mhurhangee/ep-ind-claims huggingface dataset:
A method for producing a bowl for tray packaging for food, which has an edge for fastening a covering foil, openings being introduced into a tray foil that can be moulded by deep drawing, a flexible tray foil being arranged on the perforated tray foil, the perforated tray foil and the flexible foil being brought into contact in a gas-tight manner in areas that surround a reshaping region to be reshaped by deep drawing, and the reshaping region being reshaped in a deep-drawing die by applying a vacuum that acts on the foil arrangement to form a two-layered bowl, which has a dimensionally stable outer bowl, which consists of the tray foil and has at least one opening that passes through the outer bowl, and an inner lining, which consists of the flexible foil, characterised in that the tray foil and the flexible foil are brought into contact in a gas-tight manner during the deep-drawing process by means of a clamping tool that surrounds the reshaping region and are fixedly connected after the deep-drawing process in the edge region of the bowl or in a region of the bowl close to the edge.
A method for removing a contaminant from waste water from fertilizer plant comprising the steps of: a) concentrating the contaminant in the wastewater; b) chemically converting the contaminant in the wastewater by electrolysis in particular wherein the contaminant forms a gas upon electrolysis; and c) recirculating the electrolyzed wastewater to the fertilizer plant; wherein the step of concentrating the wastewater is performed by a forward osmosis module or a pressure assisted osmosis module, comprising a first compartment and a second compartment separated by a membrane wherein the step of concentrating the wastewater comprises the step of directing the wastewater to the first compartment of the osmosis module and wherein the recirculating step comprises the steps of i) directing the electrolyzed wastewater to the second compartment of the osmosis module; and ii) recirculating the wastewater from the second compartment of the osmosis module to the fertilizer plant. a) concentrating the contaminant in the wastewater; b) chemically converting the contaminant in the wastewater by electrolysis in particular wherein the contaminant forms a gas upon electrolysis; and c) recirculating the electrolyzed wastewater to the fertilizer plant; wherein the step of concentrating the wastewater is performed by a forward osmosis module or a pressure assisted osmosis module, comprising a first compartment and a second compartment separated by a membrane wherein the step of concentrating the wastewater comprises the step of directing the wastewater to the first compartment of the osmosis module and wherein the recirculating step comprises the steps of i) directing the electrolyzed wastewater to the second compartment of the osmosis module; and ii) recirculating the wastewater from the second compartment of the osmosis module to the fertilizer plant. wherein the step of concentrating the wastewater is performed by a forward osmosis module or a pressure assisted osmosis module, comprising a first compartment and a second compartment separated by a membrane wherein the step of concentrating the wastewater comprises the step of directing the wastewater to the first compartment of the osmosis module and wherein the recirculating step comprises the steps of i) directing the electrolyzed wastewater to the second compartment of the osmosis module; and ii) recirculating the wastewater from the second compartment of the osmosis module to the fertilizer plant. i) directing the electrolyzed wastewater to the second compartment of the osmosis module; and ii) recirculating the wastewater from the second compartment of the osmosis module to the fertilizer plant.
An amorphous solid for use in aerosol generation, the amorphous solid comprising: about 1 to about 50 wt% constituent, derivative or extract of cannabis; about 10 to about 80 wt% aerosol-former material; gelling agent, the gelling agent comprising cellulose or a derivative thereof, and a non-cellulosic gelling agent; and optionally filler, wherein the amount of gelling agent and optional filler taken together is from about 10 to about 60 wt%; wherein the wt% values are calculated on a dry weight basis. about 1 to about 50 wt% constituent, derivative or extract of cannabis; about 10 to about 80 wt% aerosol-former material; gelling agent, the gelling agent comprising cellulose or a derivative thereof, and a non-cellulosic gelling agent; and optionally filler, wherein the amount of gelling agent and optional filler taken together is from about 10 to about 60 wt%;
A high-top shoe platen, comprising: a. a shoe plate to provide support for a shoe, the shoe plate comprising: i. a back edge, ii. a front edge opposite the back edge, the front edge having a contoured perimeter, iii. a medial edge adjacent to the back edge and front edge, and iv. a lateral edge opposite the medial edge and adjacent to the back edge and the front edge, v. a "Z"-shaped slot adjacent to the back edge, vi. a fixing pin protruding out from the "Z"-shaped slot and moveably attached to the shoe plate, the fixing pin configured to receive an eyelet of a shoe, and b. a bottom shoe adjuster attached to the lateral edge of the shoe plate, the shoe adjuster having a back end, a front end opposite the back end, a medial side adjacent to the front end and back end, a lateral side opposite the medial side and adjacent to the front end and back end, at least one projecting member (308, 310) projecting perpendicularly and medially from the medial side, and at least one tab projecting perpendicularly and downwardly from the lateral side; c. a slider bracket attached to the back edge of the shoe plate. a. a shoe plate to provide support for a shoe, the shoe plate comprising: i. a back edge, ii. a front edge opposite the back edge, the front edge having a contoured perimeter, iii. a medial edge adjacent to the back edge and front edge, and iv. a lateral edge opposite the medial edge and adjacent to the back edge and the front edge, v. a "Z"-shaped slot adjacent to the back edge, vi. a fixing pin protruding out from the "Z"-shaped slot and moveably attached to the shoe plate, the fixing pin configured to receive an eyelet of a shoe, and i. a back edge, ii. a front edge opposite the back edge, the front edge having a contoured perimeter, iii. a medial edge adjacent to the back edge and front edge, and iv. a lateral edge opposite the medial edge and adjacent to the back edge and the front edge, v. a "Z"-shaped slot adjacent to the back edge, vi. a fixing pin protruding out from the "Z"-shaped slot and moveably attached to the shoe plate, the fixing pin configured to receive an eyelet of a shoe, and b. a bottom shoe adjuster attached to the lateral edge of the shoe plate, the shoe adjuster having a back end, a front end opposite the back end, a medial side adjacent to the front end and back end, a lateral side opposite the medial side and adjacent to the front end and back end, at least one projecting member (308, 310) projecting perpendicularly and medially from the medial side, and at least one tab projecting perpendicularly and downwardly from the lateral side; c. a slider bracket attached to the back edge of the shoe plate.
Compound of Formula III-A, its salts, solvates or hydrates thereof. wherein, R 1 and R 2 are independently C 1 -C 8 alkyl or they are connected via C1 to C8 carbon chain which may be saturated, unsaturated or substituted. R 3 and R 4 are independently H, C 1 -C 8 alkyl, vinyl, or allyl, X is any halogen, Y is O or S; or Y is NR 5 wherein R 5 is H, C 1 -C 8 alkyl, vinyl or allyl, and A is C 1 -C 8 alkyl or an aliphatic, aromatic or heterocyclic ring. wherein, R 1 and R 2 are independently C 1 -C 8 alkyl or they are connected via C1 to C8 carbon chain which may be saturated, unsaturated or substituted. R 3 and R 4 are independently H, C 1 -C 8 alkyl, vinyl, or allyl, X is any halogen, Y is O or S; or Y is NR 5 wherein R 5 is H, C 1 -C 8 alkyl, vinyl or allyl, and A is C 1 -C 8 alkyl or an aliphatic, aromatic or heterocyclic ring.
Boat comprising a hull having a bow and a stern provided with a stern board, as well as a keel and lateral sides below and above the waterline, respectively, that extend between the bow and the stern, the hull comprising a forward portion and an astern portion that can be mutually separated, which are articulated about an axis transverse to the longitudinal axis of the hull and placed close to said lateral sides, whereby the hull can assume an extended configuration for navigation, in which it extends along its whole length, or a folded configuration, of a reduced length, as a result of the articulation of at least one of said portions (12a, 12b) about said transverse axis, the boat including connection means comprising at least one cable that extends substantially parallel to the longitudinal axis of the boat and has a front portion adapted to be fixed at said forward portion, which cable crosses a transverse bulkhead having a forward wall and a rear wall, extends close to the keel along the majority of said forward portion and is associated with tensioning means that are operable in order to apply to it a traction for mutually connecting the forward portion and the astern portion in the aforesaid extended configuration, characterized in that said at least one cable comprises a rear portion that extends along the astern portion of the hull between said rear wall of the transverse bulkhead and said stern board.
Audio encoder comprising a spectral decomposer for spectrally decomposing, using an MDCT, an audio input signal into a spectrogram of a sequence of spectrums; an autocorrelation computer configured to compute an autocorrelation from a current spectrum of the sequence of spectrums; a linear prediction coefficient computer configured to compute linear prediction coefficients based on the autocorrelation; a spectral domain shaper configured to spectrally shape the current spectrum based on the linear prediction coefficients; and a quantization stage configured to quantize the spectrally shaped spectrum; wherein the audio encoder is configured to insert information on the quantized spectrally shaped spectrum and information on the linear prediction coefficients into a data stream, wherein the autocorrelation computer is configured to, in computing the autocorrelation from the current spectrum, compute the power spectrum from the current spectrum, and subject the power spectrum to an inverse ODFT transform.
A battery module, comprising: two or more battery cells; a module frame, comprising an end plate and a side plate, wherein the end plate and the side plate enclose the module frame for fixing the battery cells; and a cell management unit, disposed on the end plate and connected to a sampling line of the battery cells; wherein the sampling line of the battery cells is a flexible circuit board. two or more battery cells; a module frame, comprising an end plate and a side plate, wherein the end plate and the side plate enclose the module frame for fixing the battery cells; and a cell management unit, disposed on the end plate and connected to a sampling line of the battery cells; wherein the sampling line of the battery cells is a flexible circuit board.
A wireless network comprising: T client stations that respectively generate simultaneous uplink transmission, SUT, data, where T is an integer greater than one, wherein the T client stations include (i) a first set of client stations configured to transmit the SUT data during a SUT period without sensing channel prior to transmitting the SUT data, and (ii) a second set of client stations configured to transmit the SUT data by sensing channel prior to transmitting the SUT data; and an access point, AP, that services the T client stations including the first set of client stations and the second set of client stations, that instructs the second set of client stations to not transmit the SUT data during the SUT period, and that receives the SUT data transmitted from two or more of the first set of client stations during the SUT period, wherein the AP sequentially transmits a respective acknowledgement to the two or more of the first set of client stations in a non-overlapping manner during the SUT period. T client stations that respectively generate simultaneous uplink transmission, SUT, data, where T is an integer greater than one, wherein the T client stations include (i) a first set of client stations configured to transmit the SUT data during a SUT period without sensing channel prior to transmitting the SUT data, and (ii) a second set of client stations configured to transmit the SUT data by sensing channel prior to transmitting the SUT data; and (i) a first set of client stations configured to transmit the SUT data during a SUT period without sensing channel prior to transmitting the SUT data, and (ii) a second set of client stations configured to transmit the SUT data by sensing channel prior to transmitting the SUT data; and an access point, AP, that services the T client stations including the first set of client stations and the second set of client stations, that instructs the second set of client stations to not transmit the SUT data during the SUT period, and that receives the SUT data transmitted from two or more of the first set of client stations during the SUT period, wherein the AP sequentially transmits a respective acknowledgement to the two or more of the first set of client stations in a non-overlapping manner during the SUT period.
A crosslinked fluororubber article obtainable by crosslinking a fluororubber composition comprising (i) a fluororubber and (ii) per 100 pbw of the fluororubber, 5-65 pbw of carbon black having a nitrogen adsorption specific surface area (N 2 SA) of 25-180 m 2 /g and a dibutyl phthalate absorption number of 45-180 ml/100g; and the quantity of a solvent-insoluble polymer is ≥ 5%, determined by immersing the fluororubber composition when it is uncrosslinked in an extraction solvent of acetone/hexane (mass ratio = 42.29:57.71) at 40°C for 160 hours, separating the not extracted residue from the extraction solvent and drying it, measuring the dry weight thereof, and calculating the quantity of solvent-insoluble polymer using the expression Quantity % = w ' ⋅ φ p ' / w ⋅ φ p ⋅ 100 wherein w is the initial weight (g) of the fluororubber composition immersed in the extraction solvent, w' is the dry weight (g) of the extraction residue, φ p is the initial weight fraction of the fluororubber in the fluororubber composition based on the fluororubber composition, and φ p' is the weight fraction of the fluororubber in the extraction residue, based on the extraction residue. (i) a fluororubber and (ii) per 100 pbw of the fluororubber, 5-65 pbw of carbon black having a nitrogen adsorption specific surface area (N 2 SA) of 25-180 m 2 /g and a dibutyl phthalate absorption number of 45-180 ml/100g; and the quantity of a solvent-insoluble polymer is ≥ 5%, determined by immersing the fluororubber composition when it is uncrosslinked in an extraction solvent of acetone/hexane (mass ratio = 42.29:57.71) at 40°C for 160 hours, separating the not extracted residue from the extraction solvent and drying it, measuring the dry weight thereof, and calculating the quantity of solvent-insoluble polymer using the expression Quantity % = w ' ⋅ φ p ' / w ⋅ φ p ⋅ 100 wherein w is the initial weight (g) of the fluororubber composition immersed in the extraction solvent, w' is the dry weight (g) of the extraction residue, φ p is the initial weight fraction of the fluororubber in the fluororubber composition based on the fluororubber composition, and φ p' is the weight fraction of the fluororubber in the extraction residue, based on the extraction residue. w is the initial weight (g) of the fluororubber composition immersed in the extraction solvent, w' is the dry weight (g) of the extraction residue, φ p is the initial weight fraction of the fluororubber in the fluororubber composition based on the fluororubber composition, and φ p' is the weight fraction of the fluororubber in the extraction residue, based on the extraction residue.
A method implemented at a message server system (250, 260), the method comprising: storing an electronic message resistance for each recipient of a plurality of recipients; receiving, from a sending terminal, an electronic message addressed to at least one of the plurality of recipients; and sending the electronic message to the recipient with a priority based on the electronic message resistance for the recipient; wherein sending the electronic message with said priority comprises: determining whether the electronic message resistance for the recipient exceeds a limit based on an electronic message resistance for a sender of the electronic message, wherein the determining comprises determining whether a combined electronic message resistance for electronic messages sent to recipients by the sender during a defined period exceeds said limit, said limit being reset at a start of a next defined period; when the electronic message resistance for the recipient exceeds the limit, either associating a low priority attribute with the electronic message, or delaying sending the electronic message for a defined period of time; and when the electronic message resistance for the recipient does not exceed the limit, sending the electronic message without a low priority attribute and without delaying said sending for a defined period of time. storing an electronic message resistance for each recipient of a plurality of recipients; receiving, from a sending terminal, an electronic message addressed to at least one of the plurality of recipients; and sending the electronic message to the recipient with a priority based on the electronic message resistance for the recipient; determining whether the electronic message resistance for the recipient exceeds a limit based on an electronic message resistance for a sender of the electronic message, wherein the determining comprises determining whether a combined electronic message resistance for electronic messages sent to recipients by the sender during a defined period exceeds said limit, said limit being reset at a start of a next defined period; when the electronic message resistance for the recipient exceeds the limit, either associating a low priority attribute with the electronic message, or delaying sending the electronic message for a defined period of time; and when the electronic message resistance for the recipient does not exceed the limit, sending the electronic message without a low priority attribute and without delaying said sending for a defined period of time.
A battery module including: a plurality of battery cells fixed by a housing; a terminal (100, 200, 300, 400, 500) provided on each of the battery cells and having a fastening portion (102, 202, 302, 402, 502) being a hollow within the terminal; and a bus-bar (110a, 110b, 110c, 210, 310, 410, 510) inserted into the fastening portions (102, 202, 302, 402, 502) of neighboring battery cells and fastened thereto through forcible insertion coupling so that the neighboring battery cells are electrically connected to each other, wherein each terminal has a fastening window so as to check a fastening state between the bus-bar (110a, 110b, 110c) and the fastening portion.
A method for determining a Hybrid Automatic Repeat reQuest,HARQ, process, characterized by comprising: determining, by a terminal, an HARQ process resource parameter; and determining, by the terminal, an HARQ process resource for a current transmission based on the HARQ process resource parameter; wherein the current transmission is a non-dynamic transmission, wherein determining, by the terminal, the HARQ process resource parameter comprises: obtaining, by the terminal, a second HARQ process resource parameter which is configured by a network device; and determining, by the terminal, a third HARQ process resource parameter based on a starting symbol of a transmission opportunity where the current transmission of a configured grant is located and the second HARQ process resource parameter, wherein determining, by the terminal, an HARQ process resource for the current transmission based on the HARQ process resource parameter consists in determining, by the terminal, an HARQ process resource for the current transmission based on the third HARQ process resource parameter. determining, by a terminal, an HARQ process resource parameter; and determining, by the terminal, an HARQ process resource for a current transmission based on the HARQ process resource parameter; wherein the current transmission is a non-dynamic transmission, wherein determining, by the terminal, the HARQ process resource parameter comprises: obtaining, by the terminal, a second HARQ process resource parameter which is configured by a network device; and determining, by the terminal, a third HARQ process resource parameter based on a starting symbol of a transmission opportunity where the current transmission of a configured grant is located and the second HARQ process resource parameter, wherein determining, by the terminal, an HARQ process resource for the current transmission based on the HARQ process resource parameter consists in determining, by the terminal, an HARQ process resource for the current transmission based on the third HARQ process resource parameter. obtaining, by the terminal, a second HARQ process resource parameter which is configured by a network device; and determining, by the terminal, a third HARQ process resource parameter based on a starting symbol of a transmission opportunity where the current transmission of a configured grant is located and the second HARQ process resource parameter, wherein determining, by the terminal, an HARQ process resource for the current transmission based on the HARQ process resource parameter consists in determining, by the terminal, an HARQ process resource for the current transmission based on the third HARQ process resource parameter.
A method for operating a cryptography apparatus to perform a decryption operation having an exponentiation operation X, the method protecting the apparatus from revealing information in regard to the exponentiation operation X when the operation is exposed to a fault attack, the method comprising producing a result equivalent to the exponentiation by: receiving a message m on which to perform a cryptographic operation equivalent to the exponentiation operation S = m d mod n; determining two half-size exponents from the exponent d; splitting the base m into two sub-bases mp and mq determined from the base m; iteratively computing S by repeatedly multiplying an accumulator A by m, mp, mq or 1 depending on the values of the i -th bit of dp and dq for each iteration i; returning as the value S the final value of the accumulator A; and completing the cryptographic operation using the value S obtained from the operation. receiving a message m on which to perform a cryptographic operation equivalent to the exponentiation operation S = m d mod n; determining two half-size exponents from the exponent d; splitting the base m into two sub-bases mp and mq determined from the base m; iteratively computing S by repeatedly multiplying an accumulator A by m, mp, mq or 1 depending on the values of the i -th bit of dp and dq for each iteration i; returning as the value S the final value of the accumulator A; and completing the cryptographic operation using the value S obtained from the operation.