mhurhangee/ep-ind-claims huggingface dataset:
A method of manufacturing a fire proof board from strands of wood, the method comprising the following steps in the given order: (a) providing strands of wood, and - measuring whether the provided strands of wood have a desired humidity between 5% and 20%, preferably between 8% and 20%, - increasing the humidity of the strands if the measurement shows that they have a humidity that is lower than the desired one, or pre-drying the strands, if the measurement shows that they have a humidity that is higher than the desired one, (b) immersing the strands of wood in a watery solution of a flame retardant chemical composition, (c) separating the strands of wood from each other by stirring the mixture of strands and watery solution of the flame retardant chemical composition, (d) at least in part drying the strands of wood to a humidity of between 4% and 10%, preferably between 4% and 8%, thereby providing dry impregnated strands of wood, (e) applying an adhesive to the strands of wood, and (f) forming a board of a predetermined shape from the strands. (a) providing strands of wood, and - measuring whether the provided strands of wood have a desired humidity between 5% and 20%, preferably between 8% and 20%, - increasing the humidity of the strands if the measurement shows that they have a humidity that is lower than the desired one, or pre-drying the strands, if the measurement shows that they have a humidity that is higher than the desired one, - measuring whether the provided strands of wood have a desired humidity between 5% and 20%, preferably between 8% and 20%, - increasing the humidity of the strands if the measurement shows that they have a humidity that is lower than the desired one, or pre-drying the strands, if the measurement shows that they have a humidity that is higher than the desired one, (b) immersing the strands of wood in a watery solution of a flame retardant chemical composition, (c) separating the strands of wood from each other by stirring the mixture of strands and watery solution of the flame retardant chemical composition, (d) at least in part drying the strands of wood to a humidity of between 4% and 10%, preferably between 4% and 8%, thereby providing dry impregnated strands of wood, (e) applying an adhesive to the strands of wood, and (f) forming a board of a predetermined shape from the strands.
A parameter decoding method comprising: a prediction residue decoding step of finding a quantized prediction residue vector based on encoding information included in a current frame of a speech encoded bit stream; and a parameter decoding step of decoding a parameter based on the quantized prediction residue vector, wherein, in the prediction residue decoding step, when the current frame is erased, the quantized prediction residue vector in the current frame is calculated with the following formula x n = b 0 ⁢ x ⁢ n + 1 + b - 1 ⁢ y ⁢ n - 1 where; b = {b (i)} i=0,...,M-1, b (i) = (1-a '(i))([a '(i)]^2 - 2a '(i) + 2)^(-1), b[-1] = {b[-1](i)} i=0,...,M-1, and b[-1](i) = ([a '(i)]^2 - 2a '(i) + 2)^(-1) - a (i), where; a '(i): an i'th component of a an autoregressive prediction coefficient set in the future frame, a (i): an i'th component of an AR prediction coefficient set in the current frame, x[n]: the quantized prediction residue vector in the current frame, x[n+1]: the quantized prediction residue vector in the future frame, and y[n-1]: a decoded line spectral frequency vector in a past frame. wherein the AR prediction coefficient set is selected out of a plurality of kinds of AR predictive coefficient sets by using an AR predictive coefficient code for the future frame received as the future frame parameter. a prediction residue decoding step of finding a quantized prediction residue vector based on encoding information included in a current frame of a speech encoded bit stream; and a parameter decoding step of decoding a parameter based on the quantized prediction residue vector, wherein, in the prediction residue decoding step, when the current frame is erased, the quantized prediction residue vector in the current frame is calculated with the following formula x n = b 0 ⁢ x ⁢ n + 1 + b - 1 ⁢ y ⁢ n - 1 where; b = {b (i)} i=0,...,M-1, b (i) = (1-a '(i))([a '(i)]^2 - 2a '(i) + 2)^(-1), b[-1] = {b[-1](i)} i=0,...,M-1, and b[-1](i) = ([a '(i)]^2 - 2a '(i) + 2)^(-1) - a (i), b = {b (i)} i=0,...,M-1, b (i) = (1-a '(i))([a '(i)]^2 - 2a '(i) + 2)^(-1), b[-1] = {b[-1](i)} i=0,...,M-1, and b[-1](i) = ([a '(i)]^2 - 2a '(i) + 2)^(-1) - a (i), a '(i): an i'th component of a an autoregressive prediction coefficient set in the future frame, a (i): an i'th component of an AR prediction coefficient set in the current frame, x[n]: the quantized prediction residue vector in the current frame, x[n+1]: the quantized prediction residue vector in the future frame, and y[n-1]: a decoded line spectral frequency vector in a past frame.
A refrigerator comprising a body; a fresh food compartment which is disposed in the body; a crisper which is provided in the fresh food compartment; a crisper lid which covers the crisper so as to maintain the humidity level; a crisper lid upper body (5.1) which forms the upper side of the crisper lid and a crisper lid lower body (5.2) which forms the lower side thereof; a water tank which is detachably attached into the body and which is used for storing water; a piezoelectric member which receives the water in the water tank; a humidifier which enables cold vapor to be delivered into the crisper by means of the piezoelectric member and which is positioned in the body; wherein the water tank is positioned adjacent to the crisper lid upper body (5.1), characterized in that - the crisper lid comprises openings at rear section through which air enters into the crisper and a perforated structure at the front section through which the air is discharged, and - the water tank is positioned at right, left, and/or front section of the crisper lid upper body (5.1) so as to be outside the air flow path in the crisper. - the crisper lid comprises openings at rear section through which air enters into the crisper and a perforated structure at the front section through which the air is discharged, and - the water tank is positioned at right, left, and/or front section of the crisper lid upper body (5.1) so as to be outside the air flow path in the crisper.
A method of making an organic phase composition for use in the solvent extraction of rare earth metals from a water phase, the organic phase composition comprising (i) a rare earth metal extractant comprising a dialkyl diglycol amic acid having the general formula: wherein R 1 and R 2 are each independently an alkyl group, at least one of R 1 and R 2 is a straight or branched alkyl group having at least 6 carbon atoms, as the active component, and (ii) organic solvent in which the dialkyl diglycol amic acid is dissolved, being a nonpolar or low-polar solvent to form an organic phase during solvent extraction; said method comprising synthesizing the extractant by the steps of: reacting X moles of diglycolic acid with Y moles of esterifying agent, at a molar ratio Y/X of at least 2.5, and at a reaction temperature of at least 70°C for a reaction time of at least 1 hour, concentrating in vacuum to remove unreacted reactant and reaction residue, thus obtaining a reaction intermediate product, adding said organic solvent to the reaction intermediate product as reaction solvent, and reacting the reaction intermediate product, in said organic solvent as reaction solvent, with Z mole of a dialkylamine, at a molar ratio Z/X of at least 0.9, and optionally, adding extra organic solvent. (i) a rare earth metal extractant comprising a dialkyl diglycol amic acid having the general formula: wherein R 1 and R 2 are each independently an alkyl group, at least one of R 1 and R 2 is a straight or branched alkyl group having at least 6 carbon atoms, as the active component, and (ii) organic solvent in which the dialkyl diglycol amic acid is dissolved, being a nonpolar or low-polar solvent to form an organic phase during solvent extraction; reacting X moles of diglycolic acid with Y moles of esterifying agent, at a molar ratio Y/X of at least 2.5, and at a reaction temperature of at least 70°C for a reaction time of at least 1 hour, concentrating in vacuum to remove unreacted reactant and reaction residue, thus obtaining a reaction intermediate product, adding said organic solvent to the reaction intermediate product as reaction solvent, and reacting the reaction intermediate product, in said organic solvent as reaction solvent, with Z mole of a dialkylamine, at a molar ratio Z/X of at least 0.9, and optionally, adding extra organic solvent.
Locally/orally usable preparations comprising a combination of one or more phytochemicals containing phenol derivatives in the form of extracts or powders thereof according to the formula in which R 1, R 2, R 3, R 4, R 5 mutually independently mean: R 1: H, OH, OR 5, COR 5; C 1 -C 8 alkyl, C 1 -C 8 -substituted alkyl; R 2: OH; OR 5, H; C 1 -C 8 alkyl, C 1 -C 8 -substituted alkyl; R 3: OH; OR 5, C 1 -C 8 alkyl, C 1 -C 8 -substituted alkyl; or sugars according to R 4,5; R 4: COOR 5; C 1 -C 8 alkyl, C 1 -C 8 -alkenyl-COOR 5; C 1 -C 8 alkyl, C 1 -C 8 -substituted alkyl; R 5: H, C 1 -C 8 alkyl, COOC 1 -C 8 alkyl-substituted phenols, sugars, selected from glucose, fructose, fucose, xylose, galactose, rhamnose and combinations of 2 or more of these sugars; wherein the sugars may be associated with mono-, di- or triterpenes, selected from Pelargonium sidoides and/or reniforme or mixtures thereof, or of combinations thyme + ribwort; thyme + ribwort + aniseed; thyme + primula root; Pelargonium ( sidoides, reniforme or mixtures) + thyme and/or rock rose; ribwort + ivy leaves; thyme + fennel; ribwort + dandelion, Pelargonium ( sidoides, reniforme or mixtures) + rock rose and/or senega root, pelargonium + pomegranate, together with one or more lipid transfer proteins selected from one or more plant proteins selected from oat, millet, wheat, barley, algae in each case having an average molecular mass of 1 to 13 kDa, preferably of 1 to 9 kDa, or milk protein in each case having an average molecular mass of 1 to 8 kDa, in particular of 1.5 to 7 kDa, or combinations thereof (plant and milk protein(s)), as well as furthermore excipient substances, selected from water; one or more sugars/sugar substitutes, or mixtures of various sugars/sugar substitutes or also from one or more sugars/sugar substitutes and water, and optionally additives selected from solvents, thickeners, acidulants, buffer substances, aroma substances and flavours, sweeteners, preservatives, additional active ingredients or mixtures of one or more of these additives. R 1: H, OH, OR 5, COR 5; C 1 -C 8 alkyl, C 1 -C 8 -substituted alkyl; R 2: OH; OR 5, H; C 1 -C 8 alkyl, C 1 -C 8 -substituted alkyl; R 3: OH; OR 5, C 1 -C 8 alkyl, C 1 -C 8 -substituted alkyl; or sugars according to R 4,5; R 4: COOR 5; C 1 -C 8 alkyl, C 1 -C 8 -alkenyl-COOR 5; C 1 -C 8 alkyl, C 1 -C 8 -substituted alkyl; R 5: H, C 1 -C 8 alkyl, COOC 1 -C 8 alkyl-substituted phenols, sugars, selected from glucose, fructose, fucose, xylose, galactose, rhamnose and combinations of 2 or more of these sugars; wherein the sugars may be associated with mono-, di- or triterpenes, selected from Pelargonium sidoides and/or reniforme or mixtures thereof, or of combinations thyme + ribwort; thyme + ribwort + aniseed; thyme + primula root; Pelargonium ( sidoides, reniforme or mixtures) + thyme and/or rock rose; ribwort + ivy leaves; thyme + fennel; ribwort + dandelion, Pelargonium ( sidoides, reniforme or mixtures) + rock rose and/or senega root, pelargonium + pomegranate,
A display device comprising: one or more modules each configured to operate according to one or more modes; a communication interface (150,210) configured to transmit state information of the one or more modules to a server or to an adjacent device (100-2 to 100-6), and configured to receive, from the adjacent device (100-2 to 100-6) via the server or from the adjacent device (100-2 to 100-6), a parameter based on the transmitted state information, the parameter indicating a mode of one or more modules of the adjacent device (100-2 to 100-6); and a controller (120,220) configured: to change a mode of the one or more modules to correspond to a first mode indicated by a parameter having a first priority, to determine whether the display device is operating normally in the first mode, in the event that the display device is operating normally, to continue to operate the one or more modules in the first mode, and in the event that the display device is not operating normally, to change the mode of the one or more modules to correspond to a second mode indicated by a parameter having the next-highest priority. one or more modules each configured to operate according to one or more modes; a communication interface (150,210) configured to transmit state information of the one or more modules to a server or to an adjacent device (100-2 to 100-6), and configured to receive, from the adjacent device (100-2 to 100-6) via the server or from the adjacent device (100-2 to 100-6), a parameter based on the transmitted state information, the parameter indicating a mode of one or more modules of the adjacent device (100-2 to 100-6); and a controller (120,220) configured: to change a mode of the one or more modules to correspond to a first mode indicated by a parameter having a first priority, to determine whether the display device is operating normally in the first mode, in the event that the display device is operating normally, to continue to operate the one or more modules in the first mode, and in the event that the display device is not operating normally, to change the mode of the one or more modules to correspond to a second mode indicated by a parameter having the next-highest priority. to change a mode of the one or more modules to correspond to a first mode indicated by a parameter having a first priority, to determine whether the display device is operating normally in the first mode, in the event that the display device is operating normally, to continue to operate the one or more modules in the first mode, and in the event that the display device is not operating normally, to change the mode of the one or more modules to correspond to a second mode indicated by a parameter having the next-highest priority.
A connected system including - a plurality of devices (10, 10', 10") to each of which a respective operation right is assigned, wherein an operation mode of each of the devices (10, 10', 10") depends on its assigned respective operation right and wherein the connected system is configured, when a respective one of the devices (10, 10', 10") requiring to be serviced is serviced, to assign an updated operation right to at least the respective device (10, 10', 10") in dependence of how the respective device (10, 10', 10") is serviced; wherein if the at least respective device (10, 10', 10") is serviced by an unauthorized user a limited operation right is assigned to the at least respective device (10, 10', 10") with an operation mode that allows only a limited functionality of the at least respective device (10, 10', 10"), and wherein if the at least respective device (10, 10', 10") is serviced by an authorized service person, a full operation right is assigned to the at least respective device (10, 10', 10") with an operation mode that allows full functionality of the at least respective device (10, 10', 10"). - a plurality of devices (10, 10', 10") to each of which a respective operation right is assigned, wherein an operation mode of each of the devices (10, 10', 10") depends on its assigned respective operation right and wherein the connected system is configured, when a respective one of the devices (10, 10', 10") requiring to be serviced is serviced, to assign an updated operation right to at least the respective device (10, 10', 10") in dependence of how the respective device (10, 10', 10") is serviced; wherein if the at least respective device (10, 10', 10") is serviced by an unauthorized user a limited operation right is assigned to the at least respective device (10, 10', 10") with an operation mode that allows only a limited functionality of the at least respective device (10, 10', 10"), and wherein if the at least respective device (10, 10', 10") is serviced by an authorized service person, a full operation right is assigned to the at least respective device (10, 10', 10") with an operation mode that allows full functionality of the at least respective device (10, 10', 10").
Etching solution for treating nonconductive plastic surfaces, comprising (i) at least one acid, wherein the concentration of the at least one acid ranges from 0.02 - 0.6 mol/l based on a monobasic acid; and (ii) at least one permanganate salt selected from alkali metal permanganates and earth alkali metal permanganates, wherein the permanganate salt is present in the etching solution in a concentration between 30 g/l and 250 g/l; and (iii) at least one source for a metal ion, wherein the metal of the metal ion is selected from titanium, zirconium, niobium, molybdenum, ruthenium, rhodium, nickel, copper, silver, zinc and cadmium. characterized in that the molar ratio of permanganate ions according to (ii) to metal ions according to (iii) ranges from 5:1 to 40:1. (i) at least one acid, wherein the concentration of the at least one acid ranges from 0.02 - 0.6 mol/l based on a monobasic acid; and (ii) at least one permanganate salt selected from alkali metal permanganates and earth alkali metal permanganates, wherein the permanganate salt is present in the etching solution in a concentration between 30 g/l and 250 g/l; and (iii) at least one source for a metal ion, wherein the metal of the metal ion is selected from titanium, zirconium, niobium, molybdenum, ruthenium, rhodium, nickel, copper, silver, zinc and cadmium.
A method in a LTE system comprising: receiving, from a serving eNode B by a user equipment, UE,, a message identifying a subframe containing information relating to an uplink grant to be sent by a target cell; and in case of Radio Link Failure during a handover, detecting, by the UE, the uplink grant information in the identified subframe transmitted by a target wireless access network node of the target cell, wherein the detecting is based on detecting special indicator comprising a radio link failure RLF radio network temporary identity RNTI in the subframe. receiving, from a serving eNode B by a user equipment, UE,, a message identifying a subframe containing information relating to an uplink grant to be sent by a target cell; and in case of Radio Link Failure during a handover, detecting, by the UE, the uplink grant information in the identified subframe transmitted by a target wireless access network node of the target cell, wherein the detecting is based on detecting special indicator comprising a radio link failure RLF radio network temporary identity RNTI in the subframe.
An apparatus, comprising: at least one processor; and at least one memory including computer program code, the at least one memory and the computer program code configured to, with the at least one processor, cause the apparatus at least to: receive information on a power level of signals at least one radio transceiver of a user terminal has received from more than one external transmitters; determine information on a power level of signals transmitted by the at least one radio transceiver of the user terminal; determine information on a call connection and data transfer status of the user terminal: receive information from one or more sensors of the user terminal; determine the amount of electromagnetic radiation the user of the user terminal is exposed to separately for call connections and data transfer traffic on the basis on the received and determined information and properties of the user terminal; and store information on the determined amount in the memory separately for each external transmitter. at least one processor; and at least one memory including computer program code, the at least one memory and the computer program code configured to, with the at least one processor, cause the apparatus at least to: receive information on a power level of signals at least one radio transceiver of a user terminal has received from more than one external transmitters; determine information on a power level of signals transmitted by the at least one radio transceiver of the user terminal; determine information on a call connection and data transfer status of the user terminal: receive information from one or more sensors of the user terminal; determine the amount of electromagnetic radiation the user of the user terminal is exposed to separately for call connections and data transfer traffic on the basis on the received and determined information and properties of the user terminal; and store information on the determined amount in the memory separately for each external transmitter. receive information on a power level of signals at least one radio transceiver of a user terminal has received from more than one external transmitters; determine information on a power level of signals transmitted by the at least one radio transceiver of the user terminal; determine information on a call connection and data transfer status of the user terminal: receive information from one or more sensors of the user terminal; determine the amount of electromagnetic radiation the user of the user terminal is exposed to separately for call connections and data transfer traffic on the basis on the received and determined information and properties of the user terminal; and store information on the determined amount in the memory separately for each external transmitter.
A pulse generator, comprising: a plurality of electrode nodes, each electrode node configured to be coupled to an electrode to provide stimulation pulses to a patient's tissue; and digital-to-analog converter circuitry, comprising a source circuit configured to source a current to any of the electrodes nodes, wherein the source circuit is powered by a first power supply voltage and a second power supply voltage defining a first power domain, and a sink circuit configured to sink a current from any of the electrodes nodes, wherein the sink circuit is powered by a third power supply voltage and a fourth power supply voltage defining a second power domain. a source circuit configured to source a current to any of the electrodes nodes, wherein the source circuit is powered by a first power supply voltage and a second power supply voltage defining a first power domain, and a sink circuit configured to sink a current from any of the electrodes nodes, wherein the sink circuit is powered by a third power supply voltage and a fourth power supply voltage defining a second power domain.
A therapeutic preparation for use in a method of treating a cholesterol or lipid related condition, wherein the therapeutic preparation comprises an anti-PCSK9 antibody (AP-antibody), the preparation is in a solid form shaped as a tissue penetrating member having a pointed end and is suitable for being contained in a swallowable capsule, the tissue penetrating member configured to be delivered from the capsule to penetrate and be inserted into an intestinal wall after oral ingestion of the capsule by the application of force on the tissue penetrating member, wherein the AP-antibody is selected from the group consisting of Alirocumab, Evolocumab and Bococizumab, wherein a dose of the AP-antibody in the solid tissue penetrating member is in a range from about 1 to 15 mg, and wherein after insertion, the tissue penetrating member is retained within the intestinal wall or surrounding tissue and releases the AP-antibody into the blood stream.