mhurhangee/ep-ind-claims huggingface dataset:
A method for distributing messages to an electronic device, said method comprising: determining a correlation of data relating to a user of said device from analyzing movement data and a status indicator relating to said device to provide a state of movement of said device by comparing said movement data against a threshold to determine a speed of said device; determining if said device is in a vehicle; if said device is determined to be in said vehicle, determining whether said device is associated with a driver of said vehicle or a passenger in said vehicle; selecting an advertisement from a set of advertisements based on said correlation of data; if said device is currently associated with said driver of a vehicle then said advertisement is provided in a format which includes an audio component; if said device is currently associated with said passenger then said advertisement is provided in another format; and transmitting said advertisement to said device. determining a correlation of data relating to a user of said device from analyzing movement data and a status indicator relating to said device to provide a state of movement of said device by comparing said movement data against a threshold to determine a speed of said device; determining if said device is in a vehicle; if said device is determined to be in said vehicle, determining whether said device is associated with a driver of said vehicle or a passenger in said vehicle; selecting an advertisement from a set of advertisements based on said correlation of data; if said device is currently associated with said driver of a vehicle then said advertisement is provided in a format which includes an audio component; if said device is currently associated with said passenger then said advertisement is provided in another format; and transmitting said advertisement to said device.
A polypeptide selected from the group consisting of: (a) a polypeptide comprising the amino acid sequence of SEQ ID NO: 7; (b) a polypeptide that is at least 69% identical to the amino acid sequence of SEQ ID NO: 7 and which is characterized by having an esterase activity to convert (i) an oleuropein aglycone into oleacein, (ii) a ligstroside aglycone into oleocanthal, or (iii) elenolic acid to decarboxymethyl elenolic acid dialdehyde (DEDA); (c) a polypeptide encoded by the nucleic acid molecule of SEQ ID NO: 5 or 6; (d) a polypeptide encoded by a nucleic acid molecule which is at least 69% identical to the nucleic acid sequence of SEQ ID NO: 5 or 6 and wherein said polypeptide is characterized by having an esterase activity to convert (i) an oleuropein aglycone into oleacein, (ii) a ligstroside aglycone into oleocanthal, or (iii) elenolic acid to decarboxymethyl elenolic acid dialdehyde (DEDA); and (e) a polypeptide encoded by the complementary sequence of a nucleic acid molecule that is able to hybridize with the nucleic acid molecule of SEQ ID NO: 5 or 6 and wherein said polypeptide is characterized by having an esterase activity to convert (i) an oleuropein aglycone into oleacein, (ii) a ligstroside aglycone into oleocanthal, or (iii) elenolic acid to decarboxymethyl elenolic acid dialdehyde (DEDA). (a) a polypeptide comprising the amino acid sequence of SEQ ID NO: 7; (b) a polypeptide that is at least 69% identical to the amino acid sequence of SEQ ID NO: 7 and which is characterized by having an esterase activity to convert (i) an oleuropein aglycone into oleacein, (ii) a ligstroside aglycone into oleocanthal, or (iii) elenolic acid to decarboxymethyl elenolic acid dialdehyde (DEDA); (c) a polypeptide encoded by the nucleic acid molecule of SEQ ID NO: 5 or 6; (d) a polypeptide encoded by a nucleic acid molecule which is at least 69% identical to the nucleic acid sequence of SEQ ID NO: 5 or 6 and wherein said polypeptide is characterized by having an esterase activity to convert (i) an oleuropein aglycone into oleacein, (ii) a ligstroside aglycone into oleocanthal, or (iii) elenolic acid to decarboxymethyl elenolic acid dialdehyde (DEDA); and (e) a polypeptide encoded by the complementary sequence of a nucleic acid molecule that is able to hybridize with the nucleic acid molecule of SEQ ID NO: 5 or 6 and wherein said polypeptide is characterized by having an esterase activity to convert (i) an oleuropein aglycone into oleacein, (ii) a ligstroside aglycone into oleocanthal, or (iii) elenolic acid to decarboxymethyl elenolic acid dialdehyde (DEDA).
A shunt active power filter system, comprising: a first interface to a source power signal having a variable frequency; a set of resonant regulators coupled to the source power signal; a second interface configured to couple an output power signal from the set of resonant regulators to a load; a feedback loop having an input end coupled to the load indicating a selected frequency of the source power signal and an output end that generates an output current that is summed with a harmonic current (I h), the feedback loop coupled between the source power signal and the set of resonant regulators, the feedback loop configured to receive a selectable gain value and a source current (I S) upstream of the set of resonant regulators, the selectable gain value provided to the set of resonant regulators; wherein the selectable gain value is selected to dampen a set of harmonics associated with the source power signal at a selected variable frequency based on a set of closed loop poles of the shunt active power filter system associated with the selected gain value, wherein a selected value of the gain value is based on the sum of harmonic current (I h) and the output current of the feedback loop, wherein the selected value of the gain value targets the set of harmonics based on a frequency of the source current (I S). a first interface to a source power signal having a variable frequency; a set of resonant regulators coupled to the source power signal; a second interface configured to couple an output power signal from the set of resonant regulators to a load; a feedback loop having an input end coupled to the load indicating a selected frequency of the source power signal and an output end that generates an output current that is summed with a harmonic current (I h), the feedback loop coupled between the source power signal and the set of resonant regulators, the feedback loop configured to receive a selectable gain value and a source current (I S) upstream of the set of resonant regulators, the selectable gain value provided to the set of resonant regulators; wherein the selectable gain value is selected to dampen a set of harmonics associated with the source power signal at a selected variable frequency based on a set of closed loop poles of the shunt active power filter system associated with the selected gain value, wherein a selected value of the gain value is based on the sum of harmonic current (I h) and the output current of the feedback loop, wherein the selected value of the gain value targets the set of harmonics based on a frequency of the source current (I S).
A method of operating tufting machine comprising: a needle bar with a plurality of needles, the needle bar being reciprocable in the plane of the needles to form tufts of yarn in a backing medium fed through the machine, the needle bar being slidable transversely to the plane of reciprocation of the needles; a presser foot mounted above the backing medium so as to be slidable with the needle bar, the presser foot comprising a plurality of fingers, with each needle being arranged to pass between a pair of adjacent fingers and into the backing medium; an individual end yarn feed to respectively feed each of a plurality of yarns to a respective needle; a needle selection mechanism to selectively latch a needle to the needle bar when the yarn in that needle is required to form a tuft, so that the needle can move with the needle bar as it reciprocates; a plurality of loopers each configured to pick up a loop of yarn as a respective needle reciprocates; a plurality of knives to cut a loop of yarn on a respective looper; and means associated with each looper to selectively dislodge a loop of yarn from the looper before it is cut; characterised by the method comprising controlling the feed of yarn to the needles such that, when a cut end is required, a determination is made of whether a predetermined yarn condition is present in the yarn at its cut end and, in response to such a determination being found, an additional loop of yarn, not required by the pattern data is formed, such that the additional loop of yarn forms a yarn buffer that can be pulled back through the backing medium. a needle bar with a plurality of needles, the needle bar being reciprocable in the plane of the needles to form tufts of yarn in a backing medium fed through the machine, the needle bar being slidable transversely to the plane of reciprocation of the needles; a presser foot mounted above the backing medium so as to be slidable with the needle bar, the presser foot comprising a plurality of fingers, with each needle being arranged to pass between a pair of adjacent fingers and into the backing medium; an individual end yarn feed to respectively feed each of a plurality of yarns to a respective needle; a needle selection mechanism to selectively latch a needle to the needle bar when the yarn in that needle is required to form a tuft, so that the needle can move with the needle bar as it reciprocates; a plurality of loopers each configured to pick up a loop of yarn as a respective needle reciprocates; a plurality of knives to cut a loop of yarn on a respective looper; and means associated with each looper to selectively dislodge a loop of yarn from the looper before it is cut; characterised by the method comprising controlling the feed of yarn to the needles such that, when a cut end is required, a determination is made of whether a predetermined yarn condition is present in the yarn at its cut end and, in response to such a determination being found, an additional loop of yarn, not required by the pattern data is formed, such that the additional loop of yarn forms a yarn buffer that can be pulled back through the backing medium.
An apparatus, comprising: an electron beam emitter; a reaction chamber adjacent said electron beam emitter and having radiation shielding (104 & 105) for substantially containing or de-energizing radiation produced from electron beams; a cylindrical roller having a portion of its surface cylindrical to enable a web to wrap partially around it within said reaction chamber, said roller further including radiation shielding to partially define said reaction chamber, wherein a part of said cylindrical surface is outside of said reaction chamber and in which said cylindrical roller there is a groove or tongue or circumferential brush-contacting area of said cylindrical surface axially outboard of the position for the web to wrap around; and characterized in that circumferential radiation shielding is formed by the tongue and a corresponding groove which interface and mate, the groove and a corresponding tongue which interface and mate, or a brush to circumferentially contact said circumferential brush-contacting area of said cylindrical surface and said shielding is located in close proximity to and around a circumference of said roller's cylindrical surface to substantially contain or de-energize radiation produced from the electron beams, and in that said electron beam emitter has a window through which its electrons are, transmitted but which is substantially impervious to gas. an electron beam emitter; a reaction chamber adjacent said electron beam emitter and having radiation shielding (104 & 105) for substantially containing or de-energizing radiation produced from electron beams; a cylindrical roller having a portion of its surface cylindrical to enable a web to wrap partially around it within said reaction chamber, said roller further including radiation shielding to partially define said reaction chamber, wherein a part of said cylindrical surface is outside of said reaction chamber and in which said cylindrical roller there is a groove or tongue or circumferential brush-contacting area of said cylindrical surface axially outboard of the position for the web to wrap around; and characterized in that circumferential radiation shielding is formed by the tongue and a corresponding groove which interface and mate, the groove and a corresponding tongue which interface and mate, or a brush to circumferentially contact said circumferential brush-contacting area of said cylindrical surface and said shielding is located in close proximity to and around a circumference of said roller's cylindrical surface to substantially contain or de-energize radiation produced from the electron beams, and in that said electron beam emitter has a window through which its electrons are, transmitted but which is substantially impervious to gas.
Process for preparing hexachlorodisilane or Ge 2 Cl 6, wherein in a gas comprising SiCl 4 or GeCl 4, a) a nonthermal plasma is activated by means of an AC voltage of frequency f, characterized in that at least one electromagnetic pulse with repetition rate g injected into the plasma has a voltage component having an edge slope in the rising edge of 10 V ns -1 to 1 kV ns -1, and a pulsewidth b of 500 ns to 100 μs, to obtain a liquid phase, and b) pure hexachlorodisilane or Ge 2 Cl 6 is obtained from the liquid phase in a distillative workup. a) a nonthermal plasma is activated by means of an AC voltage of frequency f, has a voltage component having an edge slope in the rising edge of 10 V ns -1 to 1 kV ns -1, and a pulsewidth b of 500 ns to 100 μs, b) pure hexachlorodisilane or Ge 2 Cl 6 is obtained from the liquid phase in a distillative workup.
A defoaming adjuvant comprising: a. A solid particulate carrier; and b. A polyalkylene glycol adsorbed onto the solid particulate carrier, wherein the polyalkylene glycol is a reaction product of an alkyl alcohol initiator with 1,2-butylene oxide and propylene oxide. a. A solid particulate carrier; and b. A polyalkylene glycol adsorbed onto the solid particulate carrier, wherein the polyalkylene glycol is a reaction product of an alkyl alcohol initiator with 1,2-butylene oxide and propylene oxide.
A method of determining the time of flight of a signal transmitted between a transmitter and a receiver, said method comprising the steps of: transmitting a first signal from the transmitter, the first signal comprising at least one characteristic waveform feature; transmitting a second signal from the transmitter, the second signal comprising at least one characteristic waveform feature and a waveform modification introduced at a predetermined point in time of the duration of the second signal; receiving said first and second transmitted signals at the receiver; determining a point of diversion between corresponding characteristic waveform features of the first and second received signals, such that said point of diversion corresponds to an arrival time of the introduced waveform feature modification at the receiver. transmitting a first signal from the transmitter, the first signal comprising at least one characteristic waveform feature; transmitting a second signal from the transmitter, the second signal comprising at least one characteristic waveform feature and a waveform modification introduced at a predetermined point in time of the duration of the second signal; receiving said first and second transmitted signals at the receiver; determining a point of diversion between corresponding characteristic waveform features of the first and second received signals, such that said point of diversion corresponds to an arrival time of the introduced waveform feature modification at the receiver.
A method for the treatment of, in particular purification of, fluids in particular gases, by means of at least one first bulk material (treatment agent I) wherein the first bulk material is delivered to a fluid stream (entrained flow) and is co-transported by said fluid stream to a filter and there is retained on the surface of the filter whilst the fluid flows through the filter, wherein the filter cake formed by the first bulk material on the fitter is removed from time to time at least partially, characterized in a) that the fluid to be treated, mixed with treatment agent I is passed through a fluidized bed reactor forming a bulk material bed from a second bulk material (treatment agent II) for after-reacting and further treatment, wherein the fluid flows through the bulk material bed substantially from bottom to top and the second bulk material migrates through the bulk material bed in counterflow to the fluid substantially from top to bottom, from which at the lower end of the bulk material bed, bulk material partial quantities are removed and into which at the upper end of the bulk material bed, bulk material partial quantities are delivered, wherein on the second bulk material, i.e. the surface of the bulk material particles and/or in the intergranular volume between the bulk material particles thereof, the first bulk material or a fraction thereof is deposited from the fluid stream, in particular in the inflow region of the second bulk material, b) that the fluid to be treated optionally after-reacts on the deposited first bulk material (treatment agent I) and is further treated in the fluidized bed reactor by means of the second bulk material (treatment agent II), c) that the first and second bulk material particles are removed jointly with the bulk material partial quantities at the lower end of the bulk material bed. a) that the fluid to be treated, mixed with treatment agent I is passed through a fluidized bed reactor forming a bulk material bed from a second bulk material (treatment agent II) for after-reacting and further treatment, wherein the fluid flows through the bulk material bed substantially from bottom to top and the second bulk material migrates through the bulk material bed in counterflow to the fluid substantially from top to bottom, from which at the lower end of the bulk material bed, bulk material partial quantities are removed and into which at the upper end of the bulk material bed, bulk material partial quantities are delivered, wherein on the second bulk material, i.e. the surface of the bulk material particles and/or in the intergranular volume between the bulk material particles thereof, the first bulk material or a fraction thereof is deposited from the fluid stream, in particular in the inflow region of the second bulk material, b) that the fluid to be treated optionally after-reacts on the deposited first bulk material (treatment agent I) and is further treated in the fluidized bed reactor by means of the second bulk material (treatment agent II), c) that the first and second bulk material particles are removed jointly with the bulk material partial quantities at the lower end of the bulk material bed.
A method for thermal mitigation in a portable computing device, the method comprising: monitoring (305, 405, 605, 705) a signal associated with an electronic element in the portable computing device, wherein the electronic element is a heat producing element, the signal is generated in response to a measurement other than a temperature measurement, and a correspondence exists between the signal and an amount of heat produced by the electronic element; determining (310, 415, 615, 715) that the signal has exceeded an initial threshold; in response to the signal exceeding the initial threshold, accumulating (425, 625, 725) samples of the signal over a time interval; determining (435, 635, 735) that the sum of the accumulated samples of the signal has exceeded a second threshold within the time interval; determining a thermal condition indicating excessive heat production in response to the sum of the accumulated samples of the signal exceeding the second threshold; and performing (320, 450, 660-675, 760-770) a first action to mitigate heat production by the electronic element associated with the monitored signal, in response to the thermal condition indicating excessive heat production. monitoring (305, 405, 605, 705) a signal associated with an electronic element in the portable computing device, wherein the electronic element is a heat producing element, the signal is generated in response to a measurement other than a temperature measurement, and a correspondence exists between the signal and an amount of heat produced by the electronic element; determining (310, 415, 615, 715) that the signal has exceeded an initial threshold; in response to the signal exceeding the initial threshold, accumulating (425, 625, 725) samples of the signal over a time interval; determining (435, 635, 735) that the sum of the accumulated samples of the signal has exceeded a second threshold within the time interval; determining a thermal condition indicating excessive heat production in response to the sum of the accumulated samples of the signal exceeding the second threshold; and performing (320, 450, 660-675, 760-770) a first action to mitigate heat production by the electronic element associated with the monitored signal, in response to the thermal condition indicating excessive heat production.
A process for producing a diol or polydiol by reductive coupling reaction of a carbonyl compound in a reaction solution, comprising: forming the reaction solution by mixing the carbonyl compound and a 12CaO·7Al 2 O 3 electride containing electrons in a number of 10 19 cm -3 or more and 2.3 × 10 21 cm -3 or less in its cages in water, an organic solvent, or a mixed solvent of water and an organic solvent, wherein about the use amount of the 12CaO·7Al 2 O 3 electride relative to the carbonyl compound (12CaO·7Al 2 O 3 /the carbonyl compound), the ratio by weight of the former to the latter is from 2 to 20, and extracting a product from the reaction solution. forming the reaction solution by mixing the carbonyl compound and a 12CaO·7Al 2 O 3 electride containing electrons in a number of 10 19 cm -3 or more and 2.3 × 10 21 cm -3 or less in its cages in water, an organic solvent, or a mixed solvent of water and an organic solvent, wherein about the use amount of the 12CaO·7Al 2 O 3 electride relative to the carbonyl compound (12CaO·7Al 2 O 3 /the carbonyl compound), the ratio by weight of the former to the latter is from 2 to 20, and extracting a product from the reaction solution.
A cooking device comprising a body; a cooking chamber which is disposed in the body and wherein the foodstuffs to be cooked are placed; a casing in the form of a box with the front side open surrounding the cooking chamber, which has a rear wall covering the rear surface of the body and a ceiling covering the top surface of the body; at least one heater which is disposed in the cooking chamber and which provides the cooking of the foodstuffs during the cooking process; a door which is disposed on the body and which interrupts the contact between the cooking chamber and the outer environment; a protective wire which is positioned between the heater and the foodstuff placed in the cooking chamber and which is arranged to distribute the heat generated by the heater into the cooking chamber; a dampening plate which is disposed onto the protective wire and which dampens the heat transmitted onto the foodstuff by the heater so as to prevent the foodstuff from being damaged, characterized by a plurality of housings which are arranged on the protective wire, and the dampening plate having a plurality of claws which engage with the housings so as to be prevented from moving in the vertical axis.