mhurhangee/ep-ind-claims huggingface dataset:
A process for preparing polymeric beads comprising a polymer, wherein the polymer comprises, based on the weight of the polymer, from 25% to 75% by weight of structural units of an acetoacetoxy or acetoacetamide functional monomer, and from 25% to 75% by weight of structural units of a polyvinyl monomer; and wherein the polymeric beads contain at least 5,000 μg/g of an alkali metal ion, measured by Inductively Coupled Plasma, and have a specific surface area in the range of from 80 to 400 m 2 /g determined by the nitrogen adsorption method in which dried and degassed samples were analyzed on an automatic volumetric sorption analyser, said process comprising, (i) suspension polymerization of monomers in the presence of a porogen, wherein the monomers comprise, based on the total weight of monomers, from 25% to 75% by weight of an acetoacetoxy or acetoacetamide functional monomer, and from 25% to 75% by weight of a polyvinyl monomer; and (ii) contacting the obtained polymer from step (i) with a base selected from the group consisting of an alkali metal hydroxide, an alkali metal carbonate, and an alkali metal bicarbonate to obtain the polymeric beads; and wherein the porogen is toluene. from 25% to 75% by weight of structural units of an acetoacetoxy or acetoacetamide functional monomer, and from 25% to 75% by weight of structural units of a polyvinyl monomer; and wherein the polymeric beads contain at least 5,000 μg/g of an alkali metal ion, measured by Inductively Coupled Plasma, and have a specific surface area in the range of from 80 to 400 m 2 /g determined by the nitrogen adsorption method in which dried and degassed samples were analyzed on an automatic volumetric sorption analyser, said process comprising, (i) suspension polymerization of monomers in the presence of a porogen, wherein the monomers comprise, based on the total weight of monomers, from 25% to 75% by weight of an acetoacetoxy or acetoacetamide functional monomer, and from 25% to 75% by weight of a polyvinyl monomer; and (ii) contacting the obtained polymer from step (i) with a base selected from the group consisting of an alkali metal hydroxide, an alkali metal carbonate, and an alkali metal bicarbonate to obtain the polymeric beads; and wherein the porogen is toluene. (i) suspension polymerization of monomers in the presence of a porogen, wherein the monomers comprise, based on the total weight of monomers, from 25% to 75% by weight of an acetoacetoxy or acetoacetamide functional monomer, and from 25% to 75% by weight of a polyvinyl monomer; and from 25% to 75% by weight of an acetoacetoxy or acetoacetamide functional monomer, and from 25% to 75% by weight of a polyvinyl monomer; and (ii) contacting the obtained polymer from step (i) with a base selected from the group consisting of an alkali metal hydroxide, an alkali metal carbonate, and an alkali metal bicarbonate to obtain the polymeric beads; and wherein the porogen is toluene.
Electric compressor for a refrigerant for a motor vehicle, the electric compressor comprising: - a casing which houses a mechanism for compressing the refrigerant and an electric motor for actuating the compression mechanism; - an electric housing which houses a control module of the electric motor; - means for fixing the electric housing onto the casing; characterized in that the means for fixing the electric housing with the casing make it possible to establish at least two different angular configurations of assembly of the electric housing on the casing and relative to a longitudinal axis of the electric compressor, and wherein the fixing means comprise, for each angular configuration of the electric housing on the casing, at least one assembly formed by centring pins configured to engage in complementary accommodating orifices of the electric compressor, and wherein the fixing means comprise at least two centring pins (30a, 30b) and at least three accommodating orifices (310a, 310b, 311a, 311b). - a casing which houses a mechanism for compressing the refrigerant and an electric motor for actuating the compression mechanism; - an electric housing which houses a control module of the electric motor; - means for fixing the electric housing onto the casing; characterized in that the means for fixing the electric housing with the casing make it possible to establish at least two different angular configurations of assembly of the electric housing on the casing and relative to a longitudinal axis of the electric compressor, and wherein the fixing means comprise, for each angular configuration of the electric housing on the casing, at least one assembly formed by centring pins configured to engage in complementary accommodating orifices of the electric compressor, and wherein the fixing means comprise at least two centring pins (30a, 30b) and at least three accommodating orifices (310a, 310b, 311a, 311b).
A passenger aircraft comprising a directionally filtered indicator light located in or near a window of a passenger entry door, the indicator light comprising a light source and a directional filter; wherein the light source has a display surface; wherein the passenger aircraft further comprises a control system, the control system providing power to the light source when a condition or set of conditions are met; wherein the directional filter is arranged adjacent to the display surface, the light source transmitting light through the directional filter; wherein the directional filter regulates the transmitted light to within a viewing angle in at least one orthogonal plane, the viewing angle having been selected to permit a first location to receive the transmitted light and to prevent a second location from receiving the transmitted light; wherein the first location includes an area outside of the passenger aircraft; and wherein the second location is a passenger seating area of the passenger aircraft.
A method for operating a network entity (gNB) for a cellular radio access network, the method comprising: - determining at least one downlink radio condition of the cellular radio access network; - determining user equipments (UE1, UEx) subscribing to a content flow (HPF-1; HPF-2; LPF-1; LPF-2), wherein the content flow (HPF-1; HPF-2; LPF-1; LPF-2) is associated with at least one flow property; - mapping the content flow (HPF-1; HPF-2; LPF-1; LPF-2) to at least one radio bearer in dependence on the at least one downlink radio condition and in dependence on the at least one flow property; - receiving the content flow (HPF-1; HPF-2; LPF-1; LPF-2); and - transmitting the content flow (HPF-1; HPF-2; LPF-1; LPF-2) according to the determined at least one mapping to the subscribing user equipments (UE1, UEx). - determining at least one downlink radio condition of the cellular radio access network; - determining user equipments (UE1, UEx) subscribing to a content flow (HPF-1; HPF-2; LPF-1; LPF-2), wherein the content flow (HPF-1; HPF-2; LPF-1; LPF-2) is associated with at least one flow property; - mapping the content flow (HPF-1; HPF-2; LPF-1; LPF-2) to at least one radio bearer in dependence on the at least one downlink radio condition and in dependence on the at least one flow property; - receiving the content flow (HPF-1; HPF-2; LPF-1; LPF-2); and - transmitting the content flow (HPF-1; HPF-2; LPF-1; LPF-2) according to the determined at least one mapping to the subscribing user equipments (UE1, UEx).
System for cleaning a plurality of sensors (2, 2a, 2b, 2c, 2d) of a motor vehicle, comprising a plurality of devices for spraying a cleaning fluid onto the sensors (2, 2a, 2b, 2c, 2d) and comprising a cleaning fluid storage reservoir, the cleaning system comprising a distribution circuit connected to the storage reservoir and to which each of the spray devices is connected via a solenoid valve (6, 6a, 6b, 6c) specific to it, the cleaning system further comprising an electronic control unit configured to control the operation of at least the distribution circuit, characterized in that it comprises an electronically controlled pump, the control electronics of which are configured to modify a parameter pertaining to the flow of the cleaning fluid in the distribution circuit, on the basis of which solenoid valve or valves are to be actuated and which spray devices are to be supplied with the cleaning fluid.
A method for effecting efficient digestion of waste activated sludge in a wastewater treatment plant, comprising: introducing phagotrophic algae to WAS, to produce a WAS-algae mixture, subjecting the WAS-algae mixture to digestive conditions in a digestion process, maintaining the WAS-algae mixture in the digestion process for a period of time sufficient that preselected volatile solids, specific oxygen uptake rates (SOUR) and pathogen targets have been met in the digested mixture and the microbes and algae have died off substantially, and removing the resulting digested biomass from the digestion process. introducing phagotrophic algae to WAS, to produce a WAS-algae mixture, subjecting the WAS-algae mixture to digestive conditions in a digestion process, maintaining the WAS-algae mixture in the digestion process for a period of time sufficient that preselected volatile solids, specific oxygen uptake rates (SOUR) and pathogen targets have been met in the digested mixture and the microbes and algae have died off substantially, and removing the resulting digested biomass from the digestion process.
A method for wireless communication, characterized by comprising: receiving, by a terminal device, a first bitmap from a network device, wherein the first bitmap is to indicate a time-domain resource allocated for the terminal device by the network device in a first frequency-domain resource unit; and performing, by the terminal device, data transmission with the network device on the time-domain resource indicated by the first bitmap; wherein each bit in the first bitmap corresponds to at least one time-domain resource unit in the first frequency-domain resource unit, and a value of each bit in the first bitmap is to indicate whether the at least one time-domain resource unit corresponding to the bit is used for data transmission of the terminal device; wherein each of the bits in the first bitmap corresponds to a respective one of time-domain resource units in the first frequency-domain resource unit; and wherein the time-domain resource unit comprises a symbol group. receiving, by a terminal device, a first bitmap from a network device, wherein the first bitmap is to indicate a time-domain resource allocated for the terminal device by the network device in a first frequency-domain resource unit; and performing, by the terminal device, data transmission with the network device on the time-domain resource indicated by the first bitmap; wherein each bit in the first bitmap corresponds to at least one time-domain resource unit in the first frequency-domain resource unit, and a value of each bit in the first bitmap is to indicate whether the at least one time-domain resource unit corresponding to the bit is used for data transmission of the terminal device; wherein each of the bits in the first bitmap corresponds to a respective one of time-domain resource units in the first frequency-domain resource unit; and wherein the time-domain resource unit comprises a symbol group.
A system for supplying energy to an implanted medical device for implantation in a patient's body, comprising an internal charger arranged to be implanted in the patient's body, the internal charger comprising a first coil, an external charger arranged to wirelessly transmit energy to supply the internal charger with energy, the external charger comprising a second coil, and a wireless feedback system arranged to transmit feedback information from the internal charger to the external charger, wherein the feedback information is based on information obtained from at least one radio frequency identification (RFID) transmitter, wherein the system is characterised in that; the feedback information from the internal charger to the external charger is related to the strength of an electromagnetic field generated by the external charger, the at least one RFID transmitter is arranged to change its identification in response to the electromagnetic field at the transmitter and to transmit the changed identification when interrogated, wherein the RFID transmitter is arranged to set its identification according to the strength of the received electromagnetic field. an external charger arranged to wirelessly transmit energy to supply the internal charger with energy, the external charger comprising a second coil, and a wireless feedback system arranged to transmit feedback information from the internal charger to the external charger, wherein the feedback information is based on information obtained from at least one radio frequency identification (RFID) transmitter, wherein the system is characterised in that; the feedback information from the internal charger to the external charger is related to the strength of an electromagnetic field generated by the external charger, the at least one RFID transmitter is arranged to change its identification in response to the electromagnetic field at the transmitter and to transmit the changed identification when interrogated, wherein the RFID transmitter is arranged to set its identification according to the strength of the received electromagnetic field.
Method of operating a primary optical node, which is an optical line terminal, OLT, for an optical communications system, wherein said OLT is configured to receive at least one upstream optical signal (uos) from at least one secondary optical node, which is an optical networking unit, ONU, within at least a first wavelength range, and to transmit at least one downstream optical signal (dos) to said at least one ONU within at least a second wavelength range, wherein said OLT - determines a currently unused wavelength subrange within said first wavelength range, wherein said currently unused wavelength subrange comprises a plurality of contiguous unassigned wavelengths and identifies at least a highest and lowest currently unused wavelength in said currently unused wavelength subrange, - assigns a specific target wavelength (λt) within said currently unused wavelength subrange to said ONU, wherein the step of assigning a specific target wavelength (λt) within said currently unused wavelength subrange to said ONU comprises assigning the highest or lowest currently unused wavelength within said currently unused wavelength subrange as said specific target wavelength (λt), - signals said specific target wavelength (λt) to said ONU, - receives an upstream signal (us) from said ONU, and - provides feedback information to said ONU which comprises information on at least one of: a) an actual wavelength and/or wavelength channel of said upstream signal (us) from said ONU, b) an indication whether said actual wavelength of said upstream optical signal (us) is within a predetermined wavelength range with respect to said specific target wavelength (λt). - determines a currently unused wavelength subrange within said first wavelength range, wherein said currently unused wavelength subrange comprises a plurality of contiguous unassigned wavelengths and identifies at least a highest and lowest currently unused wavelength in said currently unused wavelength subrange, - assigns a specific target wavelength (λt) within said currently unused wavelength subrange to said ONU, wherein the step of assigning a specific target wavelength (λt) within said currently unused wavelength subrange to said ONU comprises assigning the highest or lowest currently unused wavelength within said currently unused wavelength subrange as said specific target wavelength (λt), - signals said specific target wavelength (λt) to said ONU, - receives an upstream signal (us) from said ONU, and - provides feedback information to said ONU which comprises information on at least one of: a) an actual wavelength and/or wavelength channel of said upstream signal (us) from said ONU, b) an indication whether said actual wavelength of said upstream optical signal (us) is within a predetermined wavelength range with respect to said specific target wavelength (λt).
A one-component structural adhesive comprising an isocyanate-terminated prepolymer comprising polymerized residues of: (a) 40 to 95 wt% of a polytetramethylene ether glycol; and (b) 5 to 60 wt% of an aliphatic diisocyanate.
Packaging for packing food products, comprising two elements, a container with a base and peripheral wall and an independent lid, the lid being flat and having free edges generally corresponding in shape to the container in order to close it in a stable closed-lid position, characterized in that means (11, 24, 27, 27') for securing the lid to the container are provided at least in the angular zones of the packaging.
A device to device (D2D) discovery method applicable to a user equipment (101, 102, 511, 514, 611, 612, 851, 855, 1100), characterized in comprising: initiating a D2D discovery process with a first window value, wherein the first window value stands for a time window and is a positive number; transmitting a first proximity discovery request comprising the first window value; detecting a cancellation event to cancel the D2D discovery process in response to transmitting the first proximity discovery request; stopping the D2D discovery process if the first window value decreases to a specific threshold in response to detecting the cancellation event; transmitting a first cancel proximity discovery request to cancel the D2D discovery process in response to receiving the cancellation event if another proximity discovery request does not exist within the UE (101, 102, 511, 514, 611, 612, 851, 855, 1100); and detecting a proximity response from a network entity (104, 512, 515, 613, 614, 852, 854) in response to the cancellation event, wherein the network entity (104, 512, 515, 613, 614, 852, 854) is a ProSe Function (104, 512, 515, 613, 614, 852, 854) located within an evolved packet core network. initiating a D2D discovery process with a first window value, wherein the first window value stands for a time window and is a positive number; transmitting a first proximity discovery request comprising the first window value; detecting a cancellation event to cancel the D2D discovery process in response to transmitting the first proximity discovery request; stopping the D2D discovery process if the first window value decreases to a specific threshold in response to detecting the cancellation event; transmitting a first cancel proximity discovery request to cancel the D2D discovery process in response to receiving the cancellation event if another proximity discovery request does not exist within the UE (101, 102, 511, 514, 611, 612, 851, 855, 1100); and detecting a proximity response from a network entity (104, 512, 515, 613, 614, 852, 854) in response to the cancellation event, wherein the network entity (104, 512, 515, 613, 614, 852, 854) is a ProSe Function (104, 512, 515, 613, 614, 852, 854) located within an evolved packet core network.
A process for the production of formic acid and/or formate from CO 2 and lactic acid from glycerol, comprising: - a stage 1, wherein a metal M is reacted with carbon dioxide and water to thereby produce a metal oxide of metal M and formic acid and/or formate; and - a stage 2, wherein the metal oxide of metal M is reacted with glycerol to thereby produce metal, lactic acid and water, wherein the metal M is Iron, Zinc, Aluminium or Manganese. - a stage 1, wherein a metal M is reacted with carbon dioxide and water to thereby produce a metal oxide of metal M and formic acid and/or formate; and - a stage 2, wherein the metal oxide of metal M is reacted with glycerol to thereby produce metal, lactic acid and water,
Cylinder liner for application to an automotive diesel internal combustion engine, the cylinder liner consists of: a) cast iron alloy having a pearlitic structure with at least 70% of graphitization with spheroidal graphite morphology, the cast iron alloy containing • 2.8% to 4.0% in weight of carbon; • 1.8% to 3.5% in weight of silicon; • 0.2% to 1.0% in weight of manganese; • a maximum of 0.5% in weight of phosphorus; • a maximum of 0.05% in weight of sulfur; • a maximum of 0.5% in weight of vanadium; • a maximum of 0.5% in weight of molybdenum; • 0.2% to 1.5% in weight of nickel; • a maximum of 0.3% in weight of tin; • 0.005% to 0.06% in weight of magnesium; • up to 7.0% in weight of at least one among the elements copper, cobalt, titanium, niobium, boron, aluminum, molybdenum, zirconium, nitrogen, antimony, arsenic and bismuth; • and iron as residue; and b) the inner diameter of the cylinder liner having an induction hardening treatment and a hardness 300Hv to 835HV; c) the cylinder liner having an elasticity modulus higher than 130 Gigapascal (GPa); and d) the microstructure of the inner diameter comprises up to 1.5mm of martensitic structure a) cast iron alloy having a pearlitic structure with at least 70% of graphitization with spheroidal graphite morphology, the cast iron alloy containing • 2.8% to 4.0% in weight of carbon; • 1.8% to 3.5% in weight of silicon; • 0.2% to 1.0% in weight of manganese; • a maximum of 0.5% in weight of phosphorus; • a maximum of 0.05% in weight of sulfur; • a maximum of 0.5% in weight of vanadium; • a maximum of 0.5% in weight of molybdenum; • 0.2% to 1.5% in weight of nickel; • a maximum of 0.3% in weight of tin; • 0.005% to 0.06% in weight of magnesium; • up to 7.0% in weight of at least one among the elements copper, cobalt, titanium, niobium, boron, aluminum, molybdenum, zirconium, nitrogen, antimony, arsenic and bismuth; • and iron as residue; and • 2.8% to 4.0% in weight of carbon; • 1.8% to 3.5% in weight of silicon; • 0.2% to 1.0% in weight of manganese; • a maximum of 0.5% in weight of phosphorus; • a maximum of 0.05% in weight of sulfur; • a maximum of 0.5% in weight of vanadium; • a maximum of 0.5% in weight of molybdenum; • 0.2% to 1.5% in weight of nickel; • a maximum of 0.3% in weight of tin; • 0.005% to 0.06% in weight of magnesium; • up to 7.0% in weight of at least one among the elements copper, cobalt, titanium, niobium, boron, aluminum, molybdenum, zirconium, nitrogen, antimony, arsenic and bismuth; • and iron as residue; and b) the inner diameter of the cylinder liner having an induction hardening treatment and a hardness 300Hv to 835HV; c) the cylinder liner having an elasticity modulus higher than 130 Gigapascal (GPa); and d) the microstructure of the inner diameter comprises up to 1.5mm of martensitic structure
A composition comprising: at least 15 wt% of a polyetherimide other than a polyetherimide siloxane copolymer; at least 35 wt% of a polycarbonate; a polyetherimide siloxane copolymer; and optionally, at least one UV stabilizer, wherein the polycarbonate is a copolymer of polycarbonate and siloxane, and wherein the composition exhibits a UV resistance of ΔE ranging from more than 0 to less than or equal to 10 units after exposure to ultraviolet light for 300 hours, per ASTM D-4459. at least 15 wt% of a polyetherimide other than a polyetherimide siloxane copolymer; at least 35 wt% of a polycarbonate; a polyetherimide siloxane copolymer; and optionally, at least one UV stabilizer,
A stable taste masked dry syrup composition of ciprofloxacin comprising ciprofloxacin base granules having particle size ranging from 150 to 600 μm (microns) wherein said granules are granulated with granulating agents selected from Eudragit® E PO, a cationic copolymer based on dimethylaminoethyl methacrylate and neutral methacrylic esters having characteristic white powder with an amine-like odour, HPMC, HPC and combinations and taste masking coating with Eudragit® E PO, a cationic copolymer based on dimethylaminoethyl methacrylate and neutral methacrylic esters having characteristic white powder with and amine-like odour, along with at least one pharmaceutically acceptable excipient.