catch body formed complimentary to the basket to maintain relative position about the primary axis of asymmetric rotation and to rotate about a secondary axis; and (e) a cavity defined in the catch body, the cavity being open on a top end face of said catch body and further configured to receive the metered dispenser such that both opposing ends (36, 38) are secured within said cavity, and wherein the cavity is further configured to maintain the metered dispenser stationary relative to the catch body and defining a longitudinal dimension (line L) corresponding to the metered dispenser, wherein the longitudinal dimension extends along the top face of the catch body;
A method of mitigating interference at a user equipment in a wireless communication system, the method comprising: receiving, at the user equipment, a downlink channel in the presence of an interfering signal; obtaining, at the user equipment, information defining characteristics of the interfering signal from a first eNodeB transmitting the downlink channel, the information relating to other signals transmitted by at least one of the first eNodeB and neighbouring eNodeBs (operation 304); and suppressing interference caused by the interfering signal when receiving the downlink channel based an the information defining characteristics of the interfering signal (operation 306); wherein information defining characteristics of the interfering signal comprises at least one of: a modulation format, a presence and characteristics of interference, a transmission scheme, one or more reference symbols of the interfering signal, and a modulation or coding scheme of the interfering signal. receiving, at the user equipment, a downlink channel in the presence of an interfering signal; obtaining, at the user equipment, information defining characteristics of the interfering signal from a first eNodeB transmitting the downlink channel, the information relating to other signals transmitted by at least one of the first eNodeB and neighbouring eNodeBs (operation 304); and suppressing interference caused by the interfering signal when receiving the downlink channel based an the information defining characteristics of the interfering signal (operation 306); wherein information defining characteristics of the interfering signal comprises at least one of: a modulation format, a presence and characteristics of interference, a transmission scheme, one or more reference symbols of the interfering signal, and a modulation or coding scheme of the interfering signal.
A charging pad for receiving power wirelessly, comprising: a power antenna assembly configured to receive wireless power and charge a battery based on the received wireless power, the power antenna assembly comprising: a first coil wound in a first direction, a second coil coplanar with the first coil and wound in a second direction opposite the first direction; and a third coil at least partially overlapping the first coil and at least partially overlapping the second coil; a ferrite layer, wirelessly coupled to the power antenna assembly, defining a gap extending through the ferrite layer; and a shielding layer protruding into the gap of the ferrite layer and defining a notch, the notch also protruding into the gap of the ferrite layer. a power antenna assembly configured to receive wireless power and charge a battery based on the received wireless power, the power antenna assembly comprising: a first coil wound in a first direction, a second coil coplanar with the first coil and wound in a second direction opposite the first direction; and a third coil at least partially overlapping the first coil and at least partially overlapping the second coil; a first coil wound in a first direction, a second coil coplanar with the first coil and wound in a second direction opposite the first direction; and a third coil at least partially overlapping the first coil and at least partially overlapping the second coil; a ferrite layer, wirelessly coupled to the power antenna assembly, defining a gap extending through the ferrite layer; and a shielding layer protruding into the gap of the ferrite layer and defining a notch, the notch also protruding into the gap of the ferrite layer.
A method for metering granular material, such as seeds, fertiliser, or the like, in particular, within a distribution unit or sowing unit of a distribution machine or sowing machine, in which the granular material being carried and conveyed by an airflow is directed through a feed tube into a metering unit, there guided along an approximately circular arc path and tangentially directed into an outlet tube (44, 50) adjoining the metering unit and running, at least in sections, slightly curved, wherein the granular material, which is approximately equidistantly and/or evenly metered and conveyed in an outer area of the curved outlet tube (44, 50), is carried by the airflow being discharged and at least partly exiting the metering unit through the outlet tube (44, 50), the granular material is guided within the metering unit with mechanical support and/or under at least partial separation from the carrying airflow (26, 36) along an inner cover surface or inner wall, wherein approximately equal distances from one another are imposed on the individual grains approaching the outlet tube (44, 50), characterised in that the airflow (26, 36, 46) being guided through the outlet tube (44, 50) and carrying and conveying the granular material, which is conveyed approximately equidistantly, is accelerated within the metering unit.
A library of samples in droplets in an emulsion, wherein each droplet comprises: a reference component comprising a fluorescent reference spectroscopic substance, wherein each droplet contains the same reference component, a sample comprising a molecule of interest, wherein the molecule of interest is one or more oligonucleotide probe; and one or more sample fluorescent spectroscopic substances, wherein a combination of intensity of sample fluorescent spectroscopic substances and identity of sample fluorescent spectroscopic substances provides a barcode to identify the one or more oligonucleotide probe; wherein the reference spectroscopic substance and the one or more sample spectroscopic substances are uniquely identifiable, and wherein the library of samples comprises three sample fluorescent spectroscopic substances. a reference component comprising a fluorescent reference spectroscopic substance, wherein each droplet contains the same reference component, a sample comprising a molecule of interest, wherein the molecule of interest is one or more oligonucleotide probe; and one or more sample fluorescent spectroscopic substances, wherein a combination of intensity of sample fluorescent spectroscopic substances and identity of sample fluorescent spectroscopic substances provides a barcode to identify the one or more oligonucleotide probe; wherein the reference spectroscopic substance and the one or more sample spectroscopic substances are uniquely identifiable, and wherein the library of samples comprises three sample fluorescent spectroscopic substances.
Device with an x-ray source having an x-ray screen unit and a detector for creating partial x-ray images (RBn-x,..., RBn,..., RBn+y), wherein the x-ray screen unit having a first and/or second semi-transparent collimator (ERB, ZRB) can be actuated when partial x-ray images (RBn-x,..., RBn,..., RBn+y) of a panoramic x-ray image are created such that when partial x-ray images (RBn-x,..., RBn,..., RBn+y) are created for a panoramic x-ray recording, the first and/or second semi-transparent collimator (ERB, ZRB) are moved into the screen opening of the x-ray screen unit such that at least parts of the overlapping areas of partial x-ray images (RBn-x,..., RBn,...,RBn+y) to be joined to one another can be created using a reduced x-ray dose, wherein the width of an overlapping area (ÜB) between two adjoining partial x-ray images (RBn-1, RBn; RBn, RBn+1) can be predetermined.
A method for transmitting data by a first station, STA, in a wireless local area network, WLAN, system, the method comprising: configuring a high efficiency extended range single user physical protocol data unit, HE ER SU PPDU for transmission of the data, wherein a high efficiency signal A, HE-SIG A, field of the HE ER SU PPDU is repeated; and transmitting the HE ER SU PPDU to a second STA in a resource unit, RU, of only one of a first type and a second type among the first type, the second type, a third type and a fourth type within a 20-MHz bandwidth, the RU of the third type and the fourth type are not used, and a bandwidth, BW, field of the HE-SIG A field of the HE ER SU PPDU indicates whether the HE ER SU PPDU uses the RU of the first type or the second type, the first type having a size of 106 tones, the second type having a size of 242 tones, the third type having a size of 26 tones and the fourth type having a size of 52 tones, wherein the BW field of the HE-SIG A field is used to indicate a transmission bandwidth among bandwidths being multiples of 20MHz in case of transmission of a high efficiency single user physical protocol data unit, HE SU PPDU, and wherein, based on the HE ER SU PPDU being transmitted in the RU of the first type, the HE ER SU PPDU is transmitted in an RU of the first type at a fixed position in a primary 20-MHz channel. configuring a high efficiency extended range single user physical protocol data unit, HE ER SU PPDU for transmission of the data, wherein a high efficiency signal A, HE-SIG A, field of the HE ER SU PPDU is repeated; and transmitting the HE ER SU PPDU to a second STA in a resource unit, RU, of only one of a first type and a second type among the first type, the second type, a third type and a fourth type within a 20-MHz bandwidth, the RU of the third type and the fourth type are not used, and a bandwidth, BW, field of the HE-SIG A field of the HE ER SU PPDU indicates whether the HE ER SU PPDU uses the RU of the first type or the second type, the first type having a size of 106 tones, the second type having a size of 242 tones, the third type having a size of 26 tones and the fourth type having a size of 52 tones, wherein the BW field of the HE-SIG A field is used to indicate a transmission bandwidth among bandwidths being multiples of 20MHz in case of transmission of a high efficiency single user physical protocol data unit, HE SU PPDU, and wherein, based on the HE ER SU PPDU being transmitted in the RU of the first type, the HE ER SU PPDU is transmitted in an RU of the first type at a fixed position in a primary 20-MHz channel.
A component detection device, which is installable on component processing means which performs a predetermined operation to a conductive component (1, 61) interposed between one conductive member (8, 10, 12; 66) and another conductive member (27, 28, 21; 67), the component detection device comprising a detection circuit for distinguishing between the conductive component (1, 61) and a conductive foreign matter (p) interposed between the one conductive member (8, 10, 12; 66) and the another conductive member (27, 28, 21; 67), the detection circuit being electrically connected between the one conductive member (8, 10, 12; 66) and the another conductive member (27, 28, 21; 67), characterised in that the detection circuit comprises: a reference voltage generating circuit section for generating a reference voltage based on an input voltage; a voltage comparing circuit section for comparing between the reference voltage and a detection voltage input from between the one conductive member (8, 10, 12; 66) and the another conductive member (27, 28, 21; 67); and a sensitivity adjusting circuit section for adjusting the detection voltage wherein the sensitivity adjusting circuit section is configured such that, when the conductive component (1, 61) is interposed between the one conductive member (8, 10, 12; 66) and the another conductive member (27, 28, 21; 67), the detection voltage is equal to or smaller than the reference voltage, and when the conductive foreign matter (p) is interposed between the one conductive member (8, 10, 12, 66) and the another conductive member (27, 28, 21; 67), the detection voltage is larger than the reference voltage. a reference voltage generating circuit section for generating a reference voltage based on an input voltage; a voltage comparing circuit section for comparing between the reference voltage and a detection voltage input from between the one conductive member (8, 10, 12; 66) and the another conductive member (27, 28, 21; 67); and a sensitivity adjusting circuit section for adjusting the detection voltage wherein the sensitivity adjusting circuit section is configured such that, when the conductive component (1, 61) is interposed between the one conductive member (8, 10, 12; 66) and the another conductive member (27, 28, 21; 67), the detection voltage is equal to or smaller than the reference voltage, and when the conductive foreign matter (p) is interposed between the one conductive member (8, 10, 12, 66) and the another conductive member (27, 28, 21; 67), the detection voltage is larger than the reference voltage.
A process for producing methanol from a synthesis gas containing hydrogen and carbon oxides, wherein the synthesis gas is passed through a first, water-cooled reactor in which a part of the carbon oxides is catalytically converted to methanol, wherein the resulting mixture containing synthesis gas and methanol vapor is supplied to a second, gas-cooled reactor in which a further part of the carbon oxides is converted to methanol, wherein methanol is separated from the synthesis gas and wherein synthesis gas is recirculated to the first reactor, characterized in that the cooling gas flows through the second reactor co-current to the mixture withdrawn from the first reactor and that the cooling gas is introduced into the second reactor with a temperature of 100 to 120 °C.
A process for producing BTX comprising: (a) contacting a feedstream comprising C5-C12 hydrocarbons in the presence of hydrogen with a reforming catalyst to produce a reformed product stream, wherein the reforming catalyst comprises a hydrogenation metal and a support of an amorphous alumina, (b) contacting the reformed product stream in the presence of hydrogen with a hydrocracking catalyst to produce a hydrocracking product stream comprising BTX, wherein the hydrocracking catalyst comprises a hydrogenation metal and a zeolite and (c) separating the BTX from the hydrocracking product stream, wherein the hydrocracking catalyst comprises 0.01-1 wt%, preferably 0.01-0.5 wt%, of the hydrogenation metal in relation to the total catalyst weight and the zeolite has a pore size of 5-8 Å and a silica (SiO 2) to alumina (Al2O3) molar ratio of 5-120, preferably 30-120, wherein step (b) or steps (a) and (b) are performed at a temperature of 425-580 °C, a pressure of 300-5000 kPa gauge and a Weight Hourly Space Velocity of 0.1-15 h -1, preferably 0.1-10 h -1, wherein steps (a) and (b) are performed in a single reactor, wherein the reactor has a first catalyst layer comprising the reforming catalyst and a second catalyst layer comprising the hydrocracking catalyst, wherein a space of an inert layer is present between the first catalyst layer and the second catalyst layer or the first catalyst layer is in contact with the second catalyst layer and wherein the second catalyst layer consists of the hydrocracking catalyst. (a) contacting a feedstream comprising C5-C12 hydrocarbons in the presence of hydrogen with a reforming catalyst to produce a reformed product stream, wherein the reforming catalyst comprises a hydrogenation metal and a support of an amorphous alumina, (b) contacting the reformed product stream in the presence of hydrogen with a hydrocracking catalyst to produce a hydrocracking product stream comprising BTX, wherein the hydrocracking catalyst comprises a hydrogenation metal and a zeolite and (c) separating the BTX from the hydrocracking product stream,
Composition comprising the following components: from 50 to 99.5% by weight of at least one lactam from 0.1 to 10% by weight of at least one catalyst from 0.1 to 5% by weight of an activator from the group of the isocyanates, anhydrides, acyl halides, reaction products of these with, and mixtures of these from 0.25 to 45% by weight of at least one non-functionalized random styrene-butadiene copolymer which comprises no functional groups having heteroatoms, and from 0.05 to 25% by weight of at least one hydroxy-terminated rubber, where the % by weight data are based on components to and the total here is 100% by weight. from 50 to 99.5% by weight of at least one lactam from 0.1 to 10% by weight of at least one catalyst from 0.1 to 5% by weight of an activator from the group of the isocyanates, anhydrides, acyl halides, reaction products of these with, and mixtures of these from 0.25 to 45% by weight of at least one non-functionalized random styrene-butadiene copolymer which comprises no functional groups having heteroatoms, and from 0.05 to 25% by weight of at least one hydroxy-terminated rubber,
A luminaire for illuminating a remote object comprising: a cavity having a reflective base surface and reflective side walls; a plurality of light emitting diodes (LEDs) affixed within the cavity; and the cavity having a light output surface, characterized in that, the output surface of the cavity is reflective, is opposite to the reflective base surface and contains a plurality of light emitting holes, there being more holes than LEDs, wherein the holes make up at least 10 % of a total surface area of the top surface of the cavity, wherein light emitted by the luminaire in the vicinity of substantially each hole has a controlled dispersion angle of between about 45-90 degrees, as measured by the angle where a light brightness is one-half of a peak brightness within the angle, the cavity having a depth of less than 5 cm, wherein light emitted by the luminaire provides a substantially uniform illumination of a flat object a particular distance away from the flat reflective light output surface of the luminaire. a cavity having a reflective base surface and reflective side walls; a plurality of light emitting diodes (LEDs) affixed within the cavity; and the cavity having a light output surface, characterized in that, the output surface of the cavity is reflective, is opposite to the reflective base surface and contains a plurality of light emitting holes, there being more holes than LEDs, wherein the holes make up at least 10 % of a total surface area of the top surface of the cavity, wherein light emitted by the luminaire in the vicinity of substantially each hole has a controlled dispersion angle of between about 45-90 degrees, as measured by the angle where a light brightness is one-half of a peak brightness within the angle, the cavity having a depth of less than 5 cm, wherein light emitted by the luminaire provides a substantially uniform illumination of a flat object a particular distance away from the flat reflective light output surface of the luminaire.